Канал: Geeky Peek

Innovative Scramjet update (3) - Winter 2022/23

Innovative Scramjet update (3) - Winter 2022/23

Analogue electronics 122: Op-amps basics 3 - Feedback 2

Analogue electronics 122: Op-amps basics 3 - Feedback 2

Analogue electronics 121: Op-amps basics 2 - Feedback 1

Analogue electronics 121: Op-amps basics 2 - Feedback 1

Analogue electronics 120: Op-amps basics 1 - What is an Op-amp?

Analogue electronics 120: Op-amps basics 1 - What is an Op-amp?

ANNs and EAs 49: Alternative neuron models 8 - Pulsing neurons 5 - A PWM example

ANNs and EAs 49: Alternative neuron models 8 - Pulsing neurons 5 - A PWM example

Analogue electronics 119: Integrated circuits

Analogue electronics 119: Integrated circuits

ANNs and EAs 48: Alternative neuron models 7 - Pulsing neurons 4 - Outputs, errors and training

ANNs and EAs 48: Alternative neuron models 7 - Pulsing neurons 4 - Outputs, errors and training

ANNs and EAs 47: Alternative neuron models 6 - Pulsing neurons 3 - Coding pulsing networks

ANNs and EAs 47: Alternative neuron models 6 - Pulsing neurons 3 - Coding pulsing networks

Analogue electronics 118: Other discrete devices used in electronics

Analogue electronics 118: Other discrete devices used in electronics

ANNs and EAs 46: Alternative neuron models 5 - Pulsing neurons 2 - The leaky integrator

ANNs and EAs 46: Alternative neuron models 5 - Pulsing neurons 2 - The leaky integrator

Analogue electronics 117: Valves 11 - Multigrid valves and final thoughts

Analogue electronics 117: Valves 11 - Multigrid valves and final thoughts

Analogue electronics 116: Valves 10 - Pentodes (2) amplifiers

Analogue electronics 116: Valves 10 - Pentodes (2) amplifiers

Analogue electronics 115: Valves 9 - Pentodes (1) basics

Analogue electronics 115: Valves 9 - Pentodes (1) basics

ANNs and EAs 45: Alternative neuron models 4 - Pulsing neurons 1 - Basics

ANNs and EAs 45: Alternative neuron models 4 - Pulsing neurons 1 - Basics

ANNs and EAs 44: Alternative neuron models 3 - Spikey / Spiking neurons

ANNs and EAs 44: Alternative neuron models 3 - Spikey / Spiking neurons

Analogue electronics 114: Valves 8 - Tetrodes

Analogue electronics 114: Valves 8 - Tetrodes

Analogue electronics 113: Valves 7 - Triodes (5) final thoughts

Analogue electronics 113: Valves 7 - Triodes (5) final thoughts

Analogue electronics 112: Valves 6 - Triodes (4) cathode (self) bias

Analogue electronics 112: Valves 6 - Triodes (4) cathode (self) bias

Analogue electronics 111: Valves 5 - Triodes (3) amplifier parameters

Analogue electronics 111: Valves 5 - Triodes (3) amplifier parameters

Analogue electronics 110: Valves 4 - Triodes (2) constant grid bias

Analogue electronics 110: Valves 4 - Triodes (2) constant grid bias

Analogue electronics 109: Valves 3 - Triodes (1) basics

Analogue electronics 109: Valves 3 - Triodes (1) basics

ANNs and EAs 43: Alternative neuron models 2 - Polynomial / Power Series neurons

ANNs and EAs 43: Alternative neuron models 2 - Polynomial / Power Series neurons

Analogue electronics 108: Valves 2 - Basic Valve operation and physical principles

Analogue electronics 108: Valves 2 - Basic Valve operation and physical principles

ANNs and EAs 42: Alternative neuron models 1 - Radial Basis neurons

ANNs and EAs 42: Alternative neuron models 1 - Radial Basis neurons

Analogue electronics 107: Valves 1 - Introduction

Analogue electronics 107: Valves 1 - Introduction

Analogue electronics 106: FETs Vs BJTs

Analogue electronics 106: FETs Vs BJTs

Analogue electronics 105: Other FET circuits

Analogue electronics 105: Other FET circuits

Analogue electronic 104: The FET as an analogue switch and voltage controlled resistor

Analogue electronic 104: The FET as an analogue switch and voltage controlled resistor

Analogue electronics 103: FET amplifiers 5 - More on the Common Source configuration

Analogue electronics 103: FET amplifiers 5 - More on the Common Source configuration

Analogue electronics 102: FET amplifiers 4 - Voltage divider bias

Analogue electronics 102: FET amplifiers 4 - Voltage divider bias

ANNs and EAs 41: A summary of simple (shallow) ANNs

ANNs and EAs 41: A summary of simple (shallow) ANNs

ANNs and EAs 40: Recurrent ANNs 5 - other training options

ANNs and EAs 40: Recurrent ANNs 5 - other training options

Analogue electronics 101: FET amplifiers 3 - Self bias

Analogue electronics 101: FET amplifiers 3 - Self bias

ANNs and EAs 39: Recurrent ANNs 4 - training a Hopfield net (2)

ANNs and EAs 39: Recurrent ANNs 4 - training a Hopfield net (2)

ANNs and EAs 38: Recurrent ANNs 3 - training a Hopfield net (1)

ANNs and EAs 38: Recurrent ANNs 3 - training a Hopfield net (1)

Innovative Scramjet update (2) - Spring 2020

Innovative Scramjet update (2) - Spring 2020

Analogue electronics 100: FET amplifiers 2 - Constant gate bias

Analogue electronics 100: FET amplifiers 2 - Constant gate bias

ANNs and EAs 37: Recurrent ANNs 2 - the basic Hopfield network

ANNs and EAs 37: Recurrent ANNs 2 - the basic Hopfield network

ANNs and EAs 36: Recurrent ANNs 1 - what is a recurrent ANN?

ANNs and EAs 36: Recurrent ANNs 1 - what is a recurrent ANN?

Analogue electronics 99: FET amplifiers 1 - General approach to biasing

Analogue electronics 99: FET amplifiers 1 - General approach to biasing

ANNs and EAs 35: Competitive nets 5 - more advanced networks

ANNs and EAs 35: Competitive nets 5 - more advanced networks

Analogue electronics 98: Introduction to FETs 4 - The JFET

Analogue electronics 98: Introduction to FETs 4 - The JFET

ANNs and EAs 34: Competitive nets 4 - training algorithm

ANNs and EAs 34: Competitive nets 4 - training algorithm

ANNs and EAs 33: Competitive nets 3 - weight setup and vector normalisation

ANNs and EAs 33: Competitive nets 3 - weight setup and vector normalisation

Analogue electronics 97: Introduction to FETs 3 - The MOSFET

Analogue electronics 97: Introduction to FETs 3 - The MOSFET

ANNs and EAs 32: Competitive nets 2 - operation in terms of vectors

ANNs and EAs 32: Competitive nets 2 - operation in terms of vectors

Analogue electronics 96: Introduction to FETs 2 - General FET operation

Analogue electronics 96: Introduction to FETs 2 - General FET operation

ANNs and EAs 31: Competitive nets 1 - basics

ANNs and EAs 31: Competitive nets 1 - basics

Analogue electronics 95: Introduction to FETs 1 - Basics

Analogue electronics 95: Introduction to FETs 1 - Basics

Analogue electronics 94: Other transistor circuits 8 - The cascode amplifier

Analogue electronics 94: Other transistor circuits 8 - The cascode amplifier

Analogue electronic 93: Other transistor circuits 7 - Tuned amplifiers

Analogue electronic 93: Other transistor circuits 7 - Tuned amplifiers

Analogue electronics 92: Other transistor circuits 6 - Push-pull amplifiers

Analogue electronics 92: Other transistor circuits 6 - Push-pull amplifiers

Analogue electronics 91: Other transistor circuits 5 - Differential amplifiers

Analogue electronics 91: Other transistor circuits 5 - Differential amplifiers

Analogue electronics 90: Other transistor circuits 4 - Current mirrors

Analogue electronics 90: Other transistor circuits 4 - Current mirrors

Analogue electronics 89: Other transistor circuits 3 - Linear voltage regulators

Analogue electronics 89: Other transistor circuits 3 - Linear voltage regulators

An innovative Farnsworth-Hirsch Fusor (Inertial Electrostatic Confinement IEC Fusion Reactor)

An innovative Farnsworth-Hirsch Fusor (Inertial Electrostatic Confinement IEC Fusion Reactor)

Analogue electronics 88: Other transistor circuits 2 - "Super-beta" transistors

Analogue electronics 88: Other transistor circuits 2 - "Super-beta" transistors

Analogue electronics 87: Other transistor circuits 1 - The transistor as a switch

Analogue electronics 87: Other transistor circuits 1 - The transistor as a switch

Innovative Scramjet update (1) - Dec 2018

Innovative Scramjet update (1) - Dec 2018

Analogue electronics 86: Transistor models 5 - The "h" parameter model

Analogue electronics 86: Transistor models 5 - The "h" parameter model

Analogue electronics 85: Transistor models 4 - Matrix methods in modelling

Analogue electronics 85: Transistor models 4 - Matrix methods in modelling

Analogue electronics 84: Transistor models 3 - Using the hybrid pi model

Analogue electronics 84: Transistor models 3 - Using the hybrid pi model

Analogue electronics 83: Transistor models 2 - Additions to the hybrid pi model

Analogue electronics 83: Transistor models 2 - Additions to the hybrid pi model

Analogue electronics 82: Transistor models 1 - The hybrid pi model

Analogue electronics 82: Transistor models 1 - The hybrid pi model

Analogue electronics 81: Transistor amplifiers 16 - Additions to the basic Crystal Set

Analogue electronics 81: Transistor amplifiers 16 - Additions to the basic Crystal Set

ANNs and EAs 30: Implementation technologies for ANNs

ANNs and EAs 30: Implementation technologies for ANNs

Analogue electronics 80: Transistor amplifiers 15 - Good practice in circuit construction

Analogue electronics 80: Transistor amplifiers 15 - Good practice in circuit construction

ANNs and EAs 29: Advice on coding your first networks

ANNs and EAs 29: Advice on coding your first networks

Analogue electronics 79: Transistor amplifiers 14 - Distortion due to saturation

Analogue electronics 79: Transistor amplifiers 14 - Distortion due to saturation

Analogue electronics 78: Transistor amplfiers 13 - The phase splitter

Analogue electronics 78: Transistor amplfiers 13 - The phase splitter

ANNs and EAs 28: Using simple nets 7 - what ANNs can and can't do

ANNs and EAs 28: Using simple nets 7 - what ANNs can and can't do

ANNs and EAs 27: Using simple nets 6 - network size and training (2), overfitting and overtraining

ANNs and EAs 27: Using simple nets 6 - network size and training (2), overfitting and overtraining

Analogue electronics 77: Transistor amplifiers 12 - Common base amplifier design

Analogue electronics 77: Transistor amplifiers 12 - Common base amplifier design

ANNs and EAs 26: Using simple nets 5 - network size and training (1), number of layers

ANNs and EAs 26: Using simple nets 5 - network size and training (1), number of layers

Analogue electronics 76: Transistor amplifiers 11 - Common collector (2), design

Analogue electronics 76: Transistor amplifiers 11 - Common collector (2), design

Analogue electronics 75: Transistor amplifiers 10 - Common collector (1), what is a buffer

Analogue electronics 75: Transistor amplifiers 10 - Common collector (1), what is a buffer

ANNs and EAs 25: Using sImple nets 4 - the Exclusive-OR problem

ANNs and EAs 25: Using sImple nets 4 - the Exclusive-OR problem

ANNs and EAs 24: Using simple nets 3 - pre-processing input data

ANNs and EAs 24: Using simple nets 3 - pre-processing input data

ANNs and EAs 23: Using simple nets 2 - applications in health and human-machine interface

ANNs and EAs 23: Using simple nets 2 - applications in health and human-machine interface

Analogue electronics 74: Transistor amplifiers 9 - Common emitter, collector and base amplifiers.

Analogue electronics 74: Transistor amplifiers 9 - Common emitter, collector and base amplifiers.

ANNs and EAs 22: Using simple nets 1 - applications

ANNs and EAs 22: Using simple nets 1 - applications

Analogue electronics 73: Transistor amplifiers 8 - More on the emitter degenerated CE amplifier (3)

Analogue electronics 73: Transistor amplifiers 8 - More on the emitter degenerated CE amplifier (3)

ANNs and EAs 21: Back Propagation 4 - problems with BP

ANNs and EAs 21: Back Propagation 4 - problems with BP

Analogue electronics 72: Transistor amplifiers 7 - More on the emitter degenerated CE amplifier (2)

Analogue electronics 72: Transistor amplifiers 7 - More on the emitter degenerated CE amplifier (2)

Incremental Evolutionary Growth in Artifical Neural Networks

Incremental Evolutionary Growth in Artifical Neural Networks

ANNs and EAs 20: Back Propagation 3 - worked example

ANNs and EAs 20: Back Propagation 3 - worked example

Analogue electronics 71: Transistor amplifiers 6 - More on the emitter degenerated CE amplifier (1)

Analogue electronics 71: Transistor amplifiers 6 - More on the emitter degenerated CE amplifier (1)

ANNs and EAs 19: Back Propagation 2 - the algorithm

ANNs and EAs 19: Back Propagation 2 - the algorithm

Analogue electronics 70: Transistor amplifiers 5 - The emitter degenerated common emitter amplifier

Analogue electronics 70: Transistor amplifiers 5 - The emitter degenerated common emitter amplifier

Analogue electronics 69: Transistor amplifiers 4 - The load line

Analogue electronics 69: Transistor amplifiers 4 - The load line

Analogue electronics 68: Transistor amplifiers 3 - Problems with simple amplifiers

Analogue electronics 68: Transistor amplifiers 3 - Problems with simple amplifiers

ANNs and EAs 18: Back Propagation 1 - back propagation intro and approach

ANNs and EAs 18: Back Propagation 1 - back propagation intro and approach

Analogue electronics 67: Transistor amplifiers 2 - Amplifier bias and a simple working amplifier

Analogue electronics 67: Transistor amplifiers 2 - Amplifier bias and a simple working amplifier

Analogue electronics 66: Transistor amplifiers 1 - Trying the transistor as an amplifier

Analogue electronics 66: Transistor amplifiers 1 - Trying the transistor as an amplifier

ANNs and EAs 17: Basic Artificial Neural Nets 9 - forward-pass of a simple network

ANNs and EAs 17: Basic Artificial Neural Nets 9 - forward-pass of a simple network

ANNs and EAs 16: Basic Artificial Neural Nets 8 - why we need networks

ANNs and EAs 16: Basic Artificial Neural Nets 8 - why we need networks

Analogue electronics 65: Basic transistors 5 - The transistor as a switch

Analogue electronics 65: Basic transistors 5 - The transistor as a switch

ANNs and EAs 15: Basic Artificial Neural Nets 7 - an introduction to learning

ANNs and EAs 15: Basic Artificial Neural Nets 7 - an introduction to learning

ANNs and EAs 14: Basic Artificial Neural Nets 6 - patterns and simple neurons

ANNs and EAs 14: Basic Artificial Neural Nets 6 - patterns and simple neurons

Analogue electronics 64: Basic transistors 4 - How transistors really work

Analogue electronics 64: Basic transistors 4 - How transistors really work

ANNs and EAs 13: Basic Artificial Neural Nets 5 - comparison of artificial and biological neurons

ANNs and EAs 13: Basic Artificial Neural Nets 5 - comparison of artificial and biological neurons

ANNs and EAs 12: Basic Artificial Neural Nets 4 - variations on the theme of the simple neuron

ANNs and EAs 12: Basic Artificial Neural Nets 4 - variations on the theme of the simple neuron

Analogue electronics 63: Basic transistors 3 - More detail on transistors

Analogue electronics 63: Basic transistors 3 - More detail on transistors

Analogue electronics 62: Basic transistors 2 - Construction

Analogue electronics 62: Basic transistors 2 - Construction

ANNs and EAs 11: Basic Artificial Neural Nets 3 - simple neuron, worked example

ANNs and EAs 11: Basic Artificial Neural Nets 3 - simple neuron, worked example

ANNs and EAs 10: Basic Artificial Neural Nets 2 - the basic artifical neuron

ANNs and EAs 10: Basic Artificial Neural Nets 2 - the basic artifical neuron

Artificial Neural Nets and Evolutionary Algorithms 9: Basic Artificial Neural Nets 1 - history

Artificial Neural Nets and Evolutionary Algorithms 9: Basic Artificial Neural Nets 1 - history

Analogue electronics 61: Basic transistors 1 - Facts and simple operation

Analogue electronics 61: Basic transistors 1 - Facts and simple operation

Artificial Neural Nets and Evolutionary Algorithms 8: Biology 7 - simple learning

Artificial Neural Nets and Evolutionary Algorithms 8: Biology 7 - simple learning

Artificial Neural Nets and Evolutionary Algorithms 7: Biology 6 - the synapse

Artificial Neural Nets and Evolutionary Algorithms 7: Biology 6 - the synapse

Artificial Neural Nets and Evolutionary Algorithms 6: Biology 5 - the neural signal

Artificial Neural Nets and Evolutionary Algorithms 6: Biology 5 - the neural signal

Artificial Neural Nets and Evolutionary Algorithms 5: Biology 4 - the action potential

Artificial Neural Nets and Evolutionary Algorithms 5: Biology 4 - the action potential

Analogue electronics 60: Three terminal devices 2 - Historical perspective: The triode

Analogue electronics 60: Three terminal devices 2 - Historical perspective: The triode

Analogue electronics 59: Three terminal devices 1 - Overview: BJTs, FETs and valves

Analogue electronics 59: Three terminal devices 1 - Overview: BJTs, FETs and valves

Artificial Neural Nets and Evolutionary Algorithms 4: Biology 3 - neuron anatomy

Artificial Neural Nets and Evolutionary Algorithms 4: Biology 3 - neuron anatomy

Analogue electronics 58: Diodes 19 - The diode model

Analogue electronics 58: Diodes 19 - The diode model

Analogue electronics 57: Diodes 18 - An introduction to electronic models

Analogue electronics 57: Diodes 18 - An introduction to electronic models

Analogue electronics 56: Diodes 17 - Other diodes

Analogue electronics 56: Diodes 17 - Other diodes

Artificial Neural Nets and Evolutionary Algorithms 3: Biology 2 - the neural zoo

Artificial Neural Nets and Evolutionary Algorithms 3: Biology 2 - the neural zoo

Analogue electronics 55: Diodes 16 - Diodes and light

Analogue electronics 55: Diodes 16 - Diodes and light

Analogue electronics 54: Diodes 15 - Diodes for protection

Analogue electronics 54: Diodes 15 - Diodes for protection

Artificial Neural Nets and Evolutionary Algorithms 2: Biology 1 - overview of nervous system

Artificial Neural Nets and Evolutionary Algorithms 2: Biology 1 - overview of nervous system

Analogue electronics 53: Diodes 14 - Project: making a crystal set

Analogue electronics 53: Diodes 14 - Project: making a crystal set

Artifical Neural Nets and Evolutionary Algorithms 1: Introduction

Artifical Neural Nets and Evolutionary Algorithms 1: Introduction

Analogue electronics 52: Diodes 13 - The envelope detector

Analogue electronics 52: Diodes 13 - The envelope detector

Interstellar Travel 6 - Conclusions

Interstellar Travel 6 - Conclusions

Analogue electronics 51: Diodes 12 - Switched mode power supplies

Analogue electronics 51: Diodes 12 - Switched mode power supplies

Analogue electronics 50: Diodes 11 - The zener diode

Analogue electronics 50: Diodes 11 - The zener diode

Interstellar Travel 5 - Quantum mechanical methods

Interstellar Travel 5 - Quantum mechanical methods

Interstellar Travel 4 - Methods using relativity

Interstellar Travel 4 - Methods using relativity

Analogue electronics 49: Diodes 10 - Linear power supplies

Analogue electronics 49: Diodes 10 - Linear power supplies

Analogue electronics 48: Diodes 9 - The full-wave rectifier

Analogue electronics 48: Diodes 9 - The full-wave rectifier

Analogue electronics 47: Diodes 8 - The half-wave rectifier

Analogue electronics 47: Diodes 8 - The half-wave rectifier

Interstellar Travel 3 - High speed propulsion systems

Interstellar Travel 3 - High speed propulsion systems

Analogue electronics 46: Diodes 7 - Other common diodes

Analogue electronics 46: Diodes 7 - Other common diodes

Analogue electronics 45: Diodes 6 - Real diode behaviour

Analogue electronics 45: Diodes 6 - Real diode behaviour

Analogue electronics 44: Diodes 5 - How diodes are made

Analogue electronics 44: Diodes 5 - How diodes are made

Analogue electronics 43: Diodes 4 - The pn junction

Analogue electronics 43: Diodes 4 - The pn junction

Analogue electronics 42: Diodes 3 - Semiconductors

Analogue electronics 42: Diodes 3 - Semiconductors

Interstellar Travel 2 - Can we travel faster than light?

Interstellar Travel 2 - Can we travel faster than light?

Analogue electronics 41: Diodes 2 - A history lesson: diode valves

Analogue electronics 41: Diodes 2 - A history lesson: diode valves

Interstellar Travel 1 - Travelling very fast: time dilation

Interstellar Travel 1 - Travelling very fast: time dilation

Analogue electronics 40: Diodes 1 - Basics: what is a diode?

Analogue electronics 40: Diodes 1 - Basics: what is a diode?

Analogue electronics 39: Practicalities 8 - Test instruments

Analogue electronics 39: Practicalities 8 - Test instruments

Analogue electronics 38: Practicalities 7 - Datasheets

Analogue electronics 38: Practicalities 7 - Datasheets

Analogue electronics 37: Practicalities 6 - Modular design in circuits and systems

Analogue electronics 37: Practicalities 6 - Modular design in circuits and systems

Analogue electronics 36: Practicalities 5 - How to solder

Analogue electronics 36: Practicalities 5 - How to solder

Analogue electronics 35: Practicalities 4 - Laying out a prototype circuit

Analogue electronics 35: Practicalities 4 - Laying out a prototype circuit

Analogue electronics 34: Practicalities 3 - Prototyping methods

Analogue electronics 34: Practicalities 3 - Prototyping methods

Analogue electronics 33: Practicalities 2 - Simulation

Analogue electronics 33: Practicalities 2 - Simulation

Analogue electronics 32: Practicalities 1 - Design proceedure

Analogue electronics 32: Practicalities 1 - Design proceedure

Innovative Scramjet Design

Innovative Scramjet Design

Innovative IEC fusion reactor design: The Inverted Fusor - Animation

Innovative IEC fusion reactor design: The Inverted Fusor - Animation

Analogue electronics 31: Basics 31 - Information, noise and bandwidth

Analogue electronics 31: Basics 31 - Information, noise and bandwidth

Analogue electronics 30: Basics 30 - Noise

Analogue electronics 30: Basics 30 - Noise

Analogue electronics 29: Basics 29 - Parasitic components

Analogue electronics 29: Basics 29 - Parasitic components

Analogue electronics 28: Basics 28 - Input and output resistance / impedance

Analogue electronics 28: Basics 28 - Input and output resistance / impedance

The Fusor - Video 8: Innovative Designs, Future and Conclusions

The Fusor - Video 8: Innovative Designs, Future and Conclusions

The Fusor - Video 7: Particle Density Issues

The Fusor - Video 7: Particle Density Issues

Analogue electronics 27: Basics 27 - Transfer functions

Analogue electronics 27: Basics 27 - Transfer functions

Analogue electronics 26: Basics 26 - Ports

Analogue electronics 26: Basics 26 - Ports

The Fusor - Video 6: Losses and Energy Reclaim

The Fusor - Video 6: Losses and Energy Reclaim

Analogue electronics 25: Basics 25 - Introduction to sensors

Analogue electronics 25: Basics 25 - Introduction to sensors

The Fusor - Video 5: Basic Fusor Designs

The Fusor - Video 5: Basic Fusor Designs

Analogue electronics 24: Basics 24 - Electronic systems

Analogue electronics 24: Basics 24 - Electronic systems

Analogue electronics 23: Basics 23 - The building blocks of analogue electronic systems

Analogue electronics 23: Basics 23 - The building blocks of analogue electronic systems

Analogue electronics 22: Basics 22 - Voltage and current sources

Analogue electronics 22: Basics 22 - Voltage and current sources

Analogue electronics 21: Basics 21 - Transformers

Analogue electronics 21: Basics 21 - Transformers

Analogue electronics 20: Basics 20 - Resonant LC circuits

Analogue electronics 20: Basics 20 - Resonant LC circuits

The Fusor - Video 4: The Basics of Fusion 2

The Fusor - Video 4: The Basics of Fusion 2

The Fusor - Video 3: The Basics of Fusion 1

The Fusor - Video 3: The Basics of Fusion 1

Analogue electronics 19: Basics 19 - Simple RC filters

Analogue electronics 19: Basics 19 - Simple RC filters

Analogue electronics 18: Basics 18 - Basic filter types

Analogue electronics 18: Basics 18 - Basic filter types

The Fusor - Video 2: Fusion and Fission

The Fusor - Video 2: Fusion and Fission

The Fusor - Video 1: Introduction

The Fusor - Video 1: Introduction

Analogue electronics 17: Basics 17 - Phase in RC circuits and impedance

Analogue electronics 17: Basics 17 - Phase in RC circuits and impedance

Scramjets 18 - Conclusions and summary

Scramjets 18 - Conclusions and summary

Scramjets 17 - Doing without combustion

Scramjets 17 - Doing without combustion

Scramjets 16 - Radical engine topologies

Scramjets 16 - Radical engine topologies

Analogue electronics 16: Basics 16 - A summary of R,C and L in AC circuits

Analogue electronics 16: Basics 16 - A summary of R,C and L in AC circuits

Analogue electronics 15: Basics 15 - Inductors

Analogue electronics 15: Basics 15 - Inductors

Analogue electronics 14: Basics 14 - Capacitors in AC circuits

Analogue electronics 14: Basics 14 - Capacitors in AC circuits

Scramjets 15 - Mixing: Using Pelletized fuel to overcome air-fuel mixing problems

Scramjets 15 - Mixing: Using Pelletized fuel to overcome air-fuel mixing problems

Scramjets 14 - Mixing: Basic enhancement devices

Scramjets 14 - Mixing: Basic enhancement devices

Analogue electronics 13: Basics 13 - Basic capacitors and their DC behaviour

Analogue electronics 13: Basics 13 - Basic capacitors and their DC behaviour

Scramjets 13 - Mixing: Compressibility and simple injectors

Scramjets 13 - Mixing: Compressibility and simple injectors

Analogue electronics 12: Basics 12 - Resistors

Analogue electronics 12: Basics 12 - Resistors

Alternatives methods of accessing space?

Alternatives methods of accessing space?

Scramjets 12 - Mixing: basic diffusion

Scramjets 12 - Mixing: basic diffusion

Analogue electronics 11: Basics 11 - The audio spectrum

Analogue electronics 11: Basics 11 - The audio spectrum

Analogue electronics 10: Basics 10 - Time and frequency domain

Analogue electronics 10: Basics 10 - Time and frequency domain

Scramjets 11 - Prelude to mixing

Scramjets 11 - Prelude to mixing

Scramjets 10 - Exhausts

Scramjets 10 - Exhausts

Analogue electronics 9: Basics 9 - Series and parallel circuits

Analogue electronics 9: Basics 9 - Series and parallel circuits

Analogue electonics 8: Basics 8 - Units and decibels (dB)

Analogue electonics 8: Basics 8 - Units and decibels (dB)

Analogue electronics 7: Basics 7 - Phase

Analogue electronics 7: Basics 7 - Phase

Scramjets 9 - Inlets

Scramjets 9 - Inlets

Analogue electronics 6: Basics 6 - Basic AC and DC Signals and Waveforms

Analogue electronics 6: Basics 6 - Basic AC and DC Signals and Waveforms

Scramjets 8 - Going further: resources

Scramjets 8 - Going further: resources

Scramjets 7 - The complete scramjet engine

Scramjets 7 - The complete scramjet engine