Abstract:
PROBLEM TO BE SOLVED: To provide small-sized RF components. SOLUTION: A plurality of components for guiding or controlling RF and microwave radiation are integrated by a plurality of electrodepositions and/or a plurality of laminated materials. The components include a switch, a dielectron an antenna, a transmission line, a filter, a hybrid coupler, an antenna array and/or other active or passive components. The components include a channel that does not allow useful radiated rays to be outputted and input when separating sacrifice materials from composition materials. In a preferred forming process, the electrodeposition mold fabrication technology (e.g., selective deposition, bulk deposition, etching process and flattening process) and post deposition process (e.g., selective etching and/or final backfill process) are employed. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
A counterfeiting deterrent device according to one implementation of the disclosure includes a plurality of layers formed by an additive process. Each of the layers may have a thickness of less than 100 microns. At least one of the layers has a series of indentations formed in an outer edge of the layer such that the indentations can be observed to verify that the device originated from a predetermined source. According to another implementation, a counterfeiting deterrent device includes at least one raised layer having outer edges in the shape of a logo. A light source is configured and arranged to shine a light through a slit in a substrate layer of the device and past an intermediate layer to light up the outer edge of the raised layer. The layers of the device are formed by an additive process and have a thickness of less than 100 microns each.
Abstract:
Embodiments are directed to the formation micro-scale or millimeter scale structures or method of making such structures wherein the structures are formed from at least one sheet structural material and may include additional sheet structural materials or deposited structural materials wherein all or a portion of the patterning of the structural materials occurs via laser cutting. In some embodiments, selective deposition is used to provide a portion of the patterning. In some embodiments the structural material or structural materials are bounded from below by a sacrificial bridging material (e.g. a metal) and possibly from above by a sacrificial capping material (e.g. a metal).
Abstract:
Numerous electrochemical fabrication methods and apparatus are provided for producing multi-layer structures (e.g. having meso-scale or micro-scale features) from a plurality of layers of deposited materials using adhered masks (e.g. formed from liquid photoresist or dry film), where two or more materials may be provided per layer where at least one of the materials is a structural material and one or more of any other materials may be a sacrificial material which will be removed after formation of the structure. Materials may comprise conductive materials that are electrodeposited or deposited in an electroless manner. In some embodiments special care is undertaken to ensure alignment between patterns formed on successive layers.
Abstract:
Embodiments of the invention provide methods for packaging integrated circuits and/or other electronic components with electrochemically fabricated structures which include conductive interconnection elements. In some embodiments the electrochemically produced structures are fabricated on substrates that include conductive vias while in other embodiments, the substrates are solid blocks of conductive material, or conductive material containing passages that allow the flow of fluid to maintain desired thermal properties of the packaged electronic components.
Abstract:
Embodiments of the present invention provide mesoscale or microscale three-dimensional structures (e.g. components, device, and the like). Embodiments relate to one or more of (1) the formation of such structures which incorporate sheets of dielectric material and/or wherein seed layer material (1226) used to allow electrodeposition (1228) over dielectric material (1224) is removed via planarization operations; (2) the formation of such structures wherein masks used for at least some selective patterning operations are obtained through transfer plating of masking material to a surface of a substrate or previously formed layer, and/or (3) the formation of such structures wherein masks (1224) used for forming at least portions of some layers are patterned on the build surface directly from data representing the mask configuration, e.g. in some embodiments mask patterning is achieved by selectively dispensing material via a computer controlled inkjet nozzle or array or via a computer controlled extrusion device.
Abstract:
Embodiments of invention are directed to the formation of microprobes (i.e. compliant electrical or electronic contact elements) on a temporary substrate (306), dicing individual probe arrays (300), and then transferring the arrays to space transformers or other permanent substrates (310). Some embodiments of the invention transfer probes (302) to permanent substrates (310) prior to separating the probes (302) from a temporary substrate (306) on which the probes (302) were formed while other embodiments do the opposite. Some embodiments, remove sacrificial material (308) prior to transfer while other embodiments remove sacrificial material (308) after transfer. Some embodiments are directed to the bonding of first and second electric components together using one or more solder bumps with enhanced aspect ratios (i.e. height to width ratios) obtained as a result of surrounding the bumps at least in part with rings of a retention material. The retention material may act be a solder mask material.
Abstract:
Some embodiments of the present invention provide processes and apparatus for electrochemically fabricating multilayer structures (98) (e.g. mesoscale or microscale structures) with improved endpoint detection and parallelism maintenance for materials (e.g. layers) that are planarized during the electrochemical fabrication process. Some methods involve the use of a fixture during planarization that ensures that planarized planes of material are parallel to other deposited planes within a given tolerance. Some methods involve the use of an endpoint detection fixture (292, 294, 296, 298) that ensures precise heights of deposited materials relative to an initial surface of a substrate (82), relative to a first deposited layer, or relative to some other layer formed during the fabrication process. In some embodiments planarization may occur via lapping while other embodiments may use a diamond fly cutting machine (408).
Abstract:
Electrochemical fabrication methods for forming single and multilayer mesoscale and microscale structures are disclosed which include the use of diamond machining (e.g. fly cutting or turning) to planarize layers. Some embodiments focus on systems of sacrificial and structural materials which are useful in Electrochemical fabrication and which can be diamond machined with minimal tool wear (e.g. Ni-P and Cu, Au and Cu, Cu and Sn, Au and Cu, Au and Sn, and Au and Sn-Pb), where the first material or materials are the structural materials and the second is the sacrificial material). Some embodiments focus on methods for reducing tool wear when using diamond machining to planarize structures being electrochemically fabricated using difficult-to-machine materials (e.g. by depositing difficult to machine material selectively and potentially with little excess plating thickness, and/or pre-machining depositions to within a small increment of desired surface level (e.g. using lapping or a rough cutting operation) and then using diamond fly cutting to complete the process, and/or forming structures or portions of structures from thin walled regions of hard-to-machine materials as opposed to wide solid regions of structural material.
Abstract:
Some embodiments of the present invention provide processes and apparatus for electrochemically fabricating multilayer structures (98) (e.g. mesoscale or microscale structures) with improved endpoint detection and parallelism maintenance for materials (e.g. layers) that are planarized during the electrochemical fabrication process. Some methods involve the use of a fixture during planarization that ensures that planarized planes of material are parallel to other deposited planes within a given tolerance. Some methods involve the use of an endpoint detection fixture (292, 294, 296, 298) that ensures precise heights of deposited materials relative to an initial surface of a substrate (82), relative to a first deposited layer, or relative to some other layer formed during the fabrication process. In some embodiments planarization may occur via lapping while other embodiments may use a diamond fly cutting machine (408).