mhurhangee/ep-ind-claims huggingface dataset:
A heterodimeric antibody comprising: a) a first monomer comprising: i) an anti-CD3 scFv comprising a first variable heavy domain having SEQ ID NO: 397, a first variable light domain having SEQ ID NO: 398, and an scFv linker, and ii)a first Fc domain; b) a second monomer comprising a VH-CH1-hinge-CH2-CH3, wherein VH is a second variable heavy domain; and CH2-CH3 is a second Fc domain; and c) a light chain comprising a VL-CL, wherein VL is a second variable light domain and CL is a constant light domain, wherein the first Fc domain comprises amino acid substitutions S364K and E357Q and the second Fc domain comprises amino acid substitutions L368D and K370S, wherein the CH1-hinge-CH2-CH3 of the second monomer comprises amino acid substitutions N208D, Q295E, N384D, Q418E, and N421D, wherein the first and second Fc domains each comprise amino acid substitutions E233P, L234V, L235A, G236del, and S267K, wherein scFv linker is (GKPGS) 4 wherein the second variable heavy domain and second variable light domain form an antigen binding domain, and wherein numbering is according to the EU numbering. a) a first monomer comprising: i) an anti-CD3 scFv comprising a first variable heavy domain having SEQ ID NO: 397, a first variable light domain having SEQ ID NO: 398, and an scFv linker, and ii)a first Fc domain; i) an anti-CD3 scFv comprising a first variable heavy domain having SEQ ID NO: 397, a first variable light domain having SEQ ID NO: 398, and an scFv linker, and ii)a first Fc domain; b) a second monomer comprising a VH-CH1-hinge-CH2-CH3, wherein VH is a second variable heavy domain; and CH2-CH3 is a second Fc domain; and c) a light chain comprising a VL-CL, wherein VL is a second variable light domain and CL is a constant light domain,
A polyester film for sealing the backside of solar cell having a light reflectance at 550 nm wavelength of 50% or more and containing 3 to 50% by mass of inorganic fine particles, characterized in that the acid value of the film is 1 to 30 eq/ton and the limiting viscosity of the film is 0.60 to 0.80 dL/g, and in that the in-face variation of the light reflectance to the mean value of the light reflectance is 5% or less, wherein the light reflectance is determined as disclosed in the description, wherein the acid value is determined by dissolving samples of the film over 3, 5 and 7 minutes, respectively, in benzyl alcohol, titrating with 0.04 mol/l KOH solution, and determining the acid value from of the titrated amount for a dissolving time of 0 minutes, calculated by means of a least squares method, and wherein the limiting viscosity is determined by preparing a solution of the film with a concentration of 0.4 g/dl in a mixed solvent of phenol and tetrachloroethane at a weight ratio of 60/40, determining running-down time of the solution and the solvent using an Ubbelohde' s viscosimeter, and calculating the limiting viscosity using Huggin's formula with a Huggin's constant of 0.38.
A method for managing caches, where a first cache agent, a second cache agent, a third cache agent, a first physical network and a second physical network are located on a processor, the method comprising: broadcasting, by the first cache agent operatively connected to a first cache and using the first physical network, the first physical network being a physical ring network, a first peer-to-peer request for a memory address, wherein a type of the first peer-to-peer request is one of a peer-to-peer non-writeback request (PRTF, PRTO, PRTU) and a peer-to-peer writeback request; issuing, by the second cache agent operatively connected to a second cache and using the second physical network, the second physical network being a physical data and response network for point-to-point responses, a first point-to-point response to the first peer-to-peer request based on the type of the first peer-to-peer request and a state of a cacheline in the second cache corresponding to the memory address; issuing, by the third cache agent operatively connected to a third cache, a second point-to-point response to the first peer-to-peer request; and modifying, by the first cache agent based on the first point-to-point response and the second point-to-point response, a state of a cacheline in the first cache corresponding to the memory address. broadcasting, by the first cache agent operatively connected to a first cache and using the first physical network, the first physical network being a physical ring network, a first peer-to-peer request for a memory address, wherein a type of the first peer-to-peer request is one of a peer-to-peer non-writeback request (PRTF, PRTO, PRTU) and a peer-to-peer writeback request; issuing, by the second cache agent operatively connected to a second cache and using the second physical network, the second physical network being a physical data and response network for point-to-point responses, a first point-to-point response to the first peer-to-peer request based on the type of the first peer-to-peer request and a state of a cacheline in the second cache corresponding to the memory address; issuing, by the third cache agent operatively connected to a third cache, a second point-to-point response to the first peer-to-peer request; and modifying, by the first cache agent based on the first point-to-point response and the second point-to-point response, a state of a cacheline in the first cache corresponding to the memory address.
A firearm synchronized discharge device for facilitating a synchronized discharge of two or more firearms (10, 10A, 10B), the device comprising: - an actuator for engaging with a movable trigger of a first firearm (10; 10A; 10B), the actuator configurable between a first configuration that prevents movement of the trigger toward a firearm-discharge position of the trigger, and a second configuration that permits movement of the trigger toward the firearm-discharge position of the trigger; - a sensor configured to generate a signal indicative of a force applied to the trigger by a shooter; and - a controller operatively coupled to the sensor and to the actuator, the controller configured to: - receive data indicative of one or more states of one or more respective other firearms (10, 10A, 10B); and - when the force meets a criterion and the one or more states indicate that the one or more other firearms (10, 10A, 10B) are ready for discharge, cause the actuator to transition from the first configuration to the second configuration to permit movement of the trigger toward the firearm-discharge position of the trigger. - an actuator for engaging with a movable trigger of a first firearm (10; 10A; 10B), the actuator configurable between a first configuration that prevents movement of the trigger toward a firearm-discharge position of the trigger, and a second configuration that permits movement of the trigger toward the firearm-discharge position of the trigger; - a sensor configured to generate a signal indicative of a force applied to the trigger by a shooter; and - a controller operatively coupled to the sensor and to the actuator, the controller configured to: - receive data indicative of one or more states of one or more respective other firearms (10, 10A, 10B); and - when the force meets a criterion and the one or more states indicate that the one or more other firearms (10, 10A, 10B) are ready for discharge, cause the actuator to transition from the first configuration to the second configuration to permit movement of the trigger toward the firearm-discharge position of the trigger. - receive data indicative of one or more states of one or more respective other firearms (10, 10A, 10B); and - when the force meets a criterion and the one or more states indicate that the one or more other firearms (10, 10A, 10B) are ready for discharge, cause the actuator to transition from the first configuration to the second configuration to permit movement of the trigger toward the firearm-discharge position of the trigger.
A method comprising steps of: switching on, by a primary controller, a first switch, on a primary side of a transformer, at a beginning of a primary time interval of a time period (Tperiod) at zero voltage and switching off, by said primary controller, the first switch at an end of the primary time interval; switching on, by a secondary controller, a second switch, on a secondary side of the transformer, at a beginning of a secondary time interval of the time period (Tperiod) and switching off, by said secondary controller, the second switch at an end of the secondary time interval of the time period (Tperiod); and switching on, by said secondary controller, the second switch a second time, at a beginning of a bi-directional flyback action of the time period (Tperiod), at an end of a ringing period of the time period (Tperiod) and switching off, by said secondary controller, the second switch at an end of said bi-directional flyback action, wherein the ringing period starts after the secondary time interval; and wherein the duration of the bi-directional flyback action is increased such as to provide a fixed switching frequency for the first switch; and wherein during the bi-directional flyback action energy is built up in the transformer, and wherein the time period (Tperiod) has a fall time (Tfall) which ends the time period and begins the next time period, and wherein the fall time is the time for the drain voltage of the first switch to reach zero voltage after the bi-directional flyback action. switching on, by a primary controller, a first switch, on a primary side of a transformer, at a beginning of a primary time interval of a time period (Tperiod) at zero voltage and switching off, by said primary controller, the first switch at an end of the primary time interval; switching on, by a secondary controller, a second switch, on a secondary side of the transformer, at a beginning of a secondary time interval of the time period (Tperiod) and switching off, by said secondary controller, the second switch at an end of the secondary time interval of the time period (Tperiod); and switching on, by said secondary controller, the second switch a second time, at a beginning of a bi-directional flyback action of the time period (Tperiod), at an end of a ringing period of the time period (Tperiod) and switching off, by said secondary controller, the second switch at an end of said bi-directional flyback action, wherein the ringing period starts after the secondary time interval; and wherein the duration of the bi-directional flyback action is increased such as to provide a fixed switching frequency for the first switch; and wherein during the bi-directional flyback action energy is built up in the transformer, and wherein the time period (Tperiod) has a fall time (Tfall) which ends the time period and begins the next time period, and wherein the fall time is the time for the drain voltage of the first switch to reach zero voltage after the bi-directional flyback action.
A stator for a rotary electric machine, comprising: - a ring gear having teeth that define slots between one another that are open radially toward the outside, - windings that are disposed in a distributed manner in the slots, i.e. at least one of the windings passes through two non-adjacent slots in succession, having electrical conductors that are disposed in an arranged manner in the slots, and - a yoke that is not produced in one piece with the ring gear and is attached to the ring gear, characterized by the fact that at least one slot has in cross section, perpendicularly to the axis of rotation, an hexagonal shape with a bottom that narrows in the direction of the air gap. - a ring gear having teeth that define slots between one another that are open radially toward the outside, - windings that are disposed in a distributed manner in the slots, i.e. at least one of the windings passes through two non-adjacent slots in succession, having electrical conductors that are disposed in an arranged manner in the slots, and - a yoke that is not produced in one piece with the ring gear and is attached to the ring gear,
A composition for preparing a food product, the composition comprising: i) water in an amount of 44 to 65% (by weight of the total composition), ii) flavourings in an amount of 1 to 45% (by weight of the total composition), iii) salt in an amount of 10 to 41% (by weight of the total moisture), iv) legume starch in an amount of 4 to 11% (by weight of the total moisture); wherein the composition is in the form of a gel and does not include polyol, guar gum, locust bean gum, tara gum, cassia gum, konjac mannan, carrageenan or any combination thereof. i) water in an amount of 44 to 65% (by weight of the total composition), ii) flavourings in an amount of 1 to 45% (by weight of the total composition), iii) salt in an amount of 10 to 41% (by weight of the total moisture), iv) legume starch in an amount of 4 to 11% (by weight of the total moisture);
Method for discharging a high-voltage intermediate circuit with a discharge circuit, wherein the high-voltage intermediate circuit comprises an intermediate circuit capacitor; having the steps of: determining the voltage (U_ZK) across the high-voltage intermediate circuit; controlling the discharge circuit on the basis of the determined voltage (U_ZK), characterized in that an operating voltage range (U_B) having an upper operating voltage value (U_BO) and a lower operating voltage value (U_BU) of the high-voltage intermediate circuit is predefined, wherein the control of the discharge circuit comprises minimizing the current (S_E) through the discharge circuit if the determined voltage (U_ZK) of the high-voltage intermediate circuit is less than the upper operating voltage value (U_BO) and greater than the lower operating voltage value (U_BU) of the high-voltage intermediate circuit. wherein the high-voltage intermediate circuit comprises an intermediate circuit capacitor; having the steps of: determining the voltage (U_ZK) across the high-voltage intermediate circuit; controlling the discharge circuit on the basis of the determined voltage (U_ZK), determining the voltage (U_ZK) across the high-voltage intermediate circuit; controlling the discharge circuit on the basis of the determined voltage (U_ZK), characterized in that an operating voltage range (U_B) having an upper operating voltage value (U_BO) and a lower operating voltage value (U_BU) of the high-voltage intermediate circuit is predefined, wherein the control of the discharge circuit comprises minimizing the current (S_E) through the discharge circuit if the determined voltage (U_ZK) of the high-voltage intermediate circuit is less than the upper operating voltage value (U_BO) and greater than the lower operating voltage value (U_BU) of the high-voltage intermediate circuit.
A method, comprising: receiving a physical layer signaling over a physical downlink control channel, PDCCH, by a user equipment, UE, in an orthogonal frequency division multiplexing, OFDM, wireless communications network; determining a physical random access channel, PRACH, resource to be allocated tc the UE based on the physical layer signaling and allocating the PRACH resource; performing an uplink listen before talk, LBT, channel access procedure by the UE to gain uplink channel access; and transmitting a PRACH preamble to the base station over the allocated PRACH resource upon the successful LBT procedure; characterized in that the PRACH resource is allocated within a maximum channel occupancy time, within which also the physical layer signaling is transmitted, and the uplink LBT procedure is a one-shot LBT procedure; wherein the physical layer signaling is a dedicated PDCCH order for the UE in Radio Resource Control, RRC, connected mode, or wherein the physical layer signaling is a common PDCCH for the UE in RRC idle mode. receiving a physical layer signaling over a physical downlink control channel, PDCCH, by a user equipment, UE, in an orthogonal frequency division multiplexing, OFDM, wireless communications network; determining a physical random access channel, PRACH, resource to be allocated tc the UE based on the physical layer signaling and allocating the PRACH resource; performing an uplink listen before talk, LBT, channel access procedure by the UE to gain uplink channel access; and transmitting a PRACH preamble to the base station over the allocated PRACH resource upon the successful LBT procedure; characterized in that the PRACH resource is allocated within a maximum channel occupancy time, within which also the physical layer signaling is transmitted, and the uplink LBT procedure is a one-shot LBT procedure; wherein the physical layer signaling is a dedicated PDCCH order for the UE in Radio Resource Control, RRC, connected mode, or wherein the physical layer signaling is a common PDCCH for the UE in RRC idle mode.
A method for sizing at least two screw compressors comprising: selecting a target capacity for each screw compressor, each screw compressor having a different rated capacity and further comprising a suction port, a working chamber, a discharge port, and at least two screw rotors being positioned within the working chamber for cooperatively compressing a fluid; selecting a rotational speed, the rotational speed selected to operate at least one screw rotor in each screw compressor at an approximately constant optimum peripheral velocity that is independent of the rated capacity of each screw compressor; and configuring the suction port, the at least two screw rotors and the discharge port together with the rotational speed for each screw compressor. selecting a target capacity for each screw compressor, each screw compressor having a different rated capacity and further comprising a suction port, a working chamber, a discharge port, and at least two screw rotors being positioned within the working chamber for cooperatively compressing a fluid; selecting a rotational speed, the rotational speed selected to operate at least one screw rotor in each screw compressor at an approximately constant optimum peripheral velocity that is independent of the rated capacity of each screw compressor; and configuring the suction port, the at least two screw rotors and the discharge port together with the rotational speed for each screw compressor.
A computer-implemented method for material decomposition of spectral imaging projection data, the method comprising: receiving projection data acquired by a spectral imaging system, reducing noise in the projection data by combining corresponding spectral values for different projection rays to obtain noise-reduced projection data, applying a first projection-domain material decomposition algorithm to the noise-reduced projection data to obtain a first set of material path length estimates, and applying a second projection-domain material decomposition algorithm to the projection data to obtain a second set of material path length estimates, characterized in that said second projection-domain material decomposition algorithm comprises an optimization that penalizes a deviation between the second set of material path length estimates being optimized and the first set of material path length estimates. receiving projection data acquired by a spectral imaging system, reducing noise in the projection data by combining corresponding spectral values for different projection rays to obtain noise-reduced projection data, applying a first projection-domain material decomposition algorithm to the noise-reduced projection data to obtain a first set of material path length estimates, and applying a second projection-domain material decomposition algorithm to the projection data to obtain a second set of material path length estimates,
A compound having the following formula: wherein X is O, NR 7 or (CH 2) n, wherein n is 0 or an integer of 1 or 2; Y is absent; Z is O; W is selected from the group consisting of alkyl and hydroxy, halogen, nitro, amino, and cyano-substituted alkyl or aryl; R 1 is selected from the group consisting of OR 7, N(R 7) 2, and N(R 7)SO 2 R 7; R 2 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; R 4 is selected from the group consisting of H, NH 2, alkyl, nitrogen-substituted alkyl and halogen-substituted alkyl; R 5 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; R 6 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; and, R 7 is selected from the group consisting of H and hydrocarbyl, and wherein "alkyl" refers to a straight chain, branched or cyclic saturated aliphatic hydrocarbon, or a pharmaceutically acceptable salt thereof. X is O, NR 7 or (CH 2) n, wherein n is 0 or an integer of 1 or 2; Y is absent; Z is O; W is selected from the group consisting of alkyl and hydroxy, halogen, nitro, amino, and cyano-substituted alkyl or aryl; R 1 is selected from the group consisting of OR 7, N(R 7) 2, and N(R 7)SO 2 R 7; R 2 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; R 4 is selected from the group consisting of H, NH 2, alkyl, nitrogen-substituted alkyl and halogen-substituted alkyl; R 5 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; R 6 is selected from the group consisting of H, hydroxy, alkyl, aryl, alkoxy, aryloxy, halogen, nitro, amino, cyano and hydroxy, halogen, nitro, amino and cyano-substituted alkyl, aryl, alkoxy or aryloxy; and, R 7 is selected from the group consisting of H and hydrocarbyl, and wherein "alkyl" refers to a straight chain, branched or cyclic saturated aliphatic hydrocarbon,