49results about How to "Minimize size of device" patented technology

The present invention provides a three-dimensional System-In-Package (SIP) Package-On-Package (POP) structure comprising a support element formed around a first electronic device. A filling material is filled between the first electronic device and the support element. Signal channels are coupled to first die pads of the first electronic device. Conductive elements form signal connection between the first end of the signal channels and the second die pads of a second electronic device.

A selective etching process cuts shapes from amorphous metal strip feedstock. The etching process comprises depositing a chemically resistant material to one side of the strip in a pattern that defines the requisite shape, mating the metal strip with a carrier strip, exposing at least one side of the metal strip to an etching agent to selectively etch the desired shape, and separating the shape from the strip feedstock. A plurality of layers of the shapes is assembled by adhesive lamination to form a generally polyhedrally shaped bulk amorphous metal magnetic component useful in high efficiency electric motors and inductive devices. The bulk amorphous metal magnetic component may include an arcuate surface, and preferably includes two arcuate surfaces that are disposed opposite to each other. The magnetic component is operable at frequencies ranging from about 50 Hz to about 20,000 Hz. When the component is operated at an excitation frequency “f” to a peak induction level Bmax, the component exhibits a core-loss less than about “L” wherein L is given by the formula L=0.005 f(Bmax)1.5+0.000012 f1.5(Bmax)1.6, said core loss, said excitation frequency and said peak induction level being measured in watts per kilogram, hertz, and teslas, respectively. Performance characteristics of the bulk amorphous metal magnetic component of the present invention are significantly better than those of silicon-steel components operated over the same frequency range.

A portable lighting system for small enclosures is provided. A light is removably attached to the interior of an enclosure. Activation may be automatic by cooperative interaction between the light and a magnet affixed to a movable portion of the enclosure or by a manual switch. The light may be detached from the interior and used as a hand-held light or attached to an article of clothing or an object. A manual switch allows the light to be deactivated when illumination is not required.

An interface material comprising a resin mixture and at least one solder material is herein described. The resin material may comprise any suitable resin material, but it is preferred that the resin material be silicone-based comprising one or more compounds such as vinyl silicone, vinyl Q resin, hydride functional siloxane and platinum-vinylsiloxane. The solder material may comprise any suitable solder material, such as indium, silver, copper, aluminum and alloys thereof, silver coated copper, and silver coated aluminum, but it is preferred that the solder material comprise indium or indium-based compounds and / or alloys. The interface material, or polymer solder, has the capability of enhancing heat dissipation in high power semiconductor devices and maintains stable thermal performance. The interface material may be formulated by mixing the components together to produce a paste which may be applied by dispensing methods to any particular surface and cured at room temperature or elevated temperature. It can be also formulated as a highly compliant, cured, tacky elastomeric film or sheet for other interface applications where it can be preapplied, for example on heat sinks, or in any other interface situations.

A LED illuminating device includes an illuminating unit and a shell having a top side and chamber. The illuminating unit includes a PCB supported by the shell and one or more LED modules electrically and spacedly mounted on the PCB disposed in the chamber. Each of the LED modules includes a red LED, a blue LED and a green LED which are symmetrically arranged in a triangular manner side by side. The wires are emerged from two ends of the shell in a horizontal plane parallel to an adhesive layer so as to adapt for electrically linking two neighboring LED modules with each other in a flat plane manner. Finally, it reduces unnecessary length of the wire and minimizes the size of the device by decreasing the overall volume.

Disclosed are small, compact devices that provide readily deployed storage for small personal items, and they can also readily be returned to their stowed configuration. This toggling between deployed and stowed can be accomplished without a required change to the connection of any such device to another object, such as a travel case. The devices provide specific benefit to people going through an airport or building security checkpoint at which it is a requirement that pocket items such as cell phones, keys, and coins must be removed from one's pockets for assessment by a scanning apparatus.

An inductor structure is disclosed in the present invention. The inductor structure is formed in a semiconductor substrate, in which a spiral first conductive layer and the topmost interconnect of a multilevel interconnection structure are simultaneously formed in a first dielectric layer, the first conductive layer has the same material as the topmost interconnect has, a second conductive layer and the via plug of the multilevel interconnection structure are simultaneously formed, the second conductive layer is filled in a trench opening in a second dielectric layer, beneath the first conductive layer, and attached to the bottom of the first conductive layer to become an integrated whole. Thus, the cross-sectional area of the conductive layer of the coil is increased and the resistance can be reduced to obtain higher Q factor.

A diffraction grating device operable as a reflection or transmission grating, and a method of manufacturing and using any number of such grating devices so that each device is individually electrically addressable to diffract radiation of different wavelengths. The grating device comprises first and second sets of interdigitated elements so that each element of the first set defines an element pair with an immediately adjacent element of the second set, a first gap is defined between the elements of each element pair, and a second gap is defined between each adjacent pair of element pairs. The elements of an element pair are selectively movable toward and away from each other. As such, the widths of the gaps can be selectively sized to diffract radiation of a desired wavelength.

A surgical device (101) for grasping and severing body tissue comprises a housing (140) which defines a proximal end (102) and a distal end (104), a user operating handle (160) at the proximal end (102), and two blade elements (110, 120) at the distal end (104). The user operating handle (160) may be activated to pivot the blade elements (110, 120) about two parallel grasping pivot axes to grasp a piece of body tissue which is located between the blade elements (110, 120). The user operating handle (160) may also be activated to pivot the blade elements (110, 120) about a severing pivot axis to sever a piece of body tissue which is located between the blade elements (110, 120).

A portable lighting system for small enclosures is provided. A light is removably attached to the interior of an enclosure. Activation may be automatic by cooperative interaction between the light and a magnet affixed to a movable portion of the enclosure or by a manual switch. The light may be detached from the interior and used as a hand-held light or attached to an article of clothing or an object. A manual switch allows the light to be deactivated when illumination is not required.

Combinations, called matrices with memories, of matrix materials with remotely addressable or remotely programmable recording devices that contain at least one data storage unit are provided. The matrix materials are those that are used in as supports in solid phase chemical and biochemical syntheses, immunoassays and hybridization reactions. The matrix materials may additionally include fluophors or other luminescent moieties to produce luminescing matrices with memories. The data storage units are non-volatile antifuse memories or volatile memories, such as EEPROMS, DRAMS or flash memory. By virtue of this combination, molecules and biological particles, such as phage and viral particles and cells, that are in proximity or in physical contact with the matrix combination can be labeled by programming the memory with identifying information and can be identified by retrieving the stored information. Combinations of matrix materials, memories, and linked molecules and biological materials are also provided. The combinations have a multiplicity of applications, including combinatorial chemistry, isolation and purification of target macromolecules, capture and detection of macromolecules for analytical purposes, selective removal of contaminants, enzymatic catalysis, cell sorting, drug delivery, chemical modification and other uses. Methods for electronically tagging molecules, biological particles and matrix support materials, immunoassays, receptor binding assays, scintillation proximity assays, non-radioactive proximity assays, and other methods are also provided.

Controlling and adjusting of the operation of a device actuated by an electric motor are carried out by shutting down the electric power supply of said electric motor at a plurality of time intervals during the motor operation, measuring in the time interval the voltage supplied by the electric motor, comparing the value of the measured voltage with a reference value and, if required on the basis of said comparison, varying at least one parameter related to the functioning of the device in order to compensate possible deviations.

An RFID tag includes a substrate made of a material with a high dielectric constant of greater than approximately 4 and having a first side and a second side. A patch antenna is mounted to the first side of the substrate. A metallic ground plane is mounted to the second side of the substrate, and includes a feed through hole. A metallic backplane is coupled with the ground plane, on a side of the ground plane opposite the substrate. The backplane and / or the ground plane includes a recess. An RFID circuit is positioned within the recess. A shorting wall includes a plurality of through holes extending through the substrate and interconnecting the antenna with the ground plane. The plurality of through holes are generally linearly arranged relative to each other along an edge of the ground plane. An electrically conductive via extends through the substrate and the feed through hole of the ground plane. The via has a diameter which is slightly less than the feed through hole. The via interconnects the antenna with the RFID circuit. The via is at a distance from the shorting wall whereby an impedance of the RFID circuit approximately matches an impedance of the antenna.

A metal resistor and a method for manufacturing the resistor are provided. A first insulation film is formed on a substrate, a photosensitive film is applied on the insulation film, and an insulation film pattern is formed by patterning the insulation film. After a metal thin film is formed among the insulation film pattern and on the photosensitive film, with removing the photo-sensitive film is a metal thin film pattern formed among the insulation film pattern. On the metal thin film pattern and the insulation film pattern is a second insulation film formed and at the pad region of the metal thin film pattern is a lead wire connected, after that, a metal thin film resistor is manufactured with forming a preservation film on and around the lead wire. Using a pattern-forming process by etching of the insulation film for forming the metal thin film pattern, the deterioration of the device or the lowering of the durability can be overcome, the resistance of the metal thin film resistor can be easily controlled, and the resolving power can be improved by producing the high-resistance metal thin film temperature having reduced line with of the metal thin film pattern.

A multi-functional peripheral device is provided including a printing unit which develops images that are read from a document. A scanning unit is installed on the printing unit so as to rotate and read document images of the document. A loading unit loads the printing media and includes a plurality of portions configured to separate from each other when the scanning unit rotates.

An integral handle (12) is formed in a portable patient monitoring device (10) to minimize device size and to provide a storage cavity for a stowable bedrail hook assembly (30) mounted to the device (10). A handle cavity (14) extends through a top side (16) of the device casing and out through a back side (18) of the casing to accommodate a human hand and permit an operator to grasp the integral handle (12). The hook assembly (30) has a generally U-shaped crossbar (32) that is inserted to mounting brackets (40) secured to the back side (18) of the device (10). Hook portions (34) having a curvature generally congruent to the interior of the handle cavity (14) extend from the crossbar (32) and stow inside the handle cavity (14) as the crossbar (32) rests against the back side (18) of the device when the hook assembly is stowed. The hook assembly (30) is pivoted approximately 180 degrees out and up from the handle cavity (14) to an active position for use, and the hook portions (34) are placed over a bedrail to mount the monitor.

A semiconductor laser device comprises: a substrate having a top surface divided into a first region and a second region; a high-output LD including a first conductivity-type clad layer, an active layer, and a second conductivity-type clad layer including an upper portion having a first ridge structure, sequentially formed on the first region of the substrate; and a low-output LD including a first conductivity-type clad layer, an active layer, and a second conductivity-type clad layer including an upper portion having a second ridge structure, sequentially formed on the second region of the substrate, wherein the first and second ridge structures are formed in such a manner that they are extended to both ends opposed to each other, the first ridge structure is bent at two or more bending positions, and the second ridge structure is rectilinear.

The present disclosure relates to a 3D printer having a cooling function, The 3D printer includes: a tank configured to store therein a photocurable liquid resin; a bed configured to support a shaping object; a bed transfer unit configured to move the bed in a vertical direction; a light projection unit configured to linearly project laser light to the photocurable liquid resin stored in the tank so as to cure the photocurable liquid resin into a shaping object; a light projection unit transfer unit configured to move the light projection unit; a control unit configured to control operations of the light projection unit, the light projection unit transfer unit, and the bed transfer unit; and a cooling unit configured to dissipate heat generated from the light projection unit.

A device for manipulating magnetic or magnetizable objects in a medium is provided. The device has a surface lying in a plane and comprises a set of at least two conductors electrically isolated from each other, wherein the at least two conductors are adapted for both generating a magnetophoresis force for moving the magnetic or magnetizable objects over the surface of the device in a direction substantially parallel to the plane of the surface, and generating a dielectrophoresis force for moving the magnetic or magnetizable objects in a direction substantially perpendicular to the plane of the surface. Also provided is a method for manipulating magnetic or magnetizable objects in a medium. The method uses a combined magnetophoresis and dielectrophoresis actuation principle for controlling in-plane as well as out-of-plane movement of the magnetic or magnetizable objects.

An RMS-DC converter includes a chopper-stabilized square cell that eliminates offset, thus enabling high-bandwidth operation. The chopper-stabilized offset requires only a small portion of the circuitry (i.e., a single component square cell) which operates at high frequencies, and is amenable to using high-bandwidth component square cells. Using the chopping technique minimizes required device sizes without compromising an acceptable square cell dynamic range, thereby maximizing the square cell bandwidth. The RMS-DC converter consumes less power than conventional RMS-to-DC converters that requires a high-frequency variable gain amplifier.

A mask ROM and fabrication method thereof are disclosed, in which a bit line is formed of a conductive material such as polysilicon, by which a device size can be minimized, and by which resistance characteristics are enhanced.