mhurhangee/ep-ind-claims huggingface dataset:
A reaction sintered silicon carbide member, characterized by comprising: a first member comprising reaction sintered silicon carbide; a second member comprising reaction sintered silicon carbide and having a first face, a second face at a side of the second member that is opposite to the first face side thereof, and a first end face connected to the first and second faces and; and a joining portion which joins the first and second members and to each other, characterised in that the joining portion comprises an intermediate region which joins the first member and the first end face to each other and comprises reaction sintered silicon carbide, and a first region which joins the first member, the first face and the intermediate region to one another and comprises reaction sintered silicon carbide. a first member comprising reaction sintered silicon carbide; a second member comprising reaction sintered silicon carbide and having a first face, a second face at a side of the second member that is opposite to the first face side thereof, and a first end face connected to the first and second faces and; and a joining portion which joins the first and second members and to each other, characterised in that the joining portion comprises an intermediate region which joins the first member and the first end face to each other and comprises reaction sintered silicon carbide, and a first region which joins the first member, the first face and the intermediate region to one another and comprises reaction sintered silicon carbide.
A stabilizer that is attached to a fixing member and slidably supports a slide member within the fixing member; equipped with the following: a housing (10,20) having an opening (13,23); a lever having a lever shaft part housed in the housing (10,20), a lever body part extending from the lever shaft part, a lever extension part curved from the lever body part, and a lever cam part extending in a direction opposite to the lever body part from the lever shaft part; and a sheet metal spring having a flat plate part fixed to the housing (10,20), and a curved surface part that is adjacent to the flat plate part and can be bent by contact with a lever contact part at a tip of the lever cam part; wherein the lever tip part of the lever extension part protrudes from the opening part (13,23) of the housing (10,20). a housing (10,20) having an opening (13,23); a lever having a lever shaft part housed in the housing (10,20), a lever body part extending from the lever shaft part, a lever extension part curved from the lever body part, and a lever cam part extending in a direction opposite to the lever body part from the lever shaft part; and a sheet metal spring having a flat plate part fixed to the housing (10,20), and a curved surface part that is adjacent to the flat plate part and can be bent by contact with a lever contact part at a tip of the lever cam part; wherein the lever tip part of the lever extension part protrudes from the opening part (13,23) of the housing (10,20).
A handle device of a locking unit of a vehicle, with a handle section, which is moveably mounted on a door of the vehicle, and can be moved between an inoperative position and an operative position, wherein in the inoperative position the handle section is arranged flush with the outer face of the door, and in the operative position protrudes from the outer face of the door in the form of a protuberance, wherein in the operative position the handle section can be manually operated for purposes of opening the door, and wherein an actuation unit is also provided, by means of which, with the activation of the actuation unit, the handle section can be translated at least from the inoperative position into the operative position, wherein the actuation unit has a faceplate that can be released from the actuation unit, and wherein a lock cylinder is provided, and is arranged in the handle device such that the lock cylinder can be exposed by the release of the faceplate.
A method of cancelling interference from a received signal having signal contributions from multiple users (102, 104, 106), the method comprising: partially decoding a first codeword obtained from the received signal and transmitted by a first user via a first signal; characterised in that the method comprises: reconstructing the first signal based on the partial decoding of the first codeword; scaling the reconstructed first signal as a function of whether a cyclic redundancy check value computed for the first signal checks or fails, wherein scaling comprises scaling down the reconstructed first signal if the cyclic redundancy check value computed for the first signal fails, and scaling up the reconstructed first signal if the cyclic redundancy check value computed for the first signal checks; cancelling the reconstructed first signal from the received signal to yield a reduced-interference signal; and at least partially decoding a second codeword obtained from the reduced-interference signal and transmitted by the first user or a second user via the second signal; wherein partially decoding the first codeword comprises: treating one or more unavailable coded bits of the first codeword as punctured bits; and decoding the first codeword based on the one or more punctured coded bits and estimates of the remaining coded bits. reconstructing the first signal based on the partial decoding of the first codeword; scaling the reconstructed first signal as a function of whether a cyclic redundancy check value computed for the first signal checks or fails, wherein scaling comprises scaling down the reconstructed first signal if the cyclic redundancy check value computed for the first signal fails, and scaling up the reconstructed first signal if the cyclic redundancy check value computed for the first signal checks; cancelling the reconstructed first signal from the received signal to yield a reduced-interference signal; and at least partially decoding a second codeword obtained from the reduced-interference signal and transmitted by the first user or a second user via the second signal; wherein partially decoding the first codeword comprises: treating one or more unavailable coded bits of the first codeword as punctured bits; and decoding the first codeword based on the one or more punctured coded bits and estimates of the remaining coded bits.
A touchscreen panel (10, 10A, 10B) comprising: a main body (100, 100A, 100B) including a lower substrate that includes a first transparent conductive film, and an upper sheet that includes a second transparent conductive film; a static-removing film, arranged on the main body, and including a conductive film; and a lead (175, 175A, 175B) including a conductive part (172b, 172c) electrically connected to the conductive film, wherein the main body includes a cutout (180, 180A, 180B) in which the lead is arranged, wherein: the static-removing film and the lead (175, 175A, 175B) are transparent and integrally formed; the lead (175, 175A, 175B) is a bent portion of the static-removing film extending from one side of the static-removing film; and the lead (175, 175A, 175B) is arranged inside the cutout (180, 180A, 180B) of the main body (100, 100A, 100B) so as not protrude outside from a side surface of the main body (100, 100A, 100B). a main body (100, 100A, 100B) including a lower substrate that includes a first transparent conductive film, and an upper sheet that includes a second transparent conductive film; a static-removing film, arranged on the main body, and including a conductive film; and a lead (175, 175A, 175B) including a conductive part (172b, 172c) electrically connected to the conductive film, wherein the main body includes a cutout (180, 180A, 180B) in which the lead is arranged, wherein: the static-removing film and the lead (175, 175A, 175B) are transparent and integrally formed; the lead (175, 175A, 175B) is a bent portion of the static-removing film extending from one side of the static-removing film; and the lead (175, 175A, 175B) is arranged inside the cutout (180, 180A, 180B) of the main body (100, 100A, 100B) so as not protrude outside from a side surface of the main body (100, 100A, 100B). the static-removing film and the lead (175, 175A, 175B) are transparent and integrally formed; the lead (175, 175A, 175B) is a bent portion of the static-removing film extending from one side of the static-removing film; and the lead (175, 175A, 175B) is arranged inside the cutout (180, 180A, 180B) of the main body (100, 100A, 100B) so as not protrude outside from a side surface of the main body (100, 100A, 100B).
A fan assembly comprising an array of radially extending fan blades mounted on a hub and a containment system fitted around the array of radially extending fan blades, each fan blade having a respective fan blade tip, the fan containment system comprising: a generally cylindrical fan case including a hook, the hook projecting in a generally radially inward direction and positioned axially forward of a radial array of fan blades; a fan track liner disposed on a radially inner surface of the fan case; and a panel which is positioned axially rearward of the hook and positioned axially forward of the array of radially extending fan blades such that the panel forms a substantially continuous air washed surface with the fan track liner; wherein the panel is fitted to the fan track liner and is fitted into a recess in the fan track liner; characterised in that the panel comprises an elastomeric structure that is configured to be temporarily deformable so as to absorb the impacts of any foreign bodies, which enter the gas turbine engine in use and strike the panel, without compromising the structural integrity of the panel while being weak enough so that in the event that, during operation of the gas turbine engine, one of the fan blades is released from the hub, the fan blade tip of the detached fan blade is not inhibited from moving radially outward of the hub by the panel and so increases the likelihood that the fan blade collides with the hook and is retained in the gas turbine engine, a generally cylindrical fan case including a hook, the hook projecting in a generally radially inward direction and positioned axially forward of a radial array of fan blades; a fan track liner disposed on a radially inner surface of the fan case; and a panel which is positioned axially rearward of the hook and positioned axially forward of the array of radially extending fan blades such that the panel forms a substantially continuous air washed surface with the fan track liner; wherein the panel is fitted to the fan track liner and is fitted into a recess in the fan track liner; characterised in that the panel comprises an elastomeric structure that is configured to be temporarily deformable so as to absorb the impacts of any foreign bodies, which enter the gas turbine engine in use and strike the panel, without compromising the structural integrity of the panel while being weak enough so that in the event that, during operation of the gas turbine engine, one of the fan blades is released from the hub, the fan blade tip of the detached fan blade is not inhibited from moving radially outward of the hub by the panel and so increases the likelihood that the fan blade collides with the hook and is retained in the gas turbine engine,
A printing precision measuring method for measuring printing precision of a printing apparatus configured to perform printing to both sides of a printing medium and having a plurality of recording heads arranged orthogonally to a transportation direction of the printing medium, the printing precision measuring method characterized by: a printing step of printing a plurality of positioning reference marks (PM1, PM2) orthogonal to a transportation direction of the printing medium in the printing apparatus for each of the plurality of recording heads; an inspecting window forming step of forming an inspecting window by boring a hole in the printing medium at a position of a positioning reference mark (PM1, PM2) of the plurality of positioning reference marks (PM1, PM2); and a printing precision measuring step of measuring printing precision by folding the printing medium so as to make another positioning reference mark (PM1, PM2) of the plurality of printed positioning reference marks (PM1, PM2) on the printing medium visible through the inspecting window and comparing the positioning reference mark (PM1, PM2) on a side of the inspecting window with the another positioning reference mark visible through the inspecting window. a printing step of printing a plurality of positioning reference marks (PM1, PM2) orthogonal to a transportation direction of the printing medium in the printing apparatus for each of the plurality of recording heads; an inspecting window forming step of forming an inspecting window by boring a hole in the printing medium at a position of a positioning reference mark (PM1, PM2) of the plurality of positioning reference marks (PM1, PM2); and a printing precision measuring step of measuring printing precision by folding the printing medium so as to make another positioning reference mark (PM1, PM2) of the plurality of printed positioning reference marks (PM1, PM2) on the printing medium visible through the inspecting window and comparing the positioning reference mark (PM1, PM2) on a side of the inspecting window with the another positioning reference mark visible through the inspecting window.
A method of displaying input data in various colors on a display in a portable terminal, comprising the steps of: displaying input data in a random color, if a user pre-selects a random color change for the input data, said random color being determined by types of the input data comprising text and digits, or elements of the input data; and displaying the input data in a color pre-selected by the user, if the user selects a user selection-based data color change, said color pre-selected by the user being determined according to the types of the input data, or for all of the input data. displaying input data in a random color, if a user pre-selects a random color change for the input data, said random color being determined by types of the input data comprising text and digits, or elements of the input data; and displaying the input data in a color pre-selected by the user, if the user selects a user selection-based data color change, said color pre-selected by the user being determined according to the types of the input data, or for all of the input data.
A thermoelectric generating system for a vehicle exhaust line part, wherein a side of the exhaust line part is provided with an opening communicating with an internal space of the exhaust line part, the thermoelectric generating system comprising: a base substrate installed to seal the opening of the exhaust line part; and at least one thermoelectric module being installed on a top surface of the base substrate, wherein the base substrate is made of a thermal conductive material and a surface of the base substrate is formed with an insulating layer, and wherein the thermoelectric module includes: at least one lower electrode being installed on a top surface of the base substrate; at least one upper electrode being disposed at an upper portion of the at least one lower electrode while being spaced apart from each other; and at least a pair of thermoelectric elements (21, 22) being interposed between the at least one lower electrode and the upper electrode and connected to the at least one lower electrode and the at least one upper electrode, characterized in that the base substrate has at least one penetration portion, the at least one lower electrode is installed to seal the at least one penetration portion, a bottom surface of the at least one lower electrode is formed with a plurality of heat transfer fins (27, 23a), and the plurality of heat transfer fins (27, 23a) penetrate through the at least one penetration portion of the base substrate. a base substrate installed to seal the opening of the exhaust line part; and at least one thermoelectric module being installed on a top surface of the base substrate, wherein the base substrate is made of a thermal conductive material and a surface of the base substrate is formed with an insulating layer, and wherein the thermoelectric module includes: at least one lower electrode being installed on a top surface of the base substrate; at least one upper electrode being disposed at an upper portion of the at least one lower electrode while being spaced apart from each other; and at least a pair of thermoelectric elements (21, 22) being interposed between the at least one lower electrode and the upper electrode and connected to the at least one lower electrode and the at least one upper electrode, at least one lower electrode being installed on a top surface of the base substrate; at least one upper electrode being disposed at an upper portion of the at least one lower electrode while being spaced apart from each other; and at least a pair of thermoelectric elements (21, 22) being interposed between the at least one lower electrode and the upper electrode and connected to the at least one lower electrode and the at least one upper electrode, characterized in that the base substrate has at least one penetration portion, the at least one lower electrode is installed to seal the at least one penetration portion, a bottom surface of the at least one lower electrode is formed with a plurality of heat transfer fins (27, 23a), and the plurality of heat transfer fins (27, 23a) penetrate through the at least one penetration portion of the base substrate.
An antiseptic pharmaceutical composition useful for oral hygiene and for the treatment of oral diseases of microbial origin, wherein it comprises between 0.05 and 0.3% w/w of hydrogen peroxide or the equivalence thereof in carbamide peroxide, between 0.001 and 0.03% w/w of eugenol, between 0.001 and 0.01% w/w of camphor, between 0.001 and 0.5% w/w of a zinc salt or other heavy metals such as silver, mercury, copper, tin or a mixture thereof; 1 to 1.2% w/w of sodium fluoride; 2% to 7% w/w of xylitol, 0.002 to 0.05% w/w of cetylpyridinium chloride and excipients in an amount enough to complete 100% of the total composition.
A method for determining a destination of data, by a relay user equipment, UE, in a wireless communication system, the method comprising: receiving information on whether the data is to be forwarded to an upper layer of the relay UE or is to be forwarded to a remote UE or a network, wherein the information is included in a media access control, MAC, header; determining whether the data is to be forwarded to the upper layer of the relay UE or is to be forwarded to the remote UE or the network based on the received information; and forwarding the data to the remote UE or the network, when it is determined that the data is to be forwarded to the remote UE or the network, the method being characterized in that: the data is forwarded to the remote UE using a non-3rd generation partnership project, non-3GPP, radio access technology, RAT, on a specific layer used for forwarding data to the remote UE, and wherein the specific layer for forwarding data to the remote UE is a long-term evolution, LTE, wireless local area network, WLAN, aggregation adaptation protocol, LWAAP, layer. receiving information on whether the data is to be forwarded to an upper layer of the relay UE or is to be forwarded to a remote UE or a network, wherein the information is included in a media access control, MAC, header; determining whether the data is to be forwarded to the upper layer of the relay UE or is to be forwarded to the remote UE or the network based on the received information; and forwarding the data to the remote UE or the network, when it is determined that the data is to be forwarded to the remote UE or the network, the method being characterized in that: the data is forwarded to the remote UE using a non-3rd generation partnership project, non-3GPP, radio access technology, RAT, on a specific layer used for forwarding data to the remote UE, and wherein the specific layer for forwarding data to the remote UE is a long-term evolution, LTE, wireless local area network, WLAN, aggregation adaptation protocol, LWAAP, layer. the data is forwarded to the remote UE using a non-3rd generation partnership project, non-3GPP, radio access technology, RAT, on a specific layer used for forwarding data to the remote UE, and wherein the specific layer for forwarding data to the remote UE is a long-term evolution, LTE, wireless local area network, WLAN, aggregation adaptation protocol, LWAAP, layer.
A catheter, comprising: a catheter shaft including an inner layer; a first reinforcing layer (20/22) wound on an outer periphery of the inner layer; an intermediate layer that covers the first reinforcing layer (20/22); a second reinforcing layer (40/42) wound on an outer periphery of the intermediate layer; and an outer layer that covers the second reinforcing layer (40/42); and a tip joined to a distal end of the catheter shaft, characterized in that the tip includes a rear end portion extended in an axis direction and joined to the intermediate layer and the outer layer, between the first reinforcing layer (20/22) and the second reinforcing layer (40/42). a catheter shaft including an inner layer; a first reinforcing layer (20/22) wound on an outer periphery of the inner layer; an intermediate layer that covers the first reinforcing layer (20/22); a second reinforcing layer (40/42) wound on an outer periphery of the intermediate layer; and an outer layer that covers the second reinforcing layer (40/42); and an inner layer; a first reinforcing layer (20/22) wound on an outer periphery of the inner layer; an intermediate layer that covers the first reinforcing layer (20/22); a second reinforcing layer (40/42) wound on an outer periphery of the intermediate layer; and an outer layer that covers the second reinforcing layer (40/42); and a tip joined to a distal end of the catheter shaft, characterized in that the tip includes a rear end portion extended in an axis direction and joined to the intermediate layer and the outer layer, between the first reinforcing layer (20/22) and the second reinforcing layer (40/42).
An integrated circuit (IC, 205), comprising: equalizer circuitry including a set of at least three taps to equalize a digital bit stream in response to respective bits of the digital bit stream, the equalizer circuitry having two modes, driver circuitry to transmit the equalized bit stream to a receiving IC over a signal path, and a receiver to equalize second data to be received from the receiving IC;wherein in a low-performance mode of the two modes, the digital bit stream is equalized using the equalization circuitry to compensate for pre-tap interference, current-tap interference, and post-tap interference, and in a high-performance mode of the two modes, the digital bit stream is equalized using the equalization circuitry to compensate for current-tap interference and pre-tap interference but not post-tap interference, wherein the receiver comprises a decision feedback equalizer adapted to operate in one of the respective modes. equalizer circuitry including a set of at least three taps to equalize a digital bit stream in response to respective bits of the digital bit stream, the equalizer circuitry having two modes, driver circuitry to transmit the equalized bit stream to a receiving IC over a signal path, and a receiver to equalize second data to be received from the receiving IC;wherein in a low-performance mode of the two modes, the digital bit stream is equalized using the equalization circuitry to compensate for pre-tap interference, current-tap interference, and post-tap interference, and in a high-performance mode of the two modes, the digital bit stream is equalized using the equalization circuitry to compensate for current-tap interference and pre-tap interference but not post-tap interference, wherein the receiver comprises a decision feedback equalizer adapted to operate in one of the respective modes.