mhurhangee/ep-ind-claims huggingface dataset:
A cam shaft phase setter, including: a) a housing (3, 4; 5; 50); b) a setting device which can be charged with a hydraulic pressure fluid in order to adjust the phase position of a cam shaft of a combustion engine; c) a control valve for controlling the pressure fluid for the setting device; d) optionally, a pressure storage comprising a pressure chamber (21; 31; 41) for the pressure fluid; e) a cover (20; 30; 40) which is fastened to the housing (3, 4; 5; 50) and, together with the housing, forms the pressure chamber (21; 31; 41) of the optional pressure storage or an accommodating space for the setting device or the control valve; f) and a fluid channel (15, 17, 29; 35, 39; 45, 49) for the pressure fluid, which extends in the housing (3, 4; 5; 50) and ends in a port on one side of the housing, characterised in that g) the cover (20; 30; 40) is fastened to the housing (3, 4; 5; 50) facing opposite the port, h) and the fluid channel (15, 17, 29; 35, 39; 45, 49) ends on or in the cover (20; 30; 40) or the cover (20; 30; 40) seals the fluid channel (15, 17, 29; 35, 39; 45, 49) in at least one flow direction. a) a housing (3, 4; 5; 50); b) a setting device which can be charged with a hydraulic pressure fluid in order to adjust the phase position of a cam shaft of a combustion engine; c) a control valve for controlling the pressure fluid for the setting device; d) optionally, a pressure storage comprising a pressure chamber (21; 31; 41) for the pressure fluid; e) a cover (20; 30; 40) which is fastened to the housing (3, 4; 5; 50) and, together with the housing, forms the pressure chamber (21; 31; 41) of the optional pressure storage or an accommodating space for the setting device or the control valve; f) and a fluid channel (15, 17, 29; 35, 39; 45, 49) for the pressure fluid, which extends in the housing (3, 4; 5; 50) and ends in a port on one side of the housing, characterised in that g) the cover (20; 30; 40) is fastened to the housing (3, 4; 5; 50) facing opposite the port, h) and the fluid channel (15, 17, 29; 35, 39; 45, 49) ends on or in the cover (20; 30; 40) or the cover (20; 30; 40) seals the fluid channel (15, 17, 29; 35, 39; 45, 49) in at least one flow direction.
An ethylene copolymer which comprises or consists of 55 to 80 wt% of an ethylene homopolymer component A and 20 to 45 wt% of an ethylene copolymer component B of ethylene and an olefin comonomer, wherein the component A has a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 1.2 kg of 80 to 400 dg/min and a density of at least 968 kg/m 3 measured according to the method specified in the description, and wherein the ethylene copolymer has a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 5 kg of 0.05 to 0.3 dg/min, a density of 956 to 962 kg/m 3 measured according to the method specified in the description, a comonomer content of 0.03 to 0.30 mol%, a viscosity value η0.05 at a temperature of 190 °C and a shear rate of 0.05 rad/s of 200 to 1000 kPa.s and a viscosity value η300 at a temperature of 190 °C and a shear rate of 300 rad/s of 700 to 1500 Pa.s., the viscosity values being measured according to the method specified in the description. 55 to 80 wt% of an ethylene homopolymer component A and 20 to 45 wt% of an ethylene copolymer component B of ethylene and an olefin comonomer, wherein the component A has a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 1.2 kg of 80 to 400 dg/min and a density of at least 968 kg/m 3 measured according to the method specified in the description, and a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 1.2 kg of 80 to 400 dg/min and a density of at least 968 kg/m 3 measured according to the method specified in the description, and wherein the ethylene copolymer has a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 5 kg of 0.05 to 0.3 dg/min, a density of 956 to 962 kg/m 3 measured according to the method specified in the description, a comonomer content of 0.03 to 0.30 mol%, a viscosity value η0.05 at a temperature of 190 °C and a shear rate of 0.05 rad/s of 200 to 1000 kPa.s and a viscosity value η300 at a temperature of 190 °C and a shear rate of 300 rad/s of 700 to 1500 Pa.s., the viscosity values being measured according to the method specified in the description. a melt flow index as measured according to ISO1133-1:2011 at 190 °C and 5 kg of 0.05 to 0.3 dg/min, a density of 956 to 962 kg/m 3 measured according to the method specified in the description, a comonomer content of 0.03 to 0.30 mol%, a viscosity value η0.05 at a temperature of 190 °C and a shear rate of 0.05 rad/s of 200 to 1000 kPa.s and a viscosity value η300 at a temperature of 190 °C and a shear rate of 300 rad/s of 700 to 1500 Pa.s., the viscosity values being measured according to the method specified in the description.
A method for providing orthogonality among signals transmitted by the transmit antennas of a multiple input multiple output, MIMO, radar system, the method comprising the following steps: (a) transmitting (S5A) distinct time-coded data signals from multiple, Nt, transmit antennas of a multiple input multiple output, MIMO, radar antenna array, wherein the distinct time-coded data signals are transmitted on N t consecutive time indices and represented by ( x i, ω i -1 x i, ω 2( í- 1) x i,..., ω ( N t -1) ( i- 1) x i), wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2,..., ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t, transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t, and ω z is the (z+1) th root of unity, z = (0, 1,..., Nt-1); and (b) processing (S5B) signals received by multiple receive antennas of said multiple input multiple output, MIMO, radar antenna array to separate a target response from all, Nt, transmit antennas of said multiple input multiple output, MIMO, radar antenna array. (a) transmitting (S5A) distinct time-coded data signals from multiple, Nt, transmit antennas of a multiple input multiple output, MIMO, radar antenna array, wherein the distinct time-coded data signals are transmitted on N t consecutive time indices and represented by ( x i, ω i -1 x i, ω 2( í- 1) x i,..., ω ( N t -1) ( i- 1) x i), wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2,..., ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t, transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t, and ω z is the (z+1) th root of unity, z = (0, 1,..., Nt-1); and wherein x i is the data transmitted by an ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 1, ω i - 1 x i is the data transmitted by the ith transmit antenna of the multiple, Nt, transmit antennas on time index k + 2,..., ω ( N t -1)( i- 1) x i is the data transmitted by the ith transmit antenna of the multiple, N t, transmit antennas on time index k + Nt, wherein k is an integer, i is an positive integer between 1 and N t, and ω z is the (z+1) th root of unity, z = (0, 1,..., Nt-1); and (b) processing (S5B) signals received by multiple receive antennas of said multiple input multiple output, MIMO, radar antenna array to separate a target response from all, Nt, transmit antennas of said multiple input multiple output, MIMO, radar antenna array.
Method for producing a fuel filler system for a motor vehicle, comprising the steps: - a tube shaped plastic part is introduced into a moulding tool - a pressure gas pin is inserted into a first end of the plastic part and the moulding tool is closed around the first end of the plastic part accommodating the pressure gas pin, - in case the opposite second end of the plastic part is still open, this end is also closed, - pressure gas is introduced into the plastic part through the pressure gas pin, whereby the plastic part is expanded and adjusted to the contour of the inner walls of the moulding tool for providing a pipe shape, - the pressure gas pin is retracted from the plastic part and a constriction of the first end of the plastic part resulting from the closing around the pressure gas pin is separated, - a fuel filler device is inserted into the first end of the plastic part while the plastic part is still located in the moulding tool, - a contact pressure is exerted from the outside onto the first end of the plastic part accommodating the fuel filler device, whereby a welding of the fuel filler device with the first end of the plastic part occurs, wherein the contact pressure exerted for welding the fuel filler device with the first end of the plastic part is effected through a movement of at least one additional moveable section of the moulding tool, - the finished plastic part is removed from the moulding tool together with the fuel filler device welded therein. - a tube shaped plastic part is introduced into a moulding tool - a pressure gas pin is inserted into a first end of the plastic part and the moulding tool is closed around the first end of the plastic part accommodating the pressure gas pin, - in case the opposite second end of the plastic part is still open, this end is also closed, - pressure gas is introduced into the plastic part through the pressure gas pin, whereby the plastic part is expanded and adjusted to the contour of the inner walls of the moulding tool for providing a pipe shape, - the pressure gas pin is retracted from the plastic part and a constriction of the first end of the plastic part resulting from the closing around the pressure gas pin is separated, - a fuel filler device is inserted into the first end of the plastic part while the plastic part is still located in the moulding tool, - a contact pressure is exerted from the outside onto the first end of the plastic part accommodating the fuel filler device, whereby a welding of the fuel filler device with the first end of the plastic part occurs, wherein the contact pressure exerted for welding the fuel filler device with the first end of the plastic part is effected through a movement of at least one additional moveable section of the moulding tool, - the finished plastic part is removed from the moulding tool together with the fuel filler device welded therein.
A dip treatment installation for the dip treatment of components, wherein the dip treatment installation has a component treatment tank for receiving liquid treatment medium having a tank opening, a tank heating means associated with the component treatment tank for temperature control of the treatment medium and a component treatment apparatus for dipping at least one component to be treated from above into the tank opening, wherein there are provided a cover web and a cover web storage means arranged outside the treatment medium, the cover web storage means has a winding device for the cover web and a housing for accommodating the winding device, the cover web can be unwound from the winding device and in that case areally covers the tank opening, the cover web can be wound on to the winding device and in that case clears the tank opening and the tank opening and the region above the tank opening are free of the winding device and the housing of the cover web storage means, wherein the cover web storage means is fitted on to a mounting surface beside the tank opening and the cover web storage means is arranged horizontally spaced from the tank edge of the tank opening, characterised in that on being unwound from the winding device the cover web floats on to the treatment medium, and preferably the portion of the cover web that is in the component treatment tank is supported in relation to the force of gravity exclusively by its static buoyancy in the treatment medium.
A heater comprising: a support that is made of an organic polymer and has a sheet shape; a heating element that is a transparent conductive film made of a polycrystalline material containing indium oxide as a main component; and at least one pair of power supply electrodes in contact with the heating element, wherein the heating element has a thickness of more than 20 nm and not more than 100 nm, characterized in that the heating element has a specific resistance of 1.4 × 10 -4 Ω.·cm to 2.7 × 10 -4 Ω.·cm. a support that is made of an organic polymer and has a sheet shape; a heating element that is a transparent conductive film made of a polycrystalline material containing indium oxide as a main component; and at least one pair of power supply electrodes in contact with the heating element, wherein the heating element has a thickness of more than 20 nm and not more than 100 nm, characterized in that the heating element has a specific resistance of 1.4 × 10 -4 Ω.·cm to 2.7 × 10 -4 Ω.·cm.
A non-aqueous electrolyte for non-aqueous electrolyte battery containing a non-aqueous solvent and a solute, the non-aqueous electrolyte for non-aqueous electrolyte battery containing at least lithium hexafluorophosphate as the solute, the electrolyte for non-aqueous electrolyte battery containing at least one siloxane compound, characterized in that the at least one siloxane compound is one with one of the following chemical formulae:
A method comprising: displaying information associated with a first message of a first type on a display of an electronic device; detecting initiation of a search associated with the first message; detecting selection of one of a plurality of displayed search menu options (404, 406, 408), the plurality of displayed search menu options including a sender option and a subject option; identifying, by the electronic device, a search request determined from an element of the first message, the determining being based on: a sender of the first message when the sender option is selected, and a subject of the first message when the subject option is selected; in response to the identifying, searching, by the electronic device, for a second message of the first type and a third message of a second type, wherein the second message and the third message correspond to the search request, and wherein a message corresponds to the search request when an element of the message is linked to an element of the search request by a record in an address book; displaying information associated with the second message and information associated with the third message. displaying information associated with a first message of a first type on a display of an electronic device; detecting initiation of a search associated with the first message; detecting selection of one of a plurality of displayed search menu options (404, 406, 408), the plurality of displayed search menu options including a sender option and a subject option; identifying, by the electronic device, a search request determined from an element of the first message, the determining being based on: a sender of the first message when the sender option is selected, and a subject of the first message when the subject option is selected; a sender of the first message when the sender option is selected, and a subject of the first message when the subject option is selected; in response to the identifying, searching, by the electronic device, for a second message of the first type and a third message of a second type, wherein the second message and the third message correspond to the search request, and wherein a message corresponds to the search request when an element of the message is linked to an element of the search request by a record in an address book; displaying information associated with the second message and information associated with the third message.
An injection molding machine comprising: a tank configured to store lubricating oil; an oil bath configured to accommodate a lubrication portion (381, 382, 383, 384) of the injection molding machine; a circulation mechanism configured to circulate the lubricating oil between the tank and the oil bath, characterized in that the injection molding machine further comprises: a magnet filter which is provided in the circulation mechanism and configured to collect a foreign matter flowing into the tank; and a collection portion which is provided in the oil bath, is capable of being separated from the oil bath, and configured to collect abrasion powder staying in the lubricating oil in the oil bath. a tank configured to store lubricating oil; an oil bath configured to accommodate a lubrication portion (381, 382, 383, 384) of the injection molding machine; a circulation mechanism configured to circulate the lubricating oil between the tank and the oil bath, characterized in that the injection molding machine further comprises: a magnet filter which is provided in the circulation mechanism and configured to collect a foreign matter flowing into the tank; and a collection portion which is provided in the oil bath, is capable of being separated from the oil bath, and configured to collect abrasion powder staying in the lubricating oil in the oil bath. a magnet filter which is provided in the circulation mechanism and configured to collect a foreign matter flowing into the tank; and a collection portion which is provided in the oil bath, is capable of being separated from the oil bath, and configured to collect abrasion powder staying in the lubricating oil in the oil bath.
A lubricant pump for conveying lubricant to at least one lubricating point, with a lubricant container, a pump unit, a drive assigned to this pump unit, at least one lubricant outlet, a control unit assigned to the drive and at least one heating element, which can be actuated by means of the control unit and/or an additional control unit, characterized in that an agitator is provided in the lubricant container and can be actuated by means of the drive of the pump unit and/or by means of an additional drive, wherein a measuring device is assigned to the drive of the agitator in order to measure the current consumption of the drive, and wherein said measuring device is connected to the control unit and/or to the additional control unit in order to actuate the at least one heating element in dependence on the current consumption.
A system comprising: a data storage device containing encrypted data to be decrypted; and a virtual zeroisation, VZ, storage device containing key material for decrypting data, wherein the VZ storage device comprises a storage device containing the key material for decrypting data, an encryption unit configured to decrypt the encrypted data by using a portion of the key material and store the decrypted data in the used portion of the key material, and an erase unit configured to erase the decrypted data stored in the storage device after the decrypted data has been read out from the storage device; a cache device comprising volatile memory and coupled to the VZ storage device, the cache device configured to temporarily store the decrypted data received from the storage device; a cache controller configured to erase the decrypted data from the cache device in response to an event, wherein the event is a user triggered event or environmental changes that are detected by sensors. a data storage device containing encrypted data to be decrypted; and a virtual zeroisation, VZ, storage device containing key material for decrypting data, wherein the VZ storage device comprises a storage device containing the key material for decrypting data, an encryption unit configured to decrypt the encrypted data by using a portion of the key material and store the decrypted data in the used portion of the key material, and an erase unit configured to erase the decrypted data stored in the storage device after the decrypted data has been read out from the storage device; a storage device containing the key material for decrypting data, an encryption unit configured to decrypt the encrypted data by using a portion of the key material and store the decrypted data in the used portion of the key material, and an erase unit configured to erase the decrypted data stored in the storage device after the decrypted data has been read out from the storage device; a cache device comprising volatile memory and coupled to the VZ storage device, the cache device configured to temporarily store the decrypted data received from the storage device; a cache controller configured to erase the decrypted data from the cache device in response to an event, wherein the event is a user triggered event or environmental changes that are detected by sensors.
A method of forming a one-stage stator vane cooling structure comprising: providing a plurality of linking members that are between a plurality of combustors disposed in the circumferential direction of a gas turbine; and providing cooling holes in each of one-stage stator vanes to discharge a cooling gas from an inside to an outside of the one-stage stator vanes in order to cool the one-stage stator vanes on the periphery of a stagnation line of combustion gas flowing in from the plurality of combustors; the method being characterised in that the cooling holes are formed at positions that are determined for the respective one-stage stator vane according to the fluctuation of the position at which the stagnation line is formed and that varies in accordance with the relative position of the one-stage stator vane and the linking member disposed in the vicinity of that one-stage stator vane. providing a plurality of linking members that are between a plurality of combustors disposed in the circumferential direction of a gas turbine; and providing cooling holes in each of one-stage stator vanes to discharge a cooling gas from an inside to an outside of the one-stage stator vanes in order to cool the one-stage stator vanes on the periphery of a stagnation line of combustion gas flowing in from the plurality of combustors; the method being characterised in that the cooling holes are formed at positions that are determined for the respective one-stage stator vane according to the fluctuation of the position at which the stagnation line is formed and that varies in accordance with the relative position of the one-stage stator vane and the linking member disposed in the vicinity of that one-stage stator vane.
Inductive power transfer circuit, comprising at least an inductive rotating coupler having a primary side rotably arranged against a secondary side, the primary side comprising at least a primary winding, the secondary side comprising at least a secondary winding, a rectifier (221 - 224) connected to the secondary side, and a capacitor further connected to the rectifier, the secondary side further having a positive output and a negative output, for delivering a DC voltage, to a load at the secondary side, characterized in that one of the positive output or negative output is connected to a secondary ground at the rotating part which is further coupled via a galvanic contact to a protective earth at the primary side.