Shielded hydrogen passivation: a potential in‐line passivation process

Shielded hydrogen passivation: a potential in‐line passivation process

Shielded hydrogen passivation (SHP) is a recently developed technique for introducing atomic hydrogen into materials and it offers significant advantages over the other hydrogenation techniques. Hydrogen de‐activation of boron followed by electrochemical CV profiling was used to demonstrate that sub...

Полное описание

Библиографические подробности
Главные авторы:	Bourret-Sicotte, G, Hamer, P, Bonilla, R, Collett, K, Ciesla, A, Colwell, J, Wilshaw, P
Формат:	Journal article
Опубликовано:	Wiley‐VCH Verlag 2017

Схожие документы

Shielded hydrogen passivation – a novel method for introducing hydrogen into silicon
по: Bourret-Sicotte, G, и др.
Опубликовано: (2017)

A novel source of atomic hydrogen for passivation of defects in silicon
по: Hamer, P, и др.
Опубликовано: (2017)

Hydrogen related defects in float zone silicon investigated using a shielded hydrogen plasma
по: Bourret-Sicotte, G, и др.
Опубликовано: (2018)

Scalable techniques for producing field-effect passivation in high-efficiency silicon solar cells
по: Collett, K, и др.
Опубликовано: (2018)

Hydrogen induced contact resistance in PERC solar cells
по: Hamer, P, и др.
Опубликовано: (2018)

Shielded hydrogen plasma: a new hydrogenation method for silicon solar cells
по: Bourret-Sicotte, GA
Опубликовано: (2019)

An enhanced alneal process to produce SRV <1 cm/s in 1Ωcm n-type Si
по: Collett, K, и др.
Опубликовано: (2017)

Data for dielectric surface passivation for silicon solar cells: A review
по: Bonilla, RS, и др.
Опубликовано: (2017)

Surface passivation provided by an alneal through sio2/tio2 bilayer
по: Collett, K, и др.
Опубликовано: (2016)

Dielectric surface passivation for silicon solar cells: A review
по: Bonilla Osorio, R, и др.
Опубликовано: (2017)

Data used in "Surface Passivation Provided By An Alneal Through SiO2/TiO2 Bilayer"
по: Collett, K, и др.
Опубликовано: (2016)

Data for "Lowest surface recombination in n-type oxidised crystalline silicon by means of extrinsic field effect passivation"
по: Bonilla, R, и др.
Опубликовано: (2016)

Saw damage gettering for industrially relevant mc‐Si feedstock
по: Shaw, E, и др.
Опубликовано: (2017)

Stable field effect surface passivation of n-type Cz silicon
по: Bonilla, R, и др.
Опубликовано: (2013)

A technique for field effect surface passivation for silicon solar cells
по: Bonilla, R, и др.
Опубликовано: (2014)

A novel source of atomic hydrogen for passivation of defects in silicon
по: Hamer, P
Опубликовано: (2017)

Data for Potassium ions in SiO2: electrets for silicon surface passivation
по: Bonilla, R, и др.
Опубликовано: (2017)

Data for Corona field effect surface passivation of n-type IBC cells
по: Bonilla, R, и др.
Опубликовано: (2016)

Carrier recombination at defects in silicon: The effect of transition metals and hydrogen passivation
по: Wilshaw, P, и др.
Опубликовано: (1997)

Potassium ions in SiO2: electrets for silicon surface passivation
по: Bonilla Osorio, R, и др.
Опубликовано: (2017)

Long term stability of c-Si surface passivation using corona charged SiO2
по: Bonilla Osorio, R, и др.
Опубликовано: (2017)

Corona charge in SiO2: kinetics and surface passivation for high efficiency silicon solar cells
по: Bonilla Osorio, R, и др.
Опубликовано: (2016)

A technique for field effect surface passivation for silicon solar cells
по: Bonilla Osorio, RS, и др.
Опубликовано: (2014)

Lowest surface recombination in n-type oxidised crystalline silicon by means of extrinsic field effect passivation
по: Osorio, R, и др.
Опубликовано: (2016)

Surface passivation for silicon solar cells using stable extrinsic field effect passivation
по: Collett, K
Опубликовано: (2018)

Passivation of all-angle black surfaces for silicon solar cells
по: Rahman, T, и др.
Опубликовано: (2016)

Electric field effect surface passivation for silicon solar cells
по: Bonilla, R, и др.
Опубликовано: (2014)

Passive and active shielding against electromagnetic radiation
по: Đekić Saša B., и др.
Опубликовано: (2020-01-01)

Passive magnetic shielding in static gradient fields
по: C. P. Bidinosti, и др.
Опубликовано: (2014-04-01)

Data for Corona charge in SiO2: kinetics and surface passivation for high efficiency silicon solar cells
по: Bonilla, R, и др.
Опубликовано: (2016)

Instability of increased contact resistance in silicon solar cells following post-firing thermal processes
по: Chan, C, и др.
Опубликовано: (2017)

Corona field effect surface passivation of n-type IBC cells
по: Bonilla, R, и др.
Опубликовано: (2016)

The effect of hydrogen on the passivation process of iron
по: Jafari, Abdul Hamid
Опубликовано: (1990)

Data for Effective antireflection and surface passivation of silicon using a SiO2/a-TiOx film stack
по: Bonilla, R, и др.
Опубликовано: (2017)

Very low surface recombination velocity in n-type c-Si using extrinsic field effect passivation
по: Bonilla, R, и др.
Опубликовано: (2014)

Special issue: Surface and interface passivation in crystalline silicon solar cells
по: Bonilla, RS, и др.
Опубликовано: (2020)

Laser Enhanced Hydrogen Passivation of Silicon Wafers
по: Lihui Song, и др.
Опубликовано: (2015-01-01)

Effect of carrier-induced hydrogenation on the passivation of the poly-Si/SiOx/c-Si interface
по: Yang, Y, и др.
Опубликовано: (2018)

Hybrid Active-Passive Shielding of Magnetic Field of Overhead Power Lines with Triangular Phase Conductors Arrangements
по: Kuznetsov B.I., и др.
Опубликовано: (2023-08-01)

Mitigation of stray magnetic field effects in CLIC with passive shielding
по: Gohil, C, и др.
Опубликовано: (2019)