mhurhangee/ep-ind-claims huggingface dataset:
An avionics module assembly, comprising: a first circuit board including a first component of at least one high density connector a second circuit board including a second component of the at least one high density connector; a heatsink positioned between the first circuit board and the second circuit board; and a circuit board separation mechanism, comprising: a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component. a first circuit board including a first component of at least one high density connector a second circuit board including a second component of the at least one high density connector; a heatsink positioned between the first circuit board and the second circuit board; and a circuit board separation mechanism, comprising: a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component. a separation block positioned in a separation block cut-out of the heatsink; and a set screw inserted within the separation block cut-out, at least a portion of the set screw configured to engage a surface of the heatsink, the separation block being configured to lift against a surface of the first circuit board when the set screw is rotated, the first component of the at least one connector and the second component of the at least one connector being configured to separate when the set screw is rotated and the separation block lifts against the surface of the first circuit board the first component of the at least one connector and the second component.
A processor implemented method comprising: encoding a static knowledge graph pertaining to (i) an infrastructure being monitored, (ii) ambience and (iii) a data acquisition system configured to monitor the infrastructure in the form of a Qualitative Believe Network 'QBN'; and iteratively performing inferencing of the QBN by: dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph; identifying list of nodes with unobserved evidences in the QBN; computing Quality of Observation 'QoO' for each of the nodes in the list; selecting the node having a highest value of QoO; obtaining vision based observation of the node having the highest value of QoO; and assigning the vision based observation as current observed state to the node having the highest value of QoO; until a stopping criterion is reached. encoding a static knowledge graph pertaining to (i) an infrastructure being monitored, (ii) ambience and (iii) a data acquisition system configured to monitor the infrastructure in the form of a Qualitative Believe Network 'QBN'; and iteratively performing inferencing of the QBN by: dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph; identifying list of nodes with unobserved evidences in the QBN; computing Quality of Observation 'QoO' for each of the nodes in the list; selecting the node having a highest value of QoO; obtaining vision based observation of the node having the highest value of QoO; and assigning the vision based observation as current observed state to the node having the highest value of QoO; dynamically capturing observed state of one or more nodes constituting the QBN and propagating belief on an instance of the static knowledge graph; identifying list of nodes with unobserved evidences in the QBN; computing Quality of Observation 'QoO' for each of the nodes in the list; selecting the node having a highest value of QoO; obtaining vision based observation of the node having the highest value of QoO; and assigning the vision based observation as current observed state to the node having the highest value of QoO; until a stopping criterion is reached.
A peptide or protein drug having a molecular weight of equal to or less than about 50 kDa for use as a medicament, wherein said peptide or protein drug is to be administered orally in combination with: a pharmaceutically acceptable copper salt/complex and/or a pharmaceutically acceptable zinc salt/complex; and a pharmaceutically acceptable reducing agent. a pharmaceutically acceptable copper salt/complex and/or a pharmaceutically acceptable zinc salt/complex; and a pharmaceutically acceptable reducing agent.
A method for increasing the light emission produced by the chemiluminescent reaction of 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, a peroxidase enzyme or a conjugate thereof, an enhancer, a co-enhancer and a peroxide oxidizer, wherein the enhancer is an anionic N-alkylphenothiazine and wherein the method comprises the following steps: i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, wherein the co-enhancer is selected among imidazole, 1-methylimidazole, 4-morpholinopyridine (MORP), 4-dimethylaminopyridine (DMAP) and 4-pyrrolidinopyridine, wherein the concentration of the chemiluminescent compound, 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, in the chemiluminescent substrate is comprised between 0.01 mM and 1 mM and wherein the pH of the chemiluminescent substrate is comprised between 6.0 and 7.9. wherein the method comprises the following steps: i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, i. preparing a chemiluminescent substrate by means of mixing together 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, the enhancer, the co-enhancer and the peroxide oxidizer, and ii. adding the peroxidase enzyme or a conjugate thereof to the chemiluminescent substrate, wherein the co-enhancer is selected among imidazole, 1-methylimidazole, 4-morpholinopyridine (MORP), 4-dimethylaminopyridine (DMAP) and 4-pyrrolidinopyridine, wherein the concentration of the chemiluminescent compound, 8-amino-5-chloro-7-phenylpyrido[3,4-d]pyridazine-1,4(2H,3H)-dione, in the chemiluminescent substrate is comprised between 0.01 mM and 1 mM and wherein the pH of the chemiluminescent substrate is comprised between 6.0 and 7.9.
Rotor of a rotating electric machine, notably for a wound-rotor or flux-switching machine, comprising: - a support having a generally discoid shape for mounting the rotor on a shaft, - a plurality of magnetic segments preferably in a strip, fastened onto the support, the support having, at the periphery, notches which are superposed with notches of the segments, characterized in that the rotor comprises segments on two axially opposite faces of the support. - a support having a generally discoid shape for mounting the rotor on a shaft, - a plurality of magnetic segments preferably in a strip, fastened onto the support,
A device to provide assistance in transferring and standing comprising: a knee-fixing unit wrapped around and supporting either the knee area or at least the front and sides of the lower leg area from knee to ankle of a care-receiver; a pelvis support formed from fabric or sheet or mesh that is wrapped around at least the buttocks or a section from the pelvis to thighs of said care-receiver; and left and right pulling bands, each band being formed with two connecting ends (5, 6) that are attached to the side of a thigh section and the side of a hip section of said pelvis support respectively, wherein in use said bands are positioned above and below the greater trochanter when said care-receiver is being pulled up during transfer/standing assistance and are positioned in front of and behind the greater trochanter when said care-receiver is seated; wherein, said knee-fixing unit comprises connecting belts, wherein said connecting belts are adapted to extend from said knee-fixing unit to pass through a loop formed by said pelvis support and said pulling bands to the left and right of said pelvis support to reconnect to said knee fixing section or to said connecting belts themselves.
An optical modulator comprising a substrate consisting of a material having an electrooptic effect, an optical waveguide provided on said substrate, control electrodes (20, 21, 23, 24, 25) that are adapted to generate an electric field which modifies the phase of light guided through said optical waveguide, and a recess in the surface of said substrate, wherein one of said control electrodes (23, 24, 25) extends across said recess and has a portion in said recess, said portion being provided with a stress relaxing means, and characterised in that said stress relaxing means is achieved by arranging said portion of the control electrode (23, 24, 25) which is disposed in said recess to be thinner than the other portion (23, 25) of the control electrode (23, 24, 25) which is not disposed in said recess and wherein said portion of the control electrode (23, 24, 25) in said recess is thinner than the depth of said recess and has the shape of a stripe or a lattice.
A high-density polyethylene (HDPE) blend comprising: 90 to 99.5 wt% of a lower molecular weight multimodal HDPE component having a density of at least 940 kg/m 3 when measured according to ISO 1183:1987, method D; and having an MFR 2 of 0.1 g/10min or more when measured according to ISO 1133 at 190 °C under 2.16 kg load; and 0.5 to 10 wt% of a higher molecular weight multimodal HDPE component different from component having a density of at least 940 kg/m 3 and having an MFR 5 of less than 2 g/10min when measured according to ISO 1133 at 190 °C under 5 kg load; wherein the blend has a density of at least 940 kg/m 3 and an environmental stress crack resistance (FNCT) of at least 30 hours measured according to the full notch creep test (FNCT) (ISO 16770) at 50°C and 6 MPa. 90 to 99.5 wt% of a lower molecular weight multimodal HDPE component having a density of at least 940 kg/m 3 when measured according to ISO 1183:1987, method D; and having an MFR 2 of 0.1 g/10min or more when measured according to ISO 1133 at 190 °C under 2.16 kg load; and 0.5 to 10 wt% of a higher molecular weight multimodal HDPE component different from component having a density of at least 940 kg/m 3 and having an MFR 5 of less than 2 g/10min when measured according to ISO 1133 at 190 °C under 5 kg load; wherein the blend has a density of at least 940 kg/m 3 and an environmental stress crack resistance (FNCT) of at least 30 hours measured according to the full notch creep test (FNCT) (ISO 16770) at 50°C and 6 MPa.
A polyamide resin comprising a diamine unit containing 70 mol % or more of a xylylenediamine unit and a dicarboxylic acid unit containing 70 mol % or more of a straight chain aliphatic dicarboxylic acid unit, wherein the xylylenediamine unit is composed of 55 to 95 mol % of p-xylylenediamine and 45 to 5 mol % of m-xylylenediamine; the straight chain aliphatic dicarboxylic acid unit is composed of 50 to 100 mol % of adipic acid and 0 to less than 50 mol % of sebacic acid or other straight chain aliphatic dicarboxylic acids; the molar ratio of reacted diamine units to reacted dicarboxylic acid units (the number of moles of reacted diamine units / the number of moles of reacted dicarboxylic acid units) is less than 0.994; and the polyamide resin has a number average molecular weight of 10, 000 to 25,000 and a melting point of 285 °C or more; wherein the melting point is determined by differential scanning calorimetry by melting a polyamide resin sample by heating from 30 °C to a temperature equal to or higher than an expected melting point at a rate of 10 °C/min, and then rapidly cooling and then, heating the sample at a rate of 10 °C/min to a temperature equal to or higher than the melting point; and wherein the number average molecular weight here is calculated from the terminal amino group concentration [NH 2] (μeq/g) and the terminal carboxyl group concentration [COOH] (μeq/g) of a polyamide resin by the equation below: Number average molecular weight = 2, 000, 000 / COOH + NH 2.
A medical imaging system comprising a controller, and an ultrasonic probe configured to acquire image information of a lesion at a selected time; and computer program instructions, which when executed, cause the controller to: receive first image information corresponding with a first image acquired at a first time, the first image comprising the lesion, wherein the first image information includes location information and vascular information relating to the lesion derived from Doppler information so as to represent blood flow velocity values; receive second image information corresponding with a second image acquired at a second time, the second image comprising the lesion, wherein the second image information includes location information and vascular information relating to the lesion derived from Doppler information so as to represent blood flow velocity values; render a first wire frame representing a first volume of the lesion based on the first image information; render a second wire frame representing a second volume of the lesion based on the second image information; and overlay the second wire frame and the first wire frame based at least in part on the location information of the first image information and the second image information so as to visualize changes in vascular information in the lesion. receive first image information corresponding with a first image acquired at a first time, the first image comprising the lesion, wherein the first image information includes location information and vascular information relating to the lesion derived from Doppler information so as to represent blood flow velocity values; receive second image information corresponding with a second image acquired at a second time, the second image comprising the lesion, wherein the second image information includes location information and vascular information relating to the lesion derived from Doppler information so as to represent blood flow velocity values; render a first wire frame representing a first volume of the lesion based on the first image information; render a second wire frame representing a second volume of the lesion based on the second image information; and overlay the second wire frame and the first wire frame based at least in part on the location information of the first image information and the second image information so as to visualize changes in vascular information in the lesion.
A system, comprising: a turbine combustor comprising: a first diffusion fuel nozzle, wherein the first diffusion fuel nozzle comprises first and second passages that separately inject respective first and second flows into a chamber of the turbine combustor to produce a diffusion flame, wherein the first flow comprises a first fuel, and the second flow comprises a first oxidant and a first diluent; and wherein the turbine combustor includes only diffusion fuel nozzles; a turbine driven by combustion products from the diffusion flame in the turbine combustor; an exhaust gas compressor, wherein the exhaust gas compressor is configured to compress and route an exhaust gas from the turbine to the turbine combustor, wherein the first diluent comprises a portion of the exhaust gas; and a control system configured to adjust one or more operating parameters in response to sensor feedback to maintain an equivalence ratio or emissions levels in the exhaust gas, wherein: a diluent injection system is disposed downstream from the first diffusion fuel nozzle, and wherein the diluent injection system is configured to inject a second portion of the exhaust gas, steam, nitrogen, or another inert gas, or a combination thereof, into the chamber of the turbine combustor downstream from the first diffusion fuel nozzle. a turbine combustor comprising: a first diffusion fuel nozzle, wherein the first diffusion fuel nozzle comprises first and second passages that separately inject respective first and second flows into a chamber of the turbine combustor to produce a diffusion flame, wherein the first flow comprises a first fuel, and the second flow comprises a first oxidant and a first diluent; and wherein the turbine combustor includes only diffusion fuel nozzles; a turbine driven by combustion products from the diffusion flame in the turbine combustor; an exhaust gas compressor, wherein the exhaust gas compressor is configured to compress and route an exhaust gas from the turbine to the turbine combustor, wherein the first diluent comprises a portion of the exhaust gas; and a control system configured to adjust one or more operating parameters in response to sensor feedback to maintain an equivalence ratio or emissions levels in the exhaust gas,
A chemical liquid injection system including: a liquid syringe having a piston member being inserted slidably into a cylinder member filled with a liquid, and a chemical liquid injector having a liquid injection mechanism for relatively moving the cylinder member and the piston member of the liquid syringe exchangeably mounted on the chemical liquid injector to inject the liquid into a patient; wherein said liquid syringe further comprises an RFID (Radio Frequency Identification) chip having various types of data recorded thereon, the RFID chip being mounted on said liquid syringe, and said chemical liquid injector further comprises: an RFID reader for obtaining the various types of data recorded on the RFID chip; and operation control means for performing a predetermined operation in accordance with at least some of the various types of obtained data, characterized in that the data recorded on said RFID chip includes a value of pressure resistance of the syringe, said chemical liquid injector further comprises a load cell for detecting a pressure applied to the piston member, and said operation control means controls the operation of the liquid injection mechanism such that the detected pressure does not exceed the value of pressure resistance which is recorded on said RFID chip and obtained by said RFID reader. said liquid syringe further comprises an RFID (Radio Frequency Identification) chip having various types of data recorded thereon, the RFID chip being mounted on said liquid syringe, and said chemical liquid injector further comprises: an RFID reader for obtaining the various types of data recorded on the RFID chip; and operation control means for performing a predetermined operation in accordance with at least some of the various types of obtained data, characterized in that the data recorded on said RFID chip includes a value of pressure resistance of the syringe, said chemical liquid injector further comprises a load cell for detecting a pressure applied to the piston member, and said operation control means controls the operation of the liquid injection mechanism such that the detected pressure does not exceed the value of pressure resistance which is recorded on said RFID chip and obtained by said RFID reader. an RFID reader for obtaining the various types of data recorded on the RFID chip; and operation control means for performing a predetermined operation in accordance with at least some of the various types of obtained data, characterized in that the data recorded on said RFID chip includes a value of pressure resistance of the syringe, said chemical liquid injector further comprises a load cell for detecting a pressure applied to the piston member, and said operation control means controls the operation of the liquid injection mechanism such that the detected pressure does not exceed the value of pressure resistance which is recorded on said RFID chip and obtained by said RFID reader.
Battery comprising a plurality of modules (12; 112) arranged in series, at least one given module (12; 112) comprising at least two cells (11; 50; 111) arranged in parallel, at least one of these two cells (11; 50; 111) being associated with a cell switch (13; 63; 113) arranged in series with the cell (11; 50; 111), characterized in that the given module comprises at least one sensor (33, 35, 36; 62, 65, 66; 133) for measuring a quantity that is characteristic of the state of said cell of the given module associated with the cell switch (13; 63; 113), and in that it comprises, at the level of the given module, a local processing circuit (30; 130) for processing the measurements carried out by said at least one measurement sensor, the processing circuit driving the switch associated with said cell of the given module via a control circuit (27; 127) according to at least said quantity that is characteristic of the state of said cell, the control circuit for controlling the cell switch (13; 63; 113) and/or the processing circuit being supplied with electrical power directly by at least one cell of the battery of the given module while being electrically isolated from the other modules.
Method for the secure computer-aided execution of program instructions of an application having the following method steps: - switching on a learning mode of an execution environment; - executing the application in the execution environment while the learning mode is switched on, wherein - program instructions of the application are performed for a selected prescribed application scenario; - the execution environment assigns a first piece of application-scenario-specific validity information to the performed program instructions (210, 220, 310, 320); - switching on a working mode of the execution environment, wherein in the working mode the execution environment checks the first piece of validity information of the program instructions, and wherein the execution environment executes the program instructions on the basis of their validity information. - switching on a learning mode of an execution environment; - executing the application in the execution environment while the learning mode is switched on, wherein - program instructions of the application are performed for a selected prescribed application scenario; - the execution environment assigns a first piece of application-scenario-specific validity information to the performed program instructions (210, 220, 310, 320); - program instructions of the application are performed for a selected prescribed application scenario; - the execution environment assigns a first piece of application-scenario-specific validity information to the performed program instructions (210, 220, 310, 320); - switching on a working mode of the execution environment, wherein in the working mode the execution environment checks the first piece of validity information of the program instructions, and wherein the execution environment executes the program instructions on the basis of their validity information.