mhurhangee/ep-ind-claims huggingface dataset:
A compound for use as a modulator of the ROR gamma receptor having formula II and pharmaceutically acceptable salts or stereoisomers thereof, preferably having formula IIa, wherein R 1, R 2 are independently of each other H, hal, -OR a, -SR a, -NR a R b, -COOR a, -CONR a R b, wherein R a and R b are independently of each other H or (C1-6)alkyl, or R 1, R 2 form together with the C-atoms to which they are linked an epoxy group; R 2' is H, hal, R 4, R 5 are independently of each other H, hal, -OR a, -SR a, -NR a R b, -COOR a, -CONR a R b, oxo, thio wherein R a and R b are independently of each other H or (C1-6)alkyl; L is a linking group, such as straight-chain or branched C alkyl, which is unsubstituted or substituted by at least one CN, hal, OH, NR a R b, COOR a, NO 2, and wherein one or more of the non-adjacent CH 2 groups may independently be replaced by a group selected from -O-, -CO-, -CO-O-, -O-CO-, -NR a -, -NR a -CO-, -CO-NR a -, - CH=CH-, -C≡C-, wherein R a and R b are independently of each other H or C alkyl, X is H, -OR a, -SR a, -NR a R b, -COOR c, -CONR a R c, wherein R a and R b are independently of each other H or (C1-6)alkyl and R c is -H, -(C1-6)alkyl, -NH- n -CO 2 R a or -NH-(CH 2) p -SO 3 R a, wherein n, p is 1, 2, or 3 and R a is -H or -(C1-6)alkyl; m is 0 to 5, and wherein R 3 and R 6 are -OR a, wherein R a is H or C alkyl and which compound is for use in the treatment or prevention, suppression or amelioration of type II diabetes and/or diseases, disorders and conditions that are related to type II diabetes in a subject in need thereof, namely low glucose tolerance, insulin resistance and/or hyperglycemia. R 1, R 2 are independently of each other H, hal, -OR a, -SR a, -NR a R b, -COOR a, -CONR a R b, wherein R a and R b are independently of each other H or (C1-6)alkyl, or R 1, R 2 form together with the C-atoms to which they are linked an epoxy group; R 2' is H, hal, R 4, R 5 are independently of each other H, hal, -OR a, -SR a, -NR a R b, -COOR a, -CONR a R b, oxo, thio wherein R a and R b are independently of each other H or (C1-6)alkyl; L is a linking group, such as straight-chain or branched C alkyl, which is unsubstituted or substituted by at least one CN, hal, OH, NR a R b, COOR a, NO 2, and wherein one or more of the non-adjacent CH 2 groups may independently be replaced by a group selected from -O-, -CO-, -CO-O-, -O-CO-, -NR a -, -NR a -CO-, -CO-NR a -, - CH=CH-, -C≡C-, wherein R a and R b are independently of each other H or C alkyl, X is H, -OR a, -SR a, -NR a R b, -COOR c, -CONR a R c, wherein R a and R b are independently of each other H or (C1-6)alkyl and R c is -H, -(C1-6)alkyl, -NH- n -CO 2 R a or -NH-(CH 2) p -SO 3 R a, wherein n, p is 1, 2, or 3 and R a is -H or -(C1-6)alkyl; m is 0 to 5, and
A wire electrical discharge machine for performing electrical discharge machining on a workpiece by applying voltage across an electrode gap between a wire electrode stretched between an upper nozzle and a lower nozzle and the workpiece to generate electrical discharges, comprising: a lifting mechanism (64, 110) configured to move the workpiece in a travelling direction of the wire electrode, and a controller including a storage unit and a processing operation unit, characterized in that the processing operation unit comprises: a lifting mechanism control unit configured to control the lifting mechanism (64, 110), and a drop information acquisition unit configured to acquire information indicating that a core formed in machining the workpiece has fallen into the lower nozzle or interfered with an edge of the lower nozzle, wherein the lifting mechanism control unit is configured to control the lifting mechanism (64, 110) so as to move the workpiece toward the upper nozzle in a case where the information that the core has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit. a lifting mechanism (64, 110) configured to move the workpiece in a travelling direction of the wire electrode, and a controller including a storage unit and a processing operation unit, characterized in that the processing operation unit comprises: a lifting mechanism control unit configured to control the lifting mechanism (64, 110), and a drop information acquisition unit configured to acquire information indicating that a core formed in machining the workpiece has fallen into the lower nozzle or interfered with an edge of the lower nozzle, wherein the lifting mechanism control unit is configured to control the lifting mechanism (64, 110) so as to move the workpiece toward the upper nozzle in a case where the information that the core has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit. a lifting mechanism control unit configured to control the lifting mechanism (64, 110), and a drop information acquisition unit configured to acquire information indicating that a core formed in machining the workpiece has fallen into the lower nozzle or interfered with an edge of the lower nozzle, wherein the lifting mechanism control unit is configured to control the lifting mechanism (64, 110) so as to move the workpiece toward the upper nozzle in a case where the information that the core has fallen in the lower nozzle or interfered with the edge of the lower nozzle is acquired by the drop information acquisition unit.
A method for a first User Equipment, UE, operating in a wireless communication system, the method comprising: generating, by the first UE, a Medium Access Control, MAC, Protocol Data Unit, PDU, including one or more MAC sub-headers; and transmitting, by the first UE, the MAC PDU to at least one second UE via an interface, wherein the interface is configured for one to one communication between the first UE and the at least one second UE directly, wherein each MAC sub-header corresponds to a Device to Device, D2D, MAC Service Data Unit, SDU, and includes a same Logical Channel ID, LCID, value that is allocated for all D2D logical channels; wherein each MAC SDU includes a target ID that identifies the at least one second UE, and a source ID that identifies the first UE, one or more D2D logical channel IDs, D2D-LCIDs, and a payload for each D2D-LCID. generating, by the first UE, a Medium Access Control, MAC, Protocol Data Unit, PDU, including one or more MAC sub-headers; and transmitting, by the first UE, the MAC PDU to at least one second UE via an interface, wherein the interface is configured for one to one communication between the first UE and the at least one second UE directly, wherein each MAC sub-header corresponds to a Device to Device, D2D, MAC Service Data Unit, SDU, and includes a same Logical Channel ID, LCID, value that is allocated for all D2D logical channels; wherein each MAC SDU includes a target ID that identifies the at least one second UE, and a source ID that identifies the first UE, one or more D2D logical channel IDs, D2D-LCIDs, and a payload for each D2D-LCID.
A liquid spray gun platform comprising: a frame comprising a barrel interface; an air supply manifold contained within the frame, the air supply manifold comprising an inlet port; a fan control air passage in fluid communication with the air supply manifold, the fan control air passage extending through the frame from an inlet end at the air supply manifold to an outlet end at the barrel interface; a center air passage in fluid communication with the air supply manifold, the center air passage extending through the frame from an inlet end at the air supply manifold to an outlet end at the barrel interface; wherein the fan control air passage comprises a volume that is 120% or more of a volume of the center air passage. a frame comprising a barrel interface; an air supply manifold contained within the frame, the air supply manifold comprising an inlet port; a fan control air passage in fluid communication with the air supply manifold, the fan control air passage extending through the frame from an inlet end at the air supply manifold to an outlet end at the barrel interface; a center air passage in fluid communication with the air supply manifold, the center air passage extending through the frame from an inlet end at the air supply manifold to an outlet end at the barrel interface; wherein the fan control air passage comprises a volume that is 120% or more of a volume of the center air passage.
A door driving device, comprising: a base member extending in an opening width direction of a door; a rotary shaft extending in the opening width direction of the door and configured to rotate by a power of a motor of the door driving device; and a moving unit movable along the base member and the rotary shaft, the moving unit including: a rotary moving unit pressed against the base member and configured to move along the base member while rotating; and a transmission member capable of moving relatively to the rotary shaft in an axial direction thereof and configured to rotate along with the rotary shaft and contact with the rotary moving unit, so as to transmit a rotational power of the rotary shaft to the rotary moving unit, wherein the moving unit moves along the base member and rotary shaft driven by the rotary moving unit and the transmission member receives a force from the moving unit and moves along with the moving unit. a base member extending in an opening width direction of a door; a rotary shaft extending in the opening width direction of the door and configured to rotate by a power of a motor of the door driving device; and a moving unit movable along the base member and the rotary shaft, the moving unit including: a rotary moving unit pressed against the base member and configured to move along the base member while rotating; and a transmission member capable of moving relatively to the rotary shaft in an axial direction thereof and configured to rotate along with the rotary shaft and contact with the rotary moving unit, so as to transmit a rotational power of the rotary shaft to the rotary moving unit, a rotary moving unit pressed against the base member and configured to move along the base member while rotating; and a transmission member capable of moving relatively to the rotary shaft in an axial direction thereof and configured to rotate along with the rotary shaft and contact with the rotary moving unit, so as to transmit a rotational power of the rotary shaft to the rotary moving unit, wherein the moving unit moves along the base member and rotary shaft driven by the rotary moving unit and the transmission member receives a force from the moving unit and moves along with the moving unit.
A compressor system for a rail vehicle, having at least one compressor for generating compressed air for at least one compressed-air vessel, it being possible to adjust the delivery rate of the at least one compressor at least indirectly via at least one closed-loop control device, and characterised in that the at least one closed-loop control device is configured to be able to increase the delivery rate of the compressor beyond a specified maximum operating rate in case of specific demands. at least one compressor for generating compressed air for at least one compressed-air vessel, it being possible to adjust the delivery rate of the at least one compressor at least indirectly via at least one closed-loop control device, and characterised in that the at least one closed-loop control device is configured to be able to increase the delivery rate of the compressor beyond a specified maximum operating rate in case of specific demands.
Glass unit for an indirect vision system for a vehicle, with a first glass component; a second component of a material having a self-adhesive property as a first support element; and a third component as a second support element; wherein the first and the second component (1, 2) and the second and the third component (2, 3) are bonded together securely into single unit by the self-adhesive property of the second component; characterized in that the modulus of elasticity of the third component is greater than the modulus of elasticity of the second component, and that the second component encloses the first component in a closed annular manner or in an annular manner with interruptions.
Method for cultivating L. intracellulris bacteria in McCoys cells comprising the steps: a) infecting McCoys cells with L. intracellularis; b) cultivating said infected McCoys cells under conditions that allow growth of L. intracellularis in said infected McCoys cells. a) infecting McCoys cells with L. intracellularis; b) cultivating said infected McCoys cells under conditions that allow growth of L. intracellularis in said infected McCoys cells.
A method for driving a capacitive load using a target voltage waveform, the target voltage waveform having a trace comprising a peak voltage and an average voltage risetime component and voltage falltime component, wherein the trace comprises at least one voltage step (54, 56) on each of the voltage risetime and falltime components (51, 53), the method comprising: sensing a voltage value representative of a voltage value on the capacitive load; substantially continuously comparing the sensed voltage value with the target voltage waveform; supplying power from an input to an output for charging a capacitive load to obtain a peak voltage and average rise slew rate in continuous response to the comparison of the sensed voltage value with the target voltage waveform; discharging the capacitive load to obtain an average fall slew rate in continuous response to the comparison of the sensed voltage value with the target voltage waveform; and returning the discharged power from the capacitive load to the input. sensing a voltage value representative of a voltage value on the capacitive load; substantially continuously comparing the sensed voltage value with the target voltage waveform; supplying power from an input to an output for charging a capacitive load to obtain a peak voltage and average rise slew rate in continuous response to the comparison of the sensed voltage value with the target voltage waveform; discharging the capacitive load to obtain an average fall slew rate in continuous response to the comparison of the sensed voltage value with the target voltage waveform; and returning the discharged power from the capacitive load to the input.
Composite material, at least consisting of a carrier material, wherein the carrier material is coated on a first surface with a first coating material and on a second surface with a second coating material, wherein the composite material has links of coating material (2, 2') which run from the first surface of the carrier material to the second surface of the carrier material, wherein at least 20% and up to 90% of the links are formed such that they extend from the first surface of the carrier material to the second surface of the carrier material, and wherein a starting surface of the links which starts from the first surface of the carrier material occupies 1% to 90% of the area of the first surface and that the composite material is free of adhesive agents or adhesion promoters.
A corrosion testing device comprising a test chamber, a climate conditioning system for maintaining a controlled atmosphere in the test chamber, and a measurement system comprising a feeler having a measurement element arranged on a printed circuit board for measuring the moisture content of the atmosphere, characterized in that the printed circuit board is detachably held on a feeler base via plug connectors and is, with the possible exception of certain contact or measurement surfaces, fully encapsulated in an anti-corrosion coating.
A human machine interface, HMI, device comprising: an HMI component assembly; and an electrostatic charge grounding system; wherein the HMI component assembly comprises an HMI component having an outer surface and a non-conductive overlay having an outer surface and an inner surface, the overlay inner surface affixed to the HMI component outer surface; wherein the electrostatic charge grounding system comprises: a conductive coating covering the non-conductive overlay outer surface; a grounded conductor; and an electrostatic charge routing system electrically connecting the conductive coating to the grounded conductor through the non-conductive overlay; and characterized by the HMI device further comprising a non-conductive bezel having at least one mounting hole, wherein the grounded conductor comprises a conductive paint layer covering the non-conductive bezel and the mounting hole, and further wherein the electrostatic charge routing system comprises: conductive epoxy filling at least a portion of the mounting hole; and a conductive conduit electrically connecting the conductive coating to the conductive epoxy. an HMI component assembly; and an electrostatic charge grounding system; wherein the HMI component assembly comprises an HMI component having an outer surface and a non-conductive overlay having an outer surface and an inner surface, the overlay inner surface affixed to the HMI component outer surface; wherein the electrostatic charge grounding system comprises: a conductive coating covering the non-conductive overlay outer surface; a grounded conductor; and an electrostatic charge routing system electrically connecting the conductive coating to the grounded conductor through the non-conductive overlay; and a conductive coating covering the non-conductive overlay outer surface; a grounded conductor; and an electrostatic charge routing system electrically connecting the conductive coating to the grounded conductor through the non-conductive overlay; and characterized by the HMI device further comprising a non-conductive bezel having at least one mounting hole, wherein the grounded conductor comprises a conductive paint layer covering the non-conductive bezel and the mounting hole, and further wherein the electrostatic charge routing system comprises: conductive epoxy filling at least a portion of the mounting hole; and a conductive conduit electrically connecting the conductive coating to the conductive epoxy. conductive epoxy filling at least a portion of the mounting hole; and a conductive conduit electrically connecting the conductive coating to the conductive epoxy.
A gas turbine engine system comprising: a combustor which burns fuel ammonia in a combustion chamber using compressed combustion air; a combustion air cooling unit which is configured to cool the combustion air by heat exchange with the fuel ammonia during a compression process; a low pressure compressor which is configured to compress the combustion air; and a high pressure compressor which is configured to further compress the combustion air compressed by the low pressure compressor, wherein a flow path through which the fuel ammonia flows is formed inside a stationary blade of the low pressure compressor, and a region in which the flow path is formed is used as the combustion air cooling unit, characterized by further comprising: a vaporizer; and an ammonia supply system configured to supply a first part of the fuel ammonia through a first path which guides the fuel ammonia to the combustor via the vaporizer, and configured to supply a second part of the fuel ammonia through a second path which guides the fuel ammonia to the combustor via the flow path formed inside the stationary blade of the low pressure compressor without passing through the vaporizer. a combustor which burns fuel ammonia in a combustion chamber using compressed combustion air; a combustion air cooling unit which is configured to cool the combustion air by heat exchange with the fuel ammonia during a compression process; a low pressure compressor which is configured to compress the combustion air; and a high pressure compressor which is configured to further compress the combustion air compressed by the low pressure compressor, wherein a flow path through which the fuel ammonia flows is formed inside a stationary blade of the low pressure compressor, and a region in which the flow path is formed is used as the combustion air cooling unit, characterized by further comprising: a vaporizer; and an ammonia supply system configured to supply a first part of the fuel ammonia through a first path which guides the fuel ammonia to the combustor via the vaporizer, and configured to supply a second part of the fuel ammonia through a second path which guides the fuel ammonia to the combustor via the flow path formed inside the stationary blade of the low pressure compressor without passing through the vaporizer. a vaporizer; and an ammonia supply system configured to supply a first part of the fuel ammonia through a first path which guides the fuel ammonia to the combustor via the vaporizer, and configured to supply a second part of the fuel ammonia through a second path which guides the fuel ammonia to the combustor via the flow path formed inside the stationary blade of the low pressure compressor without passing through the vaporizer.
Procedure to optimize the impedance of a connecting element between a first component and a second component of a high-frequency apparatus, particularly a field device, wherein the first component and the second component each have at least two level states (Z1, Z2, Z1', Z2',...), wherein the connecting element has an input impedance and an output impedance, wherein in each of its at least two level states (Z1, Z2,...) the first component has an impedance (8B_1, 8B_2,...), wherein in each of its at least two level states (Z1', Z2',...) the second component has an impedance (8E_1, 8E_2,...), wherein said procedure comprises the following steps: Determination, in each case, of a value (TA1_1, TA1_2,...) of a difference (ΔTA1_1, ΔTA1_2,...) for the first component between the complexly conjugated input impedance (8C*) and the respective impedance (8B_1, 8B_2,...) of the first component in each of its at least two level states (Z1, Z2,...), Determination, in each case, of a value (TA2_1, TA2_2,...) of a difference (ΔTA2_1, ΔTA2_2,...) for the second component between the complexly conjugated output impedance (8D*) and the respective impedance (8E_1, 8E_2,...) of the second component in each of its at least two level states (Z1', Z2',...), Minimization of a sum of the respective values (TA1_1, TA1_2,..., TA2_1, TA2_2,...) of the first component and the second component with regard to the input and output impedance (8C, 8D) of the connecting element. Determination, in each case, of a value (TA1_1, TA1_2,...) of a difference (ΔTA1_1, ΔTA1_2,...) for the first component between the complexly conjugated input impedance (8C*) and the respective impedance (8B_1, 8B_2,...) of the first component in each of its at least two level states (Z1, Z2,...), Determination, in each case, of a value (TA2_1, TA2_2,...) of a difference (ΔTA2_1, ΔTA2_2,...) for the second component between the complexly conjugated output impedance (8D*) and the respective impedance (8E_1, 8E_2,...) of the second component in each of its at least two level states (Z1', Z2',...), Minimization of a sum of the respective values (TA1_1, TA1_2,..., TA2_1, TA2_2,...) of the first component and the second component with regard to the input and output impedance (8C, 8D) of the connecting element.