mhurhangee/ep-ind-claims huggingface dataset:
A connection mechanism, for connecting a first component and a second component, comprising a gripping part, a connection part, and a fixing part, wherein the gripping part has a first connection portion and a second connection portion, a pair of first through holes (13a, 13b) are disposed symmetrically on the first connection portion, and a through slot (18a, 18b) is disposed symmetrically between the first connection portion and the second connection portion; the connection part has a free end and a fixing end, and the free end passes through the first through holes (13a, 13b), so as to limit a radial movement of the connection part; and the fixing part passes through the through slot (18a, 18b), one end of the fixing part is fixed on the gripping part, and the other end of the fixing part is used to limit an axial movement of the connection part.
A Thin Film Transistor array substrate for liquid crystal display, comprising: a substrate; a common electrode layer arranged on the substrate; a first insulating layer arranged on the common electrode layer; an array of pixel electrodes arranged on the first insulating layer; a plurality of via holes are formed in the first insulating layer between at least some of adjacent pixel electrodes; and a plurality of common electrode lines are formed between at least some of rows and/or columns of pixel electrodes and electrically connected in parallel with the common electrode layer below the first insulating layer through the via holes; characterized in that the common electrode lines and the pixel electrodes are located in the same layer; and in that the TFT array substrate further comprising a metal layer or an alloy layer in direct contact with the common electrode lines to lower the resistance of the common electrode layer. a substrate; a common electrode layer arranged on the substrate; a first insulating layer arranged on the common electrode layer; an array of pixel electrodes arranged on the first insulating layer; a plurality of via holes are formed in the first insulating layer between at least some of adjacent pixel electrodes; and a plurality of common electrode lines are formed between at least some of rows and/or columns of pixel electrodes and electrically connected in parallel with the common electrode layer below the first insulating layer through the via holes; characterized in that the common electrode lines and the pixel electrodes are located in the same layer; and in that the TFT array substrate further comprising a metal layer or an alloy layer in direct contact with the common electrode lines to lower the resistance of the common electrode layer.
A vehicle notification sound emitting apparatus comprising: a sound emitting device configured to emit a movement notification sound to outside of a vehicle to inform a person in an area surrounding the vehicle that the vehicle is moving at a low speed; and a notification sound control device configured to operate the sound emitting device to selectively emit the movement notification sound, characterized in that the notification sound control device includes a notification sound prohibiting section configured to prohibit an emission of the movement notification sound by the sound emitting device in response to a manual operation performed by a driver, and a prohibition cancelling section (step S54) configured to automatically cancel a notification sound emission prohibition imposed by the notification sound prohibiting section in response to the manual operation upon a vehicle speed of the vehicle exceeding a prescribed vehicle speed and/or based on position information of the vehicle. a sound emitting device configured to emit a movement notification sound to outside of a vehicle to inform a person in an area surrounding the vehicle that the vehicle is moving at a low speed; and a notification sound control device configured to operate the sound emitting device to selectively emit the movement notification sound, characterized in that the notification sound control device includes a notification sound prohibiting section configured to prohibit an emission of the movement notification sound by the sound emitting device in response to a manual operation performed by a driver, and a prohibition cancelling section (step S54) configured to automatically cancel a notification sound emission prohibition imposed by the notification sound prohibiting section in response to the manual operation upon a vehicle speed of the vehicle exceeding a prescribed vehicle speed and/or based on position information of the vehicle.
Fixing strip, to be fastened on the roof surface of a flat roof, for fixing a piece of roof covering which is to be applied to the roof surface and which is provided on its bottom side with first connecting means, wherein the fixing strip comprises a substrate and a layer of second connecting means, wherein said first and second connecting means (3a, 10) are of the hook-and-loop type, characterized in that the fixing strip is provided with a number of clamping plates, which are fitted at equal distances apart and which, by means of at least one screw extending through the clamping plate and through the fixing strip, are each connectable to the underlying roof structure of the flat roof, wherein the clamping plate is provided on its bottom side with a layer of said first connecting means which is designed to act on the layer of second connecting means of the fixing strip.
A building structure for enclosing a room, comprising: - a base body, which is reinforced by steel reinforcements, for constructing a spatial boundary; - an air-conditioning system arranged in the base body for heating and/or cooling the room to be enclosed; - at least one thermal insulation element (06; 16-19; 21; 31-34; 36; 37; 72; 84) arranged inside the base body, wherein the air-conditioning system is arranged between the thermal insulation element (06; 16-19; 21; 31-34; 36; 37; 72; 84) and the room to be enclosed; and - an acoustic body (08; 09; 11; 22-24; 26; 27; 39; 41-44; 46; 51-53; 76; 81) made up of an acoustic material, which reduces the reverberation time in the room to be enclosed, wherein the acoustic body is introduced into a recess in the base body; wherein the heat insulation element (06; 16-19; 21; 31-34; 36; 37; 72; 84) is acoustically effective by means of the acoustic body (08; 09; 11; 22-24; 26; 27; 39; 41-44; 46; 51-53; 76; 81) with respect to the room to be enclosed. - a base body, which is reinforced by steel reinforcements, for constructing a spatial boundary; - an air-conditioning system arranged in the base body for heating and/or cooling the room to be enclosed; - at least one thermal insulation element (06; 16-19; 21; 31-34; 36; 37; 72; 84) arranged inside the base body, wherein the air-conditioning system is arranged between the thermal insulation element (06; 16-19; 21; 31-34; 36; 37; 72; 84) and the room to be enclosed; and - an acoustic body (08; 09; 11; 22-24; 26; 27; 39; 41-44; 46; 51-53; 76; 81) made up of an acoustic material, which reduces the reverberation time in the room to be enclosed, wherein the acoustic body is introduced into a recess in the base body;
A method of transmitting Uplink Control Information, UCI, through a Physical Uplink Control Channel, PUCCH, by a user equipment in a wireless communication, the method comprising: based on a size of the UCI being less than or equal to a threshold number of bits, and based on the PUCCH being a one-symbol PUCCH: generating a first Zadoff-Chu, ZC, sequence to carry the UCI in one symbol, configuring the one-symbol PUCCH using the first ZC sequence in the one symbol based on sequence-based selection; based on the size of the UCI being less than or equal to the threshold number of bits, and based on the PUCCH being a two-symbol PUCCH: generating a second ZC sequence to carry the UCI in each of two symbols, configuring the two-symbol PUCCH using the second ZC sequence in the each of two symbols based on sequence-based selection; and transmitting the UCI through the PUCCH. based on a size of the UCI being less than or equal to a threshold number of bits, and based on the PUCCH being a one-symbol PUCCH: generating a first Zadoff-Chu, ZC, sequence to carry the UCI in one symbol, configuring the one-symbol PUCCH using the first ZC sequence in the one symbol based on sequence-based selection; generating a first Zadoff-Chu, ZC, sequence to carry the UCI in one symbol, configuring the one-symbol PUCCH using the first ZC sequence in the one symbol based on sequence-based selection; based on the size of the UCI being less than or equal to the threshold number of bits, and based on the PUCCH being a two-symbol PUCCH: generating a second ZC sequence to carry the UCI in each of two symbols, configuring the two-symbol PUCCH using the second ZC sequence in the each of two symbols based on sequence-based selection; and transmitting the UCI through the PUCCH. generating a second ZC sequence to carry the UCI in each of two symbols, configuring the two-symbol PUCCH using the second ZC sequence in the each of two symbols based on sequence-based selection; and transmitting the UCI through the PUCCH.
A method of controlling an apparatus based on analysis of an input power waveform supplied to the apparatus, comprising: demodulating a plurality of incoming data packets from the input power waveform; determining whether N data packets of said plurality of incoming data packets are the same, wherein N is a positive integer having a dynamic value that depends on the input power waveform; and controlling at least one aspect of the apparatus based on said N data packets if said N data packets were determined to be the same; wherein said apparatus comprises a lighting fixture, wherein said N data packets pertain to a dimming command, and wherein a dimming level of said lighting fixture is controlled based on said dimming command. demodulating a plurality of incoming data packets from the input power waveform; determining whether N data packets of said plurality of incoming data packets are the same, wherein N is a positive integer having a dynamic value that depends on the input power waveform; and controlling at least one aspect of the apparatus based on said N data packets if said N data packets were determined to be the same; wherein said apparatus comprises a lighting fixture, wherein said N data packets pertain to a dimming command, and wherein a dimming level of said lighting fixture is controlled based on said dimming command.
Switching device (100, 200) for switching a hydraulic flow of a concrete pump, having a first connection component (110, 210) for connection to a hydraulic pump, having a second connection component (120, 220) for connection to a drive cylinder (25, 35), and having a distribution unit (130, 230) which is arranged between the first and second connection components (110, 210, 120, 220), wherein the first connection component (110, 210) has two fluid guides (111a, 111b, 211a, 211b) and the second connection component (120, 220) has a first fluid-guide pair (121a, 121b, 221a, 221b) and a second fluid-guide pair (123a, 123b, 223a, 223b), and the distribution unit (130, 230) can be transferred reversibly between a first position, in which the fluid guides (111a, 111b, 211a, 211b) of the first connection component (110, 210) are connected fluidically to the first fluid-guide pair (121a, 121b, 221a, 221b) of the second connection component (120, 220), and a second position, in which the fluid guides (111a, 111b, 211a, 211b) of the first connection component (110, 210) are connected fluidically to the second fluid-guide pair (123a, 123b, 223a, 223b) of the second connection component (120, 220), characterized in that the distribution unit (130, 230) is connected in a leak-tight manner to the first and second connection components (110, 120, 210, 220), and in that the first and second connection components (110, 120, 210, 220) are connected to one another via at least one releasable fastening means (140, 240). wherein the first connection component (110, 210) has two fluid guides (111a, 111b, 211a, 211b) and the second connection component (120, 220) has a first fluid-guide pair (121a, 121b, 221a, 221b) and a second fluid-guide pair (123a, 123b, 223a, 223b), and the distribution unit (130, 230) can be transferred reversibly between a first position, in which the fluid guides (111a, 111b, 211a, 211b) of the first connection component (110, 210) are connected fluidically to the first fluid-guide pair (121a, 121b, 221a, 221b) of the second connection component (120, 220), and a second position, in which the fluid guides (111a, 111b, 211a, 211b) of the first connection component (110, 210) are connected fluidically to the second fluid-guide pair (123a, 123b, 223a, 223b) of the second connection component (120, 220), characterized in that the distribution unit (130, 230) is connected in a leak-tight manner to the first and second connection components (110, 120, 210, 220), and in that the first and second connection components (110, 120, 210, 220) are connected to one another via at least one releasable fastening means (140, 240).
A system for providing connections that are based on a DSL standard, comprising: a fiber optic input line, via which optical signals are sent, a multiplicity of wired subscriber lines for the transmission of electrical signals, which are each assigned to a user, a multi-service access multiplexer, MSAN, into which the fiber optic input line and the subscriber lines feed, wherein the MSAN executes a transformation between the electrical and optical signals of a specific DSL standard, characterized by a splitter, which divides the input line into a multiplicity of split input fibers, wherein in each case an individual micro-MSAN intended for a specific DSL standard is connected between a single split input fiber and a single subscriber line, wherein the micro-MSAN has a micro controller, which effects a conversion between the electrical and the optical signals. a fiber optic input line, via which optical signals are sent, a multiplicity of wired subscriber lines for the transmission of electrical signals, which are each assigned to a user, a multi-service access multiplexer, MSAN, into which the fiber optic input line and the subscriber lines feed, wherein the MSAN executes a transformation between the electrical and optical signals of a specific DSL standard, characterized by a splitter, which divides the input line into a multiplicity of split input fibers, wherein in each case an individual micro-MSAN intended for a specific DSL standard is connected between a single split input fiber and a single subscriber line, wherein the micro-MSAN has a micro controller, which effects a conversion between the electrical and the optical signals.
A stacked all-solid-state battery comprising: a plurality of all-solid-state batteries, each of the all-solid-state batteries including a cathode layer that has a cathode current collector and a cathode active material layer containing at least a cathode active material and formed on the cathode current collector, an anode layer that has an anode current collector and an anode active material layer containing at least an anode active material and formed on the anode current collector, and a solid electrolyte layer disposed between the cathode active material layer and the anode active material layer and containing a solid electrolyte having at least a lithium ion conductivity, wherein the plurality of all-solid-state batteries are stacked, and the plurality of all-solid-state batteries include two adjacent all-solid-state batteries, the two adjacent all-solid-state batteries being configured such that the cathode current collector of one of the two adjacent all-solid-state batteries is directly joined to the anode current collector of the other one of the two adjacent all-solid-state batteries, and a void is present at a interface between the cathode current collector of the one of the two adjacent all-solid-state batteries and the anode current collector of the other one of the two adjacent all-solid-state batteries. a plurality of all-solid-state batteries, each of the all-solid-state batteries including a cathode layer that has a cathode current collector and a cathode active material layer containing at least a cathode active material and formed on the cathode current collector, an anode layer that has an anode current collector and an anode active material layer containing at least an anode active material and formed on the anode current collector, and a solid electrolyte layer disposed between the cathode active material layer and the anode active material layer and containing a solid electrolyte having at least a lithium ion conductivity, wherein the plurality of all-solid-state batteries are stacked, and the plurality of all-solid-state batteries include two adjacent all-solid-state batteries, the two adjacent all-solid-state batteries being configured such that the cathode current collector of one of the two adjacent all-solid-state batteries is directly joined to the anode current collector of the other one of the two adjacent all-solid-state batteries, and a void is present at a interface between the cathode current collector of the one of the two adjacent all-solid-state batteries and the anode current collector of the other one of the two adjacent all-solid-state batteries.
A method for detecting methylated DNA using qMSP (quantitative methylation specific PCR), comprising: (a) treating a target DNA-containing sample with at least one reagent which modifies a non-methylated DNA site to be distinguished from a methylated DNA site; (b) constructing a reverse primer, which comprises a target-specific sequence designed to be capable of binding complementarily to the target DNA treated with the reagent, and a universal primer that does not bind complementarily to the target DNA, and the universal primer is bound to the 5' end of the target-specific sequence; (c) performing one direction asymmetric linear amplification for methylated DNA by unidirectional PCR using, as a template, the target DNA treated with the reagent in step (a), and using, as a primer, the reverse primer constructed in step (b); (d) amplifying the target DNA using a forward primer, which is capable of binding complementarily to the DNA linearly amplified in step (c), and a universal primer that does not bind complementarily to the linearly amplified target DNA; and (e) detecting methylation of the target DNA by a probe capable of hybridizing complementarily to the target DNA sequence amplified in step (d). (a) treating a target DNA-containing sample with at least one reagent which modifies a non-methylated DNA site to be distinguished from a methylated DNA site; (b) constructing a reverse primer, which comprises a target-specific sequence designed to be capable of binding complementarily to the target DNA treated with the reagent, and a universal primer that does not bind complementarily to the target DNA, and the universal primer is bound to the 5' end of the target-specific sequence; (c) performing one direction asymmetric linear amplification for methylated DNA by unidirectional PCR using, as a template, the target DNA treated with the reagent in step (a), and using, as a primer, the reverse primer constructed in step (b); (d) amplifying the target DNA using a forward primer, which is capable of binding complementarily to the DNA linearly amplified in step (c), and a universal primer that does not bind complementarily to the linearly amplified target DNA; and (e) detecting methylation of the target DNA by a probe capable of hybridizing complementarily to the target DNA sequence amplified in step (d).
A liquid cooling device for cooling at least one semiconductor target component, the liquid cooling device comprising: a base member configured to be in thermal contact with the at least one target component to be cooled by the liquid cooling device, the base member including a lower surface placed in contact with the at least one target component, the base member defining in an upper surface of the base member a plurality of pockets spaced apart from one another; and a plurality of cover members connected to the base member, each cover member of the plurality of cover members being at least partially received in a corresponding pocket of the plurality of pockets, each cover member of the plurality of cover members having a fluid inlet and a fluid outlet, the cover members defining, together with the base member, a plurality of fluid conduits that are independent from one another, each fluid conduit being defined between a corresponding one of the cover members and the base member such that a number of the fluid conduits is equal to a number of the cover members, each fluid conduit being configured to respectively receive and discharge fluid through the fluid inlet and the fluid outlet of the corresponding one of the cover members, when the base member is mounted to the at least one target component, the at least one target component being aligned with at least two of the plurality of fluid conduits so as to be cooled thereby. a base member configured to be in thermal contact with the at least one target component to be cooled by the liquid cooling device, the base member including a lower surface placed in contact with the at least one target component, the base member defining in an upper surface of the base member a plurality of pockets spaced apart from one another; and a plurality of cover members connected to the base member, each cover member of the plurality of cover members being at least partially received in a corresponding pocket of the plurality of pockets, each cover member of the plurality of cover members having a fluid inlet and a fluid outlet, the cover members defining, together with the base member, a plurality of fluid conduits that are independent from one another, each fluid conduit being defined between a corresponding one of the cover members and the base member such that a number of the fluid conduits is equal to a number of the cover members, each fluid conduit being configured to respectively receive and discharge fluid through the fluid inlet and the fluid outlet of the corresponding one of the cover members, when the base member is mounted to the at least one target component, the at least one target component being aligned with at least two of the plurality of fluid conduits so as to be cooled thereby.
Surface modification treatment method employing electrical discharges, of which the parameters are chosen so as to minimize the removal of material and to counteract the phenomenon of localization, in which the discharges strike an intermediate space between a tool-electrode and a part-electrode filled with a dielectric liquid and eliminate therewith defects associated with the residual white layer produced during a finishing or semi-finishing operation by electrical discharge machining and to obtain, at the surface of part-electrode, a non-crystalline amorphous structure that replaces all or part of said produced white layer, said method being characterized by the use of two types of powder, the first type consisting of a powder having a particle mean diameter between 1 nanometre 1 micrometre which determines the appearance of the amorphous layer, the second type consisting of a powder having a mean diameter less than 50 micrometre and greater than 0.1 micrometre which guarantees the homogeneity of the surface modification treatment, the size distributions of the particles of the first and second types being different, and whereby the concentrations of powders of the first and second type in the dielectric liquid are situated between 0.1 g/l and 50 g/l in equivalent carbon volume, and whereby the electrical discharges are adjusted and/or controlled so as to promote the spontaneous extinction of the electrical discharge machining plasma, which is provoked by causes or conditions intrinsic to the plasma.