Toyota jidosha kabushiki kaisha (20240339674). POWER SOURCE SYSTEM simplified abstract

From WikiPatents
Revision as of 17:50, 17 October 2024 by Wikipatents (talk | contribs) (Creating a new page)
(diff) ← Older revision | Latest revision (diff) | Newer revision → (diff)
Jump to navigation Jump to search

POWER SOURCE SYSTEM

Organization Name

toyota jidosha kabushiki kaisha

Inventor(s)

Yasuhiro Endo of Toyota-shi (JP)

Junta Izumi of Nagoya-shi (JP)

Hironori Miki of Nagoya-shi (JP)

Kenji Kimura of Nagoya-shi (JP)

Takayuki Ban of Nishio-shi (JP)

Takuya Mizuno of Nagakute-shi (JP)

Naoki Yanagizawa of Nagakute-shi (JP)

Shuji Tomura of Nagakute-shi (JP)

Kazuo Ootsuka of Nagakute-shi (JP)

Hiroshi Tsukada of Nagakute-shi (JP)

POWER SOURCE SYSTEM - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240339674 titled 'POWER SOURCE SYSTEM

Simplified Explanation:

The patent application describes a battery string setup where multiple battery circuit modules can be connected in series. A detection line connects the positive and negative electrode output lines of the battery string, with a middle point between two capacitors grounded through a limiting resistor. An electric leakage detection unit monitors the battery string by setting a battery circuit module in a pass-through state and detecting any electric leakage based on the voltage differentials across the capacitors.

  • The patent application focuses on a battery string configuration allowing for series connection of multiple battery circuit modules.
  • A detection line with capacitors and a grounding mechanism is used to monitor electric leakage in the battery string.
  • An electric leakage detection unit sets a battery circuit module in a pass-through state to detect any abnormalities in the system.
  • The differential voltage between the capacitors is used as a basis for detecting electric leakage in the battery string.
  • The invention aims to enhance safety and efficiency in battery string setups by effectively monitoring for electric leakage.

Potential Applications:

This technology could be applied in various industries where battery strings are used, such as:

  • Renewable energy systems
  • Electric vehicles
  • Uninterruptible power supplies (UPS)
  • Telecommunications infrastructure

Problems Solved:

The technology addresses the following issues:

  • Ensuring safety by detecting electric leakage in battery strings
  • Improving the efficiency of battery string setups
  • Preventing potential damage to equipment and systems due to electric leakage

Benefits:

The benefits of this technology include:

  • Enhanced safety measures in battery string configurations
  • Early detection of electric leakage for prompt maintenance
  • Increased reliability and longevity of battery systems

Commercial Applications:

Title: Enhanced Electric Leakage Detection System for Battery Strings

This technology could have significant commercial applications in industries such as:

  • Energy storage solutions
  • Automotive sector for electric vehicles
  • Telecommunications companies for backup power systems

Questions about the Technology:

1. How does the electric leakage detection unit differentiate between normal operation and potential electric leakage in the battery string? 2. What are the specific parameters used to determine the threshold for electric leakage detection in the system?


Original Abstract Submitted

a battery string is configured such that a plurality of battery circuit modules can be connected in series. a middle point between a first capacitor and a second capacitor provided on a detection line connecting a positive electrode output line and a negative electrode output line of the battery string to each other is grounded by a ground line through a limiting resistor. during operation of the battery string, an electric leakage detection unit sets a battery circuit module in a pass-through state, and detects electric leakage in the battery string based on a differential voltage that is a difference between a first voltage being the voltage of the first capacitor and a second voltage being the voltage of the second capacitor.