Канал: Tim Holman

License plate capture test with the Wyze Cam OG Telephoto

License plate capture test with the Wyze Cam OG Telephoto

Door Checker on Beechwood / Sweetbriar Avenue on March 19, 2023

Door Checker on Beechwood / Sweetbriar Avenue on March 19, 2023

Door checker walking down Beechwood Avenue on Oct. 4, 2023 between 2:20 and 2:33 a.m.

Door checker walking down Beechwood Avenue on Oct. 4, 2023 between 2:20 and 2:33 a.m.

Catalytic converter theft on Beechwood Avenue on June 14, 2022.

Catalytic converter theft on Beechwood Avenue on June 14, 2022.

Attempted burglary of a construction trailer on Feb. 14, 2023

Attempted burglary of a construction trailer on Feb. 14, 2023

Driving under the influence on Beechwood Avenue on Jan. 18, 2023.

Driving under the influence on Beechwood Avenue on Jan. 18, 2023.

Pamphlet tossers on Beechwood Avenue at 10:55 p.m. on Mar. 31, 2023.

Pamphlet tossers on Beechwood Avenue at 10:55 p.m. on Mar. 31, 2023.

VUARC Technician Class License Course - Module 2

VUARC Technician Class License Course - Module 2

Choosing the Right Security Camera for Your Home, Business, or Neighborhood - Nov. 29, 2022

Choosing the Right Security Camera for Your Home, Business, or Neighborhood - Nov. 29, 2022

Electronics - Lecture 17: MOSFET body effect, basic amplifier topologies, common-source amplifier

Electronics - Lecture 17: MOSFET body effect, basic amplifier topologies, common-source amplifier

Electronics - Lecture 18: Common-source, -gate, and -drain amplifiers, dynamic output range

Electronics - Lecture 18: Common-source, -gate, and -drain amplifiers, dynamic output range

Electronics - Lecture 19: BJT small-signal model, common-emitter amplifier

Electronics - Lecture 19: BJT small-signal model, common-emitter amplifier

Electronics - Lecture 20: Common-base, -collector amplifiers, practical biasing techniques

Electronics - Lecture 20: Common-base, -collector amplifiers, practical biasing techniques

Electronics - Lecture 21: MOSFET biasing techniques, current mirrors, practical BJT biasing

Electronics - Lecture 21: MOSFET biasing techniques, current mirrors, practical BJT biasing

Electronics - Lecture 22: BJT biasing techniques, CMOS digital circuits

Electronics - Lecture 22: BJT biasing techniques, CMOS digital circuits

Electronics - Lecture 24: Current sources, sinks, and mirrors; cascaded amplifiers

Electronics - Lecture 24: Current sources, sinks, and mirrors; cascaded amplifiers

Electronics - Lecture 25: Differential amplifiers, the design of a simple op amp

Electronics - Lecture 25: Differential amplifiers, the design of a simple op amp

Electronics - Lecture 23: Integrated circuit amplifiers, cascode amplifiers, current mirrors

Electronics - Lecture 23: Integrated circuit amplifiers, cascode amplifiers, current mirrors

Electronics - Lecture 16: Transistor amplifiers, transistor small-signal models and analysis

Electronics - Lecture 16: Transistor amplifiers, transistor small-signal models and analysis

Electronics - Lecture 15: DC analysis of BJTs, Thevenin's Theorem in BJT analysis

Electronics - Lecture 15: DC analysis of BJTs, Thevenin's Theorem in BJT analysis

Electronics - Lecture 14: DC analysis of BJTs, the Early Voltage, strong vs. weak saturation

Electronics - Lecture 14: DC analysis of BJTs, the Early Voltage, strong vs. weak saturation

Electronics - Lecture 13: BJT beta and alpha parameters, cutoff, saturation, DC analysis of BJTs

Electronics - Lecture 13: BJT beta and alpha parameters, cutoff, saturation, DC analysis of BJTs

Electronics - Lecture 12: MOSFET design examples, BJTs, forward active operation of a BJT

Electronics - Lecture 12: MOSFET design examples, BJTs, forward active operation of a BJT

Electronics - Lecture 11: MOSFET design examples, DC analysis of PFETs

Electronics - Lecture 11: MOSFET design examples, DC analysis of PFETs

Electronics - Lecture 10: NFET and PFET parameters, schematic symbols, DC analysis of MOSFETs

Electronics - Lecture 10: NFET and PFET parameters, schematic symbols, DC analysis of MOSFETs

Electronics - Lecture 9: MOSFET operation, threshold voltage, transconductance

Electronics - Lecture 9: MOSFET operation, threshold voltage, transconductance

Electronics - Lecture 8: Peak detector, DC restorer, AM demodulation, "superdiodes", MOSFETs

Electronics - Lecture 8: Peak detector, DC restorer, AM demodulation, "superdiodes", MOSFETs

Electronics - Lecture 7: Power supplies, full wave rectifiers, output voltage droop, diode limiters

Electronics - Lecture 7: Power supplies, full wave rectifiers, output voltage droop, diode limiters

Electronics - Lecture 6: Voltage regulators, Zener diodes, line and load regulation, power supplies

Electronics - Lecture 6: Voltage regulators, Zener diodes, line and load regulation, power supplies

Electronics - Lecture 5: Diode small-signal model, small-signal AC analysis, voltage regulation

Electronics - Lecture 5: Diode small-signal model, small-signal AC analysis, voltage regulation

Electronics - Lecture 4: DC analysis of diode circuits, voltage references, small-signal analysis

Electronics - Lecture 4: DC analysis of diode circuits, voltage references, small-signal analysis

Electronics - Lecture 3: Circuits with multiple diodes, the p-n junction (non-ideal) diode

Electronics - Lecture 3: Circuits with multiple diodes, the p-n junction (non-ideal) diode

Electronics - Lecture 2: Half-wave rectifiers, diode current steering circuits, diode logic circuits

Electronics - Lecture 2: Half-wave rectifiers, diode current steering circuits, diode logic circuits

Electronics - Lecture 1: The p-n junction, ideal diodes, circuit analysis with diodes

Electronics - Lecture 1: The p-n junction, ideal diodes, circuit analysis with diodes

VUARC Technician Class License Course - Module 1

VUARC Technician Class License Course - Module 1

VU LTspice tutorial

VU LTspice tutorial

Choosing the Right Security Camera for Your Home, Business, or Neighborhood - Aug. 2021

Choosing the Right Security Camera for Your Home, Business, or Neighborhood - Aug. 2021

EECE 2112 Module 86: Final Notes on Complex Power

EECE 2112 Module 86: Final Notes on Complex Power

EECE 2112 Module 85: Power Factor Correction (continued)

EECE 2112 Module 85: Power Factor Correction (continued)

EECE 2112 Module 84: An Example of Power Factor Correction

EECE 2112 Module 84: An Example of Power Factor Correction

EECE 2112 Module 83: Power Factor Correction

EECE 2112 Module 83: Power Factor Correction

EECE 2112 Module 82: Apparent Power and Power Factor

EECE 2112 Module 82: Apparent Power and Power Factor

EECE 2112 Module 81: Complex Power and Reactive Power

EECE 2112 Module 81: Complex Power and Reactive Power

EECE 2112 Module 80: Effective RMS Values of Voltage and Current

EECE 2112 Module 80: Effective RMS Values of Voltage and Current

EECE 2112 Module 79: Maximum Power Transfer in AC Circuits

EECE 2112 Module 79: Maximum Power Transfer in AC Circuits

EECE 2112 Module 78: Average Power Dissipation in an Impedance

EECE 2112 Module 78: Average Power Dissipation in an Impedance

EECE 2112 Module 77: AC Power

EECE 2112 Module 77: AC Power

EECE 2112 Module 76: Op Amp Circuits in the Frequency Domain

EECE 2112 Module 76: Op Amp Circuits in the Frequency Domain

EECE 2112 Module 75: Superposition in the Frequency Domain

EECE 2112 Module 75: Superposition in the Frequency Domain

EECE 2112 Module 74: Another Example of Thevenin's Theorem

EECE 2112 Module 74: Another Example of Thevenin's Theorem

EECE 2112 Module 73: Circuit Transformation Techniques in the Frequency Domain

EECE 2112 Module 73: Circuit Transformation Techniques in the Frequency Domain

EECE 2112 Module 72: Circuit Analysis in the Frequency Domain

EECE 2112 Module 72: Circuit Analysis in the Frequency Domain

EECE 2112 Module 71: Kirchhoff's Laws in the Frequency Domain

EECE 2112 Module 71: Kirchhoff's Laws in the Frequency Domain

EECE 2112 Module 70: Passive Circuit Elements in the Frequency Domain

EECE 2112 Module 70: Passive Circuit Elements in the Frequency Domain

EECE 2112 Module 69: Phasor Analysis and the Definition of a Phasor

EECE 2112 Module 69: Phasor Analysis and the Definition of a Phasor

EECE 2112 Module 68: The Sinusoidal Response (Why Phasor Analysis?)

EECE 2112 Module 68: The Sinusoidal Response (Why Phasor Analysis?)

EECE 2112 Module 67: Leading and Lagging Phase Angles

EECE 2112 Module 67: Leading and Lagging Phase Angles

EECE 2112 Module 66: Introduction to Sinusoidal AC Analysis

EECE 2112 Module 66: Introduction to Sinusoidal AC Analysis

EECE 2112 Module 65: A Summary of How to Solve for Any 1st Order Response

EECE 2112 Module 65: A Summary of How to Solve for Any 1st Order Response

EECE 2112 Module 64: Examples of the General Response of RL Circuits

EECE 2112 Module 64: Examples of the General Response of RL Circuits

EECE 2112 Module 63: The Forced and General Response of the RL Circuit

EECE 2112 Module 63: The Forced and General Response of the RL Circuit

EECE 2112 Module 62: Examples of the General Response in RC Circuits

EECE 2112 Module 62: Examples of the General Response in RC Circuits

EECE 2112 Module 61: The Step (Forced) and General Response of an RC Circuit

EECE 2112 Module 61: The Step (Forced) and General Response of an RC Circuit

EECE 2112 Module 60: Singularity Functions

EECE 2112 Module 60: Singularity Functions

EECE 2112 Module 52: Dynamic Op Amp Circuits

EECE 2112 Module 52: Dynamic Op Amp Circuits

EECE 2112 Module 57: Examples of Natural Response in RC Circuits

EECE 2112 Module 57: Examples of Natural Response in RC Circuits

EECE 2112 Module 59: Examples of Natural Response in RL Circuits

EECE 2112 Module 59: Examples of Natural Response in RL Circuits

EECE 2112 Module 55: The Natural Response of RC Circuits

EECE 2112 Module 55: The Natural Response of RC Circuits

EECE 2112 Module 51: Circuit Analysis with Capacitors and Inductors

EECE 2112 Module 51: Circuit Analysis with Capacitors and Inductors

EECE 2112 Module 58: The Natural Response of RL Circuits

EECE 2112 Module 58: The Natural Response of RL Circuits

EECE 2112 Module 56: Time Constants

EECE 2112 Module 56: Time Constants

EECE 2112 Module 53: A Qualitative Viewpoint & Parasitic Circuit Elements

EECE 2112 Module 53: A Qualitative Viewpoint & Parasitic Circuit Elements

EECE 2112 Module 50: Series and Parallel Combinations of Inductors

EECE 2112 Module 50: Series and Parallel Combinations of Inductors

EECE 2112 Module 54: The Response of First-Order RC and RL Circuits

EECE 2112 Module 54: The Response of First-Order RC and RL Circuits

EECE 2112 Module 41: More Applications with Op Amps

EECE 2112 Module 41: More Applications with Op Amps

EECE 2112 Module 42: Circuits with Multiple Op Amps

EECE 2112 Module 42: Circuits with Multiple Op Amps

EECE 2112 Module 48: The Inductor

EECE 2112 Module 48: The Inductor

EECE 2112 Module 49: The Inductor (continued)

EECE 2112 Module 49: The Inductor (continued)

EECE 2112 Module 45: The Capacitor

EECE 2112 Module 45: The Capacitor

EECE 2112 Module 47: Series and Parallel Combinations of Capacitors

EECE 2112 Module 47: Series and Parallel Combinations of Capacitors

EECE 2112 Module 46: The Capacitor (continued)

EECE 2112 Module 46: The Capacitor (continued)

EECE 2112 Module 43: Op Amp Saturation and the Comparator

EECE 2112 Module 43: Op Amp Saturation and the Comparator

EECE 2112 Module 44: Introduction to Capacitors and Inductors

EECE 2112 Module 44: Introduction to Capacitors and Inductors

EECE 2112 Module 40: The Non-Inverting Amplifier

EECE 2112 Module 40: The Non-Inverting Amplifier

EECE 2112 Module 37: The Operational Amplifier

EECE 2112 Module 37: The Operational Amplifier

EECE 2112 Module 36: The Maximum Power Transfer Theorem

EECE 2112 Module 36: The Maximum Power Transfer Theorem

EECE 2112 Module 39: The Inverting Amplifier

EECE 2112 Module 39: The Inverting Amplifier

EECE 2112 Module 35: Norton Equivalent Circuits

EECE 2112 Module 35: Norton Equivalent Circuits

EECE 2112 Module 32: Thevenin Equivalent Circuits

EECE 2112 Module 32: Thevenin Equivalent Circuits

EECE 2112 Module 33: The Source Driving (Source Excitation) Technique

EECE 2112 Module 33: The Source Driving (Source Excitation) Technique

EECE 2112 Module 28: Superposition with Dependent Sources

EECE 2112 Module 28: Superposition with Dependent Sources

EECE 2112 Module 29: Advanced Circuit Transformation Techniques

EECE 2112 Module 29: Advanced Circuit Transformation Techniques

EECE 2112 Module 30: Source Transformation

EECE 2112 Module 30: Source Transformation

EECE 2112 Module 34: More Examples of Thevenin Equivalent Circuits

EECE 2112 Module 34: More Examples of Thevenin Equivalent Circuits

EECE 2112 Module 31: Other Aspects of Source Transformation

EECE 2112 Module 31: Other Aspects of Source Transformation

EECE 2112 Module 38: The Three Rules of Ideal Op Amp Analysis

EECE 2112 Module 38: The Three Rules of Ideal Op Amp Analysis

EECE 2112 Module 22: Important Points to Remember with Nodal Analysis

EECE 2112 Module 22: Important Points to Remember with Nodal Analysis

EECE 2112 Module 23: Introduction to Mesh Analysis

EECE 2112 Module 23: Introduction to Mesh Analysis

EECE 2112 Module 24: Mesh Analysis with Current Sources

EECE 2112 Module 24: Mesh Analysis with Current Sources

EECE 2112 Module 25: The Supermesh

EECE 2112 Module 25: The Supermesh

EECE 2112 Module 26: Nodal Analysis vs. Mesh Analysis

EECE 2112 Module 26: Nodal Analysis vs. Mesh Analysis

EECE 2112 Module 27 Linearity and Superposition

EECE 2112 Module 27 Linearity and Superposition

EECE 2112 Module 21: The Supernode

EECE 2112 Module 21: The Supernode

EECE 2112 Module 18: Nodal Analysis with a Dependent Source

EECE 2112 Module 18: Nodal Analysis with a Dependent Source

EECE 2112 Module 19: Nodal Analysis with Voltage Sources

EECE 2112 Module 19: Nodal Analysis with Voltage Sources

EECE 2112 Module 20: Nodal Analysis Example with Defined Nodes

EECE 2112 Module 20: Nodal Analysis Example with Defined Nodes

EECE 2112 Module 17: Nodal Analysis Shortcuts

EECE 2112 Module 17: Nodal Analysis Shortcuts

EECE 2112 Module 16: Basic Nodal Analysis

EECE 2112 Module 16: Basic Nodal Analysis

EECE 2112 Module 15: An Introduction to Nodal Analysis

EECE 2112 Module 15: An Introduction to Nodal Analysis

EECE 2112 Module 14: Voltage and Current Division

EECE 2112 Module 14: Voltage and Current Division

EECE 2112 Module 13: Combining Series and Parallel Resistors

EECE 2112 Module 13: Combining Series and Parallel Resistors

EECE 2112 Module 12: Source Reduction

EECE 2112 Module 12: Source Reduction

EECE 2112 Module 11: Another Example of Brute Force Analysis

EECE 2112 Module 11: Another Example of Brute Force Analysis

EECE 2112 Module 10: Series and Parallel Connections

EECE 2112 Module 10: Series and Parallel Connections

EECE 2112 Module 09: "Brute Force" Circuit Analysis

EECE 2112 Module 09: "Brute Force" Circuit Analysis

EECE 2112 Module 08: Kirchhoff's Voltage Law (KVL)

EECE 2112 Module 08: Kirchhoff's Voltage Law (KVL)

EECE 2112 Module 07: Kirchhoff's Current Law (KCL)

EECE 2112 Module 07: Kirchhoff's Current Law (KCL)

EECE 2112 Module 06: Wires, Switches, and a Model of a Battery

EECE 2112 Module 06: Wires, Switches, and a Model of a Battery

EECE 2112 Module 05: Resistors and Ohm's Law

EECE 2112 Module 05: Resistors and Ohm's Law

EECE 2112 Module 04: Voltage Sources and Current Sources

EECE 2112 Module 04: Voltage Sources and Current Sources

EECE 2112 Module 03: The Ideal Circuit Element

EECE 2112 Module 03: The Ideal Circuit Element

EECE 2112 Module 02: Voltage and Current

EECE 2112 Module 02: Voltage and Current

EECE 2112 Module 01: Introduction to Circuit Analysis

EECE 2112 Module 01: Introduction to Circuit Analysis