mhurhangee/ep-ind-claims huggingface dataset:
Power screwdriver overload protection which is arranged between a drive part and a driven part (102, 121), and which interrupts the torque transmission between the drive part and the driven part (102, 121) when a torque limit is exceeded, wherein the drive part comprises at least one ring of balls that is arranged in a torque-proof manner inside the drive part, the driven part (102, 121) has at least one ring of balls (140; 141, 142) that is arranged in a torque-proof manner inside the driven part (102, 121), and the ring of balls that is arranged inside the drive part is positioned in a spring-tensioned manner above the ring of balls (140; 141, 142) arranged in the driven part (102, 121) in such a way that the balls of the drive part are respectively positioned between two balls (140; 141, 142) of the driven part (102, 121) and therefore transfer a torque, and wherein the balls of the drive part roll off over the balls (140; 141, 142) of the driven part (102, 121) when the torque limit is exceeded, and in doing so interrupt the torque transmission, characterized in that the balls of the ring of balls that is located on the side of the drive part or on the side of the driven part are located between the concentric rings (141, 142), [and] an axial orientation of the drive part with regard to the driven part can be realized while the radial bearing may be dispensed with.
A method comprising: receiving, at a proxy node within a network, an echo request from a probing node within the network; identifying, by the proxy node and within the echo request, a type of probe to be performed in connection with the echo request by searching the echo request; determining, by the proxy node based at least in part on the type of probe identified within the echo request, that a proxy interface included on the proxy node is to probe a status of a virtual interface (424, 434, 444, 454) partitioned on a physical interface on a physical node that is directly connected to the proxy node; probing, via the proxy interface, the status of the virtual interface partitioned on the physical interface by way of a virtual function index assigned to the virtual interface; and sending, to the probing node, an echo reply that identifies the status of the virtual interface partitioned on the physical interface. receiving, at a proxy node within a network, an echo request from a probing node within the network; identifying, by the proxy node and within the echo request, a type of probe to be performed in connection with the echo request by searching the echo request; determining, by the proxy node based at least in part on the type of probe identified within the echo request, that a proxy interface included on the proxy node is to probe a status of a virtual interface (424, 434, 444, 454) partitioned on a physical interface on a physical node that is directly connected to the proxy node; probing, via the proxy interface, the status of the virtual interface partitioned on the physical interface by way of a virtual function index assigned to the virtual interface; and sending, to the probing node, an echo reply that identifies the status of the virtual interface partitioned on the physical interface.
A method of operating a cooling system in a computer system, the method being characterised by comprising: determining a power map of a processor of said computer system wherein said power map includes a first portion at a first temperature and a second portion at a second temperature; flowing a coolant at a first flow rate and a third temperature to said first portion; flowing said coolant at a second flow rate at said third temperature to said second portion; heating said coolant to a fourth temperature by absorbing thermal energy from said processor; flowing said coolant at said fourth temperature to memory components of said computer system; heating said coolant to a fifth temperature by absorbing thermal energy from said memory components; flowing said coolant at said fifth temperature to a power electronics module and other electronic components of said computer system; heating said coolant to a sixth temperature by absorbing thermal energy from said power electronics module and other electronic components. determining a power map of a processor of said computer system wherein said power map includes a first portion at a first temperature and a second portion at a second temperature; flowing a coolant at a first flow rate and a third temperature to said first portion; flowing said coolant at a second flow rate at said third temperature to said second portion; heating said coolant to a fourth temperature by absorbing thermal energy from said processor; flowing said coolant at said fourth temperature to memory components of said computer system; heating said coolant to a fifth temperature by absorbing thermal energy from said memory components; flowing said coolant at said fifth temperature to a power electronics module and other electronic components of said computer system; heating said coolant to a sixth temperature by absorbing thermal energy from said power electronics module and other electronic components.
A machine for making straws, comprising: - a forming unit for forming a continuous tubular element; - a cutting unit for cutting the continuous tubular element into tubular segments of predetermined length as the continuous tubular element is fed longitudinally; - a transfer unit for the tubular elements, located downstream of the cutting unit and configured for transferring the segments from a longitudinal feed direction to a transverse feed direction; characterized in that the transfer unit comprises a support beam for the segments and at least one pushing element which is rotatable about an axis parallel to the longitudinal feed direction and which has a contact portion designed to impact against each segment supported by the support beam to deflect the segment from the longitudinal feed direction to the transverse feed direction. - a forming unit for forming a continuous tubular element; - a cutting unit for cutting the continuous tubular element into tubular segments of predetermined length as the continuous tubular element is fed longitudinally; - a transfer unit for the tubular elements, located downstream of the cutting unit and configured for transferring the segments from a longitudinal feed direction to a transverse feed direction;
A method for proximate discovery in a wireless communication network, said method comprising sharing the results of proximate discoveries, wherein the step of sharing is performed by a mobile device and comprises: receiving a first announcement from an announcement device; receiving, from a user of the mobile device, a share instruction indicating that the received announcement is of interest to the user of the mobile device; generating discovery sharing data based on the received first announcement in response to the share instruction; transmitting the discovery sharing data to an external server; receiving an update indicator from the external server indicating that metadata associated with the mobile device has been updated; and generating a second announcement associated with the mobile device based on the update indicator. receiving a first announcement from an announcement device; receiving, from a user of the mobile device, a share instruction indicating that the received announcement is of interest to the user of the mobile device; generating discovery sharing data based on the received first announcement in response to the share instruction; transmitting the discovery sharing data to an external server; receiving an update indicator from the external server indicating that metadata associated with the mobile device has been updated; and generating a second announcement associated with the mobile device based on the update indicator.
A robotic surgery system comprising: a platform; a support structure supporting the platform; a manipulator; a manually articulatable linkage comprising one or more joints disposed between the platform and the manipulator; and a processor coupled to the manipulator; wherein the processor is configured to: detect whether a cannula is mounted to the manipulator based on signals transmitted by the manipulator; detect an input indicating the robotic system is to be in a set-up mode in which one or more joints of the support structure are driven in response to manual articulation of the one or more joints disposed between the platform and the manipulator; and inhibit entry of the robotic system into the set-up mode in response to detecting the input while the cannula is mounted to the manipulator. a platform; a support structure supporting the platform; a manipulator; a manually articulatable linkage comprising one or more joints disposed between the platform and the manipulator; and a processor coupled to the manipulator; wherein the processor is configured to: detect whether a cannula is mounted to the manipulator based on signals transmitted by the manipulator; detect an input indicating the robotic system is to be in a set-up mode in which one or more joints of the support structure are driven in response to manual articulation of the one or more joints disposed between the platform and the manipulator; and inhibit entry of the robotic system into the set-up mode in response to detecting the input while the cannula is mounted to the manipulator. detect whether a cannula is mounted to the manipulator based on signals transmitted by the manipulator; detect an input indicating the robotic system is to be in a set-up mode in which one or more joints of the support structure are driven in response to manual articulation of the one or more joints disposed between the platform and the manipulator; and inhibit entry of the robotic system into the set-up mode in response to detecting the input while the cannula is mounted to the manipulator.
A particle processing system (10, 500) comprising, a particle inspection system configured to detect a particle characteristic of a particle flowing in a first flow path (400, 510a, 510b, 630) of the particle processing system (10, 500), the particle processing system (10, 500) being characterised in that it further comprises a processor programmed to: process in real time a first output (S 1, S 2a, S 2b) of the particle inspection system representative of the particle characteristic detected from at least one particle to generate a calibrated output representative of the particle characteristic for the at least one particle to provide a common basis for comparing the calibrated output to a second output (S 1, S 2a, S 2b) representative of the particle characteristic obtained for a different particle in a different flow path or in a different region of the first flow path; collectively analyze the calibrated output and the second output (S 1, S 2a, S 2b) to at least determine one of a population statistic or identify a sub-population; and sort other particles based on at least one of the determined population statistic or the identified sub-population. process in real time a first output (S 1, S 2a, S 2b) of the particle inspection system representative of the particle characteristic detected from at least one particle to generate a calibrated output representative of the particle characteristic for the at least one particle to provide a common basis for comparing the calibrated output to a second output (S 1, S 2a, S 2b) representative of the particle characteristic obtained for a different particle in a different flow path or in a different region of the first flow path; collectively analyze the calibrated output and the second output (S 1, S 2a, S 2b) to at least determine one of a population statistic or identify a sub-population; and sort other particles based on at least one of the determined population statistic or the identified sub-population.
An electrolytic solution comprising: a temperature responsive electrolyte that is an electrolyte whose pKa varies according to temperature; and an oxidation-reduction active species (excluding a hydroquinone derivative that is a monocyclic aromatic compound that has a hydroquinone skeleton), wherein the temperature responsive electrolyte is a molecule that has a polar group, a hydrophobic group, and an ionizable functional group. a temperature responsive electrolyte that is an electrolyte whose pKa varies according to temperature; and an oxidation-reduction active species (excluding a hydroquinone derivative that is a monocyclic aromatic compound that has a hydroquinone skeleton), wherein the temperature responsive electrolyte is a molecule that has a polar group, a hydrophobic group, and an ionizable functional group.
A proximity based notification method in a wireless communication system supporting device to device communication, D2D, comprising the steps of: configuring, by a first terminal, a list of terminals which participate in an notification service, a schedule time and a notification time; receiving, by the first terminal, a first D2D identifier, ID, from a D2D ID management server by transmitting D2D ID share request message to the D2D ID management server after the configuration is completed; broadcasting, by the first terminal, a first discovery signal including the first D2D ID on a physical sidelink discovery channel, PSDCH, when the notification time arrives; outputting, by the first terminal, a notification for notifying that a second terminal is proximate when the first terminal receives a second discovery signal including a second D2D ID from the second terminal included in the terminal list on the PSDCH; and when the schedule time ends, returning by the first terminal, the first D2D ID by transmitting a D2D ID return request message to the D2D ID management server. configuring, by a first terminal, a list of terminals which participate in an notification service, a schedule time and a notification time; receiving, by the first terminal, a first D2D identifier, ID, from a D2D ID management server by transmitting D2D ID share request message to the D2D ID management server after the configuration is completed; broadcasting, by the first terminal, a first discovery signal including the first D2D ID on a physical sidelink discovery channel, PSDCH, when the notification time arrives; outputting, by the first terminal, a notification for notifying that a second terminal is proximate when the first terminal receives a second discovery signal including a second D2D ID from the second terminal included in the terminal list on the PSDCH; and when the schedule time ends, returning by the first terminal, the first D2D ID by transmitting a D2D ID return request message to the D2D ID management server.
Apparatus for cutting a preferably thick-walled extruded pipe, comprising at least one separating tool and a receiving unit for the separating tool, the separating tool being movable radially to the extrusion axis and rotatable around the pipe to be cut via further means in order to cut the pipe characterized in that the receiving unit comprising a receiving disk for the separating device is connected to a sleeve through a ring element, linear guidance elements being arranged parallelly to the axis of extrusion at the sleeve, the linear guidance elements being in operative connection with the ring element, and at least four linear guidance elements being equally distributed around the perimeter of the sleeve.
An elevator system comprising: an elevator car, the elevator car including: a front end that includes a front doorway; an aft end that includes an aft doorway; and a cabin extending from the front end to the aft end; and a divider system operationally coupled to the elevator car within the cabin, intermediate the front and aft ends, that is operational to transition between: a retracted state, where the cabin is undivided; a deployed state where the divider system divides the cabin into a front zone that is accessible by the front doorway and an aft zone that is accessible by the aft doorway; and a controller operationally coupled to the divider system and configured to control the divider system to transition between the deployed state and the retracted state, characterised in that the controller is onboard the elevator car. a front end that includes a front doorway; an aft end that includes an aft doorway; and a cabin extending from the front end to the aft end; and a divider system operationally coupled to the elevator car within the cabin, intermediate the front and aft ends, that is operational to transition between: a retracted state, where the cabin is undivided; a deployed state where the divider system divides the cabin into a front zone that is accessible by the front doorway and an aft zone that is accessible by the aft doorway; and a controller operationally coupled to the divider system and configured to control the divider system to transition between the deployed state and the retracted state, characterised in that the controller is onboard the elevator car. a retracted state, where the cabin is undivided; a deployed state where the divider system divides the cabin into a front zone that is accessible by the front doorway and an aft zone that is accessible by the aft doorway; and a controller operationally coupled to the divider system and configured to control the divider system to transition between the deployed state and the retracted state, characterised in that the controller is onboard the elevator car.
A wind turbine comprising: at least one rotor blade having an adjustable pitch angle; one or more turbine sensors (117,119,123,125,128); and a control system programmed to adjust a blade pitch angle of one or more rotor blades, according to modeled aerodynamic performance of the rotor blades, wherein the control system is further configured to: receive information from the turbine sensors (117.... 128) to provide current conditions experienced by the wind turbine; determine a current rotor stall margin by calculating a distance from a current collective blade pitch angle to a minimum collective blade pitch angle that would cause the wind turbine to reach a rotor stall line according to the modelled aerodynamic performance under said current conditions; and adjust the blade pitch angle in response to the current rotor stall margin to provide a blade pitch angle that is greater than or equal to a blade pitch angle necessary to maintain a predetermined minimum rotor stall margin such that continuous operation of the wind turbine is maintained without transitions to the stalled mode; and wherein the predetermined minimum rotor stall margin is based on a coefficient of torque curve as a function of rotor blade tip-speed ratio and rotor blade pitch angle, a coefficient of thrust curve as a function of rotor blade tip-speed ratio and rotor blade pitch angle, or a combination thereof. at least one rotor blade having an adjustable pitch angle; one or more turbine sensors (117,119,123,125,128); and a control system programmed to adjust a blade pitch angle of one or more rotor blades, according to modeled aerodynamic performance of the rotor blades, wherein the control system is further configured to: receive information from the turbine sensors (117.... 128) to provide current conditions experienced by the wind turbine; determine a current rotor stall margin by calculating a distance from a current collective blade pitch angle to a minimum collective blade pitch angle that would cause the wind turbine to reach a rotor stall line according to the modelled aerodynamic performance under said current conditions; and adjust the blade pitch angle in response to the current rotor stall margin to provide a blade pitch angle that is greater than or equal to a blade pitch angle necessary to maintain a predetermined minimum rotor stall margin such that continuous operation of the wind turbine is maintained without transitions to the stalled mode;
An operating room lighthead, said lighthead comprising a plurality of light sources for generating a light field on a site of surgical operation to be illuminated on a patient, as well as adjustment elements for modifying features of said light field, said adjustment elements comprising a user interface for modifying features of the light field by the actions of a lighthead operator, characterized in that the user interface further comprises projection elements for projecting, around the light field, adjustment instructions related to a feature of the lighthead-generated light field, and the lighthead is further provided with at least one laser light source specifically for projecting said adjustment instructions, and the projection elements comprise a light-transmitting optical film which is adapted to produce an adjustment instruction from light generated by said at least one laser light source, said film comprising diffractive and/or refractive optical microstructures for producing adjustment instructions.
Method for producing a fibre composite part, wherein at least one fibre layer (10, 11) and a spacer (30, 33-35) or a plurality of spacers (30, 33-35) are introduced into a cavity of a mould (5, 6, 7), such that the spacers (30, 33-35) provide, in particular adjacent to the fibre layer, at least one distributing channel or region for the plastics material to be injected, and the plastics material is injected into the mould (5, 6, 7), and subsequently the cavity of the mould is brought to the dimensions of the fibre composite part, wherein the spacer or spacers (30, 33-35) deform(s) and/or break(s) and plastics material contained in the distributing channel or region flows into the fibre layer (10, 11), wherein one or more elongate objects in the form of threads, fibres or wires are introduced into the mould (5, 5a, 6, 7), wherein these objects either have radially projecting regions which serve as spacers or wherein these objects have a twisting or a turning or a spiral shape, such that these objects serve as spacers.
A luminaire housing, having: A reception opening for receiving a converter with a base area as well as a first and a second side wall (22, 23), which extend away from the base area opposite each other, wherein at least one part of the base area for supporting the converter with the first side wall encloses a right angle α, and wherein the part of the base area for supporting the converter with the second side wall encloses an angle β greater than 90°, so that the distance between the side walls (22, 23) increases with increasing distance from the base area, characterized in that the part of the base area for supporting the converter has rib elements which serve to support the converter, wherein cooling ribs (15, 16) of the luminaire housing extend laterally outwardly away from the side walls (22, 23) and wherein the rib elements extend transversely to a longitudinal extension of the reception opening and extend as an extension or connection of the cooling ribs (15, 16). A reception opening for receiving a converter with a base area as well as a first and a second side wall (22, 23), which extend away from the base area opposite each other, wherein at least one part of the base area for supporting the converter with the first side wall encloses a right angle α, and wherein the part of the base area for supporting the converter with the second side wall encloses an angle β greater than 90°, so that the distance between the side walls (22, 23) increases with increasing distance from the base area, characterized in that the part of the base area for supporting the converter has rib elements which serve to support the converter, wherein cooling ribs (15, 16) of the luminaire housing extend laterally outwardly away from the side walls (22, 23) and wherein the rib elements extend transversely to a longitudinal extension of the reception opening and extend as an extension or connection of the cooling ribs (15, 16).