mhurhangee/ep-ind-claims huggingface dataset:
A manifold assembly for a gas turbine engine, comprising: a fuel manifold; a sensor; characterized in that the manifold assembly further comprises: a snubber block being mounted to the fuel manifold; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body, wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block. a fuel manifold; a sensor; characterized in that the manifold assembly further comprises: a snubber block being mounted to the fuel manifold; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body, wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block. a snubber block being mounted to the fuel manifold; wherein the snubber block comprises a body with at least one passage with a respective flow restrictive orifice, a male section that extends from the body, wherein the body is operable to receive the sensor, wherein the snubber block is configured to restrict a fuel flow to and from the sensor; wherein the male section is shaped the same as a male end of the sensor, wherein the male section of the snubber block is receivable within the fuel manifold to which the sensor is otherwise received; wherein the sensor is a Fuel Filter Delta Pressure Sensor and is mounted to the snubber block.
Arrangement of a double clutch, having - a rotating multiple-piece clutch housing, at least comprising a driving device and a clutch basket, - a central web, - a first component clutch and a second component clutch which act in each case on the common central web and comprise in each case at least the following components: - at least one clutch plate (8, 24) with in each case two friction faces, - a number of pressure plates which corresponds to the number of the at least one clutch plate (8, 25), - an actuating device which is arranged in a rigid attachment part for generating an engaging force, having a force transmission unit for converting the engaging force into a pressing force which presses the at least one pressure plate against a corresponding friction face, with the result that, if a force is prevailing, the clutch plate (8, 24) and the corresponding pressure plate rotate synchronously, the force transmission unit having a rigid part facing the actuating device and a rotating part facing the central web, and the rotating part comprising a pressure pot, characterized in that at least one of the two force transmission units is arranged outside the clutch housing and the pressure pot is connected to at least one actuating finger which extends through the clutch housing and is set up to exert the pressing force on a first pressure plate. - a rotating multiple-piece clutch housing, at least comprising a driving device and a clutch basket, - a central web, - a first component clutch and a second component clutch which act in each case on the common central web and comprise in each case at least the following components: - at least one clutch plate (8, 24) with in each case two friction faces, - a number of pressure plates which corresponds to the number of the at least one clutch plate (8, 25), - an actuating device which is arranged in a rigid attachment part for generating an engaging force, having a force transmission unit for converting the engaging force into a pressing force which presses the at least one pressure plate against a corresponding friction face, with the result that, if a force is prevailing, the clutch plate (8, 24) and the corresponding pressure plate rotate synchronously, the force transmission unit having a rigid part facing the actuating device and a rotating part facing the central web, and the rotating part comprising a pressure pot, - at least one clutch plate (8, 24) with in each case two friction faces, - a number of pressure plates which corresponds to the number of the at least one clutch plate (8, 25), - an actuating device which is arranged in a rigid attachment part for generating an engaging force, having a force transmission unit for converting the engaging force into a pressing force which presses the at least one pressure plate against a corresponding friction face, with the result that, if a force is prevailing, the clutch plate (8, 24) and the corresponding pressure plate rotate synchronously, the force transmission unit having a rigid part facing the actuating device and a rotating part facing the central web, and the rotating part comprising a pressure pot,
A latch circuit, comprising: a first latch configured with one latch feedback F and configured to receive a latch input I, a latch clock C, and an inverse latch clock C of the latch clock C, the first latch being configured to output Q, where the output Q is a function of CF, IF, and I C, and the latch feedback F is a function of the output Q; wherein the latch feedback F is functionally Q, and the output Q is functionally C + I F + I C ̅ ̅; and wherein the first latch includes an OR gate, a first AND gate, a second AND gate, a NOR gate, and an inverter; wherein: the OR gate has a first input coupled to the latch clock C and a second input coupled to the latch input I; an output of the OR gate is coupled to a first input of the first AND gate; the second AND gate has a first input coupled to the latch input I and a second input coupled to the inverse latch clock C of the latch clock C; an output of the first AND gate is coupled to a first input of the NOR gate, and an output of the second AND gate is coupled to a second input of the NOR gate; an output of the NOR gate is Q; the output Q of the NOR gate is input to the inverter; an output of the inverter, the latch feedback F, is coupled to a second input of the first AND gate. a first latch configured with one latch feedback F and configured to receive a latch input I, a latch clock C, and an inverse latch clock C of the latch clock C, the first latch being configured to output Q, where the output Q is a function of CF, IF, and I C, and the latch feedback F is a function of the output Q; wherein the latch feedback F is functionally Q, and the output Q is functionally C + I F + I C ̅ ̅; and wherein the first latch includes an OR gate, a first AND gate, a second AND gate, a NOR gate, and an inverter; wherein: the OR gate has a first input coupled to the latch clock C and a second input coupled to the latch input I; an output of the OR gate is coupled to a first input of the first AND gate; the second AND gate has a first input coupled to the latch input I and a second input coupled to the inverse latch clock C of the latch clock C; an output of the first AND gate is coupled to a first input of the NOR gate, and an output of the second AND gate is coupled to a second input of the NOR gate; an output of the NOR gate is Q; the output Q of the NOR gate is input to the inverter; an output of the inverter, the latch feedback F, is coupled to a second input of the first AND gate.
A method for transmitting downlink control information, comprising: determining, by a network device, a first control resource set capable of being used by the network device among M control resource sets, wherein the M control resource sets correspond to Y candidate synchronizing signal block, SSB, positions on an unlicensed carrier; and sending, by the network device, first downlink control information on a resource of the first control resource set, wherein the first downlink control information is used to determine an SSB position where at least one SSB in X SSBs is sent among the Y SSB positions, wherein M, Y and X are all positive integers, and 1 ≤X< Y, M <, Y determining, by a network device, a first control resource set capable of being used by the network device among M control resource sets, wherein the M control resource sets correspond to Y candidate synchronizing signal block, SSB, positions on an unlicensed carrier; and sending, by the network device, first downlink control information on a resource of the first control resource set, wherein the first downlink control information is used to determine an SSB position where at least one SSB in X SSBs is sent among the Y SSB positions, wherein M, Y and X are all positive integers, and 1 ≤X< Y, M <, Y
A negative pressure wound therapy apparatus comprising: a wound dressing; a fluid collection container; a vacuum pump comprising a pump motor; one or more tubes configured to at least channel a flow of fluid between said wound dressing, said fluid collection container, and said pump; a pressure sensor configured to measure a pressure in one or more of said one or more tubes and to generate a pressure sensor signal; a first control circuit for controlling the pump motor, without using a processor, the first control circuit configured to: generate a difference signal comprising a difference between a desired pressure input and a pressure sensor signal; and generate a motor control signal responsive to the difference signal, the motor control signal configured to control a speed of the pump motor, characterized by a second control circuit for providing, without using a processor, an override signal based at least in part on the difference signal and at least one reference signal, the override signal configured to override the motor control signal and thereby prevent the pump motor from stalling, wherein the second control circuit comprises a comparison circuit in communication with an AND gate. a wound dressing; a fluid collection container; a vacuum pump comprising a pump motor; one or more tubes configured to at least channel a flow of fluid between said wound dressing, said fluid collection container, and said pump; a pressure sensor configured to measure a pressure in one or more of said one or more tubes and to generate a pressure sensor signal; a first control circuit for controlling the pump motor, without using a processor, the first control circuit configured to: generate a difference signal comprising a difference between a desired pressure input and a pressure sensor signal; and generate a motor control signal responsive to the difference signal, the motor control signal configured to control a speed of the pump motor, generate a difference signal comprising a difference between a desired pressure input and a pressure sensor signal; and generate a motor control signal responsive to the difference signal, the motor control signal configured to control a speed of the pump motor, characterized by a second control circuit for providing, without using a processor, an override signal based at least in part on the difference signal and at least one reference signal, the override signal configured to override the motor control signal and thereby prevent the pump motor from stalling, wherein the second control circuit comprises a comparison circuit in communication with an AND gate.
An injection device, the injection device comprising: a housing containing a first optical sensor and a second optical sensor spaced circumferentially relative to a dialling sleeve of the injection device, wherein the optical sensors are arranged to detect optical features on a rotatable surface of the dialling sleeve, wherein the optical features comprise black and white regions, and wherein each optical sensor has a first state when it detects a white region and a second state when it detects a black region; and a processor arrangement configured to: detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, wherein the rotatable surface of the dialling sleeve is arranged to move rotationally and axially with respect to the housing. a housing containing a first optical sensor and a second optical sensor spaced circumferentially relative to a dialling sleeve of the injection device, wherein the optical sensors are arranged to detect optical features on a rotatable surface of the dialling sleeve, wherein the optical features comprise black and white regions, and wherein each optical sensor has a first state when it detects a white region and a second state when it detects a black region; and a processor arrangement configured to: detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, detect a change in the state of each of the optical sensors; and determine a direction of rotation of the rotatable surface of the injection device from the detected state changes, wherein the rotatable surface of the dialling sleeve is arranged to move rotationally and axially with respect to the housing.
A system for teleoperation of a machine having at least one actuated mechanism and a predetermined number of degrees of freedom, said system comprising: a control station remotely located from a location of said machine, said machine controlled from said control station to perform a predetermined function; a two way real-time communication link between said machine and said remotely located control station; and a controller at said machine location having therein program code, said program code configured to determine from data from one or more sensors at said machine location if an actual fault has occurred in said machine when said machine is performing said predetermined function, said program code further configured to determine from said sensor data when an actual fault has occurred, one or more types for said fault and transmit said one or more fault types to said control station for analysis at said control station, the system further comprising predefined rules for recovering from a machine fault, said predefined rules stored in said controller at said machine location, said controller starting said recovery from said machine fault using said predefined rules for recovering from a machine fault. a control station remotely located from a location of said machine, said machine controlled from said control station to perform a predetermined function; a two way real-time communication link between said machine and said remotely located control station; and a controller at said machine location having therein program code, said program code configured to determine from data from one or more sensors at said machine location if an actual fault has occurred in said machine when said machine is performing said predetermined function, said program code further configured to determine from said sensor data when an actual fault has occurred, one or more types for said fault and transmit said one or more fault types to said control station for analysis at said control station, the system further comprising predefined rules for recovering from a machine fault, said predefined rules stored in said controller at said machine location, said controller starting said recovery from said machine fault using said predefined rules for recovering from a machine fault.
A method for actuating a door lock comprising a lock mechanism in a door lock housing for a door of an electrical domestic appliance, preferably a dishwasher, wherein a locking bar is moved from an open position into a locked position by means of a spring element for locking, wherein, in the open position, the door is opened and the locking bar is disengaged from a latch of a striker disposed on the domestic appliance and, in the locked position, the door is closed, the striker is in a locked position in the door lock housing and the locking bar is engaged with the latch, wherein, in order to lock the door proceeding from the open position, the locking bar is brought into the locked position under tension of the spring element, in which locked position a closing force acting on the locking bar is determined by the spring element, and, in order to unlock the door, the locking bar is brought out of the locked position into an unlocked position with the aid of an actuating force that is not applied by the spring element, and, after the striker has moved out of the locked position, the locking bar is moved into the open position by means of the force of the spring element, characterized in that in order to lock the door and, therefore, in order to move the locking bar out of the open position, an actuator of the lock mechanism located at the locked position of the striker presses against the striker and the striker moves into the locked position by the actuator moving away, wherein, simultaneously, the spring element is initially tensioned via the actuator by means of the striker and, thus, the locking bar moves out of the open position into an intermediate position and, subsequently, the spring element partially releases and, thus, the locking bar is moved out of the intermediate position into the locked position while a remaining residual tension of the spring element forming the closing force is maintained.
An optical fiber comprising: a glass fiber including a core and a cladding that surrounds the core and has a refractive index lower than a refractive index of the core; a first resin coating layer that is in contact with the glass fiber and surrounds the glass fiber; a second resin coating layer that surrounds the first resin coating layer and has a Young's modulus greater than a Young's modulus of the first resin coating layer; wherein an effective area is greater than or equal to 110 μm 2 and less than or equal to 180 μm 2 at a wavelength of 1550 nm, wherein a cable cut-off wavelength is less than or equal to 1530 nm, wherein a uniformity of thickness of the first resin layer is defined by a minimum and a maximum thickness of said first resin layer in the radial direction on a cross section perpendicular to the fiber axis as minimum thickness/maximum thickness x 100; characterised in that the optical fiber is a colored optical fiber further comprising a color layer that surrounds the second resin coating layer of the optical fiber, wherein the color layer has an outer diameter that is greater than or equal to 180 μm and less than or equal to 210 μm, and wherein said uniformity of thickness of the first resin coating layer is greater than or equal to 60% and less than or equal to 80%. a glass fiber including a core and a cladding that surrounds the core and has a refractive index lower than a refractive index of the core; a first resin coating layer that is in contact with the glass fiber and surrounds the glass fiber; a second resin coating layer that surrounds the first resin coating layer and has a Young's modulus greater than a Young's modulus of the first resin coating layer; wherein an effective area is greater than or equal to 110 μm 2 and less than or equal to 180 μm 2 at a wavelength of 1550 nm, wherein a cable cut-off wavelength is less than or equal to 1530 nm, wherein a uniformity of thickness of the first resin layer is defined by a minimum and a maximum thickness of said first resin layer in the radial direction on a cross section perpendicular to the fiber axis as minimum thickness/maximum thickness x 100; characterised in that the optical fiber is a colored optical fiber further comprising a color layer that surrounds the second resin coating layer of the optical fiber, wherein the color layer has an outer diameter that is greater than or equal to 180 μm and less than or equal to 210 μm, and wherein said uniformity of thickness of the first resin coating layer is greater than or equal to 60% and less than or equal to 80%.
A laser processing machine (10, 10A) comprising: a laser oscillator that outputs a laser light having a 1μm wavelength band; a laser processing head that is optically connected with the laser oscillator and irradiates the laser light toward a workpiece while injecting assist gas; a detector (38, 52+56) that is provided within the laser processing head and detects a returned light (BR, BR') travelling from a side of a processed point, including the processed point and a vicinity of the processed point, toward the laser processing head while the laser light is irradiated; and a monitoring section (40, 54) that monitors a laser processing state by selectively detecting a light level of a specific wavelength band according to a processing condition in temporal sequence from the returned light (BR, BR') detected by the detector (38, 52+56), characterized in that the monitoring section (40, 54) has a judging section (46, 62) that judges the laser processing state by comparing a reference transition pattern that indicates light level temporal transition of the specific wavelength band assumed in a case where the laser processing condition is proper and light level temporal transition of the specific wavelength band according to the processing condition as a detection result from the detector (38, 52+56). a laser oscillator that outputs a laser light having a 1μm wavelength band; a laser processing head that is optically connected with the laser oscillator and irradiates the laser light toward a workpiece while injecting assist gas; a detector (38, 52+56) that is provided within the laser processing head and detects a returned light (BR, BR') travelling from a side of a processed point, including the processed point and a vicinity of the processed point, toward the laser processing head while the laser light is irradiated; and a monitoring section (40, 54) that monitors a laser processing state by selectively detecting a light level of a specific wavelength band according to a processing condition in temporal sequence from the returned light (BR, BR') detected by the detector (38, 52+56), characterized in that the monitoring section (40, 54) has a judging section (46, 62) that judges the laser processing state by comparing a reference transition pattern that indicates light level temporal transition of the specific wavelength band assumed in a case where the laser processing condition is proper and light level temporal transition of the specific wavelength band according to the processing condition as a detection result from the detector (38, 52+56).