Skip to main content

EEPROM

EEPROM (Electrically Erasable Programmable Read-Only Memory) provides byte-level rewritable non-volatile storage for configuration data, calibration parameters, and serial numbers. Available in I²C (2-wire) and SPI (4-wire) interfaces from Microchip (24xx/25xx), STMicroelectronics (M95/M24), onsemi, and ROHM with densities from 128 bits to 4 Mbits.

Request Quote
9,008+Products
10+Manufacturers
100%Original & New
GlobalDelivery

Browse EEPROM Products

Showing 181–190 of 9,008 products
PART NUMBERMANUFACTURERDESCRIPTIONSTOCKQTY / ACTION
CAT28LV65GI-20onsemiPackage: PLCC | Mounting Type: SMD (SMT) | Supply Voltage: 3.3 V | Memory Size: 8 kB | Interface: Parallel | Number of Pins: 32100
CAT28C64BH13-12onsemiPackage: TSOP | Mounting Type: Surface Mount | Supply Voltage: 5 V | Memory Size: 8 kB | Interface: Parallel | Number of Pins: 28In Stock
CAT64LC40JonsemiPackage: SOIC | Mounting Type: SMD (SMT) | Memory Size: 512 B | Interface: SPIIn Stock
CAT24C16YE-GT3onsemiPackage: Tape & Reel | Mounting Type: SMD (SMT) | Interface: I2C, Serial | Number of Pins: 87,700
CAT25512LE-GonsemiSchedule B: 8542320070 | Lead Free: Lead Free | RoHS: CompliantIn Stock
R1EX24004ASAS0A#S0RenesasPackage: Reel(TR) | Supply Voltage: 1.8 V ~ 5.5 V | Memory Size: 4K (512 x 8) | Interface: I2C, 2-Wire SerialIn Stock
M95080-WMN3TP/SSTMicroelectronicsNumber of Pins: 8 | Max Operating Temp: 125 | Min Operating Temp: -40 | Terminal Position: DUAL | Jedec Package Code: R-PDSO-G8 | Width: 3.910,500
M95128-MN3TP/PSTMicroelectronicsNumber of Pins: 8 | Max Operating Temp: 125 | Min Operating Temp: -40 | Terminal Position: DUAL | Jedec Package Code: R-PDSO-G8 | Width: 3.9In Stock
M95040-MN3TP/SSTMicroelectronicsNumber of Pins: 8 | Max Operating Temp: 125 | Min Operating Temp: -40 | Terminal Position: DUAL | Jedec Package Code: R-PDSO-G8 | Width: 3.915,000
M93C86-WMN3TP/SSTMicroelectronicsNumber of Pins: 8 | Max Operating Temp: 125 | Min Operating Temp: -40 | Terminal Position: DUAL | Jedec Package Code: R-PDSO-G8 | Width: 3.96,030

How to Choose EEPROM

A practical selection framework for EEPROM covering specifications, packaging, lifecycle, and sourcing on Octatronics.

  1. Define electrical and environmental requirements

    Start with the required function and operating conditions for EEPROM, then lock in critical parameters such as function, supply voltage, interface, package, and temperature grade. Match these against datasheet limits, not catalog summaries alone.

  2. Validate package and land pattern compatibility

    Confirm the EEPROM package matches your PCB footprint, pick-and-place constraints, and moisture sensitivity handling. Verify reel/tape or tube packaging for production.

  3. Check lifecycle, compliance, and alternates

    Review lifecycle status (Active, NRND, EOL), RoHS, and approved alternate sources for EEPROM before committing to high-volume builds. Use Octatronics cross-reference data when a drop-in replacement is needed.

  4. Compare manufacturers and request pricing

    Filter EEPROM by manufacturers such as onsemi and ROHM, compare key specs side by side, then submit an RFQ with quantity, target delivery, and traceability requirements.

About EEPROM

Frequently Asked Questions

Octatronics can help source a wide range of EEPROM from major manufacturers worldwide, including active production parts, long-lead-time items, and hard-to-find components.

Yes. You can submit a single part number or upload a BOM with multiple parts. Our team will check stock, date code, lead time, and pricing for each item.

Availability depends on the specific part number and supplier source. For important orders, buyers can request packaging photos, labels, date code information, and traceability documents.

Yes. Octatronics supports sourcing for active, end-of-life, obsolete, and hard-to-find components through our global supplier network.

Please provide the part number, manufacturer, quantity, required date code, target price, delivery country, and whether original packaging or COC is required.

Articles & Technology

View All →
How to Choose Electronic Components for Reliable Hardware Design

How to Choose Electronic Components for Reliable Hardware Design

Learn how to choose electronic components for reliable hardware design, including specifications, lifecycle status, sourcing risks, quality checks, and BOM optimization.

Pin-to-Pin Replacement Parts: How to Check Compatibility Before Sourcing

Pin-to-Pin Replacement Parts: How to Check Compatibility Before Sourcing

When an original electronic component becomes obsolete, unavailable, or too expensive, a pin-to-pin replacement part can help avoid PCB redesign and keep production or repair projects moving. However, pin-to-pin compatibility does not automatically mean the part is a safe drop-in replacement. This guide explains how to check package, footprint, pinout, electrical ratings, thermal performance, timing behavior, firmware requirements, compliance status, and lifecycle risk before sourcing replacement parts. It also provides a practical checklist to help engineers, buyers, and maintenance teams reduce sourcing mistakes and verify compatibility before purchase.

How to Find Pin-Compatible Alternatives for Obsolete ICs

How to Find Pin-Compatible Alternatives for Obsolete ICs

Finding a pin-compatible alternative for an obsolete IC is not just about matching the package. It requires a structured review of pinout, footprint, electrical parameters, functional behavior, lifecycle status, sourcing reliability, and sample validation.

DDR6 RAM: What We Know So Far About Next-Generation Memory

DDR6 RAM: What We Know So Far About Next-Generation Memory

DDR6 RAM is the next planned generation of DDR memory technology after DDR5, designed to support higher bandwidth, improved efficiency, and future computing platforms with greater data movement requirements. Although DDR6 is not yet a mainstream commercial product, major memory manufacturers and platform developers are already preparing for the next stage of DRAM evolution.