Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Satyam Bhatti; Habib Ullah Manzoor; Ahmed Zoha; Rami Ghannam

doi:10.48550/arxiv.2309.07551

Paper details

Research paper

Theoretical

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Satyam Bhatti, Habib Ullah Manzoor, Ahmed Zoha, Rami Ghannam

arXiv·2023·10.48550/arxiv.2309.07551·arXiv:2309.07551

Samples

Each sample groups how it was prepared, characterized, and measured. Click a card to expand.

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

1 property

SimulatedCuInGaSe₂Studied MaterialCdSStudied MaterialZnOStudied Material

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

5 properties

SimulatedGaAsStudied MaterialCuInGaSe₂Studied MaterialCdSStudied MaterialZnOStudied Material

Materials

GaAs

Studied Material

Also known as

p-GaAsn-GaAs

studied material

CIGS

CuInGaSe₂

Studied Material

Why these are connected

Related documents with shared materials, methods, properties, or citations.

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques | Matter42 Literature

Properties

Type	Label	Value	Material	Sample	Source
Power Conversion Efficiency	PCE	45.7%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Open Circuit Voltage	VOC	1.16V	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Fill Factor	FF	89.52%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Short Circuit Current Density	JSC	43.88mA/m2	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Power Conversion Efficiency	PCE	20.07%	CuInGaSe₂ CdS ZnO	Baseline simulated thin-film solar cell without the GaAs top	—
Power Conversion Efficiency	PCE	45.47%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—

Properties

Type	Label	Value	Material	Sample	Source
Power Conversion Efficiency	PCE	45.7%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Open Circuit Voltage	VOC	1.16V	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Fill Factor	FF	89.52%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Short Circuit Current Density	JSC	43.88mA/m2	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Power Conversion Efficiency	PCE	20.07%	CuInGaSe₂ CdS ZnO	Baseline simulated thin-film solar cell without the GaAs top	—
Power Conversion Efficiency	PCE	45.47%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—

Properties

Type	Label	Value	Material	Sample	Source
Power Conversion Efficiency	PCE	45.7%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Open Circuit Voltage	VOC	1.16V	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Fill Factor	FF	89.52%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Short Circuit Current Density	JSC	43.88mA/m2	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Power Conversion Efficiency	PCE	20.07%	CuInGaSe₂ CdS ZnO	Baseline simulated thin-film solar cell without the GaAs top	—
Power Conversion Efficiency	PCE	45.47%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—

Properties

Type	Label	Value	Material	Sample	Source
Power Conversion Efficiency	PCE	45.7%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Open Circuit Voltage	VOC	1.16V	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Fill Factor	FF	89.52%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Short Circuit Current Density	JSC	43.88mA/m2	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—
Power Conversion Efficiency	PCE	20.07%	CuInGaSe₂ CdS ZnO	Baseline simulated thin-film solar cell without the GaAs top	—
Power Conversion Efficiency	PCE	45.47%	GaAs CuInGaSe₂ CdS ZnO	Optimized simulated multi-junction solar cell with GaAs adde	—

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Achieving 45% efficiency of CIGS/CdS Solar Cell by adding GaAs using optimization techniques

Samples

Baseline simulated thin-film solar cell without the GaAs top layer: p-CIGS/n-CdS/n-ZnO.

Optimized simulated multi-junction solar cell with GaAs added on top: p-GaAs/p-CIGS/n-CdS/n-ZnO.

Materials

Why these are connected

Properties

Simulations

Properties

Simulations

Properties

Simulations

Properties

Simulations