{"title": "Artificial Photosynthesis: Solar Fuels Nanomaterials", "doi": "10.1017/s1431927614003742", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}]}
{"title": "Artificial photosynthesis – solar fuels: current status and future prospects", "doi": "10.4155/bfs.10.62", "arxivId": "", "year": 2010, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}]}
{"title": "Artificial photosynthesis. Solar fuels from air", "doi": "", "arxivId": "", "year": 2012, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}]}
{"title": "Solar Fuels via Artificial Photosynthesis", "doi": "10.1021/ar900209b", "arxivId": "", "year": 2009, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Artificial photosynthesis for solar fuels", "doi": "10.1039/c1fd00113b", "arxivId": "", "year": 2011, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Artificial Photosynthesis and Solar Fuels", "doi": "10.1021/ar900267k", "arxivId": "", "year": 2009, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}]}
{"title": "Making solar fuels by artificial photosynthesis", "doi": "10.1351/pac-con-10-11-09", "arxivId": "", "year": 2011, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Solar Fuel Production Based on the Artificial Photosynthesis System", "doi": "10.1002/cctc.201000293", "arxivId": "", "year": 2011, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Strategies for Efficient Charge Separation and Transfer in Artificial Photosynthesis of Solar Fuels", "doi": "10.1002/cssc.201701598", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Molecular-Modified Photocathodes for Applications in Artificial Photosynthesis and Solar-to-Fuel Technologies", "doi": "10.1021/acs.chemrev.2c00200", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+fuels"}]}
{"title": "Artificial Photosynthesis Producing Solar Fuels: Natural Tactics of Photosynthesis", "doi": "10.1007/978-3-319-13800-8_2", "arxivId": "", "year": 2015, "sources": ["crossref", "openalex"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Artificial Photosynthesis and Solar Fuels", "doi": "10.1002/9783527825073.ch2", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Saving the sunshine for night: solar fuels from artificial photosynthesis", "doi": "10.1117/2.1201403.005404", "arxivId": "", "year": 2014, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Artificial Trees for Artificial Photosynthesis: Construction of Dendrite-Structured Fe2O3/gC3N4 ZScheme System for Efficient CO2 Reduction into Solar Fuels", "doi": "10.1021/acsaem.0c00750.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Harvesting Solar Energy through Natural or Artificial Photosynthesis: Scientific, Social, Political and Economic Implications", "doi": "10.1039/9781849733038-00001", "arxivId": "", "year": 2011, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Solar fuels production by artificial photosynthesis", "doi": "10.1063/1.4848078", "arxivId": "", "year": 2013, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Artificial photosynthesis: A pathway to solar fuels", "doi": "10.1063/pt.3.5360", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "Multifunctional Materials for Solar Fuels Production by Artificial Photosynthesis", "doi": "10.29363/nanoge.nfm.2019.283", "arxivId": "", "year": 2019, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+fuels&rows=10"}]}
{"title": "SEP environment in the inner heliosphere from Solar Orbiter and Parker Solar Probe", "doi": "", "arxivId": "2408.02330", "year": 2024, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Data assimilation of fuel moisture in WRF-SFIRE", "doi": "", "arxivId": "1309.0159", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Upflows in the upper solar atmosphere", "doi": "10.1007/s11207-021-01792-7", "arxivId": "2102.02429", "year": 2021, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "The \"FIP Effect\" and the Origins of Solar Energetic Particles and of the Solar Wind", "doi": "10.1007/s11207-018-1267-8", "arxivId": "1801.05840", "year": 2018, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Solar structure and evolution", "doi": "10.1007/s41116-020-00028-3", "arxivId": "2007.06488", "year": 2020, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Development of a method for determining the search window for solar flare neutrinos", "doi": "10.1007/s11207-020-01706-z", "arxivId": "1909.10715", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "The Properties of Non-Potential Magnetic Field Parameters in a Super-Active Region with Complex Structures and Strong Solar Flares", "doi": "10.1007/s11207-025-02456-6", "arxivId": "2506.13022", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Energy conversion in Purple Bacteria Photosynthesis", "doi": "", "arxivId": "1107.0191", "year": 2011, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "The State of Self-Organized Criticality of the Sun During the Last 3 Solar Cycles. I. Observations", "doi": "10.1007/s11207-011-9755-0", "arxivId": "1006.4861", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Element Abundances in Solar Energetic Particles and the Solar Corona", "doi": "10.1007/s11207-013-0350-4", "arxivId": "1306.2246", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "Non-oxide semiconductors for artificial photosynthesis: Progress on photoelectrochemical water splitting and carbon dioxide reduction", "doi": "10.1016/j.nantod.2019.100830", "arxivId": "", "year": 2019, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Introductory lecture: sunlight-driven water splitting and carbon dioxide reduction by heterogeneous semiconductor systems as key processes in artificial photosynthesis", "doi": "10.1039/c6fd00221h", "arxivId": "", "year": 2016, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}]}
{"title": "Water splitting–biosynthetic system with CO 2 reduction efficiencies exceeding photosynthesis", "doi": "10.1126/science.aaf5039", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Nonmetallic Abiotic-Biological Hybrid Photocatalyst for Visible Water Splitting and Carbon Dioxide Reduction", "doi": "10.1016/j.isci.2019.100784", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Production of Methane by Sunlight-Driven Photocatalytic Water Splitting and Carbon Dioxide Methanation as a Means of Artificial Photosynthesis", "doi": "10.1021/acsengineeringau.3c00034", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "Beyond water splitting: Artificial photosynthesis for organic chemistry applications", "doi": "10.1016/bs.acat.2025.10.006", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Mechanistic Studies on Artificial Photosynthesis: Photocatalytic Water Oxidation and Carbon Dioxide Reduction with Carbon Nitrides", "doi": "", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "One-dimensional III-nitrides: towards ultrahigh efficiency, ultrahigh stability artificial photosynthesis", "doi": "10.1039/d2ta09967e", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Artificial Photosynthesis Using Nanotechnology", "doi": "10.1007/978-3-031-31111-6_25", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Photosynthesis and Artificial Photosynthesis", "doi": "10.1016/b978-0-323-93940-9.00115-8", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Production of Methane by Sunlight-Driven Photocatalytic Water Splitting and Carbon Dioxide Methanation as a Means of Artificial Photosynthesis", "doi": "10.1021/acsengineeringau.3c00034.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Production of Methane by Sunlight-Driven Photocatalytic Water Splitting and Carbon Dioxide Methanation as a Means of Artificial Photosynthesis", "doi": "10.1021/acsengineeringau.3c00034.s002", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Multidisciplinary Approaches to Solar-driven Water Splitting and Carbon Dioxide Conversion", "doi": "10.1039/9781839167768-00001", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}]}
{"title": "Towards solar fuels : photocatalyst development for water splitting and carbon dioxide reduction", "doi": "10.32657/10356/55387", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}]}
{"title": "Semiconductor-based artificial photosynthesis for water-splitting and CO2 reduction", "doi": "10.1016/b978-0-323-98391-4.00024-1", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}]}
{"title": "Three-Dimensional Cu-Based Nanostructures for Photoelectrochemical Water Splitting and Electrochemical Carbon Dioxide Reduction", "doi": "10.1021/acsaem.4c01197.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+water+splitting+carbon+dioxide+reduction&rows=10"}]}
{"title": "Modeling and simulation in supersonic three-temperature carbon dioxide turbulent channel flow", "doi": "10.1063/5.0129353", "arxivId": "2210.01621", "year": 2022, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Toxicity of Carbon Nanomaterials", "doi": "10.1002/9783527830978.ch6", "arxivId": "2109.13918", "year": 2021, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Evidence for super-exponentially accelerating atmospheric carbon dioxide growth", "doi": "", "arxivId": "1101.2832", "year": 2011, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Encapsulating C59N azafullerene derivatives inside single-wall carbon nanotubes", "doi": "10.1002/pssb.200669200", "arxivId": "cond-mat/0602636", "year": 2006, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Simulation of the carbon dioxide hydrate-water interfacial energy", "doi": "10.1016/j.jcis.2022.05.029", "arxivId": "2601.16653", "year": 2026, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "Structural characterization of carbon nanotubes via the vibrational density of states", "doi": "10.1016/j.carbon.2017.03.030", "arxivId": "1703.03758", "year": 2017, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Water Bridging Dynamics of Polymerase Chain Reaction in the Gauge Theory Paradigm of Quantum Fields", "doi": "", "arxivId": "1804.02436", "year": 2018, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "Carbon Dioxide in Exoplanetary Atmospheres: Rarely Dominant Compared to Carbon Monoxide and Water in Hot, Hydrogen-dominated Atmospheres", "doi": "10.3847/0004-637x/817/2/149", "arxivId": "1507.01944", "year": 2015, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "The fate of carbon dioxide in water-rich fluids at extreme conditions", "doi": "10.1126/sciadv.1601278", "arxivId": "1608.07861", "year": 2016, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+water+splitting+carbon+dioxide+reduction"}]}
{"title": "Bimetallic complexes in artificial photosynthesis for hydrogen production: A review", "doi": "10.1016/j.ijhydene.2011.11.052", "arxivId": "", "year": 2011, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Decoupled Artificial Photosynthesis", "doi": "10.1002/anie.202219076", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Photosynthesis: From Molecular Catalysts for Light‐driven Water Splitting to Photoelectrochemical Cells", "doi": "10.1111/j.1751-1097.2011.00966.x", "arxivId": "", "year": 2011, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Photoelectrochemical Cells for Artificial Photosynthesis: Alternatives to Water Oxidation", "doi": "10.1002/cnma.201900616", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "A Place in the Sun for Artificial Photosynthesis?", "doi": "10.1021/acsenergylett.6b00059", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Molecular cathode and photocathode materials for hydrogen evolution in photoelectrochemical devices", "doi": "10.1016/j.jphotochemrev.2015.08.001", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Atomically dispersed antimony on carbon nitride for the artificial photosynthesis of hydrogen peroxide", "doi": "10.1038/s41929-021-00605-1", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Photoelectrochemical Hydrogen Evolution", "doi": "10.1002/9783527825073.ch5", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Artificial photosynthesis a brief literature review", "doi": "10.22271/plants.2023.v11.i1c.1529", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Review for \"Halide Perovskite Stabilized in a Photoelectrochemical Environment by Impermeable Single Crystal TiO2 for Semi-artificial Photosynthesis\"", "doi": "10.1039/d5ta05513j/v1/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Review for \"Halide Perovskite Stabilized in a Photoelectrochemical Environment by Impermeable Single Crystal TiO2 for Semi-artificial Photosynthesis\"", "doi": "10.1039/d5ta05513j/v1/review3", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Review for \"Halide Perovskite Stabilized in a Photoelectrochemical Environment by Impermeable Single Crystal TiO2 for Semi-artificial Photosynthesis\"", "doi": "10.1039/d5ta05513j/v1/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Review for \"Halide Perovskite Stabilized in a Photoelectrochemical Environment by Impermeable Single Crystal TiO2 for Semi-artificial Photosynthesis\"", "doi": "10.1039/d5ta05513j/v2/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Active Temperature Control in Photoelectrochemical Measurements - Metrology for Artificial Photosynthesis", "doi": "10.22541/au.167285985.57650582/v1", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Decoupled Artificial Photosynthesis via a Catalysis-Redox Coupled COF||BiVO4 Photoelectrochemical Device", "doi": "10.1021/jacs.3c06687.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Efficiency of Photosynthesis and Photoelectrochemical Cells", "doi": "10.1007/978-3-319-77980-5_9", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}]}
{"title": "Hydrogen Storage", "doi": "10.1039/9781837678853-00093", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Going forward and looking back: Artificial photosynthesis and solar generation of hydrogen", "doi": "10.1021/scimeetings.0c01421", "arxivId": "", "year": 2020, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Going forward and looking back: Artificial photosynthesis and solar generation of hydrogen", "doi": "10.1021/scimeetings.0c01422", "arxivId": "", "year": 2020, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+artificial+photosynthesis+hydrogen+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Time-of-Flight Spectroscopy of Muonic Hydrogen Atoms and Molecules", "doi": "", "arxivId": "nucl-ex/0101007", "year": 2001, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Synthesis of Sugar and fixation of CO2 through Artificial Photosynthesis driving by Hydrogen or Electricity", "doi": "", "arxivId": "1009.0310", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "A Review on Explainable Artificial Intelligence for Healthcare: Why, How, and When?", "doi": "10.1109/tai.2023.3266418", "arxivId": "2304.04780", "year": 2023, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Intelligence for Literature Reviews: Opportunities and Challenges", "doi": "", "arxivId": "2402.08565", "year": 2024, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}]}
{"title": "How Metacognitive Architectures Remember Their Own Thoughts: A Systematic Review", "doi": "10.1007/s10462-026-11669-5", "arxivId": "2503.13467", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}]}
{"title": "Can the photosynthesis first step quantum mechanism be explained?", "doi": "", "arxivId": "1005.1337", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "The Artificial Scientist: Logicist, Emergentist, and Universalist Approaches to Artificial General Intelligence", "doi": "10.1007/978-3-030-93758-4_6", "arxivId": "2110.01831", "year": 2021, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Advances in Artificial Intelligence: A Review for the Creative Industries", "doi": "10.1007/s10462-026-11494-w", "arxivId": "2501.02725", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}]}
{"title": "Metal hydride material requirements for automotive hydrogen storage systems", "doi": "10.1016/j.ijhydene.2012.08.112", "arxivId": "1307.0890", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+artificial+photosynthesis+hydrogen+review"}]}
{"title": "Recent advances in the photocatalytic conversion of carbon dioxide to fuels with water and/or hydrogen using solar energy and beyond", "doi": "10.1016/j.ccr.2012.04.018", "arxivId": "", "year": 2012, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Carbon-based two-dimensional layered materials for photocatalytic CO 2 reduction to solar fuels", "doi": "10.1016/j.ensm.2015.12.003", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Photocatalytic Reduction of Carbon Dioxide on TiO2 Heterojunction Photocatalysts—A Review", "doi": "10.3390/ma15030967", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Advances and challenges in developing cocatalysts for photocatalytic conversion of carbon dioxide to fuels", "doi": "10.1007/s12274-022-4705-8", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "A review on the advancements in covalent organic frameworks for photocatalytic reduction of carbon dioxide", "doi": "10.1016/j.ccr.2024.216167", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Photocatalytic reduction of carbon dioxide by titanium oxide-based semiconductors to produce fuels", "doi": "10.1007/s11708-019-0628-9", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Product selectivity of photocatalytic CO2 reduction reactions", "doi": "10.1016/j.mattod.2019.06.009", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Challenges in Photocatalytic Carbon Dioxide Reduction", "doi": "10.1021/prechem.3c00112", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Photocatalytic Reduction of CO 2 on TiO 2 and Other Semiconductors", "doi": "10.1002/anie.201207199", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Photons to Formate: A Review on Photocatalytic Reduction of CO2 to Formic Acid", "doi": "10.3390/nano10122422", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+solar+fuels+review"}]}
{"title": "Photocatalytic Reduction of Carbon Dioxide", "doi": "10.1201/b19148-13", "arxivId": "", "year": 2015, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Decision letter for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v2/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Decision letter for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v1/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}]}
{"title": "ChemInform Abstract: Molecular Approaches to the Photocatalytic Reduction of Carbon Dioxide for Solar Fuels", "doi": "10.1002/chin.201021227", "arxivId": "", "year": 2010, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}]}
{"title": "Review for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v1/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Review for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v1/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Review for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v2/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Review for \"Recent Advances in polyoxometalates for photocatalytic carbon dioxide reduction\"", "doi": "10.1039/d5el00026b/v2/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+solar+fuels+review&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Wireless Solar Water Splitting Device with Robust Cobalt-Catalyzed, Dual-Doped BiVO 4 Photoanode and Perovskite Solar Cell in Tandem: A Dual Absorber Artificial Leaf", "doi": "10.1021/acsnano.5b03859", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Current progress and challenges in engineering viable artificial leaf for solar water splitting", "doi": "10.1016/j.jsamd.2017.08.006", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Combining the lotus leaf effect with artificial photosynthesis: regeneration of underwater superhydrophobicity of hierarchical ZnO/Si surfaces by solar water splitting", "doi": "10.1038/am.2015.74", "arxivId": "", "year": 2015, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Optimizing “Artificial Leaf” Photoanode-Photocathode-Catalyst Interface Systems for Solar Water Splitting", "doi": "10.1149/07237.0001ecst", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Artificial Leaf for Water Splitting Based on a Triple‐Junction Thin‐Film Silicon Solar Cell and a PEDOT:PSS/Catalyst Blend", "doi": "10.1002/ente.201500317", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Water-Splitting Artificial Leaf Based on a Triple-Junction Silicon Solar Cell: One-Step Fabrication through Photoinduced Deposition of Catalysts and Electrochemical Operando Monitoring", "doi": "10.1021/jacs.2c00666", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Water‐Splitting Catalysis and Solar Fuel Devices: Artificial Leaves on the Move", "doi": "10.1002/anie.201300136", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Toward practical solar hydrogen production – an artificial photosynthetic leaf-to-farm challenge", "doi": "10.1039/c8cs00699g", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "The Artificial Leaf", "doi": "10.1021/ar2003013", "arxivId": "", "year": 2012, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "Z‐Scheme Photocatalytic Systems for Solar Water Splitting", "doi": "10.1002/advs.201903171", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+leaf+solar+water+splitting"}]}
{"title": "An Artificial Leaf with Patterned Photocatalysts for Sunlight-Driven Water Splitting", "doi": "10.1021/jacs.4c10807.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Photosynthetic Water Splitting Provides a Blueprint for Artificial Leaf Technology", "doi": "10.1016/j.joule.2017.07.016", "arxivId": "", "year": 2017, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Natural Leaf-Inspired Solar Water Splitting System", "doi": "10.2139/ssrn.4181069", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Plasmonic solar water splitting", "doi": "10.1016/b978-0-443-13957-4.00005-7", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Solar Water Splitting", "doi": "10.1016/c2022-0-02632-5", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Water splitting theory", "doi": "10.1016/b978-0-443-13957-4.00003-3", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Photoelectrochemical water splitting", "doi": "10.1016/b978-0-443-13957-4.00006-9", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Photovoltaic-powered water splitting", "doi": "10.1016/b978-0-443-13957-4.00001-x", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+leaf+solar+water+splitting&rows=10"}]}
{"title": "Solar Modulation of Cosmic Rays during the Declining and Minimum Phases of Solar Cycle 23: Comparison with Past Three Solar Cycles", "doi": "10.1007/s11207-012-9970-3", "arxivId": "1311.7387", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Atandem+photoelectrochemical+devices+solar+fuels"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+solar+fuels+scalability"}]}
{"title": "On the relationship of the 27-day variations of the solar wind velocity and galactic cosmic ray intensity in minimum epoch of solar activity", "doi": "10.1007/s11207-011-9778-6", "arxivId": "1504.00778", "year": 2015, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+leaf+solar+water+splitting"}]}
{"title": "Interfacing Formate Dehydrogenase with Metal Oxides for the Reversible Electrocatalysis and Solar‐Driven Reduction of Carbon Dioxide", "doi": "10.1002/anie.201814419", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Interfacing Formate Dehydrogenase with Metal Oxides for the Reversible Electrocatalysis and Solar‐Driven Reduction of Carbon Dioxide", "doi": "10.1002/ange.201814419", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Molecular Approaches to the Photocatalytic Reduction of Carbon Dioxide for Solar Fuels", "doi": "10.1021/ar9001679", "arxivId": "", "year": 2009, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Light-Driven Heterogeneous Reduction of Carbon Dioxide: Photocatalysts and Photoelectrodes", "doi": "10.1021/acs.chemrev.5b00370", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Thermal‐Driven Dispersion of Bismuth Nanoparticles among Carbon Matrix for Efficient Carbon Dioxide Reduction", "doi": "10.1002/anie.202401333", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Electroreduction of Carbon Dioxide into Formate: A Comprehensive Review", "doi": "10.1002/celc.202100438", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Carbon Dioxide Utilisation—The Formate Route", "doi": "10.1007/978-3-030-58315-6_2", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Photoelectrocatalytic Reduction of Carbon Dioxide", "doi": "10.1016/b978-0-444-62746-9.00012-8", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Thermodynamic and achievable efficiencies for solar-driven electrochemical reduction of carbon dioxide to transportation fuels", "doi": "10.1073/pnas.1519212112", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "A selective and efficient electrocatalyst for carbon dioxide reduction", "doi": "10.1038/ncomms4242", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+formate"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Efficient and Selective Electrochemically Driven Enzyme-Catalyzed Reduction of Carbon Dioxide to Formate using Formate Dehydrogenase and an Artificial Cofactor", "doi": "10.1021/acs.accounts.8b00551.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Formate-Catalyzed Selective Reduction of Carbon Dioxide to Formate Products Using Hydrosilanes", "doi": "10.1021/acssuschemeng.9b02172.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Nanostructured Au Electrode with 100 h Stability for Solar-Driven Electrochemical Reduction of Carbon Dioxide to Carbon Monoxide", "doi": "10.1021/acsomega.1c06720.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Sulfur-Modified Copper Catalysts for the Electrochemical Reduction of Carbon Dioxide to Formate", "doi": "10.1021/acscatal.7b03161.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Electrochemical Reduction of Carbon Dioxide to Syngas and Formate at Dendritic CopperIndium Electrocatalysts", "doi": "10.1021/acscatal.7b01161.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Electrochemical reduction of carbon dioxide to formate on Bi and BiSn electrodes prepared by electrodeposition on copper foil", "doi": "10.58837/chula.the.2020.61", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Solar-driven photoelectrochemical reduction of carbon dioxide to methanol at CuInS2 thin film photocathode", "doi": "10.1016/j.solmat.2012.09.024", "arxivId": "", "year": 2013, "sources": ["crossref", "openalex"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}, {"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Reduction of Carbon Dioxide by a Molybdenum-Containing Formate Dehydrogenase: A Kinetic and Mechanistic Study", "doi": "10.1021/jacs.6b03941.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Ampere-Level Electrolytic Coproduction of Formate with Coupled Carbon Dioxide Reduction and Selective Methanol Oxidation", "doi": "10.1021/acscatal.4c01275.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Photo-catalytic reduction of carbon dioxide to formate", "doi": "10.1016/s0166-9834(00)80498-4", "arxivId": "", "year": 1990, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+formate&rows=10"}]}
{"title": "Non-Equilibrium Spectrum Formation Affecting Solar Irradiance", "doi": "10.1007/s11207-019-1535-2", "arxivId": "1908.04624", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+formate"}]}
{"title": "Tailoring Copper Oxide Semiconductor Nanorod Arrays for Photoelectrochemical Reduction of Carbon Dioxide to Methanol", "doi": "10.1002/cphc.201300080", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "A review on recent developments in solar photoreactors for carbon dioxide conversion to fuels", "doi": "10.1016/j.jcou.2021.101515", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Recent Advances in Solar-Driven Carbon Dioxide Conversion: Expectations versus Reality", "doi": "10.1021/acsenergylett.0c00645", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Unique hole-accepting carbon-dots promoting selective carbon dioxide reduction nearly 100% to methanol by pure water", "doi": "10.1038/s41467-020-16227-3", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Thermodynamic performance of solar-driven methanol steam reforming system for carbon capture and high-purity hydrogen production", "doi": "10.1016/j.applthermaleng.2022.118280", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=solar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Highly selective synthesis of methanol and hydrogen by room temperature catalytic carbon dioxide reduction with boron excited electron activated carbon dioxide driven by tribo-catalysis in boron carbide", "doi": "10.2139/ssrn.7167168", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Reduction of carbon dioxide to methanol driven by temperature-variation", "doi": "10.1360/tb-2021-0236", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Reduction of Carbon Dioxide Emission to Methanol: Economically and Environmentally Study", "doi": "10.2139/ssrn.5111596", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Highly selective synthesis of methanol and hydrogen by room temperature catalytic carbon dioxide reduction with boron excited electron activated carbon dioxide driven by tribo-catalysis in boron carbide", "doi": "10.1039/d6se00685j", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Cobalt Phthalocyanine Axially Coordinated with Carbon Nanotubes for Electrochemical Carbon Dioxide Reduction into Methanol", "doi": "10.1021/acs.langmuir.5c05517.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Electrocatalytic reduction of carbon dioxide to methanol—VI. Use of a solar cell and comparison with that of carbon monoxide", "doi": "10.1016/0013-4686(87)80033-6", "arxivId": "", "year": 1987, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "Solar-Driven Carbon Dioxide Reduction: Can Photovoltaic-Biased Photoelectrocatalysis Beat Photovoltaic-Powered Electrocatalysis, and How?", "doi": "10.46855/energy-proceedings-10425", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "sequential electrochemical reduction of carbon dioxide into methanol in aqueous media with cobalt phthalocyanine", "doi": "10.70675/dbe51a2czc77ez42bcza535z8c5b4238c10c", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=solar+driven+carbon+dioxide+reduction+methanol&rows=10"}]}
{"title": "The Methanol Multibeam Survey", "doi": "", "arxivId": "1210.0979", "year": 2012, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Dielectric and thermodynamic study of Carbon dioxide (CO$_2$) - methanol (CH$_3$OH) mixture", "doi": "", "arxivId": "2203.05498", "year": 2022, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asolar+driven+carbon+dioxide+reduction+methanol"}]}
{"title": "Fabrication and characterization of a p-type Cu3Nb2O8 photocathode toward photoelectrochemical reduction of carbon dioxide", "doi": "10.1016/j.apcatb.2015.03.034", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "An Approach to Ideal Semiconductor Electrodes for Efficient Photoelectrochemical Reduction of Carbon Dioxide by Modification with Small Metal Particles", "doi": "10.1021/jp972663h", "arxivId": "", "year": 1998, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Photoelectrochemical reduction of carbon dioxide at p-type gallium arsenide and p-type indium phosphide electrodes in methanol", "doi": "10.1016/j.cej.2005.12.014", "arxivId": "", "year": 2006, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Modification of semiconductor surface with ultrafine metal particles for efficient photoelectrochemical reduction of carbon dioxide", "doi": "10.1016/s0169-4332(97)00310-3", "arxivId": "", "year": 1997, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Electro and photoelectrochemical reduction of carbon dioxide on multimetallic porphyrins/polyoxotungstate modified electrodes", "doi": "10.1016/j.electacta.2013.10.142", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Photocatalytic and Photoelectrochemical Carbon Dioxide Reduction", "doi": "10.1002/cptc.202100217", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Economic Evaluation of Photoelectrochemical Carbon Monoxide Production", "doi": "10.7849/ksnre.2017.3.13.1.064", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "A photoelectrochemical approach to splitting carbon dioxide for a manned mission to Mars", "doi": "10.1016/s0261-3069(01)00018-8", "arxivId": "", "year": 2001, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Emerging Single-Atom Catalysts and Nanomaterials for Photoelectrochemical Reduction of Carbon Dioxide to Value-Added Products: A Review of the Current State-of-the-Art and Future Perspectives", "doi": "10.1021/acs.energyfuels.3c00311", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Heterogenized homogeneous catalysts for photoelectrochemical carbon dioxide reduction: a path toward ideal hybrid systems", "doi": "10.20517/energymater.2025.170", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Electrochemical and Photoelectrochemical Carbon Dioxide Reduction", "doi": "10.1016/b978-1-85573-799-0.50047-9", "arxivId": "", "year": 1994, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Carbon Dioxide Reduction and Carbon Monoxide Activation Employing a Reactive Uranium(III) Complex", "doi": "10.1021/ja053497r.s004", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Carbon Dioxide Reduction and Carbon Monoxide Activation Employing a Reactive Uranium(III) Complex", "doi": "10.1021/ja053497r.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Carbon Dioxide Reduction and Carbon Monoxide Activation Employing a Reactive Uranium(III) Complex", "doi": "10.1021/ja053497r.s002", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Bifunctional MetalOrganic Layer for Selective Photocatalytic Carbon Dioxide Reduction to Carbon Monoxide", "doi": "10.1021/acscatal.4c04772.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Carbon Dioxide Reduction and Carbon Monoxide Activation Employing a Reactive Uranium(III) Complex", "doi": "10.1021/ja053497r.s003", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Electrochemical reduction of carbon dioxide and carbon monoxide for the production of green fuels and chemicals.", "doi": "10.18297/etd/3478", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Ligand-Engineered MetalOrganic Frameworks for Electrochemical Reduction of Carbon Dioxide to Carbon Monoxide", "doi": "10.1021/acscatal.1c01506.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Photochemical and Photoelectrochemical Reduction of Carbon Dioxide", "doi": "10.1016/b978-0-444-88316-2.50012-7", "arxivId": "", "year": 1993, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Photoelectrochemical Reduction of CO2 Electroreduction", "doi": "10.1201/b20177-17", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+carbon+dioxide+reduction+carbon+monoxide&rows=10"}]}
{"title": "Controlling Carbon Nanostructure Synthesis in Thermal Plasma Jet: Correlation of Process Parameters, Plasma Characteristics, and Product Morphology", "doi": "10.1016/j.carbon.2023.118605", "arxivId": "2512.04880", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Experimental and Theoretical Aspects of the Fragmentation of Carbon's Single and Multi-Walled Nanotubes", "doi": "10.1007/978-3-319-70614-6_71-1", "arxivId": "2511.15467", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Exploring the SDSS Dataset with Linked Scatter Plots: I. EMP, CEMP, and CV Stars", "doi": "10.3847/1538-4365/228/2/19", "arxivId": "1705.01233", "year": 2017, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Application of carbon nanomaterials in the electronic industry", "doi": "10.1016/b978-0-12-821381-0.00017-x", "arxivId": "2004.11629", "year": 2020, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Carbon Nanomaterials to Combat Virus: A perspective in view of COVID-19", "doi": "10.1016/j.cartre.2020.100019", "arxivId": "2012.15101", "year": 2020, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotoelectrochemical+carbon+dioxide+reduction+carbon+monoxide"}]}
{"title": "Scalable Photoelectrochemical Perovskite-BiVO4 Tandem Devices for Solar Fuel Synthesis", "doi": "10.29363/nanoge.nfm.2019.104", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Scalable Photoelectrochemical Perovskite-BiVO4 Tandem Devices for Solar Fuel Synthesis", "doi": "10.29363/nanoge.ngfm.2019.104", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Photoelectrochemical Tandem Cells for Solar Water Splitting", "doi": "10.1021/jp405291g", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Photoelectrochemical devices for solar water splitting – materials and challenges", "doi": "10.1039/c6cs00306k", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Long-term solar water and CO2 splitting with photoelectrochemical BiOI–BiVO4 tandems", "doi": "10.1038/s41563-022-01262-w", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Tandem cells for efficient photoelectrochemical solar fuels production", "doi": "10.29363/nanoge.hopv.2024.150", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Solar-to-Chemical Energy Conversion with Photoelectrochemical Tandem Cells", "doi": "10.2533/chimia.2013.155", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Thermoelectric–Photoelectrochemical Water Splitting under Concentrated Solar Irradiation", "doi": "10.1021/jacs.3c01892", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Electrical and Photoelectrochemical Properties of WO3/Si Tandem Photoelectrodes", "doi": "10.1021/jp311947x", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Simulations of the irradiation and temperature dependence of the efficiency of tandem photoelectrochemical water-splitting systems", "doi": "10.1039/c3ee41302k", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=tandem+photoelectrochemical+devices+solar+fuels"}]}
{"title": "Advanced Device Architectures and Tandem Devices", "doi": "10.1007/978-3-319-29641-8_12", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Review for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v2/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Review for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v2/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Review for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v1/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Review for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v3/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Review for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v1/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Dye Sensitized Photoelectrosynthesis Cells for Making Solar Fuels: From Basic Science to Prototype Devices", "doi": "10.1007/978-3-319-29641-8_13", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v2/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"The scalable growth of high-performance nanostructured heterojunction photoanodes for applications in tandem photoelectrochemical-photovoltaic solar water splitting devices\"", "doi": "10.1039/d4sc08595g/v1/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=tandem+photoelectrochemical+devices+solar+fuels&rows=10"}]}
{"title": "Coupling carbon dioxide reduction with water oxidation in nanoscale photocatalytic assemblies", "doi": "10.1039/c6cs00062b", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Hierarchical Inorganic Assemblies for Artificial Photosynthesis", "doi": "10.1021/acs.accounts.6b00182", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Photocathode functionalized with a molecular cobalt catalyst for selective carbon dioxide reduction in water", "doi": "10.1038/s41467-020-17125-4", "arxivId": "", "year": 2020, "sources": ["openalex", "semantic-scholar"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Artificial Photosynthesis: Solar-Driven Production of Fuels and Chemicals", "doi": "10.32628/ijsrst26133167", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Artificial Photosynthesis: Solar-Driven Production of Fuels and Chemicals", "doi": "10.5281/zenodo.21513112", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "Energy, Charge, and Spin Transport in Molecules and Self-Assembled Nanostructures Inspired by Photosynthesis", "doi": "10.1021/jo060225d", "arxivId": "", "year": 2006, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "From natural to artificial photosynthesis", "doi": "10.1098/rsif.2012.0984", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Gallium Nitride‐Based Artificial Photosynthesis Integrated Devices for Solar Hydrogen Generation and Carbon Dioxide Reduction", "doi": "10.1002/9781119600862.ch11", "arxivId": "", "year": 2024, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Artificial Photosynthesis : Carbon dioxide photoreduction and catalyst heterogenization within solid materials", "doi": "10.70675/78c739fcz5431z4fa5z9897zb9427570ad2a", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Artificial photosynthesis system for the reduction of carbon dioxide to value-added fuels", "doi": "10.1016/b978-0-12-821938-6.00029-3", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Artificial Intelligence Vision Technology Application of Automatic Steam&Heat Flow Detection Integrated with Carbon Dioxide Reduction and Brackish Water Treatment: A Sustainable Environmental Merit of Carbon Neutrality Through Solar-Driven Distillation Device", "doi": "10.2139/ssrn.4727259", "arxivId": "", "year": 2024, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Artificial photosynthesis: sunlight, water, and carbon dioxide into fuels", "doi": "10.1016/b978-0-443-29285-9.00004-9", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "A STUDY OF OXIDATION-REDUCTION POTENTIALS IN RELATION TO THE FUNCTIONS OF LIGHT AND CARBON DIOXIDE IN CHLORELLA PHOTOSYNTHESIS", "doi": "10.1111/j.1438-8677.1953.tb00032.x", "arxivId": "", "year": 1952, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "Photoelectrochemical Water Oxidation and CO<sub>2</sub> Reduction for Artificial Photosynthesis", "doi": "10.1149/ma2014-02/8/585", "arxivId": "", "year": 2014, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=integrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction&rows=10"}]}
{"title": "An Acetate Bound Cobalt Oxide Catalyst for Water Oxidation: Role of Monovalent Anions and Cations In Lowering Overpotential", "doi": "10.1039/c4cp01205d", "arxivId": "1402.5491", "year": 2014, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aintegrated+artificial+photosynthesis+water+oxidation+carbon+dioxide+reduction"}]}
{"title": "Halide and Oxide Double Perovskites As Promising Semiconductor Photocatalysts Candidates for Artificial Photosynthesis of Solar Fuels", "doi": "10.1149/ma2022-02481856mtgabs", "arxivId": "", "year": 2022, "sources": ["openalex", "crossref", "semantic-scholar"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Surface Strategies for Particulate Photocatalysts toward Artificial Photosynthesis", "doi": "10.1016/j.joule.2018.07.030", "arxivId": "", "year": 2018, "sources": ["openalex", "semantic-scholar"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Z-Scheme Water Splitting Using Two Different Semiconductor Photocatalysts", "doi": "10.1021/cs4002089", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Semiconductor photocatalysts for water oxidation: current status and challenges", "doi": "10.1039/c4cp00246f", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Semiconductor/Covalent‐Organic‐Framework Z‐Scheme Heterojunctions for Artificial Photosynthesis", "doi": "10.1002/anie.202000929", "arxivId": "", "year": 2020, "sources": ["openalex", "semantic-scholar"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Resorcinol–formaldehyde resins as metal-free semiconductor photocatalysts for solar-to-hydrogen peroxide energy conversion", "doi": "10.1038/s41563-019-0398-0", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Artificial photosynthesis using metal-complex/semiconductor hybrid photocatalysts: efficient production of solar chemicals from CO 2 and H 2 O", "doi": "", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Design and fabrication of semiconductor photocatalyst for photocatalytic reduction of CO2 to solar fuel", "doi": "10.1007/s40843-014-0003-1", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Polymer Semiconductors for Artificial Photosynthesis: Hydrogen Evolution by Mesoporous Graphitic Carbon Nitride with Visible Light", "doi": "10.1021/ja809307s", "arxivId": "", "year": 2009, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Photocatalytic Water Splitting on Semiconductor-Based Photocatalysts", "doi": "10.1016/bs.acat.2017.09.001", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Ruthenium-Containing Mesoporous Titania: Efficient Photocatalysts for Artificial Photosynthesis Reaction", "doi": "10.1021/acsanm.6c00240.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Synergistic Trimetallic Nanocomposites as VisibleNIRSunlight-Driven Photocatalysts for Efficient Artificial Photosynthesis", "doi": "10.1021/acsami.3c06730.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Chalcogenides-based nanomaterials for artificial photosynthesis", "doi": "10.1016/b978-0-12-820498-6.00009-3", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "High-Temperature Semiconductor-Based Catalyst for Artificial Photosynthesis", "doi": "10.2139/ssrn.4185421", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Polynuclear Photocatalysts in Nanoporous Silica for Artificial Photosynthesis", "doi": "10.2533/chimia.2009.721", "arxivId": "", "year": 2009, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Room-Temperature Synthesis of Covalently Bridged MOP@TpPa-CH3 Composite Photocatalysts for Artificial Photosynthesis", "doi": "10.1021/acs.inorgchem.4c02112.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Chapter 7 Artificial Photosynthesis over Heterogeneous Photocatalysts", "doi": "10.1515/9783110668483-007", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Artificial Photosynthesis with Titania Photocatalysts", "doi": "10.38061/idunas.658011", "arxivId": "", "year": 2019, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Artificial Photosynthesis Inspired by PSII: Water Splitting on Heterogeneous Photocatalysts", "doi": "10.1016/b978-0-12-409547-2.13215-9", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=semiconductor+photocatalysts+artificial+photosynthesis&rows=10"}]}
{"title": "Graphitic Carbon Nitride (g-C3N4)-Based Photocatalysts for Artificial Photosynthesis and Environmental Remediation: Are We a Step Closer To Achieving Sustainability?", "doi": "10.1021/acs.chemrev.6b00075", "arxivId": "", "year": 2016, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Shining light on\n \n ZnIn\n 2\n S\n 4\n \n photocatalysts: Promotional effects of surface and heterostructure engineering toward artificial photosynthesis", "doi": "10.1002/eom2.12204", "arxivId": "", "year": 2022, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "(Invited)\n Ultrasonic Reduction Method for Ag Cocatalyst Loading on the Semiconductor Photocatalysts Towards Enhanced Photocatalytic Conversion of CO\n 2", "doi": "10.1149/ma2025-02472314mtgabs", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "World's Longest Carbon Fixation in Artificial Photosynthesis Using Semiconductor Photocatalysts Achieving carbon fixation exceeding the annual carbon fixed by trees for 350 hours of continuous operation", "doi": "", "arxivId": "", "year": 0, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Hot-carrier photocatalysts for artificial photosynthesis.", "doi": "10.1063/5.0088459", "arxivId": "", "year": 2022, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Solar-Driven CO2 Reduction Using a Semiconductor/Molecule Hybrid Photosystem: From Photocatalysts to a Monolithic Artificial Leaf.", "doi": "10.1021/acs.accounts.1c00564", "arxivId": "", "year": 2021, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Scandium-III-nitrides: A New Material Platform for Semiconductor Photocatalysts with High Reducing Power.", "doi": "10.1021/acs.nanolett.4c05065", "arxivId": "", "year": 2024, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=semiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Interlayer Exchange Coupling in Semiconductor Magnetic/Nonmagnetic Superlattices", "doi": "", "arxivId": "cond-mat/0202377", "year": 2002, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "PhoTorch: A robust and generalized biochemical photosynthesis model fitting package based on PyTorch", "doi": "", "arxivId": "2501.15484", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Transforming Materials Discovery for Artificial Photosynthesis: High-Throughput Screening of Earth-Abundant Semiconductors", "doi": "", "arxivId": "2310.00118", "year": 2023, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}]}
{"title": "Compression, The Fermi Paradox and Artificial Super-Intelligence", "doi": "10.1007/978-3-030-93758-4_5", "arxivId": "2110.01835", "year": 2021, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Creative Problem Solving in Artificially Intelligent Agents: A Survey and Framework", "doi": "10.1613/jair.1.13864", "arxivId": "2204.10358", "year": 2022, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Collective Intelligence Engineering: a Survey of Concepts and Perspectives", "doi": "10.1162/artl_a_00408", "arxivId": "2304.05147", "year": 2023, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Asemiconductor+photocatalysts+artificial+photosynthesis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Hybrid Catalysts for Artificial Photosynthesis: Merging Approaches from Molecular, Materials, and Biological Catalysis", "doi": "10.1021/acs.accounts.9b00619", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Photoelectrochemical Conversion of Carbon Dioxide (CO2) into Fuels and Value-Added Products", "doi": "10.1021/acsenergylett.9b02585", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "\"Current Opinion in Artificial Photosynthesis with Molecular Catalysts\"", "doi": "10.31031/eaes.2020.07.000651", "arxivId": "", "year": 2020, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "Semiconductor‐Based Photoelectrochemical Conversion of Carbon Dioxide: Stepping Towards Artificial Photosynthesis", "doi": "10.1002/asia.201701596", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Artificial Photosynthesis", "doi": "10.1021/bk-2009-1025.ch015", "arxivId": "", "year": 2009, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Hybrid Plasmonic Nanomaterials for Hydrogen Generation and Carbon Dioxide Reduction", "doi": "10.1021/acsenergylett.1c02241", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "(Keynote) Electrochemical and Molecular Approaches for Artificial Photosynthesis", "doi": "10.1149/ma2016-02/49/3613", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=molecular+catalysts+artificial+photosynthesis+carbon+dioxide"}]}
{"title": "Artificial photosynthesis : Molecular catalysts for small molecules activation", "doi": "10.70675/ece20169z70f4z4bfdz9414zc10096c79932", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "Recent Advances in Metal-Based Molecular Photosensitizers for Artificial Photosynthesis", "doi": "10.3390/catal12080919", "arxivId": "", "year": 2022, "sources": ["crossref", "openalex"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Manganese Compounds as Water Oxidizing Catalysts in Artificial Photosynthesis", "doi": "10.5772/26016", "arxivId": "", "year": 2012, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Electro and photo-assisted carbon dioxide reduction on molecular catalysts", "doi": "10.70675/a391e726z204fz4057za180z029153b29284", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "Chapter 3. Copper Catalysts for the Electrochemical Reduction of Carbon Dioxide", "doi": "10.1039/9781782623809-00063", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "Molecular Catalysts for Electrochemical Solar Cells and Artificial Photosynthesis", "doi": "10.1007/978-3-540-70758-5_8", "arxivId": "", "year": 2009, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "Carbon Acquisition Mechanisms of Algae: Carbon Dioxide Diffusion and Carbon Dioxide Concentrating Mechanisms", "doi": "10.1007/978-94-007-1038-2_11", "arxivId": "", "year": 2003, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=molecular+catalysts+artificial+photosynthesis+carbon+dioxide&rows=10"}]}
{"title": "A U-band survey of brown dwarfs in the Taurus Molecular Cloud with the XMM-Newton Optical/UV Monitor", "doi": "10.1051/0004-6361:20065425", "arxivId": "astro-ph/0609027", "year": 2006, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "The air pressure effect on the homogeneous nucleation of carbon dioxide by molecular simulation", "doi": "10.1016/j.atmosres.2010.10.016", "arxivId": "1001.1857", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Thermophysical properties of liquid carbon dioxide under shock compressions: Quantum molecular dynamic simulations", "doi": "10.1063/1.3491834", "arxivId": "1007.1300", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Amolecular+catalysts+artificial+photosynthesis+carbon+dioxide"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Interfacial electron transfer engineering in semi-artificial photosynthesis biohybrid systems for CO2 fixation", "doi": "10.1016/j.greenca.2026.03.010", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "To Biotic or Abiotic: Biohybrid Systems for Artificial Photosynthesis", "doi": "10.1021/acs.chemrev.5c00963", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Efficient Semi‐Artificial Photosynthesis of Ethylene by a Self‐Assembled InP‐Cyanobacterial Biohybrid System", "doi": "10.1002/cssc.202300773", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Photosynthesis of Acetate by Sporomusa ovata –CdS Biohybrid System", "doi": "10.1021/acsami.2c01918", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Preface to the special issue: photosynthesis-inspired biohybrid and biomimetic systems", "doi": "10.1007/s11120-019-00703-z", "arxivId": "", "year": 2020, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Recent Progress in Designing Nanomaterial Biohybrids for Artificial Photosynthesis", "doi": "10.3390/nano15100730", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Emerging Trends in Nanomaterials for Photosynthetic Biohybrid Systems", "doi": "10.1021/acsmaterialslett.2c00752", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Periplasmic biomineralization for semi-artificial photosynthesis", "doi": "10.1126/sciadv.adg5858", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Making the connections: physical and electric interactions in biohybrid photosynthetic systems", "doi": "10.1039/d3ee01265d", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Bioinspiration toward efficient photosynthetic systems: From biohybrids to biomimetics", "doi": "10.1016/j.checat.2021.09.010", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+biohybrid+systems"}]}
{"title": "Toward Next-Generation Semiartificial Photosynthesis: Multidisciplinary Engineering of Biohybrid Systems", "doi": "10.1021/acs.chemrev.5c00658.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Chemical maturation of hydrogenases : an insight into artificial and biohybrid systems", "doi": "10.70675/d9481858zb272z4d50z960ezf6529ea81c06", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Biohybrid Artificial Liver Systems", "doi": "10.1007/978-3-662-44324-8_100044", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Review for \"Conjugated polymer nanoparticles boosting growth and photosynthesis in biohybrid plants\"", "doi": "10.1039/d5mh00341e/v1/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Review for \"Conjugated polymer nanoparticles boosting growth and photosynthesis in biohybrid plants\"", "doi": "10.1039/d5mh00341e/v2/review2", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Biohybrid Artificial Liver (BAL) Systems", "doi": "10.1007/978-3-642-40872-4_57-3", "arxivId": "", "year": 2014, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Review for \"Conjugated polymer nanoparticles boosting growth and photosynthesis in biohybrid plants\"", "doi": "10.1039/d5mh00341e/v1/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Review for \"Conjugated polymer nanoparticles boosting growth and photosynthesis in biohybrid plants\"", "doi": "10.1039/d5mh00341e/v1/review3", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Review for \"Conjugated polymer nanoparticles boosting growth and photosynthesis in biohybrid plants\"", "doi": "10.1039/d5mh00341e/v2/review1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+biohybrid+systems&rows=10"}]}
{"title": "Biological Inspiration for Artificial Immune Systems", "doi": "", "arxivId": "1001.2208", "year": 2010, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Intelligent Biohybrid Neurotechnologies: Are They Really What They Claim?", "doi": "", "arxivId": "1607.05023", "year": 2016, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}]}
{"title": "Wireless bioelectronic control architectures for biohybrid robotic systems", "doi": "", "arxivId": "2603.24959", "year": 2026, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}]}
{"title": "Unleashing Artificial Cognition: Integrating Multiple AI Systems", "doi": "", "arxivId": "2408.04910", "year": 2024, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}]}
{"title": "When Plants Respond: Electrophysiology and Machine Learning for Green Monitoring Systems", "doi": "", "arxivId": "2506.23872", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+biohybrid+systems"}]}
{"title": "Solar-driven liquid multi-carbon fuel production using a standalone perovskite–BiVO4 artificial leaf", "doi": "10.1038/s41560-023-01262-3", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "“Artificial Leaf” Device Based on Perovskite Solar Cells for Solar-Driven Fuel Conversion: A Mini Review", "doi": "10.1021/acs.energyfuels.5c01362", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Floating perovskite-BiVO4 devices for scalable solar fuel production", "doi": "10.1038/s41586-022-04978-6", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Solar energy: Springtime for the artificial leaf", "doi": "10.1038/510022a", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Leaf-architectured 3D Hierarchical Artificial Photosynthetic System of Perovskite Titanates Towards CO2 Photoreduction Into Hydrocarbon Fuels", "doi": "10.1038/srep01667", "arxivId": "", "year": 2013, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}, {"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Engineering of a viable artificial leaf for solar fuel generation", "doi": "10.70675/efb8a344z85a1z499fzb559z88ca63ff326b", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Bifunctional Perovskite‐BiVO4 Tandem Devices for Uninterrupted Solar and Electrocatalytic Water Splitting Cycles", "doi": "10.1002/adfm.202008182", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Efficient and Ultrastable Iodide Oxidation Reaction Over Defect‐Passivated Perovskite Photoanode for Unassisted Solar Fuel Production", "doi": "10.1002/aenm.202401055", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Toward a Low‐Cost Artificial Leaf: Driving Carbon‐Based and Bifunctional Catalyst Electrodes with Solution‐Processed Perovskite Photovoltaics", "doi": "10.1002/aenm.201600738", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "A Monolithic Artificial Leaf for Solar Methanol Production from CO 2 and H 2 O", "doi": "10.1021/jacs.6c04213", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=perovskite+artificial+leaf+solar+fuels"}]}
{"title": "Decision letter for \"Perovskite solar cells for space applications\"", "doi": "10.1039/d6se00770h/v3/decision1", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"Perovskite solar cells for space applications\"", "doi": "10.1039/d6se00770h/v1/decision1", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"Perovskite solar cells for space applications\"", "doi": "10.1039/d6se00770h/v2/decision1", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Themed issue on perovskite solar cells: research on metal halide perovskite solar cells towards deeper understanding, upscalable fabrication, long-term stability and Pb-free alternatives", "doi": "10.1039/c8se90060d", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Halide perovskite photocatalytic composites for solar fuels", "doi": "10.29363/nanoge.matsus.2024.047", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "A ‘bionic leaf’ turns solar energy into chemicals and fuels", "doi": "10.64628/aai.pdd43d67a", "arxivId": "", "year": 2015, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"The role of perovskite composition, dimensionality, and additives in lead-free perovskite solar cells longevity: a review\"", "doi": "10.1039/d5se00738k/v1/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Decision letter for \"The role of perovskite composition, dimensionality, and additives in lead-free perovskite solar cells longevity: a review\"", "doi": "10.1039/d5se00738k/v2/decision1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=perovskite+artificial+leaf+solar+fuels&rows=10"}]}
{"title": "Dynamic electrical behavior of halide perovskite based solar cells", "doi": "10.1016/j.solmat.2016.09.012", "arxivId": "1606.00335", "year": 2016, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aperovskite+artificial+leaf+solar+fuels"}]}
{"title": "Influence of Copper Valence in CuOx/TiO2 Catalysts on the Selectivity of Carbon Dioxide Photocatalytic Reduction Products", "doi": "10.3390/nano14231930", "arxivId": "", "year": 2024, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Photocatalytic C–C Coupling from Carbon Dioxide Reduction on Copper Oxide with Mixed-Valence Copper(I)/Copper(II)", "doi": "10.1021/jacs.1c00206", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Copper-Based Catalysts for Electrochemical Carbon Dioxide Reduction to Multicarbon Products", "doi": "10.1007/s41918-022-00139-5", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Size-dependent activity and selectivity of carbon dioxide photocatalytic reduction over platinum nanoparticles", "doi": "10.1038/s41467-018-03666-2", "arxivId": "", "year": 2018, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Efficient photocatalytic CO2 reduction over copper-containing polyoxometalate grafted on blue TiO2 catalyst", "doi": "10.1016/j.cej.2026.177930", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Selective electroreduction of carbon dioxide to methanol on copper selenide nanocatalysts", "doi": "10.1038/s41467-019-08653-9", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Metal-Oxo Cluster Catalysts for Photocatalytic Water Splitting and Carbon Dioxide Reduction", "doi": "10.1007/s12209-022-00324-z", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Silicon Nanowire-Supported Catalysts for the Photocatalytic Reduction of Carbon Dioxide", "doi": "10.3390/engproc2024076081", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Synthesis and Application of Copper‐Based Nanostructured Catalysts in Carbon Dioxide Reduction", "doi": "10.1002/cmt2.70002", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Selectivity Modulated by Surface Ligands on Cu2O/TiO2 Catalysts for Gas-Phase Photocatalytic Reduction of Carbon Dioxide", "doi": "10.1021/acs.jpcc.9b05780.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Electrocatalytic reduction of carbon dioxide on copper-based catalysts", "doi": "10.70675/6bbedbbazc7d7z4284z8a8czf769797ac90a", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Influence of Copper Valence in CuO&lt;sub&gt;x&lt;/sub&gt;/TiO&lt;sub&gt;2&lt;/sub&gt; Catalysts on the Selectivity of Carbon Dioxide Photocatalytic Reduction Products", "doi": "10.20944/preprints202410.0761.v1", "arxivId": "", "year": 2024, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Ligand-Controlled Product Selectivity in Electrochemical Carbon Dioxide Reduction Using Manganese Bipyridine Catalysts", "doi": "10.1021/jacs.9b11806.s002", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Ligand-Controlled Product Selectivity in Electrochemical Carbon Dioxide Reduction Using Manganese Bipyridine Catalysts", "doi": "10.1021/jacs.9b11806.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Photocatalytic CC Coupling from Carbon Dioxide Reduction on Copper Oxide with Mixed-Valence Copper(I)/Copper(II)", "doi": "10.1021/jacs.1c00206.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "A Kinetic View on Proximity-Dependent Selectivity of Carbon Dioxide Reduction on Bifunctional Catalysts", "doi": "10.1021/acscatal.0c03414.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "A Kinetic View on Proximity-dependent Selectivity of Carbon Dioxide Reduction on Bifunctional Catalysts", "doi": "10.26434/chemrxiv.12364121.v1", "arxivId": "", "year": 2020, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "Morphology Manipulation of Copper Nanocrystals and Product Selectivity in the Electrocatalytic Reduction of Carbon Dioxide", "doi": "10.1021/acscatal.9b00790.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=copper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity&rows=10"}]}
{"title": "The effects of copper doping on photocatalytic activity at (101) planes of anatase TiO2: A theoretical study", "doi": "10.1016/j.apsusc.2016.06.178", "arxivId": "1811.09157", "year": 2018, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Photocatalytic Carbon Dioxide Methanation by High-Entropy Oxides: Significance of Work Function", "doi": "10.1016/j.apcatb.2025.125259", "arxivId": "2503.15799", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Water structure near the surface of Weyl semimetals as catalysts in photocatalytic proton reduction", "doi": "10.1063/4.0000008", "arxivId": "2004.10006", "year": 2020, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Catalyst-mediated etching of carbon nanotubes exhibiting electronic-structure insensitivity and reciprocal kinetics with growth", "doi": "10.1016/j.carbon.2025.120530", "arxivId": "2504.19169", "year": 2025, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acopper+catalysts+photocatalytic+carbon+dioxide+reduction+selectivity"}]}
{"title": "Highly improved photoreduction of carbon dioxide to methanol using cobalt phthalocyanine grafted to graphitic carbon nitride as photocatalyst under visible light irradiation", "doi": "10.1016/j.jcis.2019.02.061", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Molecularly engineered photocatalyst sheet for scalable solar formate production from carbon dioxide and water", "doi": "10.1038/s41560-020-0678-6", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Hybrid Carbon Dioxide Reduction Photocatalysts Consisting of Macrocyclic Cobalt(III) Complexes Deposited on Semiconductor Surfaces", "doi": "10.1002/cptc.201900282", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "An exploration of molecular electro- and photocatalysts towards carbon dioxide reduction and hydrogen evolution", "doi": "", "arxivId": "", "year": 2017, "sources": ["openalex", "semantic-scholar"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Electrochemical Reduction of CO2: A Review of Cobalt Based Catalysts for Carbon Dioxide Conversion to Fuels", "doi": "10.3390/nano11082029", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "A review of iron and cobalt porphyrins, phthalocyanines and related complexes for electrochemical and photochemical reduction of carbon dioxide", "doi": "10.1142/s1088424615300013", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Metal–Organic Frameworks for Electrocatalytic Reduction of Carbon Dioxide", "doi": "10.1021/jacs.5b08212", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Photochemical reduction of carbon dioxide to formic acid", "doi": "10.1039/d0gc04040a", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Metal-organic framework photocatalysts for carbon dioxide reduction", "doi": "10.1016/b978-0-12-823007-7.00016-x", "arxivId": "", "year": 2021, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Molecular Cobalt Complexes with Pendant Amines for Selective Electrocatalytic Reduction of Carbon Dioxide to Formic Acid", "doi": "10.1021/jacs.6b11474.s004", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Molecular Cobalt Complexes with Pendant Amines for Selective Electrocatalytic Reduction of Carbon Dioxide to Formic Acid", "doi": "10.1021/jacs.6b11474.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Molecular Cobalt Complexes with Pendant Amines for Selective Electrocatalytic Reduction of Carbon Dioxide to Formic Acid", "doi": "10.1021/jacs.6b11474.s002", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Molecular Cobalt Complexes with Pendant Amines for Selective Electrocatalytic Reduction of Carbon Dioxide to Formic Acid", "doi": "10.1021/jacs.6b11474.s005", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Molecular Cobalt Complexes with Pendant Amines for Selective Electrocatalytic Reduction of Carbon Dioxide to Formic Acid", "doi": "10.1021/jacs.6b11474.s003", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Highly Active Ruthenium CNC Pincer Photocatalysts for Visible-Light-Driven Carbon Dioxide Reduction", "doi": "10.1021/acs.inorgchem.9b00791.s002", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Highly Active Ruthenium CNC Pincer Photocatalysts for Visible-Light-Driven Carbon Dioxide Reduction", "doi": "10.1021/acs.inorgchem.9b00791.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Effect of solvents on photocatalytic reduction of carbon dioxide using semiconductor photocatalysts", "doi": "10.1016/s0167-2991(98)80819-7", "arxivId": "", "year": 1998, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction&rows=10"}]}
{"title": "Cobalt-based Polymerized Porphyrinic Network for Visible-light-driven CO2 Reduction.", "doi": "10.1021/acsami.4c04487", "arxivId": "", "year": 2024, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Cobalt-Porphyrin-Based Covalent Organic Frameworks with Donor-Acceptor Units as Photocatalysts for Carbon Dioxide Reduction.", "doi": "10.1002/anie.202307991", "arxivId": "", "year": 2023, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Strengthening Intermediate Adsorption on a Cobalt Phthalocyanine Assembly by Polymeric Modification for Electrochemical Carbon Dioxide Reduction into Methanol.", "doi": "10.1002/anie.202517033", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "In situ Electropolymerized 3D Microporous Cobalt‐Porphyrin Nanofilm for Highly Effective Molecular Electrocatalytic Reduction of Carbon Dioxide", "doi": "10.1002/adma.202303179", "arxivId": "", "year": 2023, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Cobalt-based heterogeneous catalysts for photocatalytic carbon dioxide reduction", "doi": "10.1007/s42864-023-00208-2", "arxivId": "", "year": 2023, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Barium titanate photocatalysts with silver-manganese dual cocatalyst for carbon dioxide reduction with water.", "doi": "10.1039/d4dt01147c", "arxivId": "", "year": 2024, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Controlling the Product Platform of Carbon Dioxide Reduction: Adaptive Catalytic Hydrosilylation of CO2 Using a Molecular Cobalt(II) Triazine Complex", "doi": "10.1002/anie.202004463", "arxivId": "", "year": 2020, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Promoting the Cobalt Phthalocyanine-Catalyzed Electrochemical Reduction of Carbon Dioxide with the Coadsorption of Melamine.", "doi": "10.1021/acsami.5c03904", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=cobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "High-pressure molecular phases of solid carbon dioxide", "doi": "10.1103/physrevlett.91.065501", "arxivId": "cond-mat/0305370", "year": 2003, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Acobalt+molecular+photocatalysts+carbon+dioxide+reduction"}]}
{"title": "Realizing InGaN monolithic solar-photoelectrochemical cells for artificial photosynthesis", "doi": "10.1063/1.4871105", "arxivId": "", "year": 2014, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Artificial photosynthesis: Emerging strategies for solar-to-fuel conversion", "doi": "10.1016/j.inoche.2026.116502", "arxivId": "", "year": 2026, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Perovskite – A wonder catalyst for solar hydrogen production", "doi": "10.1016/j.jechem.2020.08.057", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Harnessing Solar Energy for Hydrogen Generation: Advances in Artificial Photosynthesis", "doi": "10.33258/birex.v8i1.8147", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "( Invited) Design Principles of Heterocatalysts for Solar Fuel Production via Artificial Photosynthesis", "doi": "10.1149/ma2026-01371910mtgabs", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Artificial photosynthesis: opportunities and challenges of molecular catalysts", "doi": "10.1039/c8cs00897c", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Photosynthesis with Inorganic Particles", "doi": "10.1039/9781788010313-00214", "arxivId": "", "year": 2018, "sources": ["openalex", "crossref"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Production d'hydrogène solaire par photosynthèse artificielle", "doi": "10.51257/a-v1-re405", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "The Ultimate: Artificial Photosynthesis", "doi": "10.1142/9789813223127_0009", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Artificial Photosynthesis", "doi": "10.1002/9781118659892.ch4", "arxivId": "", "year": 2013, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Nanostructured phosphides as photoelectrode materials for artificial photosynthesis", "doi": "10.1117/12.894298", "arxivId": "", "year": 2011, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Improving the Stability and Efficiency of CuO Photocathodes for Solar Hydrogen Production through Modification with Iron", "doi": "10.1021/acsami.8b09892.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}]}
{"title": "Cu-Based Materials as Photocatalysts for Solar Light Artificial Photosynthesis: Aspects of Engineering Performance, Stability, Selectivity", "doi": "10.3390/solar3010008", "arxivId": "", "year": 2023, "sources": ["crossref", "openalex", "semantic-scholar"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+hydrogen+efficiency+stability&rows=10"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}, {"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Hydrogen and the Abundances of Elements in Impulsive Solar Energetic-Particle Events", "doi": "10.1007/s11207-019-1427-5", "arxivId": "1901.04369", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Novel high efficiency quadruple junction solar cell with current matching and quantum efficiency simulations", "doi": "10.1016/j.solener.2016.09.031", "arxivId": "1905.08024", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}, {"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Hydrogen and the Abundances of Elements in Gradual Solar Energetic-Particle Events", "doi": "10.1007/s11207-019-1460-4", "arxivId": "1902.03208", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+hydrogen+efficiency+stability"}]}
{"title": "Artificial Photosynthesis at Efficiencies Greatly Exceeding That of Natural Photosynthesis", "doi": "10.1021/acs.accounts.9b00380", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Solar energy conversion: From natural to artificial photosynthesis", "doi": "10.1016/j.jphotochemrev.2017.02.001", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Energy Conversion in Photosynthesis: A Paradigm for Solar Fuel Production", "doi": "10.1146/annurev-conmatphys-062910-140503", "arxivId": "", "year": 2011, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Artificial Photosynthesis for Production of Solar Fuels and Chemicals", "doi": "10.1039/9781839167645-00254", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Renewable fuels from concentrated solar power: towards practical artificial photosynthesis", "doi": "10.1039/c5ee02214b", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Quantum Dot–Enabled Artificial Photosynthesis: AI-Designed Catalysts for Solar-to-Fuel Conversion", "doi": "10.62311/nesx/rb-978-81-999904-1-8", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Molecular-Modified Photocathodes for Applications in Artificial Photosynthesis and Solar-to-Fuel Technologies", "doi": "10.1021/acs.chemrev.2c00200.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Photosynthesis to Solar Fuels: An Introduction", "doi": "10.1201/9781315370538-9", "arxivId": "", "year": 2017, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "ChemInform Abstract: Solar Fuel Oroduction Based on the Artificial Photosynthesis System", "doi": "10.1002/chin.201126267", "arxivId": "", "year": 2011, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Molecular Catalysts Immobilised on Photocathodes for Solar Fuel Generation", "doi": "10.1039/9781839167768-00120", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+solar+to+fuel+efficiency&rows=10"}]}
{"title": "Predicting fuel research octane number using Fourier-transform infrared absorption spectra of neat hydrocarbons", "doi": "10.1016/j.fuel.2016.06.097", "arxivId": "1606.07122", "year": 2016, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+solar+to+fuel+efficiency"}]}
{"title": "Immobilization of molecular catalysts for artificial photosynthesis", "doi": "10.1186/s40580-020-00248-1", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}]}
{"title": "Redox-active ligands in artificial photosynthesis: a review", "doi": "10.1007/s10311-022-01448-3", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}]}
{"title": "Artificial Photosynthesis at Dynamic Self‐Assembled Interfaces in Water", "doi": "10.1002/chem.201503712", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}]}
{"title": "Supramolecular strategies in artificial photosynthesis", "doi": "10.1039/d0sc03715j", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Functionalized 2D defect g-C3N4 for artificial photosynthesis of H2O2 and synchronizing tetracycline fluorescence detection and degradation", "doi": "10.1016/j.envres.2023.116345", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}]}
{"title": "การพฒนาการสงเคราะหแสงเทยมดวยเทคโนโลยนาโน (Development of the Artificial Photosynthesis by Nanotechnology)", "doi": "", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}]}
{"title": "Artificial Photosynthesis: Beyond Mimicking Nature", "doi": "10.1002/cssc.201702106", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+catalyst+degradation"}, {"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial photosynthesis gets a boost from new catalyst", "doi": "10.34193/ei-r-6133", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Photocatalyst sheets for artificial photosynthesis", "doi": "10.29363/nanoge.ecat.2023.031", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Confining Molecular Photosensitizer and Catalyst in MOF toward Artificial Photosynthesis: Validating Electron Transfer by In Situ DRIFT Study", "doi": "10.1021/acsami.3c01153.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Gathering Light: Artificial Photosynthesis", "doi": "10.5772/39061", "arxivId": "", "year": 2012, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Factors Controlling the Photochemical Two-Electron Water Oxidation Initiated By One-Electron in the Molecular Catalyst Sensitized System for Artificial Photosynthesis", "doi": "10.1021/acs.jpcc.3c07534.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Symmetry-Engineered BINOL-Based Porous Aromatic Frameworks for H2O2 Production via Artificial Photosynthesis and In Situ Degradation of Pharmaceutical Pollutants", "doi": "10.1021/acsami.4c12975.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}]}
{"title": "Artificial Photosynthesis from a Chemical Engineering Perspective", "doi": "10.5772/26909", "arxivId": "", "year": 2012, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+catalyst+degradation&rows=10"}, {"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Application of Artificial Neural Networks for Catalysis", "doi": "", "arxivId": "2110.00924", "year": 2021, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}]}
{"title": "Ni-O-Ag catalyst enables 103-m$^2$ artificial photosynthesis with >16% solar-to-chemical energy conversion efficiency", "doi": "", "arxivId": "2307.12783", "year": 2023, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+catalyst+degradation"}]}
{"title": "A stable covalent organic framework for photocatalytic carbon dioxide reduction", "doi": "10.1039/c9sc03800k", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Unlocking bimetallic active sites via a desalination strategy for photocatalytic reduction of atmospheric carbon dioxide", "doi": "10.1038/s41467-022-29671-0", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Unlocking full and fast conversion in photocatalytic carbon dioxide reduction for applications in radio-carbonylation", "doi": "10.1038/s41467-023-40136-w", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "(Photo)electrocatalytic Versus Heterogeneous Photocatalytic Carbon Dioxide Reduction", "doi": "10.1002/cptc.202100030", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Promoting Photocatalytic Carbon Dioxide Reduction by Tuning the Properties of Cocatalysts", "doi": "10.1002/chem.202203387", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Photocatalytic Reduction of Carbon Dioxide: Designing the Active Sites and Tracking the Pathways", "doi": "10.1002/asia.202500106", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Mechanism of Photocatalytic Reduction of CO2 by Re(bpy)(CO)3Cl from Differences in Carbon Isotope Discrimination", "doi": "10.1021/acscatal.6b01208", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "A Highly Conjugated Nickel(II)‐Acetylide Framework for Efficient Photocatalytic Carbon Dioxide Reduction", "doi": "10.1002/anie.202418269", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Construction of a ternary WO3/CsPbBr3/ZIF-67 heterostructure for enhanced photocatalytic carbon dioxide reduction", "doi": "10.1007/s40843-021-1962-9", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Metallopolymers for photocatalytic reduction of carbon dioxide", "doi": "10.58837/chula.the.2024.308", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Recent Progress in Using Photocatalytic Carbon Dioxide Reduction Technology to Compound Methane", "doi": "10.5220/0013913800004914", "arxivId": "", "year": 2024, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Photocatalytic reduction of carbon dioxide (CO2)", "doi": "10.1533/9781845699581.4.463", "arxivId": "", "year": 2010, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photocatalytic+carbon+dioxide+reduction+isotope+controls&rows=10"}]}
{"title": "Control of habitat's carbon dioxide level by biomass burning", "doi": "", "arxivId": "1908.04113", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Carbon dioxide to carbon nanotube scale-up", "doi": "", "arxivId": "1710.07246", "year": 2017, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aphotocatalytic+carbon+dioxide+reduction+isotope+controls"}]}
{"title": "Atomic-Scale Tuning of Graphene/Cubic SiC Schottky Junction for Stable Low-Bias Photoelectrochemical Solar-to-Fuel Conversion", "doi": "10.1021/acsnano.0c00986", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "In situ characterizations of photoelectrochemical cells for solar fuels and chemicals", "doi": "10.1557/mre.2020.37", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Photoelectrochemical valorisation of organic waste for the cogeneration of solar fuels and value-added chemicals", "doi": "10.1039/d5sc03146j", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Solar Electricity and Solar Fuels: Status and Perspectives in the Context of the Energy Transition", "doi": "10.1002/chem.201503580", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Semiconducting materials for photoelectrochemical energy conversion", "doi": "10.1038/natrevmats.2015.10", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Kilowatt-scale solar hydrogen production system using a concentrated integrated photoelectrochemical device", "doi": "10.1038/s41560-023-01247-2", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "The 2022 solar fuels roadmap", "doi": "10.1088/1361-6463/ac6f97", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=photoelectrochemical+solar+fuels+scalability"}]}
{"title": "Scalability aspects and real-world implementation of electrochemical and photoelectrochemical processes for CO2 reduction", "doi": "10.1016/b978-0-443-29285-9.00007-4", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Photoelectrochemical Reaction Engineering for Solar Fuels Production", "doi": "10.1002/9781119460008.ch1", "arxivId": "", "year": 2018, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Materials and systems for unassisted photoelectrochemical solar fuels production (Conference Presentation)", "doi": "10.1117/12.2238401", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Beyond Solar Fuels: Photoelectrochemical Approaches to Negative Emissions", "doi": "10.29363/nanoge.nfm.2019.275", "arxivId": "", "year": 2019, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Photoelectrochemical Technologies for Solar Fuels Production: from Materials to Prototypes", "doi": "10.29363/nanoge.matsus.2024.025", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Solar Water-Splitting", "doi": "10.1201/9781003211761-4", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Beyond Solar Fuels: Photoelectrochemical Approaches to Negative Emissions", "doi": "10.29363/nanoge.ngfm.2019.275", "arxivId": "", "year": 2019, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Oxide and halide perovskite photoelectrochemical and photocatalytic materials for solar fuels", "doi": "10.29363/nanoge.matsus.2023.066", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=photoelectrochemical+solar+fuels+scalability&rows=10"}]}
{"title": "Life cycle assessment and techno-economic analysis of sustainable bioenergy production: a review", "doi": "10.1007/s10311-023-01694-z", "arxivId": "", "year": 2024, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Techno-economic analysis of microalgae production for aquafeed in Norway", "doi": "10.1016/j.algal.2022.102679", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Artificial Photosynthesis- Progress and Prospects", "doi": "10.1149/ma2015-02/50/1951", "arxivId": "", "year": 2015, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Techno-economic analysis reveals the untapped potential of wood biochar", "doi": "10.1016/j.chemosphere.2021.133000", "arxivId": "", "year": 2021, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Techno-economic analysis of living biocomposites for carbon capture from breweries", "doi": "10.1016/j.algal.2022.102781", "arxivId": "", "year": 2022, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "A Stochastic Techno-Economic Assessment of Emerging Artificial Photosynthetic Bio-Electrochemical Systems for CO2 Conversion", "doi": "10.69997/sct.186579", "arxivId": "", "year": 2025, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Techno-economic analysis and engineering design consideration of algal biofuel in southern Nevada", "doi": "", "arxivId": "", "year": 2011, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Techno-economic analysis of micro-algae bio-jet fuel production processes", "doi": "", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Commercial astaxanthin production derived by green alga Haematococcus pluvialis : A microalgae process model and a techno-economic assessment all through production line", "doi": "10.1016/j.algal.2016.06.007", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+techno+economic+analysis"}]}
{"title": "A Theory of Techno-Economic Space: The Techno-Keplerian Gravity Model of Global Artificial Intelligence Diffusion", "doi": "10.2139/ssrn.7285436", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-economic analysis and artificial intelligence application of solar chimney power plants", "doi": "10.1016/b978-0-443-24816-0.00006-1", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno‐Economic Analysis in Practice", "doi": "10.1002/9781394246441.ch19", "arxivId": "", "year": 2025, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-Economic Feasibility Analysis of 100 MW Solar Photovoltaic Power Plant in Pakistan", "doi": "10.37473/fic/10.1007/s40866-022-00139-w", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-economic analysis", "doi": "10.1017/cbo9780511760112.016", "arxivId": "", "year": 2011, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-Economic Feasibility Analysis of 100 MW Solar Photovoltaic Power Plant in Pakistan", "doi": "10.37473/dac/10.1007/s40866-022-00139-w", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-economic analysis of emerging cloud services", "doi": "10.12681/eadd/62640", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Techno-Economic Analysis of Chemical Looping Fuel Production", "doi": "10.66816/pr6979498", "arxivId": "", "year": 2026, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Empirical techno-economic analysis of spectrum auctions", "doi": "10.36227/techrxiv.20625813", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Hydrogen In Modern Combustors: A Techno-Economic Analysis", "doi": "10.14264/8658d6b", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+techno+economic+analysis&rows=10"}]}
{"title": "Artificial Intelligence and Economic Theories", "doi": "", "arxivId": "1703.06597", "year": 2017, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Inequality, mobility and the financial accumulation process: A computational economic analysis", "doi": "10.1007/s11403-019-00236-7", "arxivId": "1901.03951", "year": 2019, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Economic Anthropology in the Era of Generative Artificial Intelligence", "doi": "", "arxivId": "2410.15238", "year": 2024, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}]}
{"title": "A Techno-Economic Analysis of Asteroid Mining", "doi": "", "arxivId": "1810.03836", "year": 2018, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}]}
{"title": "A Techno-economic Analysis of Network Migration to Software-Defined Networking", "doi": "", "arxivId": "1310.0216", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+techno+economic+analysis"}]}
{"title": "Artificial photosynthesis for solar water-splitting", "doi": "10.1038/nphoton.2012.175", "arxivId": "", "year": 2012, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Artificial Photosynthesis: Learning from Nature", "doi": "10.1002/cptc.201700163", "arxivId": "", "year": 2017, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Semiconductor nanocrystals for small molecule activation via artificial photosynthesis", "doi": "10.1039/d0cs00930j", "arxivId": "", "year": 2020, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Recent Advances in Vesicular Systems for Applications in Artificial Photosynthesis and Photocatalysis", "doi": "10.1002/sstr.202500738", "arxivId": "", "year": 2026, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "From natural photosynthesis to artificial photosynthesis", "doi": "10.1360/n032016-00073", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Mimicking Photosynthesis", "doi": "10.1126/science.244.4900.35", "arxivId": "", "year": 1989, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "A multicomponent molecular approach to artificial photosynthesis – the role of fullerenes and endohedral metallofullerenes", "doi": "10.1039/c5cs00774g", "arxivId": "", "year": 2016, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+recent+advances+review"}]}
{"title": "Recent Advances in (Oxy)sulfide Photocatalysts for Solar-driven Water Splitting and CO2 Reduction", "doi": "10.1039/9781839167768-00092", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Artificial Photosynthesis – An Inorganic Approach", "doi": "10.1016/bs.abr.2016.04.002", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "An Illustrative History of Artificial Photosynthesis", "doi": "10.1016/bs.abr.2016.02.004", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Artificial Photosynthesis", "doi": "10.1016/bs.abr.2016.04.001", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Nano-Lattice Engineering of Cu-Oxides via Flame Spray Pyrolysis: Challenges for Promoting Artificial Photosynthesis Performance", "doi": "10.11159/icnnfc23.155", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "European and International Initiatives in the Field of Artificial Photosynthesis", "doi": "10.1016/bs.abr.2016.03.002", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Overview of recent advances in photosynthesis and nanotechnology", "doi": "10.1016/b978-0-323-98391-4.00009-5", "arxivId": "", "year": 2023, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Recent Advances in In Situ/Operando Surface/Interface Characterization Techniques for the Study of Artificial Photosynthesis", "doi": "10.3390/inorganics11010016", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "Advances in Botanical Research", "doi": "10.1016/s0065-2296(16)30066-0", "arxivId": "", "year": 2016, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+recent+advances+review&rows=10"}]}
{"title": "YOLO advances to its genesis: a decadal and comprehensive review of the You Only Look Once (YOLO) series", "doi": "10.1007/s10462-025-11253-3", "arxivId": "2406.19407", "year": 2024, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}]}
{"title": "Recent Advances in Neural Text Generation: A Task-Agnostic Survey", "doi": "", "arxivId": "2203.03047", "year": 2022, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+recent+advances+review"}]}
{"title": "Semiconductor Nanowires for Artificial Photosynthesis", "doi": "10.1021/cm4023198", "arxivId": "", "year": 2013, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Recent Improvements in the Production of Solar Fuels: From CO2 Reduction to Water Splitting and Artificial Photosynthesis", "doi": "10.1246/bcsj.20180250", "arxivId": "", "year": 2019, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Photosynthesis: Current Advancements and Future Prospects", "doi": "10.3390/biomimetics8030298", "arxivId": "", "year": 2023, "sources": ["openalex"], "sourceRefs": [{"source": "openalex", "queryRef": "openalex:/works?per-page=10&search=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Photosynthesis Development, Promises, and Challenges", "doi": "10.1201/b22922-56", "arxivId": "", "year": 2024, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Product Selectivity in Homogeneous Artificial Photosynthesis Using [(bpy)Rh(Cp*)X]n+-Based Catalysts", "doi": "10.3390/inorganics5020035", "arxivId": "", "year": 2017, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "A Multifaceted Vision of Challenges and Opportunities in Practical Artificial Photosynthesis Devices", "doi": "10.1021/aps.5c00034.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Natural and artificial photosynthesis: fundamentals, progress, and challenges", "doi": "10.1007/s11120-022-00982-z", "arxivId": "", "year": 2022, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Artificial Photosynthesis", "doi": "10.1002/9781119611103.ch15", "arxivId": "", "year": 2019, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Enhanced Activity and Stability of Carbon-Decorated Cuprous Oxide Mesoporous Nanorods for CO2 Reduction in Artificial Photosynthesis", "doi": "10.1021/acscatal.6b01455.s001", "arxivId": "", "year": 0, "sources": ["crossref"], "sourceRefs": [{"source": "crossref", "queryRef": "crossref:/works?query=artificial+photosynthesis+selectivity+stability+challenges&rows=10"}]}
{"title": "Quantum Dots Encapsulated in Porous Matrices for Artificial Photosynthesis: From H2 Evolution to CO2 Reduction and Beyond", "doi": "10.1002/adma.202522563", "arxivId": "", "year": 2026, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Photoreforming and Photoelectroreforming of Waste‐Derived Feedstocks for Solar‐Driven Production of Fuels and Chemicals", "doi": "10.1002/adma.74030", "arxivId": "", "year": 2026, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Enhanced photocatalytic CO2 reduction on biomineralized CdS via an electron conduit in bacteria.", "doi": "10.1039/d3nr00908d", "arxivId": "", "year": 2023, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Crystallographic Effects of GaN Nanostructures in Photoelectrochemical Reaction.", "doi": "10.1021/acs.nanolett.1c04220", "arxivId": "", "year": 2022, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Bioinspired metal complexes for energy-related photocatalytic small molecule transformation.", "doi": "10.1039/d0cc05870j", "arxivId": "", "year": 2020, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Plasmonic Nanomaterials in Photothermal Catalysis and Artificial Photosynthesis: Hot Electron Dynamics, Design Challenges, and Future Prospects", "doi": "10.1002/adfm.202503186", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Rational Design and Synthesis of a Metal-Organic Framework Featuring Cu(I)-Carbon Bonds for Enhanced Artificial Photosynthesis.", "doi": "10.1021/jacs.5c11801", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "A Mind Map to Address the Next Generation of Artificial Photosynthesis Experiments", "doi": "10.1002/smll.202501385", "arxivId": "", "year": 2025, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Highly efficient photoenzymatic CO2 reduction dominated by 2D/2D MXene/C3N5 heterostructured artificial photosynthesis platform.", "doi": "10.1016/j.jcis.2024.08.149", "arxivId": "", "year": 2024, "sources": ["semantic-scholar"], "sourceRefs": [{"source": "semantic-scholar", "queryRef": "semantic-scholar:/graph/v1/paper/search?limit=10&query=artificial+photosynthesis+selectivity+stability+challenges"}]}
{"title": "Artificial Intelligence Framework for Simulating Clinical Decision-Making: A Markov Decision Process Approach", "doi": "10.1016/j.artmed.2012.12.003", "arxivId": "1301.2158", "year": 2013, "sources": ["arxiv"], "sourceRefs": [{"source": "arxiv", "queryRef": "arxiv:/api/query?max_results=10&search_query=all%3Aartificial+photosynthesis+selectivity+stability+challenges"}]}