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Home»TRIZ Case»Optimized Compound for High-Efficiency Organic Electronics

Optimized Compound for High-Efficiency Organic Electronics

May 22, 20263 Mins Read
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Optimized Compound for High-Efficiency Organic Electronics

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Summary

Problems

Existing organic electronic elements face challenges in achieving high efficiency, long lifetime, and stability due to issues with charge balance at the interface of the hole transport layer, low glass transition temperature of materials, and penetration of metal oxides, which affect color purity and lifespan.

Innovation solutions

A novel compound represented by Formula (1) is introduced for use in organic electronic elements, enhancing luminous efficiency, stability, and lifetime by improving the properties of the hole transport layer and emitting-auxiliary layer.

TRIZ Analysis

Specific contradictions:

hole transport function
vs
color purity and efficiency

General conflict description:

Ease of operation
vs
Reliability
TRIZ inspiration library
24 Intermediary (Mediator)
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Principle concept:

If a hole transport layer with low HOMO value is used, then hole transport function is achieved, but exciton transfer to the hole transport layer occurs causing charge unbalance and light emission at the interface, lowering color purity and efficiency

Why choose this principle:

An emitting-auxiliary layer is introduced as an intermediary between the hole transport layer and the emitting layer. This auxiliary layer has a HOMO level positioned between the hole transport layer and the emitting layer, preventing direct exciton transfer to the hole transport layer while maintaining efficient charge transport and exciton utilization, thereby resolving the charge unbalance and color purity issues

TRIZ inspiration library
35 Parameter changes
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Principle concept:

If a hole transport layer with low HOMO value is used, then hole transport function is achieved, but exciton transfer to the hole transport layer occurs causing charge unbalance and light emission at the interface, lowering color purity and efficiency

Why choose this principle:

The HOMO energy level parameter of the layer between the hole transport layer and emitting layer is specifically optimized to be higher than that of the hole transport layer but lower than that of the emitting layer. This parameter change prevents exciton transfer to the hole transport layer while maintaining efficient charge transport, thereby improving color purity and efficiency

Application Domain

organic electronics luminous efficiency patent-based innovation

Data Source

Patent US12527215B2 Compound for organic electrical element, organic electrical element using same and electronic device thereof
Publication Date: 13 Jan 2026 TRIZ 新能源汽车
FIG 01
US12527215-D00001
FIG 02
US12527215-D00002
FIG 03
US12527215-C00001
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AI summary:

A novel compound represented by Formula (1) is introduced for use in organic electronic elements, enhancing luminous efficiency, stability, and lifetime by improving the properties of the hole transport layer and emitting-auxiliary layer.

Abstract

Provided are an OLED compound, an organic electronic element employing the compound, and an electronic device comprising the element, where the compound improves the luminous efficiency, stability and lifetime of the organic electronic element.

Contents

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    luminous efficiency organic electronics patent-based innovation
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    Table of Contents
    • Optimized Compound for High-Efficiency Organic Electronics
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
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