Laser-induced time-resolved fluorescence of vegetation

G. Schmuck; J. Verdebout; C. Koechler; I. Moya; Y. Goulas

Laser-induced time-resolved fluorescence of vegetation

G. Schmuck
, J. Verdebout
, C. Koechler
, I. Moya
, Y. Goulas

European Commission

Résultats de recherche: Contribution à une conférence › Papier › Revue par des pairs

Résumé

A description is given of time-resolved measurements of the laser-induced chlorophyll fluorescence emission of vegetation detected by two different techniques. Fluorescence decay time measurements using single-photon counting and picosecond laser pulse excitation have been used to analyze the fluorescence heterogeneity of leaves from higher plants. The fluorescence is described by lifetimes of 10-40 ps, 80--150 ps, 400-500 ps, and 700-1000 ps. When the reaction center is closed by application of DCMU, the lifetimes of the slowest components increase by a factor of about 3. Another possible means of monitoring the fluorescence after picosecond excitation is a streak camera detection system. Measurements performed on the slow decay component of stressed and unstressed plants are presented.

langue originale	Anglais
Pages	1923-1926
Nombre de pages	4
état	Publié - 1 déc. 1990
Modification externe	Oui
Evénement	10th Annual International Geoscience and Remote Sensing Symposium - IGARSS '90 - College Park, MD, USA Durée: 20 mai 1990 → 20 mai 1990

Une conférence

Une conférence	10th Annual International Geoscience and Remote Sensing Symposium - IGARSS '90
La ville	College Park, MD, USA
période	20/05/90 → 20/05/90

Contient cette citation

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title = "Laser-induced time-resolved fluorescence of vegetation",

abstract = "A description is given of time-resolved measurements of the laser-induced chlorophyll fluorescence emission of vegetation detected by two different techniques. Fluorescence decay time measurements using single-photon counting and picosecond laser pulse excitation have been used to analyze the fluorescence heterogeneity of leaves from higher plants. The fluorescence is described by lifetimes of 10-40 ps, 80--150 ps, 400-500 ps, and 700-1000 ps. When the reaction center is closed by application of DCMU, the lifetimes of the slowest components increase by a factor of about 3. Another possible means of monitoring the fluorescence after picosecond excitation is a streak camera detection system. Measurements performed on the slow decay component of stressed and unstressed plants are presented.",

author = "G. Schmuck and J. Verdebout and C. Koechler and I. Moya and Y. Goulas",

year = "1990",

month = dec,

day = "1",

language = "English",

pages = "1923--1926",

note = "10th Annual International Geoscience and Remote Sensing Symposium - IGARSS '90 ; Conference date: 20-05-1990 Through 20-05-1990",

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TY - CONF

T1 - Laser-induced time-resolved fluorescence of vegetation

AU - Schmuck, G.

AU - Verdebout, J.

AU - Koechler, C.

AU - Moya, I.

AU - Goulas, Y.

PY - 1990/12/1

Y1 - 1990/12/1

N2 - A description is given of time-resolved measurements of the laser-induced chlorophyll fluorescence emission of vegetation detected by two different techniques. Fluorescence decay time measurements using single-photon counting and picosecond laser pulse excitation have been used to analyze the fluorescence heterogeneity of leaves from higher plants. The fluorescence is described by lifetimes of 10-40 ps, 80--150 ps, 400-500 ps, and 700-1000 ps. When the reaction center is closed by application of DCMU, the lifetimes of the slowest components increase by a factor of about 3. Another possible means of monitoring the fluorescence after picosecond excitation is a streak camera detection system. Measurements performed on the slow decay component of stressed and unstressed plants are presented.

AB - A description is given of time-resolved measurements of the laser-induced chlorophyll fluorescence emission of vegetation detected by two different techniques. Fluorescence decay time measurements using single-photon counting and picosecond laser pulse excitation have been used to analyze the fluorescence heterogeneity of leaves from higher plants. The fluorescence is described by lifetimes of 10-40 ps, 80--150 ps, 400-500 ps, and 700-1000 ps. When the reaction center is closed by application of DCMU, the lifetimes of the slowest components increase by a factor of about 3. Another possible means of monitoring the fluorescence after picosecond excitation is a streak camera detection system. Measurements performed on the slow decay component of stressed and unstressed plants are presented.

M3 - Paper

AN - SCOPUS:0025564864

SP - 1923

EP - 1926

T2 - 10th Annual International Geoscience and Remote Sensing Symposium - IGARSS '90

Y2 - 20 May 1990 through 20 May 1990

ER -

Laser-induced time-resolved fluorescence of vegetation

Résumé

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