The absorber of the hot carrier solar cell (HCSC) needs to have a considerably reduced hot carrier thermalisation rate, in order to maintain the photo-generated hot carriers for enough time such that they can be extracted. The slow carrier cooling effect is predicted in materials in which the phononic band gap is sufficiently large to block the Klemens decay. Binary compounds with a large mass ratio between the constituent elements are likely to have large phononic band gap. Titanium hydride is one of these binary compounds that has the potential to become an absorber of the HCSC. Whilst a large phononic gap has been observed in stoichiometric TiH2, it has not been experimentally confirmed for hydrogen deficient TiH x (where x < 2). ...
International audienceIn photovoltaic devices, thermalization of hot carriers generated by high ener...
© 2019 The Royal Society of Chemistry. Metal hydrides have demonstrated ideal physical propertie...
International audienceAbstract A theoretical model using electron–phonon scattering rate equations i...
Hot carrier solar cells is an attractive technology with the potential of reaching high energy conve...
The hot carrier solar cell (HCSC) is a device concept for photovoltaics that has the potential to ac...
Abstract. In the hydrogen (H) concentration range 1.6 5 x 5 1.8, TiH, exists in a S phase where Ti f...
The hot carrier (HC) solar cell is one of the most promising advanced photovoltaic concepts. It aims...
The hot carrier solar cell (HCSC) concept requires its absorber material to be capable of significan...
Titanium is reactive toward hydrogen forming metal hydride which has a potential application in ...
Titanium is reactive toward hydrogen forming metal hydride which has a potential application in ...
Halide perovskites exhibit unique slow hot-carrier cooling properties capable of unlocking disruptiv...
In this review article, we discuss the working mechanism of hot carrier solar cells (HCSCs), their p...
ABSTRACT: Single junction III-V heterostructures based devices could overtake the Shockley-Queisser ...
Abstract The hydrogen absorption/desorption properties of the Ti40VxMn(50 12x)Cr10 alloys (x = 32 a...
The development of alternative methods for thermal energy storage is important for improving the eff...
International audienceIn photovoltaic devices, thermalization of hot carriers generated by high ener...
© 2019 The Royal Society of Chemistry. Metal hydrides have demonstrated ideal physical propertie...
International audienceAbstract A theoretical model using electron–phonon scattering rate equations i...
Hot carrier solar cells is an attractive technology with the potential of reaching high energy conve...
The hot carrier solar cell (HCSC) is a device concept for photovoltaics that has the potential to ac...
Abstract. In the hydrogen (H) concentration range 1.6 5 x 5 1.8, TiH, exists in a S phase where Ti f...
The hot carrier (HC) solar cell is one of the most promising advanced photovoltaic concepts. It aims...
The hot carrier solar cell (HCSC) concept requires its absorber material to be capable of significan...
Titanium is reactive toward hydrogen forming metal hydride which has a potential application in ...
Titanium is reactive toward hydrogen forming metal hydride which has a potential application in ...
Halide perovskites exhibit unique slow hot-carrier cooling properties capable of unlocking disruptiv...
In this review article, we discuss the working mechanism of hot carrier solar cells (HCSCs), their p...
ABSTRACT: Single junction III-V heterostructures based devices could overtake the Shockley-Queisser ...
Abstract The hydrogen absorption/desorption properties of the Ti40VxMn(50 12x)Cr10 alloys (x = 32 a...
The development of alternative methods for thermal energy storage is important for improving the eff...
International audienceIn photovoltaic devices, thermalization of hot carriers generated by high ener...
© 2019 The Royal Society of Chemistry. Metal hydrides have demonstrated ideal physical propertie...
International audienceAbstract A theoretical model using electron–phonon scattering rate equations i...