- New Products
- Sales
- All Products
- Arduino >
- LattePanda >
- FireBeetle (ESP32 / ESP8266) >
- Internet of Things - IoT >
- Development Boards > Development Boards
- Raspberry Pi >
- micro:bit >
- Sensors > SensorsLiquid SensorsAir SensorsLiDARRange & Distance SensorsTemperature & Humidity SensorInteractive SensorsLight & Imaging SensorsMagnetic SensorsMotion SensorsPotentiometersPressure SensorsCurrent SensorsFlex SensorsGPSSensor SetIMU SensorsSound SensorsSwitches & ButtonsWeight Sensorse-Health SensorsEncodersOthers
- Gravity >
- Modules >
- Kits >
- Prototyping & Accessories >
- Artificial Intelligence Hardware >
- Robotics >
- Fermion >
- STEM Education >
- Boson >
- PCB Manufacturing
Model Selection Guide for Wireless Charging Module
Wireless charging module, composed of transmitting and receiving ends, can transfer energy through media such as air, paper, or plastic. Based on “magnetic-coupled resonance” technology and a high-current wireless supply chip, it can achieve energy transfer with minimal consumption.
Wireless charger can be used in mobile electronic products such as phones, game consoles, digital cameras, and shavers, or even to replace the existing charging mode of intelligent vehicles and UAVs to achieve wireless charging.
Product Name
Figure
SKU
DFR0363
DFR0362
DFR0712
FIT0702
FIT0703
Technique
Magnetic coupling resonance technique
Magnetic coupling resonance technique
Magnetic coupling resonance technique
Magnetic coupling resonance technique
Magnetic coupling resonance technique
Operating Voltage (Input)
5V
5V
12V
24V
24V
Operating Voltage (Output)
5V
5V
5V
5V
12V
Output Current
0~300mA (Max:600mA)
0~1A (MAX 1.2A)
0~2A
0~5A
0~3A
Output Power
1.5W
5W
10W
25W
36W
Operating Distance
2~10mm (0.08~0.39")
2~10mm (0.08~0.39")
3~6mm (0.12~0.24")
11~65mm(0.43~2.56")
6~152mm(0.24~5.98")
Receive Module Size
10*25*3mm (0.39*0.98*0.12")
10*25*3mm (0.39*0.98*0.12")
10*25*3mm (0.39*0.98*0.12")
25*64*16mm (0.98*2.52*0.63")
30*54mm (1.18*2.13")
Transmit Module Size
18*8.5*15mm (0.71*0.33*0.59")
18*8.5*15mm (0.71*0.33*0.59")
18*8.5*15mm (0.71*0.33*0.59")
17*28mm (0.67*1.10")
17mm*30mm (0.67*1.18")
Transmitting Terminal Size
33mm(1.30")(Outer diameter) 5mm(0.20")(Inside diameter) 1mm(0.04")(Thickness)
43mm(1.69")(Outer diameter) 20mm(0.79")(Inside diameter) 2.3mm(0.09")(Thickness)
46mm(1.81")(Outer diameter) 20mm(0.79")(Inside diameter) 2.3mm(0.09")(Thickness)
88mm(3.46")(Outer diameter) 70mm(2.76")(Inside diameter) 1.3mm(0.05")(Thickness)
82mm(3.23")(Outer diameter) 30mm(1.18")(Inside diameter) 2.3mm(0.09")(Thickness)
Receiving Terminal Size
21mm±3mm(0.83±0.12")(Outer diameter) 10mm(0.40")(Inside diameter) 0.79mm(0.03")(Thickness)
38mm±3mm(1.50±0.12")(Outer diameter) 20mm(0.79")(Inside diameter) 2.3mm(0.09")(Thickness)
43mm±3mm(1.69±0.12")(Outer diameter) 20mm(0.79")(Inside diameter) 2.3mm(0.09")(Thickness)
83mm(3.27")(Outer diameter) 70mm(2.76")(Inside diameter) 1.3mm(0.05")(Thickness)
82mm(3.23")(Outer diameter) 30mm(1.18")(Inside diameter) 2.3mm(0.09")(Thickness)
Add to Cart
Add to Cart
Add to Cart
Add to Cart
Add to Cart
Add to Cart
This article will explore how to install and run Qwen2.5 on a Raspberry Pi 5 using the Ollama runtime framework.
REVIEWS Raspberry Pi
In this article, we will delve into the process of installing and running the SLM(small language model) Gemma2 on the Single Board Computer (SBC) Raspberry Pi 5 using the Ollama runtime framework.
REVIEWS Raspberry Pi
In this write-up, we delve into the process of installing and executing phi3.5-3.8b on a Raspberry Pi 5, leveraging the Ollama runtime framework.
REVIEWS Raspberry Pi