mhurhangee/ep-ind-claims huggingface dataset:
A screw comprising a head defining a central axis, a shank extending downwards from said head, and a plurality of threads spirally disposed around said shank; said head includes a top face, a conical underside opposite to said top face, and a plurality of spaced-apart recesses formed on said conical underside, said conical underside having a first inclined surface extending downwards from a periphery of said top face and a second inclined surface connected between said first inclined surface and said shank, said recesses being formed on said first inclined surface, each of said recesses having a recessed area gradually reduced downwards from said periphery of said top face, each of said recesses defining a first width adjacent to said top face and a second width adjacent to said second inclined surface, said first width being larger than said second width, characterized in that a sum of total recessed areas of said recesses is defined from 30 to 37% of a total surface area of said first inclined surface, a smooth conical area being left between two adjacent recessed areas, a sum of total smooth conical areas being defined from 63 to 70% of said total surface area of said first inclined surface after deducting the sum of said total recessed areas from said total surface area, each of said threads having from two to six concave surfaces, each of said concave surfaces being curved inward by an angle ranging from 60 to 120 degrees, each concave surface and each adjacent concave surface meeting at a crest. said head includes a top face, a conical underside opposite to said top face, and a plurality of spaced-apart recesses formed on said conical underside, said conical underside having a first inclined surface extending downwards from a periphery of said top face and a second inclined surface connected between said first inclined surface and said shank, said recesses being formed on said first inclined surface, each of said recesses having a recessed area gradually reduced downwards from said periphery of said top face, each of said recesses defining a first width adjacent to said top face and a second width adjacent to said second inclined surface, said first width being larger than said second width, characterized in that a sum of total recessed areas of said recesses is defined from 30 to 37% of a total surface area of said first inclined surface, a smooth conical area being left between two adjacent recessed areas, a sum of total smooth conical areas being defined from 63 to 70% of said total surface area of said first inclined surface after deducting the sum of said total recessed areas from said total surface area, each of said threads having from two to six concave surfaces, each of said concave surfaces being curved inward by an angle ranging from 60 to 120 degrees, each concave surface and each adjacent concave surface meeting at a crest.
A mobile terminal comprising: a case (201, 202, 302, 401, 402, 501) defining a body of the mobile terminal; a circuit board (272, 372, 472) located in the body; an electronic device (280, 380, 480, 580) located in the body; a connecting terminal (273, 373, 473) provided at the circuit board (272, 372, 472), the connection terminal (273, 373, 473) providing an elastic contact between the circuit board (272, 372, 472) and the electronic device, electrically connected to a connecting part of a surface of the electronic device; a mounting portion (290, 390, 490, 590) formed at the case so as to surround the electronic device such that it is fixed; and wherein a boundary surface is formed directly between the mounting portion and the electronic device (280, 380, 480, 580) by a material of the case, and wherein the electronic device (280, 380, 480, 580) is integrally coupled to an inner surface of the case by solidifying a material of the case (201, 202, 302, 401, 402, 501) on the outer surface of the electronic device (280, 380, 480, 580). a case (201, 202, 302, 401, 402, 501) defining a body of the mobile terminal; a circuit board (272, 372, 472) located in the body; an electronic device (280, 380, 480, 580) located in the body; a connecting terminal (273, 373, 473) provided at the circuit board (272, 372, 472), the connection terminal (273, 373, 473) providing an elastic contact between the circuit board (272, 372, 472) and the electronic device, electrically connected to a connecting part of a surface of the electronic device; a mounting portion (290, 390, 490, 590) formed at the case so as to surround the electronic device such that it is fixed; and wherein a boundary surface is formed directly between the mounting portion and the electronic device (280, 380, 480, 580) by a material of the case, and
Process for producing a precious metal thin-film laminate (PMTL), wherein said process comprises the following steps: a) printing identifying information onto a holographically-embossed plastic substrate, b) depositing 0.1 to 0.2 grams of gold by magnetron sputtering in a layer which averages 400 to 800 nm thick on the upper surface of the printed plastic substrate, wherein a reflective strip of feathering having an optical density between 3 and 4 is centered on the plastic substrate during the deposition step, and c) applying a layer of plastic to the gold layer by adhesive lamination, wherein the resulting laminate contains 0.0032 to 0.0064 Troy Oz (0.1 to 0.2 gm) of gold, a strip of feathering, and a hologram on one surface. a) printing identifying information onto a holographically-embossed plastic substrate, b) depositing 0.1 to 0.2 grams of gold by magnetron sputtering in a layer which averages 400 to 800 nm thick on the upper surface of the printed plastic substrate, wherein a reflective strip of feathering having an optical density between 3 and 4 is centered on the plastic substrate during the deposition step, and c) applying a layer of plastic to the gold layer by adhesive lamination, wherein the resulting laminate contains 0.0032 to 0.0064 Troy Oz (0.1 to 0.2 gm) of gold, a strip of feathering, and a hologram on one surface.
A method for beam failure recovery, applied to a scenario where a common beam operation is carried out, comprising: when a terminal device in the common beam operation mode detects beam failure in a cell, sending, by the terminal device, a beam failure recovery request message to a network device, wherein the beam failure recovery request message comprises indication of a selected candidate beam; and after the beam failure recovery request message is received by the network device and before the terminal device receives indication of a transmission configuration indicator, TCI, state for common beam operation from the network device, performing, by the terminal device, physical downlink control channel, PDCCH, reception and physical downlink shared channel, PDSCH, reception on the cell by using same antenna port quasi co-location, QCL, parameters as the ones associated with the selected candidate beam; wherein the TCI state in the common beam operation mode is indicated to provide QCL assumption for all PDCCH and PDSCH reception and spatial setting for the transmission of all the PUSCH, PUCCH and SRS. when a terminal device in the common beam operation mode detects beam failure in a cell, sending, by the terminal device, a beam failure recovery request message to a network device, wherein the beam failure recovery request message comprises indication of a selected candidate beam; and after the beam failure recovery request message is received by the network device and before the terminal device receives indication of a transmission configuration indicator, TCI, state for common beam operation from the network device, performing, by the terminal device, physical downlink control channel, PDCCH, reception and physical downlink shared channel, PDSCH, reception on the cell by using same antenna port quasi co-location, QCL, parameters as the ones associated with the selected candidate beam; wherein the TCI state in the common beam operation mode is indicated to provide QCL assumption for all PDCCH and PDSCH reception and spatial setting for the transmission of all the PUSCH, PUCCH and SRS.
An exhaust system for a diesel engine comprising a catalysed soot filter for increasing the percentage of NO 2 of total NO x in exhaust gas exiting the catalysed soot filter relative to the percentage of NO 2 of total NO x in exhaust gas entering the catalysed soot filter and a selective catalytic reduction catalyst disposed downstream of the catalysed soot filter, wherein the catalysed soot filter comprises a ceramic or ceramic-like wall flow substrate having a mean pore size from 4 to 40 μm and a porosity of from 35 to 75 % and comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise a plurality of inlet channels having an open inlet end and a closed outlet end and a plurality of outlet channels having a closed inlet end and an open outlet end, wherein surfaces of the internal walls of the plurality of inlet channels comprise a washcoat of at least one inlet coating composition comprising at least one refractory metal oxide, an optionally stabilised rare earth metal oxide or a mixture of at least one refractory metal oxide and an optionally stabilised rare earth metal oxide and both the catalytically active metals platinum and palladium, which at least one inlet coating composition extends for an axial inlet coating length from the open inlet end to a downstream inlet coating end, wherein the axial inlet coating length is less than the substrate axial length, wherein external surfaces of the internal walls of the plurality of outlet channels comprise a washcoat of at least one on-wall outlet coating composition comprising at least one refractory metal oxide, an optionally stabilised rare earth metal oxide or a mixture of at least one refractory metal oxide and an optionally stabilised rare earth metal oxide and both the catalytically active metals platinum and palladium, which at least one on-wall outlet coating composition having a mean particle size of between 4 and 15 μm and a D90 particle size >15 μm and extending for an axial outlet coating length from an upstream outlet end to the open outlet end, wherein the axial outlet coating length is 55 to 90 % of the substrate axial length wherein the axial outlet coating length is greater than the axial inlet coating length, wherein the at least one on-wall outlet coating composition has a thickness from 5 to 80μm and comprises both platinum and palladium at a Pt:Pd weight ratio of 20:1 to 1:1, wherein the at least one inlet coating composition comprises both platinum and palladium at a Pt:Pd weight ratio of 20:1 to 1:10 and wherein the Pt:Pd weight ratio in the at least one inlet coating is less than the Pt:Pd weight ratio in the outlet coating.
Yielding post of thin sheet metal with a polygonal or round cross-section with at least one longitudinal welded joint (17-20; 24), characterised in that the joint is a longitudinal welded butt joint, and in that the weld has a smaller thickness across the sheet metal than the sheet metal thickness and covers at most % of the sheet metal thickness.
Method for photon counting imaging for single x-ray counting using a layer of photosensitive material, an LxK array of photodetector elements arranged in the layer of the photosensitive material, an NxM array of readout unit cells including amplifying elements (9.1, 9.2), K, L, M, and N being numbers greater than or equal to one, one or several readout unit cells for one or a number of photodetector elements, the readout unit cells being controlled by signal processing elements, each readout unit cell comprising internal signal processing elements allowing to generate a discriminator output signal representing an amplified signal of the electron-hole pairs generated by an incident photon or a number of incident photons in the respective photodetector element, the discriminator output signal being generated by comparing the amplified signal with a predetermined threshold level and the discriminator output signal being generated whenever the amplified signal is exceeding the threshold level, a counter unit registering counts as a function of the discriminator output signal, characterized in that the counts are being registered by counting for each signal pulse (302, 303, or 304) the number of dead time intervals of a predetermined width by starting a dead time interval sequence directly after the amplified signal exceeds the threshold level (v thr) at first, and counting the number of directly succeeding dead time intervals as long as the amplified signal is exceeding the threshold level, and that the counted number of dead time intervals corresponds to the width of the discriminator output signal.
A pouch for storing fluids from a tissue site, the pouch comprising: a first wall; a second wall having a peripheral portion coupled to the first wall to form an interior; a third wall extending through the interior, forming a first chamber adapted to be in fluid communication with a dressing, and forming a second chamber adapted to be in fluid communication with a reduced pressure source; and a plurality of filters positioned in the third wall, the filters permitting fluid communication between the first chamber and the second chamber at more than one location of the third wall; wherein reduced pressure supplied to the second chamber is supplied to the first chamber through the filters. a first wall; a second wall having a peripheral portion coupled to the first wall to form an interior; a third wall extending through the interior, forming a first chamber adapted to be in fluid communication with a dressing, and forming a second chamber adapted to be in fluid communication with a reduced pressure source; and a plurality of filters positioned in the third wall, the filters permitting fluid communication between the first chamber and the second chamber at more than one location of the third wall; wherein reduced pressure supplied to the second chamber is supplied to the first chamber through the filters.
Electrical connection system of an - energy generation device having a first connector disposed at one end of a first cable (10a, 16), and - a second connector disposed at one end of a second cable or a second end of the first cable (10a, 16) and that is complementary to the first connector, wherein - the first connector has a receptacle for the second connector and - the second connector has a bolt to be disposed in the receptacle in a self-locking manner, wherein - a two-part insulation sleeve surrounds the connectors (18, 28), and - at least one part (32a, 32b) comprises a locknut wherein by means of the locknut the first part of the insulation sleeve can be screwed together with the second part of the insulation sleeve, characterised in that the locknut is arranged to accommodate a hook wrench. - energy generation device having a first connector disposed at one end of a first cable (10a, 16), and - a second connector disposed at one end of a second cable or a second end of the first cable (10a, 16) and that is complementary to the first connector, - the first connector has a receptacle for the second connector and - the second connector has a bolt to be disposed in the receptacle in a self-locking manner, wherein - a two-part insulation sleeve surrounds the connectors (18, 28), and - at least one part (32a, 32b) comprises a locknut wherein by means of the locknut the first part of the insulation sleeve can be screwed together with the second part of the insulation sleeve,
Refrigeration appliance comprising at least a first storage chamber, a second storage chamber and a refrigerant circuit in which a condenser, a first controllable throttle point, a first heat exchanger for controlling the temperature of the first storage chamber, a second controllable throttle point and a second heat exchanger for cooling the second storage chamber are connected in series between a pressure connection and a suction connection of a compressor, wherein at least a hot line section (22, 26, 30) located upstream of the second heat exchanger and a cold line section (21, 25) located downstream of the second heat exchanger are routed in thermal contact with respect to one another in order to form an inner heat exchanger (23, 24, 29) and the first heat exchanger is connected to the pressure connection bypassing the hot line section (22, 26, 30), wherein the refrigeration appliance has an electronic control unit and temperature sensors in the two storage chambers (17, 18), wherein the electronic control unit is connected to the temperature sensors in the two storage chambers (17, 18) and is configured to control the rotational speed of the compressor as well as the pressure losses at the controllable throttle points (9, 11) using a comparison of the temperatures prevailing in the storage chambers (17, 18) with set values adjusted by the user, so that when the adjustable set value for the first temperature-controlled storage chamber is above the ambient temperature, the pressure loss at the first throttle point is minimal and the first heat exchanger operates as a condenser.
A method, comprising: configuring a compressed mode during performing a circuit switched voice service over an enhanced dedicated channel according to Wideband Code-Division Multiple Access operation in case a demand for network specific measurement is determined; creating measurement gaps in data transmission; in uplink, causing transmission of a voice frame to be compressed in 10ms; and in downlink, causing a reception of a transmission of a voice frame to be compressed, wherein the transmission is stopped after a fixed number of slots have been transmitted, wherein the fixed number of slots provides a measurement gap with at least 14 slots. configuring a compressed mode during performing a circuit switched voice service over an enhanced dedicated channel according to Wideband Code-Division Multiple Access operation in case a demand for network specific measurement is determined; creating measurement gaps in data transmission; in uplink, causing transmission of a voice frame to be compressed in 10ms; and in downlink, causing a reception of a transmission of a voice frame to be compressed, wherein the transmission is stopped after a fixed number of slots have been transmitted, wherein the fixed number of slots provides a measurement gap with at least 14 slots.
An electric motor comprising a stator which forms the fixed portion of the electric motor, a permanent magnet rotor which moves inside the stator, more than one magnet which are fastened adjacently onto the outer surface of the rotor along the periphery thereof at equal intervals, and more than one parallel slot which extends longitudinally between both adjacent magnets in the axial direction on the outer surface of the rotor, more than one spring, mounted to the slots by being disposed between two adjacent magnets in a prestressed manner and two arms which form a V-shape by opening from the outer surface of the rotor towards the outside to the sides in the radial direction and each of which bears against the lateral surface of the adjacent magnet when mounted to the slot, - a curve which joins the two arms and which is mounted to the slot and - two extensions which are provided by bending the arm ends at the outside to the sides and which rest against the edge portions of the upper surfaces, facing the stator, of the magnets at their left and right, characterized by the spring comprising more than one stopper that is located at each arm of the spring, and that rests against the front and back planar surfaces of the magnet, against which the arm bears, and also front and back planar surfaces of the rotor, and that prevents the magnets from sliding in the axial direction on the rotor and/or by the spring comprising one or more cut outs which are located at each arm of the spring and which provide the weight of the spring to be reduced and furthermore, the arms to be easily stretched and thus, the spring to be attached to the rotor and to be detached therefrom.
A lighting device installation method, comprising steps of: fixing a holder on an installation surface which is a wall surface, wherein the holder comprises a first stopping structure and a first engaging structure, wherein the first stopping structure is located at a lower portion of the holder, and the first engaging structure is located at an upper portion of the holder; providing a lighting device comprising a second stopping structure and a third stopping structure, wherein the second stopping structure and the third stopping structure are located at an upper portion of the lighting device, and collaboratively defined as a second engaging structure; allowing the second engaging structure of the lighting device to be stopped by the first stopping structure of the holder, so that the lighting device is supported by the lower portion of the holder; establishing electrical connection between the lighting device and a power source; and allowing the second engaging structure of the lighting device to be engaged with the first engaging structure of the holder, so that the lighting device is supported by the upper portion of the holder. fixing a holder on an installation surface which is a wall surface, wherein the holder comprises a first stopping structure and a first engaging structure, wherein the first stopping structure is located at a lower portion of the holder, and the first engaging structure is located at an upper portion of the holder; providing a lighting device comprising a second stopping structure and a third stopping structure, wherein the second stopping structure and the third stopping structure are located at an upper portion of the lighting device, and collaboratively defined as a second engaging structure; allowing the second engaging structure of the lighting device to be stopped by the first stopping structure of the holder, so that the lighting device is supported by the lower portion of the holder; establishing electrical connection between the lighting device and a power source; and allowing the second engaging structure of the lighting device to be engaged with the first engaging structure of the holder, so that the lighting device is supported by the upper portion of the holder.
A process for reducing the emission of volatile organic compounds from a ketonization process, comprising 0 (i). heating a vaporized feed stream comprising one or more carboxylic acids in a direct-fired furnace comprising a combustion zone to produce a superheated feed stream; (ii). contacting the superheated feed stream with a metal oxide catalyst to form a gaseous product mixture comprising one or more ketones, carbon dioxide, and one or more volatile organic compound by-products; (iii). separating the one or more ketones from the carbon dioxide and one or more volatile organic compound by-products; and (iv). feeding at least a portion of the carbon dioxide and the one or more volatile organic compound by-products to the combustion zone of the direct-fired furnace. (i). heating a vaporized feed stream comprising one or more carboxylic acids in a direct-fired furnace comprising a combustion zone to produce a superheated feed stream; (ii). contacting the superheated feed stream with a metal oxide catalyst to form a gaseous product mixture comprising one or more ketones, carbon dioxide, and one or more volatile organic compound by-products; (iii). separating the one or more ketones from the carbon dioxide and one or more volatile organic compound by-products; and (iv). feeding at least a portion of the carbon dioxide and the one or more volatile organic compound by-products to the combustion zone of the direct-fired furnace.