SAFT 1S1PMP 144350 MX4 Rechargeable Lithium-Ion Battery

Configured for compact energy storage, localized DC bus buffering, and standalone backup power distribution, the SAFT 1S1PMP 144350 MX4 (1S1PMP 144350 MX4 Rechargeable Lithium-Ion Battery) provides direct physical/electrical execution. The electrochemical cell assembly maintains constant terminal potentials under heavy load steps across industrial electronics and portable instrument platforms.

Hardware Specifications

Industrial Control & Driving Subsystem Routing

• I/O Density Scaling and Process Terminal Interconnection The compact lithium-ion cell functions as a localized backup energy source inside distributed field enclosures. By integrating this battery module directly alongside decentralized I/O racks, field engineers can maintain continuous power to high-density instrumentation nodes and wireless transmitters during primary grid sags, preventing data loss or signal dropouts at the process terminals.
• Backplane Bus Communication Velocity Licenses and Firmware Flash Compatibility The solid-state chemical cells deliver clean, ripple-free DC potentials to adjacent processor logic gates. Because the battery output maintains absolute separation from high-frequency AC switching harmonics, it preserves data frame stability across parallel backplane tracks. This clean power baseline supports uninterrupted, high-velocity bus communications independent of software execution licensing structures or active firmware flash procedures.

Frequently Asked Questions

Q: What are the primary structural risks of discharging the cell below the 2.5 VDC cut-off voltage?

A: Dropping the cell potential below the 2.5 VDC threshold initiates internal copper dissolution and irreversible chemical degradation of the anode structure. This internal breakdown permanently diminishes total capacity metrics and increases internal resistance, which can lead to thermal generation faults during subsequent charge cycles.

Q: How do extreme operational temperatures affect the continuous discharge current limitations?

A: Operating close to the -20 deg C or +60 deg C thermal boundaries alters electrolyte viscosity and internal chemical migration velocity. To avoid localized thermal runaway or structural capacity loss, current consumption profiles should be derated below the standard 5.0 A maximum continuous specification when deployed outside nominal room temperatures.