mhurhangee/ep-ind-claims huggingface dataset:
A housing assembly of a mobile terminal, comprising: a frame body, wherein a bearing surface and a limiting surface are disposed on an inner side of the frame body; a cover plate, comprising a top surface and a bottom surface that are oppositely disposed and a side surface surroundingly connected between the top surface and the bottom surface, wherein the side surface comprises a first side surface connected to the top surface and a second side surface connected to the bottom surface, and the cover plate is installed to the inner side of the frame body; an adhesive, disposed between the bottom surface and the bearing surface and between the second side surface and the limiting surface, and accommodating space is provided between the first side surface and the limiting surface; a decorative ring, disposed in the accommodating space and covering the bearing surface; and the frame body is further provided with a plurality of limiting bumps, and the plurality of limiting bumps are disposed on the limiting surface at intervals, and are in contact with the second side surface. a frame body, wherein a bearing surface and a limiting surface are disposed on an inner side of the frame body; a cover plate, comprising a top surface and a bottom surface that are oppositely disposed and a side surface surroundingly connected between the top surface and the bottom surface, wherein the side surface comprises a first side surface connected to the top surface and a second side surface connected to the bottom surface, and the cover plate is installed to the inner side of the frame body; an adhesive, disposed between the bottom surface and the bearing surface and between the second side surface and the limiting surface, and accommodating space is provided between the first side surface and the limiting surface; a decorative ring, disposed in the accommodating space and covering the bearing surface; and the frame body is further provided with a plurality of limiting bumps, and the plurality of limiting bumps are disposed on the limiting surface at intervals, and are in contact with the second side surface.
An autofrettage apparatus for increasing a fatigue strength of a prechamber element for an internal combustion piston engine, comprising a body provided with at least one fluid conduit arranged connectable with a incompressible fluid source for causing plastic deformation and increasing the fatigue strength of the prechamber element, characterized in that - the body is formed of at least two body parts (20, 30) attachable pressure tightly together so as to form an enclosed space (22, 31) in the body, and - wherein a form and dimensions of the enclosed space (22, 31) are chosen so that the prechamber element can be arranged firmly and non-movably inside the body when enclosing the prechamber element by attaching the at least two body parts (20, 30) pressure tightly together, such that an inner surface of the space (22, 31) prevents an outer surface of the prechamber element to expand and - wherein the at least one fluid conduit is opening into the space (22,31) of the body, and - the conduit is arranged to apply pressure against an inner surface of the prechamber element when enclosed by the body, for causing plastic deformation and increasing the fatigue strength of an inner surface layer of the prechamber element. - the body is formed of at least two body parts (20, 30) attachable pressure tightly together so as to form an enclosed space (22, 31) in the body, and - wherein a form and dimensions of the enclosed space (22, 31) are chosen so that the prechamber element can be arranged firmly and non-movably inside the body when enclosing the prechamber element by attaching the at least two body parts (20, 30) pressure tightly together, such that an inner surface of the space (22, 31) prevents an outer surface of the prechamber element to expand and - wherein the at least one fluid conduit is opening into the space (22,31) of the body, and - the conduit is arranged to apply pressure against an inner surface of the prechamber element when enclosed by the body, for causing plastic deformation and increasing the fatigue strength of an inner surface layer of the prechamber element.
Shaft sleeve for a sealing arrangement, having a sleeve portion which extends in an axial direction and which comprises a receiving region for a pair of slip rings on the outer circumference of the sleeve portion, characterised in that the shaft sleeve is formed in one piece and in that there are formed in the sleeve portion passages to carry a barrier medium which are oriented in a substantially axial direction and have solid walls radially and which extend along a part of the sleeve portion and at least partly overlap the receiving region in the axial direction, and in that the passages each have at their ends openings (26, 28) to the outer circumference of the sleeve portion.
A system for mitigating structural damage from impact events, the system comprising: a lateral dampening device on at least one of a side of a structure and a lateral foundation; and a seismic bearing connected between a base of the structure and a base foundation; and the side of the structure is separated from the lateral foundation; characterized in that the lateral dampening device includes a restorative member and a reactive member configured to rigidly join the structure and the lateral foundation in a first direction when the structure moves a distance in a second direction opposite the first direction. a lateral dampening device on at least one of a side of a structure and a lateral foundation; and a seismic bearing connected between a base of the structure and a base foundation; and the side of the structure is separated from the lateral foundation; characterized in that the lateral dampening device includes a restorative member and a reactive member configured to rigidly join the structure and the lateral foundation in a first direction when the structure moves a distance in a second direction opposite the first direction.
Device for assistance in the selection of a compression orthosis made of an elastic material and providing compression to a therapeutic degree, with the compression decreasing from the ankle, and in its adaptation to the morphology of a limb for which this orthosis is intended, characterized in that it comprises: - means for establishing a first file containing data that are representative of the morphological characteristics of the limb, this first data file comprising the coordinates, in a three-dimensional space, of an array of points distributed on the surface of the limb along a succession of defined contours at different successive heights of this limb; - means for establishing a second file containing data that are representative of the dimensional and rheological characteristics of the orthosis defined at different successive heights of this orthosis; - compression simulation means which are able to determine, from the data of the first and second files, compression pressure values that are capable of being exerted by the orthosis on the limb at a plurality of points of said array; and - means for displaying said pressure values determined by the compression simulation means. - means for establishing a first file containing data that are representative of the morphological characteristics of the limb, this first data file comprising the coordinates, in a three-dimensional space, of an array of points distributed on the surface of the limb along a succession of defined contours at different successive heights of this limb; - means for establishing a second file containing data that are representative of the dimensional and rheological characteristics of the orthosis defined at different successive heights of this orthosis; - compression simulation means which are able to determine, from the data of the first and second files, compression pressure values that are capable of being exerted by the orthosis on the limb at a plurality of points of said array; and - means for displaying said pressure values determined by the compression simulation means.
A method for fabricating an object with a height to width aspect ratio greater than 1, comprising: (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; and (c) repeating steps (a) and (b) until the object and a support is formed in the powder bed, wherein the support is formed between two objects (210, 220) and wherein the support includes two fused connections to each of the objects (210, 220) and an axial direction between the fused connections, a perimeter of fused material about the axial direction, and unfused powder or air completely surrounding the perimeter of fused material, wherein the axial direction is parallel to a direction in the plane of a layer of powder and wherein the axial direction is parallel to a direction of movement of the recoater arm from the first side of the powder bed; the method further comprising (d) repeating steps (a) and (b) until at least one additional support is formed in the powder bed, wherein each additional support includes two additional fused connections to each of the objects (210, 220) and an additional axial direction between the additional fused connections, an additional perimeter of fused material about the additional axial direction, and unfused powder or air completely surrounding the additional perimeter of fused material, wherein the additional axial direction is parallel to a direction in the plane of a layer of powder and wherein the additional direction is parallel to a direction of movement of the recoater arm from the first side of the powder bed; wherein the two fused connections to the object are at a first height and each additional fused connection is at a multiple of the first height. (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; and (c) repeating steps (a) and (b) until the object and a support is formed in the powder bed,
Device for moulding a plastic article in which the article is obtained by the compression of a metered quantity of plastic in the molten state between the two parts of a mould, comprising at least one supply of plastic, a rod, sliding in a sleeve suitable for temporarily supporting said metered quantity of plastic, a mould for the head of the article (6, 7) and a mandrel cooperating with said mould (6, 7), the sleeve having an upper face and a lateral wall, the device being characterized in that it includes means for depositing the metered quantity on the sleeve (1, 2), which means are designed so that the amount of plastic lying above a plane coinciding with the upper face of the sleeve is between 20% and 40% of the total mass of the metered quantity.
Bending machine for one or more metal products such as, for example, bars (11a, 11b), reinforcement round pieces, structural shapes, tubes or other profiles, comprising at least a bending unit, a main drawing unit, able to draw said bar (11a, 11b) along an axis of advance toward said bending unit, and a main shearing unit disposed between said bending unit and said main drawing unit, said machine also comprising a secondary drawing or extraction unit disposed between said main drawing unit and said main shearing unit, said secondary drawing or extraction unit being configured and programmed to draw an end portion of bar, exiting from said main drawing unit, along said axis of advance toward said bending unit, characterized in that it also comprises a secondary shearing unit, or shears, of the bilateral type, disposed between said secondary drawing or extraction unit and said main drawing unit.
A cable jacket comprising a random heterophasic polypropylene copolymer, the random heterophasic polypropylene copolymer comprising a matrix being a random propylene copolymer (R-PP) and dispersed therein an elastomeric propylene copolymer, wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2. wherein the random propylene copolymer (R-PP) comprises a first propylene copolymer fraction (R-PP1) having a comonomer content in the range of 0.8 to 6.0 mol% and a second propylene copolymer fraction (R-PP2) having a comonomer content in the range of 7.2 to 20.0 mol%, based on the overall amount of fractions (R-PP1) and (R-PP2), and wherein said random heterophasic polypropylene copolymer has MFR 2 (230°C) measured according to ISO 1133 in the range of 0.5 to 15 g/10 min, and Charpy impact strength measured according to ISO 179-1/1eA at -20°C in the range of 5 to 20 kJ/m 2.
A radial inflow turbine for a turbocharger comprising: a turbine wheel having a blade, wherein a hub-side end of a leading edge of the blade is located radially inward relative to a shroud-side end of the leading edge; and a housing having a scroll part and a bend part deflecting a flow directed from the scroll part toward the blade of the turbine wheel, wherein the bend part is configured to deflect a flow of a working fluid flowing radially inward from the scroll part, along an axial direction, and wherein the turbine wheel has at least one through hole which bypasses the blade characterized in that a boundary layer of the flow that has developed in the vicinity of a hub-side wall surface of the bend part can be sucked to a downstream side of the blade via the at least one through hole. a turbine wheel having a blade, wherein a hub-side end of a leading edge of the blade is located radially inward relative to a shroud-side end of the leading edge; and a housing having a scroll part and a bend part deflecting a flow directed from the scroll part toward the blade of the turbine wheel, wherein the bend part is configured to deflect a flow of a working fluid flowing radially inward from the scroll part, along an axial direction, and wherein the turbine wheel has at least one through hole which bypasses the blade characterized in that a boundary layer of the flow that has developed in the vicinity of a hub-side wall surface of the bend part can be sucked to a downstream side of the blade via the at least one through hole.
A method comprising: transmitting, by a communication terminal to a wireless gateway, a signal in response to detecting a measurement value exceeding a certain threshold; determining, at the communication terminal, that the communication terminal is within range of the wireless gateway to enable connection establishment between the wireless gateway and the communication terminal, wherein the determining that the communication terminal is within range further comprises detecting at least a signal emitted by the wireless gateway; and establishing, by the communication terminal, at least one connection between the wireless gateway and the communication terminal. transmitting, by a communication terminal to a wireless gateway, a signal in response to detecting a measurement value exceeding a certain threshold; determining, at the communication terminal, that the communication terminal is within range of the wireless gateway to enable connection establishment between the wireless gateway and the communication terminal, wherein the determining that the communication terminal is within range further comprises detecting at least a signal emitted by the wireless gateway; and establishing, by the communication terminal, at least one connection between the wireless gateway and the communication terminal.
An apparatus configured to support machine-to-machine (M2M) communications, the apparatus comprising a processor comprising: a service capability layer configured to provide M2M service capabilities that provide M2M functions that are to be shared by different applications; and an application configured to run a service logic and use the M2M service capabilities accessible via an interface, wherein the application is configured to interact with an M2M gateway, an M2M device, and an M2M server via the M2M service capabilities, wherein the M2M server is split into an M2M control server and an M2M data server at a service capability layer to provide service capabilities for control functions and service capabilities for data functions, respectively, and the service capability layer interacts with the M2M control server and the M2M data server using separate interfaces. a service capability layer configured to provide M2M service capabilities that provide M2M functions that are to be shared by different applications; and an application configured to run a service logic and use the M2M service capabilities accessible via an interface, wherein the application is configured to interact with an M2M gateway, an M2M device, and an M2M server via the M2M service capabilities, wherein the M2M server is split into an M2M control server and an M2M data server at a service capability layer to provide service capabilities for control functions and service capabilities for data functions, respectively, and the service capability layer interacts with the M2M control server and the M2M data server using separate interfaces.
Three-phase circuit, comprising three phase strands (L1, L2, L3) and a neutral conductor strand, wherein each one of the three phase strands conducts an electrical phase (L1, L2, L3), wherein each phase strand is coupled to one electrical circuit for connection to a phase conductor (L1, L2, L3) and to the neutral conductor, comprising the respective circuit. a first line strand (L1.1), which can be connected to the phase conductor via a first diode element on the input side, a second line strand (L.2), which can be connected to the phase conductor (L1, L2, L3) via a second diode element, wherein the two diode elements (D1, D2) are oriented opposite to each other with respect to the phase conductor (L1, L2, L3), wherein a first coil element is arranged between the first line strand (L1.1) and the neutral conductor of the low voltage network, and a second coil element is arranged between the second line strand (L 1.2) and the neutral conductor, wherein the two coil elements (DR1, DR2) are coupled to each other inductively, and wherein a first capacitor element (C1.1) is arranged between the first line strand (L1.1) and the neutral conductor, and a second capacitor element (C1.2) is arranged between the second line strand (L1.2) and the neutral conductor, wherein the first and the second capacitor elements (C1.1, C1.2) and the coil elements (DR1, DR2) are arranged in star circuit, respectively. a first line strand (L1.1), which can be connected to the phase conductor via a first diode element on the input side, a second line strand (L.2), which can be connected to the phase conductor (L1, L2, L3) via a second diode element, wherein the two diode elements (D1, D2) are oriented opposite to each other with respect to the phase conductor (L1, L2, L3), wherein a first coil element is arranged between the first line strand (L1.1) and the neutral conductor of the low voltage network, and a second coil element is arranged between the second line strand (L 1.2) and the neutral conductor, wherein the two coil elements (DR1, DR2) are coupled to each other inductively, and wherein a first capacitor element (C1.1) is arranged between the first line strand (L1.1) and the neutral conductor, and a second capacitor element (C1.2) is arranged between the second line strand (L1.2) and the neutral conductor, wherein the first and the second capacitor elements (C1.1, C1.2) and the coil elements (DR1, DR2) are arranged in star circuit, respectively.
A high torque belt sprocket comprising: - a body formed of a castable polymer material defining an outer periphery and a recessed hub section defining an inner surface for engaging a bushing comprising a smooth circular outer surface and at least one threaded port for securing with the high torque sprocket; - a continuous toothed structure disposed on the outer periphery of the body, and having circular pitch; and, - a textile reinforcement embedded in the body adjacent the inner surface of the hub section; wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch is 0.65 or less. - a body formed of a castable polymer material defining an outer periphery and a recessed hub section defining an inner surface for engaging a bushing comprising a smooth circular outer surface and at least one threaded port for securing with the high torque sprocket; - a continuous toothed structure disposed on the outer periphery of the body, and having circular pitch; and, - a textile reinforcement embedded in the body adjacent the inner surface of the hub section; wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch is 0.65 or less. wherein the hub section inner surface is a tapered shape adapted to engage a conventional QD bushing or a taper-lock bushing; wherein the continuous toothed structure comprises a plurality of S-shaped grooves for engaging a belt and having a groove width; and, characterised in that a ratio of the groove width to the circular pitch is 0.65 or less.
A stent assembly, comprising: a. a stent jacket, comprising an expansible mesh structure, having a retracted state and a deployed state, and further wherein in the deployed state, the expansible mesh structure defines apertures each having a longitudinal length and a transverse length, wherein the shorter one of the longitudinal length and the transverse length defines a minimum center dimension of each aperture; and b. an expansible stent, operatively associated with the stent jacket, the stent jacket being located on the exterior of the expansible stent; wherein: the mesh structure is formed of fibers of a diameter between about 5 micrometers and about 25 micrometers, in the deployed state, the expansible mesh structure defines apertures having a minimum center dimension which is greater than 160 micrometers, and the mesh structure has a coverage area of less than 25%. a. a stent jacket, comprising an expansible mesh structure, having a retracted state and a deployed state, and further wherein in the deployed state, the expansible mesh structure defines apertures each having a longitudinal length and a transverse length, wherein the shorter one of the longitudinal length and the transverse length defines a minimum center dimension of each aperture; and b. an expansible stent, operatively associated with the stent jacket, the stent jacket being located on the exterior of the expansible stent; wherein: the mesh structure is formed of fibers of a diameter between about 5 micrometers and about 25 micrometers, in the deployed state, the expansible mesh structure defines apertures having a minimum center dimension which is greater than 160 micrometers, and the mesh structure has a coverage area of less than 25%. the mesh structure is formed of fibers of a diameter between about 5 micrometers and about 25 micrometers, in the deployed state, the expansible mesh structure defines apertures having a minimum center dimension which is greater than 160 micrometers, and the mesh structure has a coverage area of less than 25%.