mhurhangee/ep-ind-claims huggingface dataset:
A method of generating an Application Program Interface, API, mash-up, the method comprising: obtaining at least two API packages which respectively comprise an API, meta-data for executing the API, resource data for generating a mash-up of the API, and description data corresponding to the API, the meta-data, and the resource data; wherein the meta-data comprises information about a communication protocol to communicate with a package providing server or an apparatus for producing the API mash-up and information about a data format of the API; wherein the resource data comprises a configuration data of a user interface to generate the mash-up and a tagging information representing an input/output data format of the API; wherein the description data comprises information about one of components of the API package, a version of the API, and a library function for executing the API; wherein the method further comprises: extracting the API, the meta-data, and the resource data from each of the at least two API packages by using the description data; and generating a mash-up of the at least two API packages by using the API, the meta-data, and the resource data. obtaining at least two API packages which respectively comprise an API, meta-data for executing the API, resource data for generating a mash-up of the API, and description data corresponding to the API, the meta-data, and the resource data; wherein the meta-data comprises information about a communication protocol to communicate with a package providing server or an apparatus for producing the API mash-up and information about a data format of the API; wherein the resource data comprises a configuration data of a user interface to generate the mash-up and a tagging information representing an input/output data format of the API; wherein the description data comprises information about one of components of the API package, a version of the API, and a library function for executing the API; wherein the method further comprises: extracting the API, the meta-data, and the resource data from each of the at least two API packages by using the description data; and generating a mash-up of the at least two API packages by using the API, the meta-data, and the resource data. extracting the API, the meta-data, and the resource data from each of the at least two API packages by using the description data; and generating a mash-up of the at least two API packages by using the API, the meta-data, and the resource data.
A synthesis gas production catalyst to be used for producing synthesis gas containing carbon monoxide and hydrogen from source gas containing methane-containing light hydrocarbons and carbon dioxide, characterized in that the catalyst comprises at least either one of the metals of ruthenium and rhodium carried on a carrier which contains magnesium oxide grains and calcium oxide existing on the surfaces of the magnesium oxide grains by 0.05 mg-Ca/m 2 -MgO to 150 mg-Ca/m 2 -MgO in terms of Ca and shows a calcium oxide content between 0.005 mass% and 1.5 mass% in terms of Ca, wherein the catalyst is obtainable by baking magnesium oxide powder containing between 0.005 mass% and 1.5 mass% of calcium oxide at a temperature not lower than 1000°C to form the carrier and spraying an aqueous solution of at least either one of the metals of ruthenium or rhodium to the carrier so that the metal is carried on the carrier.
Measuring system, - with a field device used in automation technology and designed to determine and/or monitor a process variable of a medium; - with a connection unit which has a connection plug electrically connected to the field device and a cable which is connected to the connection plug via a cable connection, and which serves to supply electrical energy to the field device and/or to transmit information between the field device and a higher-level unit; wherein the connection plug is connected to the field device in a connection area which, in relation to a process connection of the field device, is arranged on the side of the process connection facing away from the process; and - with a protective hood which surrounds the connection unit and the field device connected to the connection unit in a protection section, wherein said hood is designed to protect the measuring system in the protection section, wherein the protective hood is designed in such a way that it can be detached from the measuring system, wherein, with the protective hood, the resistance of the measuring system to shock in the protection section is regulated in such a way that the measuring system has a certain predefinable shock resistance in the protection section, and wherein the protective hood can be screwed to the field device with a thread of the field device that is arranged at an end section of the protection section. - with a field device used in automation technology and designed to determine and/or monitor a process variable of a medium; - with a connection unit which has a connection plug electrically connected to the field device and a cable which is connected to the connection plug via a cable connection, and which serves to supply electrical energy to the field device and/or to transmit information between the field device and a higher-level unit; wherein the connection plug is connected to the field device in a connection area which, in relation to a process connection of the field device, is arranged on the side of the process connection facing away from the process; and - with a protective hood which surrounds the connection unit and the field device connected to the connection unit in a protection section, wherein said hood is designed to protect the measuring system in the protection section, wherein the protective hood is designed in such a way that it can be detached from the measuring system, wherein, with the protective hood, the resistance of the measuring system to shock in the protection section is regulated in such a way that the measuring system has a certain predefinable shock resistance in the protection section, and wherein the protective hood can be screwed to the field device with a thread of the field device that is arranged at an end section of the protection section.
A method for a vehicle for determining positions of other vehicles, the method comprising: Receiving one or more collective perception messages, wherein each collective perception messages comprises information on an absolute position of a vehicle generating the collective perception message and a relative position of one or more further vehicles being perceived by the vehicle generating the collective perception message; Placing the respective vehicle generating the collective perception message and the one or more further vehicles being perceived by the vehicle generating the collective perception message on a map using the positions received in the one or more collective perception messages; and Correlating the positions of the vehicles on the map with a course of the road the respective vehicles are travelling on, and correcting the respective positions based on the correlation between the course of the road and the positions of the vehicles. Receiving one or more collective perception messages, wherein each collective perception messages comprises information on an absolute position of a vehicle generating the collective perception message and a relative position of one or more further vehicles being perceived by the vehicle generating the collective perception message; Placing the respective vehicle generating the collective perception message and the one or more further vehicles being perceived by the vehicle generating the collective perception message on a map using the positions received in the one or more collective perception messages; and Correlating the positions of the vehicles on the map with a course of the road the respective vehicles are travelling on, and correcting the respective positions based on the correlation between the course of the road and the positions of the vehicles.
A method of supplying energy to an electrically operable medical device implanted in a patient, wherein wireless energy is transferred from an external energy source located outside the patient to an internal energy receiver located inside the patient, said internal energy receiver being connected to said medical device for directly or indirectly supplying received energy thereto, the method comprising the following steps: - determining an amount of energy currently required for the operation of said medical device, - communicating, to said external energy source, a control signal reflecting said required amount of energy, and - controlling the amount of transferred energy in response to said control signal, by adjusting the energy transfer efficiency from said external energy source to said internal energy receiver, wherein said wireless energy is inductively transferred from a primary coil in said energy source to a secondary coil in said energy receiver, wherein the energy transfer efficiency is adjusted by adjusting the position of said primary coil relative to said secondary coil, wherein adjusting the energy transfer efficiency comprises decreasing the energy transfer efficiency if the amount of transferred energy received by the internal energy receiver is greater than said amount of energy currently required and increasing the energy transfer efficiency if the amount of energy received by the internal energy receiver is less than said amount of energy currently required. - determining an amount of energy currently required for the operation of said medical device, - communicating, to said external energy source, a control signal reflecting said required amount of energy, and - controlling the amount of transferred energy in response to said control signal, by adjusting the energy transfer efficiency from said external energy source to said internal energy receiver, wherein said wireless energy is inductively transferred from a primary coil in said energy source to a secondary coil in said energy receiver, wherein the energy transfer efficiency is adjusted by adjusting the position of said primary coil relative to said secondary coil, wherein adjusting the energy transfer efficiency comprises decreasing the energy transfer efficiency if the amount of transferred energy received by the internal energy receiver is greater than said amount of energy currently required and increasing the energy transfer efficiency if the amount of energy received by the internal energy receiver is less than said amount of energy currently required.
A method, performed at a wireless device implementing a Framework for Live Uplink Streaming, FLUS, source, for establishing a streaming session, comprising: registering the FLUS source at a FLUS sink; receiving, from the FLUS sink, a request to establish a FLUS session between the FLUS source and the FLUS sink; establishing the FLUS session, in response to receiving the request from the FLUS sink; and streaming data, comprising media captured by a capture device, between the FLUS source and the FLUS sink using the FLUS session established. registering the FLUS source at a FLUS sink; receiving, from the FLUS sink, a request to establish a FLUS session between the FLUS source and the FLUS sink; establishing the FLUS session, in response to receiving the request from the FLUS sink; and streaming data, comprising media captured by a capture device, between the FLUS source and the FLUS sink using the FLUS session established.
An apparatus for deinterleaving, comprising: mapping means for receiving a set of demodulation symbols and calculating a number of soft decision values for each demodulation symbol; memory means for receiving all of said number of soft decision values, the memory means comprising a number of memory banks, wherein said number of memory banks corresponds to a multiple of said number of soft decision values; controller means for repeatedly selecting one specific memory bank of said number of memory banks to store one specific soft decision value of said number of soft decision values according to a storage pattern, wherein the storage pattern is such that the memory means provides a linear data stream of soft decision values for a decoder when read sequentially. mapping means for receiving a set of demodulation symbols and calculating a number of soft decision values for each demodulation symbol; memory means for receiving all of said number of soft decision values, the memory means comprising a number of memory banks, wherein said number of memory banks corresponds to a multiple of said number of soft decision values; controller means for repeatedly selecting one specific memory bank of said number of memory banks to store one specific soft decision value of said number of soft decision values according to a storage pattern, wherein the storage pattern is such that the memory means provides a linear data stream of soft decision values for a decoder when read sequentially.
A detection system for a bio-separation device suitable for bio-separation of a sample, comprising: a separation channel having a first longitudinal axis, the separation channel being for separating the sample into sample components along the first longitudinal axis, and a detection zone (32, 68) defined along the separation channel and suitable for passage of sample components; a radiation source; a detector; an incident light guide having a second longitudinal axis and suitable for directing incident radiation from the radiation source to the detection zone (32, 68) and causing radiation to be emitted by sample components as they pass through the detection zone; and an emission light guide having a third longitudinal axis and suitable for collecting and directing emitted radiation from the detection zone (32, 68) to the detector, wherein the emission light guide and the incident light guide are positioned on opposite sides of the separation channel, wherein the first, second and third longitudinal axes (24, 35, 37) are substantially coplanar at least at or near the detection zone (32, 68), wherein each of the second and third longitudinal axis makes an acute angle with respect to the first longitudinal axis, and wherein at least one of the incident light guide and emission light guide comprises an optical fiber, characterized in that the optical fiber has a terminating ball-end structure that is integral to the optical fiber in a unitary structure and is spaced apart from exterior of the separation channel. a separation channel having a first longitudinal axis, the separation channel being for separating the sample into sample components along the first longitudinal axis, and a detection zone (32, 68) defined along the separation channel and suitable for passage of sample components; a radiation source; a detector; an incident light guide having a second longitudinal axis and suitable for directing incident radiation from the radiation source to the detection zone (32, 68) and causing radiation to be emitted by sample components as they pass through the detection zone; and an emission light guide having a third longitudinal axis and suitable for collecting and directing emitted radiation from the detection zone (32, 68) to the detector, wherein the emission light guide and the incident light guide are positioned on opposite sides of the separation channel, wherein the first, second and third longitudinal axes (24, 35, 37) are substantially coplanar at least at or near the detection zone (32, 68), wherein each of the second and third longitudinal axis makes an acute angle with respect to the first longitudinal axis, and wherein at least one of the incident light guide and emission light guide comprises an optical fiber, characterized in that the optical fiber has a terminating ball-end structure that is integral to the optical fiber in a unitary structure and is spaced apart from exterior of the separation channel.
A thermal convection polymerase chain reaction device for holding a test tube and the test tube having a bottom, a middle section and an upper section in which insulated isothermal polymerase chain reaction is performed, the thermal convection polymerase chain reaction device comprising: an adiabatic seat having a body provided with a chamber for receiving the bottom of the test tube, a side channel communicated between the chamber and an ambient environment, and an upper channel communicated between the chamber and the ambient environment for insertion of the test tube; and a heating seat inserted into the side channel for stopping at and introducing heat energy into the bottom of the test tube, wherein the heating seat is an electrical heater which contacts and heats the bottom of the test tube, and a gap between the upper channel and the test tube is small so that air in said gap being heated by the heating seat does not hinder heat dissipation of the middle section and the upper section of the test tube.
A computer implemented method of processing ultrasonic data comprising: obtaining a B-mode ultrasonic image; setting a first region of interest in the obtained B-mode ultrasonic image according to a first input received from a user; measuring elasticity-related data for the first region of interest by using a shear wave ultrasonic imaging technique; automatically generating a second region of interest in the obtained B-mode ultrasonic image on the basis of the first region of interest; and extracting image features representing anatomical information for the second region of interest from the obtained B-mode ultrasonic image, characterized in that the method further comprises receiving a second input from the user, and wherein generating the second region of interest comprises: - if the second input indicates a lesion application, generating, on the basis of the first region of interest, a contour of the lesion in the obtained B-mode ultrasonic image as the second region of interest; and - if the second input indicates a non-lesion application, generating the second region of interest around the first region of interest according to a predetermined shape. obtaining a B-mode ultrasonic image; setting a first region of interest in the obtained B-mode ultrasonic image according to a first input received from a user; measuring elasticity-related data for the first region of interest by using a shear wave ultrasonic imaging technique; automatically generating a second region of interest in the obtained B-mode ultrasonic image on the basis of the first region of interest; and extracting image features representing anatomical information for the second region of interest from the obtained B-mode ultrasonic image, characterized in that the method further comprises receiving a second input from the user, and wherein generating the second region of interest comprises: - if the second input indicates a lesion application, generating, on the basis of the first region of interest, a contour of the lesion in the obtained B-mode ultrasonic image as the second region of interest; and - if the second input indicates a non-lesion application, generating the second region of interest around the first region of interest according to a predetermined shape. - if the second input indicates a lesion application, generating, on the basis of the first region of interest, a contour of the lesion in the obtained B-mode ultrasonic image as the second region of interest; and - if the second input indicates a non-lesion application, generating the second region of interest around the first region of interest according to a predetermined shape.
An air compressor system comprising: a motor operably connected to an air compressor; a separator tank fluidly connected to the air compressor by a supply line; a compressed air line coupled to the separator tank; a service valve connected to the compressed air line and positioned downstream of the separator tank; and a controller in operable communication with the motor, wherein in response to the controller detecting the motor operating at an idle speed, the controller reduces the motor speed to a low idle speed, the low idle speed being slower than the idle speed; characterized by a pressure relief orifice positioned in the supply line downstream of the air compressor and upstream of the separator tank; and a return line coupled to the supply line, the return line including a valve, a first end of the return line coupled to the supply line downstream of the air compressor and upstream of the pressure relief orifice, and a second end of the return line coupled to the supply line downstream of the pressure relief orifice and upstream of the separator tank, wherein in response to reducing the motor speed to the low idle speed, the controller reduces the pressure of compressed air in the separator tank, and wherein the controller reduces the pressure of compressed air in the separator tank by opening the valve to vent compressed air through the return line and out the pressure relief orifice. a motor operably connected to an air compressor; a separator tank fluidly connected to the air compressor by a supply line; a compressed air line coupled to the separator tank; a service valve connected to the compressed air line and positioned downstream of the separator tank; and a controller in operable communication with the motor, wherein in response to the controller detecting the motor operating at an idle speed, the controller reduces the motor speed to a low idle speed, the low idle speed being slower than the idle speed; characterized by a pressure relief orifice positioned in the supply line downstream of the air compressor and upstream of the separator tank; and a return line coupled to the supply line, the return line including a valve, a first end of the return line coupled to the supply line downstream of the air compressor and upstream of the pressure relief orifice, and a second end of the return line coupled to the supply line downstream of the pressure relief orifice and upstream of the separator tank, wherein in response to reducing the motor speed to the low idle speed, the controller reduces the pressure of compressed air in the separator tank, and wherein the controller reduces the pressure of compressed air in the separator tank by opening the valve to vent compressed air through the return line and out the pressure relief orifice.
A method comprising: establishing a read and write window budget for a two level memory, 2LM, system including a first level memory and a second level memory, the read and write window budget including a combination of a first set of memory addresses and a second set of memory addresses of the second level memory, the first set of memory addresses associated with non-volatile memory cells having wider cell threshold voltage distributions compared to cell threshold voltage distributions for non-volatile memory cells associated with the second set of memory addresses, wherein the read and write window budget is based on meeting both completion time and acceptable error rate requirements for fulfilling read or write requests; receiving a write request to write data to the 2LM system; and causing the data to be written to the second level memory based on the read and write window budget. establishing a read and write window budget for a two level memory, 2LM, system including a first level memory and a second level memory, the read and write window budget including a combination of a first set of memory addresses and a second set of memory addresses of the second level memory, the first set of memory addresses associated with non-volatile memory cells having wider cell threshold voltage distributions compared to cell threshold voltage distributions for non-volatile memory cells associated with the second set of memory addresses, wherein the read and write window budget is based on meeting both completion time and acceptable error rate requirements for fulfilling read or write requests; receiving a write request to write data to the 2LM system; and causing the data to be written to the second level memory based on the read and write window budget.