Abstract:
The tubular lamp device contains a passive and transparent lamp tube whose two ends are plugged into a pair of socket members, respectively. The lamp tube has an axial strip along the circumference coated with a reflective film. The socket member contains a tubular element which receives an end of the lamp tube. Inside the tubular element, a LED element is housed in a hole of a solid lens element which directs the light beams of the LED element towards the lamp tube. The light beams are then reflected by the reflective film to create a large area of illumination as the light beams propagate through the lamp tube.
Abstract:
The invention provides a connection structure installed in a data processing apparatus. The data processing apparatus includes a keyboard and a base. The keyboard includes a bottom. The base includes a top plate. The connection structure connects the bottom and the top plate. The connection structure includes a mounted boss and a mounting hole. The mounted boss is disposed on the bottom of the keyboard. The mounted boss includes a groove. The mounting hole is disposed on the top plate of the base. The mounting hole includes a protrusion. When the bottom of the keyboard is assembled to the top of the base, the mounted boss would fit into the mounting hole, such that the protrusion is locked with the groove.
Abstract:
A jack detection circuit includes a transition circuit and an AD converter. The transition circuit linearizes analog signals sent from a switching circuit. The AD converter converts the linearized analog signals to digital output signals thereby decreasing the complexity of signal recognition.
Abstract:
Apparatus, systems, and methods implementing techniques for reducing the variation of a DC offset are described. An input signal is amplified to produce an intermediate signal. The intermediate signal is processed to produce a feedback signal and an output signal, where the output signal has a DC offset that varies with a varying parameter of the circuitry used to process the intermediate signal. Variation of the DC offset of the output signal is reduced using the feedback signal. In one implementation, the circuitry used to process the intermediate signal is a variable-gain amplifier circuit, and the DC offset of the output signal varies with a gain of the variable-gain amplifier.
Abstract:
A backlight module includes a light source, a light guide plate for guiding light from the light source, and a brightness enhancement film having a plurality of spherical surface microlenses for gathering light from the light guide plate. In contrast to traditional prism sheets, the brightness enhancement film having the plurality of spherical surface microlenses have better efficiency of light-gathering.
Abstract:
The present invention is directed to methods for treating, preventing, ameliorating, controlling or reducing the risk of a disorder or disease, which method comprises the administration to a patient of an effective amount of the compound of formula I: I (wherein R1, R2, R3, R4, R5, R6, R7, R8, R9, R10, X, n and the dashed line are defined herein) which are useful as modulators of chemokine receptor activity. In particular, these compounds are useful as modulators of the chemokine receptor CCR-2.
Abstract translation:本发明涉及治疗,预防,改善,控制或降低病症或疾病风险的方法,该方法包括向患者施用有效量的式I化合物:其中R为 R 1,R 2,R 3,R 4,R 5,R 4, R 6,R 7,R 8,R 9,R 10,X,n, 并且虚线在本文中定义),其可用作趋化因子受体活性的调节剂。 特别地,这些化合物可用作趋化因子受体CCR-2的调节剂。
Abstract:
The present invention discloses a contact type of pulse measurement device, which comprises a first active sensor electrode and a second active sensor electrode having corresponding opposite polarities with each other; and the two active sensor electrodes respectively connected to the pulse measurement device by conductive wires and the pulse measurement device comprises a negative feedback difference common mode signal and a buffer/balanced circuit for providing a circuit with a self common point electrode potential. Therefore, the first bio-potential signal can be detected by means of the first active sensor electrode and the common point electrode. Similarly, a second bio-potential signal having the same magnitude but a different phase as the first bio-potential signal can be detected by the second active sensor electrode and the common point electrode.
Abstract:
The present invention provides a fabrication process for making an integrated micro spherical lens for an optical switch. Through a semiconductor micro imaging process and a wet-etching process of micro electromechanical working, a plurality of V-shape grooves and mesas are formed on the surface of a base. A further micro imaging process, an etching process and a heat tempering process are used to form a micro spherical lens on the mesa, so that an integrated micro spherical lens and fiber array can be precisely arranged.
Abstract:
A method and system implementing application centric connectivity under various virtualization platforms are disclosed. According to one embodiment, a system comprises a virtual platform running on a physical machine; a virtual machine that hosts an application running on the virtual platform; a device binding module running on the virtual platform; a virtual device module running inside a virtual machine, a centralized management module running on datacenter management network. The binding module connects a virtual function of physical hardware interface card to the virtual machine and instructs the virtual device module to instantiate a virtual network device and a virtual storage device inside the virtual machine. The device binding module is in communication with the management module and receives updates from the management module and applies them to the virtual device in real time through the virtual device module. The management module ensures the consistent connectivity for an application in various virtualization platforms.
Abstract:
Methods and systems for numerically simulating structural behaviors of embedded bi-materials are disclosed. At least first and second grid models are created independently for an embedded bi-material that contains an immersed material embedded entirely within a base material. First group of meshfree nodes represents the entire domain (i.e., base plus immersed materials). Second group of meshfree nodes represents the immersed or embedded material, which includes all interface nodes and nodes located within a space bordered by the material interface. Numerical structural behaviors of the embedded bi-material are simulated using the first and second set of meshfree nodes with a meshfree method that combines two meshfree approximations. The first meshfree approximation covers the first set of meshfree nodes and is based on properties of the base material, while the second meshfree approximation covers the second set of meshfree nodes and is based on a differential between the immersed and base materials.