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dc.contributor.authorPinchasov-Grinblat, Yulia
dc.contributor.authorDubinsky, Zvy
dc.date.accessioned2025-03-07T19:51:15Z
dc.date.available2025-03-07T19:51:15Z
dc.date.issued2013
dc.date.submitted2019-10-04 14:35:28
dc.date.submitted2020-04-01T14:06:46Z
dc.date.submitted2016-08-01 23:55
dc.date.submitted2019-10-04 14:35:28
dc.date.submitted2020-04-01T14:06:46Z
dc.date.submitted2016-12-31 23:55:55
dc.date.submitted2019-10-04 14:35:28
dc.date.submitted2020-04-01T14:06:46Z
dc.identifier612613
dc.identifierOCN: 1030819229
dc.identifierhttp://library.oapen.org/handle/20.500.12657/32333
dc.identifier.urihttps://doab-dev.siscern.org/handle/20.500.12854/164590
dc.description.abstractThe photoacoustic method allows direct determination of the energy-storage efficiency of photosynthesis by relating the energy stored by it to the total light energy absorbed by the plant material (Canaani et al., 1988; Malkin & Cahen, 1979; Malkin et al., 1990). These authors applied the photoacoustic method to leaves in the gas phase, where brief pulses caused concomitant pulses of oxygen that caused a pressure transient detected by a microphone. This method is based on the conversion of absorbed light to heat. Depending on the efficiency of the photosynthetic system, a variable fraction of the absorbed light energy is stored, thereby affecting the heat evolved and the resulting photoacoustic signal. The higher the photosynthetic efficiency, the greater will be the difference between the stored energy with and without ongoing photosynthesis (Cha & Mauzerall, 1992). These authors collected microalgal cells onto a filter and studied them by an approach similar to that previously used with leaves. In both cases, the oxygen signal is combined with that of thermal expansion resulting from conversion of the fraction of the light energy in the pulse that is not stored by photochemistry.
dc.languageEnglish
dc.rightsopen access
dc.subject.classificationthema EDItEUR::P Mathematics and Science::PD Science: general issues
dc.subject.otherphotosynthesis
dc.subject.otherphotoacoustics
dc.subject.otherphotosynthesis
dc.subject.otherphotoacoustics
dc.subject.otherAlgae
dc.subject.otherChlorophyll
dc.subject.otherNannochloropsis
dc.subject.otherPhaeodactylum tricornutum
dc.subject.otherThermal expansion
dc.titleChapter 11 Photoacoustics — A Novel Tool for the Study of Aquatic Photosynthesis
dc.typechapter
oapen.identifier.doi10.5772/56600
oapen.relation.isPublishedBy035ecc65-6737-43cf-a13a-6bdf67ce01f4
oapen.relation.isPartOfBookPhotosynthesis
oapen.relation.isFundedByFP7 Ideas: European Research Council
oapen.relation.isFundedByFP7 Ideas: European Research Council
oapen.relation.isFundedBy7292b17b-f01a-4016-94d3-d7fb5ef9fb79
oapen.collectionEuropean Research Council (ERC)
oapen.collectionEU collection
oapen.grant.number249930
oapen.grant.number309646
oapen.grant.programFP7
dc.relationisFundedBy7292b17b-f01a-4016-94d3-d7fb5ef9fb79
dc.relationisFundedBy7292b17b-f01a-4016-94d3-d7fb5ef9fb79
dc.chapternumber1


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