mhurhangee/ep-ind-claims huggingface dataset:
An enclave identification method performed by a computing device comprising a processor and memory, the method comprising: receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated; and performing the operation with the identity value, wherein: the identity value is determined as an output of a hash function; the enclave was instantiated with a plurality of enclave images; and the identity type indicates which of the plurality of enclave images are included at least in part in the hash function to determine the identity value. receiving an identity type and a request for an operation related to an instantiated enclave; determining an identity value for the enclave based on the identity type and information derived from an enclave image from which the enclave was instantiated; and performing the operation with the identity value, wherein: the identity value is determined as an output of a hash function; the enclave was instantiated with a plurality of enclave images; and the identity type indicates which of the plurality of enclave images are included at least in part in the hash function to determine the identity value. the identity value is determined as an output of a hash function; the enclave was instantiated with a plurality of enclave images; and the identity type indicates which of the plurality of enclave images are included at least in part in the hash function to determine the identity value.
A rolling bearing mechanism comprising: - a rod; - an outer ring surrounding the rod coaxially; and - rollers having longitudinal axes parallel to the longitudinal axes of the rod and of the outer ring, each roller being interposed between the rod and the outer ring so that threads on the rollers mesh with a thread on the rod and with a thread in the outer ring, the rod, the outer ring, and the rollers each having a respective right-handed thread and a respective left-handed thread, the right-handed thread of the rod being situated in a first axial segment of the mechanism, and the left-handed thread being situated in a second axial segment of the mechanism, the second axial segment being axially distant from the first axial segment, characterized in that, in the first axial segment, the left-handed threads of the rollers mesh with the right-handed thread of the rod and with the left-handed thread of the outer ring, and in that, in the second axial segment, the right-handed threads of the rollers mesh with the left-handed thread of the rod and with the right-handed thread of the outer ring. - a rod; - an outer ring surrounding the rod coaxially; and - rollers having longitudinal axes parallel to the longitudinal axes of the rod and of the outer ring, each roller being interposed between the rod and the outer ring so that threads on the rollers mesh with a thread on the rod and with a thread in the outer ring, the rod, the outer ring, and the rollers each having a respective right-handed thread and a respective left-handed thread, the right-handed thread of the rod being situated in a first axial segment of the mechanism, and the left-handed thread being situated in a second axial segment of the mechanism, the second axial segment being axially distant from the first axial segment, characterized in that, in the first axial segment, the left-handed threads of the rollers mesh with the right-handed thread of the rod and with the left-handed thread of the outer ring, and in that, in the second axial segment, the right-handed threads of the rollers mesh with the left-handed thread of the rod and with the right-handed thread of the outer ring.
A method for testing an injection system, where said injection system comprises an injector for injection of pressurised liquid to a process, said pressurised liquid can be selectively supplied to said injector via a first valve, a pressurised gas can be selectively supplied to said injector via a second valve, and said method comprises, when said injector is closed: - opening said second valve to supply said pressurised gas to said injection system, - opening said first valve to supply said pressurised liquid, - closing at least said first valve, - determining a first pressure in said injection system, - determining whether said first pressure fulfils a first criterion and, on the basis of said determination, determining whether said injection system is functioning properly or is malfunctioning. - opening said second valve to supply said pressurised gas to said injection system, - opening said first valve to supply said pressurised liquid, - closing at least said first valve, - determining a first pressure in said injection system, - determining whether said first pressure fulfils a first criterion and, on the basis of said determination, determining whether said injection system is functioning properly or is malfunctioning.
A surgical assembly (100, 200, 300) comprising: a first guidewire (111, 211, 311); a second guidewire (112, 212, 312), wherein each of the first guidewire and the second guidewire are configured to be received by a bone block (110, 210, 310); a first suture loop (121, 221, 321) having a closed continuous loop; a second suture loop (122, 222, 322) having a closed continuous loop; a first locking component (123, 223, 323); and a second locking component (124, 224, 324), wherein the first locking component (123, 223, 323) is coupled to the first suture loop (121, 221, 321) and the second locking component (124, 224, 324) is coupled to the second suture loop (122, 222, 322); an end of the first suture loop (121, 221, 321), opposite the first locking component (123, 223, 323), is adapted to be displaced, looped or passed through a loop of the first guidewire and displaced, looped or passed through itself to secure the first suture loop to the first guidewire (111, 211, 311); and an end of the second suture loop (122, 222, 322), opposite the second locking component (124, 224, 324), is adapted to be displaced, looped or passed through a loop of the second guidewire and displaced, looped or passed through itself to secure the second suture loop to the second guidewire (112, 212, 312). a first guidewire (111, 211, 311); a second guidewire (112, 212, 312), wherein each of the first guidewire and the second guidewire are configured to be received by a bone block (110, 210, 310); a first suture loop (121, 221, 321) having a closed continuous loop; a second suture loop (122, 222, 322) having a closed continuous loop; a first locking component (123, 223, 323); and a second locking component (124, 224, 324), wherein the first locking component (123, 223, 323) is coupled to the first suture loop (121, 221, 321) and the second locking component (124, 224, 324) is coupled to the second suture loop (122, 222, 322); an end of the first suture loop (121, 221, 321), opposite the first locking component (123, 223, 323), is adapted to be displaced, looped or passed through a loop of the first guidewire and displaced, looped or passed through itself to secure the first suture loop to the first guidewire (111, 211, 311); and an end of the second suture loop (122, 222, 322), opposite the second locking component (124, 224, 324), is adapted to be displaced, looped or passed through a loop of the second guidewire and displaced, looped or passed through itself to secure the second suture loop to the second guidewire (112, 212, 312).
Method for the continuous or semicontinuous production of hot steel strip which, starting from a strand that is guided through a strand-guiding device, is rolled in a roughing train to form an intermediate strip and is subsequently rolled in a finishing train to form a finished strip (3"), comprising method steps as follows: - casting a strand in a die of a casting plant, wherein the strand emerging from the die and entering the strand-guiding device has a strand thickness (d) of between 95 mm and 110 mm, preferably a strand thickness (d) of between 102 mm and 108 mm, and wherein the strand is reduced using the liquid core reduction process by means of the adjoining strand-guiding device, while the strand has a liquid cross-sectional core, to a strand thickness (d) of between 60 mm and 95 mm, preferably to a strand thickness (d) of between 70 mm and 85 mm, - wherein a strand support length measured between the meniscus, i.e. the bath level of the die, and an end of the strand-guiding device facing the roughing train is between 12 m and 15.5 m, preferably in a range of between 13 m and 15 m, preferably between 14.2 m and 15 m, - and wherein a casting speed (v c) lies in a range of 3.8-7 m/min, - and that a rough-rolling of the strand in the roughing train to form an intermediate strip takes place in at least four reduction stages, i.e. using four roughing stands (4 1, 4 2, 4 3, 4 4), preferably in five reduction stages, i.e. using five roughing stands (4 1, 4 2, 4 3, 4 4, 4 5), - wherein reduction stages which take place in the roughing train take place within at most 80 seconds, preferably within at most 50 seconds. - casting a strand in a die of a casting plant, wherein the strand emerging from the die and entering the strand-guiding device has a strand thickness (d) of between 95 mm and 110 mm, preferably a strand thickness (d) of between 102 mm and 108 mm, and wherein the strand is reduced using the liquid core reduction process by means of the adjoining strand-guiding device, while the strand has a liquid cross-sectional core, to a strand thickness (d) of between 60 mm and 95 mm, preferably to a strand thickness (d) of between 70 mm and 85 mm, - wherein a strand support length measured between the meniscus, i.e. the bath level of the die, and an end of the strand-guiding device facing the roughing train is between 12 m and 15.5 m, preferably in a range of between 13 m and 15 m, preferably between 14.2 m and 15 m, - and wherein a casting speed (v c) lies in a range of 3.8-7 m/min, - and that a rough-rolling of the strand in the roughing train to form an intermediate strip takes place in at least four reduction stages, i.e. using four roughing stands (4 1, 4 2, 4 3, 4 4), preferably in five reduction stages, i.e. using five roughing stands (4 1, 4 2, 4 3, 4 4, 4 5), - wherein reduction stages which take place in the roughing train take place within at most 80 seconds, preferably within at most 50 seconds.
A composition for use as internal control comprising Phi6 bacteriophage suspended in a buffer suitable for a nucleic acid amplification reaction at a pH between 7-9, including a chelating agent and a preservative, wherein said Phi6 bacteriophage is present at a concentration of between 1000 and 1,000,000 copies/mL.
A method for preventing condensation on an air-conditioner air supply apparatus in an air conditioner, wherein the air conditioner comprises a housing with a blower, a heat exchanger and the air supply apparatus, being arranged in the housing from bottom to top in an internal air duct, wherein the air supply apparatus comprises a non-heat-exchanged air inlet and a mixed air outlet of the air-conditioner and the blower drives air from the internal air duct to the mixed air outlet, characterized in that, the air supply apparatus comprises at least three air guiding bodies (11, 12, 13) being single components that are annular in shape and sequentially and coaxially arranged from the non-heat-exchanged air inlet to the mixed air outlet and with the annular air guiding bodies being hollow with a trough-duct there through and further with the annular air guiding bodies having front and rear openings, with a rear opening of the annular air guiding bodies being air inlets (112, 122, 132), front openings of the annular air guiding bodies bein air outlets (111, 121, 131) and an air inlet of a rear-end annular air guiding body located at the rear end is the non-heat-exchanged air inlet of the air supply apparatus, and an air outlet of a front-end annular air guiding body located at the front end is the mixed air outlet of the air supply apparatus and wherein further, heat-exchanged air ducts (14, 15), being annular in shape, are formed between two adjacent annular air guiding bodies (11/13, 13/12) and heat exchanged air is driven into the trough-duct via the heat-exchanged air ducts (14, 15) by the blower.
A molecule that inhibits or prevents an activity of a Src family kinase for use in treating a metastatic cancer, wherein the molecule is one that inhibits or prevents an interaction between the SH3 domain of a Src family kinase and an androgen receptor, and the metastatic cancer is one in which an activity of AR is a contributory factor, and wherein the molecule comprises the structure Ac-PPPHPHARIK-NH2, where Ac is an acetyl group, wherein the molecule does not reduce or prevent fertility in the subject, and wherein the subject is fertile and in whom fertility is to be preserved.
An error concealment unit (100, 1402-1405) for providing an error concealment audio information (107, 1407) for concealing a loss of an audio frame in an encoded audio information, wherein the error concealment unit is configured to provide an error concealment audio information based on a properly decoded audio frame preceding a lost audio frame, wherein the error concealment unit is configured to perform a fade out using different damping factors (1404a-1404g) for different frequency bands (1403a-1403g) of the properly decoded audio frame preceding the lost audio frame, characterized in that the error concealment unit is configured to adapt one or more damping factors, so as to fade out one or more frequency bands of the properly decoded audio frame preceding the lost audio frame and having a comparatively higher energy per spectral bin faster than one or more frequency bands of the properly decoded audio frame preceding the lost audio frame and having a comparatively lower energy per spectral bin.
A method comprising: forming, at an additive manufacturing apparatus, a first layer of build material to be processed in the generation of an object; selectively applying a print agent onto the first layer based on a first print instruction associated with the first layer; applying energy to the first layer to cause fusion in a region of the first layer; measuring the temperature of the first layer at a plurality of locations to form a measured temperature distribution profile characterized in that the method further comprises comparing the measured temperature distribution profile against a predicted temperature distribution profile to generate a difference; and correcting a temperature distribution profile of a subsequent layer of build material following fusion of the subsequent layer based on the difference by modifying a second print instruction to apply print agent onto the subsequent layer. forming, at an additive manufacturing apparatus, a first layer of build material to be processed in the generation of an object; selectively applying a print agent onto the first layer based on a first print instruction associated with the first layer; applying energy to the first layer to cause fusion in a region of the first layer; measuring the temperature of the first layer at a plurality of locations to form a measured temperature distribution profile characterized in that the method further comprises comparing the measured temperature distribution profile against a predicted temperature distribution profile to generate a difference; and correcting a temperature distribution profile of a subsequent layer of build material following fusion of the subsequent layer based on the difference by modifying a second print instruction to apply print agent onto the subsequent layer.
A control method for a vehicle-mounted hydrogen system, characterized by comprising the following steps: building a pressure prediction model of output gas of the vehicle-mounted hydrogen system, and determining a predicted pressure value used to control the output gas of the vehicle-mounted hydrogen system according to a pressure prediction model; calculating a difference between the predicted pressure value and a set target pressure value to obtain a prediction error; obtaining an actual pressure value of the output gas of the vehicle-mounted hydrogen system, calculating a difference between the actual pressure value and a target pressure value, and obtaining an actual error; comparing the prediction error with the actual error, and when the prediction error is less than the actual error, using the pressure prediction model to output a predicted pressure value at a next moment, and using the predicted pressure value as a target pressure at the next moment to control the output gas of the vehicle-mounted hydrogen system. building a pressure prediction model of output gas of the vehicle-mounted hydrogen system, and determining a predicted pressure value used to control the output gas of the vehicle-mounted hydrogen system according to a pressure prediction model; calculating a difference between the predicted pressure value and a set target pressure value to obtain a prediction error; obtaining an actual pressure value of the output gas of the vehicle-mounted hydrogen system, calculating a difference between the actual pressure value and a target pressure value, and obtaining an actual error; comparing the prediction error with the actual error, and when the prediction error is less than the actual error, using the pressure prediction model to output a predicted pressure value at a next moment, and using the predicted pressure value as a target pressure at the next moment to control the output gas of the vehicle-mounted hydrogen system.
A drive mechanism of a wearable drug delivery device, the drive mechanism comprising: a housing comprising: a pump chamber fluidly connected with a channel chamber; an inlet channel operable to deliver a liquid drug from a reservoir of the wearable drug delivery device to the channel chamber; and an outlet channel operable to expel the liquid drug from the channel chamber; a resilient sealing member sealing the pump chamber; and a plunger adjacent the resilient sealing member, wherein the plunger is operable to enter the pump chamber to expel the liquid drug from the pump chamber; and a second resilient sealing member positioned within the channel chamber, wherein the second resilient sealing member is operable to seal the inlet channel and the outlet channel; characterised in that the drive mechanism further comprises a mechanical rocker device, wherein in a first position the mechanical rocker device biases the second resilient sealing member against an entrance of the inlet channel, and wherein in a second position the mechanical rocker device biases the second resilient sealing member against an entrance of the outlet channel. a housing comprising: a pump chamber fluidly connected with a channel chamber; an inlet channel operable to deliver a liquid drug from a reservoir of the wearable drug delivery device to the channel chamber; and an outlet channel operable to expel the liquid drug from the channel chamber; a pump chamber fluidly connected with a channel chamber; an inlet channel operable to deliver a liquid drug from a reservoir of the wearable drug delivery device to the channel chamber; and an outlet channel operable to expel the liquid drug from the channel chamber; a resilient sealing member sealing the pump chamber; and a plunger adjacent the resilient sealing member, wherein the plunger is operable to enter the pump chamber to expel the liquid drug from the pump chamber; and a second resilient sealing member positioned within the channel chamber, wherein the second resilient sealing member is operable to seal the inlet channel and the outlet channel; characterised in that the drive mechanism further comprises a mechanical rocker device, wherein in a first position the mechanical rocker device biases the second resilient sealing member against an entrance of the inlet channel, and wherein in a second position the mechanical rocker device biases the second resilient sealing member against an entrance of the outlet channel.
An apparatus to increase blood flow from a heart, comprising: at least one atrial intra-cardiac device component configured to be placed in an atrium (202, 206), the atrial intra-cardiac device component comprising at least one volumetric displacement feature configured to: volumetrically contract during a first epoch in which atrioventricular valves (218, 222) are closed and aortic and pulmonary valves are open; and volumetrically expand during a second epoch in which the atrioventricular valves (218, 222) are open and the aortic and pulmonary valves are closed. at least one atrial intra-cardiac device component configured to be placed in an atrium (202, 206), the atrial intra-cardiac device component comprising at least one volumetric displacement feature configured to: volumetrically contract during a first epoch in which atrioventricular valves (218, 222) are closed and aortic and pulmonary valves are open; and volumetrically expand during a second epoch in which the atrioventricular valves (218, 222) are open and the aortic and pulmonary valves are closed. volumetrically contract during a first epoch in which atrioventricular valves (218, 222) are closed and aortic and pulmonary valves are open; and volumetrically expand during a second epoch in which the atrioventricular valves (218, 222) are open and the aortic and pulmonary valves are closed.
A method for controlling a refrigerator, the method comprising: performing a first defrosting operation of an evaporator, wherein the first defrosting operation terminates when a temperature of the evaporator reaches a first temperature; detecting a pressure differential using a single differential pressure sensor, wherein the pressure differential is a difference between pressures in first and second through-holes (110, 120), wherein the first through-hole is defined between an inlet for receiving air from a storage compartment (6, 8) and the evaporator, wherein the second through-hole is defined between an outlet for discharging air into the storage compartment (6, 8) and the evaporator; and performing a second defrosting operation as an additional defrosting operation of the evaporator when the measured pressure differential is greater than a predefined pressure, wherein the first through-hole is located vertically lower than the second through-hole, and wherein the second defrosting operation terminates when a temperature of the evaporator reaches a second temperature. performing a first defrosting operation of an evaporator, wherein the first defrosting operation terminates when a temperature of the evaporator reaches a first temperature; detecting a pressure differential using a single differential pressure sensor, wherein the pressure differential is a difference between pressures in first and second through-holes (110, 120), wherein the first through-hole is defined between an inlet for receiving air from a storage compartment (6, 8) and the evaporator, wherein the second through-hole is defined between an outlet for discharging air into the storage compartment (6, 8) and the evaporator; and performing a second defrosting operation as an additional defrosting operation of the evaporator when the measured pressure differential is greater than a predefined pressure, wherein the first through-hole is located vertically lower than the second through-hole, and wherein the second defrosting operation terminates when a temperature of the evaporator reaches a second temperature.