mhurhangee/ep-ind-claims huggingface dataset:
A method for assisting the control of a robot comprising a gripping member capable of holding a part to be handled at a gripping point via an operator acting on said part at at least one holding point, said assistance method allowing said robot to execute a plurality of types of assistance, corresponding to a plurality of predetermined characteristic movements of said gripping member, said method being characterised in that it comprises at least: • a first step of detecting the intention of said operator that determines the intention of said operator to execute a predetermined type of assistance from among the plurality of types of assistance, on the basis of an analysis of a force torsor (T mes) and of a kinematic torsor (W mes) that are reduced at a predetermined point and on the basis of the knowledge of a current type of assistance executed by said robot; • a second step of activating an assistance that must be executed by said robot as a function of the intention detected during said first step, said second step retrieving control commands intended for said robot. • a first step of detecting the intention of said operator that determines the intention of said operator to execute a predetermined type of assistance from among the plurality of types of assistance, on the basis of an analysis of a force torsor (T mes) and of a kinematic torsor (W mes) that are reduced at a predetermined point and on the basis of the knowledge of a current type of assistance executed by said robot; • a second step of activating an assistance that must be executed by said robot as a function of the intention detected during said first step, said second step retrieving control commands intended for said robot.
An actuator for use in a HVAC system (100, 200, 300, 400), the actuator comprising: an inductive sensor; a conductive target having multiple different portions that become aligned with the inductive sensor as a position of the actuator changes, each of the multiple different portions having a different inductance; and a controller configured to: receive a signal from the inductive sensor indicating an observed inductance of the portion of the conductive target aligned with the inductive sensor; use a stored relationship between the observed inductance and the position of the actuator to determine the position of the actuator based on the observed inductance; and operate the actuator to change the position of the actuator based on the determined position, wherein each of the multiple different portions of the conductive target has a different area and the inductance of each portion of the conductive target is proportional to the area of the corresponding portion. an inductive sensor; a conductive target having multiple different portions that become aligned with the inductive sensor as a position of the actuator changes, each of the multiple different portions having a different inductance; and a controller configured to: receive a signal from the inductive sensor indicating an observed inductance of the portion of the conductive target aligned with the inductive sensor; use a stored relationship between the observed inductance and the position of the actuator to determine the position of the actuator based on the observed inductance; and operate the actuator to change the position of the actuator based on the determined position, receive a signal from the inductive sensor indicating an observed inductance of the portion of the conductive target aligned with the inductive sensor; use a stored relationship between the observed inductance and the position of the actuator to determine the position of the actuator based on the observed inductance; and operate the actuator to change the position of the actuator based on the determined position, wherein each of the multiple different portions of the conductive target has a different area and the inductance of each portion of the conductive target is proportional to the area of the corresponding portion.
A blade assembly for a gas turbine engine, comprising: a blade; a blade platform secured to the blade, the blade extending radially outwardly from the blade platform, the blade platform including a platform air passage disposed therein; and a gusset extending from the blade to the blade platform, the gusset including a gusset air passage fluidly connected to the platform air passage to convey an airflow to the platform air passage, wherein the platform air passage is configured to direct the airflow in an axially upstream direction toward a platform leading edge, then axially rearwardly toward a platform trailing edge, before exiting the platform air passage at a platform air passage exit, characterized in that: the platform air passage has a spiral shape. a blade; a blade platform secured to the blade, the blade extending radially outwardly from the blade platform, the blade platform including a platform air passage disposed therein; and a gusset extending from the blade to the blade platform, the gusset including a gusset air passage fluidly connected to the platform air passage to convey an airflow to the platform air passage, wherein the platform air passage is configured to direct the airflow in an axially upstream direction toward a platform leading edge, then axially rearwardly toward a platform trailing edge, before exiting the platform air passage at a platform air passage exit,
A method for restoring a network device to factory defaults, wherein the network device comprises a Network Configuration Protocol, NETCONF, server and a plurality of service modules, the NETCONF server comprising a startup configuration datastore, a running configuration datastore and a factory defaults datastore, and the method comprises: • determining, by the NETCONF server, that the network device needs to be restored to the factory defaults (step 301); • replacing, by the NETCONF server, data in the startup configuration datastore and the running configuration datastore in the NETCONF server with factory defaults data in the factory defaults datastore, wherein the factory defaults datastore is dedicated to storing the factory defaults data of the service modules of the network device (step 302); • delivering, by the NETCONF server, the data in the running configuration datastore after replacement to the plurality of service modules (step 303); and • performing, by the plurality of service modules, a validation operation based on the data delivered by the NETCONF server (step 304). • determining, by the NETCONF server, that the network device needs to be restored to the factory defaults (step 301); • replacing, by the NETCONF server, data in the startup configuration datastore and the running configuration datastore in the NETCONF server with factory defaults data in the factory defaults datastore, wherein the factory defaults datastore is dedicated to storing the factory defaults data of the service modules of the network device (step 302); • delivering, by the NETCONF server, the data in the running configuration datastore after replacement to the plurality of service modules (step 303); and • performing, by the plurality of service modules, a validation operation based on the data delivered by the NETCONF server (step 304).
System for measuring conductivity of the water fraction in a multiphase fluid flow, the system comprising a measuring section including means for emitting electromagnetic signals into a pipe containing said flow within at least one chosen frequency range and means for detecting resonances within said range, characterized by the measuring section comprising features for providing at least two resonances within said at least one frequency range, the system also comprising means for calculating the conductivity of water in said flow based on at least a first resonant frequency and a first Q-factor related to the corresponding resonance peak as well as the Q-factor of a second resonances peak.
Device comprising at least two interconnected reactors (3, 9) suitable for continuous operation with contaminating substances, comprising a first reactor, which is a thermolysis reactor or pyrolysis reactor and is suitable for a temperature of at least 300°C, has a heating element and a supply regulated by the input pressure and pressure resistances, and is connected to a jet pump via a line, wherein the jet pump is suitable for generating a negative pressure in the first reactor, wherein a negative pressure zone of the jet pump is operatively connected via the line to the first reactor, so that during operation a first product fluid of the first reactor passes through the negative pressure zone into a propulsion jet of a propulsion medium of the jet pump, and comprising a second reactor, in which the propulsion jet is guided for collection of the propulsion medium together with the first product fluid of the propulsion jet, and which has an outlet for a second product fluid formed in the second reactor, and a pump for conveying the propulsion medium from the second reactor for feeding into the jet pump as a propulsion medium, wherein the propulsion medium can be separated from the second product fluid in the second reactor.
A transportable particle collection device for monitoring an environment cleanliness at a measuring location, in particular at a production site, having a collection unit which is disposed in such a manner in a measuring state during a measuring time that a collection surface for collecting deposited dirt particles from the environment air is aligned in particular horizontally, the collection surface having, in particular chemically acting, adhesion means for fixating the dirt particles deposited on the collection surface, and having covering means which are disposable on the collection unit in a form-fit manner in a transport state such that no other dirt particles are deposited on the collection surface from the environment air, characterized in that the collection unit has a hollow-cylindrical or conical jacket surface comprising a bottom element and/or tier element, the inner surface of the bottom element and/or tier element having the collection surface and the jacket surface not protruding beyond the collection surface in height, the covering means being disposed in a form-fit manner with the collection unit in the measuring state as well such that no dirt particles are deposited from the environment air on any inner surfaces of the covering means and that the covering means are fixed on the collection unit via designated mechanically acting fixation means in the transport state, the covering means being planar and the collection unit protruding at least in sections in an edge area, the edge area having at least one edge section disposed angularly to the planar extension of the covering means, the edge section being in operative connection with, in particular the interior and/or the end of, at least one abutment surface of the collection unit in the transport state and in the measuring state, the fixation means being provided in the edge section and allowing a mechanical fixation and alignment of the covering means via the abutment surface of the collection unit.
Commercial vehicle tyre of a radial type of construction, with a multi-ply breaker belt, a radial carcass, sidewalls and a tread rubber, which consists of a radially outer tread cap comprising at least one rubber compound filled with carbon black and a radially inner tread base, characterized in that the tread base consists of rubber compounds or a rubber compound that are or is electrically nonconductive, contain or contains silica as a filler and the dynamic stiffness (E') of which is lower by at least 10% than the dynamic stiffness (E') of the rubber compound(s) of the tread cap.
A cryostat comprising a cooling structure (105, 107, 108, 111) and a device fastened thereto for providing a thermally conductive coupling in order to cool an object being moved within the cryostat, the device comprising: - a heat transfer section forming a contact surface for said object and - means for fastening the heat transfer section to a cooling structure (105, 107, 111, 604) in such a way that said contact surface remains free, characterized in that: - the device comprises a spring section which is separate from said heat transfer section and which is arranged to exert on the heat transfer section a spring force pushing said contact surface in that direction in which it is intended to contact said object, - the heat transfer section comprises a plurality of heat transfer elements (701, 901, 1101) arranged in the form of a ring, whereby said contact surface is formed by those surfaces of the heat transfer elements (701, 901, 1101) which face towards the interior of the ring, and - said spring section comprises one or more spring elements (704, 903, 1102) disposed outside of said heat transfer elements (701, 901, 1101) arranged in the form of a ring and pushing the heat transfer elements (701, 901, 1101) towards the centre of the ring. - a heat transfer section forming a contact surface for said object and - means for fastening the heat transfer section to a cooling structure (105, 107, 111, 604) in such a way that said contact surface remains free, - the device comprises a spring section which is separate from said heat transfer section and which is arranged to exert on the heat transfer section a spring force pushing said contact surface in that direction in which it is intended to contact said object, - the heat transfer section comprises a plurality of heat transfer elements (701, 901, 1101) arranged in the form of a ring, whereby said contact surface is formed by those surfaces of the heat transfer elements (701, 901, 1101) which face towards the interior of the ring, and - said spring section comprises one or more spring elements (704, 903, 1102) disposed outside of said heat transfer elements (701, 901, 1101) arranged in the form of a ring and pushing the heat transfer elements (701, 901, 1101) towards the centre of the ring.
A method for displaying a vehicle's environment, having the following steps of: - detecting the environment of a vehicle (20, 220) with at least one sensor (1, 101, 111, 121, 131) and producing sensor data for the environment of a vehicle (20, 220), - conditioning the sensor data to produce raw image data - processing the raw image data to produce object information with the aid of a grid model (21, 221) of the environment of the vehicle (20, 220), wherein a 3D grid model is used as the grid model (21, 221), wherein cells (22, 222) of the grid model (21, 220) surrounding the vehicle (20, 220) are defined, and wherein recognised object heights, extent, position or speed are allocated to the cells (22, 222), - using the grid model (21, 221) to condition raw image data to produce image object data, wherein the raw image data are projected with the aid of a projection algorithm onto the 3D grid model, - displaying the image object data by means of a display device in the vehicle (20, 220). - detecting the environment of a vehicle (20, 220) with at least one sensor (1, 101, 111, 121, 131) and producing sensor data for the environment of a vehicle (20, 220), - conditioning the sensor data to produce raw image data - processing the raw image data to produce object information with the aid of a grid model (21, 221) of the environment of the vehicle (20, 220), wherein a 3D grid model is used as the grid model (21, 221), wherein cells (22, 222) of the grid model (21, 220) surrounding the vehicle (20, 220) are defined, and wherein recognised object heights, extent, position or speed are allocated to the cells (22, 222), - using the grid model (21, 221) to condition raw image data to produce image object data, wherein the raw image data are projected with the aid of a projection algorithm onto the 3D grid model, - displaying the image object data by means of a display device in the vehicle (20, 220).
A plurality of storage stable particles of a definite size and shape consisting essentially of a polymorph of an organic compound of uniform crystal structure, said organic compound retaining said crystal structure, and said particles retaining said size, and shape on storage in aqueous media for at least about one month.
Electrosurgical device, in particular an HF scalpel, for acting on a biological tissue by means of electrical discharge: with an instrument having an electrode for generating a spark, which electrode can be connected to an electrical source for supplying HF power, with a first light-receiving device defining a first light-receiving field which receives at least part of the spark generated by the electrode, with a light analysis device for determining tissue features by spectral analysis of the light received by the light-receiving devices, characterised in that the device comprises an indicator device for displaying the tissue features. with an instrument having an electrode for generating a spark, which electrode can be connected to an electrical source for supplying HF power, with a first light-receiving device defining a first light-receiving field which receives at least part of the spark generated by the electrode, with a light analysis device for determining tissue features by spectral analysis of the light received by the light-receiving devices, characterised in that the device comprises an indicator device for displaying the tissue features.
An aptamer comprising at least one first 5-position modified pyrimidine and at least one second 5-position modified pyrimidine, wherein the first 5-position modified pyrimidine and the second 5-position modified pyrimidine are different 5-position modified pyrimidines; wherein the first 5-position modified pyrimidine is a 5-position modified uridine and wherein the second 5-position modified pyrimidine is a 5-position modified cytidine; or wherein the first 5-position modified pyrimidine is a 5-position modified cytidine and wherein the second 5-position modified pyrimidine is a 5-position modified uridine; wherein the 5-position modified uridine comprises a tyrosyl moiety at the 5-position; and wherein the 5-position modified cytidine comprises a benzyl moiety at the 5-position. wherein the first 5-position modified pyrimidine is a 5-position modified uridine and wherein the second 5-position modified pyrimidine is a 5-position modified cytidine; or wherein the first 5-position modified pyrimidine is a 5-position modified cytidine and wherein the second 5-position modified pyrimidine is a 5-position modified uridine; wherein the 5-position modified uridine comprises a tyrosyl moiety at the 5-position;
A radiating apparatus of a built-in refrigerator comprising: a refrigerator main body installed in a built-in cabinet; a machine room, including: a compressor for compressing a refrigerant; a condenser for exchanging heat between the refrigerant that has passed the compressor and air; a blower fan for forcing the air to flow; a vertical barrier that partitions the machine room into a compressor section where the compressor is positioned and a condenser section where the condenser and the blower fan are positioned; an airflow guide for separating the condenser from the blower fan; and a back cover for protecting a back side of the machine room, characterized in that the blower fan is located above the condenser, and the airflow guide is perpendicularly secured to the vertical barrier between the condenser and the blower fan such that the condenser and the blower fan form a multi-layer structure, wherein the airflow guide is formed with a rear opening such that the air passing through the condenser flows upward. a refrigerator main body installed in a built-in cabinet; a machine room, including: a compressor for compressing a refrigerant; a condenser for exchanging heat between the refrigerant that has passed the compressor and air; a blower fan for forcing the air to flow; a vertical barrier that partitions the machine room into a compressor section where the compressor is positioned and a condenser section where the condenser and the blower fan are positioned; an airflow guide for separating the condenser from the blower fan; and a back cover for protecting a back side of the machine room, a compressor for compressing a refrigerant; a condenser for exchanging heat between the refrigerant that has passed the compressor and air; a blower fan for forcing the air to flow; a vertical barrier that partitions the machine room into a compressor section where the compressor is positioned and a condenser section where the condenser and the blower fan are positioned; an airflow guide for separating the condenser from the blower fan; and a back cover for protecting a back side of the machine room, characterized in that the blower fan is located above the condenser, and the airflow guide is perpendicularly secured to the vertical barrier between the condenser and the blower fan such that the condenser and the blower fan form a multi-layer structure, wherein the airflow guide is formed with a rear opening such that the air passing through the condenser flows upward.
A hand tool ( 100, 200, 300) comprising: a working head; a handle connected to the working head ( 102; and a handle protector ( 110, 302, 502) attached to the handle proximate the working head; wherein at least one portion of the handle protector ( 110, 302, 502) extends into the handle to facilitate attachment of the handle protector ( 110, 302, 502) to the handle the handle protector ( 110, 302, 502) is attached to the handle via a raised interface portion ( 114, 304, 506) of the handle, characterized in that, at least a portion ( 114, 304) of the handle is separating the working head and the handle protector ( 110, 302, 502), the handle protector ( 110, 302, 502) is manufactured from a metal sheet. a working head; a handle connected to the working head ( 102; and a handle protector ( 110, 302, 502) attached to the handle proximate the working head; wherein at least one portion of the handle protector ( 110, 302, 502) extends into the handle to facilitate attachment of the handle protector ( 110, 302, 502) to the handle the handle protector ( 110, 302, 502) is attached to the handle via a raised interface portion ( 114, 304, 506) of the handle, characterized in that, at least a portion ( 114, 304) of the handle is separating the working head and the handle protector ( 110, 302, 502), the handle protector ( 110, 302, 502) is manufactured from a metal sheet.