Abstract:
According to the present invention there is provided a method of manufacturing a MEMS micro mirror assembly (250), comprising the step of mounting a PCB board (205) on a metallic plate (206), mounting a MEMS device (240) on the PCB board (205), wherein the MEMS device (240) comprises a MEMS die (241) and a magnet (230).
Abstract:
A printed circuit board (PCB) and an LCD (liquid crystal display) module are disclosed. The PCB comprises at least one magnetic hole and at least one magnetic element, and the at least one magnetic element is fixedly disposed in the at least one magnetic hole. The LCD module comprises a backplate and a PCB. The PCB is fixed to the backplate by means of at least one magnetic element, and comprises at least one magnetic hole and the at least one magnetic element fixedly disposed in the at least one magnetic hole. The PCB and the LCD module of the present disclosure can improve the efficiency of fixing and assembling the PCB of the LCD module, make it convenient to re-process and assemble the LCD module and reduce the complexity of the backplate structure. Thereby, the production efficiency is greatly improved.
Abstract:
A flexible conduction trace includes a flexible line; and a plurality of conductive particles arranged in the form of pillars within the flexible line.
Abstract:
The present invention concerns a circuit board (100) having at least one fluid passage (110) arranged in the interior of a circuit board (100), having a fluid passage opening (120) which is arranged on a surface of the circuit board (100) and which leads to the fluid passage (110, and a multi-part pressure-relief valve arrangement (200) for reducing an excess pressure in the fluid passage (110), which includes a first magnet (210), a second magnet (220) and a sealing closure (230), wherein the first magnet (210) and the second magnet (220) are so arranged that they press the sealing closure (230) on to the fluid passage opening (2120) by a magnetic force (250) afforded by the first magnet (210) and by the second magnet (220).
Abstract:
An assembly of a plurality of tiles (1) with a carrier (40), wherein the tiles (1) comprise a foil (20) with an electro-physical transducer (10) and electrical connectors (24, 28) to said transducer. The tiles are mechanically and electrically coupled to the carrier, and the tiles overlay according to a fish scale pattern.
Abstract:
A microelectronic assembly, a surface mount component and a method of providing the surface mount component. The assembly comprises: a substrate having bonding pads disposed on a mounting surface thereof, the bonding pads including a ferromagnetic material therein; solidified solder disposed on the bonding pads; and a surface mount component bonded to the substrate by way of the solidified solder and including a magnetic layer disposed on a substrate side thereof, the magnetic layer being adapted to cooperate with the ferromagnetic material in the bonding pads to establish a magnetic force of a sufficient magnitude to hold the surface mount component on the substrate before and during soldering.
Abstract:
A microelectronic assembly, a surface mount component and a method of providing the surface mount component. The assembly comprises: a substrate having bonding pads disposed on a mounting surface thereof, the bonding pads including a ferromagnetic material therein; solidified solder disposed on the bonding pads; and a surface mount component bonded to the substrate by way of the solidified solder and including a magnetic layer disposed on a substrate side thereof, the magnetic layer being adapted to cooperate with the ferromagnetic material in the bonding pads to establish a magnetic force of a sufficient magnitude to hold the surface mount component on the substrate before and during soldering.
Abstract:
Disclosed is a multilayer material in which at least two components are jointed to each other via an adhesive bond. The adhesive bond is formed by an adhesive or bonding layer containing nanofiber material in a matrix that is suitable as an adhesive.
Abstract:
A circuit board includes a pump and a channel. The channel includes a liquid metal and a coating. The liquid metal is pumped through the channel by the pump and the coating reduces diffusion and chemical reaction between the liquid metal and at least portions of the channel. The liquid metal can carry thermal energy to act as a heat transfer mechanism between two or more locations on the substrate. The substrate may include electrical interconnects to allow electrical components to be populated onto the substrate to form an electronics assembly.
Abstract:
A composition of matter comprising a plurality of nanoparticles in a non-conductive binder, wherein, the type of nanoparticles form isolated parallel electrically and thermally conductive columns when cured in the presence of the magnetic field. Also wherein the plurality of nanoparticles are Paramagnetic or Ferromagnetic magnetic. Wherein the nano particles are coated, and of a particular shape. Wherein the particles are selected from the group consisting of; Al, Pt, Cr, Mn, crown glass, Fe, Ni, and Co, Ni—Fe/SiO2, Co/SiO2, Fe—Co/SiO2, Fe/nickel-ferrite, Ni—Zn-ferrite/SiO2, Fe—Ni/polymer, Co/polymer, ferrites, iron oxide and any combination and alloy thereof, and the Binder selected from the group consisting of; epoxies, polyurethanes, polyimides, polymeric materials, silicones, adhesives, acrylates, the UV curable modifier and any combination thereof.