Abstract:
One or more embodiments are directed to optical module assemblies, such as a camera module assembly, and methods of forming same. One embodiment is directed to an optical module assembly that includes a substrate having a first surface. An optical device is secured to the first surface of the substrate and electrically coupled to the substrate. A molded body is located on the first surface of the substrate outward of the optical device. The molded body includes a first recess. A lens assembly is secured to the molded body over the first recess by an adhesive material located in the first recess. In some embodiments, the molded body of the optical module assembly further includes a second recess spaced apart from the first recess. A transparent material is secured to the molded body over the second recess by an adhesive material located in the second recess.
Abstract:
A surface mount package of a semiconductor device, has: an encapsulation, housing at least one die including semiconductor material; and electrical contact leads, protruding from the encapsulation to be electrically coupled to contact pads of a circuit board; the encapsulation has a main face designed to face a top surface of the circuit board, which is provided with coupling features designed for mechanical coupling to the circuit board to increase a resonant frequency of the mounted package. The coupling features envisage at least a first coupling recess defined within the encapsulation starting from the main face, designed to be engaged by a corresponding coupling element fixed to the circuit board, thereby restricting movements of the mounted package.
Abstract:
A semiconductor-based multi-sensor module integrates miniature temperature, pressure, and humidity sensors onto a single substrate. Pressure and humidity sensors can be implemented as capacitive thin film sensors, while the temperature sensor is implemented as a precision miniature Wheatstone bridge. Such multi-sensor modules can be used as building blocks in application-specific integrated circuits (ASICs). Furthermore, the multi-sensor module can be built on top of existing circuitry that can be used to process signals from the sensors. An integrated multi-sensor module that uses differential sensors can measure a variety of localized ambient environmental conditions substantially simultaneously, and with a high level of precision. The multi-sensor module also features an integrated heater that can be used to calibrate or to adjust the sensors, either automatically or as needed. Such a miniature integrated multi-sensor module that features low power consumption can be used in medical monitoring and mobile computing, including smart phone applications.
Abstract:
An embodiment of a circuit module includes module nodes, a first submodule, a second submodule, and a conductive structure. The first submodule has a first submodule node, and the second submodule is disposed over the first submodule and has a second submodule node. The conductive structure couples the first submodule node to one of the module nodes and couples the second submodule node to one of the module nodes. Another embodiment of a circuit module includes module nodes, a first submodule, a second submodule, and a conductive structure. The first submodule has first submodule nodes, and the second submodule is disposed over the first submodule and has second submodule nodes. The conductive structure couples one of the first and second submodule nodes to one of the module nodes and couples one of the first submodule nodes to one of the second submodule nodes.
Abstract:
A low-cost resin lens is disclosed for use in miniature cameras. The resin lens features a low profile that is particularly well-suited to consumer products such as smart phones. The resin lens is mounted to an integrated circuit die that is attached to a standard four-layer substrate. The integrated circuit die includes electronic and/or optoelectronic circuits to support digital image capture, transfer, and processing. Image correction software adjusts the image to correct for distortion introduced by the resin lens.
Abstract:
An electronic device is formed by depositing polyimide on a glass substrate. A conductive material is deposited on the polyimide and patterned to form electrodes and signal traces. Remaining portions of the electronic device are formed on the polyimide. A second polyimide layer is then formed on the first polyimide layer. The glass substrate is then removed, exposing the electrodes and the top surface of the electronic device.
Abstract:
One or more embodiments are directed to optical module assemblies, such as a camera module assembly, and methods of forming same. One embodiment is directed to an optical module assembly that includes a substrate having a first surface. An optical device is secured to the first surface of the substrate and electrically coupled to the substrate. A molded body is located on the first surface of the substrate outward of the optical device. The molded body includes a first recess. A lens assembly is secured to the molded body over the first recess by an adhesive material located in the first recess. In some embodiments, the molded body of the optical module assembly further includes a second recess spaced apart from the first recess. A transparent material is secured to the molded body over the second recess by an adhesive material located in the second recess.
Abstract:
Electronics modules and methods of making electronics modules are provided. An electronics module includes a substrate having an electronic circuit mounted thereon, a lens mount affixed to the substrate, the lens mount having a lens assembly mounted therein, and a liquid crystal cell affixed to the lens mount over the lens assembly, the liquid crystal cell having electrical terminals, wherein the lens mount includes adhesive containment pockets that are filled with a conductive adhesive so as to contact the electrical terminals of the liquid crystal cell, wherein the adhesive containment pockets include contacts that are electrically connected to the substrate. In some embodiments, the electronics module is a camera module.
Abstract:
A system and method for realizing specific security features for a mobile device that may store sensitive and private data by providing secured communications to a paired remote device. In this respect, both the mobile device (which may be a mobile phone, for example) and the paired remote device (which may be a keychain, for example) include a SIM card that may have identification data stored therein. Once paired, the two devices may communicate encrypted security messages back and forth in order to implement various security measures to protect data and wireless communications. Such messages may be generated from initial information known only to each respective device such as a randomly generated offset number and a common time reference.
Abstract:
The present disclosure is directed to a device and a method for achieving a precise capacitance of a capacitor. The method includes trimming a first capacitance of the capacitor to a second capacitance, the capacitor having a first conductive layer separated from a second conductive layer by a dielectric layer. Changing a first dielectric constant of the dielectric layer to a second dielectric constant, where the first dielectric constant corresponding to the first capacitance and the second dielectric constant corresponding to the second dielectric constant includes heating the dielectric layer above a threshold temperature for a time period. The heat is provided by either one of the plates of the capacitor or from a separate heater.