mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic emission sensor apparatus for testing the quality of the mounting and acoustic coupling of the acoustic emission sensor to a structure to be tested, the acoustic sensor apparatus comprising: an acoustic receiver ; an acoustic generator disposed adjacent to the acoustic receiver ; a housing , the acoustic generator and the acoustic receiver being disposed in the housing ; a fixative in the housing to at least partially encapsulate the acoustic generator and the acoustic receiver , and wherein the acoustic generator includes second acoustic isolation adapted to impede the transmission of acoustic energy from the acoustic generator into the fixative within the housing ; and a wear plate acoustically coupled to the acoustic receiver and to the acoustic generator , wherein the wear plate is to convey acoustic energy from the acoustic generator to the acoustic receiver through the structure under test to which the wear plate is mounted, and wherein the wear plate includes first acoustic isolation to impede transmission of acoustic energy from the acoustic generator to the acoustic receiver through the wear plate ; characterized in that : the second acoustic isolation is hemispherically shaped; or the acoustic generator includes a waveguide rod and wherein the second acoustic isolation is cylindrically shaped, the waveguide rod being radially surrounded by the second acoustic isolation . an acoustic receiver ; an acoustic generator disposed adjacent to the acoustic receiver ; a housing , the acoustic generator and the acoustic receiver being disposed in the housing ; a fixative in the housing to at least partially encapsulate the acoustic generator and the acoustic receiver , and wherein the acoustic generator includes second acoustic isolation adapted to impede the transmission of acoustic energy from the acoustic generator into the fixative within the housing ; and a wear plate acoustically coupled to the acoustic receiver and to the acoustic generator , wherein the wear plate is to convey acoustic energy from the acoustic generator to the acoustic receiver through the structure under test to which the wear plate is mounted, and wherein the wear plate includes first acoustic isolation to impede transmission of acoustic energy from the acoustic generator to the acoustic receiver through the wear plate ; the second acoustic isolation is hemispherically shaped; or the acoustic generator includes a waveguide rod and wherein the second acoustic isolation is cylindrically shaped, the waveguide rod being radially surrounded by the second acoustic isolation .
A method for providing system information, SI, by a base station, BS , in a wireless communication network, the SI comprising minimum SI and at least one other SI block, the method comprising: broadcasting the minimum SI having an area identification, ID, and at least one value tag; receiving a radio resource control, RRC, message requesting the at least one other SI block from a user equipment, UE; configuring, to the UE, a prohibit timer to set a time, wherein the BS does not receive, from the UE, another RRC message requesting the at least one other SI block within the time after reception of the RRC message. broadcasting the minimum SI having an area identification, ID, and at least one value tag; receiving a radio resource control, RRC, message requesting the at least one other SI block from a user equipment, UE; configuring, to the UE, a prohibit timer to set a time, wherein the BS does not receive, from the UE, another RRC message requesting the at least one other SI block within the time after reception of the RRC message.
A system for additive manufacturing, comprising: a dispensing head for dispensing building materials ; a hardening system for hardening said building materials ; a cooling system having a fan for evacuating heat away from said building materials ; and a computerized controller having a circuit for controlling said dispensing heads to dispense said building materials in layers, said hardening system to harden said building materials , and said cooling system to evacuate heat away from said layers, characterized in that said circuit is configured to vary a rotating speed of said fan as a decreasing function of an area of a respective layer. a dispensing head for dispensing building materials ; a hardening system for hardening said building materials ; a cooling system having a fan for evacuating heat away from said building materials ; and a computerized controller having a circuit for controlling said dispensing heads to dispense said building materials in layers, said hardening system to harden said building materials , and said cooling system to evacuate heat away from said layers, characterized in that said circuit is configured to vary a rotating speed of said fan as a decreasing function of an area of a respective layer.
A radiological insert for a radiological source comprising an upper convex surface and a lower concave surface , wherein a radius of curvature of the lower concave surface is shorter than a radius of curvature of the upper convex surface , wherein a center of the radiological insert is thinner than edges of the radiological insert , wherein the radiological insert includes strontium-90 which is contained in strontium oxide (SrO) and further includes a material chosen from the group consisting of copper, silver, gold and mixtures thereof.
A method for lyophilization of an aqueous thrombin solution, the method comprising: providing the aqueous thrombin solution comprising about 1 to less than about 4.6% (w/v) of a saccharide or sugar alcohol; at least about 0.7 to lower than about 1.75% (w/v) sodium chloride; about 0.2 to about 3% (w/v) albumin; calcium chloride; and sodium acetate; and lyophilizing the aqueous thrombin solution; wherein the height of the aqueous thrombin solution in a lyophilization vessel is no greater than 10 mm, wherein the total lyophilization time is no greater than 35 hours, and wherein the aqueous thrombin solution is devoid of polyethylene glycol; wherein the term "about" refers to ± 10%. providing the aqueous thrombin solution comprising about 1 to less than about 4.6% (w/v) of a saccharide or sugar alcohol; at least about 0.7 to lower than about 1.75% (w/v) sodium chloride; about 0.2 to about 3% (w/v) albumin; calcium chloride; and sodium acetate; and lyophilizing the aqueous thrombin solution; wherein the height of the aqueous thrombin solution in a lyophilization vessel is no greater than 10 mm, wherein the total lyophilization time is no greater than 35 hours, and wherein the aqueous thrombin solution is devoid of polyethylene glycol; wherein the term "about" refers to ± 10%.
An assembly comprising a housing , a battery accomodated in the housing and an apparatus for sensing swelling of a battery to be accommodated in the housing: wherein the housing is made of a conductor and comprises a hole formed at one side of the housing and a protrusion formed at the side of the housing to be coupled to a sensing circuit and to protrude within the hole; wherein the apparatus comprises a sensing circuit including an upper portion and a lower portion, one of the upper portion and the lower portion being made of insulating materials and the other one of the upper portion and the lower portion being made of conductive materials , wherein, the sensing circuit is adapted so that prior to the occurrence of the swelling of the battery in the housing, the upper portion of the sensing circuit contacts a lower portion of the side of the housing facing the battery, and when the swelling of the battery occurs and thus the expansion pressure is applied to the sensing circuit, the sensing circuit moves in the swelling direction and thus is lifted so that the lower portion of the sensing circuit contacts an upper portion of the side of the housing; a current sensing unit configured to sense whether a current is conducted between the sensing circuit and the side of the housing; and a determination unit configured to determine from the current sensing whether the battery is swelled. wherein the housing is made of a conductor and comprises a hole formed at one side of the housing and a protrusion formed at the side of the housing to be coupled to a sensing circuit and to protrude within the hole; wherein the apparatus comprises a sensing circuit including an upper portion and a lower portion, one of the upper portion and the lower portion being made of insulating materials and the other one of the upper portion and the lower portion being made of conductive materials , wherein, the sensing circuit is adapted so that prior to the occurrence of the swelling of the battery in the housing, the upper portion of the sensing circuit contacts a lower portion of the side of the housing facing the battery, and when the swelling of the battery occurs and thus the expansion pressure is applied to the sensing circuit, the sensing circuit moves in the swelling direction and thus is lifted so that the lower portion of the sensing circuit contacts an upper portion of the side of the housing; a current sensing unit configured to sense whether a current is conducted between the sensing circuit and the side of the housing; and a determination unit configured to determine from the current sensing whether the battery is swelled.
Contact arrangement of at least one power semiconductor with a circuit carrier of a circuit, wherein the at least one power semiconductor has a top side and a bottom side and is connected to the circuit carrier by way of the bottom side , and wherein an electrical and/or electronic component is arranged indirectly or directly on the top side of the at least one power semiconductor , and the electrical and/or electronic component is a temperature sensor that is designed to ascertain a temperature of the power semiconductor and to provide a temperature signal that serves as control variable for a maximum current in the at least one power semiconductor , wherein the temperature sensor has at least a first and a second electrical connection and these comprise a respective contact surface , and the contact arrangement has at least one connecting element that comprises at least one wire bond or one bonding strip or one metal clip that is connected indirectly or directly in each case to the contact surface of the first or the second electrical connection of the temperature sensor and is thus at the same electrical potential as the first or the second electrical connection of the temperature sensor , characterized in that the contact surface of the first and/or the second electrical connection is formed from Ag, an Ag alloy, Au or an Au alloy, and, in order to avoid contact corrosion, is connected to a metal clip made of copper, a copper alloy, nickel or a nickel alloy.
A computer system (100, 200a-d, 300) for increasing user control of data, the system (100, 200a-d, 300) comprising: one or more private user storage areas comprising at least one processor and memory storing at least one user application configured to virtualize and fragment data received from a first user device into two or more data fragments; one or more data collector servers comprising at least one processor and memory and configured to store and composite the data fragments; and wherein the at least one user application in the one or more private user storage areas is further configured to send a first portion of the data fragments representing a majority of the data to the one or more data collector servers and to store a second portion of the data fragments representing a minority of the data in the one or more private user storage areas , and characterized in that the one or more data collector servers are further configured to, in response to a request by a second user device for data received from the first user device , retrieve the second portion of the data fragments from the one or more private user storage areas , composite the data from the first and second portions of the data fragments, and transfer the composited data to the second user device . one or more private user storage areas comprising at least one processor and memory storing at least one user application configured to virtualize and fragment data received from a first user device into two or more data fragments; one or more data collector servers comprising at least one processor and memory and configured to store and composite the data fragments; and wherein the at least one user application in the one or more private user storage areas is further configured to send a first portion of the data fragments representing a majority of the data to the one or more data collector servers and to store a second portion of the data fragments representing a minority of the data in the one or more private user storage areas , and characterized in that the one or more data collector servers are further configured to, in response to a request by a second user device for data received from the first user device , retrieve the second portion of the data fragments from the one or more private user storage areas , composite the data from the first and second portions of the data fragments, and transfer the composited data to the second user device .
Structure of a technical front end module of a motor vehicle comprising a frame formed of two parallel lateral uprights and of two, upper and lower cross members connecting the lateral uprights , in which structure: - the lower cross member and the two lateral uprights form a one-piece assembly, - each lateral upright at its free end has a housing into which one end of the upper cross member is inserted, and - each end of the upper cross member is held inside the said housing by reversible-fixing elements , characterized in that each housing is defined by a component distinct from the lateral upright and secured to the latter by a polymer material at least partially covering the said component and the lateral upright. - the lower cross member and the two lateral uprights form a one-piece assembly, - each lateral upright at its free end has a housing into which one end of the upper cross member is inserted, and - each end of the upper cross member is held inside the said housing by reversible-fixing elements ,
A composition comprising a highly fluorinated elastomer gum wherein the highly fluorinated elastomer gum is derived from (a) at least 0.01% and at most 2% by weight of a fluorinated di-iodo ether compound relative to the total weight of monomers, wherein the fluorinated di-iodo ether compound is: I-CF 2 -CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CF 2 -O-(CF 2 ) b -I wherein b is an integer from 3 - 10; I-(CF 2 ) c -O-(CF 2 ) b -I wherein c is an integer from 3 - 10 and b is an integer from 3 - 10; ICF 2 -CF 2 -O-CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CH 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CH 2 -CF 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CHF-CF 2 -O-CF 2 -CF 2 -CF 2 I; ICF 2 -CF 2 -O-CF 2 -CFI-CF 3 ; and I-CF 2 -(CF 2 ) a -O-(CF 2 ) b -O-CF 2 -CF(CF 3 )-I wherein a is an integer from 1-5 and b is an integer from 1-5; and (b) a fluorinated monomer wherein the fluorinated monomer is selected from at least one of vinylidene fluoride, tetrafluoroethylene, hexafluoropropylene, fluorinated allyl ethers, fluorinated vinyl ethers, and combinations thereof. (a) at least 0.01% and at most 2% by weight of a fluorinated di-iodo ether compound relative to the total weight of monomers, wherein the fluorinated di-iodo ether compound is: I-CF 2 -CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CF 2 -O-(CF 2 ) b -I wherein b is an integer from 3 - 10; I-(CF 2 ) c -O-(CF 2 ) b -I wherein c is an integer from 3 - 10 and b is an integer from 3 - 10; ICF 2 -CF 2 -O-CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CH 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CH 2 -CF 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CHF-CF 2 -O-CF 2 -CF 2 -CF 2 I; ICF 2 -CF 2 -O-CF 2 -CFI-CF 3 ; and I-CF 2 -(CF 2 ) a -O-(CF 2 ) b -O-CF 2 -CF(CF 3 )-I wherein a is an integer from 1-5 and b is an integer from 1-5; and I-CF 2 -CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CF 2 -O-(CF 2 ) b -I wherein b is an integer from 3 - 10; I-(CF 2 ) c -O-(CF 2 ) b -I wherein c is an integer from 3 - 10 and b is an integer from 3 - 10; ICF 2 -CF 2 -O-CF 2 -O-CF 2 -CF 2 -I; I-CF 2 -CH 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CH 2 -CF 2 -O-CF 2 -CF 2 -CF 2 I; I-CF 2 -CHF-CF 2 -O-CF 2 -CF 2 -CF 2 I; ICF 2 -CF 2 -O-CF 2 -CFI-CF 3 ; and I-CF 2 -(CF 2 ) a -O-(CF 2 ) b -O-CF 2 -CF(CF 3 )-I wherein a is an integer from 1-5 and b is an integer from 1-5; and (b) a fluorinated monomer wherein the fluorinated monomer is selected from at least one of vinylidene fluoride, tetrafluoroethylene, hexafluoropropylene, fluorinated allyl ethers, fluorinated vinyl ethers, and combinations thereof.
Electromagnetic actuator having a housing , with a coil former which is arranged in the housing and runs in a rotationally symmetrical manner around a longitudinal axis and has a coil , which runs around the longitudinal axis , for generating a magnetic field for moving an armature , wherein a pole tube is provided inside the coil former , wherein the pole tube has a first cylindrical portion , which is surrounded by the coil , and a second portion , wherein the pole tube, on its outer circumference in the region of the first portion , has an approximately V-shaped cutout and a cylindrical inner recess which forms an armature space in which the armature is mounted such that it can move in a sliding manner along the longitudinal axis , wherein the actuator also has an actuating element which is motion-coupled to the armature , in particular for actuating a valve element of a pressure control valve, and a pole disc for conducting a magnetic flux, and a cover , wherein the cover is of pot-like design with a cover casing and a cover base and the cover casing surrounds the second portion , wherein the cover and the pole disk together are a one-piece component, wherein the inner recess which forms the armature space is delimited by the pole tube in the radial direction and by the cover at a second axial end, characterized in that the inner recess which forms the armature space is delimited by a yoke , which is formed on the pole tube, at a first axial end and the cover casing , by way of its inner circumferential face , bears against an outer circumferential face of the pole tube which delimits the armature space , and wherein the outside diameter of the second portion is 10% to 30%, in particular 20%, larger than the outside diameter of the first portion .
Plug for a pressureless line, in particular a hydraulic line, wherein the plug extends along a longitudinal direction from a plug start to a plug end , wherein the plug is closed at least in the region of the plug end , the plug comprising at least one base part which at least in sections has the shape of a truncated cone tapering along the longitudinal direction , wherein elastically deformable lamellae are provided which project from the at least one base part and extend transversely, preferably normally, to the longitudinal direction , wherein the lamellae are adapted to deform elastically at least partially when the plug is inserted into the line, and thereby generate, in addition to a sealing, a clamping force which is sufficient to fix the plug in the line against the force of gravity, characterized in that several, preferably two, base parts are provided which, as viewed in the longitudinal direction , are arranged one behind the other and adjoin one another flush, wherein the truncated cone shapes of the base parts have different opening angles.
A catheter pump assembly , comprising: an impeller assembly , a catheter body coupled with the proximal end of the impeller assembly, the catheter body having a reduced stiffness section disposed proximally of the impeller assembly; and a sheath assembly , the sheath assembly configured to be translated over the catheter body relative to the impeller assembly from an impeller assembly delivery position to an impeller assembly deployment position, wherein said sheath assembly includes a variable stiffness along its length to cause a restoring force to bear on a vessel contact zone and maintain the position of the catheter pump assembly in the aortic arch when the sheath assembly is in the impeller assembly deployment position, and wherein, when the sheath assembly is in the impeller assembly deployment position, a reduction in stiffness is provided between the distal end of the sheath assembly and the impeller assembly. an impeller assembly , a catheter body coupled with the proximal end of the impeller assembly, the catheter body having a reduced stiffness section disposed proximally of the impeller assembly; and a sheath assembly , the sheath assembly configured to be translated over the catheter body relative to the impeller assembly from an impeller assembly delivery position to an impeller assembly deployment position, wherein said sheath assembly includes a variable stiffness along its length to cause a restoring force to bear on a vessel contact zone and maintain the position of the catheter pump assembly in the aortic arch when the sheath assembly is in the impeller assembly deployment position, and wherein, when the sheath assembly is in the impeller assembly deployment position, a reduction in stiffness is provided between the distal end of the sheath assembly and the impeller assembly.
A compressor assembly for a turbocharger with a turbine assembly and/or an electric motor comprising: a shaft sleeve that comprises a bore that extends between a first end and a second end and an outer shoulder ; a shaft received by the bore of the shaft sleeve wherein the shaft comprises a compressor end ; a compressor wheel disposed on the shaft ; and a thrust collar disposed on the shaft and seated between the outer shoulder of the shaft sleeve and the compressor wheel wherein the thrust collar comprises a stem portion and a cap portion that comprises a sacrificial portion ; characterized in that the cap portion further comprises a sensor surface comprising a sensor notch , wherein the sacrificial portion is on a compressor wheel side of the thrust collar and the sensor surface is on a sleeve side of the thrust collar , wherein the sacrificial portion comprises at least one balance cut and wherein the at least one balance cut in the sacrificial portion is configured to not interfere with the sensor notch. a shaft sleeve that comprises a bore that extends between a first end and a second end and an outer shoulder ; a shaft received by the bore of the shaft sleeve wherein the shaft comprises a compressor end ; a compressor wheel disposed on the shaft ; and a thrust collar disposed on the shaft and seated between the outer shoulder of the shaft sleeve and the compressor wheel wherein the thrust collar comprises a stem portion and a cap portion that comprises a sacrificial portion ; characterized in that the cap portion further comprises a sensor surface comprising a sensor notch , wherein the sacrificial portion is on a compressor wheel side of the thrust collar and the sensor surface is on a sleeve side of the thrust collar , wherein the sacrificial portion comprises at least one balance cut and wherein the at least one balance cut in the sacrificial portion is configured to not interfere with the sensor notch.