Semiconducting Polymers
Semiconducting polymers with π-conjugated backbones can transport charge and interact strongly with light, making them key materials for a wide variety of optoelectronic devices. Their unique electronic and optical properties enable applications ranging from energy harvesting to light emission and sensing. Our range of semiconducting polymers has been carefully selected to support research in bulk heterojunctions, OPVs, OLEDs, OFETs, perovskite interfaces, and advanced solar cell technologies. We provide reliable and high-quality materials for both fundamental studies and device development.
Use the filter option to see the Ossila Luminosyn™ range of high-purity, batch-specific polymer semiconductor materials. These materials have undergone extensive purification measures and are available in large batches with batch-specific GPC data.
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Browse Semiconducting Polymer Collections
OFET and OLED Polymers
Solution-processable and stable semiconducting polymers.
Interface Polymers
To improve adhesion, compatibility, or other interfacial interactions.
Browse All Semiconducting Polymers
Related categories: OFET & OLED polymers, OPV polymers, interface polymers, fullerene acceptors, small molecule OPV donors
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Semiconducting Polymer Gallery
Resources and Support
What are Organic Semiconductors?
Organic semiconductors are materials, ranging from small molecules to polymers, that can transport charge. Unlike in conductors, where electrons move freely across the material, organic semiconductors rely on a structure primarily composed of carbon and hydrogen atoms.
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What is an n-Type Semiconductor?
An n-type semiconductor is a type of semiconductor where electrons serve as the majority charge carriers, leading to a negative charge transport characteristic. These electron-donating properties make n-type semiconductors suitable for electrical applications, particularly in transistors, LEDs, solar cells and electrodes.
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Polymer-Fullerene Bulk Heterojunction Solar Cells
Polymer-fullerene bulk heterojunction (BHJ) solar cells are based on blends of semiconducting polymers and fullerene derivatives, such as PCBM. It is described as a bulk heterojunction as it involves a blend of two materials with differing energy band gaps, forming a dispersed, interpenetrating network.
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POLED: Plastic or Polymer OLEDs?
pOLED or POLED can refer to different types of organic light emitting diodes (OLEDs). The "p" can stand for "plastic" or "polymer", but these are distinct technologies.
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