mhurhangee/ep-ind-claims huggingface dataset:
A turboexpander and driven turbomachine system comprising: a turboexpander configured for expanding a first fluid and comprising at least one expander stage with one expander impeller; at least a first set of moveable inlet guide vanes at the inlet of said at least one expander stage; a driven turbomachine configured for processing a second fluid, different from the first fluid, and comprising at least one turbomachine impeller; a second set of moveable inlet guide vanes at the inlet of said turbomachine impeller; a mechanical transmission between said turboexpander and said driven turbomachine; wherein said first set of moveable inlet guide vanes are controlled for maximizing power generated by said turboexpander; and a controller connected to said second set of moveable inlet guide vanes and configured for controlling the second set of moveable inlet guide vanes to adjust the rotary speed of said turbomachine and said driven turboexpander; wherein said controller is configured for receiving information on said rotary speed and controlling said second set of moveable inlet guide vanes to adjust said rotary speed at a desired speed value, wherein said controller is configured for maintaining said rotary speed within a range around a constant speed value. a turboexpander configured for expanding a first fluid and comprising at least one expander stage with one expander impeller; at least a first set of moveable inlet guide vanes at the inlet of said at least one expander stage; a driven turbomachine configured for processing a second fluid, different from the first fluid, and comprising at least one turbomachine impeller; a second set of moveable inlet guide vanes at the inlet of said turbomachine impeller; a mechanical transmission between said turboexpander and said driven turbomachine; wherein said first set of moveable inlet guide vanes are controlled for maximizing power generated by said turboexpander; and a controller connected to said second set of moveable inlet guide vanes and configured for controlling the second set of moveable inlet guide vanes to adjust the rotary speed of said turbomachine and said driven turboexpander; wherein said controller is configured for receiving information on said rotary speed and controlling said second set of moveable inlet guide vanes to adjust said rotary speed at a desired speed value, wherein said controller is configured for maintaining said rotary speed within a range around a constant speed value.
A communication apparatus comprising: one or more communication sections each configured to communicate with other communication apparatuses via a wireless communication channel; an estimation section configured to estimate, on a basis of reception results of a wireless signal by at least some of the one or more communication sections, an incoming direction of the wireless signal; and an output control section configured to exercise control in such a manner that notification information according to an estimation result of the incoming direction is presented via an output section; characterised in that the communication section is configured in such a manner as to be able to control a directional beam pattern related to the reception of the wireless signal, and the estimation section is configured to estimate, on a basis of identification information associated with the directional beam used by the communication section for the reception of the wireless signal, the incoming direction of the wireless signal in question. one or more communication sections each configured to communicate with other communication apparatuses via a wireless communication channel; an estimation section configured to estimate, on a basis of reception results of a wireless signal by at least some of the one or more communication sections, an incoming direction of the wireless signal; and an output control section configured to exercise control in such a manner that notification information according to an estimation result of the incoming direction is presented via an output section; characterised in that the communication section is configured in such a manner as to be able to control a directional beam pattern related to the reception of the wireless signal, and the estimation section is configured to estimate, on a basis of identification information associated with the directional beam used by the communication section for the reception of the wireless signal, the incoming direction of the wireless signal in question.
A method (200, 400, 600) for determining the presence of an electrical discharge in at least one predetermined spatial area in an electrical apparatus, the method comprising: providing (202, 402, 602) a first directional sensing device (111, 311) directed to a first subset of the at least one predetermined spatial areas and at least one second directional sensing device (112-114, 312-314) directed to at least one second subset of the at least one predetermined spatial areas; providing (203, 403, 603) a predetermined mapping comprising data corresponding to a position of the first and at least one second directional sensing devices (111-114, 311-314), a direction in which each of the first and at least one second directional sensing devices (111-114, 311-314) are directed, and a position of the at least one predetermined spatial area; sensing (204, 404, 604) at least two signals (S1-S4) using the first and at least one second directional sensing devices (111-114, 311-314); and processing (207, 407, 607) the at least two signals (S1-S4) based on the predetermined mapping to determine the presence of the electrical discharge in the at least one predetermined spatial area. providing (202, 402, 602) a first directional sensing device (111, 311) directed to a first subset of the at least one predetermined spatial areas and at least one second directional sensing device (112-114, 312-314) directed to at least one second subset of the at least one predetermined spatial areas; providing (203, 403, 603) a predetermined mapping comprising data corresponding to a position of the first and at least one second directional sensing devices (111-114, 311-314), a direction in which each of the first and at least one second directional sensing devices (111-114, 311-314) are directed, and a position of the at least one predetermined spatial area; sensing (204, 404, 604) at least two signals (S1-S4) using the first and at least one second directional sensing devices (111-114, 311-314); and processing (207, 407, 607) the at least two signals (S1-S4) based on the predetermined mapping to determine the presence of the electrical discharge in the at least one predetermined spatial area.
A light mixing element (100, 200) in a shape of a prism, a cylinder of the prism of the light mixing element (100, 200) including: a light mixing element first light-emitting inclined surface (101, 201); a light mixing element second light-emitting inclined surface (102, 202), of which one first side is connected with one first side of the light mixing element first light-emitting inclined surface (101, 201) to form a top angle (a); a bottom surface arranged opposite to the top angle formed by the light mixing element first light-emitting inclined surface (101, 201) and the light mixing element second light-emitting inclined surface (102, 202); a reflecting inclined surface connected between a first side of the bottom surface and a second side of the light mixing element first light-emitting inclined surface (101, 201) opposite to said first side of the light mixing element first light-emitting inclined surface (101, 201), said reflecting inclined surface being arranged opposite to the light mixing element second light-emitting inclined surface (102, 202) characterized in that the light mixing element (100, 200) further comprises a light mixing element incident surface connected between one second side of the bottom surface opposite to said first side of the bottom surface and a second side of the light mixing element second light-emitting inclined surface (102, 202) opposite to said first side of the light mixing element second light-emitting inclined surface (102, 202) such that said reflecting inclined surface is arranged opposite to the light mixing element incident surface. a light mixing element first light-emitting inclined surface (101, 201); a light mixing element second light-emitting inclined surface (102, 202), of which one first side is connected with one first side of the light mixing element first light-emitting inclined surface (101, 201) to form a top angle (a); a bottom surface arranged opposite to the top angle formed by the light mixing element first light-emitting inclined surface (101, 201) and the light mixing element second light-emitting inclined surface (102, 202); a reflecting inclined surface connected between a first side of the bottom surface and a second side of the light mixing element first light-emitting inclined surface (101, 201) opposite to said first side of the light mixing element first light-emitting inclined surface (101, 201), said reflecting inclined surface being arranged opposite to the light mixing element second light-emitting inclined surface (102, 202) characterized in that the light mixing element (100, 200) further comprises a light mixing element incident surface connected between one second side of the bottom surface opposite to said first side of the bottom surface and a second side of the light mixing element second light-emitting inclined surface (102, 202) opposite to said first side of the light mixing element second light-emitting inclined surface (102, 202) such that said reflecting inclined surface is arranged opposite to the light mixing element incident surface.
An intramedullary rod for use with a fastener to repair a bone in a mammalian body comprising an elongate nail extending along a central longitudinal axis and having a stem and a head, the head including a proximal end provided with a proximal opening and being provided with an aperture extending at an angle to the longitudinal axis and adapted to receive the fastener, the aperture communicating with a first transverse opening and an opposite second transverse opening in the head relative to the central longitudinal axis, characterized in that a mechanism is carried by the head and actuatable through the proximal opening for engaging the fastener adjacent the second transverse opening of the aperture so as to pivot the fastener within the first transverse opening of the aperture from a first angled position relative to the head to a second angled position relative to the head, the second transverse opening being elongate to accommodate pivoting of the fastener.
A woven fabric that has a front side and a back side, said fabric having warp yarns and weft yarns (105, 106), the weft yarns extending over selected warp yarns to provide over portions on said front side and extending on the back side of the fabric between two adjacent over portions to define under portions of the weft yarns, wherein the weft yarns comprise a plurality of first, hard, weft yarns that have a first shrinkage ratio and a plurality of second, elastomeric, weft yarns that have a second shrinkage ratio, wherein the second weft yarns have a shrinkage ratio greater than the shrinkage ratio of the first weft yarns; the hard yarns form alternately arranged under portions and over portions with respect to said warp yarns, said under portions being formed when said hard yarns pass along the back side of the warp yarns and defining loop portions, and said over portions being formed when said hard yarns pass along the front side of the warp yarns and defining connection portions, said loops being provided on said back side of the fabric; wherein said first and second weft yarnns are alternated to provide a fabric 101) pattern; and the loop portions of adjacent hard yarns and the connection portions, formed by the over portions of the first weft yarns, of adjacent hard yarns form a pattern extending in a diagonal direction with respect to the warp yarns and to the weft yarns to provide a diagonal pattern, wherein the fabric stretches in a diagonal direction with respect to the warp and the weft yarns, characterized in that: the under portions of said plurality of first weft yarns form loops that extend to cover at least 6 warp yarns and in that the under portions of said second weft yarns extend for an amount of warp yarns that is less than 6 to provide a tighter weave of the second weft yarns; the number of warp yarns passed by the loop portion formed by the under portions of the first weft yarns is at least 6 times the number of warp yarns passed by the connection portions formed by the over portions of the first weft yarns; the number of warp yarns passed by the loop portion is within the range of 6 to 24. the under portions of said plurality of first weft yarns form loops that extend to cover at least 6 warp yarns and in that the under portions of said second weft yarns extend for an amount of warp yarns that is less than 6 to provide a tighter weave of the second weft yarns;
Receiving apparatus for an electronic device, in particular of a machine tool, comprising a receiving device for receiving the electronic device and a fastening device (50, 61) for connecting the receiving device to a housing of the machine tool, characterized in that a displacement device (25, 59) is provided which is connected to a displacement mechanism (20, 58) of the receiving device such that the receiving device is displaceable relative to the displacement device (25, 59), a blocking device (30, 60) being provided which interacts with the displacement mechanism (20, 58) and is coupled to the displacement device (25, 59), the displacement device (25, 59) being connectable to the housing of the machine tool by means of the fastening device (50, 61), and it being possible for the blocking device (30, 60) to be secured to the displacement mechanism (20, 58) by means of the fastening device (50, 61) when the fastening device (50, 61) is connected to the housing of the machine tool, and it thus being possible for a displacement of the displacement device (25, 59) relative to the displacement mechanism (20, 58) to be prevented.
Fuel for self-ignition engines, containing the following constituents a) at least one low-molecular polyoxymethylene dialkyl ether of the formula RO(-CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 1 to 5, b) 0.05 to 5 % by weight of at least one polyalkylene glycol alkyl ether of the formula R 1 O(-CH 2 -CHR 2 -O-) n H as well as mixed polymers thereof and/or of the formula H(-O-CHR 2 -CH 2 -)n-OCH 2 -CH 2 -O-(-CH 2 -CHR 2 -O-)nH as well as mixed polymers thereof, wherein R 1 is a C 1 to C 4 alkyl group, R 2 is a hydrogen group or methyl group and n is 10 to 200, as well as mixtures of these polyalkylene glycol alkyl ethers, c) 0 to 20 % by weight of at least one higher-molecular polyoxymethylene dialkyl ether of the formula RO(-CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 6 to 10, d) 1 to 5 % by weight of at least one higher-molecular polyethylene glycol dialkyl ether of the formula RO(-CH 2 CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 11 to 23, e) 0 to 0.5 % by weight of at least one organic peroxide compound, f) 0 to 0.1 % by weight of at least one longer-chain fatty acid and g) 0 to 12 % by weight dimethyl ether, wherein the proportion missing to 100 % by weight falls to the at least one low-molecular polyoxymethylene dialkyl ether. a) at least one low-molecular polyoxymethylene dialkyl ether of the formula RO(-CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 1 to 5, b) 0.05 to 5 % by weight of at least one polyalkylene glycol alkyl ether of the formula R 1 O(-CH 2 -CHR 2 -O-) n H as well as mixed polymers thereof and/or of the formula H(-O-CHR 2 -CH 2 -)n-OCH 2 -CH 2 -O-(-CH 2 -CHR 2 -O-)nH as well as mixed polymers thereof, wherein R 1 is a C 1 to C 4 alkyl group, R 2 is a hydrogen group or methyl group and n is 10 to 200, as well as mixtures of these polyalkylene glycol alkyl ethers, c) 0 to 20 % by weight of at least one higher-molecular polyoxymethylene dialkyl ether of the formula RO(-CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 6 to 10, d) 1 to 5 % by weight of at least one higher-molecular polyethylene glycol dialkyl ether of the formula RO(-CH 2 CH 2 O-) n R, wherein R is a C 1 to C 4 alkyl group and n is 11 to 23, e) 0 to 0.5 % by weight of at least one organic peroxide compound, f) 0 to 0.1 % by weight of at least one longer-chain fatty acid and g) 0 to 12 % by weight dimethyl ether, wherein the proportion missing to 100 % by weight falls to the at least one low-molecular polyoxymethylene dialkyl ether.
A process for the preparation of a compound with at least one five-membered cyclic monothiocarbonate group, wherein a) a compound C1 with at least one halohydrin group is used as starting material, b) compound C1 is reacted with phosgene or an alkyl chloroformate to give an adduct C2, and c) the adduct C2 is reacted with a compound comprising anionic sulfur to obtain the compound with at least one five-membered cyclic monothiocarbonate group, wherein the compound comprising anionic sulfur is a salt comprising anionic sulfur, selected from S 2-, a polysulfide of formula (S p) 2- with p being an integral number from 2 to 200 and HS 1-, or H 2 S in the presence of a basic compound. a) a compound C1 with at least one halohydrin group is used as starting material, b) compound C1 is reacted with phosgene or an alkyl chloroformate to give an adduct C2, and c) the adduct C2 is reacted with a compound comprising anionic sulfur to obtain the compound with at least one five-membered cyclic monothiocarbonate group, wherein the compound comprising anionic sulfur is a salt comprising anionic sulfur, selected from S 2-, a polysulfide of formula (S p) 2- with p being an integral number from 2 to 200 and HS 1-, or H 2 S in the presence of a basic compound.
A combination of a hand truck and a ladder, the combination comprising at least one wheel and a carrier plate, in which the combination can be easily disassembled into parts and reassembled, wherein a first part comprises the ladder and a second part comprises the at least one wheel and the carrier plate, in which the combination also comprises coupling means (6a-6d) for realizing a mutual coupling of the parts (1a, 1b), characterized in that, the coupling means (6a-6d) comprise at least one first protruding part arranged on the ladder and at least one recess corresponding therewith and arranged in the second part, wherein the at least one first protruding part and the at least one recess together form a pivot axis, and the coupling means (6a-6d) comprise at least one second protruding part arranged on the ladder and at least one third protruding_part corresponding therewith and arranged on the second part, wherein the at least one second protruding part and the at least one third protruding part form a coupling between the first and second parts (1a, 1b).
A bit generator for generating random bits in a True Random Number Generator, the bit generator comprising one or more RS-latch circuits, each RS-latch circuit being configured to generate random bits, each RS-latch circuit comprising a first NAND gate, a second NAND gate, a first input buffer, a second input buffer, a first output buffer, and a second output buffer, the first NAND gate being connected to the first input buffer via a first input wire and being connected to the first output buffer via a first output wire, an output of the first NAND gate providing said generated random bits and being fed back to the second NAND gate via a first feedback wire, an output of the second NAND gate being fed back to the first NAND gate via a second feedback wire, wherein: - the first feedback wire comprising a first vertical wire routed vertically on a second metallic layer and a first horizontal wire, routed horizontally on a third metallic layer, and - the second feedback wire comprises a second vertical wire routed vertically on said second metallic layer and a second horizontal wire routed horizontally on said third metallic layer, wherein each NAND gate and each buffer has one or more input ports and an output port, wherein the first and second feedback wires (409, 412) have same points of connections with said input and output ports, the same length of the first vertical wire and of the second vertical wire being used at the routing on the second metallic layer, and the same lengths of the first horizontal wire of the first feedback wire and the second horizontal wire of the second feedback wire being used at the routing on the third metallic layer. - the first feedback wire comprising a first vertical wire routed vertically on a second metallic layer and a first horizontal wire, routed horizontally on a third metallic layer, and - the second feedback wire comprises a second vertical wire routed vertically on said second metallic layer and a second horizontal wire routed horizontally on said third metallic layer, wherein each NAND gate and each buffer has one or more input ports and an output port, wherein the first and second feedback wires (409, 412) have same points of connections with said input and output ports, the same length of the first vertical wire and of the second vertical wire being used at the routing on the second metallic layer, and the same lengths of the first horizontal wire of the first feedback wire and the second horizontal wire of the second feedback wire being used at the routing on the third metallic layer.
A charging control apparatus for a vehicle, the vehicle including a motor generator and an electric power storage device, the motor generator being configured to be coupled to drive wheels, the electric power storage device being electrically connected to the motor generator, the charging control apparatus comprising: a communication device configured to receive data from a server that aggregates record data indicative of a travel record of each of the vehicles; and a controller configured to execute processing for external charging that is charging of the electric power storage device by electric power supplied from a power supply on the outside of the vehicle, the controller being configured to execute the external charging until a target value of State Of Charge of the electric power storage device, characterized in that in a case where the controller predicts, by subtracting a first target value from a maximum value of State of Charge aggregated in the server, that the State Of Charge would exceed the target value by a specified amount or larger in a section of a travel route of the vehicle when the vehicle would start traveling after completion of external charging until a first target value, the controller is configured to lower the target value from the first target value to a second target value after an inlet of the vehicle is connected to a connector of a charging stand and prior to completion of the external charging. a communication device configured to receive data from a server that aggregates record data indicative of a travel record of each of the vehicles; and a controller configured to execute processing for external charging that is charging of the electric power storage device by electric power supplied from a power supply on the outside of the vehicle, the controller being configured to execute the external charging until a target value of State Of Charge of the electric power storage device, characterized in that in a case where the controller predicts, by subtracting a first target value from a maximum value of State of Charge aggregated in the server, that the State Of Charge would exceed the target value by a specified amount or larger in a section of a travel route of the vehicle when the vehicle would start traveling after completion of external charging until a first target value, the controller is configured to lower the target value from the first target value to a second target value after an inlet of the vehicle is connected to a connector of a charging stand and prior to completion of the external charging.