SPM0192LR5H-1-6

Syntiant
83-SPM0192LR5H-1-6
SPM0192LR5H-1-6

Mfr.:

Description:
MEMS Microphones HIGH SNR, HIGH AOP ANALOG BOTTOM PORT SISONIC MICROPHONE

Lifecycle:
New Product:
New from this manufacturer.
ECAD Model:
Download the free Library Loader to convert this file for your ECAD Tool. Learn more about the ECAD Model.

In Stock: 3.656

Stock:
3.656 Can Dispatch Immediately
Factory Lead Time:
14 Weeks Estimated factory production time for quantities greater than shown.
Minimum: 1   Multiples: 1
Unit Price:
-,-- kr.
Ext. Price:
-,-- kr.
Est. Tariff:

Pricing (DKK)

Qty. Unit Price
Ext. Price
13,73 kr. 13,73 kr.
10,74 kr. 107,40 kr.
9,85 kr. 246,25 kr.
9,10 kr. 455,00 kr.
8,50 kr. 850,00 kr.
8,36 kr. 2.090,00 kr.
7,25 kr. 3.625,00 kr.
6,93 kr. 6.930,00 kr.
Full Reel (Order in multiples of 4800)
6,93 kr. 33.264,00 kr.

Product Attribute Attribute Value Select Attribute
Syntiant
Product Category: MEMS Microphones
WINFREY PRO
- 34.7 dBV/Pa, - 40.7 dBV/Pa
70.5 dBV/Pa
330 Ohms
235 uA
2.75 V
- 40 C
+ 85 C
Differential
Bottom
4.72 mm
3.76 mm
1.15 mm
Reel
Cut Tape
Brand: Syntiant
Dimensions: 4.72 mm x 3.76 mm x 1.15 mm
Directional Properties: Omnidirectional
Mounting Style: PCB Mount
Product Type: MEMS Microphones
Shape: Rectangular
Factory Pack Quantity: 4800
Subcategory: Microphones
Supply Voltage - Max: 3.6 V
Supply Voltage - Min: 2.3 V
Termination Style: SMD/SMT
Products found:
To show similar products, select at least one checkbox
Select at least one checkbox above to show similar products in this category.
Attributes selected: 0

TARIC:
8518100090
CNHTS:
8518100000
CAHTS:
8518100000
USHTS:
8518108030
JPHTS:
851810000
ECCN:
EAR99

SPM0192LR5H-1 SiSonic™ MEMS Microphone

Syntiant SPM0192LR5H-1 SiSonic™ MEMS Microphone is a high Signal-to-Noise Ratio (SNR), high Acoustic Overload Point (AOP), bottom port silicon microphone. This microphone consists of an acoustic sensor, a low-noise input buffer, and a differential output amplifier supporting optional single-ended mode. The SPM0192LR5H-1 microphone's low phase distortion lends to superior algorithm performance and its differential mode configuration improves noise immunity to power supply variations.