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»High-Mobility Organic Semiconductor for Stable Transistors

High-Mobility Organic Semiconductor for Stable Transistors

May 25, 20263 Mins Read
Share
Facebook Twitter LinkedIn Email

High-Mobility Organic Semiconductor for Stable Transistors

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

Summary

Problems

Existing organic semiconductor materials have low carrier mobility, making them unsuitable for high-performance liquid crystal display and organic electroluminescence devices, and they require complex heat treatment processes for high mobility, leading to variability in transistor performance.

Innovation solutions

A benzothienobenzothiophene derivative with a particular arylene acetylene structure that crystallizes through a high-order liquid crystal phase, allowing for the formation of a high-mobility film without complex heat treatment, ensuring small mobility variation during printing.

TRIZ Analysis

Specific contradictions:

response speed
vs
carrier mobility

General conflict description:

Speed
vs
Reliability
TRIZ inspiration library
35 Parameter changes
Try to solve problems with it

Principle concept:

If conventional organic semiconductor materials are used in thin-film transistors, then the manufacturing cost is reduced and low-temperature processing is enabled, but the carrier mobility is insufficient (less than 1 cm2/Vs) resulting in decreased response speed

Why choose this principle:

The patent modifies the molecular structure parameters of organic semiconductor materials by introducing specific substituents (alkyl groups, alkoxy groups, aryl groups) at defined positions on the benzothienobenzothiophene core, thereby optimizing carrier mobility while maintaining solution-processability and low-temperature fabrication capabilities

TRIZ inspiration library
40 Composite materials
Try to solve problems with it

Principle concept:

If conventional organic semiconductor materials are used in thin-film transistors, then the manufacturing cost is reduced and low-temperature processing is enabled, but the carrier mobility is insufficient (less than 1 cm2/Vs) resulting in decreased response speed

Why choose this principle:

The patent creates composite molecular structures by combining the BTBT core with various functional groups and substituents, achieving a balance between high carrier mobility and processability requirements for flexible display applications

Application Domain

organic semiconductor high mobility transistor performance

Data Source

Patent US20150228913A1 Benzothienobenzothiophene derivative, organic semiconductor material, and organic transistor
Publication Date: 13 Aug 2015 TRIZ 电器元件
FIG 01
US20150228913A1-D00000
FIG 02
US20150228913A1-D00001
FIG 03
US20150228913A1-D00002
Login to view Image

AI summary:

A benzothienobenzothiophene derivative with a particular arylene acetylene structure that crystallizes through a high-order liquid crystal phase, allowing for the formation of a high-mobility film without complex heat treatment, ensuring small mobility variation during printing.

Abstract

The present invention, the present invention relates to an organic semiconductor material having a benzothienobenzothiophene skeleton, an organic semiconductor ink containing the organic semiconductor material, and an organic transistor using the organic semiconductor material. An object of the present invention is to provide an organic semiconductor material that easily provides a film having a high carrier mobility without the need for a complicated process. It was found that a BTBT derivative having a particular arylene acetylene structure is crystallized by way of a high-order liquid crystal phase having a highly ordered molecular arrangement, and thus the BTBT derivative easily forms a film having a high mobility without requiring complicated heat treatment even when the film is formed by printing. This finding led to the achievement of the object.

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
    high mobility organic semiconductor transistor performance
    Share. Facebook Twitter LinkedIn Email
    Previous ArticleSemiconductor Patterning for High-Density Integration
    Next Article Driver Monitoring System for Preventing Drowsy Driving

    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
    • High-Mobility Organic Semiconductor for Stable Transistors
      • 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

    US20120251581A1 — Cyclophilin A and HCV Replicon Activity Dataset: Structure–Activity Relationship (SAR) and Biological Activity Analysis

    June 3, 2026

    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
    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.