Close Menu
  • About
  • Products
    • Find Solutions
    • Technical Q&A
    • Novelty Search
    • Feasibility Analysis Assistant
    • Material Scout
    • Pharma Insights Advisor
    • More AI Agents For Innovation
  • IP
  • Machinery
  • Material
  • Life Science
Facebook YouTube LinkedIn
Eureka BlogEureka Blog
  • About
  • Products
    • Find Solutions
    • Technical Q&A
    • Novelty Search
    • Feasibility Analysis Assistant
    • Material Scout
    • Pharma Insights Advisor
    • More AI Agents For Innovation
  • IP
  • Machinery
  • Material
  • Life Science
Facebook YouTube LinkedIn
Patsnap eureka →
Eureka BlogEureka Blog
Patsnap eureka →
Home»TRIZ Case»Bypass Structure for Reliable CMOS-MEMS Integration

Bypass Structure for Reliable CMOS-MEMS Integration

May 25, 20263 Mins Read
Share
Facebook Twitter LinkedIn Email

Bypass Structure for Reliable CMOS-MEMS Integration

Want An AI Powered R&D Assistant ?
Here’s PatSnap Eureka !
Go to Seek

Summary

Problems

Existing CMOS-MEMS integration methods face challenges in preventing charge accumulation during the etching process, which can damage the integrated circuit device due to the interconnection between the MEMS and CMOS devices, leading to issues like device drift, circuit leakage, and reduced reliability.

Innovation solutions

A bypass structure is introduced, utilizing a doped region with a lower pass-through voltage than the CMOS device, which acts as an electrical discharge path to prevent charge accumulation during the etching process, thereby isolating the MEMS device from the CMOS device and minimizing damage.

TRIZ Analysis

Specific contradictions:

device reliability
vs
etching-induced charge damage

General conflict description:

Reliability
vs
Object-affected harmful factors
TRIZ inspiration library
24 Intermediary (Mediator)
Try to solve problems with it

Principle concept:

If MEMS device is processed last and interconnected to integrated circuit device before etching, then device integration and performance are improved, but charge accumulation during etching damages the integrated circuit device

Why choose this principle:

A bypass structure is introduced as an intermediary element between the MEMS device and the integrated circuit device. This bypass structure provides a dedicated charge dissipation path that mediates the harmful interaction during etching, allowing charge to be safely discharged without damaging the interconnected circuit devices.

TRIZ inspiration library
1 Segmentation
Try to solve problems with it

Principle concept:

If MEMS device is processed last and interconnected to integrated circuit device before etching, then device integration and performance are improved, but charge accumulation during etching damages the integrated circuit device

Why choose this principle:

The interconnect structure is segmented into functional portions: a first portion interconnected to the integrated circuit device, a second portion forming the bypass structure, and a third portion interconnected to the MEMS device. This segmentation allows the bypass portion to handle charge dissipation separately from the signal transmission paths.

Application Domain

cmos-mems integration bypass structure charge damage prevention

Data Source

Patent US20120223613A1 Electrical bypass structure for MEMS device
Publication Date: 06 Sep 2012 TRIZ 机械制造
FIG 01
US20120223613A1-D00000
FIG 02
US20120223613A1-D00001
FIG 03
US20120223613A1-D00002
Login to view Image

AI summary:

A bypass structure is introduced, utilizing a doped region with a lower pass-through voltage than the CMOS device, which acts as an electrical discharge path to prevent charge accumulation during the etching process, thereby isolating the MEMS device from the CMOS device and minimizing damage.

Abstract

An apparatus including a bypass structure for complementary metal-oxide-semiconductor (CMOS) and/or microelectromechanical system (MEMS) devices, and method for fabricating such apparatus, is disclosed. An exemplary apparatus includes a first substrate; a second substrate that includes a MEMS device; an insulator disposed between the first substrate and the second substrate; and an electrical bypass structure disposed in the insulator layer that contacts a portion of the first substrate, wherein the electrical bypass structure is electrically isolated from the MEMS device in the second substrate and any device included in the first substrate.

Contents

    Accelerate from idea to impact

    Eureka harnesses unparalleled innovation data and effortlessly delivers breakthrough ideas for your toughest technical challenges.

    Sign up for free
    bypass structure charge damage prevention cmos-mems integration
    Share. Facebook Twitter LinkedIn Email
    Previous ArticleFront Fork Design for Enhanced Damping and Stability
    Next Article Sidewall Image Transfer for Multiple Critical Dimensions

    Related Posts

    Lift Assist System for Easier Foldable Roof Operation

    May 26, 2026

    Shaped Coils for Deep-Brain Magnetic Stimulation

    May 26, 2026

    Parking Brake Operation Stroke Reduction with Lever Design

    May 26, 2026

    Metamaterial Design for Directed Energy Protection

    May 26, 2026

    Memristive NDR Device for Adaptive Oscillator Circuits

    May 26, 2026

    Side Air Bag Design for Even Inflation and Safety

    May 26, 2026

    Comments are closed.

    Start Free Trial Today!

    Get instant, smart ideas, solutions and spark creativity with Patsnap Eureka AI. Generate professional answers in a few seconds.

    ⚡️ Generate Ideas →
    Table of Contents
    • Bypass Structure for Reliable CMOS-MEMS Integration
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
    About Us
    About Us

    Eureka harnesses unparalleled innovation data and effortlessly delivers breakthrough ideas for your toughest technical challenges. Eliminate complexity, achieve more.

    Facebook YouTube LinkedIn
    Latest Hotspot

    Vehicle-to-Grid For EVs: Battery Degradation, Grid Value, and Control Architecture

    May 12, 2026

    TIGIT Target Global Competitive Landscape Report 2026

    May 11, 2026

    Colorectal Cancer — Competitive Landscape (2025–2026)

    May 11, 2026
    tech newsletter

    35 Breakthroughs in Magnetic Resonance Imaging – Product Components

    July 1, 2024

    27 Breakthroughs in Magnetic Resonance Imaging – Categories

    July 1, 2024

    40+ Breakthroughs in Magnetic Resonance Imaging – Typical Technologies

    July 1, 2024
    © 2026 Patsnap Eureka. Powered by Patsnap Eureka.

    Type above and press Enter to search. Press Esc to cancel.