mhurhangee/ep-ind-claims huggingface dataset:
A two-needle sewing machine, comprising: a bed part on which a material to be sewn is placed; a column part erected upward from one side of the bed part; an arm part provided substantially parallel to the bed part at an upper portion of the column part; a needle shaft provided at a leading part of the arm part to reciprocate vertically by a driving motor; two sewing needles (13, 14) mounted on the needle shaft; two horizontal hooks (15, 16) provided in the bed part and catch respective loops of needle threads of two sewing needles (13, 14); and a conveyor member that conveys the material to be sewn in a conveyance direction approximately orthogonal to the bed part, CHARACTERIZED IN THAT the sewing needle arranged at the position distant from the column part is positioned at a front side of the conveyance direction, and the sewing needle arranged at the position closer to the column part is positioned at a rear side of the conveyance direction, so that a pair of stitches (31B, 32B; 31C,32C; 31D,32D) having a stitch width (D2; D3; D4) smaller than a common stitch width can be formed on a periphery of a convex portion (46,48) of a material to be sewn without contact of the material to be sewn with the column part by conveying the material to be sewn in a direction distant from the column part with respect to the conveyance direction of the conveyor member. a bed part on which a material to be sewn is placed; a column part erected upward from one side of the bed part; an arm part provided substantially parallel to the bed part at an upper portion of the column part; a needle shaft provided at a leading part of the arm part to reciprocate vertically by a driving motor; two sewing needles (13, 14) mounted on the needle shaft; two horizontal hooks (15, 16) provided in the bed part and catch respective loops of needle threads of two sewing needles (13, 14); and a conveyor member that conveys the material to be sewn in a conveyance direction approximately orthogonal to the bed part, CHARACTERIZED IN THAT the sewing needle arranged at the position distant from the column part is positioned at a front side of the conveyance direction, and the sewing needle arranged at the position closer to the column part is positioned at a rear side of the conveyance direction, so that a pair of stitches (31B, 32B; 31C,32C; 31D,32D) having a stitch width (D2; D3; D4) smaller than a common stitch width can be formed on a periphery of a convex portion (46,48) of a material to be sewn without contact of the material to be sewn with the column part by conveying the material to be sewn in a direction distant from the column part with respect to the conveyance direction of the conveyor member.
A heating body for a cooling circuit of an air-conditioning system of a motor vehicle regulated on the air or water side, wherein the heating body has a plurality of flat tubes through which coolant can flow, each having a flat tube wall in order to delimit at least one channel (23, 24) extending in the flat tube interior and wherein the flat tube wall of at least one of the flat tubes has different wall thicknesses (26; 27, 28, 29, 30, 31), wherein the at least one flat tube having different wall thicknesses forms at least one bead (32, 33), characterised in that the wall thickness of the flat tube wall in the cross-section seen transversely or perpendicular to the longitudinal axis of the flat tube is larger in the end areas (38, 39) located in the width direction and in the areas (40, 41) bordering the at least one bead (32, 33), in particular on both sides, than in the areas (42, 43) bordering the end areas (38, 39) located in the width direction, as seen from the width direction, and/or is larger than in the areas (42, 43) bordering, as seen from the width direction, areas (40, 41) bordering the at least one bead (32, 33) and wherein the flat tubes are extruded flat tubes.
A fuel cell layer of a multi-layer fuel cell, comprising: a cathode; an anode; an electrolyte disposed between the anode and the cathode; a support layer disposed at the anode opposite the electrolyte; a separator plate disposed at the support layer opposite the anode, the support layer configured to contact the cathode of an adjacent fuel cell layer, the separator plate defining a plurality of anode flow channels configured to deliver a fuel therethrough and a plurality of cathode flow channels configured to deliver an air flow therethrough wherein the anode flow channels and the cathode flow channels at least partially overlap along a stacking axis direction of the multilayer fuel cell. a cathode; an anode; an electrolyte disposed between the anode and the cathode; a support layer disposed at the anode opposite the electrolyte; a separator plate disposed at the support layer opposite the anode, the support layer configured to contact the cathode of an adjacent fuel cell layer, the separator plate defining a plurality of anode flow channels configured to deliver a fuel therethrough and a plurality of cathode flow channels configured to deliver an air flow therethrough wherein the anode flow channels and the cathode flow channels at least partially overlap along a stacking axis direction of the multilayer fuel cell.
A gas discharge tube, comprising at least two electrodes (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) and an insulating tube body (12, 22, 32, 42, 52, 62, 72, 162, 82, 147, 92) which is connected in a sealing manner with the electrodes (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) to form a discharge inner cavity, the discharge inner cavity being filled with gas, wherein a low-temperature sealing solder or a low-temperature sealing adhesive (13, 23, 33, 43, 53, 63, 73, 163, 83, 148, 93) for sealing the discharge inner cavity is arranged in the gas discharge tube, the low-temperature sealing solder or low-temperature sealing adhesive (13, 23, 33, 43, 53, 63, 73, 163, 83, 148, 93) being capable of melting at a specific low temperature to cause gas leakage in the discharge inner cavity; wherein the low-temperature is 500 °C or below; wherein at least one electrode (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) of the electrodes (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) is connected in the sealing manner with the insulating tube body (12, 22, 32, 42, 52, 62, 72, 162, 82, 147, 92) through the low-temperature sealing solder or the low-temperature sealing adhesive (13, 23, 33, 43, 53, 63, 73, 163, 83, 148, 93); characterized in that, protective layers having a heat conductivity coefficient less than that of the electrodes (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) are arranged on outer surfaces of the electrodes (11, 21, 31, 41, 51, 61, 71, 161, 81, 146, 91) and the low-temperature sealing solder or the low-temperature sealing adhesive (13, 23, 33, 43, 53, 63, 73, 163, 83, 148, 93); wherein the protective layers are arranged to reduce heat transferred from an inside of the gas discharge tube to an outside of the the gas discharge tube.
A method of wireless communication performed by a user equipment, UE, comprising: receiving, from a source base station, BS, an indication that the UE is to perform a conditional handover from the source BS to a target BS, wherein the conditional handover includes a handover where a handover command is associated with a condition, wherein the indication is included in a radio resource control, RRC, connection reconfiguration request; preparing a two protocol stack handover from the source BS to the target BS, wherein the two protocol stack handover is a multi-phase handover, in which the UE continues downlink/uplink data communications with the source BS while in parallel performing RRC processing to configure the target protocol stack to perform the handover; and performing the two protocol stack handover when the UE determines the condition is satisfied for the target BS, by sending an RRC connection reconfiguration message to the target BS. receiving, from a source base station, BS, an indication that the UE is to perform a conditional handover from the source BS to a target BS, wherein the conditional handover includes a handover where a handover command is associated with a condition, wherein the indication is included in a radio resource control, RRC, connection reconfiguration request; preparing a two protocol stack handover from the source BS to the target BS, wherein the two protocol stack handover is a multi-phase handover, in which the UE continues downlink/uplink data communications with the source BS while in parallel performing RRC processing to configure the target protocol stack to perform the handover; and performing the two protocol stack handover when the UE determines the condition is satisfied for the target BS, by sending an RRC connection reconfiguration message to the target BS.
Product wrapping machine comprising transport means causing the products to move in a forward movement direction, a plurality of transverse counter-jaws that are homogenously distributed in the forward movement direction and separated from one another by a specific separation distance suitable for housing a product, a lower unwinder for a first reel of film, causing the film from the first reel to be arranged on the counter-jaws, an upper unwinder for a second reel of film, causing the film from the second reel to be arranged on the products to be wrapped, a plurality of transverse jaws that are homogenously distributed in the forward movement direction separated from one another by the same separation distance existing between the counter-jaws, the jaws moving in a closing direction perpendicular to the forward movement direction from an opening position to a closing position against the counter-jaws for sealing together the films to one another and cutting them, and each jaw being suitable for forming at least one seal between two films and for cutting the sealed films in an intermediate area of the seal, and a positioning device moving all the jaws integrally in the forward movement direction, characterized in that the machine further comprises a jaw actuator for each jaw causing the corresponding jaw to move in the closing direction, such that the jaws are suitable for moving simultaneously in the forward movement direction and for moving independently from one another in the closing direction; a tensioner or rocker arm suitable for collecting part of the film wrapping the product when a jaw leaves the closing position, the tensioner being associated with the upper unwinder and being suitable for acting on the film from the second reel arranged in said upper unwinder; and control means for causing the jaws to move from an opening position to a closing position and vice versa in a sequential manner, further said control means causing a jaw to move to its closing position when the preceding jaw moving before it to its corresponding closing position has returned to its opening position and once the tensioner has collected part of the film wrapping the corresponding product.
A method for generating a protected version of an executable digital content, the method comprising: installing at least one check in the digital content, the at least one check comprising at least one device parameter, wherein the at least one check is successfully validated when executed on a client corresponding to the at least one device parameter; and protecting the digital content including the installed at least one check using the at least one device parameter, thereby, generating the protected version of the digital content, wherein the protecting comprises: encrypting with the at least one device parameter, the digital content containing the installed at least one check; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content. installing at least one check in the digital content, the at least one check comprising at least one device parameter, wherein the at least one check is successfully validated when executed on a client corresponding to the at least one device parameter; and protecting the digital content including the installed at least one check using the at least one device parameter, thereby, generating the protected version of the digital content, wherein the protecting comprises: encrypting with the at least one device parameter, the digital content containing the installed at least one check; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content. encrypting with the at least one device parameter, the digital content containing the installed at least one check; generating a decryption logic to be used for generating a decryption key at the client based upon the at least one device parameter; and concatenating the encrypted digital content and the decryption logic thereby wherein the decryption logic is obfuscated, thereby generating the protected version of the digital content.
A connection between two spring ends (2,3) of a spring strand, characterized in that the winding diameter of the end windings is decreased at least in the area of each of the two ends (2,3), and a pitch of the end windings is increased in the area of each of the two ends with respect to the pitch of the body of the spring, and the two ends by a section rest against and overlap each other and are connected to each other by means of adhesive bonding.
A lithium ion strengthened glass article comprising: an interior portion comprising a base glass and lithium ions; a witness layer having different thicknesses at different locations of the lithium ion strengthened glass article; and a compression layer between the interior portion and the witness layer; wherein: the compression layer is under compression; the compression layer has a lower content of lithium ions and a greater content of sodium ions than the interior portion; the witness layer is under compression; and the witness layer has a lower content of sodium ions and a greater content of potassium ions than the compression layer. an interior portion comprising a base glass and lithium ions; a witness layer having different thicknesses at different locations of the lithium ion strengthened glass article; and a compression layer between the interior portion and the witness layer; the compression layer is under compression; the compression layer has a lower content of lithium ions and a greater content of sodium ions than the interior portion; the witness layer is under compression; and the witness layer has a lower content of sodium ions and a greater content of potassium ions than the compression layer.
A sensor arrangement, comprising - a switchable voltage source having a source output for alternatively providing a first and a second excitation voltage (V1, V2), - an integrator having an integrator input and an integrator output, - a sensor resistor having a first terminal coupled to the source output, - a reference resistor having a first terminal coupled to a second terminal of the sensor resistor and a second terminal coupled to the integrator input, - a comparator having a first comparator input coupled to the integrator output, wherein the comparator comprises a second comparator input to which a first and a second comparator reference voltage (VH, VL) is alternatively provided, - a latch having a first latch input coupled to a comparator output of the comparator and a first latch output, - a logic circuit having an output and having an input coupled to the first latch output of the latch, - a calculation circuit that is coupled to the output of the logic circuit, wherein the calculation circuit comprises an output for providing a result signal. - a switchable voltage source having a source output for alternatively providing a first and a second excitation voltage (V1, V2), - an integrator having an integrator input and an integrator output, - a sensor resistor having a first terminal coupled to the source output, - a reference resistor having a first terminal coupled to a second terminal of the sensor resistor and a second terminal coupled to the integrator input, - a comparator having a first comparator input coupled to the integrator output, wherein the comparator comprises a second comparator input to which a first and a second comparator reference voltage (VH, VL) is alternatively provided, - a latch having a first latch input coupled to a comparator output of the comparator and a first latch output, - a logic circuit having an output and having an input coupled to the first latch output of the latch, - a calculation circuit that is coupled to the output of the logic circuit, wherein the calculation circuit comprises an output for providing a result signal.
A thermally conductive material comprising: a polymer containing a thermally conductive filler and an antioxidant; the polymer being a polymer of a monomer containing an acrylic ester, titanate-treated aluminum hydroxide having an average particle size of 1 to 10 μm and higher fatty acid-treated magnesium hydroxide having an average particle size of 0.5 to 1.5 μm being at least contained as the thermally conductive filler, a hindered phenol-based antioxidant being contained as the antioxidant, a thermal conductivity being 3.2 W/m·K or greater, and an initial Asker C hardness at ambient temperature being 22 or less and a content ratio of the aluminum hydroxide to the magnesium hydroxide in terms of weight ratio is 3:1. a polymer containing a thermally conductive filler and an antioxidant; the polymer being a polymer of a monomer containing an acrylic ester, titanate-treated aluminum hydroxide having an average particle size of 1 to 10 μm and higher fatty acid-treated magnesium hydroxide having an average particle size of 0.5 to 1.5 μm being at least contained as the thermally conductive filler, a hindered phenol-based antioxidant being contained as the antioxidant, a thermal conductivity being 3.2 W/m·K or greater, and an initial Asker C hardness at ambient temperature being 22 or less and a content ratio of the aluminum hydroxide to the magnesium hydroxide in terms of weight ratio is 3:1.
An aqueous cosmetic composition comprising: a) one or more compound(s) according to the general structure wherein R 1 is selected from straight, saturated or unsaturated alkyl chain with C 1 to C 22, or branched, saturated or unsaturated alkyl chain with C 3 to C 22, phenyl alkoxy group with an alkyl chain length of C 1 to C 4, and/or phenoxy alkyl group with an alkyl chain of C 1 to C 4, and wherein the proline moiety has either D and/or L configuration, b) pyrrolidone carboxylic acid and/or its salt, c) amodimethicone, wherein amodimethicone is added to the composition as microemulsion. a) one or more compound(s) according to the general structure wherein R 1 is selected from straight, saturated or unsaturated alkyl chain with C 1 to C 22, or branched, saturated or unsaturated alkyl chain with C 3 to C 22, phenyl alkoxy group with an alkyl chain length of C 1 to C 4, and/or phenoxy alkyl group with an alkyl chain of C 1 to C 4, and wherein the proline moiety has either D and/or L configuration, b) pyrrolidone carboxylic acid and/or its salt, c) amodimethicone, wherein amodimethicone is added to the composition as microemulsion.
Method for operating a gas burner, wherein a gas/combustion-air mixture is fed to the gas burner for burning in the gas burner, wherein a flame of the gas burner forming during the combustion in the gas burner is monitored with the aid of an ionization sensor providing an ionization current as a measured variable, and wherein the composition and/or the amount of the gas/combustion-air mixture to be fed to the gas burner is set on the basis of the ionization current provided with the aid of the ionization sensor, characterized in that, on the basis of the ionization current provided with the aid of the ionization sensor, the composition of the gas/combustion-air mixture is set in the sense of a calibration discontinuously at defined operating points of the gas burner in such a way that, depending on the ionization current, the opening position of a gas valve integrated in a gas line is set and this setting is subsequently used to control the amount of the gas/combustion-air mixture to be fed to the gas burner independently of the ionization current by way of the rotational speed of a fan or blower, wherein it is determined from the ionization current provided by the ionization sensor whether and if so to what extent the gas/combustion-air mixture fed to the gas burner and a combustion chamber of the gas burner contain contaminants, wherein, whenever it is found that these contaminants or the extent of the same is less than a first limit value, the composition of the gas/combustion-air mixture is set on the basis of the ionization current provided with the aid of the ionization sensor in the sense of the calibration and wherein, whenever it is found that these contaminants or the extent of the same is greater than a second limit value, the composition of the gas/combustion-air mixture is not set on the basis of the ionization current provided with the aid of the ionization sensor in the sense of the calibration.
A process for the purification of a crude mixture of a pharmaceutically acceptable salt of escitalopram comprising: a. dissolving said salt in water; b. adjusting the pH of the aqueous layer to 7.0-7.7 with a base; c. extracting said escitalopram with an organic solvent; d. isolating organic and aqueous layers; e. optionally repeating steps (b) - (d) one or more times on the isolated aqueous layer of step (d); f. combining organic extract layers and optionally washing organic layer with water; and g. isolating and optionally drying the organic layer of step (f) and removing organic solvent, wherein the process involves the removal of diamine impurities from the crude mixture. a. dissolving said salt in water; b. adjusting the pH of the aqueous layer to 7.0-7.7 with a base; c. extracting said escitalopram with an organic solvent; d. isolating organic and aqueous layers; e. optionally repeating steps (b) - (d) one or more times on the isolated aqueous layer of step (d); f. combining organic extract layers and optionally washing organic layer with water; and g. isolating and optionally drying the organic layer of step (f) and removing organic solvent, wherein the process involves the removal of diamine impurities from the crude mixture.