mhurhangee/patent-ind-claim-en huggingface dataset:
A robot system comprising: a robot having a base , a robot arm coupled to the base, a drive source that drives the robot arm , a supply unit that supplies electric power to the drive source , and a switch mechanism that switches between a conduction state in which the drive source and the supply unit; are conducting and a non-conduction state in which the drive source and the supply unit are not conducting; and a vehicle having a movement mechanism that transports the robot and an operation portion that operates the switch mechanism and turns the conduction state to the non-conduction state, and being configured to take a coupled state in which the vehicle is coupled to the base and a decoupled state in which the vehicle is decoupled from the base , wherein the operation portion operates the switch mechanism in the coupled state. a robot having a base , a robot arm coupled to the base, a drive source that drives the robot arm , a supply unit that supplies electric power to the drive source , and a switch mechanism that switches between a conduction state in which the drive source and the supply unit; are conducting and a non-conduction state in which the drive source and the supply unit are not conducting; and a vehicle having a movement mechanism that transports the robot and an operation portion that operates the switch mechanism and turns the conduction state to the non-conduction state, and being configured to take a coupled state in which the vehicle is coupled to the base and a decoupled state in which the vehicle is decoupled from the base , wherein the operation portion operates the switch mechanism in the coupled state.
A fibrous secondary battery , comprising: a fibrous electrode made by conductive fibers; and a lead tab connected with the fibrous electrode , wherein the lead tab is connected with the fibrous electrode by connecting fibers that are the same materials as the conductive fibers of the fibrous electrode or by the conductive fibers of the fibrous electrode , wherein the lead tab has a connecting portion and a protruding portion protruding from the connecting portion , characterized in that the connecting fibers or the conductive fibers of the fibrous electrode are wound around the connecting portion of the lead tab and the connecting portion of the lead tab is connected with the fibrous electrode . a fibrous electrode made by conductive fibers; and a lead tab connected with the fibrous electrode , wherein the lead tab is connected with the fibrous electrode by connecting fibers that are the same materials as the conductive fibers of the fibrous electrode or by the conductive fibers of the fibrous electrode , wherein the lead tab has a connecting portion and a protruding portion protruding from the connecting portion , characterized in that the connecting fibers or the conductive fibers of the fibrous electrode are wound around the connecting portion of the lead tab and the connecting portion of the lead tab is connected with the fibrous electrode .
A clearance control assembly for providing clearance control between a blade outer air seal and an airfoil tip of a gas turbine engine , the clearance control assembly comprising: an outer case ; a first blade outer air seal carrier positioned radially inward of the outer case ; a blade outer air seal positioned radially inward of and mounted to the blade outer air seal carrier ; an actuator ; a load-applying member positioned to be acted upon by the actuator during operation of the actuator ; and a lever connected to the outer case at a fulcrum and operably in contact with the load-applying member and the first blade outer air seal carrier ; wherein the lever has first and second ends (124;122) separated by the fulcrum , and wherein at least one of the first and second ends (124;122) comprises a crowned surface extending radially outward, characterised in that : the first end of the lever is operably in contact with an inner radial surface of the load-applying member and the second end is operably in contact with an axially extending portion of the first blade outer air seal carrier . an outer case ; a first blade outer air seal carrier positioned radially inward of the outer case ; a blade outer air seal positioned radially inward of and mounted to the blade outer air seal carrier ; an actuator ; a load-applying member positioned to be acted upon by the actuator during operation of the actuator ; and a lever connected to the outer case at a fulcrum and operably in contact with the load-applying member and the first blade outer air seal carrier ; wherein the lever has first and second ends (124;122) separated by the fulcrum , and wherein at least one of the first and second ends (124;122) comprises a crowned surface extending radially outward, characterised in that : the first end of the lever is operably in contact with an inner radial surface of the load-applying member and the second end is operably in contact with an axially extending portion of the first blade outer air seal carrier .
Piece of furniture , in particular a wardrobe, with at least one sliding door which is connected on the lower side and/or the upper side to a guide device , which guide device , for holding and guiding the sliding door with which a wardrobe opening can be closed, has a guide fitting , which is connected to the sliding door and which is connected by a first pivot joint to a first end piece of a guide lever of the guide device , whose second end piece is connected by a second pivot joint to a guide carriage of the guide device , which has a carriage body which holds two guide rollers that are arranged one behind the other in the running direction and that are guided in a guide channel of the guide device , characterised in that the guide channel extends at least in an end region along a curve into the cabinet opening , that the carriage body is connected to the second end piece of the guide lever by a coupling spring so that the guide carriage is rotated as it passes through the end region , the coupling spring is tensioned and a force or a torque is applied to the guide lever , with which the sliding door is pulled against the cabinet opening , and that the guide lever is curved in the opening direction of the sliding door so that the guide fitting is guided in front of the guide carriage during the opening operation of the sliding door and the wardrobe opening can be fully opened.
Adjustment installation for a track conditioning unit having: - at least one measuring unit - for determining a relative transverse offset (QV) of a rail traveled by a rail vehicle in relation to an effective range of a track conditioning unit of the rail vehicle; or - for determining a relative position of a bogie and of the car body of the rail vehicle; - a detection unit for determining an actuation command (AB) for an actuation unit as a function of - the determined transverse offset (QV) between the effective range of the track conditioning unit and the rail; or - alternatively as a function of the relative position of the bogie in relation to the car body of the rail vehicle; - the actuation unit for actuating an actuator unit of the track conditioning unit using an adjustment command (SB) based on the actuation command (AB) ; - the actuator unit for adjusting an effective range of the track conditioning unit based on the adjustment command (SB); characterized in that the actuator unit is specified for displacing the effective range of the adjustment installation for a track conditioning unit in that one of a plurality of transversely offset exit openings for auxiliary media (H) is opened, the effective range of said exit opening being the most suitable for the determined transverse offset (QV). - at least one measuring unit - for determining a relative transverse offset (QV) of a rail traveled by a rail vehicle in relation to an effective range of a track conditioning unit of the rail vehicle; or - for determining a relative position of a bogie and of the car body of the rail vehicle; - for determining a relative transverse offset (QV) of a rail traveled by a rail vehicle in relation to an effective range of a track conditioning unit of the rail vehicle; or - for determining a relative position of a bogie and of the car body of the rail vehicle; - a detection unit for determining an actuation command (AB) for an actuation unit as a function of - the determined transverse offset (QV) between the effective range of the track conditioning unit and the rail; or - alternatively as a function of the relative position of the bogie in relation to the car body of the rail vehicle; - the determined transverse offset (QV) between the effective range of the track conditioning unit and the rail; or - alternatively as a function of the relative position of the bogie in relation to the car body of the rail vehicle; - the actuation unit for actuating an actuator unit of the track conditioning unit using an adjustment command (SB) based on the actuation command (AB) ; - the actuator unit for adjusting an effective range of the track conditioning unit based on the adjustment command (SB);
An aerosol dispensing apparatus comprising: a nebulizer having an aerosol generator and an outlet conduit, and a controller, wherein the apparatus comprises a single dose aerosol chamber having a chamber nebulizer delivery port and an inhalation port , the apparatus comprises a filling stage comprising said nebulizer and a support for said single dose aerosol chamber , and said nebulizer is adapted to deliver an aerosol dose into the chamber via the chamber nebulizer delivery port , the filling stage is configured for automatic engagement of the nebulizer outlet conduit with the chamber nebulizer delivery port and for separation after delivery of a dose, the nebulizer is configured to deliver at a flow rate in excess of 0.01 mL/min, and the nebulizer comprises a chamber sensor to detect presence of said chamber in engagement with the outlet conduit, and the controller is configured to commence aerosolization only upon said detection of said chamber. a nebulizer having an aerosol generator and an outlet conduit, and a controller, wherein the apparatus comprises a single dose aerosol chamber having a chamber nebulizer delivery port and an inhalation port , the apparatus comprises a filling stage comprising said nebulizer and a support for said single dose aerosol chamber , and said nebulizer is adapted to deliver an aerosol dose into the chamber via the chamber nebulizer delivery port , the filling stage is configured for automatic engagement of the nebulizer outlet conduit with the chamber nebulizer delivery port and for separation after delivery of a dose, the nebulizer is configured to deliver at a flow rate in excess of 0.01 mL/min, and the nebulizer comprises a chamber sensor to detect presence of said chamber in engagement with the outlet conduit, and the controller is configured to commence aerosolization only upon said detection of said chamber.
A subsea template for injecting fluid for long term storage in a subterranean void , the subsea template comprising: a base structure comprising a set of module receiving sections (r 11 , ..., r 65 ) each of which is configured to receive a respective utility module, a number of utility modules installed on the base structure , wherein each of said utility modules is arranged in a respective one (r 52 , r 22 , r 24 , r 54 , r 61 , r 11 ) of said module receiving sections (r 11 , ..., r 65 ), and a pipe interface configured to receive at least one conduit transporting the fluid, which pipe interface is further configured forward the fluid for injection into the subterranean void via a drill hole under the base structure , wherein said utility modules are configured to support the injection of the fluid into the subterranean void , and wherein the base structure has an overall rectangular outline with four corners, and a respective corner module receiving section (r 11 , r 15 , r 61 , r 66 ) in the set of module receiving sections is located in each of the four corners of the overall rectangular outline, characterized in that each of said corner utility modules comprises at least one shield surface arranged on an outer side of the corner utility module , which outer side faces away from an interior of the subsea template when the corner utility module is mounted in one of the corner module receiving sections (r 61 ) on the base structure , the at least one shield surface being arranged at an acute angle (α) relative to an upper surface of the base structure . a base structure comprising a set of module receiving sections (r 11 , ..., r 65 ) each of which is configured to receive a respective utility module, a number of utility modules installed on the base structure , wherein each of said utility modules is arranged in a respective one (r 52 , r 22 , r 24 , r 54 , r 61 , r 11 ) of said module receiving sections (r 11 , ..., r 65 ), and a pipe interface configured to receive at least one conduit transporting the fluid, which pipe interface is further configured forward the fluid for injection into the subterranean void via a drill hole under the base structure , wherein said utility modules are configured to support the injection of the fluid into the subterranean void , and wherein the base structure has an overall rectangular outline with four corners, and a respective corner module receiving section (r 11 , r 15 , r 61 , r 66 ) in the set of module receiving sections is located in each of the four corners of the overall rectangular outline, characterized in that each of said corner utility modules comprises at least one shield surface arranged on an outer side of the corner utility module , which outer side faces away from an interior of the subsea template when the corner utility module is mounted in one of the corner module receiving sections (r 61 ) on the base structure , the at least one shield surface being arranged at an acute angle (α) relative to an upper surface of the base structure .
A device for concentration of particles, comprising: a flow channel adapted to receive a fluid sample moving in a first direction within flow streams; a field generator configured to focus particles within the fluid sample into a focused stream at a first flow rate; additional flow channels comprising a first additional flow channel and a second additional flow channel; a branch , wherein the branch is configured to be in fluid communication with the flow channel and the additional flow channels, wherein the branch and the additional flow channels are configured to direct the fluid sample into the additional flow channels and to flip the particles in the focused stream to a second direction at a second flow rate, and wherein the first flow rate is greater than the second flow rate; and an analysis region , wherein the analysis region is positioned within the additional flow channels to allow analysis of the particles flipped to the second direction, and wherein the branch and the additional flow channels are configured to concentrate the particles in the analysis region, characterized in that the branch and the additional flow channels are configured to accumulate the particles flipped to the second direction on a channel wall within the analysis region. a flow channel adapted to receive a fluid sample moving in a first direction within flow streams; a field generator configured to focus particles within the fluid sample into a focused stream at a first flow rate; additional flow channels comprising a first additional flow channel and a second additional flow channel; a branch , wherein the branch is configured to be in fluid communication with the flow channel and the additional flow channels, wherein the branch and the additional flow channels are configured to direct the fluid sample into the additional flow channels and to flip the particles in the focused stream to a second direction at a second flow rate, and wherein the first flow rate is greater than the second flow rate; and an analysis region , wherein the analysis region is positioned within the additional flow channels to allow analysis of the particles flipped to the second direction, and wherein the branch and the additional flow channels are configured to concentrate the particles in the analysis region, characterized in that the branch and the additional flow channels are configured to accumulate the particles flipped to the second direction on a channel wall within the analysis region.
A power assisting steering system for a vehicle having at least a first and a second steered wheel , the system comprising: - a control unit configured to receive input on a desired change of steering angle, - a first power generating device configured to provide power-assisted steering for turning the first steered wheel, and - a second power generating device configured to provide power-assisted steering for turning the second steered wheel, wherein the control unit, in response to said received input, is configured to alternatingly activate and deactivate the first and second power generating device, respectively, so as to repeatedly and alternatingly provide power-assistance to the first and the second steered wheel as the first and second steered wheels are turned to achieve the desired change of steering angle, characterized in that the system comprises a first sensor for measuring a value of a physical property of the first power generating device , and a second sensor for measuring a value of the physical property of the second power generating device , each sensor being configured to provide the control unit with information relating to the measured values, wherein the control unit is configured to alternatingly activate and deactivate the first and second power generating device, respectively, based on the information provided by the first and the second sensor. - a control unit configured to receive input on a desired change of steering angle, - a first power generating device configured to provide power-assisted steering for turning the first steered wheel, and - a second power generating device configured to provide power-assisted steering for turning the second steered wheel, wherein the control unit, in response to said received input, is configured to alternatingly activate and deactivate the first and second power generating device, respectively, so as to repeatedly and alternatingly provide power-assistance to the first and the second steered wheel as the first and second steered wheels are turned to achieve the desired change of steering angle, characterized in that the system comprises a first sensor for measuring a value of a physical property of the first power generating device , and a second sensor for measuring a value of the physical property of the second power generating device , each sensor being configured to provide the control unit with information relating to the measured values, wherein the control unit is configured to alternatingly activate and deactivate the first and second power generating device, respectively, based on the information provided by the first and the second sensor.
An inorganic filler-containing epoxy resin composition, comprising: an epoxy resin, which is a reaction product of an epoxy resin monomer having a mesogen backbone and having two glycidyl groups in a molecule thereof with hydroquinone, wherein the epoxy resin has a number average molecular weight in gel permeation chromatographic measurement of from 600 to 2,500; and an inorganic filler, wherein the inorganic filler comprises magnesium oxide. an epoxy resin, which is a reaction product of an epoxy resin monomer having a mesogen backbone and having two glycidyl groups in a molecule thereof with hydroquinone, wherein the epoxy resin has a number average molecular weight in gel permeation chromatographic measurement of from 600 to 2,500; and an inorganic filler, wherein the inorganic filler comprises magnesium oxide.
An amplifying optical fiber , comprising: a core doped with an active element; and a cladding covering the core , and an outer cladding covering the cladding , wherein the cladding has a polygonal outer shape in cross section, where the outer shape has an inscribed circle (c) of a diameter r and a circumscribed circle (C) of a diameter R, wherein the polygonal shape has substantially rounded vertices to such an extent that the cladding meets the relationship of 0.92 ≤ r/R ≤ 0.97 and wherein the polygonal shape is hexagonal. a core doped with an active element; and a cladding covering the core , and an outer cladding covering the cladding , wherein the cladding has a polygonal outer shape in cross section, where the outer shape has an inscribed circle (c) of a diameter r and a circumscribed circle (C) of a diameter R, wherein the polygonal shape has substantially rounded vertices to such an extent that the cladding meets the relationship of 0.92 ≤ r/R ≤ 0.97 and wherein the polygonal shape is hexagonal.
A composite particle comprising: (i) an antidandruff agent; (ii) a wax or a wax-like substance in which said antidandruff agent is soluble or dispersible, where melting point of said wax and said substance is 30°C to 105°C; and, (iii) a cationic polymer having weight average molecular weight of 10 3 Da to 10 7 Da, where said composite particle has particle size 0.1 to 1000 μm and where said wax-like substance is a C13 to 35 fatty alcohol; where said wax is at least one of beeswax, Chinese wax, lanolin, shellac wax, spermaceti, bayberry wax, candelilla wax, carnauba wax, castor wax, esparto wax, Japan wax, ouricury wax, rice bran wax, soy wax, tallow tree wax, ceresin wax, montan wax, ozocerite or peat wax. (i) an antidandruff agent; (ii) a wax or a wax-like substance in which said antidandruff agent is soluble or dispersible, where melting point of said wax and said substance is 30°C to 105°C; and, (iii) a cationic polymer having weight average molecular weight of 10 3 Da to 10 7 Da,
Method for arranging a pile, such as a concrete pile, in the ground, which method comprises the steps of: - arranging a number of elongate plates (2-5) in the ground one by one; - arranging on the upper sides of the elongate plates pressed into the ground a frame connecting all upper sides to each other; characterized by : - providing a pile , such as a concrete pile; - pressing the pile into the ground, wherein the pressing force is generated between the pile and the frame. - arranging a number of elongate plates (2-5) in the ground one by one; - arranging on the upper sides of the elongate plates pressed into the ground a frame connecting all upper sides to each other; - providing a pile , such as a concrete pile; - pressing the pile into the ground, wherein the pressing force is generated between the pile and the frame.