mhurhangee/ep-ind-claims huggingface dataset:
Automated guided vehicle configured for driverless, autonomously acting operation for a load to be transported, comprising at least: - a control system which controls and steers the automated guided vehicle, - an evaluation unit which generates a signal for stopping the automated guided vehicle, wherein a detector device for detecting the arrangement of the load and/or of a lifting platform is connected to the control system, characterized in that the automated guided vehicle is stopped automatically when the detected arrangement of the load deviates from a predefined arrangement of the load and/or in the event of an expected lowering of the lifting platform. - a control system which controls and steers the automated guided vehicle, - an evaluation unit which generates a signal for stopping the automated guided vehicle, wherein a detector device for detecting the arrangement of the load and/or of a lifting platform is connected to the control system, characterized in that the automated guided vehicle is stopped automatically when the detected arrangement of the load deviates from a predefined arrangement of the load and/or in the event of an expected lowering of the lifting platform.
A communication device comprising: a detection unit configured to detect a transmission path characteristic in power line communication with each of other communication devices; a determination unit configured to classify a communication device out of the other communication devices into a first group when the detected transmission path characteristic satisfies a predetermined criterion, and to classify a communication device out of the other communication devices into a second group when the detected transmission path characteristic does not satisfy the predetermined criterion; a control unit configured to select a frequency band used for power line communication with the other communication device that is a communication destination, from among a first frequency band and a second frequency band higher than the first frequency band, based on whether the other communication device that is a communication destination is classified into the first group or into the second group, the first and second frequency bands being obtained by dividing an entire frequency band which can be used for power line communication; and a communication unit (202, 203) configured to perform power line communication with the other communication device that is a communication destination using the selected frequency band. a detection unit configured to detect a transmission path characteristic in power line communication with each of other communication devices; a determination unit configured to classify a communication device out of the other communication devices into a first group when the detected transmission path characteristic satisfies a predetermined criterion, and to classify a communication device out of the other communication devices into a second group when the detected transmission path characteristic does not satisfy the predetermined criterion; a control unit configured to select a frequency band used for power line communication with the other communication device that is a communication destination, from among a first frequency band and a second frequency band higher than the first frequency band, based on whether the other communication device that is a communication destination is classified into the first group or into the second group, the first and second frequency bands being obtained by dividing an entire frequency band which can be used for power line communication; and a communication unit (202, 203) configured to perform power line communication with the other communication device that is a communication destination using the selected frequency band.
An apparatus for handling articles comprising: - a frame, - a base, which is arranged on the frame, as well as - a linkage assembly consisting of at least three driven arms and a central coupling element, wherein each of the driven arms: - consists of an upper arm, which is mounted to be rotatably driven about a respective pivoting axis arranged on the base, and a lower arm, which is articulatedly mounted on the upper arm and articulatedly connected with the coupling element, and - has a respective drive for individually pivoting the upper arm about the respective pivoting axis, characterised in that the base is mounted to be rotatably driven together with the pivoting axes in relation to the frame about a rotation axis. - a frame, - a base, which is arranged on the frame, as well as - a linkage assembly consisting of at least three driven arms and a central coupling element, - consists of an upper arm, which is mounted to be rotatably driven about a respective pivoting axis arranged on the base, and a lower arm, which is articulatedly mounted on the upper arm and articulatedly connected with the coupling element, and - has a respective drive for individually pivoting the upper arm about the respective pivoting axis,
A method for determining a size of a peer-to-peer overlay network, the method comprising: identifying a set of nodes associated with a first node of an overlay network, the method being characterised by obtaining a segment length associated with each node of the set of nodes, wherein said obtaining comprises querying at least a portion of the set of nodes to obtain at least a portion of the segments lengths, respectively, and wherein the segment length is the part of the ID space between a given node and its clockwise successor; and determining a size of the overlay network by dividing a total number of the nodes in the set of nodes by a sum of the segment lengths. identifying a set of nodes associated with a first node of an overlay network, the method being characterised by obtaining a segment length associated with each node of the set of nodes, wherein said obtaining comprises querying at least a portion of the set of nodes to obtain at least a portion of the segments lengths, respectively, and wherein the segment length is the part of the ID space between a given node and its clockwise successor; and determining a size of the overlay network by dividing a total number of the nodes in the set of nodes by a sum of the segment lengths.
A powder build material container outlet structure comprising: a first connector portion to connect to a powder build material container; a second connector portion comprising an adaptor to receive a nozzle structure of an external aspiration system; and a aspiration channel to aspire powder build material from the powder build material container to the nozzle structure of the external powder aspiration system; wherein the first connector portion is rotatably connected to the second connector portion to align the adaptor in a predetermined orientation, so that relative rotation of the second connector portion with respect to the first connector portion is enabled. a first connector portion to connect to a powder build material container; a second connector portion comprising an adaptor to receive a nozzle structure of an external aspiration system; and a aspiration channel to aspire powder build material from the powder build material container to the nozzle structure of the external powder aspiration system; wherein the first connector portion is rotatably connected to the second connector portion to align the adaptor in a predetermined orientation, so that relative rotation of the second connector portion with respect to the first connector portion is enabled.
An implantable spacer for placement between adjacent interspinous processes in a spinal motion segment comprising: a body defining a longitudinal passageway and a longitudinal axis; a first arm and a second arm connected to the body and capable of rotation with respect to the body; each arm having a pair of extensions and configured for containing a spinous process between the pair of extensions; each arm having a proximal camming surface (41, 43); an actuator assembly connected to the body; the actuator assembly comprising an actuator having a proximal end and a distal end; the actuator having at least one bearing surface at the distal end configured to engage each camming surface; the actuator is connected to the body and configured to move inside the longitudinal passageway relative to the body to contact each camming surface with the at least one bearing surface and thereby move the arms from an undeployed configuration in which the arms are substantially parallel to the longitudinal axis of the body to a deployed configuration in which the arms are substantially perpendicular to the longitudinal axis of the body to contain adjacent spinous processes in each arm when in the deployed configuration, wherein the actuator includes two bearing surfaces that converge towards the distal end of the actuator. a body defining a longitudinal passageway and a longitudinal axis; a first arm and a second arm connected to the body and capable of rotation with respect to the body; each arm having a pair of extensions and configured for containing a spinous process between the pair of extensions; each arm having a proximal camming surface (41, 43); an actuator assembly connected to the body; the actuator assembly comprising an actuator having a proximal end and a distal end; the actuator having at least one bearing surface at the distal end configured to engage each camming surface; the actuator is connected to the body and configured to move inside the longitudinal passageway relative to the body to contact each camming surface with the at least one bearing surface and thereby move the arms from an undeployed configuration in which the arms are substantially parallel to the longitudinal axis of the body to a deployed configuration in which the arms are substantially perpendicular to the longitudinal axis of the body to contain adjacent spinous processes in each arm when in the deployed configuration, wherein the actuator includes two bearing surfaces that converge towards the distal end of the actuator.
Silo module system having several large silos for bulk material, in particular large components, and having several small silos for bulk material, in particular for small and/or medium-sized components, wherein the large silos have a larger capacity for bulk material than the small silos, wherein a common first container scale is arranged downstream of the large and the small silos (13, 26) and at least one second container scale is arranged downstream of the small silos, wherein the at least one second container scale is arranged upstream of the first container scale, characterized in that the small silos are enclosed by a tubular housing to which the large silos can be attached.
A header for a harvester, the header comprises: a frame; a cutter bar assembly configured to cut crops; a side deck (208, 210) comprising a conveyor (212, 214) and at least one arm assembly (300, 430), the at least one arm assembly (300, 430) being coupled to the cutter bar assembly and configured to pivot to enable the cutter bar assembly to flex along a lateral axis of the header, wherein the conveyor (212, 214) is configured to transport the crops cut by the cutter bar assembly toward a center of the header; and at least one first airbag (304, 450), comprising a first end coupled to the at least one arm assembly (300, 430) and a second end coupled to the frame; and characterized in that the header further comprises a reservoir fluidly coupled to the at least one first airbag (304, 450), wherein the reservoir is configured to supply air to and to receive air from the at least one first airbag (304, 450) to substantially maintain the air pressure within the at least one first airbag (304, 450) in order to enable the at least one first airbag (304, 450) to apply a substantially constant force to the at least one arm assembly (300, 430). a frame; a cutter bar assembly configured to cut crops; a side deck (208, 210) comprising a conveyor (212, 214) and at least one arm assembly (300, 430), the at least one arm assembly (300, 430) being coupled to the cutter bar assembly and configured to pivot to enable the cutter bar assembly to flex along a lateral axis of the header, wherein the conveyor (212, 214) is configured to transport the crops cut by the cutter bar assembly toward a center of the header; and at least one first airbag (304, 450), comprising a first end coupled to the at least one arm assembly (300, 430) and a second end coupled to the frame; and characterized in that the header further comprises a reservoir fluidly coupled to the at least one first airbag (304, 450), wherein the reservoir is configured to supply air to and to receive air from the at least one first airbag (304, 450) to substantially maintain the air pressure within the at least one first airbag (304, 450) in order to enable the at least one first airbag (304, 450) to apply a substantially constant force to the at least one arm assembly (300, 430).
A flow sensing die for sensing a flow of fluid along a flow direction, the flow sensing die comprising: a substrate, the substrate defining a membrane; a heater resistor supported by the membrane, wherein the heater resistor includes a polysilicon material that is doped with a first concentration of a dopant; a first sensing element supported by the membrane at a position upstream of the heater resistor relative to the flow direction; a second sensing element supported by the membrane at a position downstream of the heater resistor relative to the flow direction; characterised in that: the first sensing element and the second sensing element are respectively first and second sensing resistors including the polysilicon material that is doped with a second concentration of the dopant; the heater resistor has a temperature coefficient of resistance within the range -1000 ppm/°C to 1000 ppm/°C; the first and second resistors each have a temperature coefficient of resistance > 1000 ppm/°C; and the second concentration of the dopant is greater than the first concentration of the dopant. a substrate, the substrate defining a membrane; a heater resistor supported by the membrane, wherein the heater resistor includes a polysilicon material that is doped with a first concentration of a dopant; a first sensing element supported by the membrane at a position upstream of the heater resistor relative to the flow direction; a second sensing element supported by the membrane at a position downstream of the heater resistor relative to the flow direction; characterised in that: the first sensing element and the second sensing element are respectively first and second sensing resistors including the polysilicon material that is doped with a second concentration of the dopant; the heater resistor has a temperature coefficient of resistance within the range -1000 ppm/°C to 1000 ppm/°C; the first and second resistors each have a temperature coefficient of resistance > 1000 ppm/°C; and the second concentration of the dopant is greater than the first concentration of the dopant. the first sensing element and the second sensing element are respectively first and second sensing resistors including the polysilicon material that is doped with a second concentration of the dopant; the heater resistor has a temperature coefficient of resistance within the range -1000 ppm/°C to 1000 ppm/°C; the first and second resistors each have a temperature coefficient of resistance > 1000 ppm/°C; and the second concentration of the dopant is greater than the first concentration of the dopant.
An improved corrosion resistant buried underground ductile cast iron piping member with an external coating, said coating comprising of:- an uniform coating of a pseudo alloy of Zinc-Aluminium and other metals as first layer; an uniform coating of CNSL(cashew nut shell liquid) modified resin based paint as second layer; wherein the quantity of the pseudo-alloy deposited over the said pipes is at least 130 g/m 2 over the full external surface. an uniform coating of a pseudo alloy of Zinc-Aluminium and other metals as first layer; an uniform coating of CNSL(cashew nut shell liquid) modified resin based paint as second layer; wherein the quantity of the pseudo-alloy deposited over the said pipes is at least 130 g/m 2 over the full external surface.
An abutment tool set for dental abutments, wherein the tool kit consists of a milling cutter, a sleeve and an abutment, and wherein at least one stop surface extending towards the sleeve is formed on the milling cutter, wherein the abutment is mountable on the implant, in particular via a detachable connection, and comprises an implant connection and a tube portion between which an outwardly projecting collar extends, characterized in that the sleeve has a support surface for resting on the abutment, the tube portion of which is shapeable with the milling cutter.
A cone crusher shaft position measurement sensor arrangement for measuring a position of a crushing shaft of a cone crusher of the type comprising an inner crushing shell, which is supported by a crushing head mounted on the crushing shaft, and an outer crushing shell which is supported on a crusher frame, characterised in that the cone crusher shaft position measurement sensor arrangement comprises a target means adapted to be connected to the crushing shaft and to move in a horizontal plane, the target means comprising a sensor target, the sensor arrangement further comprising at least one first sensor element for sensing the horizontal position of the sensor target.
A hearing device, comprising: a microphone (202; 404) configured to receive a first acoustic signal; an amplifier (204; 304; 414) configured to apply an amplification gain to the first acoustic signal to generate an output signal; a dynamic range controller (206; 306; 412) configured to constrain the output signal generated by the amplifier to an amplitude, resulting in a second acoustic signal with a constrained amplitude; a howling detector (208; 308; 420) configured to detect a howling sound from the second acoustic signal, and to set the amplification gain to zero when a howling sound is detected; a speaker (210; 402) configured to output the second acoustic signal with the constrained amplitude; and a status indicator for informing a user that the hearing device is in a howling protection mode; characterized in that the howling detector (208; 308; 420) further comprises: a user interface configured to receive a user interaction, allowing for the user to reset the hearing device to a normal working mode via the user interaction, wherein during the normal working mode the amplification gain is not set to zero. a microphone (202; 404) configured to receive a first acoustic signal; an amplifier (204; 304; 414) configured to apply an amplification gain to the first acoustic signal to generate an output signal; a dynamic range controller (206; 306; 412) configured to constrain the output signal generated by the amplifier to an amplitude, resulting in a second acoustic signal with a constrained amplitude; a howling detector (208; 308; 420) configured to detect a howling sound from the second acoustic signal, and to set the amplification gain to zero when a howling sound is detected; a speaker (210; 402) configured to output the second acoustic signal with the constrained amplitude; and a status indicator for informing a user that the hearing device is in a howling protection mode; characterized in that the howling detector (208; 308; 420) further comprises: a user interface configured to receive a user interaction, allowing for the user to reset the hearing device to a normal working mode via the user interaction, wherein during the normal working mode the amplification gain is not set to zero.
A method for a Secondary Cell, SCell, Beam Failure Recovery, BFR, procedure performed by a User Equipment, UE, the method comprising: transmitting (202, 336), to a base station, BS, a BFR Medium Access Control, MAC, Control Element, CE, via a first Physical Uplink Shared Channel, PUSCH, scheduled from first Downlink Control Information, DCI, the BFR MAC CE indicating a cell index of an SCell with beam failure detected and a new candidate beam index for the SCell, the first PUSCH being associated with a Hybrid Automatic Repeat Request, HARQ, process having a HARQ process identifier, ID; receiving (204, 338), from the BS, second DCI, that schedules a second PUSCH transmission with the HARQ process ID, the second DCI indicating a toggled New Data Indicator, NDI, value; determining, upon receiving (204, 338) the second DCI, that the SCell BFR procedure is successfully completed; and monitoring, on the SCell, a Physical Downlink Control Channel, PDCCH, using antenna port quasi-colocation parameters associated with the new candidate beam index after receiving (204, 338) the second DCI. transmitting (202, 336), to a base station, BS, a BFR Medium Access Control, MAC, Control Element, CE, via a first Physical Uplink Shared Channel, PUSCH, scheduled from first Downlink Control Information, DCI, the BFR MAC CE indicating a cell index of an SCell with beam failure detected and a new candidate beam index for the SCell, the first PUSCH being associated with a Hybrid Automatic Repeat Request, HARQ, process having a HARQ process identifier, ID; receiving (204, 338), from the BS, second DCI, that schedules a second PUSCH transmission with the HARQ process ID, the second DCI indicating a toggled New Data Indicator, NDI, value; determining, upon receiving (204, 338) the second DCI, that the SCell BFR procedure is successfully completed; and monitoring, on the SCell, a Physical Downlink Control Channel, PDCCH, using antenna port quasi-colocation parameters associated with the new candidate beam index after receiving (204, 338) the second DCI.
Method for hauling an autonomous submersible vessel into a mother ship, comprising the following steps: - letting a floating line out from the mother ship such that the floating line floats at a certain depth in the water, - causing at least part of a capturing line to rise from the submersible vessel by means of a capturing buoy, wherein the capturing line is fastened by one end to the submersible vessel and at the other end to the capturing buoy, with the result that the capturing buoy floats on a water surface, - causing the submersible vessel to cross below the floating line in such a way that the capturing line with the capturing buoy is caught on the floating line, and - pulling the submersible vessel towards the mother ship by hauling in the floating line. - letting a floating line out from the mother ship such that the floating line floats at a certain depth in the water, - causing at least part of a capturing line to rise from the submersible vessel by means of a capturing buoy, wherein the capturing line is fastened by one end to the submersible vessel and at the other end to the capturing buoy, with the result that the capturing buoy floats on a water surface, - causing the submersible vessel to cross below the floating line in such a way that the capturing line with the capturing buoy is caught on the floating line, and - pulling the submersible vessel towards the mother ship by hauling in the floating line.