Laser-Induced Forward Transfer (LIFT) is a very versatile technique, allowing the selective transfer of a wide range of materials with no contact and high accuracy. This work includes the analysis of heterojunction silicon solar cells with the frontal grid deposited by LIFT, and the electric characterization of the deposited lines
The potential to deposit minute amounts of material from a donor to an acceptor substrate at precise...
For the fabrication of front side grids with a higher efficiency potential than screen-printed conta...
Front metallization is an expensive, fundamental step in the fabrication of solar cells. It comprise...
© 2021 Elsevier. This manuscript version is made available under the CC-BY-NC-ND 4.0 license http://...
International audienceGrand challenges to create new front metallization techniques in photovoltaic ...
Front metallization is an expensive, fundamental step in the fabrication of solar cells. Laser addit...
AbstractLaser Induced Forward Transfer (LIFT) enables a non-contact, mask-less and high-resolution/h...
Metallization plays a fundamental role in the fabrication of solar cells and it is then a key proces...
AbstractLaser Induced Forward Transfer (LIFT) has been studied in the past as a promising approach f...
Laser-induced forward transfer (LIFT) is an innovative metallization technique used in the processin...
Laser Induced Forward Transfer (LIFT) has been studied in the past as a promising approach for preci...
AbstractLaser transferred contacts (LTC) feature low temperature contact formation, in addition to f...
The investigation of novel approaches for forming solar cell grid lines has gained importance with t...
We present a laser‐based method for the metallization of silicon heterojunction solar cells by Cu‐pl...
Laser-Induced Forward Transfer (LIFT) is a well established method for the spatially selective depos...
The potential to deposit minute amounts of material from a donor to an acceptor substrate at precise...
For the fabrication of front side grids with a higher efficiency potential than screen-printed conta...
Front metallization is an expensive, fundamental step in the fabrication of solar cells. It comprise...
© 2021 Elsevier. This manuscript version is made available under the CC-BY-NC-ND 4.0 license http://...
International audienceGrand challenges to create new front metallization techniques in photovoltaic ...
Front metallization is an expensive, fundamental step in the fabrication of solar cells. Laser addit...
AbstractLaser Induced Forward Transfer (LIFT) enables a non-contact, mask-less and high-resolution/h...
Metallization plays a fundamental role in the fabrication of solar cells and it is then a key proces...
AbstractLaser Induced Forward Transfer (LIFT) has been studied in the past as a promising approach f...
Laser-induced forward transfer (LIFT) is an innovative metallization technique used in the processin...
Laser Induced Forward Transfer (LIFT) has been studied in the past as a promising approach for preci...
AbstractLaser transferred contacts (LTC) feature low temperature contact formation, in addition to f...
The investigation of novel approaches for forming solar cell grid lines has gained importance with t...
We present a laser‐based method for the metallization of silicon heterojunction solar cells by Cu‐pl...
Laser-Induced Forward Transfer (LIFT) is a well established method for the spatially selective depos...
The potential to deposit minute amounts of material from a donor to an acceptor substrate at precise...
For the fabrication of front side grids with a higher efficiency potential than screen-printed conta...
Front metallization is an expensive, fundamental step in the fabrication of solar cells. It comprise...