Smr Patents Sarl

Motherson Innovations Company Limited

University of South Australia

Simon Belcher

Sam Thoday

Jacob Heath Messenger

Dean Caruso

Scott Agung Edwards

Andreas Herrmann

Simon David Field

Gary Dekievit

Shane Randell Koehne

James Nicholson

Bill Frank

Arne Schmierer

Ilka Rötzer

Daniel Joseph Flynn

Daniel Fritz

Garry Gordon Leslie Fimeri

James Nicholas Dickson

Matthias Koller

Volker Erhart

Matthew Chapman-Winter

Bastian Stoehr

Oliver G Schmidt

Raimund Negel

Eugen Meier

Sascha Björn Heib

Levente Acs

Tobias Schwenger

Mikhail Kudryavtsev

Romeo Wieczorek

Peter Hein

Andrew Brian Little

Colin James Hall

Alexandru Dobrete

Drew Raymond Evans

Kamil Zuber

Andrea König

Mark Leonid Olijnyk

Maarten Schuurmans

Reinhold Langbein

Gary Gordon Leslie Fimeri

Tim Symonds

Shahad Algurabi

Mathew Chapman-Winter

Dylan Thorpe

David Derry Chamberlain

Garry Fimeri

Simon Orme

Brad Gibson

Colin Hall

David Harry

Nathan Di Giusto

Eugene Schmirin

Christopher Moase

Adam Di Fiore

Phillip McKenzie

Marco Cid

Matthew John Reedman

Peter Brown

Marla Johnston

Nicholas Schmidt

Jay Dickson

Mark Delaine

Jake Whittenbury

Dean Stevens

Abdon Edward Saenz De Viteri

Daniel Flynn

Edwards Scott

Alex Grochowski

Andrea KÖNIG

Philip Mc Kenzie

Frank Bill

Brad Alexander Gibson

The present disclosure relates to a cover for at least one antenna emitting or sensing electromagnetic radiation in at least one first frequency band, the cover includes at least one first surface facing the antenna and at least one second surface averted to the antenna, where the cover includes at least one substrate being transmissible for electromagnetic radiation and at least one first coating covering the substrate in at least one first area, the first coating being transmissible for electromagnetic radiation of at least the first frequency band, whereas the first coating is reflective for electromagnetic radiation falling onto the second surface and having a frequency within at least one second frequency band.

Electromagnetic interference protection for radomes

A decorative radome including a radio-transmissive substrate having a first surface on a first side and a second surface on a second side; and a first surface radio-transmissive decorative coating; methods of manufacturing a PVD coated system include applying a hard coating to the substrate; applying a PVD coating by magnetron sputtering to the substrate; and laser etching one or more of a pattern or a graphic into the PVD coating; and A decorative PVD coated item, comprising: a substrate; a hard coating applied to the substrate; a PVD coating provided on the hard coating and the substrate, wherein the PVD coating is laser etched with one or more of a pattern or a graphic so that the PVD coating is at least partially removed and the pattern or the graphic is revealed as a result of the contrast between the substrate and the PVD coating.

Decorative PVD coated items and radomes and methods of making same

A light emitting system includes a light pipe, a light source disposed at least partially within an interior of the light emitting system, and configured to emit light when receiving electrical power from an electrical power source, wherein the light source is arranged adjacent to and directed towards the light pipe, a lens substantially enclosing the interior of the light emitting system, the light pipe and the light source, the lens having an inner surface and an outer surface disposed opposite the inner surface, and a mask comprising a coating that is applied on the lens and laser etched to form a desired pattern, wherein light emitted from the light source passes through the light pipe and lens.

Light emitting system, a design element, a rear view device, a covering device, and a body component of a vehicle

A method of producing a decorative radome includes providing a substrate having a first surface and a second surface; applying, to at least a portion of the second surface of the substrate, a decorative layer including a layer of a metal or an alloy having a metal and a metalloid; and overmolding at least the decorative layer with a radio-transmissive polymer to provide an overmolded layer as well as a decorative radome having a first layer with a radio-transmissive polymer, the first layer having a front surface; a second layer having a radio-transmissive polymer, the second layer having a rear surface; and a decorative layer, between at least a portion of the first and second layer.

Decorative radome and method of producing the same

An antenna housing for mounting on a vehicle or on a vehicle roof surface includes an electrical circuit including at least one source element for emitting luminescent radiation, the at least one source element being located internally within the housing so as not to be visible externally, an indicating element for releasing luminescent radiation received from the at least one source element for viewing externally, and an optical conduit for providing an optical couple between the at least one source element and the indicating element. A combined antenna and indicator module for mounting on a vehicle includes the antenna housing, and a vehicle includes the combined antenna and indicator module.

Antenna housing, a combined antenna and indicator module and a vehicle

A covering device for arrangement on at least one outer or one inner region of a motor vehicle includes at least one form element which is produced and/or can be produced by means of injection moulding and has an inner side oriented towards the motor vehicle and an outer side oriented away from the motor vehicle, one or more lighting devices for emitting light. The covering device also includes at least one covering element which, for covering the form element at least in regions, is arranged at least in regions on the outer side of the form element, at least part of the light emitted by the lighting device being able to pass through the form element and/or the covering element.

Covering device, body part and motor vehicle

A light emitting system includes at least one light pipe, at least one light source disposed at least partially within an interior of the system, at least one mask, and a lens substantially enclosing the interior of the system, the at least one light pipe, and the at least one light source, the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent or translucent coating on the outer surface.

The invention relates to a robot-mounted 3D printing apparatus for printing biocompatible materials for performing in-situ surgical repairs and comprises one UV curable reagent container and one cell supporting reagent container which are co-axially extruded from a tip and cured to perform in-situ repairs.

Robot-mounted 3D printing apparatus

A lamp apparatus for use in an external rear view assembly includes at least one aperture, the apparatus including a housing comprising a rear view face and a front face with the at least one aperture; a printed circuit board (PCB) mounted adjacent the rear face, the PCB further having a power connector; an electronic circuit; and at least one light source mounted in a location on the PCB; a transparent lens component comprising at least one lens portion; and an adjusting device for spatially adjusting the apparatus relative to a housing part of the rear view assembly, relative to at least one of a housing cap or a mirror foot cover.

Combined approach lamp and logo lamp

A combined approach lamp and logo lamp apparatus for use in an external rear view assembly comprising at least one aperture, the apparatus including a housing including a rear view face and a front face with the at least one aperture; a printed circuit board (PCB) mounted adjacent the rear face, the printed circuit board further including a power connector, an electronic circuit, a first light source mounted in a first location on the printed circuit board, and a second light source mounted in a second location on the printed circuit board, and a transparent lens component comprising a first lens portion and a second lens portion.

A multifunction lamp unit for a vehicle includes a housing, at least one light pipe together with at least one light source disposed at least partially within the housing, and a clear lens substantially enclosing the housing, the at least one light pipe and the at least one light source, the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent and translucent coating on the outer surface.

Light efficiency methods for vehicular HTL systems

A medium distributing assembly for a vehicle design element includes a medium guide including at least one medium receiving element; and at least one medium exit element, where the medium exit element has at least partly an annular form.

Medium distribution assembly and a vehicle design element including such an assembly

Growing community of inventors

Lonsdale, Australia

Simon Belcher