mhurhangee/ep-ind-claims huggingface dataset:
A method for producing soot with defined characteristics, for measurement purposes, calibration purposes, examination purposes or filter testing purposes, comprising the method steps • feeding fuel gas and oxidation gas (1, 2) into a combustion chamber, • bringing the fuel gas and oxidation gas to react in the combustion chamber, so that a vertical flame arises, and • setting flow conditions in the combustion chamber so that a gas flow in the flame runs in a non-turbulent manner, characterised in that • a cooling and diluting gas is fed to the combustion chamber after the flame in the flow direction, • wherein the feeding of the cooling and diluting gas is effected from several sides towards a middle of the combustion chamber and without a change of the flow direction of the gas flowing vertically out of the flame. • feeding fuel gas and oxidation gas (1, 2) into a combustion chamber, • bringing the fuel gas and oxidation gas to react in the combustion chamber, so that a vertical flame arises, and • setting flow conditions in the combustion chamber so that a gas flow in the flame runs in a non-turbulent manner, • a cooling and diluting gas is fed to the combustion chamber after the flame in the flow direction, • wherein the feeding of the cooling and diluting gas is effected from several sides towards a middle of the combustion chamber and without a change of the flow direction of the gas flowing vertically out of the flame.
An electrical sensor unit, attachable to an electrical distribution cable and comprising: an elongate annular body formed of an electrically insulating material and defining an axial passage through which an electrical conductor can pass, the annular body housing a current sensor for current being transmitted in the cable, the electrical sensor unit including a loop extending around the axial passage and at least one electrical sensor, for at least one of voltage, and phase angle of electrical power being transmitted in the cable, a source of electrical power for driving the current sensor and the at least one electrical sensor, and a socket in the annular body for releasably receiving a plug-in environmental sensor and comprising connections for the source of electrical power.
A method for identifying devices that are sources of wireless signals from received radio frequency, RF, energy, comprising: receiving RF energy; generating (304, 710) pulse metric data from the received RF energy, the pulse metric data representing characteristics associated with pulses of received RF energy; partitioning (310, 312-316, 320A, 320B, 320C, 324-328, 332-336, 340-344, 350-354, 358-362, 365-366, 369, 370-374, 378-380, 384, 720-750) the pulses into groups based on their pulse metric data, wherein partitioning comprises iteratively subdividing each group into subgroups until all resulting subgroups contain pulses determined to be from a single source, and at each iteration, said subdividing being performed based on different pulse metric data than at a prior iteration; and identifying the sources of the received wireless signals based on the partitioning and generating as output data that identifies a source of wireless signals for any subgroup that is determined to contain pulses from a single source. receiving RF energy; generating (304, 710) pulse metric data from the received RF energy, the pulse metric data representing characteristics associated with pulses of received RF energy; partitioning (310, 312-316, 320A, 320B, 320C, 324-328, 332-336, 340-344, 350-354, 358-362, 365-366, 369, 370-374, 378-380, 384, 720-750) the pulses into groups based on their pulse metric data, wherein partitioning comprises iteratively subdividing each group into subgroups until all resulting subgroups contain pulses determined to be from a single source, and at each iteration, said subdividing being performed based on different pulse metric data than at a prior iteration; and identifying the sources of the received wireless signals based on the partitioning and generating as output data that identifies a source of wireless signals for any subgroup that is determined to contain pulses from a single source.
A self-standing GaN substrate with an angle between the normal of the principal surface and an m-axis of 0 degrees or more and 20 degrees or less, wherein: the size of the projected image in a c-axis direction when the principal surface is vertically projected on an M-plane is 10 mm or more; and when an a-axis length is measured on an intersection line between the principal surface and an A-plane, a low distortion section with a section length of 6 mm or more and with an a-axis length variation within the section of 10.0 × 10 -5 Å or less is observed. the size of the projected image in a c-axis direction when the principal surface is vertically projected on an M-plane is 10 mm or more; and when an a-axis length is measured on an intersection line between the principal surface and an A-plane, a low distortion section with a section length of 6 mm or more and with an a-axis length variation within the section of 10.0 × 10 -5 Å or less is observed.
An ODU, comprising: a controller, a radio frequency processor, a waveguide channel, an antenna, a wave-absorbing block, a detector, and a motor controller, wherein the controller is configured to: obtain target transmit power, first transmit power, and a to-be-transmitted first radio frequency signal, and generate a control signal based on a difference between the target transmit power and the first transmit power, wherein the first transmit power is real-time transmit power obtained by the detector by detecting a second radio frequency signal, transmitted to the antenna, in the waveguide channel; the radio frequency processor is configured to: perform frequency conversion on the first radio frequency signal to obtain the second radio frequency signal, and transmit the second radio frequency signal, wherein the second radio frequency signal is transmitted to the antenna through the waveguide channel, and an opening is disposed on the waveguide channel; the wave-absorbing block has one end located in the waveguide channel and the other end connected to the motor controller through the opening, and is configured to absorb the second radio frequency signal transmitted to a surface of the wave-absorbing block; and the motor controller is configured to drive, according to the control signal, the wave-absorbing block to move, so that the first transmit power is consistent with the target transmit power.
A method for configuring a packet forwarding manner, wherein the method comprises: receiving, by a first control node, CN, a connection establishment request packet from a client device, and acquiring a user attribute according to the request packet, wherein the user attribute includes one or more of the following: a user account, a client device type, and an address of the client device; according to the user attribute and a forwarding policy that is stored in the first CN or an authentication controller, acquiring, by the first CN, a packet forwarding manner corresponding to the client device, wherein the forwarding policy comprises a packet forwarding manner corresponding to the user attribute; and after authentication succeeds, sending, by the first CN, a message carrying the acquired packet forwarding manner to a wireless access point, AP, associated with the client device, so as to instruct the wireless AP to create a forwarding entry of the client device, wherein the forwarding entry comprises the packet forwarding manner. receiving, by a first control node, CN, a connection establishment request packet from a client device, and acquiring a user attribute according to the request packet, wherein the user attribute includes one or more of the following: a user account, a client device type, and an address of the client device; according to the user attribute and a forwarding policy that is stored in the first CN or an authentication controller, acquiring, by the first CN, a packet forwarding manner corresponding to the client device, wherein the forwarding policy comprises a packet forwarding manner corresponding to the user attribute; and after authentication succeeds, sending, by the first CN, a message carrying the acquired packet forwarding manner to a wireless access point, AP, associated with the client device, so as to instruct the wireless AP to create a forwarding entry of the client device, wherein the forwarding entry comprises the packet forwarding manner.
A differential pressure sensor for sensing a differential pressure of a process fluid, comprising: a sensor body (114, 116) having a sensor cavity (132, 134) formed therein having a cavity profile; and a diaphragm in the sensor cavity (132, 134) configured to deflect in response to an applied differential pressure, the diaphragm having a diaphragm profile wherein a gap between the cavity profile and the diaphragm profile changes as a function of the differential pressure; wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body (114, 116) due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body (114, 116) includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure. a sensor body (114, 116) having a sensor cavity (132, 134) formed therein having a cavity profile; and a diaphragm in the sensor cavity (132, 134) configured to deflect in response to an applied differential pressure, the diaphragm having a diaphragm profile wherein a gap between the cavity profile and the diaphragm profile changes as a function of the differential pressure; wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body (114, 116) due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body (114, 116) includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure. wherein the cavity profile and the diaphragm profile change as a function of a line pressure, wherein the cavity profile and the diaphragm profile change to compensate for changes in the gap due to deformation of the sensor body (114, 116) due to the line pressure and thereby compensate for inaccuracies in differential pressure measurements due to the line pressure, wherein the sensor body (114, 116) includes a sensor body deformation cavity which deforms in response to the line pressure, and wherein the diaphragm includes a diaphragm deformation cavity which deforms in response to the line pressure.
A method of detecting a risk of developing obesity, comprising (i) a step of measuring an expression level of FSTL3 gene in a biological sample selected from the group consisting of blood sample, serum sample, plasma sample, visceral fat tissue sample and subcutaneous fat tissue sample derived from an individual having a BMI value less than 25, wherein if the expression level of FSTL3 gene in the biological sample is increased by a certain multiple or more as compared to a standard value S FSTL3, it is determined that the risk of developing obesity is high. (i) a step of measuring an expression level of FSTL3 gene in a biological sample selected from the group consisting of blood sample, serum sample, plasma sample, visceral fat tissue sample and subcutaneous fat tissue sample derived from an individual having a BMI value less than 25, wherein if the expression level of FSTL3 gene in the biological sample is increased by a certain multiple or more as compared to a standard value S FSTL3, it is determined that the risk of developing obesity is high.
Connector element (100a to 100g) for a high-current and/or high-voltage plug type connector in motor vehicle technology, comprising a housing which is constructed in the manner of a pin receptacle, and at least one electrical pin contact element (1a to 1g) for a high-current and/or high-voltage plug type connector in motor vehicle technology, having a free end and having a base which is spaced apart from the free end for fixing the pin contact element (1a to 1g) in the plug type connector, wherein an electrically insulating contact protection member extends as far as the free end so as to form an outer face of a contact protection portion (9, 9') of the pin contact element (1a to 1g), wherein the at least one pin contact element (1a to 1g) is/are at least partially surrounded by a contact protection collar of the connector element (100a to 100g), which collar has, for the pin contact element (1a to 1g), at least one opening (106, 107) in which the at least one contact protection member is located, wherein the at least one contact protection collar is integrally formed with a bottom of the housing, wherein at least one electrically conductive contact member of the pin contact element and the at least one contact protection member are constructed so as to correspond to each other, wherein the at least one contact member and the at least one contact protection member at least partially form surfaces which are aligned with each other, and wherein the at least one contact member is embedded in the at least one contact protection member, characterized in that the at least one contact protection member extends from the base of the pin contact element (1a to 1g) and is integrally formed with the bottom of the housing.
An information processing device arranged to: set, in response to user input, a plurality of predetermined regions (A, B, C) of interest in frame images configuring an input video captured by one imaging device, wherein the user input defines positions of the plurality of predetermined regions of interest; set, in response to the user input, a plurality of detected regions in the frame images, each detected region corresponding to one of the plurality of predetermined regions of interest, wherein a position of each detected region is determined independent of a corresponding position of a corresponding one of the plurality of predetermined regions of interest; and determine a region of interest of the plurality of predetermined regions of interest to be clipped and displayed on a basis of a feature amount of an object in each of the plurality of detected regions determined from the frame images. set, in response to user input, a plurality of predetermined regions (A, B, C) of interest in frame images configuring an input video captured by one imaging device, wherein the user input defines positions of the plurality of predetermined regions of interest; set, in response to the user input, a plurality of detected regions in the frame images, each detected region corresponding to one of the plurality of predetermined regions of interest, wherein a position of each detected region is determined independent of a corresponding position of a corresponding one of the plurality of predetermined regions of interest; and determine a region of interest of the plurality of predetermined regions of interest to be clipped and displayed on a basis of a feature amount of an object in each of the plurality of detected regions determined from the frame images.
A ROCK inhibitor for use in a method for restoring capillary retinal perfusion in a subject suffering from retinal ischemia secondary to diabetic retinopathy, wherein the ROCK inhibitor reduces vessel constriction and endothelial cell intraluminal blebbing.
A computer-implemented method comprising, at a first computing entity (102, 302, 402): determining, based at least in part on a first polynomial and at least two elliptic curve points, a set of elliptic curve points for a second computing entity (104, 304, 404); making a subset of the set of elliptic curve points available to the second computing entity (104, 304, 404); receiving a second set of elliptic curve points generated using a second polynomial; determining a power of a secret based at least in part on the first set and the second set; determining, based at least in part on the power of the secret, a common reference string comprising a verification key (114, 306) and an evaluation key, wherein the common reference string is also determinable by the second computing entity (104, 304, 404) as a result of the first computing entity (102, 302, 402) providing the subset to the second computing entity (104, 304, 404); and generating a smart contract comprising a first transaction input provided by the first computing entity (102, 302, 402) and a second transaction input provided by the second computing entity (104, 304, 404), wherein correct execution of the smart contract by a third computing entity (106, 406) results in the third computing entity (106, 406) being able to generate a blockchain transaction using an output of the smart contract. determining, based at least in part on a first polynomial and at least two elliptic curve points, a set of elliptic curve points for a second computing entity (104, 304, 404); making a subset of the set of elliptic curve points available to the second computing entity (104, 304, 404); receiving a second set of elliptic curve points generated using a second polynomial; determining a power of a secret based at least in part on the first set and the second set; determining, based at least in part on the power of the secret, a common reference string comprising a verification key (114, 306) and an evaluation key, wherein the common reference string is also determinable by the second computing entity (104, 304, 404) as a result of the first computing entity (102, 302, 402) providing the subset to the second computing entity (104, 304, 404); and generating a smart contract comprising a first transaction input provided by the first computing entity (102, 302, 402) and a second transaction input provided by the second computing entity (104, 304, 404), wherein correct execution of the smart contract by a third computing entity (106, 406) results in the third computing entity (106, 406) being able to generate a blockchain transaction using an output of the smart contract.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a master information block, MIB, on a physical broadcast channel, PBCH, the MIB including information on a first subcarrier spacing; receiving, from the base station, a system information block, SIB, based on the first subcarrier spacing, the SIB including information on a second subcarrier spacing; transmitting, to the base station, a random access preamble based on the second subcarrier spacing; and receiving, from the base station, a random access response, RAR, and a message 4, MSG4, associated with a random access procedure based on the first subcarrier spacing. receiving, from a base station, a master information block, MIB, on a physical broadcast channel, PBCH, the MIB including information on a first subcarrier spacing; receiving, from the base station, a system information block, SIB, based on the first subcarrier spacing, the SIB including information on a second subcarrier spacing; transmitting, to the base station, a random access preamble based on the second subcarrier spacing; and receiving, from the base station, a random access response, RAR, and a message 4, MSG4, associated with a random access procedure based on the first subcarrier spacing.
An arrangement for sealing a bellows cylinder in a pressure block of a pressure ring assembly of an electrode system of an electric arc furnace, in the inner surface of which pressure block a cavity is formed and the bellows of the bellows cylinder is located in said cavity, said bellows cylinder being operated by hydraulic fluid to give pressure against a contact shoe of a contact shoe ring arranged on the inside of the pressure ring assembly, the bellows cylinder being sealed to the cavity with a sealing arrangement, characterized in that - on the inner side of the pressure block a sealing bowl is arranged on the bellows, the sealing bowl having an essentially flat surface towards the contact shoe and being provided with a side edge extending into the cavity, - a circumferential groove is made on the side wall of the cavity and a gasket ring made of antimagnetic material is arranged into said groove, and - a sealing ring made of flexible material is arranged around the gasket ring to give tension and pressure on the gasket ring against the side edge of the sealing bowl. - on the inner side of the pressure block a sealing bowl is arranged on the bellows, the sealing bowl having an essentially flat surface towards the contact shoe and being provided with a side edge extending into the cavity, - a circumferential groove is made on the side wall of the cavity and a gasket ring made of antimagnetic material is arranged into said groove, and - a sealing ring made of flexible material is arranged around the gasket ring to give tension and pressure on the gasket ring against the side edge of the sealing bowl.
An apparatus comprising: a network component configured to: receive from a user equipment, UE, a Session Initiation Protocol, SIP, request message for a dialog that is an emergency-related request; update header information of the SIP request message for a dialog; forward the SIP request message for a dialog toward a Public Safety Answering Point, PSAP; and send to the UE a SIP response message in response to the SIP request message for a dialog, characterized by the SIP response message containing a P-Asserted-Identity header field with an indicator indicating that the SIP request message for a dialog, sent by the UE, is an emergency-related request, that the network component is part of a trust domain, and that the UE should include location information in a SIP request message within the dialog in response to the SIP response message. a network component configured to: receive from a user equipment, UE, a Session Initiation Protocol, SIP, request message for a dialog that is an emergency-related request; update header information of the SIP request message for a dialog; forward the SIP request message for a dialog toward a Public Safety Answering Point, PSAP; and send to the UE a SIP response message in response to the SIP request message for a dialog, characterized by the SIP response message containing a P-Asserted-Identity header field with an indicator indicating that the SIP request message for a dialog, sent by the UE, is an emergency-related request, that the network component is part of a trust domain, and that the UE should include location information in a SIP request message within the dialog in response to the SIP response message. receive from a user equipment, UE, a Session Initiation Protocol, SIP, request message for a dialog that is an emergency-related request; update header information of the SIP request message for a dialog; forward the SIP request message for a dialog toward a Public Safety Answering Point, PSAP; and send to the UE a SIP response message in response to the SIP request message for a dialog, characterized by the SIP response message containing a P-Asserted-Identity header field with an indicator indicating that the SIP request message for a dialog, sent by the UE, is an emergency-related request, that the network component is part of a trust domain, and that the UE should include location information in a SIP request message within the dialog in response to the SIP response message.