Curamik Electronics Gmbh

Electrovac, Fabrikation Elektrotechnischer Spezialartikel Gesellschaft M.b.h.

Commonwealth Scientific and Industrial Research Organisation

Electrovac Ag

Electrovac Fabrikation Elektrotechnischer Spezialartikel Gmbh

Ims-ionen Mikrofabrikationas Systeme

Xinhe Tang

Ernst Hammel

Ben Zhong Tang

Ka Chun Tse

Klaus Mauthner

Elmar Platzgummer

Gerhard Stengl

Oddvar Johansen

Liming Dai

Albert Mau

Shaoming Huang

Daniel Den Engelsen

Hans Löschner

Cornelis Kortekaas

Edward Cosman

Roland Haubner

Disclosed is a composition, in particular a dispersion, which contains nanofiber material in at least one organic matrix component, said nanofiber material being pre-treated in at least one method step for adjusting the physical properties of the composition.

Method for treating nanofiber material and composition of nanofiber material

Disclosed is a multilayer material in which at least two components are jointed to each other via an adhesive bond. The adhesive bond is formed by an adhesive or bonding layer containing nanofiber material in a matrix that is suitable as an adhesive.

Printed circuit board made from a composite material

Composite material, especially multilayer material, and adhesive or bonding material

A reactor for preparing carbon nanotubes comprising a reaction chamber, at least one support means located within said reaction chamber capable of supporting a substrate, said substrate being capable of supporting carbon nanotube growth, at least one heating element located within said reaction chamber capable of providing localized heating to said substrate within said reaction chamber, and means for passing a gaseous carbonaceous material into said reaction chamber such that is passes over the contacts said substrate.

Apparatus for the production of carbon nanotubes

An electron emitter is formed by in situ growth from the vapor on catalyst clusters that are adhered by an adhesion layer to a conductive electrode. The emitter comprises hemispheroidal nanofiber clusters that emit electrons at low field strengths and high current densities, producing bright light by the interaction of the electrons and a fluorescent and/or phosphorescent film on an anode spaced across an evacuated gap. The nanofibers may be grown such that the nanofiber clusters are entangled, restricting movement of individual nanofibers.

Electron emitter and process of fabrication

A field emission device for use as a backlight of a liquid crystal display comprises a conductive anode having a light-emitting layer and a cathode separated from the anode by a spacer. The cathode comprises nanofiber electron emitters. For example, the nanofiber electron emitters comprise a substrate, a conductive film adhered to the substrate and a plurality of isolated, hemispheroidal nanofiber clusters that are capable of emitting electrons at high current density and low field strength.

Field emission backlight for liquid crystal television

In a method of producing a nanotube layer on a substrate by using a CVD process, the substrate is placed in a reaction chamber, which is flushed with a carbon-containing gas. Subsequently, the substrate is heated by an induction process to a temperature at which carbon from the gas phase is deposited on the substrate while forming nanotubes thereon.

Method of producing a nanotube layer on a substrate

Method of synthesizing carbon nano tubes (CNTs) on a catalyst layer formed on a support member, by catalytic deposition of carbon from a gaseous phase, whereby an ion beam is used prior to, during, and/or after formation of the carbon nano tubes for modifying the physical, chemical, and/or conductive properties of the carbon nanotubes.

Method of synthesising carbon nano tubes

Growing community of inventors

Vienna, Austria

Xinhe Tang