Skip to main content
Analog Devices MAX876BESA+ — Discrete Semiconductors

MAX876BESA+ Analog Devices Voltage Reference, 10V, ±0.05%

MPNMAX876BESA+
End of Life

Analog Devices MAX876BESA+ series voltage reference, 10V fixed output, ±0.05% tolerance, 20ppm/°C, 8-SOIC surface mount, tube.

$6.18Ref. price · indicative, final on quote
Packaging8-SOIC (0.154", 3.90mm Width)
StockContact for availability
Lead timeIn Stock wk
MOQ1 pcs
  • 100% new & originalTraceable channels only — no refurbs, no pulls, no remarked parts.
  • Date & lot codes on quoteStated per line before you commit; label photos on request.
  • MSL-compliant ESD packingMoisture-sealed bags with indicator cards; reels photo-verified.
  • PayPal buyer protectionPay by T/T, PayPal or Payoneer — card payments covered end to end.

Specifications

MAX876BESA+ Technical Specifications
ParameterValue
Output typeFixed
Mounting typeSurface Mount
Reference typeSeries
Voltage - input12V ~ 18V
Voltage - output (Min (Fixed))10V
Current - output10 mA
Current - supply700µA
Operating temperature-40°C ~ 85°C (TA)
PackageTube
Tolerance±0.05%
Case8-SOIC (0.154\", 3.90mm Width)
Noise - 0.1Hz to 10Hz18µVp-p
Noise - 10Hz to 10kHz29µVrms
Temperature coefficient20ppm/°C

Product details

Active production precision reference — 10V fixed, ±0.05%

The MAX876BESA+: Output current is rated at 10 mA, enough to drive the reference input of most SAR or delta-sigma converters without an external buffer. Supply current is a modest 700 µA, so it won't burn a significant share of the power budget in a multi-channel data-acquisition system.

Noise floor and deployment context

The input voltage range is 12 V to 18 V, giving about 2 V of headroom above the 10 V output — enough for a regulated 12 V or 15 V rail. The series topology means the output is low-impedance and can source or sink small load transients without the droop a shunt reference would show.

Frequently asked questions

How can I order the MAX876BESA+ or check availability?

The MAX876BESA+ is sourced to order against your BOM quantity through independent distribution.