mhurhangee/ep-ind-claims huggingface dataset:
A method for performing an operation within a federated computing environment, the method comprising: receiving a register name identifier request for a principal from a first federated entity at a second federated entity within the federated computing environment; in response to receiving the register name identifier request for the principal, performing an authentication operation at the second federated entity for the principal; in response to successfully completing the authentication operation, registering or modifying within a register name identifier profile a name identifier from the received register name identifier request at the second federated entity, wherein the register name identifier profile comprises a combination of a message contents specification and a message transport mechanism specification for a first federated entity; and sending a register name identifier response from the second federated entity to the first federated entity. receiving a register name identifier request for a principal from a first federated entity at a second federated entity within the federated computing environment; in response to receiving the register name identifier request for the principal, performing an authentication operation at the second federated entity for the principal; in response to successfully completing the authentication operation, registering or modifying within a register name identifier profile a name identifier from the received register name identifier request at the second federated entity, wherein the register name identifier profile comprises a combination of a message contents specification and a message transport mechanism specification for a first federated entity; and sending a register name identifier response from the second federated entity to the first federated entity.
An integrated circuit die comprising: an interface circuit configured to exchange data (TDATA3, RDATA3) with an external device that is outside the integrated circuit die in response to a first clock signal (TCK5, RCK2), wherein the interface circuit comprises a clock signal generation circuit (242, 243) to generate the first clock signal (TCK5, RCK2) based on a second clock signal (TCK1, RCK1); and an adapter circuit configured to exchange the data (TDATA3, RDATA3) with the interface circuit, wherein the adapter circuit is configured to cause the interface circuit to provide an adjustment to the first clock signal (TCK5, RCK2) after a frequency of the second clock signal (TCK1, RCK1) is changed in response to an indication of a change of a data rate of the data (TDATA3, RDATA3), and wherein the adapter circuit is configured to prevent the exchange of data (TDATA3, RDATA3) between the interface circuit and the external device until the adapter circuit receives an indication (CX1, CX2) of completion of the adjustment to the first clock signal (TCK5, RCK2). an interface circuit configured to exchange data (TDATA3, RDATA3) with an external device that is outside the integrated circuit die in response to a first clock signal (TCK5, RCK2), wherein the interface circuit comprises a clock signal generation circuit (242, 243) to generate the first clock signal (TCK5, RCK2) based on a second clock signal (TCK1, RCK1); and an adapter circuit configured to exchange the data (TDATA3, RDATA3) with the interface circuit, wherein the adapter circuit is configured to cause the interface circuit to provide an adjustment to the first clock signal (TCK5, RCK2) after a frequency of the second clock signal (TCK1, RCK1) is changed in response to an indication of a change of a data rate of the data (TDATA3, RDATA3), and wherein the adapter circuit is configured to prevent the exchange of data (TDATA3, RDATA3) between the interface circuit and the external device until the adapter circuit receives an indication (CX1, CX2) of completion of the adjustment to the first clock signal (TCK5, RCK2).
A fastening assembly for fastening an add-on part, in particular a lining part in a vehicle interior, to a vehicle body component, having a fastening element which in a pre-mounting position can be fixed to the add-on part and which in the final mounting position is fixed to the vehicle body component, and a locking element which can cooperate with the fastening element and which in a locking position can fix the fastening element in the final mounting position, characterized in that the fastening element has first latching elements and second latching elements, the first latching elements being adapted to latch on the add-on part, and the second latching elements being adapted to latch on the vehicle body component.
A method for laying busbars (5, 31, 33) in films, in which a bundle of heating wires and at least two busbars (5, 31, 33), each electrically contacting at least one subset of the heating wires, are applied to at least one base film (3, 14-17, 21-24, 30), wherein the busbars (5, 31, 33) are each guided by means of a guide unit and are pressed by means of the pressure roller in the direction of the base film (3, 14-17, 21-24, 30), characterized in that the busbars (5, 31, 33) are each guided by means of the guide unit in the direction of a pressure roller and seen in the guide direction are each cut before the pressure roller by means of a cutting device.
A method of manufacturing a sensor system comprising: forming a first structure having a substrate layer and a first sensor (30, 32, 34), the first sensor (30, 32, 34) being positioned on a first side of the substrate layer; bonding a cap structure over the first sensor (30, 32, 34) on the first side of the substrate layer; depositing a first dielectric layer over the cap structure; after bonding the cap structure and depositing the first dielectric layer, fabricating a second sensor (124, 126, 128) on the first dielectric layer, wherein the second sensor (124, 126, 128) includes components that would be damaged at a temperature that is used to bond the cap structure to the first side of the substrate layer, further wherein the second sensor (124, 126, 128) is a magnetic field sensor. forming a first structure having a substrate layer and a first sensor (30, 32, 34), the first sensor (30, 32, 34) being positioned on a first side of the substrate layer; bonding a cap structure over the first sensor (30, 32, 34) on the first side of the substrate layer; depositing a first dielectric layer over the cap structure; after bonding the cap structure and depositing the first dielectric layer, fabricating a second sensor (124, 126, 128) on the first dielectric layer, wherein the second sensor (124, 126, 128) includes components that would be damaged at a temperature that is used to bond the cap structure to the first side of the substrate layer, further wherein the second sensor (124, 126, 128) is a magnetic field sensor.
A loading test test-and-control system of vehicle lifter lifting unit, suitable for use to test an assembled vehicle lifter lifting unit, comprising: a base, wherein: the base is provided thereon with a support bracket capable of installing the lifting unit to be tested; or the lifting unit to be tested is directly mounted on the base instead of on the support bracket; the lifting unit to be tested comprises a support head and a vertical support column; and the support bracket is provided with a loading unit for applying a loading force to the lifting unit to be tested, characterized in that: the loading unit is electrically connected with a control unit which can control the pressure applied by the loading unit according to a set value; and the loading unit comprises a hydraulic cylinder, a fixed end of the hydraulic cylinder is mounted on the support bracket, a piston end is close to the lifting unit to be tested; a bottom of the piston end of the hydraulic cylinder is provided with a pressure sensor capable of detecting loading pressure of the hydraulic cylinder, and the pressure sensor is connected to the control unit to transmit a pressure signal sensed by the pressure sensor to the control unit. the base is provided thereon with a support bracket capable of installing the lifting unit to be tested; or the lifting unit to be tested is directly mounted on the base instead of on the support bracket; the lifting unit to be tested comprises a support head and a vertical support column; and the support bracket is provided with a loading unit for applying a loading force to the lifting unit to be tested, characterized in that: the loading unit is electrically connected with a control unit which can control the pressure applied by the loading unit according to a set value; and the loading unit comprises a hydraulic cylinder, a fixed end of the hydraulic cylinder is mounted on the support bracket, a piston end is close to the lifting unit to be tested; a bottom of the piston end of the hydraulic cylinder is provided with a pressure sensor capable of detecting loading pressure of the hydraulic cylinder, and the pressure sensor is connected to the control unit to transmit a pressure signal sensed by the pressure sensor to the control unit. the loading unit is electrically connected with a control unit which can control the pressure applied by the loading unit according to a set value; and the loading unit comprises a hydraulic cylinder, a fixed end of the hydraulic cylinder is mounted on the support bracket, a piston end is close to the lifting unit to be tested; a bottom of the piston end of the hydraulic cylinder is provided with a pressure sensor capable of detecting loading pressure of the hydraulic cylinder, and the pressure sensor is connected to the control unit to transmit a pressure signal sensed by the pressure sensor to the control unit.
A solid polymer electrolyte comprising a polymer and an ion salt, wherein the polymer is an epoxy comprising a. a bis-epoxide selected from the group consisting of poly(ethylene glycol) bisglycidyl ether, bisphenol A diglycidyl ether, resorcinol diglycidyl ether, polydimethyl siloxane bisglycidyl ether, and mixtures thereof, and b. a cross-linker comprising 4,4'-methylenebiscyclohexaneamine, 3-aminophenyl sulfone, 4-aminophenyl sulfone, 1,2-diaminocyclohexane, tetramethylene diamine, hexamethylene diamine, bis(3-aminopropyl)amine, benzene 1,2-diamine, triethylenetetramine, tris(2-aminoethyl)amine, ethylenediamine, or a mixture thereof; and wherein the ion salt is a lithium, a magnesium, or an ammonium salt. a. a bis-epoxide selected from the group consisting of poly(ethylene glycol) bisglycidyl ether, bisphenol A diglycidyl ether, resorcinol diglycidyl ether, polydimethyl siloxane bisglycidyl ether, and mixtures thereof, and b. a cross-linker comprising 4,4'-methylenebiscyclohexaneamine, 3-aminophenyl sulfone, 4-aminophenyl sulfone, 1,2-diaminocyclohexane, tetramethylene diamine, hexamethylene diamine, bis(3-aminopropyl)amine, benzene 1,2-diamine, triethylenetetramine, tris(2-aminoethyl)amine, ethylenediamine, or a mixture thereof; and
A method for transmitting data between internet of vehicles devices, applied to a scenario in which a first device and a second device in internet of vehicles interact with each other, wherein the method comprises: receiving, by the first device, a data request from the second device, wherein the data request is used to request first data, and the data request comprises an identifier of the second device and a category of the first data; encrypting, by the first device, the first data based on an identifier public key, wherein the identifier public key comprises the identifier of the second device and the category of the first data; and sending, by the first device, a data response to the second device, wherein the data response comprises identifier public key indication information and the encrypted first data, and the identifier public key indication information is used to determine the identifier public key used to encrypt the first data, wherein the identifier public key further comprises an additional condition, and the additional condition is used to indicate a condition that needs to be met by the second device to decrypt the encrypted first data, and wherein the additional condition is a time condition that needs to be met by the second device for decryption. receiving, by the first device, a data request from the second device, wherein the data request is used to request first data, and the data request comprises an identifier of the second device and a category of the first data; encrypting, by the first device, the first data based on an identifier public key, wherein the identifier public key comprises the identifier of the second device and the category of the first data; and sending, by the first device, a data response to the second device, wherein the data response comprises identifier public key indication information and the encrypted first data, and the identifier public key indication information is used to determine the identifier public key used to encrypt the first data, wherein the identifier public key further comprises an additional condition, and the additional condition is used to indicate a condition that needs to be met by the second device to decrypt the encrypted first data, and wherein the additional condition is a time condition that needs to be met by the second device for decryption.
Optocoupler driver circuit for transferring data from a line level circuit to an isolated circuit, the optocoupler driver circuit comprising a first and second terminal (L1, L2) for a series connection of the optocoupler driver circuit in a supply mains line operating on a first voltage level and supplying electrical power towards a low power supply for powering the isolated circuit; an optocoupler providing an output signal (out) to the isolated circuit; a voltage clamping element connected between the first and second terminal (L1, L2), having a clamping voltage which is a factor x lower than the first voltage level; a switching element driven by an input signal, connected in series with an input side of the optocoupler, wherein the series connection of the switching element and the optocoupler is connected in parallel to the voltage clamping element.
A battery protection structure comprising: a battery disposed in a vehicle cabin; a vehicle component disposed in the vehicle cabin to be located below the battery; and a protective member disposed between the battery and the vehicle component, wherein the protective member has one end fixed to a vehicle body and another end arranged between the battery and the vehicle component to be thereby cantilevered on the vehicle body, the battery includes a battery cell and a battery case housing the battery cell, and the battery case has at least a lower surface facing the protective member, the protective member has a fixation portion formed at the one end and fixed to the vehicle body and a contact portion formed at the other end and configured to come into contact with the battery case when load is inputted to the protective member, and a bulging portion bulging from the lower surface of the battery case toward the contact portion of the protective member is provided in a portion of the lower surface of the battery case with which the contact portion of the protective member comes into contact, and a hollow portion is formed inside the bulging portion. a battery disposed in a vehicle cabin; a vehicle component disposed in the vehicle cabin to be located below the battery; and a protective member disposed between the battery and the vehicle component, wherein the protective member has one end fixed to a vehicle body and another end arranged between the battery and the vehicle component to be thereby cantilevered on the vehicle body, the battery includes a battery cell and a battery case housing the battery cell, and the battery case has at least a lower surface facing the protective member, the protective member has a fixation portion formed at the one end and fixed to the vehicle body and a contact portion formed at the other end and configured to come into contact with the battery case when load is inputted to the protective member, and a bulging portion bulging from the lower surface of the battery case toward the contact portion of the protective member is provided in a portion of the lower surface of the battery case with which the contact portion of the protective member comes into contact, and a hollow portion is formed inside the bulging portion.
A cryocooler, comprising a shell, a compression unit, an expansion unit and a vibration damping unit, wherein a cavity is provided in the shell, the compression unit and the vibration damping unit are located in the cavity, the compression unit is connected to the shell, and the expansion unit is partially located in the cavity and communicates with the compression unit; the vibration damping unit is sleeved on the compression unit, is partially located in the compression unit and is configured to reduce vibration of the compression unit.
A clamp meter comprising: a main meter body having an interfacing connector; a plurality of clamp probes, each of the clamp probes being separately detachably connectable to the interfacing connector of the main meter body, each clamp probe comprising an identity indicator indicating information of said probe that is readable by the main meter body, characterised by the clamp probes having different measurement ranges for measuring different current ranges, and each clamp probe further comprising a converting unit configured to convert a signal measured by the clamp probe to an output measurement signal within a predetermined measurement range of the main meter body. a main meter body having an interfacing connector; a plurality of clamp probes, each of the clamp probes being separately detachably connectable to the interfacing connector of the main meter body, each clamp probe comprising an identity indicator indicating information of said probe that is readable by the main meter body, characterised by the clamp probes having different measurement ranges for measuring different current ranges, and each clamp probe further comprising a converting unit configured to convert a signal measured by the clamp probe to an output measurement signal within a predetermined measurement range of the main meter body.
A method of selecting a treatment for a patient suffering from gastric cancer comprising: (a) detecting and quantitating a specified Met fragment peptide in a protein digest prepared from a tumor sample obtained from the patient and calculating the level of the Met peptide in said sample by selected reaction monitoring using mass spectrometry, wherein the amino acid sequence of the specified Met peptide is as set forth in SEQ ID NO:1, and wherein the tumor sample is formalin-fixed solid tissue, (b) comparing the level of said Met fragment peptide to a reference level, and (c) selecting a first therapeutic regimen for said patient if the level of said Met fragment peptide level is above said reference level or selecting a second therapeutic regimen for said patient if the Met fragment peptide level is below the reference level, wherein said first therapeutic regimen comprises at least one Met inhibitor, wherein said second therapeutic regimen comprises at least one regimen selected from the group consisting of cisplatin/5FU, FOLFOX (leucovorin, 5-FU and oxaliplatin), FOLFIRI (leucovorin, 5-FU and irinotecan), paclitaxel, 5FU, capecitabine, ECF (epirubicin, cisplatin, and 5-FU), and DCF (docetaxel, cisplatin and 5-FU); and wherein said reference level is 400 amol/μg +/- 25 amol/μg of the tumor sample protein analyzed. (a) detecting and quantitating a specified Met fragment peptide in a protein digest prepared from a tumor sample obtained from the patient and calculating the level of the Met peptide in said sample by selected reaction monitoring using mass spectrometry, wherein the amino acid sequence of the specified Met peptide is as set forth in SEQ ID NO:1, and wherein the tumor sample is formalin-fixed solid tissue, (b) comparing the level of said Met fragment peptide to a reference level, and (c) selecting a first therapeutic regimen for said patient if the level of said Met fragment peptide level is above said reference level or selecting a second therapeutic regimen for said patient if the Met fragment peptide level is below the reference level, wherein said first therapeutic regimen comprises at least one Met inhibitor, wherein said second therapeutic regimen comprises at least one regimen selected from the group consisting of cisplatin/5FU, FOLFOX (leucovorin, 5-FU and oxaliplatin), FOLFIRI (leucovorin, 5-FU and irinotecan), paclitaxel, 5FU, capecitabine, ECF (epirubicin, cisplatin, and 5-FU), and DCF (docetaxel, cisplatin and 5-FU); and wherein said reference level is 400 amol/μg +/- 25 amol/μg of the tumor sample protein analyzed.
A method, comprising: manipulating an object with a probe that is instrumented with a force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706); receiving a signal from the force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706); receiving video of the object; determining motion of the object based at least in part on the video; estimating a force on the probe based on the motion of the object and a physical model of the object; training a tactile force model for the force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706) using the signal and the estimated force; and determining a force on the probe using the tactile force model. manipulating an object with a probe that is instrumented with a force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706); receiving a signal from the force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706); receiving video of the object; determining motion of the object based at least in part on the video; estimating a force on the probe based on the motion of the object and a physical model of the object; training a tactile force model for the force sensor (114, 116, 118, 120, 122, 200, 502, 614, 706) using the signal and the estimated force; and determining a force on the probe using the tactile force model.
A resin system comprising a resin component and surface-modified nanoparticles dispersed in the resin component, wherein the surface-modified nanoparticles have a multimodal particle size distribution comprising a first mode having an average particle size of D1, wherein D1 is between 50 nanometers and 250 nanometers, inclusive, and a number of nanoparticles in the first mode, N1, and a second mode having an average particle size, D2, wherein D2 is less than D1, and a number of nanoparticles in the second mode, N2; wherein the ratio of D1 over D2 is greater than 1.5, and the ratio of N2 over N1 is greater than 0.5; wherein the average particle size and number of nanoparticles in a mode are measured according to the Transmission Electron Microscopy Procedure, wherein the resin component is selected from epoxy resins, unsaturated polyester resins, bismalimides resins, cyanate ester resins, vinyl ester resins, acrylic resins, urethane resins, urethane acrylate resins, and aliphatic and aromatic polyepoxide resins; and wherein the nanoparticles are silica nanoparticles and are surface-modified by a surface treatment agent selected from trialkoxy alkylsilanes and trialkoxy arylsilanes.
A trawl door for being pulled by a trawler, comprising: an upper frame defining a top edge of the device; a lower frame defining a bottom edge of the device; panels (4, 5) connected between the lower and upper frames frames, said panels being of aerofoil construction and connected to the frames in their respective ends, and said panels are placed over each other thereby establishing one or more channels for water to flow through the trawl door when being pulled by the trawler, said trawl door being characterized in that pulling points are provided in the channels so as to produce angles of attack of the trawl door relative to the trawler of between 10 and 20 degrees.