mhurhangee/ep-ind-claims huggingface dataset:
RJ plug connector device with at least one wiring block which is configured for receiving at least one multi-wire data cable and which comprises at least one receiving region for receiving at least one wire of the at least one data cable, characterised in that the at least one wiring block comprises at least one drain wire receiving element, which is arranged at least partly on an outer side of the at least one wiring block and is configured for receiving a drain wire of the data cable and for guiding said drain wire at least partly in an axial direction and in a radial direction, wherein the wiring block is configured, in assembly, to be inserted into a plug connector, wherein the at least one wire of the data cable is contactable by at least one insulation displacement termination contact. characterised in that the at least one wiring block comprises at least one drain wire receiving element, which is arranged at least partly on an outer side of the at least one wiring block and is configured for receiving a drain wire of the data cable and for guiding said drain wire at least partly in an axial direction and in a radial direction, wherein the wiring block is configured, in assembly, to be inserted into a plug connector, wherein the at least one wire of the data cable is contactable by at least one insulation displacement termination contact.
A kit for a rotor of an electrical machine comprising a permanent magnet module and a pole piece (501; 515), wherein the permanent magnet module includes: a housing having a bottom configured to be mounted to a rim of the rotor, a first side wall, and a second side wall, the bottom extending laterally beyond the first and the second side wall, and a permanent magnet component arranged inside the housing, the permanent magnet component having a radial magnetization with respect to an axis of rotation of the rotor; and wherein the pole piece (501; 515) includes: a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod, and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod. a housing having a bottom configured to be mounted to a rim of the rotor, a first side wall, and a second side wall, the bottom extending laterally beyond the first and the second side wall, and a permanent magnet component arranged inside the housing, the permanent magnet component having a radial magnetization with respect to an axis of rotation of the rotor; and wherein the pole piece (501; 515) includes: a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod, and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod. a metallic main body configured to be fixed to a rim of the rotor in such a way that, in use, a portion of the laterally extending bottom of the permanent magnet module is clamped between the pole piece and the rim of the rotor; and wherein the pole piece (501; 515) comprises an axial hole adapted to receive a fixation rod, and a plurality of radial holes, such that the pole piece (501; 515) can be fixed to a rotor rim by a plurality of bolts inserted in the radial holes and fixed to the fixation rod.
A sliding frictional force generation mechanism comprising: a metal hole member having a hole; a metal shaft member fitted in the hole of the hole member so that the metal shaft member is slideable repeatedly and alternately in an axial direction; and a lubrication mechanism configured to supply lubricating oil serving as a cooling medium for cooling frictional heat caused by sliding between the hole member and the shaft member, wherein the shaft member is fitted in the hole in an interference fit state, wherein the shaft member has an external force receiving portion at each end for alternately receiving a pushing force, or an external force receiving portion at one end for alternately receiving a pushing force and a pulling force, configured in such a way that the hole member and the shaft member can slide relative to each other in the axial direction in the interference fit state, and in such a way that the metal members slide with each other by interposing lubricating oil, wherein the surface roughness Ra of the inner surface of the metal hole member around the hole and the shaft member is 0.01 to 0.2 μm, and wherein a passage through which the lubricating oil or another cooling medium is configured to flow is formed in at least one of the hole member and the shaft member. a metal hole member having a hole; a metal shaft member fitted in the hole of the hole member so that the metal shaft member is slideable repeatedly and alternately in an axial direction; and a lubrication mechanism configured to supply lubricating oil serving as a cooling medium for cooling frictional heat caused by sliding between the hole member and the shaft member, wherein the shaft member is fitted in the hole in an interference fit state, wherein the shaft member has an external force receiving portion at each end for alternately receiving a pushing force, or an external force receiving portion at one end for alternately receiving a pushing force and a pulling force, configured in such a way that the hole member and the shaft member can slide relative to each other in the axial direction in the interference fit state, and in such a way that the metal members slide with each other by interposing lubricating oil, wherein the surface roughness Ra of the inner surface of the metal hole member around the hole and the shaft member is 0.01 to 0.2 μm, and wherein a passage through which the lubricating oil or another cooling medium is configured to flow is formed in at least one of the hole member and the shaft member.
A substantially alkaline-stable chromatography ligand, which ligand comprises one or more Domain C units from Staphylococcus protein A (SpA), wherein the Domain C sequence is the amino acid sequence as defined by SEQ ID NO 2 and which ligand after 5 hours incubation in 0.5 M NaOH has retained at least 95% of its original binding capacity.
An electrical contacting device (100, 200) for a medical implantable device, comprising an electrically insulating base body (103, 203) having a first (105, 205) and a second surface (106, 206), wherein the base body includes a ceramics, an electroconductive conducting element (104, 204), which extends from the first surface of the base body at least partially through the base body, wherein the conducting element includes a cermet and is connected to the ceramics of the base body by means of a substance-to-substance bond by a sintered connection, a contact element (102, 202) including a metal, wherein the contact element is connected to the conducting element in an electroconductive manner and can be connected to an electroconductive structure, characterised in that the contacting device comprises an adhesion element (101, 201), wherein the adhesion element was generated on the base body by a sintering step 1 from an adhesion element precursor by forming a substance-to-substance bond at least between the adhesion element and the first surface of the base body and wherein the adhesion element includes an adhesion promoter in order to form a substance-to-substance bond at least with the first surface of the base body, and the adhesion element has a first layer, wherein the first layer includes a metal and extends through a second layer to the conducting element, wherein the second layer includes a dielectric material and is connected by means of a substance-to-substance bond to at least the first layer and the first surface of the base body, and wherein the contact element was generated on the adhesion element by a sintering step 2 from a contact element precursor by forming an electrical connection between the contact element and the conducting element and a substance-to-substance bond between the contact element and the adhesion element.
A pharmacological chaperone of the melanocortin 4 receptor (MC4R) for use in the treatment of obesity or the prevention of obesity in a patient having a mutant MC4R polypeptide, wherein the pharmacological chaperone is Compound 23: and wherein the mutant MC4R polypeptide comprises a mutation associated with misfolding of the MC4R polypeptide.
Battery device having a plurality of battery cells and a cooling device for evenly cooling the plurality of battery cells, wherein the cooling device, in order to cool the battery cells, comprises: a heat exchange element that is able to be thermally connected to a battery cell in order to route heat from the battery cell to an environment, and a coolant feeding apparatus, arranged separately from the heat exchange element, for feeding a coolant to the heat exchange element, wherein the coolant feeding apparatus has a coolant guide, arranged next to the heat exchange element, for guiding coolant in a region separate from the battery cell, wherein the coolant guide is designed as a plate-shaped or flat element, and wherein the coolant guide has at least one channelling apparatus for routing coolant in the direction of the battery cell, characterized in that a multiplicity of heat exchange elements and a multiplicity of channelling apparatuses are provided, wherein coolant deflection apparatuses are provided in order to achieve an equal coolant pressure at the heat exchange elements and/or an equal amount of coolant at the heat exchange elements, in that the heat exchange elements are designed as cell connectors for electrically connecting at least two battery cells, and in that the channelling apparatuses are formed by apertures arranged next to the heat exchange elements.
Turbomachine with a wall that extends circumferentially to a central axis of the turbomachine at least in certain areas, wherein the wall has a frame structure (36, 61) that forms multiple recesses, wherein multiple insert devices (48, 49, 50) are provided that can be connected to the wall (32, 140) in a releasable manner in the area of recesses (42, 141) which are arranged in the wall (32, 140) and which respectively have a shape that substantially corresponds to the form of a recess of the frame structure (36, 61), characterized in that the insert devices (48, 49, 50) respectively have a connection device (64, 101, 115) by means of which the insert devices (48, 49, 50) can be brought into operative connection with connection devices (65, 102, 116) of the wall (32, 140), wherein the connection devices (64, 101, 115) of the insert devices (48, 49, 50) respectively have a projection (72, 118) that, in the mounted state of the insert device (48, 49, 50), extends substantially in the radial direction of the turbomachine at least in certain areas, and that, in the mounted state of the insert devices (48, 49, 50), meshes in grooves (80, 122) of the connection devices (65, 102, 116) of the wall (32, 140), and the connection devices (54, 102, 116) of the wall (32, 140) respectively have a projection (77, 121) that, in the mounted state of the insert devices (48, 49, 50), extends substantially in the radial direction of the turbomachine at least in certain areas, and that in the mounted state of the insert devices (48, 49, 50) mesh in grooves (73, 119) of the connection devices (64, 101, 115) of the insert devices (48, 49, 50), wherein the wall (32, 140) and the insert devices (48, 49, 50) each have multiple projections (72, 77, 118, 121) and grooves (73, 80, 119, 122), wherein the grooves (73, 119) and the projections (72, 118) of the insert devices (48, 49, 50) and the grooves (80, 122) and the projections (77, 121) of the wall (32, 140) form a wave-shaped or a serrated profile in the cross-section, wherein each insert device (48, 49, 50) can be brought into operative connection with the frame structure (36, 61) in a releasable manner in the area of a recess, and wherein the recesses of the frame structure (36, 61) and the insert devices (48, 49, 50) are formed in a triangular or hexagonal and/or octagonal manner.
An apparatus for tracking an object, comprising: a bus comprising electrical power and data lines; a plurality of location pads, which are positionable at different, respective locations with respect to a body cavity in which the object is located, and which are connected to the bus in series so as to receive electrical power and exchange data signals over the bus, each location pad comprising: multiple radiator coils; and driving circuitry, which is configured, responsively to the data signals, to select different respective driving frequencies for the radiator coils in the location pad and to generate, using the electrical power from the bus, driving signals to drive the coils to produce magnetic fields at the respective driving frequencies; and a console, which is configured to receive and process sensor signals from a magnetic sensor fixed to the object, in response to the magnetic fields in the body cavity, in order to compute position coordinates of the object. a bus comprising electrical power and data lines; a plurality of location pads, which are positionable at different, respective locations with respect to a body cavity in which the object is located, and which are connected to the bus in series so as to receive electrical power and exchange data signals over the bus, each location pad comprising: multiple radiator coils; and driving circuitry, which is configured, responsively to the data signals, to select different respective driving frequencies for the radiator coils in the location pad and to generate, using the electrical power from the bus, driving signals to drive the coils to produce magnetic fields at the respective driving frequencies; and multiple radiator coils; and driving circuitry, which is configured, responsively to the data signals, to select different respective driving frequencies for the radiator coils in the location pad and to generate, using the electrical power from the bus, driving signals to drive the coils to produce magnetic fields at the respective driving frequencies; and a console, which is configured to receive and process sensor signals from a magnetic sensor fixed to the object, in response to the magnetic fields in the body cavity, in order to compute position coordinates of the object.
A ventilating air intake arrangement comprising at least one air passage channel, with an air vent, designed to ventilate at least one confined zone in an aircraft with fresh air entering upstream, through said air vent, into said channel and exiting downstream of the latter towards said zone to be ventilated, said air intake arrangement comprising controllable blocking means enabling the cross section of said channel to be varied, and said controllable blocking means comprising at least one membrane, elastically deformable under the action of a fluid control, characterized in that said fluid control comprises a link pipe, the upstream end of which takes the total pressure on said aircraft and the downstream end of which communicates with said membrane such that the cross section of said channel varies according to the speed and the altitude of said aircraft.
A writing instrument assembly (1, 1a, 1*) comprising a collecting element, at least two writing instruments (20a-1; 20b-1; 20c-1, 20c-2, 20c-3; 20a-1, 20a-2, 20a-3, 20a-4), wherein each of the writing instruments has a main axis determined substantially by the elongate extent of the writing instrument, at least one active end with a writing member for applying or transferring a writing substance of the writing instrument and with a closure cap (30a-1, 30a-2; 30a; 30d-1, 30d-2, 30d-3, 30d-4) for being fitted on to or screwed on to the active end, and at least one passive end and characterised in that there is provided, at the closure cap, at least one connecting element (60; 60a; 60b; 60c), and wherein moreover the collecting element is connected to each writing instrument by way of the respective connecting element (60; 60a; 60b; 60c), wherein the collecting element is so dimensioned that it tears at a predefined tensile loading by the provision of a predefined weakening as a desired tear-away location.
A low temperature device comprising: a low temperature container comprising at least one test opening (4; 40, 41); a probe holder disposed inside the low temperature container, and wherein a probe that is to be investigated can be attached to the probe holder; and a cooling device that is thermally coupled to the probe holder; characterized in that the at least one test opening (4; 40, 41) is flexibly connected to the low temperature container to damp vibrations produced by the cooling device. a low temperature container comprising at least one test opening (4; 40, 41); a probe holder disposed inside the low temperature container, and wherein a probe that is to be investigated can be attached to the probe holder; and a cooling device that is thermally coupled to the probe holder; characterized in that the at least one test opening (4; 40, 41) is flexibly connected to the low temperature container to damp vibrations produced by the cooling device.
A method for dicing a substrate with back metal, the method comprising: providing a process chamber having a wall; providing a plasma source adjacent to the wall of the process chamber; providing a substrate support within the process chamber; providing said substrate having a first surface and a second surface, said second surface being opposed to said first surface, a mask layer on said first surface of said substrate,, a thin film of back metal layer on said second surface of said substrate; placing said substrate onto said substrate support; generating a plasma using the plasma source; etching said first surface of said substrate through said mask layer using the generated plasma, the etching step exposing said thin film of back metal layer on said second surface of said substrate; and applying a fluid from a fluid jet to said thin film of back metal layer on said second surface of said substrate after said thin film of back metal layer has been exposed by the etching step to separate the back metal on said second surface. providing a process chamber having a wall; providing a plasma source adjacent to the wall of the process chamber; providing a substrate support within the process chamber; providing said substrate having a first surface and a second surface, said second surface being opposed to said first surface, a mask layer on said first surface of said substrate,, a thin film of back metal layer on said second surface of said substrate; placing said substrate onto said substrate support; generating a plasma using the plasma source; etching said first surface of said substrate through said mask layer using the generated plasma, the etching step exposing said thin film of back metal layer on said second surface of said substrate; and applying a fluid from a fluid jet to said thin film of back metal layer on said second surface of said substrate after said thin film of back metal layer has been exposed by the etching step to separate the back metal on said second surface.
A device for at least one of delivering or positioning a biologically compatible, implantable prosthesis relative to a muscle wall defect, said device comprising: a support body with a flexibility sufficient to adopt a collapsed configuration for releasable engagement of said device to the prosthesis, and with a flexibility sufficient to adopt a stable, self-supporting enlarged configuration to support the prosthesis in an expanded shape when said device is releasably engaged with the prosthesis, said support body having an outer periphery, a first side and an opposite second side, characterised in that the device is further provided with an opening passing through said support body between said first side and said second side, said device further comprising a handle having a free, first portion extending through said opening and away from said first side of said support body and a second portion of said handle attached to said second side of said support body, said support body including a zone of weakness to facilitate adoption by said support body of said collapsed configuration, and a spine attached to said first side of said support body opposite said second portion.
A cosmetics container with a push button having a flexible upright nozzle, the cosmetics container comprising: a container body filled with cosmetic contents and having a mouth; an airless pump mounted to the mouth of the container body to pump the cosmetic contents and having a discharge passage through which the cosmetic contents are discharged; and a shoulder for fixing the airless pump to the mouth of the container body and preventing leakage of the cosmetic contents from the container body, wherein a push button is coupled to the discharge passage of the airless passage, a nozzle is formed uprightly in the push button, wherein a discharge opening from which the cosmetic contents are discharged faces upwards, and the nozzle is formed of a flexible material; and a portion of the nozzle that meets the push button and an upper portion of the push button are pushed together such that the push button is pushed to operate the airless pump while the nozzle is bent so that the cosmetic contents are discharged and used. a container body filled with cosmetic contents and having a mouth; an airless pump mounted to the mouth of the container body to pump the cosmetic contents and having a discharge passage through which the cosmetic contents are discharged; and a shoulder for fixing the airless pump to the mouth of the container body and preventing leakage of the cosmetic contents from the container body, wherein a push button is coupled to the discharge passage of the airless passage, a nozzle is formed uprightly in the push button, wherein a discharge opening from which the cosmetic contents are discharged faces upwards, and the nozzle is formed of a flexible material; and a portion of the nozzle that meets the push button and an upper portion of the push button are pushed together such that the push button is pushed to operate the airless pump while the nozzle is bent so that the cosmetic contents are discharged and used.