mhurhangee/ep-ind-claims huggingface dataset:
A laser welding method comprising: a first step of positioning a first end of a first workpiece such that the first end of the first workpiece overlaps a second end of a second workpiece to form a corner joint, the laser welding method being characterised in that in the first step of positioning the first and second end of the first and second workpiece (11a, 11b) the first workpiece and the second workpiece are disposed to form an angle of 90 degrees symetric vertically below the corner joint, and the corner joint being irradiated from vertically above with the laser beam; and by a second step of melting the first end of the first workpiece by irradiating the first end forming the corner joint with a laser beam from vertically above, and melting the second end of the second workpiece using the laser beam and the heat from the first workpiece in molten state to join the first workpiece and the second workpiece, wherein the first end is positioned to protrude relative to the second workpiece in the first step. a first step of positioning a first end of a first workpiece such that the first end of the first workpiece overlaps a second end of a second workpiece to form a corner joint, the laser welding method being characterised in that in the first step of positioning the first and second end of the first and second workpiece (11a, 11b) the first workpiece and the second workpiece are disposed to form an angle of 90 degrees symetric vertically below the corner joint, and the corner joint being irradiated from vertically above with the laser beam; and by a second step of melting the first end of the first workpiece by irradiating the first end forming the corner joint with a laser beam from vertically above, and melting the second end of the second workpiece using the laser beam and the heat from the first workpiece in molten state to join the first workpiece and the second workpiece, wherein the first end is positioned to protrude relative to the second workpiece in the first step.
A flexible container comprising: a first multilayer film and a second multilayer film, each multilayer film comprising a seal layer, the multilayer films arranged such that the seal layers oppose each other and the second multilayer film is superimposed on the first multilayer film, the films sealed along a common peripheral edge; a fitment comprising a base, the base comprising a polymeric blend of from 60 wt% to 90 wt% ethylene/α-olefin multi-block copolymer and from 40 wt% to 10 wt% high density polyethylene (HDPE); and a fitment seal comprising the base located between the multilayer films and the base is sealed to each multilayer film at a portion of the common peripheral edge. a first multilayer film and a second multilayer film, each multilayer film comprising a seal layer, the multilayer films arranged such that the seal layers oppose each other and the second multilayer film is superimposed on the first multilayer film, the films sealed along a common peripheral edge; a fitment comprising a base, the base comprising a polymeric blend of from 60 wt% to 90 wt% ethylene/α-olefin multi-block copolymer and from 40 wt% to 10 wt% high density polyethylene (HDPE); and a fitment seal comprising the base located between the multilayer films and the base is sealed to each multilayer film at a portion of the common peripheral edge.
An air conditioner comprising a heat exchanger comprising a plurality of cylindrical pipes (25a to 25j) made of aluminum or aluminum alloy and a header, wherein the cylindrical pipes extend in a same direction, and the cylindrical pipes intercommunicate spaces vertically plurally divided inside the header, characterized in that the cylindrical pipes are brazed to each other at their cylinder-shaped outer peripheries.
Method for determining the shape of a bezel of an eyeglass frame rim, said rim comprising a front face and a rear face on the side of which is attached a temple, the method comprising: - a step of acquiring the shape of a longitudinal contour of the bezel, and - a step of feeling at least a part of at least one cross-section (S j) of said bezel by moving a mobile feeler in said bezel, characterized in that, before said step of feeling, said method comprises a step of calculating or pointing out an orientation (θ j) of said cross-section (S j) to be felt along said longitudinal contour, and in that, during said step of feeling, only a rear part of said cross-section (S j) is felt, said rear part being closer from the rear face of the rim than the rest of the cross-section (S j). - a step of acquiring the shape of a longitudinal contour of the bezel, and - a step of feeling at least a part of at least one cross-section (S j) of said bezel by moving a mobile feeler in said bezel, characterized in that, before said step of feeling, said method comprises a step of calculating or pointing out an orientation (θ j) of said cross-section (S j) to be felt along said longitudinal contour, and in that, during said step of feeling, only a rear part of said cross-section (S j) is felt, said rear part being closer from the rear face of the rim than the rest of the cross-section (S j).
An ultrasonic probe comprising: a housing; an ultrasonic module arranged inside the housing; at least one signal line which transmits/receives signals to/from the ultrasonic module; a support barrel which is supported by the housing, in which the at least one signal line is arranged and an outer surface of which has at least one ring electrode which electrically connects the at least one signal line to the ultrasonic module; and a rotation barrel which is rotatable around the support barrel in one direction and supports the ultrasonic module so as to maintain an electrical contact of the ultrasonic module to the at least one ring electrode, wherein the rotation barrel is arranged outside the support barrel and the ultrasonic module is supported on the rotation barrel by means of a plurality of fixtures. a housing; an ultrasonic module arranged inside the housing; at least one signal line which transmits/receives signals to/from the ultrasonic module; a support barrel which is supported by the housing, in which the at least one signal line is arranged and an outer surface of which has at least one ring electrode which electrically connects the at least one signal line to the ultrasonic module; and a rotation barrel which is rotatable around the support barrel in one direction and supports the ultrasonic module so as to maintain an electrical contact of the ultrasonic module to the at least one ring electrode, wherein the rotation barrel is arranged outside the support barrel and the ultrasonic module is supported on the rotation barrel by means of a plurality of fixtures.
Vacuum rotor system comprising a hollow rotor having a rotor lateral surface that is open at both ends (2a, 2b) perpendicularly to the axis of rotation and having at least two hubs (22, 23) that are connected inside the rotor lateral surface to the inner face thereof and are suitably mounted in appropriate bearings so that the rotor can rotate, comprising a machine housing that encloses the rotor and has at least one gas-outlet opening for discharging gases from the machine housing, comprising a vacuum system that is connected to the gas-outlet opening and has at least one pre-pump for generating a pre-vacuum pressure in the machine housing, and comprising at least one first gas-removal device (5, 51), which is arranged in the machine housing between the hub and the associated open end of the rotor lateral surface at a suitable distance from the inner face thereof without contacting the rotor lateral surface for effectively receiving gas, is connected to the gas-outlet opening in order to conduct away the received gas and has a gas-receiving opening, which is arranged such that, at a rotational frequency of greater than 200 Hz, the rotor itself conveys part of the gas flow moving along the inner face of the rotor lateral surface due to the rotor rotation at least into the first gas-removal device (5, 51) and thus itself can reduce a gas pressure in the machine housing from the pre-vacuum pressure to a lower operating vacuum pressure.
A method of braking or coupling a first element (14; 83; 112; 154; 1028; 195; 462; 491; 540; 612) with respect to a second element (16; 86; 120; 1022; 197; 472), the method comprising: providing a magnetic closed path structure formed by an armature (18; 90; 122; 148; 1034; 161; 171; 198; 202; 424; 466; 493; 534; 614) coupled to one of the first element and the second element and a core housing (20; 92; 116; 142; 1026; 162; 172; 196; 204; 421; 477; 492; 536; 616) coupled to the other one of the first element and the second element, the armature and the core housing constructed from a material that acquires magnetic properties when placed in a magnetic field and retains magnetic properties after the magnetic field is removed; exposing the armature and the core housing to a magnetic field; forming a substantially closed magnetic path including an air gap (60; 208a, 208b) of 127 μm (0.005 inches) or less between the armature and the core housing in order to create an irreversible residual magnetic force; removing the magnetic field; and substantially preventing the first element from moving with respect to the second element due to the irreversible residual magnetic force. providing a magnetic closed path structure formed by an armature (18; 90; 122; 148; 1034; 161; 171; 198; 202; 424; 466; 493; 534; 614) coupled to one of the first element and the second element and a core housing (20; 92; 116; 142; 1026; 162; 172; 196; 204; 421; 477; 492; 536; 616) coupled to the other one of the first element and the second element, the armature and the core housing constructed from a material that acquires magnetic properties when placed in a magnetic field and retains magnetic properties after the magnetic field is removed; exposing the armature and the core housing to a magnetic field; forming a substantially closed magnetic path including an air gap (60; 208a, 208b) of 127 μm (0.005 inches) or less between the armature and the core housing in order to create an irreversible residual magnetic force; removing the magnetic field; and substantially preventing the first element from moving with respect to the second element due to the irreversible residual magnetic force.
Sealing disc for a container closure for use with a container having a mouth delimited by a circumferential edge, in which the sealing disc is composed of a plurality of layers with an edge, of which at least one group of layers (31, 32, 33, 34, 35) tightly closes the mouth of the container before the container is opened for the first time, in which one of the layers is a metallic layer that can be heated by induction, in which the other layers (31, 33, 34, 35) are non-metallic layers that are unable to be heated directly by induction, in which the group of layers can be sealed onto the circumferential edge of the mouth by means of a sealing layer, in which the sealing disc has at least one grip tab, in which the grip tab is formed by only one or more of the layers from the group of layers, and in which the layers (31, 33, 34, 35) forming the grip tab project beyond the edge of the other layer of the group in terms of area around the surface of the grip tab, is hereby characterized, in that another of the group of layers is a layer of thermally insulating material, in that the layer of thermally insulating material is a layer of foamed plastic, in that this layer is designed in such a way that the thermal energy generated in the metallic layer, which can be heated by induction, is not sufficient to cause the sealing layer to stick and seal the sealing layer to an element of the closure of the container located above it after passing through two layers of the thermally insulating layer in the sealing layer, in that the grip tab is formed only by this layer of thermally insulating material or by this layer and one or more of the other, non-metallic layers (31, 33, 34) which are unable to be directly heated by induction, and in that the grip tab is folded and doubled over onto the uppermost layer of the group of layers (31, 32, 33, 34, 35).
A method for operating a central unit, CU, of a base station in a wireless communication system, the method comprising: receiving (Step 0b), from a distributed unit, DU, of the base station, an initial UL radio resource control, RRC, message; transmitting (Step 1), to the DU, of the base station, a setup request message including first identification information for an uplink, UL, carrier and second identification information for a supplementary uplink, SUL, carrier, wherein the setup request message includes one of an indication to only configure the UL carrier for a user equipment, LTE, or an indication to only configure the SUL carrier for the UE, or an indication to configure the UL carrier and the SUL carrier for the UE; and receiving (Step 2), from the DU of the base station, a setup response message, wherein the setup response message includes a UE-specific configuration for a physical uplink shared channel, PUSCH, on the SUL carrier; wherein, if the initial LTL RRC message includes a SUL access indication information, the SUL access indication information indicates that the LTE has performed random access on the at least one SUL carrier. receiving (Step 0b), from a distributed unit, DU, of the base station, an initial UL radio resource control, RRC, message; transmitting (Step 1), to the DU, of the base station, a setup request message including first identification information for an uplink, UL, carrier and second identification information for a supplementary uplink, SUL, carrier, wherein the setup request message includes one of an indication to only configure the UL carrier for a user equipment, LTE, or an indication to only configure the SUL carrier for the UE, or an indication to configure the UL carrier and the SUL carrier for the UE; and receiving (Step 2), from the DU of the base station, a setup response message, wherein the setup response message includes a UE-specific configuration for a physical uplink shared channel, PUSCH, on the SUL carrier; wherein, if the initial LTL RRC message includes a SUL access indication information, the SUL access indication information indicates that the LTE has performed random access on the at least one SUL carrier.
A biaxially oriented, multilayered film comprising: a core layer comprising linear, low-density polyethylene (LLDPE) and from 2 wt.% to 30 wt.% based on the total weight of the core layer of one or more cavitating agents, wherein the core layer has a first side and a second side, wherein the first side is on an opposite side of the core layer as compared to the second side; a first skin layer, consisting of LLDPE and optionally additives, that is located on the first side; a second skin layer, consisting of LLDPE and optionally additives, that is located on the second side, a first tie layer, consisting of LLDPE, that is located between the core layer and the first skin layer, and a second tie layer, consisting of LLDPE, that is located between the core layer and the second skin layer, wherein the first tie layer and the second tie layer do not include cavitating agents, and wherein the LLDPE comprises metallocene, linear, low-density polyethylene, wherein the LLDPE in the core layer has a melting index of 1 to 3 g/10 min (measured at 190°C - 2.13 Kg conditions), a density of 0.915 to 0.930 g/cm 3, and a melting peak of 115 to 135°C, wherein the biaxially oriented, multilayered film is white-opaque and has a sealing strength of at least 400 g/cm at 100°C under a pressure of 41 N/cm 2 at a dwell time of 0.75 s under ASTM F2029. a core layer comprising linear, low-density polyethylene (LLDPE) and from 2 wt.% to 30 wt.% based on the total weight of the core layer of one or more cavitating agents, wherein the core layer has a first side and a second side, wherein the first side is on an opposite side of the core layer as compared to the second side; a first skin layer, consisting of LLDPE and optionally additives, that is located on the first side; a second skin layer, consisting of LLDPE and optionally additives, that is located on the second side, a first tie layer, consisting of LLDPE, that is located between the core layer and the first skin layer, and a second tie layer, consisting of LLDPE, that is located between the core layer and the second skin layer, wherein the first tie layer and the second tie layer do not include cavitating agents, and wherein the LLDPE comprises metallocene, linear, low-density polyethylene, wherein the LLDPE in the core layer has a melting index of 1 to 3 g/10 min (measured at 190°C - 2.13 Kg conditions), a density of 0.915 to 0.930 g/cm 3, and a melting peak of 115 to 135°C, wherein the biaxially oriented, multilayered film is white-opaque and has a sealing strength of at least 400 g/cm at 100°C under a pressure of 41 N/cm 2 at a dwell time of 0.75 s under ASTM F2029.
Silicone composition crosslinkable to afford silicone gels containing polyorganosiloxane containing at least two alkenyl groups per molecule having a viscosity at 25°C of 200 to 500000 mPa·s measured according to DIN EN ISO 3219 in rotation with a cone-plate measuring system at 1013 mbar, organosilicon compound containing at least two SiH groups per molecule having an average content of 2.5 to 3.5 SiH groups per molecule and a content of not more than 0.025% by weight of hydrogen in the SiH groups and hydrosilylation catalyst. polyorganosiloxane containing at least two alkenyl groups per molecule having a viscosity at 25°C of 200 to 500000 mPa·s measured according to DIN EN ISO 3219 in rotation with a cone-plate measuring system at 1013 mbar, organosilicon compound containing at least two SiH groups per molecule having an average content of 2.5 to 3.5 SiH groups per molecule and a content of not more than 0.025% by weight of hydrogen in the SiH groups and hydrosilylation catalyst.
A method of selecting an individual with cancer for treatment with a TKI, the method comprising: (a) determining the expression levels in a biological sample obtained from the individual of all 225 of the genes in table 4, wherein said biological sample comprises cells, nucleic acids and/or proteins from the cancer, and (b) selecting an individual for treatment with the TKI based on the expression levels of those genes. (a) determining the expression levels in a biological sample obtained from the individual of all 225 of the genes in table 4, wherein said biological sample comprises cells, nucleic acids and/or proteins from the cancer, and (b) selecting an individual for treatment with the TKI based on the expression levels of those genes.
A method for producing ethylene glycol from a carbohydrate feed comprising: a) contacting, in a first reactor under hydrogenation conditions, the carbohydrate feed with a bi-functional catalyst system comprising: 1) a heterogeneous hydrogenation catalyst, and 2) a soluble retro-Aldol catalyst; and, wherein the carbohydrate feed comprises a concentration of carbohydrate, in the total solution entering the first reactor, of 5-40 wt% in a solvent; b) running the reaction under pH controlled conditions and wherein the pH of the reaction is in the range of from 2-7, wherein the pH is controlled using at least one pH controlling agent selected from the group consisting of: alkali- and alkaline-earth metal salts of carbonic acid or carboxylic acids or combinations thereof, alkali- and alkaline-earth metal salts of phosphoric acid, zinc carbonate, and zinc salts of carboxylic acids; c) obtaining an intermediate product stream, from the first reactor, comprising ethylene glycol; and wherein the hydrogenation conditions comprise a temperature in the range of from 180-250°C. a) contacting, in a first reactor under hydrogenation conditions, the carbohydrate feed with a bi-functional catalyst system comprising: 1) a heterogeneous hydrogenation catalyst, and 2) a soluble retro-Aldol catalyst; and, wherein the carbohydrate feed comprises a concentration of carbohydrate, in the total solution entering the first reactor, of 5-40 wt% in a solvent; 1) a heterogeneous hydrogenation catalyst, and 2) a soluble retro-Aldol catalyst; and, wherein the carbohydrate feed comprises a concentration of carbohydrate, in the total solution entering the first reactor, of 5-40 wt% in a solvent; b) running the reaction under pH controlled conditions and wherein the pH of the reaction is in the range of from 2-7, wherein the pH is controlled using at least one pH controlling agent selected from the group consisting of: alkali- and alkaline-earth metal salts of carbonic acid or carboxylic acids or combinations thereof, alkali- and alkaline-earth metal salts of phosphoric acid, zinc carbonate, and zinc salts of carboxylic acids; c) obtaining an intermediate product stream, from the first reactor, comprising ethylene glycol; and wherein the hydrogenation conditions comprise a temperature in the range of from 180-250°C.
Container for the storage of at least one device driven with an accumulator, - having a housing (2, 3) and - having a power supply for charging the at least one accumulator, characterised in that - an inclination sensor firmly connected to the housing (2, 3) is provided for detecting the alignment of the housing (2, 3) in the space, - an output signal of the inclination sensor determines the position of the housing (2, 3) and - the output signal controls the devices and means (6, 7, 8, 9), which are connected to the housing (2, 3), differently. - having a housing (2, 3) and - having a power supply for charging the at least one accumulator, characterised in that - an inclination sensor firmly connected to the housing (2, 3) is provided for detecting the alignment of the housing (2, 3) in the space, - an output signal of the inclination sensor determines the position of the housing (2, 3) and - the output signal controls the devices and means (6, 7, 8, 9), which are connected to the housing (2, 3), differently.
An ejection unit for at least one satellite, in particular a picosatellite, comprising a frame which defines an inner space for receiving the satellite; and a retention device (30, 150) for holding the satellite in the inner space, said retention device (30, 150) being configured such that the satellite is releasable from the retention device, wherein the retention device comprises a cover for closing the inner space and a bolt is formed as part of the cover, characterized in that the bolt is displaceable and the cover is blocked in a closed position by the displaceable bolt with respect to the frame in a releasable manner, with a release mechanism being provided by which the bolt is movable from a blocking position into a release position.
An electrophotographic developing member comprising: a substrate; a porous electroconductive elastic layer on the substrate; and an electroconductive solid layer on the electroconductive elastic layer, characterized in that an outer surface of the developing member includes a first region having an electrical insulating surface and a second region having an electroconductive surface, the first region and the second region are arranged to be adjacent to each other, and the first region is constituted by an electrical insulating portion disposed on an outer surface of the electroconductive solid layer, wherein volume resistivity of the electrical insulating portion is 1.0 × 10 13 Ω·cm or more and 1.0 × 10 18 Ω·cm or less. a substrate; a porous electroconductive elastic layer on the substrate; and an electroconductive solid layer on the electroconductive elastic layer, characterized in that an outer surface of the developing member includes a first region having an electrical insulating surface and a second region having an electroconductive surface, the first region and the second region are arranged to be adjacent to each other, and the first region is constituted by an electrical insulating portion disposed on an outer surface of the electroconductive solid layer, wherein volume resistivity of the electrical insulating portion is 1.0 × 10 13 Ω·cm or more and 1.0 × 10 18 Ω·cm or less.