46results about How to "Reduce mechanical strain" patented technology

The invention relates to a piston pump, which is intended for use as a return pump for a slip-controlled hydraulic vehicle brake system. To simplify the manufacture of a piston of the piston pump, the piston includes a thin sleeve.

Laser modules that are operated intermittently are prone to stop operating after only a few thousand cycles or less. The laser modules sometimes experience a significant increase in operating temperature before they stop operating and, in some cases, manifest an opening of the electrical circuit that connects the laser diodes in the stack of laser subassemblies. In extreme cases, the laser module disintegrates into component subassemblies. These problems arise from structural failures in affixing agents like solder that are used to affix component parts to each other. The structural failures are caused by cyclical thermal expansion and contraction of component parts that exceed the elastic limit of the solder. Resistance to global plastic deformation (creep) and to local plastic deformation (fatigue) is improved by selecting materials to reduce mechanical strain and increase resistance to creep and fatigue, by altering the structural design of the laser module to reduce mechanical strain induced into the affixing agents, and by altering operational practices to reduce the range of temperatures imposed on laser module components. One design method improves resistance to creep and fatigue by controlling the thickness of the affixing agents used to affix component parts to each other.

An integrated circuit 2 is formed of multiple wafer layers 4, 6, 8, 10 arranged in a stack and connected with through silicon vias 12. Mechanical strain sensors 26, 28, 30, 32 in the form of ring oscillators are provided proximal to the through silicon vias 12 and detect mechanical strain associated with the through silicon via 12. The measured mechanical strain may be used to dynamically adjust operating parameters of the integrated circuit either as a whole or in regions where the mechanical strain is detected. The operating parameters adjusted can include clock frequency, operating voltage and heat generation.

A tire assembly with integrated electronic components includes a tire structure and an integrated electronics assembly, which preferably includes at least a radio frequency (RF) device and a multi-frequency antenna that enables wireless communication in at least first and second resonant frequency bands. Such multi-frequency antenna further comprises at least first and second antenna wires connected to the RF device, thus facilitating the transmission of RF signals which may include information such as tire identification information or measured condition information such as tire temperature, pressure, and other characteristics. The first and second antenna wires preferably function together as at least two dipole antennas, for example, two half-wave dipole antennas, or one half-wave dipole antenna and one three-half-wave dipole antenna. A two-wire configuration may be more readily implemented and also designed to reduce strains concentrated at the connection point(s) between the RF device and the antenna wires.

A semiconductor device with a damascene wiring structure which can prevent short-circuits between a seal ring and a wiring line or electrode pad. The upper layer barrier layer made from a conductive barrier material film is formed on the interlayer insulating film groove sidewall of the semiconductor device, an upper layer seal ring wiring line with the thickness of approximately 10 micrometers for instance made from a wiring material film is embedded in a groove, and a plurality of isolated pockets of insulators are formed to be disbursed in the upper layer seal ring wiring line. These isolated pockets of insulators formed using the interlayer insulating film which forms the aforementioned damascene wiring line. Furthermore, a first upper layer groove wiring line and a second upper layer groove wiring line are formed in the element forming region, and an upper layer barrier layer is formed on the outside perimeter. The upper layer seal ring wiring line and both upper layer wiring lines all have (dual) damascene wiring structures.

A tire assembly with integrated electronic components includes a tire structure and an integrated electronics assembly, which preferably includes at least a radio frequency (RF) device and a multi-frequency antenna that enables wireless communication in at least first and second resonant frequency bands. Such multi-frequency antenna further comprises at least first and second antenna wires connected to the RF device, thus facilitating the transmission of RF signals which may include information such as tire identification information or measured condition information such as tire temperature, pressure, and other characteristics. The first and second antenna wires preferably function together as at least two dipole antennas, for example, two half-wave dipole antennas, or one half-wave dipole antenna and one three-half-wave dipole antenna. A two-wire configuration may be more readily implemented and also designed to reduce strains concentrated at the connection point(s) between the RF device and the antenna wires.

The invention is directed to a process for making a dielectric ceramic film capacitor and the ceramic dielectric laminated capacitor formed therefrom, the dielectric ceramic film capacitors having increased dielectric breakdown strength. The invention increases breakdown strength by embedding a conductive oxide layer between electrode layers within the dielectric layer of the capacitors. The conductive oxide layer redistributes and dissipates charge, thus mitigating charge concentration and micro fractures formed within the dielectric by electric fields.

The invention relates to a docking station (10) for a skin treatment device (30) having a cooling member (32). According to the invention, the docking station comprises: an evacuator (18) for lowering a pressure inside the cooling member, and means (28) for connecting an interior of the cooling member to a sorbent (24). The sorbent preferably comprises a zeolite. The invention further relates to a skin treatment device (30), particularly an epilator, comprising a cooling member (32) for containing a cooling agent (34, 36). According to the invention, the skin treatment device comprises means (28) for connecting the cooling member to a docking station (10) as mentioned above. The cooling agent is preferably water or an aqueous solution.

A cathode composition for an alkali-sulfur cell, e.g., a lithium-sulfur cell, includes, in addition to elementary sulfur, at least one material having covalently and / or conically bound sulfur, for example, a sulfur composite material, a sulfurous polymer, a metal sulfide, or a nonmetal sulfide.

A touch sensitive active matrix display device is provided. The device includes a display fabricated on a first flexible substrate, said display having a viewing surface. The device further includes a touch sensitive sensor including a second flexible substrate, under said display. The touch sensor is operated by touching said viewing surface of said display, and said combined display and touch sensitive sensor is flexible.

A semiconductor package (M) includes a semiconductor substrate layer (100) having a first side or upper surface (120) and a second side or lower surface or backplane (104) opposite the first side (120). A heat producing active area (102) is formed associated with the first side (120) of the semiconductor substrate layer (100). A die attachment member (106) is formed in contact with the second side (104) of the semiconductor substrate layer (100) and extends over less than all of the second side (104) of the semiconductor substrate layer (100). The die attachment material (106) is essentially uniformly disposed opposite of the heat producing area (102) with relation to the semiconductor substrate layer (100).

A multistage turbocompressor, designed as a geared compressor with an integrated gear, contains a central greater wheel (9) that meshes with a plurality of pinions (14, 15), wherein each pinion (14, 15) is mounted, in a manner adapted to rotate in unison, on a pinion shaft (16, 17). A bladed wheel of a compressor stage (II, III, IV, V) is arranged on the ends of each of the pinion shafts. The greater wheel (9) meshes with a driving pinion (8), which is mounted, in a manner adapted to rotate in unison, on a driving shaft 6 connected to a drive unit (1). The axis of the driving pinion (8) is arranged, with the axis of the greater wheel (9), in the same horizontal plane (20), and the driving pinion (8) meshes with a pinion (10) of a first compressor stage (I) mounted, in a manner adapted to rotate in unison, on a pinion shaft (11).

A kart includes a chassis having a pair of substantially parallel tubular rails extending longitudinally and connected to one another at each end by at least one transverse tubular element. The kart chassis includes, in the front portion thereof, at least two substantially flared-U-shaped tubes positioned facing one another and assembled in the middle portion such as to form an X-shaped structure between the tubular rails, and at least two substantially rectilinear tubes disposed on each side of the X-shaped structure and each having a first end solidly connected to one of the tubular rails and another end solidly connected to a central portion of the X-shaped structure.

A rotatable electrical plug assembly for a volatile material dispenser includes a support block including a base having a base member and a wall extending from the base member and forming a cavity with the base member. The plug assembly further includes a cover disposed within the cavity and electrical plug pins extending through apertures in the base and including contacts that extend at an angle of about 90 degrees with respect to the plug pins, wherein the contacts are disposed between the base member and the cover. A ratio of an overall plug assembly thickness over a plug pin thickness is less than about 1.5.

The invention belongs to the technical field of sintering furnace parts and relates to a heat preservation cylinder clamping groove device for a sintering furnace. The device comprises a plurality ofend face clamping strips which can be spliced with one another; all the end face clamping strips can be spliced into an annular support coaxial with a heat preservation cylinder; the inner diameter ofthe annular support is smaller than that of the heat preservation cylinder; one side face of each end face clamping strip can be tightly attached to the end face of the heat preservation cylinder, wherein the side face of each end face clamping strip a sealing face; the sealing faces of the end face clamping strips are provided with flow-resisting blocking edges extending in the axial direction of the heat preservation cylinder; the flow-resisting blocking edges can be spliced with one another to form a flow-resisting ring which is coaxial with the annular support and is attached to the innersurface of the end part of the heat preservation cylinder; the flow-resisting blocking edges are curved strips; the inner arc surface of each of the flow-resisting blocking edges can be closely adhere to the inner wall surface of the heat preservation cylinder through a locking mechanism. According to the heat preservation cylinder clamping groove device for the sintering furnace of the invention, the use damage of the heat preservation cylinder can be decreased, and therefore, the stability of the heat preservation cylinder can be improved, and the service life of the heat preservation cylinder can be prolonged.

In a method for detaching wafers from a carrier unit, the wafers being formed by sawing a wafer block fastened to the carrier unit by gluing, and the wafers themselves still being glued on one side, the carrier unit with the wafers is introduced into an ungluing unit along a uniform movement plane. It remains therein and is enclosed in an ungluing basin by movable wall parts. Solvent for ungluing is applied into the ungluing basin and onto the wafers after the formation and closing of the ungluing basin to dissolve the glued bond and subsequently detach the wafers from the carrier unit.

A device to bring a gas into contact with a particulate solid bulk material, comprising a first and a second tubular, radially gas-permeable element (1, 2) having different diameters and which each define a central axis, wherein one of the elements is essentially coaxially placed in the second element, wherein the elements (1, 2) internally define a ring-shaped shaft (30) for a material (40) that is to be contacted by the gas, wherein the elements have essentially vertically oriented axes, a ventilation device (50) for compelling the gas radially through the shaft and the material, a first device (41) for addition of the material to an upper end of the shaft (30) and a second device (31-36) for output of dried material from the lower end of the shaft. Driving means (12) are provided for internal displacement of the elements (1, 2). At least one of the walls is provided with at least one screw line ramp which maintains a high porosity and a controlled feeding of the material.