תפריט נגישות
ניגודיות עדינהניגודיות גבוהה
מונוכרום
הדגשת קישורים
חסימת אנימציה
פונט קריא
סגור
איפוס הגדרות נגישות
להורדת מודול נגישות חינם תפריט נגישותניגודיות עדינהניגודיות גבוההמונוכרוםהדגשת קישוריםחסימת אנימציהפונט קריאסגוראיפוס הגדרות נגישותלהורדת מודול נגישות חינםG. Mittelman, H. Mamane, A. Kribus
The conversion efficiency from sunlight to electricity, for both solar thermal and solar photovoltaic converters, is usually in the range of 10—30%. More than two thirds of the solar energy, collected with considerable effort and capital investment, is rejected back to the environment. We present an analysis of novel spectral beam splitting systems with the applications of cogeneration and photochemical conversion. Significant advantages of these designs include (i) separate conversion mechanism for different radiation wavebands, such that typical efficiency limits are eliminated (ii) introduction of photochemical reactions driven by short waves, reducing photovoltaic thermalization losses and (iii) simple design with small number of elements and without a high level of radiation concentration, eliminating the requirements for accurate optics and active cooling. The results are very promising, with a considerable enhancement of the efficiency relative to photovoltaic and other reference plants.
G. Mittelman, H. Mamane, A. Kribus
The conversion efficiency from sunlight to electricity, for both solar thermal and solar photovoltaic converters, is usually in the range of 10—30%. More than two thirds of the solar energy, collected with considerable effort and capital investment, is rejected back to the environment. We present an analysis of novel spectral beam splitting systems with the applications of cogeneration and photochemical conversion. Significant advantages of these designs include (i) separate conversion mechanism for different radiation wavebands, such that typical efficiency limits are eliminated (ii) introduction of photochemical reactions driven by short waves, reducing photovoltaic thermalization losses and (iii) simple design with small number of elements and without a high level of radiation concentration, eliminating the requirements for accurate optics and active cooling. The results are very promising, with a considerable enhancement of the efficiency relative to photovoltaic and other reference plants.
