mhurhangee/ep-ind-claims huggingface dataset:
Cooling device for an electrical energy store for cooling energy storage cells of the electrical energy store, wherein the cooling device comprises gravity heat pipes with a working medium for taking up waste heat from the energy storage cells, characterized in that the cooling device has a frame with walls for forming receptacles for the energy storage cells, wherein the gravity heat pipes are integrated in the walls and the walls for this have cavities which are vertically tubular along the direction of gravity and are filled with the working medium to form the gravity heat pipes.
A surface gloss multilayer plastic container, comprising: a transparent polyester-based resin outer layer; a transparent adhesive resin layer; and a colored polyolefin-based resin layer in the stated order from an outer surface side of the container, wherein: the transparent polyester-based resin outer layer has a surface roughness Ra of 0.2 μm or less, wherein the surface roughness means the maximum value of a surface roughness as an arithmetic average obtained by measuring the surface roughness of a flat portion of the wall of the container except a nozzle portion with a stylus roughness measuring device in conformity with JIS B0601 at a measurement interval of 4mm, and the measured values are averaged; and an interface between the transparent adhesive resin layer and the colored polyolefin-based resin layer has a concavoconvex level of 15 μm or less as measured by optical Microscope in accordance with the disclosure in the application specification. a transparent polyester-based resin outer layer; a transparent adhesive resin layer; and a colored polyolefin-based resin layer in the stated order from an outer surface side of the container, wherein: the transparent polyester-based resin outer layer has a surface roughness Ra of 0.2 μm or less, wherein the surface roughness means the maximum value of a surface roughness as an arithmetic average obtained by measuring the surface roughness of a flat portion of the wall of the container except a nozzle portion with a stylus roughness measuring device in conformity with JIS B0601 at a measurement interval of 4mm, and the measured values are averaged; and an interface between the transparent adhesive resin layer and the colored polyolefin-based resin layer has a concavoconvex level of 15 μm or less as measured by optical Microscope in accordance with the disclosure in the application specification. the transparent polyester-based resin outer layer has a surface roughness Ra of 0.2 μm or less, wherein the surface roughness means the maximum value of a surface roughness as an arithmetic average obtained by measuring the surface roughness of a flat portion of the wall of the container except a nozzle portion with a stylus roughness measuring device in conformity with JIS B0601 at a measurement interval of 4mm, and the measured values are averaged; and an interface between the transparent adhesive resin layer and the colored polyolefin-based resin layer has a concavoconvex level of 15 μm or less as measured by optical Microscope in accordance with the disclosure in the application specification.
An apparatus for assembling a member of a rotary machine, the apparatus comprising: a pair of rails which is provided in parallel and spaced at an interval; support portions which are adapted to be connected to the member and support the member to be movable in longitudinal directions of the rails; a screw shaft (31;41) which is disposed along and between the pair of rails; a female screw block (32;42;51) which is threaded onto the screw shaft (31;41); and a sliding member (34;44;53) which is provided between the female screw block (32;42;51) and the support portions and connects the female screw block (32;42;51) and the support portions to be movable relative to each other in a plane perpendicular to a female screw axis, wherein the sliding member (34;44;53) connects the female screw block (32;42;51) and the support portions to be movable relative to each other in a direction parallel with a line segment linking the pair of rails in the plane perpendicular to the female screw axis, wherein a fitting groove (341;441) is provided at one of the female screw block (32;42;51) and the sliding member (34;44;53), and a fitting piece (322;431) which is movably fitted into the fitting groove (341;441) is provided at the other, and wherein the fitting groove (341;441) has a width larger than the width of the fitting piece (322;431) in the direction parallel with the line segment linking the pair of rails. a pair of rails which is provided in parallel and spaced at an interval; support portions which are adapted to be connected to the member and support the member to be movable in longitudinal directions of the rails; a screw shaft (31;41) which is disposed along and between the pair of rails; a female screw block (32;42;51) which is threaded onto the screw shaft (31;41); and a sliding member (34;44;53) which is provided between the female screw block (32;42;51) and the support portions and connects the female screw block (32;42;51) and the support portions to be movable relative to each other in a plane perpendicular to a female screw axis, wherein the sliding member (34;44;53) connects the female screw block (32;42;51) and the support portions to be movable relative to each other in a direction parallel with a line segment linking the pair of rails in the plane perpendicular to the female screw axis, wherein a fitting groove (341;441) is provided at one of the female screw block (32;42;51) and the sliding member (34;44;53), and a fitting piece (322;431) which is movably fitted into the fitting groove (341;441) is provided at the other, and wherein the fitting groove (341;441) has a width larger than the width of the fitting piece (322;431) in the direction parallel with the line segment linking the pair of rails.
An apparatus for use in an electrographic printer, the apparatus comprising: a housing defining a cavity; a developer roller to present a uniform film of printing substance to a photoconductor of the electrographic printer; a developer electrode to develop the printing substance onto the developer roller, the electrode being arranged within the cavity; and a heater for heating printing substance to be developed onto the developer roller, the heater being arranged in the cavity, characterized in that the heater is in thermal communication with the electrode to supply thermal energy directly to the developer electrode in use, and wherein the heater is arranged to indirectly heat the printing substance in use by heating the developer electrode. a housing defining a cavity; a developer roller to present a uniform film of printing substance to a photoconductor of the electrographic printer; a developer electrode to develop the printing substance onto the developer roller, the electrode being arranged within the cavity; and a heater for heating printing substance to be developed onto the developer roller, the heater being arranged in the cavity,
Apparatus for generating at least one random number, comprising: - an optical parametric oscillator being pumped by a pulsed pump signal with a predetermined pump power and a predetermined pump pulse repetition frequency, the optical parametric oscillator being configured to operate in a period multiplication state for providing an oscillator output signal (33a-33e) of light pulses with alternating pulse energy, the oscillator output signal (33a-33e) having a frequency that is 1/N of the predetermined pump pulse repetition frequency of the pump signal, where N is an integer and N > 1; - a comparing unit being configured to compare the oscillator output signal (33a-33e) with a reference signal, wherein the reference signal has a frequency that is 1/N of the predetermined pump pulse repetition frequency of the pump signal; and - an evaluation unit being configured to generate the at least one random number based on the comparison of the oscillator output signal (33a-33e) with the reference signal. - an optical parametric oscillator being pumped by a pulsed pump signal with a predetermined pump power and a predetermined pump pulse repetition frequency, the optical parametric oscillator being configured to operate in a period multiplication state for providing an oscillator output signal (33a-33e) of light pulses with alternating pulse energy, the oscillator output signal (33a-33e) having a frequency that is 1/N of the predetermined pump pulse repetition frequency of the pump signal, where N is an integer and N > 1; - a comparing unit being configured to compare the oscillator output signal (33a-33e) with a reference signal, wherein the reference signal has a frequency that is 1/N of the predetermined pump pulse repetition frequency of the pump signal; and - an evaluation unit being configured to generate the at least one random number based on the comparison of the oscillator output signal (33a-33e) with the reference signal.
A filter assembly comprising: (a) a filter cartridge comprising a closed end and an open end; a handle attached to the closed end, at least one filter module interposed between the closed end and the open end; and a first coupling member attached to the open end, the first coupling member having a central lumen therethrough and an external surface, and at least one lug extending from the exterior surface, the lug having an outer diameter; and, (b) a support comprising a second coupling member, the second coupling member having a central lumen therethrough and a side wall having at least one channel for receiving the lug, the channel having corresponding parallel channel walls (201A, 201B, 201C, 201D), a terminal section including a closed end and a horizontal axis, and an angled section, angled from the horizontal axis, the angled section having an open end, the terminal section including a lug retaining section having a cross-sectional area narrower than the outer diameter of the lug, the lug retaining section providing resistance as the lug passes through the narrower cross-sectional area, whereas the walls and of the angled section of the channel are parallel to each other as continuous straight walls, and the walls and in the terminal section are parallel to each other as continuous straight walls; wherein the filter cartridge is engageable with the support by coupling the first and second coupling members (100; 200) together such that the lug is rotated in the channel from the angled section, through the lug retaining section, into the terminal section, the lug retaining section preventing the lug from rotating out of the terminal section. (a) a filter cartridge comprising a closed end and an open end; a handle attached to the closed end, at least one filter module interposed between the closed end and the open end; and a first coupling member attached to the open end, the first coupling member having a central lumen therethrough and an external surface, and at least one lug extending from the exterior surface, the lug having an outer diameter; and, (b) a support comprising a second coupling member, the second coupling member having a central lumen therethrough and a side wall having at least one channel for receiving the lug, the channel having corresponding parallel channel walls (201A, 201B, 201C, 201D), a terminal section including a closed end and a horizontal axis, and an angled section, angled from the horizontal axis, the angled section having an open end, the terminal section including a lug retaining section having a cross-sectional area narrower than the outer diameter of the lug, the lug retaining section providing resistance as the lug passes through the narrower cross-sectional area, whereas the walls and of the angled section of the channel are parallel to each other as continuous straight walls, and the walls and in the terminal section are parallel to each other as continuous straight walls;
A gas turbine engine (20; 201; 203; 207) comprising: a plurality of rotating components housed within a compressor section and a turbine section; a first tap connected to said compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap and configured to deliver air to an aircraft fuselage via a first branch; and a cooling compressor connected downstream of said heat exchanger via a second branch that receives air from the heat exchanger, wherein said cooling compressor is configured to deliver air to at least one of said plurality of rotating components, characterised in that the gas turbine engine further comprises: a high pressure feed (200; 204; 208) configured to deliver air at a second pressure which is higher than said first pressure; and a valve assembly (202; 206; 209) that can select whether air from said first tap or air from said high pressure feed (200; 204; 208) is delivered to the aircraft fuselage. a plurality of rotating components housed within a compressor section and a turbine section; a first tap connected to said compressor section and configured to deliver air at a first pressure; a heat exchanger connected downstream of said first tap and configured to deliver air to an aircraft fuselage via a first branch; and a cooling compressor connected downstream of said heat exchanger via a second branch that receives air from the heat exchanger, wherein said cooling compressor is configured to deliver air to at least one of said plurality of rotating components, characterised in that the gas turbine engine further comprises: a high pressure feed (200; 204; 208) configured to deliver air at a second pressure which is higher than said first pressure; and a valve assembly (202; 206; 209) that can select whether air from said first tap or air from said high pressure feed (200; 204; 208) is delivered to the aircraft fuselage. a high pressure feed (200; 204; 208) configured to deliver air at a second pressure which is higher than said first pressure; and a valve assembly (202; 206; 209) that can select whether air from said first tap or air from said high pressure feed (200; 204; 208) is delivered to the aircraft fuselage.
Method for butt-welding of sheet metal, especially bodywork in the motor vehicle industry, where at least two flat workpieces (29, 30, 31) with any desired contours are fed to a machining process, where the workpieces (29, 30, 31) are positioned in relation to one another in a first sub-process, forming a gap between the at least two welding edges (33, 34) to be welded together and secured in place with holding means, where the position and width of the gap are measured continuously in another sub-process immediately before welding together and these measurements are used to control a laser welding head, where the processing lens is controlled by this, where the laser welding head is fitted with a rotatable twin-spot lens and the relative alignment of a main spot to an auxiliary spot is controlled depending on the absolute position of the gap and the gap width during the welding process while the processing lens of the laser welding head is rotated around the laser beam axis with the angle of rotation alpha, characterized in that these measurements are used to control the welding rod feed and that the relative alignment of the main spot and the auxiliary spot is controlled as from a measured gap width of more than 0.2 mm.
A rotor for an electric machine, the rotor comprising a rotor core having an outer portion and an inner portion located closer to the rotation axis of the rotor core than the outer portion, the outer portion being connected to the inner portion through a plurality of spokes, and the rotor core being adapted to be connected to a rotor shaft by a shrink fit, each of the spokes comprises at least one skew portion extending in a spoke angle (α a) relative to a radial direction of the rotor core, each of the spokes is connected to the outer portion of the rotor core through two outer branches (66j, 67j), and to the inner portion of the rotor core through an inner branch, the skew portion of each of the spokes is connected to the two outer branches (66j, 67j) and to the inner branch, the outer branches (66j, 67j) are located at a distance from each other in a circumferential direction of the rotor core, the skew portion extends substantially in tangential direction, and each outer branch (66j, 67j) and inner branch extend substantially in radial direction, each of the spokes is symmetric with respect to a centre line of the inner branch, characterized in that the spokes are separate elements without contact with each other.
A method (MET-BS1) for operating a first base station in a radio communication system comprising: - transmitting (S1-BS1) by an antenna array first reference signals via a first radiation beam (BM1-BS1) being directed towards a first direction and at least second reference signals via at least one second radiation beam (BM2-BS1,..., BM5-BS1) being directed towards at least one second direction, - receiving (S9-BS1) for a handover of a mobile station from a second base station being a serving base station of said mobile station to said first base station an indication for a radiation beam being selected from a group of radiation beams comprising said first radiation beam (BM1-BS1) and said at least one second radiation beam (BM2-BS1,..., BM5-BS1) for applying said selected radiation beam as an initial radiation beam at said first base station for serving said mobile station, and - scheduling (S10-BS1) radio resources for said initial radiation beam for serving said mobile station based on said indication. - transmitting (S1-BS1) by an antenna array first reference signals via a first radiation beam (BM1-BS1) being directed towards a first direction and at least second reference signals via at least one second radiation beam (BM2-BS1,..., BM5-BS1) being directed towards at least one second direction, - receiving (S9-BS1) for a handover of a mobile station from a second base station being a serving base station of said mobile station to said first base station an indication for a radiation beam being selected from a group of radiation beams comprising said first radiation beam (BM1-BS1) and said at least one second radiation beam (BM2-BS1,..., BM5-BS1) for applying said selected radiation beam as an initial radiation beam at said first base station for serving said mobile station, and - scheduling (S10-BS1) radio resources for said initial radiation beam for serving said mobile station based on said indication.
Use of a buffer comprising: (i) at least one chaotropic agent, (ii) at least one reducing agent, and (iii) at least one proteolytic enzyme for processing a respiratory sample, wherein the processing comprises lysis and liquefaction of said respiratory sample, and wherein said respiratory sample is selected from the group consisting of sputum, pus from the paranasal cavity, bronchial secretion, tracheal secretion, endotracheal secretion, bronchial aspirate, tracheal aspirate, endotracheal aspirate, bronchial lavage, bronchoalveolar lavage, bronchial swab, nasopharyngeal swab, laryngeal swab, and lung biopsy. (i) at least one chaotropic agent, (ii) at least one reducing agent, and (iii) at least one proteolytic enzyme
A floor cleaning machine, comprising a floor head (12; 204), at least one cleaning roller which is arranged on the floor head (12; 204), a tank means which is arranged on the floor head (12; 204), and a movable standing foot means which is arranged on the floor head (12; 204), wherein in a parking position of the floor cleaning machine the floor head (12; 204) is supported on an undersurface by the standing foot means in such a way that the at least one cleaning roller is spaced apart from the undersurface, characterised in that the tank means has at least one continuous cutout (154a, 154b; 155) through which, at least in the parking position, a standing foot (172a, 172b) of the standing foot means is inserted.
An accessory support (120; 420; 720; 820) for mounting in a flush-mounted box (200; 500) and comprising: • a flange (126; 426; 726; 826) that is provided with a through opening (128; 728; 828), and that is for co-operating with a bearing surface (230; 530) of the flush-mounted box (200; 500); and • a housing (130; 140; 730; 740; 830; 840) with a bottom wall (132; 142; 732; 742; 832) that is set back relative to the flange (126; 426; 726; 826); characterised in that the support (120; 420; 720; 820) comprises a plate (150; 160; 450; 460; 750; 760; 860) that defines, at least in part, a hollowed portion (155; 165; 455; 755; 865), and that includes at least one contact portion (152; 162; 452; 752; 862) for coming into contact with the bottom wall (132; 142; 732; 742, 832) of the housing (130; 140; 730; 740; 830; 840), the plate (150; 160; 450; 460; 750; 760; 860) being mounted in the housing (130; 140; 730; 740; 830; 840) with a possibility of movement by sliding over the bottom wall (132; 142; 732; 742; 832) of the housing (130; 140; 730; 740; 830; 840) while holding said hollowed portion (155; 165; 455; 755; 865) facing said through opening (128; 728; 828). • a flange (126; 426; 726; 826) that is provided with a through opening (128; 728; 828), and that is for co-operating with a bearing surface (230; 530) of the flush-mounted box (200; 500); and • a housing (130; 140; 730; 740; 830; 840) with a bottom wall (132; 142; 732; 742; 832) that is set back relative to the flange (126; 426; 726; 826);
A data transmission method, comprising: when a semi-persistent resource is in an activated state and time alignment, TA, data needs to be sent, sending the TA data from a base station to a user equipment by using the semi-persistent resource.