mhurhangee/ep-ind-claims huggingface dataset:
Transport device for transporting preforms made of a thermoplastic material in the region of a blow moulding machine for the blow moulding of containers, comprising a transport wheel rotatably mounted around a rotational axis with a plurality of receptacle recesses arranged in a distributed manner around its circumference in the circumferential direction for holding and conveying the preforms, wherein, on the transport wheel in the region of the receptacle recess, a hook element is respectively arranged, which is swivel-mounted on the transport wheel capable of being pivoted between an open position and a closed position, wherein, in the closed position, the hook element secures a preform to be transported in the respective receptacle recess against falling out of the receptacle recess, characterized in that the transport device comprises an ejection unit for the selective separation of each individual preform transported in one of the receptacle recesses of the transport wheel, wherein the ejection unit comprises an ejection pin that can be longitudinally slid between an ejection position and a rest position, and wherein the ejection pin protrudes into the region of one of the receptacle recesses in the ejection position in such a way that a preform located in this receptacle recess is ejected out of the receptacle recess.
A drum for the milling treatment of the leathers comprising: - a bearing frame suitable to rest on a reference surface of an industrial factory; - a movable hollow body, coupled with said bearing frame and made of at least partly thermally conductive material, suitable to receive in its inner volume the leathers to be treated by milling; - motorization means operatively connected with said movable hollow body in such a way as to place it in rotation around a linear axis when said leathers must be treated in said inner volume of said hollow body; - an outer casing coupled with said bearing frame and surrounding said movable hollow body with which it defines an annular space, characterized in that it comprises a conditioning circuit cooperating with said movable hollow body through air (A 1) which said conditioning circuit conveys within said annular space at a given temperature, varied by adjustment means depending on the contingent needs of treatment of said leathers inside said hollow body in rotation, in such a manner that the outer wall of said hollow body is kept at a predefined temperature, deemed to be adequate for each phase of said treatment of said leathers in said hollow body, and a structural assembly formed by said outer casing and said movable hollow body defines a heat exchanger in which said air (A 1) which is conveyed into said annular space and flows around said outer wall of said hollow body stands for a first one of heat exchange fluids and is at least: • hot in the initial stage of said treatment of said leathers in said hollow body in rotation, in order to contribute to the heating of said leathers in said inner volume of said hollow body; • cold in the advanced stage of said treatment of said leathers in order to dissipate the heat in excess developed by friction by said leathers moving in said inner volume of said hollow body. - a bearing frame suitable to rest on a reference surface of an industrial factory; - a movable hollow body, coupled with said bearing frame and made of at least partly thermally conductive material, suitable to receive in its inner volume the leathers to be treated by milling; - motorization means operatively connected with said movable hollow body in such a way as to place it in rotation around a linear axis when said leathers must be treated in said inner volume of said hollow body; - an outer casing coupled with said bearing frame and surrounding said movable hollow body with which it defines an annular space, • hot in the initial stage of said treatment of said leathers in said hollow body in rotation, in order to contribute to the heating of said leathers in said inner volume of said hollow body; • cold in the advanced stage of said treatment of said leathers in order to dissipate the heat in excess developed by friction by said leathers moving in said inner volume of said hollow body.
A network apparatus for wireless transmission/reception of data streams having a first resource management module with management information therein on wireless channels used for the data streams transmitted/received in a wireless manner among apparatuses (210, 250, 1440, 220) in a network, said network apparatus comprising: a processor operable to process an event, upon occurrence of the event in the network, CHARACTERISED IN THAT the event comprises a network disconnection request to request disconnection of said network apparatus from the network, and the management information comprises information on the apparatuses (210, 250, 1440, 220) in the network, wherein the processor is operable to process the network disconnection request event by: determining whether there are other network apparatuses present in the network; selecting a new network apparatus, among the other network apparatuses, that will operate a second resource management module and instructing the selected network apparatus to create the second resource management module; moving data of the first resource management module to the selected network apparatus by transmitting an event response signal comprising the management information corresponding to the event, thereby managing the wireless channels for the data streams transmitted/received in the wireless manner among the apparatuses (210, 250, 1440, 220) in the network. a processor operable to process an event, upon occurrence of the event in the network, CHARACTERISED IN THAT the event comprises a network disconnection request to request disconnection of said network apparatus from the network, and the management information comprises information on the apparatuses (210, 250, 1440, 220) in the network, wherein the processor is operable to process the network disconnection request event by: determining whether there are other network apparatuses present in the network; selecting a new network apparatus, among the other network apparatuses, that will operate a second resource management module and instructing the selected network apparatus to create the second resource management module; moving data of the first resource management module to the selected network apparatus by transmitting an event response signal comprising the management information corresponding to the event, thereby managing the wireless channels for the data streams transmitted/received in the wireless manner among the apparatuses (210, 250, 1440, 220) in the network. determining whether there are other network apparatuses present in the network; selecting a new network apparatus, among the other network apparatuses, that will operate a second resource management module and instructing the selected network apparatus to create the second resource management module; moving data of the first resource management module to the selected network apparatus by transmitting an event response signal comprising the management information corresponding to the event, thereby managing the wireless channels for the data streams transmitted/received in the wireless manner among the apparatuses (210, 250, 1440, 220) in the network.
A method of executing a loop by a computer system having multiple processing elements, the method comprising: loading loop kernel instructions for the loop into a memory of the computer system, each loop kernel instruction having a stage number associated therewith; receiving a loop setup instruction that includes a total loop count, a number of the processing elements to use in executing the loop instructions, a stage count, and a loop-unroll factor; computing a stage-mask register value for each of the number of processing elements given by the loop setup instruction prior to each iteration of the loop, the stage-mask register value indicating which loop kernel instructions are executed during each iteration of the loop; for each of the number of processing elements, executing a first subset of the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register value is less than the stage count, whereby the first subset defines a loop prolog; subsequent to the loop prolog, for each of the number of processing elements, executing all the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register is equal to the stage count; and subsequently executing a second subset of the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register value is less than the stage count, whereby the second subset defines a loop epilog. loading loop kernel instructions for the loop into a memory of the computer system, each loop kernel instruction having a stage number associated therewith; receiving a loop setup instruction that includes a total loop count, a number of the processing elements to use in executing the loop instructions, a stage count, and a loop-unroll factor; computing a stage-mask register value for each of the number of processing elements given by the loop setup instruction prior to each iteration of the loop, the stage-mask register value indicating which loop kernel instructions are executed during each iteration of the loop; for each of the number of processing elements, executing a first subset of the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register value is less than the stage count, whereby the first subset defines a loop prolog; subsequent to the loop prolog, for each of the number of processing elements, executing all the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register is equal to the stage count; and subsequently executing a second subset of the loop kernel instructions based on the stage-mask register values and stage numbers, where for each iteration of the loop the stage-mask register value is less than the stage count, whereby the second subset defines a loop epilog.
A numerical controller which, when reading a program command from a machining program, determines whether the read program command is an auxiliary command or not, transmits a signal requesting to execute an auxiliary function associated with the auxiliary command when the read program command is the auxiliary command, and executes a subsequent command upon receiving a signal indicating the completion of the auxiliary command if the auxiliary command is a first auxiliary command requiring to wait to receive the signal indicating the completion, the numerical controller comprising: a storage unit for storing a second auxiliary command indicating unnecessity of waiting to receive a completion signal corresponding to the second auxiliary command, and a condition for ending monitoring of the completion signal corresponding to the second auxiliary command, wherein, after starting the execution of the second auxiliary command indicating the unnecessity of waiting to receive the completion signal, monitoring of the completion signal corresponding to the second auxiliary command is started and the monitoring of the completion signal is continued while subsequent commands are sequentially executed, and when the completion signal is received before the condition for ending monitoring of the completion signal, stored in the storage unit, is satisfied, the monitoring of the completion signal is ended, and when the completion signal is not received before the condition for ending monitoring of the completion signal is satisfied, the execution of the machining program is stopped to issue an alarm. a storage unit for storing a second auxiliary command indicating unnecessity of waiting to receive a completion signal corresponding to the second auxiliary command, and a condition for ending monitoring of the completion signal corresponding to the second auxiliary command, wherein, after starting the execution of the second auxiliary command indicating the unnecessity of waiting to receive the completion signal, monitoring of the completion signal corresponding to the second auxiliary command is started and the monitoring of the completion signal is continued while subsequent commands are sequentially executed, and when the completion signal is received before the condition for ending monitoring of the completion signal, stored in the storage unit, is satisfied, the monitoring of the completion signal is ended, and when the completion signal is not received before the condition for ending monitoring of the completion signal is satisfied, the execution of the machining program is stopped to issue an alarm.
A vacuum cleaner comprising: a surface cleaning head including a dirty air inlet and a plurality of electrical components; a pivot assembly pivotally coupled to the surface cleaning head such that the pivot assembly is pivotable relative to the surface cleaning head, the pivot assembly including a pivot assembly electrical connection being electrically connected to the plurality of electrical components of the surface cleaning head; and a canister assembly coupled to the pivot assembly such that the canister assembly is supported above the surface cleaning head, the canister assembly including an electrical source connector configured to connect to a power source, the canister assembly further including a dirt separation unit and a suction source electrically connected to the electrical source connector and in fluid communication with the dirty air inlet and the dirt separation unit, the electrical source connector being electrically connected to the plurality of electrical components via the pivot assembly electrical connection; wherein the surface cleaning head further includes an appliance board having an appliance controller, a display board having a display, and a floor-type sensor, each of which being one of the plurality of electrical components, the floor-type sensor and the display being in electrical communication with the appliance controller; wherein the display of the surface cleaning head displays an indicator (305A, 305B, 305C, 305D) responsive to the floor-type sensor. a surface cleaning head including a dirty air inlet and a plurality of electrical components; a pivot assembly pivotally coupled to the surface cleaning head such that the pivot assembly is pivotable relative to the surface cleaning head, the pivot assembly including a pivot assembly electrical connection being electrically connected to the plurality of electrical components of the surface cleaning head; and a canister assembly coupled to the pivot assembly such that the canister assembly is supported above the surface cleaning head, the canister assembly including an electrical source connector configured to connect to a power source, the canister assembly further including a dirt separation unit and a suction source electrically connected to the electrical source connector and in fluid communication with the dirty air inlet and the dirt separation unit, the electrical source connector being electrically connected to the plurality of electrical components via the pivot assembly electrical connection; wherein the surface cleaning head further includes an appliance board having an appliance controller, a display board having a display, and a floor-type sensor, each of which being one of the plurality of electrical components, the floor-type sensor and the display being in electrical communication with the appliance controller; wherein the display of the surface cleaning head displays an indicator (305A, 305B, 305C, 305D) responsive to the floor-type sensor.
A system (100, 101, 102, 103, 104, 105, 106, 107) for sensing torque in a rotatable shaft, the system (100, 101, 102, 103, 104, 105, 106, 107) comprising: a target region extending along at least a portion of a length of the shaft; at least one sensor (120A, 120B, 122A, 122B) configured to measure a torque transmitted through the shaft over the target region; a bearing having an inner race and an outer race, the inner race being supported by, and in contact with, an outer surface of the shaft, such that the inner race and the shaft are rotatably locked together; a frame fixedly mounted to the outer race of the bearing, such that the frame maintains a substantially constant radial distance from the shaft; wherein the shaft is configured to rotate relative to the frame; and wherein the at least one sensor (120A, 120B, 122A, 122B) is rigidly attached to the frame, such that a gap between the at least one sensor (120A, 120B, 122A, 122B) and the outer surface of the shaft in the target region is substantially constant; the system characterised in that it further comprises a compliant mount attaching the frame to a fixed structure such that the frame is configured to move substantially in unison with the shaft, relative to the fixed structure, in at least two dimensions, the at least two dimensions being in a plane perpendicular to a longitudinal axis of the shaft. a target region extending along at least a portion of a length of the shaft; at least one sensor (120A, 120B, 122A, 122B) configured to measure a torque transmitted through the shaft over the target region; a bearing having an inner race and an outer race, the inner race being supported by, and in contact with, an outer surface of the shaft, such that the inner race and the shaft are rotatably locked together; a frame fixedly mounted to the outer race of the bearing, such that the frame maintains a substantially constant radial distance from the shaft; wherein the shaft is configured to rotate relative to the frame; and wherein the at least one sensor (120A, 120B, 122A, 122B) is rigidly attached to the frame, such that a gap between the at least one sensor (120A, 120B, 122A, 122B) and the outer surface of the shaft in the target region is substantially constant; the system characterised in that it further comprises a compliant mount attaching the frame to a fixed structure such that the frame is configured to move substantially in unison with the shaft, relative to the fixed structure, in at least two dimensions, the at least two dimensions being in a plane perpendicular to a longitudinal axis of the shaft.
A honeycomb catalyst body comprising: a plugged honeycomb structure having porous partition walls defining a plurality of cells extending from an inflow side end face to an outflow side end face and to become through channels of a fluid, inflow side plugged portions provided at outflow side ends of the predetermined cells, outflow side plugged portions provided at inflow side ends of the remaining cells, and porous projecting portions projecting so as to extend from the partition walls into the cells and being formed integrally with the partition walls; and a catalyst loaded onto the projecting portions of the plugged honeycomb structure, wherein a porosity of each of the partition walls of the plugged honeycomb structure is 40% or more and smaller than 60%, a thickness of each of the projecting portions is from 30 to 140% of a thickness of each of the partition walls, an amount of the catalyst loaded onto the partition walls in a cross section perpendicular to an extending direction of the cells is 40% or less of a total amount of the catalyst loaded onto the plugged honeycomb structure, and an amount of the catalyst to be loaded onto the partition walls is smaller than an amount of the catalyst to be loaded onto the projecting portions. a plugged honeycomb structure having porous partition walls defining a plurality of cells extending from an inflow side end face to an outflow side end face and to become through channels of a fluid, inflow side plugged portions provided at outflow side ends of the predetermined cells, outflow side plugged portions provided at inflow side ends of the remaining cells, and porous projecting portions projecting so as to extend from the partition walls into the cells and being formed integrally with the partition walls; and a catalyst loaded onto the projecting portions of the plugged honeycomb structure, wherein a porosity of each of the partition walls of the plugged honeycomb structure is 40% or more and smaller than 60%, a thickness of each of the projecting portions is from 30 to 140% of a thickness of each of the partition walls, an amount of the catalyst loaded onto the partition walls in a cross section perpendicular to an extending direction of the cells is 40% or less of a total amount of the catalyst loaded onto the plugged honeycomb structure, and an amount of the catalyst to be loaded onto the partition walls is smaller than an amount of the catalyst to be loaded onto the projecting portions.
A showerhead configured to mount to a water supply line, comprising: a body comprising a spherical member and a fluid passage, which extends in a longitudinal direction and is fluidly connected to the water supply line; a pivot assembly comprising: a sleeve encircling a first portion of the spherical member with a first gap between at least a part of the sleeve and the first portion; a ring encircling a second portion of the spherical member with a second gap between at least a part of the ring and the second portion; and a gasket disposed between the sleeve and the ring in the longitudinal direction, wherein the gasket contacts the spherical member; and a showerhead assembly freely rotatable relative to and about the spherical member through the pivot assembly, so that the showerhead assembly automatically adjusts to a horizontal position due to gravity; characterised in that the cross section of the gasket is V shaped, and an opening of the V shape is toward a bottom of the body. a body comprising a spherical member and a fluid passage, which extends in a longitudinal direction and is fluidly connected to the water supply line; a pivot assembly comprising: a sleeve encircling a first portion of the spherical member with a first gap between at least a part of the sleeve and the first portion; a ring encircling a second portion of the spherical member with a second gap between at least a part of the ring and the second portion; and a gasket disposed between the sleeve and the ring in the longitudinal direction, wherein the gasket contacts the spherical member; and a sleeve encircling a first portion of the spherical member with a first gap between at least a part of the sleeve and the first portion; a ring encircling a second portion of the spherical member with a second gap between at least a part of the ring and the second portion; and a gasket disposed between the sleeve and the ring in the longitudinal direction, wherein the gasket contacts the spherical member; and a showerhead assembly freely rotatable relative to and about the spherical member through the pivot assembly, so that the showerhead assembly automatically adjusts to a horizontal position due to gravity; characterised in that the cross section of the gasket is V shaped, and an opening of the V shape is toward a bottom of the body.
A device for the curing of coatings or plastic liners on the internal wall of elongated hollow spaces comprising an UV lamp with a bulb for emission of optical radiation, characterised in that the bulb contains a gallium-containing filling gas and in that an optical filter element is provided in order to reduce the emission of an ultraviolet fraction of the optical radiation, which has a spectral transmission of at least 80%cm -1 in a wavelength range of 400 nm to 450 nm and has an edge wavelength in the range of 350 nm to 380 nm.