Diagram Examples from Real Visitor Prompts

I want to create something that includes 1. Arduino Nano 2. 170 pin breadboard 3. LCD module 4. 3 Button Modules 5. UVC LED light 6. 3010 fans x 2 7. Atomizer 8. Charging port module 9. battery. Provide a circuit diagram for me

four cells in serie, two resistors in parallel, closed switch, ammeter in main stream and a VOLTMETER over second resistor

general main switch 3 phase with contactor for forward and contactor for backward with nc auxillary for protection each contactor working it.

Voltage supply 5 V. Input signal is an audiosignal 100 to 3000 Hz. This signal should be split in 8 frequency bands and a led should indicate if the the frequencys in this band contribute to the whole signal (compared to a treshold), in a 1/0 setting: the output should be one (led full on) when strenght of signal in band is over treshold, otherwise output should be 0. Use as few components as possible.

Generate a clean, structured schematic diagram for a 12V DC Motor Speed Control Circuit using an N-channel MOSFET. Components to include and label: 1. "12V DC Power Supply" (+12V and GND) 2. "B10K Potentiometer" (Pins: 1 = Left/GND, 2 = Wiper/Output, 3 = Right/+12V) 3. "UT100N03L MOSFET" (Pins labeled clearly: G = Gate, D = Drain, S = Source) 4. "12V DC Motor" (Terminals: Positive and Negative) 5. "1N4007 Flyback Diode" (Protection across the motor) Wiring Connections to map out: - Connect the 12V Power Supply Positive (+12V) to Pin 3 of the B10K Potentiometer and to the Positive terminal of the 12V DC Motor. - Connect the 12V Power Supply Negative (GND) to Pin 1 of the B10K Potentiometer and to the Source (S) pin of the UT100N03L MOSFET. - Connect Pin 2 (Wiper) of the B10K Potentiometer directly to the Gate (G) pin of the UT100N03L MOSFET. - Connect the Negative terminal of the 12V DC Motor to the Drain (D) pin of the UT100N03L MOSFET. - Place the 1N4007 Flyback Diode in parallel across the 12V DC Motor terminals, with the Cathode (striped side) connected to the motor's positive terminal and the Anode connected to the motor's negative terminal. Layout Orientation: Arrange left-to-right starting with the 12V Power Supply, moving to the Potentiometer, then the UT100N03L MOSFET, and placing the Motor at the top right. Use standard electrical engineering symbols for clarity.

* === 1-IGBT HALF-BRIDGE WELDER === * Simpan sebagai: welder.cir → buka di LTspice → F9 * AC Input 220V RMS V1 N001 0 AC 311 * Bridge Rectifier D1 N001 VBUS+ D=1N5408 D2 N002 VBUS+ D=1N5408 D3 VBUS- N001 D=1N5408 D4 VBUS- N002 D=1N5408 * DC Bus Filter C1 VBUS+ VBUS- 470u * IGBT (switch model) S1 VBUS+ PHASE Vgate 0 SWIGBT * Freewheeling Diode D6 PHASE VBUS- D=MUR1560 * HF Transformer (coupled inductors, ratio 5:3) L1 PHASE VBUS- 50uH L3 N003 N004 18uH K1 L1 L3 0.95 * Secondary Bridge Rectifier D7 N003 OUT+ D=MUR1560 D8 N004 OUT+ D=MUR1560 D9 OUT- N003 D=MUR1560 D10 OUT- N004 D=MUR1560 * Output Filter C2 OUT+ OUT- 1000u * Arc Load (~15V @ 100A) R1 OUT+ OUT- 0.15 * Gate Drive: PWM 30kHz, 50% duty Vgate GND PULSE(0 15 0 0.5u 0.5u 16.67u 33.33u) * IGBT Model .MODEL SWIGBT SW(Ron=0.005 Roff=1e9 Vt=0 Voff=0) * Transient: 2ms, step 10ns .TRAN 0 2m 0 10u .END

Design a room automation PCB mainboard powered by an ESP32-WROOM-32 (30-pin, USB-C variant). The PCB should connect to the following peripherals: 1. Microcontroller: ESP32-WROOM-32 Dev Board (30 pins). 2. Power Supply: Connects to a 5V/3.3V DC power source module to power the ESP32 (5V to VIN/5V pin, GND to GND) and supply 5V to the relays. 3. Relays (Control Output): - Relay Channel 1: ESP32 GPIO 18 - Relay Channel 2: ESP32 GPIO 19 - Relay Channel 3: ESP32 GPIO 21 - Relay Channel 4: ESP32 GPIO 22 - Relay Channel 5: ESP32 GPIO 23 - Relay Channel 6: ESP32 GPIO 25 4. IR Transmitter Module (KY-005): - VCC to 5V / 3.3V, GND to GND, Signal pin to ESP32 GPIO 4. 5. 38KHz IR Receiver Module: - VCC to 3.3V, GND to GND, OUT pin to ESP32 GPIO 15. 6. LM393 Sound Sensor Module: - VCC to 3.3V, GND to GND, OUT pin to ESP32 GPIO 34 (Analog Input). Requirements: - Isolate low-voltage microcontrollers (ESP32) from high-voltage relay traces. - Include decoupling capacitors and flyback diodes where necessary for inductive loads. - Provide clear header pin connectors (2.54mm pitch) for easy plugin of pre-built modules.

A Voltage divider with 2 resistors. WIth an analog input on the left wall and an external positive output and negative output on the right side

A Voltage divider with 2 resistors

Create the small-signal hybrid-pi equivalent circuit for a common-emitter BJT amplifier. Assume: All DC voltage supplies (+5 V and -5 V) are replaced by AC ground. Coupling capacitor CCC_CCC​ is replaced by a short circuit. Bypass capacitor CEC_ECE​ is replaced by a short circuit. Early voltage VA=∞V_A = \inftyVA​=∞, so omit ror_oro​. Circuit layout: On the left is an AC voltage source labeled vsv_svs​. The positive terminal of vsv_svs​ connects to a resistor RS=2.5 kΩR_S = 2.5\,k\OmegaRS​=2.5kΩ. The other end of RSR_SRS​ connects to the transistor base node. Use the hybrid-pi transistor model: Place a resistor rπr_\pirπ​ between the base node and ground. The emitter is directly connected to AC ground. Place a dependent current source between collector and emitter. The current source value is gmvπg_m v_\pigm​vπ​. The arrow points from collector to emitter. vπv_\pivπ​ is the voltage across rπr_\pirπ​, measured from base to emitter. Collector network: The collector node connects to resistor RCR_CRC​. The other end of RCR_CRC​ is connected to AC ground. The collector node also connects to load resistor RL=5 kΩR_L = 5\,k\OmegaRL​=5kΩ. The other end of RLR_LRL​ is connected to AC ground. Thus RCR_CRC​ and RLR_LRL​ are both connected between the collector node and ground, appearing in parallel. Output: Label the collector node as vov_ovo​. Measure vov_ovo​ with respect to ground. Component labels: RS=2.5 kΩR_S = 2.5\,k\OmegaRS​=2.5kΩ rπ=12 kΩr_\pi = 12\,k\Omegarπ​=12kΩ RC≈10.8 kΩR_C \approx 10.8\,k\OmegaRC​≈10.8kΩ RL=5 kΩR_L = 5\,k\OmegaRL​=5kΩ Dependent current source =gmvπ= g_m v_\pi=gm​vπ​ gm=0.01 Sg_m = 0.01\,Sgm​=0.01S Draw the circuit as a standard small-signal BJT hybrid-pi model with ground at the emitter.

Draw a schematic diagram. A single 3V battery power source connects to a switch. After the switch, the wire splits into two parallel branches. The first branch has two light bulbs in series. The second branch has two light bulbs in series. These two branches merge back into a single path. This path connects to a fifth light bulb in series, which then connects back to the negative terminal of the 3V battery

Draw a schematic diagram. Two batteries are connected in series. The positive terminal connects to a switch. After the switch, the wire splits into two parallel branches. The first branch has two light bulbs connected in series. The second branch has two light bulbs connected in series. These two branches merge back together into a single path. This path connects to a fifth light bulb in series, which then connects back to the negative terminal of the battery bank

This diagram shows a combination series-parallel circuit powered by two batteries connected in series at the bottom right. The current flows from the positive terminal of the batteries through a single knife switch, after which the main wire splits into two parallel branches on the left. The top branch contains two light bulbs connected in series, and the middle branch similarly contains two light bulbs connected in series. The current coming out of both of these parallel pairs then merges back into a single wire before passing through a fifth individual light bulb on the right side, which finally completes the loop by connecting back to the negative terminal of the battery bank.

circuit diagram for (A'+ BD')'+ CA

32v battery in series with 2 ohm resistor

make a open current sensor panel by using esp32

control panal 3 phase using auto transformer for motor 37.5kW and intergrate with bcs for on and off and fire damper 24v for on and off

Design a dual temperature meter circuit for an automotive application. Include an Arduino Nano MCU, an MP1584 DC-DC step-down converter to step down 12V car power to 5V, a 0.96 inch I2C OLED display (128x64), and connections for two DS18B20 waterproof temperature sensors connected to digital pin D2 with a 4.7k ohm pull-up resistor between D2 and 5V. Add decoupling capacitors and terminal blocks for 12V power input and external sensor wiring

A non-inverting op-amp amplifier circuit with a gain of 10, using a 1 kΩ input resistor and a 9 kΩ feedback resistor

Design a warning circuit that produces six outputs through an LED and/or a buzzer: 1. Light a green LED – when the tank is full with no loadshedding. 2. Light a red LED – when the tank is full during loadshedding. 3. Buzzer beep once and light a green LED – when the tank is half full with no loadshedding. 4. Buzzer beep once and light a red LED – when the tank is half full with load- shedding. 5. Buzzer on and light a green LED – when the tank is empty with no loadshedding. 6. Buzzer beeping and light a red LED – when the tank is empty with loadshedding No programmable devices such as Arduino or Raspberry Pi may be used. the components are ### ICs and transistors NE555 timer IC × 2 CD4081 AND-gate IC × 2 CD4071 OR-gate IC × 1 CD4049 inverter IC × 1 UA741 op-amp IC × 3 NPN2222 transistor × 4 ### Sensors and outputs LDR × 1 Green LED × 2 Red LED × 2 Active buzzer × 1 Metal probes / nails × 3–4 ### Resistors and capacitors 220 Ω resistors × 6 1 kΩ resistors × 6 120 kΩ resistors × 4 10 nF capacitors × 2 10 µF capacitors × 2 ### Assembly and power Breadboard × 1–2 Jumper wires × 20–30 Regulated DC power supply × 1 Multimeter × 1 to share Battery snap connector × 1 if using a 9 V battery here what i haev can i still make it work

Design a warning circuit that produces six outputs through an LED and/or a buzzer: 1. Light a green LED – when the tank is full with no loadshedding. 2. Light a red LED – when the tank is full during loadshedding. 3. Buzzer beep once and light a green LED – when the tank is half full with no loadshedding. 4. Buzzer beep once and light a red LED – when the tank is half full with load- shedding. 5. Buzzer on and light a green LED – when the tank is empty with no loadshedding. 6. Buzzer beeping and light a red LED – when the tank is empty with loadshedding No programmable devices such as Arduino or Raspberry Pi may be used

Design a warning circuit that produces six outputs through an LED and/or a buzzer: 1. Light a green LED – when the tank is full with no loadshedding. 2. Light a red LED – when the tank is full during loadshedding. 3. Buzzer beep once and light a green LED – when the tank is half full with no loadshedding. 4. Buzzer beep once and light a red LED – when the tank is half full with load- shedding. 5. Buzzer on and light a green LED – when the tank is empty with no loadshedding. 6. Buzzer beeping and light a red LED – when the tank is empty with loadshedding

a electronic tube based audio amplifier with two triode stages with ECC88 and an audio output driver based on EL519 or equivalent, The audio output shall be made through audio transformer appropriate for a load of 8 ohm. Just want one single mono channel; I suggest using paper capacitors and 1/2 w resistors. The power supply is to be external but voltage levels for valves and heater bus shall be indicated in the schematics. The circuit must have RF supression capacitors or filters wherever needed. The pin numbers for each tube valve shall be cleared marked in the schematics.

a electronic tube based audio amplifier with two triode stages with ECC88 and an audio output driver based on EL519 or equivalent, The audio output shall be made through audio transformer appropriate for a load of 8 ohm. Just want one single mono channel; I suggest using paper capacitors and 1/2 w resistors. The power supply is to be external but voltage levels for valves and heater bus shall be indicated in the schematics.