CY62127DV30LL-70ZIT

Product Overview

The CY62127DV30LL-70ZIT is a Cypress Semiconductor Corp static random-access memory (SRAM) integrated circuit. The device is an asynchronous single 2.5 V/3.3 V SRAM chip. As a memory IC, it is intended for electronic systems that require a memory device within the integrated circuit memory category. The asynchronous designation indicates compatibility with designs using an asynchronous memory interface rather than a clocked synchronous memory interface. The 2.5 V and 3.3 V voltage references identify the operating voltage domains relevant to selection, while the Cypress Semiconductor Corp manufacturer part number distinguishes this specific memory IC. System designers should consider the device's operating voltage, memory function, and interface type when integrating it into a larger electronic assembly.

Key Features

• Static random-access memory (SRAM) integrated circuit.
• Asynchronous SRAM operation.
• Single 2.5 V/3.3 V operation.
• Manufacturer part number CY62127DV30LL-70ZIT.
• Cypress Semiconductor Corp memory IC.

Applications

• Embedded systems requiring local temporary data storage.
• Equipment using asynchronous SRAM interfaces.
• Circuits using 2.5 V or 3.3 V operating voltage domains.

Design & Procurement Notes

For design use, confirm that the host system can provide either 2.5 V or 3.3 V operating voltage and that the memory controller, bus, or logic interface supports asynchronous SRAM access. The exact part number CY62127DV30LL-70ZIT should be used when specifying the Cypress Semiconductor Corp memory IC to avoid selecting a different voltage, package, or memory architecture. Additional implementation details such as capacity, timing parameters, pin configuration, package dimensions, and absolute maximum ratings require verification against the manufacturer's component documentation before board layout, power sequencing, and firmware integration. Because the device is an asynchronous memory IC, designers should evaluate address decoding, read/write timing, and supply decoupling as part of the overall memory subsystem.