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Microchip Technology DSC1103NI1-074.2500 — Crystals & Oscillators

DSC1103NI1-074.2500 MEMS XO 74.25 MHz LVDS - Microchip

MPNDSC1103NI1-074.2500
Active

Microchip DSC1103NI1-074.2500, MEMS-based XO (Standard), LVDS output, 74.25 MHz, ±50 ppm stability, 2.25V–3.63V supply, -40°C to 85°C, 6-SMD no-lead package.

Microchip Technology DSC1103NI1-074.2500 datasheet (PDF)
Independent supplier — new & surplus stockAuthenticity-screened · ESD-safe packingListing updated Aug 2026

Specifications

DSC1103NI1-074.2500 specifications
ParameterValue
TypeXO (Standard)
SeriesDSC1103
MountingSurface Mount
Supply voltage2.25V ~ 3.63V
Current - supply32mA
Current - supply (Disable)95µA
Frequency74.25 MHz
Frequency stability±50ppm
Operating temperature-40°C~85°C
Size (Dimension)0.276\" L x 0.197\" W (7.00mm x 5.00mm)
Height - seated0.035\" (0.90mm)
OutputLVDS
PackageTube
FunctionStandby (Power Down)
Base resonatorMEMS
Case6-SMD, No Lead

Product details

74.25 MHz LVDS MEMS XO – industrial temp, active production

The DSC1103NI1-074.2500: Supply voltage spans 2.25V to 3.63V, allowing direct connection to 2.5V or 3.3V rails without an intermediate regulator.

Package, footprint, and layout fit

Housed in a 6-SMD no-lead package measuring 7.00 mm x 5.00 mm with a seated height of 0.90 mm – a common footprint shared with many 7x5 oscillators, simplifying PCB layout reuse. Surface-mount assembly; the 6-pad layout includes the enable/standby pin, which should be pulled high or low per the datasheet to avoid floating the output.

Frequently asked questions

Where can I buy DSC1103NI1-074.2500 and how do I get a price?

This part is an active Microchip product sourced through independent distribution. Submit an RFQ with your target quantity; we confirm availability and current pricing at quote time. No stock-holding claim – every order is confirmed against the BOM line.

What is the standby current of DSC1103NI1-074.2500?

When the Standby (Power Down) function is asserted, the supply current drops to 95 µA maximum. The oscillator output enters a high-impedance state, reducing system power during idle periods.