Abstract:
A method of depositing a nanomaterial onto a donor surface comprises applying a composition comprising nanomaterial to a donor surface. In another aspect of the invention there is provided a method of depositing a nanomaterial onto a substrate. Methods of making a device including nanomaterial are disclosed. An article of manufacture comprising nanomaterial disposed on a backing member is disclosed.
Abstract:
Methods for depositing material and/or nanomaterial are disclosed. Also disclosed are methods of making devices including nanomaterials, systems useful for depositing materials and/or nanomaterials, surface treated articles for depositing material and/or nanomaterial onto a substrate, and surface treated transfer surfaces.
Abstract:
Methods for depositing material and/or nanomaterial are disclosed. Also disclosed are methods of making devices including nanomaterials, systems useful for depositing materials and/or nanomaterials, surface treated articles for depositing material and/or nanomaterial onto a substrate, and surface treated transfer surfaces.
Abstract:
A light emitting device includes a semiconductor nanocrystal in a layer. The layer can be a monolayer of semiconductor nonocrystals which is deposited by a microsontact printing method. The monolayer can form a pattern on a substrate . A multicolor display can be formed comprising a plurality of light emitting devices that emit at different wavelengths, each device including a monolayer of semiconductor nanocrystals .
Abstract:
A light emitting device includes a semiconductor nanocrystal in a layer. The layer can be a monolayer of semiconductor nonocrystals. The monolayer can form a pattern on a substrate.
Abstract:
Methods for depositing material and/or nanomaterial are disclosed. Also disclosed are methods of making devices including nanomaterials, systems useful for depositing materials and/or nanomaterials, surface treated articles for depositing material and/or nanomaterial onto a substrate, and surface treated transfer surfaces.
Abstract:
The embodiments disclosed herein are directed to fabrication methods useful for creating MEMS via microcontact printing by using small organic molecule release layers. The disclose method enables transfer of a continuous metal film onto a discontinuous platform to form a variable capacitor array. The variable capacitor array can produce mechanical motion under the application of a voltage. The methods disclosed herein eliminate masking and other traditional MEMS fabrication methodology. The methods disclosed herein can be used to form a substantially transparent MEMS having a PDMS layer interposed between an electrode and a graphene diaphragm.
Abstract:
Methods for depositing material and nanomaterial onto a substrate are disclosed. Also disclosed are methods of making devices including nanomaterials, and a system useful for depositing materials and nanomaterials.
Abstract:
Methods for depositing nanomaterial (102) onto a substrate (104) are disclosed. Also disclosed are compositions useful for depositing nanomaterial, methods of making devices including nanomaterials, and a system and devices useful for depositing nanomaterials.
Abstract:
The embodiments disclosed herein are directed to fabrication methods useful for creating MEMS via microcontact printing by using small organic molecule release layers. The disclose method enables transfer of a continuous metal film onto a discontinuous platform to form a variable capacitor array. The variable capacitor array can produce mechanical motion under the application of a voltage. The methods disclosed herein eliminate masking and other traditional MEMS fabrication methodology. The methods disclosed herein can be used to form a substantially transparent MEMS having a PDMS layer interposed between an electrode and a graphene diaphragm.