Digital Intelligent Pyroelectric Infrared Sensor P916h

• Customization: Available
• Type: Sensor
• Usage: Anti-theft, Temperature, Human
• Model NO.: P916H
• Installation Mode: Ceiling Mounted
• Certification: CE, RoHS
• Application: Home, Industry, Communication Electronic Products, Special Equipment, Traffic
• Transport Package: Standard Package
• Specification: 6000pcs/carton
• Trademark: HW
• Origin: China
• Production Capacity: 1000000PCS/Month
• Package Size: 15.00cm * 15.00cm * 7.00cm
• Package Gross Weight: 0.500kg
• Lead Time: 7 days (1 - 10000000 Pieces) ; To be negotiated ( > 10000000 Pieces)

Product Description

Digital Intelligent Pyroelectric Infrared Sensor

P916H

ShenZhen HaiWang Sensor Co.,Ltd.& HW INDUSTRIAL CO.,LTD
ADD:Room 1004,West-CBD,No.139 Binhe Rd,Futian District,Shenzhen,China
Wesite:szhaiwang.en.made-in-china.com
   
      (Cindy Wang)


  1. Overview
The P916H is a pyroelectric infrared sensor that integrates a digital intelligent control circuit and a human body detection sensitive element in an electromagnetic shielding cover. The human body sensing sensor couples the sensed body motion signal to the digital smart integrated circuit chip through a very high impedance differential input circuit. The digital smart integrated circuit converts the signal into a 15-bit ADC digital signal when the PIR signal exceeds the selected digital valve. The value will have a timed REL level output.
  2..the  characteristics

1. Digital signal processing, low voltage, low power consumption, and work instantly after startup.
2. Two-way differential very high impedance sensor input
3. Second-order Butterworth bandpass filter with built-in infrared sensor to shield input interference at other frequencies
4. Sensitivity, timing time, illumination sensor Schmitt REL output.

3. Performance parameter

1. Maximum Ratings (Any electrical stress that exceeds the parameters in the table below may cause permanent damage to the device.)

Parameter	symbol	Minimum	Maximum	unit	Note
Voltage	Voo	-0.3	3.6	V
Operating temperature	Tst	-20	85	ºC
pin limit	Into	-100	100	mA
storage temperature	Tst	-40	125	ºC

 

1. Working conditions (T=25 °C, V DD = 3V, unless otherwise specified)

Parameter	symbol	Minimum	Typical	Maximum	unit	Note
Voltage	VDD	2.7	3	3.3	V
Operating temperature	IDD	12	15	20	μA
Sensitivity threshold	VSENS	120		530	μ V
Output REL
Output low frequency	LOL	10			mA	VOL < 1V
Output high frequency	LOH			-10	mA	VOH >(VDD-1V)
REL low level output lock time	TOL		2.3		S	Not adjustable
REL high output lock time	TOH	2.3		4793	S
Input SENS/ONTIME
Voltage input range		0		VDD	V	Adjustment range between 0V and 1/4VDD
Input bias current		-1		1	μA
Enable OEN
Input low voltage	VIL			0.2 VDD	V	OEN voltage high to low threshold level
Input high voltage	VIH	0.4VDD			V	OEN voltage low to high threshold level
Input Current	LI	-1		1	μA	VSS < VIN < VDD
Oscillator and filter
Low pass filter cutoff frequency				7	Hz
High pass filter cutoff frequency				0.44	Hz
Oscillator frequency on the chip	FCLK			64	KHz

3. Output voltage waveform

 4.Transmission spectrum of window material

 5.Detection angle

 6. Size angle bitmap(mm)



 7. Application circuit


 8. Precautions
When there are stains on the window, it will affect the detection performance, so please pay attention.
The lens is made of a weak material (polyethylene). When a load or impact is applied to the lens, malfunction and performance deterioration may occur due to deformation and damage, so avoid the above.
Failure to apply static electricity of ±200V or more may cause damage. Therefore, please pay attention to the operation, avoid touching the terminal directly by hand.
When soldering a wire, solder the soldering iron at a temperature of 350 ° C or less and soldering within 3 seconds. When soldering through a solder bath, performance may deteriorate, so avoid it.
Please avoid cleaning the sensor. Otherwise, the cleaning liquid may intrude into the inside of the lens, which may cause deterioration in performance.
When using the cable wiring, it is recommended to use shielded wires to minimize the influence of interference.