Abstract:
A stacked semiconductor device and method of manufacturing a stacked semiconductor device are described. The semiconductor device may include a reconstituted base layer having a plurality of embedded semiconductor chips. A first redistribution layer may contact the electrically conductive contacts of the embedded chips and extend beyond the boundary of one or more of the embedded chips, forming a fan-out area. Another chip may be stacked above the chips embedded in the base layer and be electrically connected to the embedded chips by a second redistribution layer. Additional layers of chips may be included in the semiconductor device.
Abstract:
An integrated circuit device includes a semiconductor chip having an active surface with a plurality of chip contact pads, a rewiring substrate and an electrically conductive inductor coil for magnetically aligning the semiconductor chip with the rewiring substrate.
Abstract:
A biosensor that has a smart card configuration includes a semiconductor chip including a bioactive structure and contact areas disposed on a first side of the semiconductor chip, and a rewiring substrate including contact pads, external contact areas and rewiring lines that electrically connect the contact pads to the external contact areas. The rewiring substrate covers a portion of the first side of the semiconductor chip without covering the bioactive structure, such that the rewiring substrate overlaps the contact areas of the semiconductor chip and the contact pads and the contact areas are aligned with and electrically connect to each other. In addition, a measuring apparatus is configured to receive the biosensor and conduct measurements of a fluid medium that is delivered into the measuring apparatus.
Abstract:
A semiconductor package includes a rewiring substrate and a semiconductor chip. The semiconductor chip includes: a first face with an active surface including integrated circuit devices and chip contact pads, a second face lying in a plane essentially parallel to the first face and side faces. Each side face of the semiconductor chip lies in a plane essentially perpendicular to the first and second faces. At least one edge between two mutually essentially perpendicular faces of the semiconductor chip includes a surface.
Abstract:
A vision aid in the form of telescopic spectacles has two lens systems, which each comprise at least one objective lens (70) and one eyepiece (71). An autofocussing element which changes the focal length of the lens systems for sharp focussing thereof according to the distance of the telescopic spectacle from the object is assigned to the lens systems. Furthermore, an element for changing the magnification factor by changing the focal length of the lens systems (“zoom”) and finally an element for matching the parallax between the lens systems of the vision aid to the focal length which has been set according to the distance of the telescopic spectacles from the object are assigned to the lens systems. The parallax is adapted using adjustable optical elements (11) which are located in the beam path of the lens systems, with which elements the angle (13) between the beam paths (14) running from the lens systems (1) to the object can be changed.
Abstract:
A semiconductor package comprises a substrate which includes a plurality of conducting traces and upper contact areas on its upper surface and a second plurality of lower conductive traces and external contact areas on its bottom surface and external conducting members attached to the external contact areas. The semiconductor package also includes a semiconductor die comprising an active surface with a plurality of die contact pads, electrically connected to the contact areas of the substrate by conducting members. A support layer between the conducting members on the active surface of the semiconductor die covers at least the base portion of the conducting members. A method relates to the production of the semiconductor package.
Abstract:
Magnifying spectacles for surgical use have an automatic focusing device, a device for automatically altering the magnification factor and a device for automatic parallax compensation corresponding to the current focal length. During surgical operations, alteration of the working distance is commonly necessary due to the positions of different operating sites. Automatic adaptation of the focal length and the parallax angle allows optimum optical configuration to be reached without the need for the surgeon to use his hands. Focusing can be adjusted using a foot switch.
Abstract:
Stress buffer layers for integrated microelectromechanical systems (MEMS) are described. For example, a semiconductor package includes a substrate having first and second surfaces, the second surface having an array of external conductive contacts. A microelectromechanical system (MEMS) component is disposed above the first surface of the substrate. A buffer layer is disposed above the MEMS component, the buffer layer having a first Young's modulus. A mold compound is disposed above the buffer layer, the mold compound having a second Young's modulus higher than the first Young's modulus.
Abstract:
According to various embodiments, a flip chip package structure is provided in which a redistribution layer (RDL) is disposed on a surface of both a semiconductor chip and one or more lateral extensions of the semiconductor chip surface. The lateral extensions may be made using, e.g., a reconstituted wafer to implement a fanout region lateral to one or more sides of the semiconductor chip. One or more electrical connectors such as solder bumps or copper cylinders may be applied to the RDL, and an interposer such as a PCB interposer may be connected to the electrical connectors. In this way, a relatively tight semiconductor pad pitch may be accommodated and translated to an appropriate circuit board pitch without necessarily requiring a silicon or glass interposer.
Abstract:
Repairable semiconductor device and method. In one embodiment a method, provides a first body having a first semiconductor chip and a first metal layer. A second body includes a second semiconductor chip and a second metal layer. Metal of the first metal layer is removed. The first semiconductor chip is removed from the first body. The second body is attached to the first body. The first metal layer is electrically coupled to the second metal layer.