Manuale utente OghmaNano – Indice e contenutiManuale utente OghmaNano – Indice e contenuti
Scopri come modellare e simulare dispositivi a semiconduttore, materiali elettronici, pozzi quantici e sistemi optoelettronici con OghmaNano. Esplora i modelli di trasporto a deriva-diffusione, le strutture a bande quantomeccaniche, la diffusione dei portatori di carica, le transizioni ottiche, il ray tracing, il metodo FDTD, la modellazione termica e la simulazione avanzata dei dispositivi. Consulta i tutorial, i modelli di materiali, i flussi di lavoro per la simulazione, gli script e la documentazione di riferimento.Scopri come modellare e simulare dispositivi a semiconduttore, materiali elettronici, pozzi quantici e sistemi optoelettronici con OghmaNano. Esplora i modelli di trasporto a deriva-diffusione, le strutture a bande quantomeccaniche, la diffusione dei portatori di carica, le transizioni ottiche, il ray tracing, il metodo FDTD, la modellazione termica e la simulazione avanzata dei dispositivi. Consulta i tutorial, i modelli di materiali, i flussi di lavoro per la simulazione, gli script e la documentazione di riferimento.
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🔰 Chapter 1: Introduction
What OghmaNano is, key features, installation (Windows & Linux), and first run.
🔰 Chapter 1: IntroductionWhat OghmaNano is, key features, installation (Windows & Linux), and first run.
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🚀 Chapter 2: Quick-Start Tutorials
Hands-on simulation guides for OPV, OFET, OLED, perovskite, GaAs/silicon, optics, and circuits.
🚀 Chapter 2: Quick-Start TutorialsHands-on simulation guides for OPV, OFET, OLED, perovskite, GaAs/silicon, optics, and circuits.
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🔦 Chapter 3: Core Physics Modules
Drift–diffusion (1D/2D/3D + energy), SRH recombination, optics (TMM, mode solver, ray tracing).
🔦 Chapter 3: Core Physics ModulesDrift–diffusion (1D/2D/3D + energy), SRH recombination, optics (TMM, mode solver, ray tracing).
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📡 Chapter 4: FDTD (Finite difference time domain)
Full-field finite-difference time-domain simulations for modelling electromagnetic wave propagation and photonic devices.
📡 Chapter 4: FDTD (Finite difference time domain)Full-field finite-difference time-domain simulations for modelling electromagnetic wave propagation and photonic devices.
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🌊 Chapter 5:Transfer Matrix Method (TMM) & mode solvers
Transfer Matrix Method (TMM) simulations of thin-film optical stacks, eigenmode calculations, and waveguide dispersion.
🌊 Chapter 5:Transfer Matrix Method (TMM) & mode solversTransfer Matrix Method (TMM) simulations of thin-film optical stacks, eigenmode calculations, and waveguide dispersion.
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📷 Chapter 6: Optical systems & ray tracing
Imaging lenses, apertures, aberrations, telescopes, prisms, microlenses, and surface optics using ray tracing.
📷 Chapter 6: Optical systems & ray tracingImaging lenses, apertures, aberrations, telescopes, prisms, microlenses, and surface optics using ray tracing.
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🌡️ Chapter 7: Thermal modeling
Thermal transport, heat generation, self-heating, temperature distributions, and coupled electro-thermal device simulations.
🌡️ Chapter 7: Thermal modelingThermal transport, heat generation, self-heating, temperature distributions, and coupled electro-thermal device simulations.
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💎 Chapter 8: Silicon & III–V semiconductor devices
Simulate silicon and III–V devices including PN diodes, MOS capacitors and solar cells using drift–diffusion models.
💎 Chapter 8: Silicon & III–V semiconductor devicesSimulate silicon and III–V devices including PN diodes, MOS capacitors and solar cells using drift–diffusion models.
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🔷 Chapter 9: Quantum Wells & Band-Structure Modelling
Quantum-well and band-structure calculations including confined carrier states, k·p models, strain, optical transitions and gain.
🔷 Chapter 9: Quantum Wells & Band-Structure ModellingQuantum-well and band-structure calculations including confined carrier states, k·p models, strain, optical transitions and gain.
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🌱 Chapter 10: Organic devices and materials
Simulate OPVs, OLEDs and OFETs. Explore exciton physics, bulk heterojunctions (BHJs), SCLC and impedance spectroscopy.
🌱 Chapter 10: Organic devices and materialsSimulate OPVs, OLEDs and OFETs. Explore exciton physics, bulk heterojunctions (BHJs), SCLC and impedance spectroscopy.
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☀️ Chapter 11: Perovskite devices and materials
Simulate perovskite solar cells and modules. Explore JV curves, CELIV, EQE, Suns-Voc, Suns-Jsc and large-area device modelling.
☀️ Chapter 11: Perovskite devices and materialsSimulate perovskite solar cells and modules. Explore JV curves, CELIV, EQE, Suns-Voc, Suns-Jsc and large-area device modelling.
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📦 Chapter 12: Materials & Data
Material databases, optical constants, OGHMA file format, outputs and plotting.
📦 Chapter 12: Materials & DataMaterial databases, optical constants, OGHMA file format, outputs and plotting.
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⚙️ Chapter 13: Automation, Scripting and Numerics
Batch runs, sweeps, Lua/Python automation, APIs and ML hooks.
⚙️ Chapter 13: Automation, Scripting and NumericsBatch runs, sweeps, Lua/Python automation, APIs and ML hooks.
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🖥️ Chapter 14: Simulation Editors (UI Reference)
Editors for JV, time/frequency domain (TPC/TPV, IMPS/IMVS), QE, Suns-Voc/Jsc, SPM and more.
🖥️ Chapter 14: Simulation Editors (UI Reference)Editors for JV, time/frequency domain (TPC/TPV, IMPS/IMVS), QE, Suns-Voc/Jsc, SPM and more.
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🆘 Chapter 15: Troubleshooting & FAQs
Common problems, fixes, and best-practice checklists.
🆘 Chapter 15: Troubleshooting & FAQsCommon problems, fixes, and best-practice checklists.