mhurhangee/ep-ind-claims huggingface dataset:
Refrigerating circuit, preferably suitable for use with CO 2 as refrigerant, comprising: - a tank configured to receive and contain inside refrigerant both at the liquid state and at the vapor state, - at least one compressor communicating with said tank for sucking the refrigerant from the vapor state, - a high-pressure heat exchanger positioned downstream of said at least one compressor and fluidically connected to it, - at least an ejector module comprising an input (8 M) for a motor flow, an input (8 T) for a entrained flow, and an output (8 OUT) for ejecting into said tank the mixture of said two flows, said input (8 M) for the motor flow being fluidly connected to the output of said high-pressure heat exchanger, - a first evaporator that is fluidly connected both at the inlet and at the outlet with said tank, and - a second evaporator that is fluidly connected at the inlet with said tank and at the outlet with said input (8 T) for an entrained flow of said ejector module. - a tank configured to receive and contain inside refrigerant both at the liquid state and at the vapor state, - at least one compressor communicating with said tank for sucking the refrigerant from the vapor state, - a high-pressure heat exchanger positioned downstream of said at least one compressor and fluidically connected to it, - at least an ejector module comprising an input (8 M) for a motor flow, an input (8 T) for a entrained flow, and an output (8 OUT) for ejecting into said tank the mixture of said two flows, said input (8 M) for the motor flow being fluidly connected to the output of said high-pressure heat exchanger, - a first evaporator that is fluidly connected both at the inlet and at the outlet with said tank, and - a second evaporator that is fluidly connected at the inlet with said tank and at the outlet with said input (8 T) for an entrained flow of said ejector module.
A coil spring modeling apparatus provided on a strut comprising a first strut element and a second strut element which are movable relatively along an axis (L 1), the coil spring modeling apparatus comprising: a lower spring seat provided on the first strut element; an upper spring seat arranged above the lower spring seat; a first attachment member disposed on the lower spring seat; a second attachment member disposed on the upper spring seat; a base member disposed above the upper spring seat; an actuator unit which is arranged between the first attachment member and the second attachment member, and extends and retracts, characterised in that it is further comprising: a rotation support mechanism which is arranged between the base member and the actuator unit, and configured to rotatably support the upper spring seat and the actuator unit with respect to the base member about the axis (L 1); a first inner load cell which is arranged coaxially with the rotation support mechanism within the first attachment member, comprises a through-hole into which the first strut element is inserted, and is configured to detect an axial force applied to the lower spring seat and a moment about the axis; and a second inner load cell which is arranged coaxially with the rotation support mechanism within the second attachment member, comprises a through-hole into which the second strut element is inserted, and is configured to detect an axial force applied to the upper spring seat and a moment about the axis. a lower spring seat provided on the first strut element; an upper spring seat arranged above the lower spring seat; a first attachment member disposed on the lower spring seat; a second attachment member disposed on the upper spring seat; a base member disposed above the upper spring seat; an actuator unit which is arranged between the first attachment member and the second attachment member, and extends and retracts, a rotation support mechanism which is arranged between the base member and the actuator unit, and configured to rotatably support the upper spring seat and the actuator unit with respect to the base member about the axis (L 1); a first inner load cell which is arranged coaxially with the rotation support mechanism within the first attachment member, comprises a through-hole into which the first strut element is inserted, and is configured to detect an axial force applied to the lower spring seat and a moment about the axis; and a second inner load cell which is arranged coaxially with the rotation support mechanism within the second attachment member, comprises a through-hole into which the second strut element is inserted, and is configured to detect an axial force applied to the upper spring seat and a moment about the axis.
Device for producing green tyres, formed as a tyre building machine having at least one tyre building drum, a ply server, a core setting device and at least one turning-up device for turning up at least one ply around the cores of a green tyre and/or for pressing the plies of a green tyre against the rest of the green tyre, wherein the tyre building drum is arranged on a drum shaft and has a middle part and two drum halves, which can be moved in relation to the middle part in the axial direction of the drum shaft relative to the middle part, wherein this device has a sidewall server, with which the material of the two sidewalls of a green tyre can be transferred at the same time onto the drum halves of the tyre building drum or laid on them, characterized in that the sidewall server has two sidewall server modules, with which in each case the material of a sidewall can be transferred onto a drum half of a tyre building drum and in that the sidewall server modules are arranged at a distance from one another, so that between the sidewall server modules a clearance is arranged in the region of the sidewall server.
An optical fiber reinforcing heating device (6A, 6B) for heating and shrinking a fiber reinforcement sleeve covering a fusion-splicing part of optical fibers, the optical fiber reinforcing heating device (6A, 6B) comprising: a base part having a sleeve accommodation groove that contains the fiber reinforcement sleeve; a heater that heats the fiber reinforcement sleeve contained in the sleeve accommodation groove; a pair of fiber clamping parts that clamps the optical fibers, which is arranged on both end sides of the sleeve accommodation groove; a lid part attached openably and closably to the base part, the lid part covering the sleeve accommodation groove; and a protector, joined to the lid part, which prevents winds from entering the sleeve accommodation groove in a state where the lid part is closed; wherein the protector is joined to the lid part such as to descend along a side face of the base part when the lid part is opened; characterized in that the base part has a guide part that guides the protector such that the protector descends along the side face of the base part when the lid part is opened; and wherein the guide part includes a depression adapted to engage the protector. a base part having a sleeve accommodation groove that contains the fiber reinforcement sleeve; a heater that heats the fiber reinforcement sleeve contained in the sleeve accommodation groove; a pair of fiber clamping parts that clamps the optical fibers, which is arranged on both end sides of the sleeve accommodation groove; a lid part attached openably and closably to the base part, the lid part covering the sleeve accommodation groove; and a protector, joined to the lid part, which prevents winds from entering the sleeve accommodation groove in a state where the lid part is closed; wherein the protector is joined to the lid part such as to descend along a side face of the base part when the lid part is opened; characterized in that the base part has a guide part that guides the protector such that the protector descends along the side face of the base part when the lid part is opened; and wherein the guide part includes a depression adapted to engage the protector.
An ultrasound imaging system comprising: an ultrasound transducer configured to acquire echo signals responsive to ultrasound pulses transmitted toward a target region comprising fluid flow; one or more processors in communication with the ultrasound transducer and configured to: determine one or more flow properties of the fluid flow on a frame-by-frame basis within the target region based on one or more groups of echo signals acquired during a first acquisition phase, wherein the one or more flow properties comprise a mean flow velocity magnitude and an acceleration; and determine one or more adjusted flow imaging parameters based on the one or more flow properties; and a beamformer coupled with the ultrasound transducer and configured to apply the one or more adjusted flow imaging parameters on a frame-by-frame basis when obtaining a next group of echo signals acquired by the ultrasound transducer during a second acquisition phase. an ultrasound transducer configured to acquire echo signals responsive to ultrasound pulses transmitted toward a target region comprising fluid flow; one or more processors in communication with the ultrasound transducer and configured to: determine one or more flow properties of the fluid flow on a frame-by-frame basis within the target region based on one or more groups of echo signals acquired during a first acquisition phase, wherein the one or more flow properties comprise a mean flow velocity magnitude and an acceleration; and determine one or more adjusted flow imaging parameters based on the one or more flow properties; and determine one or more flow properties of the fluid flow on a frame-by-frame basis within the target region based on one or more groups of echo signals acquired during a first acquisition phase, wherein the one or more flow properties comprise a mean flow velocity magnitude and an acceleration; and determine one or more adjusted flow imaging parameters based on the one or more flow properties; and a beamformer coupled with the ultrasound transducer and configured to apply the one or more adjusted flow imaging parameters on a frame-by-frame basis when obtaining a next group of echo signals acquired by the ultrasound transducer during a second acquisition phase.
A hinge of a motor-vehicle mobile part, comprising at least the following elements: - a first hinge element intended to be connected to either a mobile part of a motor-vehicle or a motor-vehicle structure, - a second hinge element intended to be connected to the other of said motor-vehicle structure or said mobile part of the motor-vehicle, - wherein said first and second hinge elements (1,2) are mounted articulated with respect to each other about a hinge axis, characterized in that, - said second hinge element is articulated to said first hinge element by means of an articulation portion having two pins defining the hinge axis and projecting in opposite directions from two sides of said articulation portion of the second hinge element, - said pins are formed in a single piece with the second hinge element, - the first hinge element and the second hinge element are obtained by an additive manufacturing technique in an already reciprocally articulated condition, with said pins mounted with clearance within respective articulation seats formed on two flanges of the first hinge element adjacent to said sides of the second hinge element, so that the two hinge elements (1, 2) are permanently bound to each other, - said hinge also comprising two bushing-shaped members, each interposed between one of said two pins and the respective articulation seat. - a first hinge element intended to be connected to either a mobile part of a motor-vehicle or a motor-vehicle structure, - a second hinge element intended to be connected to the other of said motor-vehicle structure or said mobile part of the motor-vehicle, - wherein said first and second hinge elements (1,2) are mounted articulated with respect to each other about a hinge axis, characterized in that, - said second hinge element is articulated to said first hinge element by means of an articulation portion having two pins defining the hinge axis and projecting in opposite directions from two sides of said articulation portion of the second hinge element, - said pins are formed in a single piece with the second hinge element, - the first hinge element and the second hinge element are obtained by an additive manufacturing technique in an already reciprocally articulated condition, with said pins mounted with clearance within respective articulation seats formed on two flanges of the first hinge element adjacent to said sides of the second hinge element, so that the two hinge elements (1, 2) are permanently bound to each other, - said hinge also comprising two bushing-shaped members, each interposed between one of said two pins and the respective articulation seat.
Method for the secure transfer of a dataset between a server and a user device by means of a cloud service comprising the steps: - Provision or generation of a user-side Diffie Hellman key pair (Bp, Bs) by the user device, comprising a secret user key (Bs) and a public user key (Bp), - Transfer of the public user key (Bp) to the server, - Provision and/or generation of a server-side Diffie Hellman key pair (Sp, Ss) by the server, comprising a secret server key (Ss) and a public server key (Sp), - Provision of a dataset on the server, - Generation of a server-side Diffie Hellman key on the server by using the secret server key (Ss) and the public user key (Bp) and encryption of the dataset on the server by means of the resulting Diffie Hellman key on the server side, - Transfer of the encrypted dataset (Dv) to the cloud service, - Retrieval of the public server key (Sp) and retrieval of the encrypted dataset (Dv) from the cloud service by means of the user device, - Generation (VIII) of a user-side Diffie Hellman key on the user device by using the secret user key (Bs) and the retrieved public server key (Sp) and decryption of the encrypted dataset (Dv) on the user device with the resulting Diffie Hellman key on the user side. - Provision or generation of a user-side Diffie Hellman key pair (Bp, Bs) by the user device, comprising a secret user key (Bs) and a public user key (Bp), - Transfer of the public user key (Bp) to the server, - Provision and/or generation of a server-side Diffie Hellman key pair (Sp, Ss) by the server, comprising a secret server key (Ss) and a public server key (Sp), - Provision of a dataset on the server, - Generation of a server-side Diffie Hellman key on the server by using the secret server key (Ss) and the public user key (Bp) and encryption of the dataset on the server by means of the resulting Diffie Hellman key on the server side, - Transfer of the encrypted dataset (Dv) to the cloud service, - Retrieval of the public server key (Sp) and retrieval of the encrypted dataset (Dv) from the cloud service by means of the user device, - Generation (VIII) of a user-side Diffie Hellman key on the user device by using the secret user key (Bs) and the retrieved public server key (Sp) and decryption of the encrypted dataset (Dv) on the user device with the resulting Diffie Hellman key on the user side.
A fastener device configured to secure a spinal rod relative to a bone, the fastener device comprising: an anchor body including an anchor body housing, the anchor body defining a through hole that extends through the anchor body housing, the anchor body further defining a rod-receiving channel that is configured to receive the spinal rod and that is offset with respect to the through hole, the anchor body further including an upper end, a lower end, and an inner surface, the inner surface defining a least a portion of the through hole; and a fastener including a head, a threaded shaft that extends out with respect to the head in a distal direction, and a neck that extends between the head and the threaded shaft, the head including an outer surface configured to articulate along the inner surface when the fastener head is inserted in the through hole, at least a portion of the outer surface being convex and defining a portion of a sphere, the sphere defining a first diameter (D 1), and the fastener including a concave surface that extends along both the head and the neck, the neck defining a second diameter (D 2) measured: 1) in a direction perpendicular to the distal direction, and 2) at a location spaced in the distal direction of an entirety of the concave surface, wherein the fastener defines a ratio of the first diameter to the second diameter in a range between about 2 to 1 and about 3 to 1. an anchor body including an anchor body housing, the anchor body defining a through hole that extends through the anchor body housing, the anchor body further defining a rod-receiving channel that is configured to receive the spinal rod and that is offset with respect to the through hole, the anchor body further including an upper end, a lower end, and an inner surface, the inner surface defining a least a portion of the through hole; and a fastener including a head, a threaded shaft that extends out with respect to the head in a distal direction, and a neck that extends between the head and the threaded shaft, the head including an outer surface configured to articulate along the inner surface when the fastener head is inserted in the through hole, at least a portion of the outer surface being convex and defining a portion of a sphere, the sphere defining a first diameter (D 1), and the fastener including a concave surface that extends along both the head and the neck, the neck defining a second diameter (D 2) measured: 1) in a direction perpendicular to the distal direction, and 2) at a location spaced in the distal direction of an entirety of the concave surface, wherein the fastener defines a ratio of the first diameter to the second diameter in a range between about 2 to 1 and about 3 to 1.
A method for accurately laying upper and lower single-sheet-shaped sheets provided with decorations on a laying belt to a press with surface-structured upper and lower press plates adapted to the decorations, in which, from a first removal point a lower sheet with its decoration is laid downward on the laying belt, on this, from a second removal point a carrier plate and on this, from the first removal point or a third removal point, an upper sheet with its decoration is laid upward, wherein the position of the sheets is detected by camera systems (6; 8) directed toward the decorative side of the sheets and an upper sheet is laid in the correct position to the lower sheet on the carrier plate, characterized in that, for the lower sheet, its decoration, decorative edges or printing marks and its or their distance to the sheet edge or sheet edges prior to reaching the laying belt are detected and stored by a first camera system and that the location of the decoration lying with its decoration side downward on the laying belt is detected via a second camera system arranged above the laying belt, which is directed toward the rear side of the sheet and only detects the outer edges of the sheet and that from the stored data the location of the decoration is calculated and the upper sheet with the position of its decoration detected by a camera system (6; 8) is laid exactly aligned above to that of the lower sheet.
A method for producing a sintered R-T-B based magnet, the method comprising the steps of: providing a sintered R-T-B based magnet body; providing an RH diffusion source including a metal or an alloy of a heavy rare-earth element RH, which is at least one of Dy and Tb; loading the sintered R-T-B based magnet body and the RH diffusion source into a processing chamber so that the magnet body and the diffusion source are movable relative to each other and brought in contact with each other; and performing an RH diffusion process by conducting a heat treatment on the sintered R-T-B based magnet body and the RH diffusion source at a temperature of 500°C to 850°C for at least 10 minutes while moving the magnet body and the diffusion source either continuously or discontinuously in the processing chamber, characterized in that the RH diffusion process includes rotating, rocking or shaking the processing chamber, thereby changing the point of contact between the sintered R-T-B based magnet body and the RH diffusion source. providing a sintered R-T-B based magnet body; providing an RH diffusion source including a metal or an alloy of a heavy rare-earth element RH, which is at least one of Dy and Tb; loading the sintered R-T-B based magnet body and the RH diffusion source into a processing chamber so that the magnet body and the diffusion source are movable relative to each other and brought in contact with each other; and performing an RH diffusion process by conducting a heat treatment on the sintered R-T-B based magnet body and the RH diffusion source at a temperature of 500°C to 850°C for at least 10 minutes while moving the magnet body and the diffusion source either continuously or discontinuously in the processing chamber, characterized in that the RH diffusion process includes rotating, rocking or shaking the processing chamber, thereby changing the point of contact between the sintered R-T-B based magnet body and the RH diffusion source.
A filter element for mouthpieces for use with smoking products or HNB products, wherein the filter element has a filter body made from a tow material, whereby the tow material is formed by a plurality of individual filaments of cross-linked and crimped cellulose acetate filaments, whereby the cellulose acetate filaments in particular exhibit a polygonal and preferably Y-shaped cross-sectional geometry, and whereby the tow material has a mass-related specific surface area of less than 0.15 m 2 /g and more than 0.025 m 2 /g, and wherein the tow material of the filter body exhibits a residual crimp and a density (ρ), whereby a residual crimp-related density value A amounts to at least 0.016 mg 2 × mm 6, with: A = ρ 2 ∗ RS.
A method of underfilling a bumped circuit component with a no-flow underfill material, the method comprising the steps of dispensing the underfill material over terminals on a substrate, penetrating the underfill material with bumps on the circuit component so that the bumps contact the terminals, heating the bumps so that the bumps melt, and then cooling the molten bumps so that the molten bumps form solid electrical interconnects that are metallurgically bonded to the terminals, the underfill material forming an underfill layer that encapsulates the interconnects and contacts both the circuit component and the substrate, characterized in that: the no-flow underfill material comprises a dielectric polymer material containing an organometallic compound precursor, the underfill material is free of an inorganic filler when penetrated by the bumps, and the precursor is, either during heating of the bumps or by a subsequent heat treatment, thermally decomposed or otherwise reacts to form an inorganic filler comprising particles, having a CTE lower than the CTE of the dielectric polymer material. the no-flow underfill material comprises a dielectric polymer material containing an organometallic compound precursor, the underfill material is free of an inorganic filler when penetrated by the bumps, and the precursor is, either during heating of the bumps or by a subsequent heat treatment, thermally decomposed or otherwise reacts to form an inorganic filler comprising particles, having a CTE lower than the CTE of the dielectric polymer material.