Lecture

Functional Heterostructures: Solar Cell and Quantum Conductance

Graph Chat

Chat with Graph Search

Ask any question about EPFL courses, lectures, exercises, research, news, etc. or try the example questions below.

DISCLAIMER: The Graph Chatbot is not programmed to provide explicit or categorical answers to your questions. Rather, it transforms your questions into API requests that are distributed across the various IT services officially administered by EPFL. Its purpose is solely to collect and recommend relevant references to content that you can explore to help you answer your questions.

Related lectures (64)

PC1D Modellization: Spectral Response Analysis

Explores PC1D modeling for solar cell spectral response analysis.

PN Junctions and Heterostructures: Principles and Applications

Discusses the principles of pn junctions and heterostructures in semiconductor physics, focusing on their electrical characteristics and practical applications.

Photovoltaic Devices and Light Emitting Diodes

Provides an overview of photovoltaic devices and light emitting diodes, focusing on their mechanisms, efficiency factors, and material considerations.

Solar Cells: Third Generation

Explores third-generation solar cells, focusing on quantum dot technology and perovskite quantum dots' potential to enhance silicon solar cell performance.

Nanostructured Devices: Low Dimensional Materials and Applications

Explores low-dimensional devices, focusing on nanowires and quantum dots, their properties, applications, and the challenges in their fabrication and performance.

Very High Efficiency Concepts

Explores cutting-edge solar cell technology, emphasizing high efficiency concepts like Passivating Contacts and Interdigitated Back-Contacted cells.

Solar Cells: Energy Generation and Efficiency

Covers the history and physics of solar cells, emphasizing their efficiency metrics and operation under different conditions.

High efficiency solar cells

Explores high-efficiency solar cells, discussing PERC, selective emitter, IBC, and TOPCON concepts, along with advancements in GaAs and perovskite cells.

Solar Cells: Working Principles

Covers the working principles of solar cells and the challenges in improving efficiency.

P-N junction and solar cells

Covers the equations and models of solar cells, including P-N junction behavior, photocurrent generation, and heterojunction characteristics.

Absorption, generation and recombination

Explores the optical properties of solar cells, focusing on absorption, reflection, and generation of electron-hole pairs.

Photovoltaics and Fusion Energy

Explores the role of photovoltaics in the energy transition and the potential of fusion energy for sustainable power generation.

Introduction to PC1D

Covers the basics of PC1D software for simulating solar cells.

Solar Cells: Efficiency and Losses

Covers the operation, efficiency, and losses associated with solar cells, including the concept of hybrid photovoltaic thermal panels.

High Efficiency Solar Cells

Explores high efficiency solar cells, including C-Si and III-V junctions, epitaxial growth, and rear contact recombination.

Organic Photovoltaic Cells: Efficiency and Applications

Explores the efficiency and design of organic photovoltaic cells, discussing tandem solar cells, polymer tunability, and various applications.

Inorganic Solar Cells: Working Principle

Explains the working principle of inorganic solar cells and their material aspects, including single-junction and tandem solar cells.

Solar Energy Conversion

Explores the potential of solar energy, methods of conversion, organic solar cells, and device structures.

Thin Films and Tandem Solar Cells

Covers thin film solar cells, their advantages, market status, and challenges, including CdTe, CIGS, and perovskite cells, and explores the potential of multijunction cells.

Equations of Solar Cells

Covers fundamental equations and concepts of solar cells, including dark IV curve, band diagrams, carrier injection, and photocurrent.