Semiconducting Molecules
Semiconducting molecules are organic compounds which exhibit semiconducting properties. Semiconducting molecules are composed of carbon-based organic compounds, unlike traditional semiconductors like silicon which are inorganic materials.
Features and Properties
- Tunable conductivity. Semiconducting molecules can conduct electricity. Their properties can be tuned by modify the chemical structure, allowing precise control over their conductivity.
- Low cost-manufacturing. Low cost, solution-based processing methods can be used leading to reduced device manufacturing costs. Semiconducting molecules are also generally cheaper to produce than inorganic semiconductors.
- Flexibility. Organic molecules are more flexible than inorganic materials, enabling the fabrication of flexible or stretchable devices.
Explore our small-molecule semiconductors for use as emmitters and interlayers in TADF-based OLEDs, active materials in OFETs, and as interface materials to perovskites. Maximize your device efficency by fabricating and testing new devices in a glove box environment.
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Semiconducting Molecules by Role
Transport Layer Materials
Explore our range of transport layer semiconducting molecules.
Dopant Materials
Browse our materials for enhancing luminescence and energy transfer.
Sublimed Materials
Browse our ultra-pure sublimed materials for maximum device efficiency.
Browse Semiconducting Molecules
Related categories: Transport layer materials, Dopant materials, Host materials, TADF materials
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![4,4,5,5-Tetramethyl-2-[4-(triphenylvinyl)phenyl]-1,3,2-dioxaborolane CAS 1260865-91-5](http://www.ossila.com/cdn/shop/files/tep-bpin-chemical-structure-title.png?v=1721213362&width=190)
Resources and Support
Fluorescence and Phosphorescence
Fluorescence and phosphorescence are types of photoluminescence. Photoluminescence refers to radiative emissions where the absorbance of a photon is followed by the emission of a lower energy photon. The main empirical difference between fluorescence and phosphorescence is the time in between absorbance and the emission of photons. Fluorescence is where a material absorbs a photon, and almost immediately emits a lower energy photon.
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Understanding HOMO and LUMO
HOMO (Highest Occupied Molecular Orbital) and LUMO (Lowest Unoccupied Molecular Orbital) are fundamental concepts in molecular orbital theory. HOMO and LUMO are known as the "frontier molecular orbitals" because they are the highest occupied and lowest unoccupied molecular orbitals, respectively.
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Organic Light Emitting Diodes
Organic light emitting diodes are thin film devices that convert electrical energy into visible light. In OLED devices, electrons and holes are injected into the organic medium and recombine radiatively via electroluminescence (EL). The colour of the light emitted is dependent on the molecular structure of the organic material. This can be easily customized to make a wide range of wavelengths thanks to the endless configurations of organic molecules.
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OPV and OLED Fabrication Guide
Ossila’s pre-patterned ITO substrates are used for a wide variety of teaching and research devices (both organic and inorganic) where a high-quality ITO surface is required.
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Making OLEDs and OPVs: A Quickstart Guide
Organic photovoltaic cells (OPVs) or organic light emitting diodes (OLEDs) can be easily manufactured using Ossila's pre-patterned ITO substrates and a few simple spin coating and evaporating steps.
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What is molecular engineering?
Molecular engineering is simply the design and synthesis of molecules with specific properties and functions in mind. Certain chemical groups and atoms incorporated into molecules results in them having certain characteristics.
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What is molecular electronics?
Molecular electronics or "moletronics" is to use molecules as building blocks to create electronic components. These molecular electronic components include transistors, diodes, capacitors, insulators, and wires.
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