mhurhangee/ep-ind-claims huggingface dataset:
A method for heat dissipation using a hygroscopic working fluid (1, 12, 14, 17, 23, 30) comprising: removing heat from a process heat exchanger (4, 32) to absorb thermal energy for dissipation using the hygroscopic working fluid; flowing an ambient air stream from outside a compartment of a fluid-air contactor to inside the compartment of the fluid-air contactor, wherein the ambient air stream comprises the ambient atmosphere; flowing a gas stream from outside the compartment of the fluid-air contactor to the inside of the compartment, such that the inside of the compartment of the fluid-air contactor comprises a mixture comprising the ambient air stream and the gas stream; flowing the hygroscopic working fluid (1, 12, 14, 17, 23, 30) into the compartment of the fluid-air contactor sufficiently to transfer moisture inside the compartment between the hygroscopic working fluid (1, 12, 14, 17, 23, 30) and the mixture comprising the ambient air stream and the gas stream and to transfer thermal energy from the hygroscopic working fluid (1, 12, 14, 17, 23, 30) to the mixture comprising the ambient air stream and the gas stream; and Z characterized by Z maintaining the hygroscopic working fluid (1, 12, 14, 17, 23, 30) to prevent crystallization of the desiccant from the desiccant-based hygroscopic working fluid, the maintaining comprising storing excess moisture in the hygroscopic fluid (1, 12, 14, 17, 23, 30) gained from the mixture comprising the ambient air stream and the gas stream in the compartment of the fluid-air contactor during minimum daily ambient temperatures. Z removing heat from a process heat exchanger (4, 32) to absorb thermal energy for dissipation using the hygroscopic working fluid; flowing an ambient air stream from outside a compartment of a fluid-air contactor to inside the compartment of the fluid-air contactor, wherein the ambient air stream comprises the ambient atmosphere; flowing a gas stream from outside the compartment of the fluid-air contactor to the inside of the compartment, such that the inside of the compartment of the fluid-air contactor comprises a mixture comprising the ambient air stream and the gas stream; flowing the hygroscopic working fluid (1, 12, 14, 17, 23, 30) into the compartment of the fluid-air contactor sufficiently to transfer moisture inside the compartment between the hygroscopic working fluid (1, 12, 14, 17, 23, 30) and the mixture comprising the ambient air stream and the gas stream and to transfer thermal energy from the hygroscopic working fluid (1, 12, 14, 17, 23, 30) to the mixture comprising the ambient air stream and the gas stream; and Z characterized by Z maintaining the hygroscopic working fluid (1, 12, 14, 17, 23, 30) to prevent crystallization of the desiccant from the desiccant-based hygroscopic working fluid, the maintaining comprising storing excess moisture in the hygroscopic fluid (1, 12, 14, 17, 23, 30) gained from the mixture comprising the ambient air stream and the gas stream in the compartment of the fluid-air contactor during minimum daily ambient temperatures. Z
A method of selecting a patient treatment, comprising: inducing shear gradient in a biological fluid sample flowing through a fluid chamber (100; 610), and the fluid chamber including a plurality of microstructures (114, 214), wherein the plurality of microstructures (114, 214) includes at least a first microstructure (110, 210) and a second microstructure (108, 208), and wherein the first microstructure (110, 210) deflects significantly more than the second microstructure (108, 208); determining a threshold level of shear activation required for clot formation of the biological sample based on measuring the deflection of the first microstructure; and selecting a treatment for the patient based on the shear activation threshold level. inducing shear gradient in a biological fluid sample flowing through a fluid chamber (100; 610), and the fluid chamber including a plurality of microstructures (114, 214), wherein the plurality of microstructures (114, 214) includes at least a first microstructure (110, 210) and a second microstructure (108, 208), and wherein the first microstructure (110, 210) deflects significantly more than the second microstructure (108, 208); determining a threshold level of shear activation required for clot formation of the biological sample based on measuring the deflection of the first microstructure; and selecting a treatment for the patient based on the shear activation threshold level.
An isolated IL-33-binding antibody or antibody fragment which comprises (a) an immunoglobulin heavy chain variable region of SEQ ID NO: 136; and (b) an immunoglobulin light chain variable region of SEQ ID NO: 171.
An image forming apparatus comprising: an image bearing body (1 Bk, 1 Y, 1 M, 1 C) rotatably supported; an exposing unit (3Bk, 3Y, 3M, 3C) that irradiates said image bearing body (1 Bk, 1Y, 1 M, 1C) to form a latent image; a developer bearing body (8Bk, 8Y, 8M, 8C) that develops said latent image using a developer to form a developer image; a transfer unit (5Bk, 5Y, 5M, 5C) that transfers said developer image to a recording medium; a feeding unit (31, 32, 12) that feeds said recording medium to a transferring position where said developer image is transferred to said recording medium; a driving unit that drives said image bearing body (1 Bk, 1 Y, 1 M, 1 C); a density detecting unit (36, 39) that detects a developer density of said developer image transferred to said recording medium, and a speed difference control unit that controls a difference between a circumferential speed of said image bearing body (1Bk, 1Y, 1M, 1C) and a feeding speed of said recording medium fed by said feeding unit (31, 12), wherein said speed difference control unit controls said driving unit to change said circumferential speed of said image bearing body (1 Bk, 1Y, 1M, 1 C) based on a density of a thin line pattern transferred to said recording medium detected by said density detecting unit (36, 39) so as to change said difference between said circumferential speed of said image bearing body (1Bk, 1Y, 1M, 1C) and said feeding speed of said recording medium. an image bearing body (1 Bk, 1 Y, 1 M, 1 C) rotatably supported; an exposing unit (3Bk, 3Y, 3M, 3C) that irradiates said image bearing body (1 Bk, 1Y, 1 M, 1C) to form a latent image; a developer bearing body (8Bk, 8Y, 8M, 8C) that develops said latent image using a developer to form a developer image; a transfer unit (5Bk, 5Y, 5M, 5C) that transfers said developer image to a recording medium; a feeding unit (31, 32, 12) that feeds said recording medium to a transferring position where said developer image is transferred to said recording medium; a driving unit that drives said image bearing body (1 Bk, 1 Y, 1 M, 1 C); a density detecting unit (36, 39) that detects a developer density of said developer image transferred to said recording medium, and a speed difference control unit that controls a difference between a circumferential speed of said image bearing body (1Bk, 1Y, 1M, 1C) and a feeding speed of said recording medium fed by said feeding unit (31, 12), wherein said speed difference control unit controls said driving unit to change said circumferential speed of said image bearing body (1 Bk, 1Y, 1M, 1 C) based on a density of a thin line pattern transferred to said recording medium detected by said density detecting unit (36, 39) so as to change said difference between said circumferential speed of said image bearing body (1Bk, 1Y, 1M, 1C) and said feeding speed of said recording medium.
Device for transporting, in particular skidding or jacking, a heavy object supported on at least one guide, comprising an actuator for effecting transport, in particular at least one hydraulic cylinder, one end of which is configured for connection to the object or a foundation and the other end is connected to a shoe configured for connection to the guide, wherein the shoe comprises at least two pins configured to be inserted into openings in the guide to provide, at least in the direction of the guide a positive connection between the shoe and the guide, characterised in that the position of at least one pin is adjustable in the direction of transport and/or in a direction opposite to the direction of transport.
Method for determining and displaying an energy consumption of a water-conducting household appliance, in particular a dishwasher or washing machine, wherein a heatable circulating medium, in particular a washing liquor liquid, passes through the household appliance during operation, wherein the actual temperature curve of the circulating medium can be determined over time in at least one heating and/or cooling phase (P1; P2) of the circulating medium and is used as input data to determine an energy consumption, characterised in that a rise (grad mess) in a phase (P1, P2) of an essentially linearly rising and/or falling actual temperature curve of the circulating medium is determined and that the determined energy consumption is displayed.
Arrangement of an impeller on a rotating portion of a motor, preferably on an electric motor, in particular on an external rotor motor, wherein the torque of the motor is transmitted to the impeller by means of a rotationally secure connection between the rotor of the motor and the impeller or the impeller hub thereof, and wherein the connection is produced by means of a press-fit between the impeller hub and the rotor, with a round plate which is preferably fixedly associated with the impeller hub and which absorbs mechanical stresses being incorporated, characterised in that the round plate is constructed in a polygonal or multi-sided manner with flat faces between the corners, wherein, when the round plate is pressed onto the rotor, the faces which extend between the corners become at least slightly deformed with axial contact faces being formed with the surface of the rotor.
Concrete tank comprising: - a bottom made of concrete, - a side wall extending from the bottom in a first direction to form a receptacle, the side wall being made of concrete and extending over a height of at least one meter from the bottom, the height being measured in the first direction, the first direction being substantially perpendicular to the bottom, - a closing cover separated from the bottom by the side wall and defining an opening, - an RFID tag enclosed in a liquid-tight radome, the radome being mounted flush with the bottom or embedded in the bottom, the RFID tag having at least one antenna disposed at a depth of less than 100 mm relative to the surface of the bottom, the depth being measured along the first direction; the bottom defining at least one trench and in which the RFID tag is outside the trench and is offset by a first distance from a side edge of the trench of less than 40 mm, the trench having a depth of at least 20 mm and having first and second opposite ends, or the bottom being flat or substantially flat perpendicular to the first direction. - a bottom made of concrete, - a side wall extending from the bottom in a first direction to form a receptacle, the side wall being made of concrete and extending over a height of at least one meter from the bottom, the height being measured in the first direction, the first direction being substantially perpendicular to the bottom, - a closing cover separated from the bottom by the side wall and defining an opening, - an RFID tag enclosed in a liquid-tight radome, the radome being mounted flush with the bottom or embedded in the bottom, the RFID tag having at least one antenna disposed at a depth of less than 100 mm relative to the surface of the bottom, the depth being measured along the first direction; the bottom defining at least one trench and in which the RFID tag is outside the trench and is offset by a first distance from a side edge of the trench of less than 40 mm, the trench having a depth of at least 20 mm and having first and second opposite ends, or the bottom being flat or substantially flat perpendicular to the first direction.
Computing device (100; 100a) with at least one computing core for carrying out a first computer program, wherein the computing device (100; 100a) is designed to access a memory device (200; 200a) to load the first computer program, wherein the computing device (100; 100a) is designed to send a first control command (A1; A1'), which characterizes the first computer program and/or a memory area of the memory device (200; 200a) assigned to the first computer program, to at least one cryptographic module, wherein the cryptographic module is designed to verify the computer program characterized by the first control command or the memory area of the memory device (200; 200a) assigned to the first computer program, wherein the computing device (100; 100a) is designed to execute the first computer program, wherein the computing device (100; 100a) is designed to execute the first computer program directly after the sending of the first control command (A1; A1') to the cryptographic module without waiting for a or the response of the cryptographic module to the first control command (A1; A1') and/or without reading out the response from the cryptographic module, wherein the computing device (100; 100a) is designed to receive a response (A2; A2') of the cryptographic module to the first control command or to read it out from the cryptographic module, wherein the response (A2; A2') has information about the result of a test of the first computer program characterized by the control command (A1; A1') or the memory area of the memory device (200; 200a) assigned to the first computer program, wherein the computing device (100; 100a) is designed to control operation of the computing device (100; 100a) in dependence on the response (A2; A2').
A process for preparing a polyethylene resin having a multimodal molecular weight distribution in at least two loop slurry reactors connected in series, comprising the step of: polymerizing ethylene in the presence of at least one supported metallocene catalyst, a diluent, optionally one or more co-monomers, and optionally hydrogen, thereby obtaining the polyethylene resin, wherein the supported metallocene catalyst has a particle size distribution of a span value lower than 1.5 and a D50 value within the range of from 5 μm to 20 μm, wherein the span is defined as: span = D 90 − D 10 D 50 with D90 being defined as the particle size for which ninety percent by weight of the particles has a size lower than the D90; with D10 being defined as the particle size for which ten percent by weight of the particles has a size lower than the D10; with D50 being defined as the particle size for which fifty percent by weight of the particles has a size lower than the D50; and with the D90, D10 and D50 being measured by laser diffraction analysis on a Malvern type analyzer. with D90 being defined as the particle size for which ninety percent by weight of the particles has a size lower than the D90; with D10 being defined as the particle size for which ten percent by weight of the particles has a size lower than the D10; with D50 being defined as the particle size for which fifty percent by weight of the particles has a size lower than the D50; and with the D90, D10 and D50 being measured by laser diffraction analysis on a Malvern type analyzer.
A compound having the structure of Formula (Ic), or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, halogen, -OH, -OR 5, -N(R 5) 2, alkyl, carbocyclyl, heterocyclyl, aryl substituted with halogen or alkoxy, heteroaryl optionally substituted with halogen or alkyl, carbocyclylalkyl, heterocyclylalkyl, aralkyl, or heteroarylalkyl; R 2 is alkyl, carbocyclyl optionally substituted with halogen, alkyl or carbocyclyl, heterocyclyl, aryl, heteroaryl, carbocyclylalkyl, heterocyclylalkyl, aralkyl with the aryl part being substituted with halogen, alkyl, alkoxy, fluoroalkyl, or aryl, or heteroarylalkyl wherein heteroaryl is optionally substituted with halogen, alkyl, or carbocyclyl; R 3 is hydrogen; R 4 is hydrogen, C 1 -C 4 alkyl, C 1 -C 4 alkene, C 1 -C 4 alkyne, halogen, or -CN; and each R 5 is independently hydrogen, alkyl, carbocyclyl, heterocyclyl, aryl, heteroaryl, carbocyclylalkyl, heterocyclylalkyl, aralkyl, or heteroarylalkyl. R 1 is hydrogen, halogen, -OH, -OR 5, -N(R 5) 2, alkyl, carbocyclyl, heterocyclyl, aryl substituted with halogen or alkoxy, heteroaryl optionally substituted with halogen or alkyl, carbocyclylalkyl, heterocyclylalkyl, aralkyl, or heteroarylalkyl; R 2 is alkyl, carbocyclyl optionally substituted with halogen, alkyl or carbocyclyl, heterocyclyl, aryl, heteroaryl, carbocyclylalkyl, heterocyclylalkyl, aralkyl with the aryl part being substituted with halogen, alkyl, alkoxy, fluoroalkyl, or aryl, or heteroarylalkyl wherein heteroaryl is optionally substituted with halogen, alkyl, or carbocyclyl; R 3 is hydrogen; R 4 is hydrogen, C 1 -C 4 alkyl, C 1 -C 4 alkene, C 1 -C 4 alkyne, halogen, or -CN; and each R 5 is independently hydrogen, alkyl, carbocyclyl, heterocyclyl, aryl, heteroaryl, carbocyclylalkyl, heterocyclylalkyl, aralkyl, or heteroarylalkyl.
A metal nanoplate, having the thickness of 0.5 nm to 100 nm, the diameter of 200 nm or more, and the width larger than the thickness and equal to or less than the diameter, wherein the ratio of width/diameter is 0.6 to 1 and the nanoplate is connected by the medium of a conductive polymer; wherein the metal is silver(Ag); and wherein the conductive polymer is P[anthranilic acid] 0.5 -[N-(1',3'-phenylenediamino)-3-propane sulfonate] 0.5 or P[ANi] 0.5 -[N-(1',3'-phenylenediamino)-3-propane sulfonate] 0.5.
A contact assembly of a switching device, comprising: a fixed contact member; and a moveable contact component, comprising: a pair of first conductive members, each having a contact end, and a pair of second conductive members provided between the first conductive members, wherein the fixed contact member may contact the contact ends or the second conductive members, and only when the second conductive members are out of contact with the fixed contact member, the contact ends may contact the fixed contact member, characterised in that the arc erosion resistance performance of the first conductive members is superior than that of the second conductive members, and in that the contact assembly further comprises a barrier member having a barrier end, and when the barrier end is inserted between the second conductive members, the fixed contact member may push the barrier end out of the second conductive members. a fixed contact member; and a moveable contact component, comprising: a pair of first conductive members, each having a contact end, and a pair of second conductive members provided between the first conductive members, wherein the fixed contact member may contact the contact ends or the second conductive members, and only when the second conductive members are out of contact with the fixed contact member, the contact ends may contact the fixed contact member, characterised in that the arc erosion resistance performance of the first conductive members is superior than that of the second conductive members, and in that the contact assembly further comprises a barrier member having a barrier end, and when the barrier end is inserted between the second conductive members, the fixed contact member may push the barrier end out of the second conductive members. a pair of first conductive members, each having a contact end, and a pair of second conductive members provided between the first conductive members, wherein the fixed contact member may contact the contact ends or the second conductive members, and only when the second conductive members are out of contact with the fixed contact member, the contact ends may contact the fixed contact member, characterised in that the arc erosion resistance performance of the first conductive members is superior than that of the second conductive members, and in that the contact assembly further comprises a barrier member having a barrier end, and when the barrier end is inserted between the second conductive members, the fixed contact member may push the barrier end out of the second conductive members.
Pane construction (5; 50; 60, 72; 86; 91; 500; 510) for covering and protecting at least a part of the outside of a ballistic block of a bullet proof window (1; 55, 70, 80; 90, 100; 110) characterized by a magnetic gasket (5.2; 52; 62; 75; 88; 96; 503; 513) for mounting the pane construction (5; 50; 60, 72; 86; 91; 500; 510)on the ballistic block, a frame for mounting the ballistic block on a body of the vehicle, a body of the vehicle, and/or a mounting frame (84; 94).
An apparatus for packet processing, the apparatus to be implemented in a server, the apparatus comprising: a preprocessor; and at least two processors respectively connected with the preprocessor; wherein the preprocessor is to classify packets received at an external interface of the server, and to distribute the classified packets to the respective processors, wherein packets in a same flow are distributed to a same processor, and wherein each of the processors is to receive and process a packet distributed to the processors by the preprocessor; and characterized in that in response to determining that a second flow of packets is relevant to a first flow of packets, the preprocessor is adapted to send a packet belonging to the second flow to a same processor as a packet belonging to the first flow, wherein flows are regarded as relevant flows when at least one of the following conditions is fulfilled: the packets of the flows have the same source IP address, a packet of a flow being a data connection and a packet of a flow comprising a port for a FTP control connection include the same tuple information. a preprocessor; and at least two processors respectively connected with the preprocessor; wherein the preprocessor is to classify packets received at an external interface of the server, and to distribute the classified packets to the respective processors, wherein packets in a same flow are distributed to a same processor, and wherein each of the processors is to receive and process a packet distributed to the processors by the preprocessor; and characterized in that in response to determining that a second flow of packets is relevant to a first flow of packets, the preprocessor is adapted to send a packet belonging to the second flow to a same processor as a packet belonging to the first flow, wherein flows are regarded as relevant flows when at least one of the following conditions is fulfilled: the packets of the flows have the same source IP address, a packet of a flow being a data connection and a packet of a flow comprising a port for a FTP control connection include the same tuple information. the packets of the flows have the same source IP address, a packet of a flow being a data connection and a packet of a flow comprising a port for a FTP control connection include the same tuple information.
Gripping device for gripping objects, in particular for gripping small load containers, comprising at least one holding jaw that can be moved into a holding position and into a release position, and comprising a displaceable actuator part which is movement-coupled to the holding jaw, the actuator part having an actuation surface and a vacuum sucker being provided such that the actuation surface of the actuator part can be suctioned by means of the vacuum sucker in order to move the holding jaw into the holding position, the vacuum sucker being designed as a vacuum-operated suction gripper and acting as an actuation drive for the gripping device.