mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a cutting edge (20, 22) of a rotary cutting tool having a body and at least one flute (16A, 16B) formed in the body along at least a portion of a length of the body, wherein a substantially conical end of the tool defines major cutting edges in the regions where the helical flutes (16A, 16B) intersect the conical end and wherein minor cutting edges are defined in the regions where the helical flutes (16A, 16B) radially intersect an outer periphery of the body, the method being characterized in that it comprises removing material in an ablation process from the major and/ or minor cutting edges (20, 22) as well as the adjacent contoured surfaces with a directed laser beam to thereby form the cutting edges (20, 22), and a predetermined three dimensional contoured shaped surface adjacent to the cutting edges (20, 22), wherein the contoured shaped surface formed by the laser beam comprises a concave portion on one side of the major cutting edges and a convex portion on another side of the major cutting edges, and wherein the laser beam is directed toward the conical end of the tool at an angle (⊝) having a component that is normal to the contoured shaped surface of the conical end, wherein the laser beam creates a plasma point and a plasma region during the ablation process and the three-dimensional position of the plasma point is located in relation to the cutting tool by a detector of a laser beam control system, wherein an output signal from the detector is fed to a controller of the laser beam control system which is adapted to control a laser generating the laser beam, and wherein the laser beam is adaptively controlled by adjusting at least one parameter of the laser chosen from pulse frequency, laser power, pulse sequence, translational speed across the surface of the cutting tool, pattern of movement and focal depth.
A method for preparing a gelled, dried and non-pyrolyzed composition forming an organic monolithic aerogel having a thermal conductivity less than or equal to 40mW.m -1.K -1, the composition at least partly deriving from a resin obtained by the polycondensation of polyhydroxybenzene(s) R and formaldehyde(s) F, the method comprising: a) a polymerisation in an aqueous solvent W of said polyhydroxybenzene(s) R and formaldehyde(s) F in the presence of an acid or base catalyst, to obtain a solution based on said resin, b) gelling the solution obtained in a) to obtain a gel of said resin, and c) drying the gel obtained in b) to obtain a dried gel, characterised in that step a) is implemented in the presence of at least one water-soluble cationic polyelectrolyte P dissolved in said solvent and present in said composition according to a mass fraction between 0.2% and 2%, and in that the method further comprises a step d) of heat treatment under inert gas of said dried gel obtained in step c) at temperatures between 150°C and 500°C to obtain said non-pyrolyzed aerogel, said thermal conductivity of which, measured with a Neotim conductivity meter by the hot wire technique according to the standard ASTM D5930-97, increases by less than 10% and by less than 20%, respectively, after one hour and two hours of exposure to a humid atmosphere regulated to 20°C and 65% relative humidity. a) a polymerisation in an aqueous solvent W of said polyhydroxybenzene(s) R and formaldehyde(s) F in the presence of an acid or base catalyst, to obtain a solution based on said resin, b) gelling the solution obtained in a) to obtain a gel of said resin, and c) drying the gel obtained in b) to obtain a dried gel, characterised in that step a) is implemented in the presence of at least one water-soluble cationic polyelectrolyte P dissolved in said solvent and present in said composition according to a mass fraction between 0.2% and 2%, and in that the method further comprises a step d) of heat treatment under inert gas of said dried gel obtained in step c) at temperatures between 150°C and 500°C to obtain said non-pyrolyzed aerogel, said thermal conductivity of which, measured with a Neotim conductivity meter by the hot wire technique according to the standard ASTM D5930-97, increases by less than 10% and by less than 20%, respectively, after one hour and two hours of exposure to a humid atmosphere regulated to 20°C and 65% relative humidity.
Method for decoating a surface, which is provided with a coating, of a wheel provided with screw channels and with a centrally arranged opening within a plurality of regions to be stripped which extend annularly, in particular circularly, around one of the screw channels and/or around the central opening, the method being carried out using a laser beam generated by a laser source, characterized in that the method comprises the following steps: a) Positioning of a suction opening of a suction device upwards in the Z-direction and below that screw channel or central opening which is surrounded by the region to be decoated, b) Decoating the region to be decoated by moving the laser beam over the region to be decoated without limiting the region to be decoated by additional means, wherein gases and particles generated during the decoating are directly sucked off through that screw channel or through the central opening below which the suction opening was positioned in step a), and c) Repeating steps a) and b) to decoat each further region to be decoated. a) Positioning of a suction opening of a suction device upwards in the Z-direction and below that screw channel or central opening which is surrounded by the region to be decoated, b) Decoating the region to be decoated by moving the laser beam over the region to be decoated without limiting the region to be decoated by additional means, wherein gases and particles generated during the decoating are directly sucked off through that screw channel or through the central opening below which the suction opening was positioned in step a), and c) Repeating steps a) and b) to decoat each further region to be decoated.
Antifreeze valve unit for pipes connected to air conditioning plants comprising a valve body provided with at least one opening for the delivery of an operating fluid coming from an air conditioning plant, and comprising a first thermostatic valve fitted at a drain outlet to drain the fluid in function of the temperature of the fluid, characterized in that the antifreeze valve unit further comprises a second thermostatic valve fitted at said drain outlet to enable or prevent the drain of the fluid in function of the temperature of the external environment.
A weaving method, comprising: providing a threaded weaving loom on which a woven structure is obtained; placing a first section of a fill fiber between warp fibers; forming a pick; moving a base to reposition the warp fibers; and placing a second section of the fill fiber between the warp fibers; the method further comprising securing the warp fibers to the base; the method characterized by: forming a first said pick; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand; repositioning warp fibers by moving said base relative to the fill fiber wand; and forming a second pick, wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base. providing a threaded weaving loom on which a woven structure is obtained; placing a first section of a fill fiber between warp fibers; forming a pick; moving a base to reposition the warp fibers; and placing a second section of the fill fiber between the warp fibers; the method further comprising forming a pick; moving a base to reposition the warp fibers; and placing a second section of the fill fiber between the warp fibers; the method further comprising securing the warp fibers to the base; the method characterized by: forming a first said pick; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand; repositioning warp fibers by moving said base relative to the fill fiber wand; and forming a second pick, wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base. forming a first said pick; repositioning warp fibers by moving at least one of a plurality of warp fiber arms relative to a fill fiber wand; repositioning warp fibers by moving said base relative to the fill fiber wand; and forming a second pick, wherein each of the warp fibers extends from one of the plurality of warp fiber arms to the base.
A carrier for holding a plurality of articles, the carrier comprising: a plurality of panels that extend at least partially around an interior of the carton, the plurality of panels comprising a first bottom panel and a second bottom panel; at least one locking feature comprising a female locking feature in the first bottom panel and a male locking feature in the second bottom panel, the female locking feature comprising a locking flap, and the male locking feature comprising a retention feature, at least a portion of the male locking feature engaging the female locking feature, and at least a portion of the locking flap engaging the retention feature, the female locking feature further comprises a slit extending in the first bottom panel, the slit at least partially defining the locking flap, the locking flap is foldably connected to the first bottom panel along a fold line, and the locking flap comprises a retention tab disposed generally opposite to the fold line, the retention tab engaging the retention feature of the male locking feature, the male locking feature comprises a male locking projection extending through the slit in the first bottom panel, characterized in that the retention feature is a retention cut that defines a retention flap in the male locking projection, wherein the retention flap is folded out of the plane with the rest of the male locking projection. a plurality of panels that extend at least partially around an interior of the carton, the plurality of panels comprising a first bottom panel and a second bottom panel; at least one locking feature comprising a female locking feature in the first bottom panel and a male locking feature in the second bottom panel, the female locking feature comprising a locking flap, and the male locking feature comprising a retention feature, at least a portion of the male locking feature engaging the female locking feature, and at least a portion of the locking flap engaging the retention feature, the female locking feature further comprises a slit extending in the first bottom panel, the slit at least partially defining the locking flap, the locking flap is foldably connected to the first bottom panel along a fold line, and the locking flap comprises a retention tab disposed generally opposite to the fold line, the retention tab engaging the retention feature of the male locking feature, the male locking feature comprises a male locking projection extending through the slit in the first bottom panel, characterized in that the retention feature is a retention cut that defines a retention flap in the male locking projection, wherein the retention flap is folded out of the plane with the rest of the male locking projection.
Supplementary structural part for fastening to the suction/brush housing of a suction nozzle of a floor cleaning appliance designed as a brushing wet/dry suction appliance, which has a suction nozzle with a motor-driven cleaning brush arranged therein, wherein the brush projects with a brushing and cleaning active zone from an underside of the suction/brush housing of the suction nozzle to be moved along the floor surface to be cleaned and the suction nozzle comprises a suction mouth extending at least along a portion of the brush and wherein the supplementary structural part comprises: • a carrier body with a frame or a carrier body embodied as a frame, respectively with at least one flat cleaning area facing the floor surface to be cleaned, which can be placed on the floor surface to be cleaned in such a way that the floor cleaning device can be placed on the supplementary structural part from above or pushed in from one side, and • a drying and/or cleaning layer which is held by the carrier body or can be fastened to the carrier body, wherein the frame comprises a passage opening through which the brush and the suction mouth are able to come into operative contact with the floor surface when the supplementary structural part is arranged on the suction/brush housing as intended, and the frame comprises on one side or on the two opposite sides of the passage opening at least one edge region with a drying and/or cleaning layer and in that the carrier body comprises upwardly projecting retaining edges which, when the additional component is arranged on the suction/brush housing, engage behind edges or ridges of the suction nozzle in such a manner that the supplementary structural part is also moved in a forward and a backward direction during reciprocal movement of the floor cleaning device, wherein the supplementary structural part comprises lateral guides which are capable of holding the supplementary structural part on the suction nozzle in a direction transverse to the forward direction and a rearward direction, and wherein the connection of the supplementary structural part to the suction/brush housing is embodied in such a way that the supplementary structural part can be detached from the suction/brush housing by lifting the suction/brush housing. • a carrier body with a frame or a carrier body embodied as a frame, respectively with at least one flat cleaning area facing the floor surface to be cleaned, which can be placed on the floor surface to be cleaned in such a way that the floor cleaning device can be placed on the supplementary structural part from above or pushed in from one side, and • a drying and/or cleaning layer which is held by the carrier body or can be fastened to the carrier body,
A method for supporting periodic and triggered location of a user equipment, UE (105; 1700), performed by the UE, the method comprising: receiving a request for a periodic or triggered location from a location server (152; 1400); sending a response to the location server, the response confirming the periodic or triggered location; detecting a periodic or triggering event; obtaining event information, the event information comprising at least one of location measurements, a location estimate, a type of detected triggering event, or a combination thereof; obtaining a signaling connection to a Radio Access Network, RAN, node (112; 1600), wherein the signaling connection does not include a signaling connection to a core network, CN, node (154; 1500); transmitting a first message to the RAN node, wherein the first message contains a Non-Access Stratum, NAS, message containing a routing identifier identifying the location server and an event report message containing the event information, wherein the RAN node forwards the NAS message to the CN node, wherein the CN node forwards the event report message to the location server; and receiving a second message from the RAN node, wherein the second message releases the signaling connection to the RAN node. receiving a request for a periodic or triggered location from a location server (152; 1400); sending a response to the location server, the response confirming the periodic or triggered location; detecting a periodic or triggering event; obtaining event information, the event information comprising at least one of location measurements, a location estimate, a type of detected triggering event, or a combination thereof; obtaining a signaling connection to a Radio Access Network, RAN, node (112; 1600), wherein the signaling connection does not include a signaling connection to a core network, CN, node (154; 1500); transmitting a first message to the RAN node, wherein the first message contains a Non-Access Stratum, NAS, message containing a routing identifier identifying the location server and an event report message containing the event information, wherein the RAN node forwards the NAS message to the CN node, wherein the CN node forwards the event report message to the location server; and receiving a second message from the RAN node, wherein the second message releases the signaling connection to the RAN node.
A work vehicle comprising: - a cabin in which a boarding space is formed; and - an electronic control system for automatic driving through which a vehicle body is automatically driven; wherein - the electronic control system includes - a positioning unit that measures the position and orientation of the vehicle body, - the cabin is provided with a roof that provides a storage space, and - antennas of the communication module are provided on an upper end portion of the cabin, characterized in that - a cooperation control unit that causes the vehicle body to automatically travel in cooperation with another vehicle is provided, the cooperation control unit including a communication module that wirelessly communicates with another vehicle to exchange information regarding cooperative travel with the other vehicle, including vehicle body position information, - the storage space is surrounded by an inner roof and an outer roof, and - a communication information processing apparatus of the communication module is provided in the storage space surrounded by the inner roof and an outer roof. - a cabin in which a boarding space is formed; and - an electronic control system for automatic driving through which a vehicle body is automatically driven; wherein - the electronic control system includes - a positioning unit that measures the position and orientation of the vehicle body, - a positioning unit that measures the position and orientation of the vehicle body, - the cabin is provided with a roof that provides a storage space, and - antennas of the communication module are provided on an upper end portion of the cabin, characterized in that - a cooperation control unit that causes the vehicle body to automatically travel in cooperation with another vehicle is provided, the cooperation control unit including a communication module that wirelessly communicates with another vehicle to exchange information regarding cooperative travel with the other vehicle, including vehicle body position information, - the storage space is surrounded by an inner roof and an outer roof, and - a communication information processing apparatus of the communication module is provided in the storage space surrounded by the inner roof and an outer roof.
A method of wireless docking, the method comprising: receiving, from a user application and with a wireless docking service of a wireless docking communications stack executing on a computing device, a request to discover one or more peripheral functions within wireless communication range of the computing device; responsive to receiving the request, discovering, with the wireless docking service, the one or more peripheral functions without communicating with a wireless docking center; consolidating, with the wireless docking service, the one or more peripheral functions into a docking session for the user application; responsive to receiving the request, sending a docking session identifier and one or more respective references corresponding to the one or more peripheral functions from the wireless docking service to the user application. receiving, from a user application and with a wireless docking service of a wireless docking communications stack executing on a computing device, a request to discover one or more peripheral functions within wireless communication range of the computing device; responsive to receiving the request, discovering, with the wireless docking service, the one or more peripheral functions without communicating with a wireless docking center; consolidating, with the wireless docking service, the one or more peripheral functions into a docking session for the user application; responsive to receiving the request, sending a docking session identifier and one or more respective references corresponding to the one or more peripheral functions from the wireless docking service to the user application.
A sealing tape comprising a base film based on a porous PTFE film, a woven fabric laminated on one side of the base film, and an adhesive layer laminated on another side of the base film,an adhesive of the adhesive layer being a hot melt adhesive, wherein the woven fabric has a total cover factor (CF total) of from 500 to 1400, calculated from the cover factors of a warp and a weft constituting the woven fabric according to the following formulae. CF total = CF m + CF t CF m = F m × D m CF t = F t × D t CF m: cover factor of the warp CF t: cover factor of the weft F m: fineness (dtex) of the warp F t: fineness (dtex) of the weft D m: density of the warp (counts/2.54 cm) D t: density of the weft of the woven fabric (counts/2.54 cm) CF m: cover factor of the warp CF t: cover factor of the weft F m: fineness (dtex) of the warp F t: fineness (dtex) of the weft D m: density of the warp (counts/2.54 cm) D t: density of the weft of the woven fabric (counts/2.54 cm)
A vacuum lifting device comprising: - a suction line which extends between a vacuum connection of a vacuum supply and an outlet opening; - a suction means which serves the sealing attachment to surfaces of a conveyed item and is affixed to the suction line on one side and delimits the outlet opening; - a variable-length suction hose which delimits the suction line in sections between the suction means and the vacuum connection; and - a valve control designed to set a negative pressure in the suction hose as well as influence a free flow cross-section of the suction line in a section of line between the suction hose and the outlet opening and which is adjustable between a closed position for cutting off the line section and a released position for enabling the line section, wherein the vacuum lifting device comprises a sensor system for directly or indirectly determining or estimating the type and/or weight force of a conveyed item to be or being gripped by the suction means; wherein the sensor system comprises a non-contact detection system designed to determine the type of conveyed item to be or being gripped by the suction means; characterized in that the non-contact detection system comprises a scanning device for detecting the size and/or shape of a conveyed item to be gripped by the suction means and wherein the detection system is designed to estimate or determine the weight force and/or type of conveyed item by way of the size and/or shape of the conveyed item to be gripped by the suction means. - a suction line which extends between a vacuum connection of a vacuum supply and an outlet opening; - a suction means which serves the sealing attachment to surfaces of a conveyed item and is affixed to the suction line on one side and delimits the outlet opening; - a variable-length suction hose which delimits the suction line in sections between the suction means and the vacuum connection; and - a valve control designed to set a negative pressure in the suction hose as well as influence a free flow cross-section of the suction line in a section of line between the suction hose and the outlet opening and which is adjustable between a closed position for cutting off the line section and a released position for enabling the line section, wherein the vacuum lifting device comprises a sensor system for directly or indirectly determining or estimating the type and/or weight force of a conveyed item to be or being gripped by the suction means; wherein the sensor system comprises a non-contact detection system designed to determine the type of conveyed item to be or being gripped by the suction means; characterized in that the non-contact detection system comprises a scanning device for detecting the size and/or shape of a conveyed item to be gripped by the suction means and wherein the detection system is designed to estimate or determine the weight force and/or type of conveyed item by way of the size and/or shape of the conveyed item to be gripped by the suction means.