Abstract:
A hermetically sealed electronic device and method of fabrication are provided. A base layer of a wafer is created using a substrate formed from ultra-thin glass or ceramic using panel or roll to roll processing. One or more layers are bonded to the base layer. The wafer is singulated into a plurality of electronic devices having a top surface and a plurality of sides. A hermetic sealant is applied to each electronic device to completely encase the top surface and the sides while bonding to the base layer. At least one of the layers is a metallization layer formed by metal deposition. Full metallization may be applied over the entire wafer and a pattern subsequently transferred to the full metallization by one of laser and chemical etching. The electronic device may further include at least one electronic component attached to one of the layers and encased by the hermetic sealant.
Abstract:
Disclosed is a process, structure, equipment and apparatus directed to a low cost, high volume approach for the assembly of ultra small die to three-dimensional (3D) or 2.5D semiconductor packages.
Abstract:
An apparatus includes a substrate mechanically and electrically connected on one side of the substrate to multiple metallic probes in one or more arrays and includes the multiple metallic probes in the one or more arrays. In a method, multiple pits may be formed in an array on a first substrate. The pits have a pyramidal shape. A release layer is formed on the first substrate and covers surfaces of the pits. Probe tips are formed in the pits on the first substrate. The probe tips are formed from rigid conductive material. Multiple pillars are formed from rigid conductive material. The pillars are electrically and mechanically connected to a second substrate and to the probe tips. Release is caused of the probe tips from the first substrate, wherein the pillars and probe tips are connected to the second substrate and together form an array of rigid and conductive probes.
Abstract:
Methods, devices, systems, and computer program products for implementing a bio-medical sensing platform are provided herein. A method includes receiving one or more items of sensed biological data and/or sensor-related information from one or more sensor devices via a communication link established with the one or more sensor devices, wherein the one or more sensor devices are associated with a given user; analyzing the one or more items of sensed biological data and/or sensor-related information to perform one or more characterization functions pertaining to the one or more items of biological data and/or the given user; and transferring the one or more items of sensed biological data and/or sensor-related information and/or a result of the one or more characterization functions to a private storage component via a communication link established with the private storage component, wherein said transferring comprises implementing one or more security functions in conjunction with said transferring.
Abstract:
Package structures are provided for integrally packaging antennas with semiconductor RFIC (radio frequency integrated circuit) chips to form compact integrated radio/wireless communications systems that operate in the millimeter-wave and terahertz frequency ranges. For example, a package structure includes an RFIC chip, and an antenna package bonded to the RFIC chip. The antenna package includes a glass substrate, at least one planar antenna element formed on a first surface of the glass substrate, a ground plane formed on a second surface of the glass substrate, opposite the first surface, and an antenna feed line formed through the glass substrate and connected to the at least one planar antenna element. The antenna package is bonded to a surface of the RFIC chip using a layer of adhesive material.
Abstract:
Embodiments of the invention include a method for shaping a flexible integrated circuit to a curvature and the resulting structure. A flexible circuit is provided. An epoxy resin and amine composition is deposited on the flexible integrated circuit. The deposited epoxy resin and amine composition is B-staged. The flexible integrated circuit is placed within a mold of a curvature. The B-staged epoxy resin and amine composition is cured subsequent to placing the flexible integrated circuit within the mold of the curvature.
Abstract:
A bonding material including a phenoxy resin thermoplastic component, and a carbon black filler component. The carbon black filler component is present in an amount greater than 1 wt. %. The carbon black filler converts the phenoxy resin thermoplastic component from a material that transmits infra-red (IR) wavelengths to a material that absorbs a substantial portion of infra-red (IR) wavelengths.
Abstract:
Embodiments include package structures having integrated waveguides to enable high data rate communication between package components. For example, a package structure includes a package substrate having an integrated waveguide, and first and second integrated circuit chips mounted to the package substrate. The first integrated circuit chip is coupled to the integrated waveguide using a first transmission line to waveguide transition, and the second integrated circuit chip is coupled to the integrated waveguide using a second transmission line to waveguide transition. The first and second integrated circuit chips are configured to communicate by transmitting signals using the integrated waveguide within the package carrier.
Abstract:
A bonded structure contains a substrate containing at least one feature, the substrate having a top surface; a first release layer overlying the top surface of the substrate, the first release layer being absorptive of light having a first wavelength for being decomposed by the light; an adhesive layer overlying the first release layer, and a second release layer overlying the adhesive layer. The second release layer is absorptive of light having a second wavelength for being decomposed by the light having the second wavelength. The bonded structure further contains a handle substrate that overlies the second release layer, where the handle substrate is substantially transparent to the light having the first wavelength and the second wavelength. Also disclosed is a debonding method to process the bonded structure to remove and reclaim the adhesive layer for re-use. In another embodiment a multi-step method optically cuts and debonds a bonded structure.
Abstract:
A structure includes an electrical interconnection between a first substrate including a plurality of protrusions and a second substrate including a plurality of solder bumps, the plurality of protrusions includes sharp tips that penetrate the plurality of solder bumps, and a permanent electrical interconnection is established by physical contact between the plurality of protrusions and the plurality of solder bumps including a metallurgical joint.