Abstract: A method of eliminating arc flash in a motor control center is disclosed. The method includes sensing an arc flash corresponding to the motor control center. In response to sensing the arc flash, and subsequent to a delay, determining whether the arc flash continues, and in response to determining that the arc flash continues, triggering an arc crowbar.

Abstract: A control logic detects voltage regulator failure in a power supply. The control logic comprises first and second lines configured for respective connection to a controller node and a phase node of a voltage regulator, a delay element coupled to the first line configured to delay signals at the controller node into alignment with signals at the phase node, and a level detector coupled to the second line configured to convert the signals at the phase node into at least two digital representations indicative of respective signal thresholds. A logic compares timing of the delayed signals with the digital representations and detects occurrence of a voltage regulator fault based on the timing comparison.

Abstract: A motor lock detection circuit for detecting lock of a motor, comprising: a binarizing circuit to binarize a signal, obtained from the motor, having a frequency corresponding to rotation speed of the motor, to generate a binary signal; an edge detecting circuit to generate an edge detection signal when detecting an edge of the binary signal; a first counter to count based on a first counter clock, be reset according to the edge detection signal generated by the edge detecting circuit, and generate a count signal when counting for a first count period longer than an interval between edges of the binary signal; and a second counter to count based on a second counter clock, be reset according to the count signal, and generate a motor lock detection signal indicative of detection of lock of the motor when counting for a second count period longer than the first count period.

Abstract: A ground detection apparatus for use in a power generating system including an excitation circuit and a driven rotatable shaft. A ground detector ring is disposed on the rotatable shaft of the power generating system. A ground detection transmitter is mounted on the ground detector ring and in electrical communication with the excitation circuit of the power generating system. The ground detection transmitter is utilized to detect ground faults in the excitation circuit of the power generating system and to send a signal associated with ground faults detected by the ground detection transmitter. A ground detection receiver is associated with a stationary portion of the power generation system and is in communication with the ground detection transmitter for receiving the signal associated with ground faults detected and sent by the ground detection transmitter.

Abstract: A circuit tests the health of a ground-neutral transformer within a ground fault circuit interrupter. This test can include testing both the ground-to-neutral detection circuitry and the differential current detection circuitry. The test circuit provides a conductive path through the respective cores of a differential transformer and the ground-neutral transformer of the GFCI device. A closed loop induces current from the differential transformer, which creates a current imbalance through the differential transformer. In a properly working device, the circuit breaker will trip, confirming the health of the ground-neutral transformer portion of the GFCI.

Abstract: A peak voltage protection circuit for protecting an associated High Voltage NPN transistor (T3) against breakdown, the protection circuit comprising a Low Voltage NPN element (T15) for sensing a sensor voltage related to a base-collector voltage of the associated High Voltage NPN transistor (T3). The circuit further comprises an activation circuit for limiting the base-collector voltage of the associated High Voltage NPN transistor (T3) upon triggering. The Low Voltage NPN element (15) is coupled to the activation circuit for triggering it upon the sensor voltage exceeding a breakdown voltage of the Low Voltage NPN transistor (T15).

Abstract: An arc crowbar with electrodes separated by a gap in a protective case. Each electrode is connected to an electrically different conductor of a circuit. A sensor detects an arc flash condition on the circuit and signals a trigger circuit to send an electrical pulse to an arc-triggering device in the arc crowbar gap. The triggering device ionizes a portion of the gas between the electrodes, initiating a protective arc between the electrodes that absorbs energy from the power circuit and trips a breaker, eliminating the arc flash condition. The triggering device may be a plasma gun, especially one that injects plasma of an ablated material into the gap. The sensor may signal a circuit breaker to open in the power circuit. Arc flash sensor types may include a differential current sensor and/or an optical sensor.

Abstract: A clamping scheme using dual sensing detection, which can sense and differentiate (in the extreme) between a high voltage level and fast (enough) slope (indicative of ESD), and low voltage level and slow slope (indicative of normal operation) and/or low voltage level and fast slope (indicative of hot insertion). It can also generate a locking scheme to ensure proper discharging only if the level is above high level and fast slope. It can also operate the clamping for a short time only if the level is below the high level but above the low level, and of sufficient slope.

Abstract: The present invention is an electrostatic discharge protection device having a low trigger voltage. The device can utilize a process of manufacturing a PCB to minimize costs and manufacturing time. The device comprises: a discharge area, which is essentially a space within the device and can be filled by a material having a desired breakdown voltage, and at least two electrode areas, wherein the two electrode areas are substantially electrically isolated from each other and simultaneously adjacent to or within the discharge area. When an electric potential difference between the electrode areas exceeds a predetermined value, a conductive path between the electrode areas will be created by discharging through the discharge area. The device is characterized in that each of the two electrodes is a part of a conductive plate, and the two conductive plates become a part of the device by pressing or adhering so that a gap for electric isolation exists between the two electrode areas.

Abstract: A semiconductor device includes a pad; an internal circuit; a protection FET that has a drain connected to the pad, and a source connected to a reference potential; a first resistive element that is connected between the drain of the protection FET and the internal circuit, and has a larger resistance value than the value of the series resistance between the drain of the protection FET and the pad; a capacitive element that is connected between the pad and the gate of the protection FET; and a second resistive element that is connected between the gate of the protection FET and the source of the protection FET.

Abstract: The present invention relates to methods for providing impedance protection differentiating between in-zone and out-of-zone faults based on instantaneous, digitally derived operating and polarizing, distance comparator signals. The method uses a pair of fast orthogonal filters to derive D and Q components of the input voltages and currents. Two sets of operating and polarizing signals are derived for better speed of response under varying fault moment with respect to the peaks and zero crossings of power signals. Three stages of comparison between the operating and polarizing impedance terms are used. These comparator stages use half a cycle averaging windows, and three-quarters-of-a-cycle windows. The first stage of comparison is based on energy comparator responding to both magnitude and phase information in the signals. Stages 2 and 3 are of phase comparison type, responding mostly at the phase information and neglecting the magnitude information for better immunity to noise and signal distortions.

Abstract: A protection circuit for a primary battery pack provides the battery pack with reverse charge protection. The protection circuit features a metal oxide semiconductor field effect transistor (MOSFET) with a steady state source to drain voltage. The source to drain voltage is controlled through a feedback loop that includes an operational amplifier. The MOSFET is configured in series with one or more battery cells allowing current to flow from the cells and preventing current from flowing to the cells. The MOSFET provides reverse charge protection with a small forward voltage drop and a small reverse charge leakage current.

Abstract: An overvoltage protection circuit for protecting a pass element in a controlled voltage supply circuit electrically connected between a circuit power supply interconnection terminal region suited for electrical connection to a circuit power supply and an output terminal, the pass element being protected from voltage surges that may occur on the circuit power supply interconnection with respect to a voltage reference interconnection. A voltage reference is provided electrically connected in series with a voltage. The voltage divider and the voltage reference are connected in series with one another between the circuit power supply interconnection and the voltage reference interconnection. A threshold switch is electrically connected to a corresponding one of the voltage divider output and one of the voltage divider terminating regions terminating regions, and has an output coupled to the pass element control region.

Abstract: A semiconductor device of the present invention includes: a power input terminal; an internal power supply circuit that converts a voltage supplied from the outside to the power input terminal into a predetermined voltage; an analog circuit connected to an output side of the internal power supply circuit; an internal power output terminal connected to the output side of the internal power supply circuit; a logic circuit power input terminal; a logic circuit connected to the logic circuit power input terminal; and interterminal wiring connecting the internal power output terminal to the logic circuit power input terminal. The internal power supply circuit has a configuration of supplying power to the analog circuit and the logic circuit, and in a package assembly (finished product), a resting current in the logic circuit can be inspected without being influence by a consumption current in the analog circuit.

Abstract: A protection device for monitoring current in a power cable to an electrical device and for controlling a remotely located starter for the electrical device in response to a system controller. The device includes a transformer magnetically linked with the power cable to produce a voltage signal in response to the presence of a changing current within the power cable. An input circuit located in a single housing together with the transformer is electrically connected to the transformer so as to receive the voltage signal. The input circuit produces, in response to the voltage signal, either a first signal or a first circuit condition at the output terminal of the input circuit, representative of the changing current in the power cable. A switch circuit also in the same container with the transformer has a terminal for sensing either a second signal or a second circuit condition of the remotely located system controller.

Abstract: Disclosed is an overload protection delay circuit for use in a switching power supply for enabling the switching power supply to detect overload problems with high accuracy. The overload protection delay circuit is connected between a photo coupler and a pulse-width modulator of the switching power supply, and is consisted of an energy storage device such as a capacitor and a charging controller such as a zener diode. The charging controller is configured to set a limit value for allowing the energy storage device to be charged by an internal current source of the pulse-width modulator when the feedback signal of the switching power supply reaches the limit value. By charging the energy storage device, a time delay is added to the feedback signal so that the pulse-width modulator can accurately activate the internal overload protection mechanism without the interference of load transients.

Abstract: A protection device includes a connecting portion, power supply means, temperature detection means, temperature determination means, and prohibition means. The connecting portion is configured to be coupled with an external device for sending and receiving information with the external device. The power supply means supplies electric power to the external device through the connecting portion. The temperature detection means detects temperature in a vehicle compartment, and the temperature determination means determines whether the detected temperature is within a predetermined temperature limit. The prohibition means stops the power to the external device when the temperature determination means determines that the detected temperature is out of the predetermined temperature limit.

Abstract: A power supply controller having final test and trim circuitry. In one embodiment, a power supply controller for switched mode power supply includes a selector circuit, a trim circuit, a shutdown circuit and a disable circuit. The trim circuit includes a programmable circuit connection that can be selected by the selector circuit by toggling a voltage on an external terminal such as for example a power supply terminal, a control terminal or a function terminal of the power supply controller. The programmable circuit connection in the trim circuit can be programmed by applying a programming voltage to the external terminal. The shutdown circuit shuts down the power supply controller if the temperature rises above an over temperature threshold voltage. The shutdown circuit includes adjustment circuitry that can be used to test the shutdown circuit. The adjustment circuitry can adjust and reduce the over temperature threshold of the power supply controller.

Abstract: Disclosed is a chip scale gas discharge protective device whose metal coupled electrodes are fabricated through processes of yellow light, image formation, and electro-casting of metal electrode, and the two electrodes are facing each other in arch lines with the distance of a gap controlled within the range of 0.5˜10 ?m, wherein the entire structure is performed by a bridge process without an extra gas filling procedure in the gap. Due to the fact that the gap is as small as only several ?m, a relevant potential difference existing across there is sufficient to ionize the air thereby suppressing the electro-static discharge (ESD) through the protected electronic device, whereas the fabrication method is disclosed.

Abstract: In a method for drive controlling a micro machine device including two electrodes opposing each other and a dielectric layer sandwiched therebetween, a control voltage in a rectangular waveform in which positive and negative polarities are alternately inverted is applied between the two electrodes. A current passing through the micro machine device due to the application of the control voltage are detected with respect to positive and negative sides, and parameters related to a capacitance of the micro machine device are acquired with respect to the positive and negative sides on the basis of the detected current. The control voltage is controlled so that the parameters acquired with respect to the positive and negative sides accord with each other. Thus, variation of the capacitance between the positive side and the negative side can be suppressed in switching drive of a variable capacitance device.

Abstract: A method for operating an electromagnetic lift that includes a generator-driven electromagnet comprises adjusting a position of the electromagnet, in response to a first position command. Upon receiving a lift command, an output power level of a generator is established at a predetermined level above a predefined normal power level. In response to an excess release command, the output power level is set to a first predetermined level below the normal power level. In response to a transport command, the output power level is established as approximately the normal power level. Upon receiving a release command, the output power level is established at a second predetermined level below the normal power level.

Abstract: An active matrix device or a flat panel display, includes a substrate, a scan line and a data line, a pixel, an electrostatic discharge ring, a first diode, a second diode, a third diode and a forth diode. The anodes of the first diode and the fourth diode are coupled to the scan line, and the cathodes of the first diode and the fourth diode are coupled to the electrostatic discharge ring. The anodes of the second diode and the third diode are coupled to the electrostatic discharge ring, and the cathodes of the second diode and the third diode are coupled to the scan line.

Abstract: Electrostatic clamping devices and methods for reducing contamination to a workpiece coupled to an electrostatic clamping device are disclosed. According to an embodiment an electrostatic clamping device for coupling a workpiece comprises: an embossment portion on a surface of a body to contact the workpiece; and at least two electrodes within the body; wherein the two electrodes are separated by a separation portion below the embossment portion.

Abstract: A high voltage generator circuit is provided. The high voltage generator circuit can generate a high voltage suitable for use with an igniter. While generating the required high voltage, the circuit results in a significantly reduced amount of electrical noise such that the disruption of adjacent, sensitive circuitry is minimized. More specifically, the circuit periodically generates a high voltage on an inductor and causes the high voltage generated to incrementally charge up and build up the voltage on a capacitor connected to the inductor. The capacitor is isolated from the adjacent, sensitive circuitry by way of a relay. Also, to minimize the number of components and complexity of the high voltage generator circuit, the inductor which is used to generate the high voltage is the inductor located within the relay, which is also used to switch the contacts of the relay.

Abstract: A multilayer capacitor array comprises a capacitor body having rectangular first and second main faces opposing each other. In the capacitor body having a dielectric characteristic, first inner electrodes are arranged in a first region, second inner electrodes are arranged in a second region, and third and fourth inner electrodes are arranged so as to extend over the first and second regions. Each of the third inner electrodes opposes at least one of the first inner electrodes and at least one of the second inner electrodes. Each of the fourth inner electrodes opposes at least one of the first inner electrodes and at least one of the second inner electrodes. The third inner electrodes are adjacent to the fourth inner electrodes, respectively.

Abstract: A method for manufacturing a laminated ceramic capacitor includes a step of preparing a laminate which has a first principal surface, a second principal surface, a first end surface, a second end surface, a first side surface, and a second side surface and which includes insulating layers and internal electrodes having end portions exposed at the first or second end surface; a step of forming external electrodes on the first and second end surfaces such that plating deposits are formed on the exposed end portions of the internal electrodes so as to be connected to each other; and a step of forming thick end electrodes electrically connected to the external electrodes such that a conductive paste is applied onto edge portions of the first and second principal surfaces and first and second side surfaces of the laminate and then baked.

Abstract: A method is for fabricating an integrated circuit formed from a substrate and including several metallic interconnection levels in which, in a same plane parallel to the main plane of the substrate, is a plurality of thick horizontal metallic interconnection lines, as well as one or several MIM capacitors fitted with metallic electrodes that are orthogonal to the main plane of the substrate.

Abstract: The capacitor structure includes a first electrode having a plurality of teeth protruding in a comb shape from an electrode base of a first electrode line and a second electrode having a plurality of teeth protruding in a comb shape from an electrode base of a second electrode line, both formed in a first wiring layer. The first and second electrodes face each other with their teeth interdigitated with each other via a dielectric. At least one of the teeth of the first electrode is electrically connected with a third electrode line formed in a second wiring layer.

Abstract: Devices and methods for their formation, including electronic devices containing capacitors, are described. In one embodiment, a device includes a substrate and a capacitor is formed on the substrate. The capacitor includes first and second electrodes and a capacitor dielectric between the first and second electrodes. At least one of the first and second electrodes includes a metal layer having carbon nanotubes coupled thereto. In one aspect of certain embodiments, the carbon nanotubes are at least partially coated with an electrically conductive material. In another aspect of certain embodiments, the substrate comprises an organic substrate and the capacitor dielectric comprises a polymer material. Other embodiments are described and claimed.

Abstract: A capacitor with a multiplicity of first plates and second plates in parallel relationship wherein the first plates terminate at a first face and the second plates terminate at a second face. A dielectric is between the first plates and the second plates. A first external termination is in electrical contact with the first plates and a second external termination is in electrical contact with the second plates. A first lead terminal is in electrical contact with the first external termination and the first lead terminal has a first foot below the first external termination and a first solder stop coated on the first foot between the first foot and the first external termination. A second lead terminal is in electrical contact with the second external termination wherein the second lead terminal comprises a second foot below the second external termination and a second solder stop is coated on the second foot between the second foot and the second external termination.

Abstract: The present invention relates to a wiring structure for reducing the equivalent series inductance (ESL) of a laminated capacitor. The laminated capacitor comprises a number of conductive layers, a power via extending along a thickness direction of the laminated capacitor and arranged to extend from the top conductive layer to the bottom conductive layer, and a ground via extending along the thickness direction of the laminated capacitor and arranged to extend from the top conductive layer to the bottom conductive layer. The conductive layers include a set of first conductive layers and a set of second conductive layers. The power via is electrically coupled to the first conductive layers and the ground via is electrically coupled to the second conductive layers. The laminated capacitor further comprises a supplemental via between the power via and the ground via. The supplemental via is shorter in length than the power via and the ground via.

Abstract: A multilayer capacitor array comprises a capacitor body having rectangular first and second main faces opposing each other. In the capacitor body having a dielectric characteristic, a first electrode group including first and second inner electrodes and a second electrode group including third and fourth inner electrodes are arranged in a row. The first and third inner electrodes are arranged in contact with a reference plane parallel to the opposing direction of the first and second main faces between the first electrode group and second electrode group. The second and fourth inner electrodes are arranged such as to be separated from the reference plane by a predetermined distance.

Abstract: A capacitor body of a multilayer feedthrough capacitor is arranged with grounding inner electrodes and signal inner electrodes. The grounding inner electrodes include first and second grounding main electrode portions, grounding connection electrode portions having no areas opposing the signal inner electrodes, and first and second grounding lead electrode portions. The signal inner electrodes include first and second signal main electrode portions, signal connection electrode portions having no areas opposing the grounding inner electrodes, and first and second signal lead electrode portions.

Abstract: A method for manufacturing an electronic component on a semiconductor substrate, including forming at least one opening in the substrate; forming in the bottom and on the walls of the opening and on the substrate an alternated succession of layers of a first material and of a second material, the second material being selectively etchable with respect to the first material and the substrate; trimming the layer portions of the first material and of the second material which are not located in the opening; selectively etching a portion of the first material to obtain trenches; and filling the trenches with at least one third material.

Abstract: This electronic component comprises a substrate; and a capacitor part provided on the substrate, the capacitor part includes a first electrode part provided on the substrate; a dielectric film covering the first electrode part; an insulating film that contacts the dielectric film and has an opening part; and a second electrode part that contacts an inner wall surface of the opening part of the insulating film and a surface of the dielectric film, and when the angle between a first interface between the dielectric film and the insulating film, and a second interface between the insulating film and the second electrode part is ?, ? is not more than 22°.

Abstract: A ceramic dielectric composition suitable for preparing capacitors for use in high-temperature service conditions is disclosed. The ceramic material and capacitors made from it exhibit unique and heretofore unrealizable properties including low variation in capacitance with voltage up to high fields, low variation in capacitance with temperature over a broad temperature range, retained high permittivity at temperatures up to 200° C. and beyond, low loss, low field-induced strain and adequate capacitance to retain performance at very low service temperatures. The material is based on sodium bismuth titanate (NBT) with selected additions of substituents and dopants to broaden and flatten its dielectric response, lower loss, lower strain, lower voltage coefficient and increase resistivity.

Abstract: A protection device for an assembled battery includes a sampling unit which individually samples voltages of batteries of the assembled battery to generate sampled voltages, a holding unit which holds the sampled voltages to generate a plurality of holding voltages, a multiplexer which sequentially reads the holding voltages and outputs each voltage to a common output node, a measuring unit configured to measure the individual voltages and the state of charges of the batteries based on a voltage of the node in a measuring period within a constant measuring cycle, and a control unit configured to turn on/off the sample switches at the same time within the measuring period and repeatedly turn on/off at least one sample switch selected from the plurality of sample switches in accordance with the state of charge in a term other than the measuring period.

Abstract: A method and structure for reducing cracks in a dielectric in contact with a metal structure. The metal structure comprises a first metal layer; a second metal layer disposed on, and in contact with the first metal layer, the second metal layer being stiffer than the first metal layer; a third metal layer disposed on, and in contact with the second metal layer, the second metal layer being stiffer than the third metal layer. An additional metal is included wherein the dielectric layer is disposed between the metal structure and the additional metal.

Abstract: The present invention provides an electrolytic capacitor having a large electrostatic capacity. In the solid electrolytic capacitor, a capacitor element provided with; an anode in which a part of an anode lead is embedded in the inside of an outer package made of an epoxy resin or the like; an oxide layer containing niobium oxide formed on the anode; and a cathode formed on the oxide layer; is embedded. The anode lead is composed of a niobium alloy containing at least one of vanadium and zirconium, and its one end is embedded in the anode composed of a porous sintered body of metal particles containing niobium, and the other end is connected to an anode terminal. The cathode is composed of a conductive polymer layer such as polypyrrole, a first conductive layer containing carbon particles, and a second conductive layer containing silver particles, and one end of a cathode terminal is connected to the cathode via a third conductive layer containing silver particles.

Abstract: The solid electrolytic capacitor includes an anode body formed of a sintered body consisting of metal particles; a dielectric layer provided on the top surface of the anode body; and a conducting polymer layer provided on the top surface of the dielectric layer. The anode body includes a first anode portion and a second anode portion which is provided in a way that the second anode portion covers the first anode portion, and in that the particle diameter of metal particles for the second anode portion is smaller than that of metal particles for the first anode portion.

Abstract: An electronic equipment apparatus is provided. The electronic equipment apparatus includes an enclosure for holding electronic equipment. The electronic equipment apparatus also includes a hinged pivot mount, wherein the enclosure is rotatably coupled to the hinged pivot mount.

Abstract: A housing mechanism (100) includes a body (10). A hook (14) is formed on the body. The body has a receiving portion (12) defined therein and correspondingly has a first wall (1222) and a second wall (1224, 1242, 1244). The hook has a hook body (142) and at least one arm (144). The hook body extends from the first wall, towards the second wall, and above the receiving portion. The at least one arm extends from the hook body and above the receiving portion. There is a first space between the hook body and the second wall. There is a second space between the at least one arm and the second wall. The receiving portion and the hook together are able to receive a line to allow, e.g., decorative items to be hung upon the body.

Abstract: A flat panel display device is provided which is capable of reliably inhibiting the surface temperature of a relevant portion of the casing of the flat panel display device from rising too much while efficiently cooling the inside of the casing. The flat panel display device (100) of the invention includes: a flat display panel (11); a front cover (15) having an opening matching a display surface of the flat display panel (11); and a casing (18) having a first casing section (20) and a second casing section (21) and covering a rear side of the flat display panel (11), the first casing section (20) having a lower thermal conductivity than the second casing section (21), extending upwardly from the second casing section (21), and being provided with a vent hole.

Abstract: A notebook computer hinge has a screen tab, a main tab, a pintle for connecting the screen tab with the main tab pivotally. A support tab has a hole for the pintle. A longitudinal hole is defined through the support tab and is engaged with a connecting piece on the screen tab. A first stop is C-shaped is formed on the pintle between the support tab and the main tab and has a gap. The support tab has a second stop formed on the support tab and engaged with the gap. Thus the screen is limited to pivot in a specific angular extent.

Abstract: A housing assembly (100), used, e.g., in a mobile electronic device (300), includes a housing body (10) and a display unit (20). The housing body defines a display opening (110). The display unit contains electronic ink. The display unit is received in the display opening and is configured for providing information and/or graphics. The housing body moldingly receives the display lens therein, via an injection molding process.

Abstract: A display device includes a display panel includes an organic light emitting diode (OLED), an encapsulation member covering the display panel, a first sealant disposed between the display panel and the encapsulation member and surrounding the organic light emitting diode, and a second sealant disposed between the first sealant and the organic light emitting diode and surrounding the organic light emitting diode.

Abstract: There is provided a display device stand that allows a TV conference to be held in a limited space, such as a small room, in a satisfactory manner. A display device stand 1 for supporting a display device 30 includes a base 2, a column 12 standing on the base 2, and angular adjustment member 20 provided at the top of the column 12. The rear side of the display device 30 is connected to the angular adjustment member 20 and the display device 30 can be angularly adjusted between the position where the display screen of the display device 30 is oriented upward and the position where the display screen of the display device 30 is oriented horizontally. The angular adjustment member 20 is a hinge 20 having two blades that can swing with respect to each other.

Abstract: A display apparatus displaying video input through various ports is provided. The display apparatus includes a board which is disposed behind a display module, wherein the board includes a universal serial bus (USB) port which receives a USB standard signal, a decoder which decodes a video signal from the USB standard signal and outputs a decoded signal, a video output unit which outputs a displayable video signal to the display module corresponding to the video signal, wherein the USB port is disposed at an edge of a first side of the board, and the video output unit is disposed at an edge of a second side which is different from the first side of the board. The video output unit receives video from an external apparatus such as a computer through a USB port in addition to a DVI port and D-SUB port, and displays the received video. Display apparatuses having additional ports than the DVI ports and D-SUB ports may be connected to a computer without requiring additional hardware.

Abstract: A support device for a display unit is provided, in which supports for supporting the display unit are hidden so as to improve the beauty of a room, and a display unit having the same. The support device includes at least one support connected to the display unit; a base connected to the lower part of the support; and a transparent member installed in front of the support, wherein the transparent member includes at least one refractively transmitting portion for refracting light, incident from the front of the transparent member to the support, toward external regions of the support.

Abstract: According to one embodiment, an electronic apparatus includes a first housing to which a mounting component is attached, a second housing containing the display, and a hinge portion which rotatably connects the second housing to the first housing. A method of manufacturing the electronic apparatus includes preparing a subassembly product formed by connecting a cover member, which is to form part of the first housing and to which the mounting component is to be mounted, with a mask member, which is to form part of the second housing and is provided with an opening portion to expose a display screen of the display to outside, by the hinge portion, and mounting the mounting component on the cover member through the opening portion of the mask member, in a state where the subassembly product is folded such that the mask member is superposed on the cover member.