mhurhangee/ep-ind-claims huggingface dataset:
A disc brake assembly, comprising: a carrier having a first formation protruding from a surface thereof the carrier comprising an inner bore and an outer bore extending through the carrier in a direction tangential to a circle described by rotation of a rotor of the disc brake, the inner bore and the outer bore being configured to receive a bolt to attach the carrier to a mount, wherein the inner bore is provided closer to a longitudinal centre of the carrier relative to the outer bore; a caliper slideably mounted to the carrier having a second formation protruding from the caliper that is proximate to the first formation in use, wherein the relative positions of the first formation and the second formation are indicative of an amount of wear of a brake friction element and/or a rotor of the assembly in use, and wherein the first formation is on an inboard surface of the carrier, the first formation is integrally cast with the carrier, and the second formation is integrally cast with the caliper; and wherein the first formation is located proximate the inner bore or the outer bore; characterized in that the first formation protrudes from a surface of the carrier in a direction perpendicular to the inboard direction towards the caliper and the second formation protrudes from a surface of the caliper opposed to the first formation in a direction perpendicular to the inboard direction towards the carrier such that the second formation protrudes towards the first formation. a carrier having a first formation protruding from a surface thereof the carrier comprising an inner bore and an outer bore extending through the carrier in a direction tangential to a circle described by rotation of a rotor of the disc brake, the inner bore and the outer bore being configured to receive a bolt to attach the carrier to a mount, wherein the inner bore is provided closer to a longitudinal centre of the carrier relative to the outer bore; a caliper slideably mounted to the carrier having a second formation protruding from the caliper that is proximate to the first formation in use, wherein the relative positions of the first formation and the second formation are indicative of an amount of wear of a brake friction element and/or a rotor of the assembly in use, and wherein the first formation is on an inboard surface of the carrier, the first formation is integrally cast with the carrier, and the second formation is integrally cast with the caliper; and wherein the first formation is located proximate the inner bore or the outer bore; characterized in that the first formation protrudes from a surface of the carrier in a direction perpendicular to the inboard direction towards the caliper and the second formation protrudes from a surface of the caliper opposed to the first formation in a direction perpendicular to the inboard direction towards the carrier such that the second formation protrudes towards the first formation.
A slurry feed apparatus for depositing a slurry upon a moving forming web having a direction of travel, comprising: a headbox mounted transverse to the direction of travel of the moving web, having a bottom surface, and a downwardly inclined spillway leading from the bottom surface for directing slurry from the bottom surface of the headbox and down the inclined spillway to a tip edge of the spillway and onto the forming web; vertical edge boards (340, 370), comprising a headbox back edge board and two opposed headbox side edgeboards, on the back and opposed sides of the headbox to prevent slurry from spilling over the sides and back of the headbox; pivot pins mounted on the outer surface of the two opposed headbox side edge boards for mounting the headbox in use on respective opposed side walls of a conveyor for the moving web through use of vertically adjusted open yokes, the pivot pins mounted as close to the tip edge of the spillway as practical to allow the operator to change the angle of the headbox while maintaining the tip-edge-to-product distance, means for adjusting a tilt angle of the headbox up and down to control the flow of slurry down the spillway; a vibrator mounted on the outer surface of at least one of the vertical edge boards of the headbox for vibrating the headbox; and a reciprocating slurry delivery mechanism constructed and arranged for providing slurry to the headbox. a headbox mounted transverse to the direction of travel of the moving web, having a bottom surface, and a downwardly inclined spillway leading from the bottom surface for directing slurry from the bottom surface of the headbox and down the inclined spillway to a tip edge of the spillway and onto the forming web; vertical edge boards (340, 370), comprising a headbox back edge board and two opposed headbox side edgeboards, on the back and opposed sides of the headbox to prevent slurry from spilling over the sides and back of the headbox; pivot pins mounted on the outer surface of the two opposed headbox side edge boards for mounting the headbox in use on respective opposed side walls of a conveyor for the moving web through use of vertically adjusted open yokes, the pivot pins mounted as close to the tip edge of the spillway as practical to allow the operator to change the angle of the headbox while maintaining the tip-edge-to-product distance, means for adjusting a tilt angle of the headbox up and down to control the flow of slurry down the spillway; a vibrator mounted on the outer surface of at least one of the vertical edge boards of the headbox for vibrating the headbox; and a reciprocating slurry delivery mechanism constructed and arranged for providing slurry to the headbox.
A method of heating a food product being conveyed on a cook belt in a spiral oven, the method comprising the steps of: uniformly loading onto the cook belt a row of product to be cooked in the spiral oven; and exposing the row of product as it travels through the spiral oven to a first airflow and a second airflow, the first airflow flowing vertically upward along an inside edge of the cook belt and then vertically downward along an outside edge of the cook belt and the second airflow being an inverted airflow relative to the first airflow, the inverted airflow being achieved by a forward/reversing fan alternating between a first direction of rotation and a second direction of rotation; controlling the exposure of the row of product to the first and second airflows (40, 50) by using at least one of an amount of time the row of product is exposed to the first airflow and to the second airflow. uniformly loading onto the cook belt a row of product to be cooked in the spiral oven; and exposing the row of product as it travels through the spiral oven to a first airflow and a second airflow, the first airflow flowing vertically upward along an inside edge of the cook belt and then vertically downward along an outside edge of the cook belt and the second airflow being an inverted airflow relative to the first airflow, the inverted airflow being achieved by a forward/reversing fan alternating between a first direction of rotation and a second direction of rotation; controlling the exposure of the row of product to the first and second airflows (40, 50) by using at least one of an amount of time the row of product is exposed to the first airflow and to the second airflow.
A method of wireless communication, comprising: transmitting, using a first wireless communication device (no), control information to a second wireless communication device via a first radio access technology, RAT, including a long term evolution, LTE, RAT, the control information including control information for the first RAT and a second RAT including a non-LTE RAT, a timing structure of the second RAT being aligned to a timing structure of the first RAT; transmitting, using the first wireless communication device, first data to the second wireless communication device via the first RAT during a first transmission time interval, TTI, of the first RAT; transmitting, using the first wireless communication device, second data to the second wireless communication device via the second RAT during the first TTI; receiving, at the first wireless communication device, a first acknowledgement, ACK, or negative acknowledgement, NACK, from the second wireless communication device via the first RAT during a second TTI of the first RAT and according to the timing structure of the first RAT, the first ACK or NACK being related to the first data transmitted via the first RAT during the first TTI; and receiving, at the first wireless communication device, a second ACK or NACK from the second wireless communication device via the first RAT during the second TTI of the first RAT and according to the timing structure of the first RAT, the second ACK or NACK being related to the second data transmitted via the second RAT during the first TTI. transmitting, using a first wireless communication device (no), control information to a second wireless communication device via a first radio access technology, RAT, including a long term evolution, LTE, RAT, the control information including control information for the first RAT and a second RAT including a non-LTE RAT, a timing structure of the second RAT being aligned to a timing structure of the first RAT; transmitting, using the first wireless communication device, first data to the second wireless communication device via the first RAT during a first transmission time interval, TTI, of the first RAT; transmitting, using the first wireless communication device, second data to the second wireless communication device via the second RAT during the first TTI; receiving, at the first wireless communication device, a first acknowledgement, ACK, or negative acknowledgement, NACK, from the second wireless communication device via the first RAT during a second TTI of the first RAT and according to the timing structure of the first RAT, the first ACK or NACK being related to the first data transmitted via the first RAT during the first TTI; and receiving, at the first wireless communication device, a second ACK or NACK from the second wireless communication device via the first RAT during the second TTI of the first RAT and according to the timing structure of the first RAT, the second ACK or NACK being related to the second data transmitted via the second RAT during the first TTI.
Method for treating containers, wherein the containers are provided with at least one imprint, in at least one treatment station, on their outer container surface, making use of at least one printing ink or printing dye, and, at a treatment station (10, 10a), drying or curing of the printing ink takes place by the irradiation of the containers with an energy radiation, preferably with a non-thermal or essential non-thermal energy radiation, wherein the containers, during treatment, are held for at least part of the time in centring and holding elements or container carriers (11, 30), characterised in that the method comprises using the same type of energy radiation which is used for the drying or curing of the printing ink, sanitising or sterilising of the containers takes place on at least one container region, namely in the region of a container opening (2.1) and/or at a container inner surface, wherein the centring and holding elements or container carriers (11, 30) are sterilised at the sterilising of the containers or, additionally, before or after the connection with the containers, preferably with the energy radiation also used for the drying or curing of the at least one printing ink and/or the sterilising of the containers.
A heat dissipation apparatus, comprising: a main water pipe, a branch water pipe, a water pump, a sensor, and a controller (105, 202, 307, 407, 506), wherein the branch water pipe is connected to the main water pipe, and the branch water pipe is configured to cool a board mounted on the branch water pipe; the water pump is disposed on the main water pipe; the sensor is disposed on the main water pipe or the branch water pipe, and the sensor is configured to obtain inflow pressure of coolant flowing into the branch water pipe and outflow pressure of coolant flowing out of the branch water pipe; and the controller (105, 202, 307, 407, 506) is connected to the sensor, so that the controller (105, 202, 307, 407, 506) determines a current pressure difference between the inflow pressure and the outflow pressure; and the controller (105, 202, 307, 407, 506) is further connected to the water pump, so that the controller (105, 202, 307, 407, 506) correspondingly adjusts the water pump according to the current pressure difference and a preset pressure difference, to control a flow capacity of the coolant flowing into the branch water pipe, until an absolute value of a difference between the current pressure difference and the preset pressure difference is less than or equal to a preset error amount, wherein an initial pressure difference is a pressure difference required for ensuring that each component on the board runs without derating, and the preset pressure difference is a maximum value of the initial pressure differences of every two boards of the multiple boards; wherein the controller (105, 202, 307, 407, 506) adjusts the water pump when a quantity of boards mounted on the branch water pipe is changed.
Compound of the formula in which X represents N or CH, R 1 represents hydrogen or cyano, R 2 represents piperazin-1-yl, where piperazin-1-yl is substituted by a substituent, where the substituent is selected from the group consisting of C 3 -C 6 -cycloalkyl, or one of the salts, solvates or solvates of the salts thereof. X represents N or CH, R 1 represents hydrogen or cyano, R 2 represents piperazin-1-yl,
An isolated human antibody or functional fragment thereof comprising an antigen-binding region that is specific for Mesothelin of SEQ ID NO: 370, wherein said antibody or functional fragment thereof recognizes an epitope of mesothelin that is not masked by cancer antigen 125, and wherein said antibody or functional fragment thereof internalizes into mesothelin expressing cells and has an antigen-binding region, wherein the antibody binding region includes a HCDR 1, HCDR 2, HCDR 3, LCDR 1, LCDR 2 and LCDR 3 wherein: a) HCDR1 is SEQ ID NO: 5, b) HCDR2 is SEQ ID NO: 39, c) HCDR3 is SEQ ID NO: 71, d) LCDR1 is SEQ ID NO: 103, e) LCDR2 is SEQ ID NO: 133 and f) LCDR3 is SEQ ID NO: 169. a) HCDR1 is SEQ ID NO: 5, b) HCDR2 is SEQ ID NO: 39, c) HCDR3 is SEQ ID NO: 71, d) LCDR1 is SEQ ID NO: 103, e) LCDR2 is SEQ ID NO: 133 and f) LCDR3 is SEQ ID NO: 169.
Method for supporting an implement operator in working an agricultural area, comprising the steps of: - recording control information relating to control measures which are implemented by an agricultural implement during initial working of the agricultural area, the control information relating to the control measures being recorded by an electronic data processing device; - recording, by the electronic data processing device, georeferenced measure positions (26a-26q) of the agricultural implement when implementing control measures during the initial working of the agricultural area; and - using, by an electronic display and control unit, recorded control information relating to at least individual control measures implemented during the initial working of the agricultural area in subsequent working of the agricultural area using an agricultural implement; characterized in that recorded control information relating to at least individual control measures implemented during the initial working of the agricultural area is visually and spatially displayed during the subsequent working of the agricultural area via an information overview associated with the measure position (26a-26q) on a display, in the form of a touchscreen, of the electronic display and control unit, preferably on a displayed map, at its particular georeferenced measure position (26a-26q) when the implement operator selects a measure position (26a-26q) by touching the display at the measure position (26a-26q) to be selected. - recording control information relating to control measures which are implemented by an agricultural implement during initial working of the agricultural area, the control information relating to the control measures being recorded by an electronic data processing device; - recording, by the electronic data processing device, georeferenced measure positions (26a-26q) of the agricultural implement when implementing control measures during the initial working of the agricultural area; and - using, by an electronic display and control unit, recorded control information relating to at least individual control measures implemented during the initial working of the agricultural area in subsequent working of the agricultural area using an agricultural implement;
Method for determining the state of at least one sensor whose mechanical behaviour is nonlinear as a function of the amplitude of the pressure exerted against said sensor, said sensor and an electromechanical transducer being able to be coupled to a support, the method comprising the steps of - applying an electrical signal (Vin) at a first amplitude to the terminals of the electromechanical transducer, and determining a first set of values (Mod1, Arg1) of a parameter characteristic of the electrical impedance of the electromechanical transducer in response to the application of said electrical signal (Vin); - applying said electrical signal at a second amplitude to the terminals of the electromechanical transducer, and determining a second set of values (Mod2, Arg2) of the parameter characteristic of the impedance; - measuring a deviation between the first set of values (Mod1, Arg1) and the second set of values (Mod2, Arg2); - determining a state of the sensor as a function of the deviation between the first set of values (Mod1, Arg1) and the second set of values (Mod2, Arg2), the measuring of the deviation between the first set of values and the second set of values comprising the measuring of a deviation of frequencies between the passages by one predefined impedance module value or by one predefined impedance argument value of the first set of values and of the second set of values. - applying an electrical signal (Vin) at a first amplitude to the terminals of the electromechanical transducer, and determining a first set of values (Mod1, Arg1) of a parameter characteristic of the electrical impedance of the electromechanical transducer in response to the application of said electrical signal (Vin); - applying said electrical signal at a second amplitude to the terminals of the electromechanical transducer, and determining a second set of values (Mod2, Arg2) of the parameter characteristic of the impedance; - measuring a deviation between the first set of values (Mod1, Arg1) and the second set of values (Mod2, Arg2); - determining a state of the sensor as a function of the deviation between the first set of values (Mod1, Arg1) and the second set of values (Mod2, Arg2),
A rotary electric machine apparatus comprising: a first rotary electric machine that includes a first rotor, a first stator and a first housing for containing the first rotor and the first stator; a second rotary electric machine that includes a second rotor, a second stator and a second housing for containing the second rotor and the second stator; a pump that supplies a cooling liquid to the first rotary electric machine and the second rotary electric machine; characterised in that it further comprises a communication pipe that communicates a gas-phase in the first housing and a gas-phase in the second housing so that the internal pressures of the first housing and the second housing are balanced to each other. a first rotary electric machine that includes a first rotor, a first stator and a first housing for containing the first rotor and the first stator; a second rotary electric machine that includes a second rotor, a second stator and a second housing for containing the second rotor and the second stator; a pump that supplies a cooling liquid to the first rotary electric machine and the second rotary electric machine; characterised in that it further comprises a communication pipe that communicates a gas-phase in the first housing and a gas-phase in the second housing so that the internal pressures of the first housing and the second housing are balanced to each other.
A mobile station apparatus (A11, A12, A1 to A4) comprising: a transceiver device configured to transmit to a base station apparatus (B, B1 to B4), a radio resource control message including information indicating a mobile station component carrier capability, wherein the information includes wireless parameters, the wireless parameters indicate a first set of numbers each indicating a frequency band number, a second set of numbers each relating to a frequency bandwidth of at least one uplink component carrier, a third set of numbers each indicating the maximum number of uplink component carriers of the at least one uplink component carrier, a fourth set of numbers each indicating the number of uplink component carrier MIMO streams, a fifth set of numbers each relating to a frequency bandwidth of at least one downlink component carrier, a sixth set of numbers each indicating the maximum number of downlink component carriers of the at least one downlink component carrier, and a seventh set of numbers each indicating the number of downlink component carrier MIMO streams, and each number included in each of the second to seventh sets corresponds to one of frequency band numbers included in the first set. a transceiver device configured to transmit to a base station apparatus (B, B1 to B4), a radio resource control message including information indicating a mobile station component carrier capability, wherein the information includes wireless parameters, the wireless parameters indicate a first set of numbers each indicating a frequency band number, a second set of numbers each relating to a frequency bandwidth of at least one uplink component carrier, a third set of numbers each indicating the maximum number of uplink component carriers of the at least one uplink component carrier, a fourth set of numbers each indicating the number of uplink component carrier MIMO streams, a fifth set of numbers each relating to a frequency bandwidth of at least one downlink component carrier, a sixth set of numbers each indicating the maximum number of downlink component carriers of the at least one downlink component carrier, and a seventh set of numbers each indicating the number of downlink component carrier MIMO streams, and each number included in each of the second to seventh sets corresponds to one of frequency band numbers included in the first set.