Temperature dependent behaviour of lead sulfide quantum dot solar cells and films
Published 2016 View Full Article
- Home
- Publications
- Publication Search
- Publication Details
Title
Temperature dependent behaviour of lead sulfide quantum dot solar cells and films
Authors
Keywords
-
Journal
Energy & Environmental Science
Volume 9, Issue 9, Pages 2916-2924
Publisher
Royal Society of Chemistry (RSC)
Online
2016-08-11
DOI
10.1039/c6ee01577h
References
Ask authors/readers for more resources
Related references
Note: Only part of the references are listed.- Photovoltaic Performance of PbS Quantum Dots Treated with Metal Salts
- (2016) Dong-Kyun Ko et al. ACS Nano
- Double Gate PbS Quantum Dot Field-Effect Transistors for Tuneable Electrical Characteristics
- (2016) Artem G. Shulga et al. Advanced Electronic Materials
- Counterion-Mediated Ligand Exchange for PbS Colloidal Quantum Dot Superlattices
- (2015) Daniel M. Balazs et al. ACS Nano
- High Mobility and Low Density of Trap States in Dual-Solid-Gated PbS Nanocrystal Field-Effect Transistors
- (2015) Mohamad Insan Nugraha et al. ADVANCED MATERIALS
- Increasing photon absorption and stability of PbS quantum dot solar cells using a ZnO interlayer
- (2015) Lai-Hung Lai et al. APPLIED PHYSICS LETTERS
- High-Efficiency Colloidal Quantum Dot Photovoltaics via Robust Self-Assembled Monolayers
- (2015) Gi-Hwan Kim et al. NANO LETTERS
- Open-Circuit Voltage Deficit, Radiative Sub-Bandgap States, and Prospects in Quantum Dot Solar Cells
- (2015) Chia-Hao Marcus Chuang et al. NANO LETTERS
- A tunable library of substituted thiourea precursors to metal sulfide nanocrystals
- (2015) M. P. Hendricks et al. SCIENCE
- A quantitative model for charge carrier transport, trapping and recombination in nanocrystal-based solar cells
- (2015) Deniz Bozyigit et al. Nature Communications
- Origin of the increased open circuit voltage in PbS–CdS core–shell quantum dot solar cells
- (2015) M. J. Speirs et al. Journal of Materials Chemistry A
- Solar Cells Based on Inks of n-Type Colloidal Quantum Dots
- (2014) Zhijun Ning et al. ACS Nano
- Energy Level Modification in Lead Sulfide Quantum Dot Thin Films through Ligand Exchange
- (2014) Patrick R. Brown et al. ACS Nano
- p-i-n Heterojunction Solar Cells with a Colloidal Quantum-Dot Absorber Layer
- (2014) Dong-Kyun Ko et al. ADVANCED MATERIALS
- Remote Trap Passivation in Colloidal Quantum Dot Bulk Nano-heterojunctions and Its Effect in Solution-Processed Solar Cells
- (2014) Arup. K. Rath et al. ADVANCED MATERIALS
- Determination of carrier lifetime and mobility in colloidal quantum dot films via impedance spectroscopy
- (2014) Arup K. Rath et al. APPLIED PHYSICS LETTERS
- Reducing charge trapping in PbS colloidal quantum dot solids
- (2014) D. M. Balazs et al. APPLIED PHYSICS LETTERS
- Facile Droplet-based Microfluidic Synthesis of Monodisperse IV–VI Semiconductor Nanocrystals with Coupled In-Line NIR Fluorescence Detection
- (2014) Ioannis Lignos et al. CHEMISTRY OF MATERIALS
- Infrared Emitting PbS Nanocrystal Solids through Matrix Encapsulation
- (2014) Pavel Moroz et al. CHEMISTRY OF MATERIALS
- Investigation of Pb/PbS a positive Schottky junction formed on conductive glass in contact with alkaline solution
- (2014) A. Heidaripour et al. JOURNAL OF APPLIED PHYSICS
- Space charge limited conduction in ultrathin PbS quantum dot solid diodes
- (2014) Jun Kwan Kim et al. JOURNAL OF APPLIED PHYSICS
- Temperature-Dependent Hall and Field-Effect Mobility in Strongly Coupled All-Inorganic Nanocrystal Arrays
- (2014) Jaeyoung Jang et al. NANO LETTERS
- Improved performance and stability in quantum dot solar cells through band alignment engineering
- (2014) Chia-Hao M. Chuang et al. NATURE MATERIALS
- Air-stable n-type colloidal quantum dot solids
- (2014) Zhijun Ning et al. NATURE MATERIALS
- Measuring Charge Carrier Diffusion in Coupled Colloidal Quantum Dot Solids
- (2013) David Zhitomirsky et al. ACS Nano
- The Donor–Supply Electrode Enhances Performance in Colloidal Quantum Dot Solar Cells
- (2013) Pouya Maraghechi et al. ACS Nano
- Low Driving Voltage and High Mobility Ambipolar Field-Effect Transistors with PbS Colloidal Nanocrystals
- (2013) Satria Zulkarnaen Bisri et al. ADVANCED MATERIALS
- 5.2% efficient PbS nanocrystal Schottky solar cells
- (2013) Claudia Piliego et al. Energy & Environmental Science
- Sensitized solar cells with colloidal PbS–CdS core–shell quantum dots
- (2013) Lai-Hung Lai et al. PHYSICAL CHEMISTRY CHEMICAL PHYSICS
- Exploring the Origin of the Temperature-Dependent Behavior of PbS Nanocrystal Thin Films and Solar Cells
- (2012) Krisztina Szendrei et al. ADVANCED FUNCTIONAL MATERIALS
- N-Type Colloidal-Quantum-Dot Solids for Photovoltaics
- (2012) David Zhitomirsky et al. ADVANCED MATERIALS
- Infrared Photodetectors Based on CVD-Grown Graphene and PbS Quantum Dots with Ultrahigh Responsivity
- (2012) Zhenhua Sun et al. ADVANCED MATERIALS
- Bandlike Transport in Strongly Coupled and Doped Quantum Dot Solids: A Route to High-Performance Thin-Film Electronics
- (2012) Ji-Hyuk Choi et al. NANO LETTERS
- Quantum Junction Solar Cells
- (2012) Jiang Tang et al. NANO LETTERS
- Hybrid passivated colloidal quantum dot solids
- (2012) Alexander H. Ip et al. Nature Nanotechnology
- Dynamic Study of Highly Efficient CdS/CdSe Quantum Dot-Sensitized Solar Cells Fabricated by Electrodeposition
- (2011) Xiao-Yun Yu et al. ACS Nano
- Enhanced Mobility-Lifetime Products in PbS Colloidal Quantum Dot Photovoltaics
- (2011) Kwang S. Jeong et al. ACS Nano
- Quantum Dot Size DependentJ−VCharacteristics in Heterojunction ZnO/PbS Quantum Dot Solar Cells
- (2011) Jianbo Gao et al. NANO LETTERS
- Colloidal-quantum-dot photovoltaics using atomic-ligand passivation
- (2011) Jiang Tang et al. NATURE MATERIALS
- Solution-Processable Near-IR Photodetectors Based on Electron Transfer from PbS Nanocrystals to Fullerene Derivatives
- (2008) Krisztina Szendrei et al. ADVANCED MATERIALS
Discover Peeref hubs
Discuss science. Find collaborators. Network.
Join a conversationBecome a Peeref-certified reviewer
The Peeref Institute provides free reviewer training that teaches the core competencies of the academic peer review process.
Get Started