mhurhangee/ep-ind-claims huggingface dataset:
A formulation in the form of a tablet comprising: about 45% by weight AP-based agent, wherein the alkaline phosphatase -based agent comprises an amino acid sequence of at least 95% identity with any one of SEQ ID NOs: 2, 3, 5, 6, and 7; about 45% by weight sugar, optionally wherein the sugar is lactose; about 10% by weight buffer salts, optionally selected from Tris, MgCl, and ZnSO 4; and about 1% by weight magnesium stearate; optionally further comprising an enteric coating. about 45% by weight AP-based agent, wherein the alkaline phosphatase -based agent comprises an amino acid sequence of at least 95% identity with any one of SEQ ID NOs: 2, 3, 5, 6, and 7; about 45% by weight sugar, optionally wherein the sugar is lactose; about 10% by weight buffer salts, optionally selected from Tris, MgCl, and ZnSO 4; and about 1% by weight magnesium stearate;
A semiconductor device comprising: an ECC, error correction code, decoder which diagnoses whether or not an error occurs in data transmitted from a transmitting circuit, using an error detection code for that data; an ECC encoder which generates a first error detection code for a first divided piece of data equivalent to a bit range accounting for a part of plural bits configuring the transmitted data and generates a second error detection code for a second divided piece of data equivalent to a bit range accounting for a remaining part of the bits configuring the transmitted data; and a diagnosis circuit which, when no error in the transmitted data has been detected by the ECC decoder, compares a part of the transmitted data corresponding to the first divided piece of data with the first divided piece of data used in generating the first error detection code in the ECC encoder and compares a part of the transmitted data corresponding to the second divided piece of data with the second divided piece of data used in generating the second error detection code in the ECC encoder. an ECC, error correction code, decoder which diagnoses whether or not an error occurs in data transmitted from a transmitting circuit, using an error detection code for that data; an ECC encoder which generates a first error detection code for a first divided piece of data equivalent to a bit range accounting for a part of plural bits configuring the transmitted data and generates a second error detection code for a second divided piece of data equivalent to a bit range accounting for a remaining part of the bits configuring the transmitted data; and a diagnosis circuit which, when no error in the transmitted data has been detected by the ECC decoder, compares a part of the transmitted data corresponding to the first divided piece of data with the first divided piece of data used in generating the first error detection code in the ECC encoder and compares a part of the transmitted data corresponding to the second divided piece of data with the second divided piece of data used in generating the second error detection code in the ECC encoder.
An aspirating detector system comprising: a detector including, a chamber having an inlet and an outlet for flow of an analyte, a light source adjacent the chamber, the light source, when operated, emitting a laser light beam through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a controller connected to receive the sensor signals, the controller configured to determine whether a target substance is present in the analyte based on an intensity of the received light via the sensor signals. a detector including, a chamber having an inlet and an outlet for flow of an analyte, a light source adjacent the chamber, the light source, when operated, emitting a laser light beam through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a chamber having an inlet and an outlet for flow of an analyte, a light source adjacent the chamber, the light source, when operated, emitting a laser light beam through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a controller connected to receive the sensor signals, the controller configured to determine whether a target substance is present in the analyte based on an intensity of the received light via the sensor signals.
Method for controlling a voltage feed-in into a low voltage network by means of overall network data, which is obtained from the low voltage network, which has numerous network nodes, by several network nodes, characterised in that at least two redundant control stages (3a, 3b), which are assigned in each case to a network node and in each case to a fixedly assigned priority and are supplied with in each case different network data (4a, 4b) of the low voltage network, wherein the in each case different network data (4a, 4b) comprises measured values measured in each case at a specific point in the low voltage network, wherein the at least two redundant control stages (3a, 3b) are interconnected with a supervisor in such a way that, on the basis of input-side control commands (5a, 5b) of one of the at least two redundant control stages (3a or 3b), this forwards control commands for the voltage feed-in to at least one actuator only when a predetermined quantity of different network data has been collected while taking into account the respective priority of at least one of the at least two redundant control stages (3a or 3b), and in that the at least two redundant control stages (3a, 3b) in each case send an item of status information to the supervisor, which specifies whether the respective control stage (3a, 3b) of the at least two redundant control stages (3a, 3b) has collected the predetermined quantity of different network data (4a, 4b).
A network equipment test device for frequency selective channel modeling to test the response of a device under test, the network equipment test device comprising: at least one processor; a user equipment, UE, emulator implemented by the at least one processor and configured to emulate a plurality of UEs that attach to and communicate with a device under test; and a frequency selective channel modeler configured to receive resource scheduling information for the UEs from the device under test, to determine channel performance categories for the emulated UEs using a table that maps resource blocks assigned to the emulated UEs to first, second, and third channel performance categories, where groups of the resource blocks are assigned to the first, second, and third channel performance categories, to determine values of channel quality indicator, CQI, uplink power, and downlink block error rate, BLER, for the emulated UEs using a table that maps the first channel performance category to first values of the CQI, uplink power, and downlink BLER, the second performance category to second values of the CQI, uplink power, and downlink BLER, and the third channel performance category to third values of the CQI, uplink power, and downlink BLER, wherein the emulated UEs communicate the values of the CQI, uplink power, and downlink BLER to the device under test. at least one processor; a user equipment, UE, emulator implemented by the at least one processor and configured to emulate a plurality of UEs that attach to and communicate with a device under test; and a frequency selective channel modeler configured to receive resource scheduling information for the UEs from the device under test, to determine channel performance categories for the emulated UEs using a table that maps resource blocks assigned to the emulated UEs to first, second, and third channel performance categories, where groups of the resource blocks are assigned to the first, second, and third channel performance categories, to determine values of channel quality indicator, CQI, uplink power, and downlink block error rate, BLER, for the emulated UEs using a table that maps the first channel performance category to first values of the CQI, uplink power, and downlink BLER, the second performance category to second values of the CQI, uplink power, and downlink BLER, and the third channel performance category to third values of the CQI, uplink power, and downlink BLER, wherein the emulated UEs communicate the values of the CQI, uplink power, and downlink BLER to the device under test.
A modular constructed building comprising a plurality of ground beams and one or more wall panels, each said ground beam having a pair of surfaces (34, 35) for supporting said one or more wall panels and a longitudinally extending male projection interspaced between said surfaces, said projection being formed as a vertically extending flat plate and capable of being at least partially inserted into a said wall panel, and securing means for securing said one or more wall panels to one of said respective ground beams, wherein each of said wall panels, at an end opposite said ground beam when the flat plate is inserted into the wall panel, has a lateral groove for a protrusion of a T-shaped or an X-shaped member, and wherein an upper end of each of said wall panels is retained together by additional means extending through each of said wall panels for either said T-shaped member or said X-shaped member.
A method for delivering network operator advertisements to a mobile terminal in association with providing requested content from a content delivery network, said method being implemented in a network node within a wireless communication network supporting said mobile terminal, said method comprising: receiving a content request directed to locally-cached content from the content delivery network, said locally-cached content being stored in a local cache associated with the network node; determining that the requested content includes or is associated with an advertisement placeholder and in response thereto sending an advertisement identification request to an external advertisement server, said advertisement ID request including a network operator ID; receiving an advertisement ID from the advertisement server responsive to said advertisement ID request; mapping the advertisement ID to a network operator advertisement indexed by said advertisement ID; dynamically linking the network operator advertisement to the requested content; and delivering the requested content, including said network operator advertisement, to the mobile terminal. receiving a content request directed to locally-cached content from the content delivery network, said locally-cached content being stored in a local cache associated with the network node; determining that the requested content includes or is associated with an advertisement placeholder and in response thereto sending an advertisement identification request to an external advertisement server, said advertisement ID request including a network operator ID; receiving an advertisement ID from the advertisement server responsive to said advertisement ID request; mapping the advertisement ID to a network operator advertisement indexed by said advertisement ID; dynamically linking the network operator advertisement to the requested content; and delivering the requested content, including said network operator advertisement, to the mobile terminal.
An apparatus for sensing a process variable, the apparatus comprising: a housing; a process variable sensor having an electrical characteristic that changes with a process variable; a first sealed portion configured to be exposed to a process fluid, and wherein the process variable sensor is mounted relative to the first sealed portion; a second sealed portion coupling the first sealed portion to the housing, the second sealed portion having at least one seal that fluidically isolates the first sealed portion from the housing, characterized in that the second sealed portion includes a pressure port (138, 140) coupled to an interior of the second sealed portion. a housing; a process variable sensor having an electrical characteristic that changes with a process variable; a first sealed portion configured to be exposed to a process fluid, and wherein the process variable sensor is mounted relative to the first sealed portion; a second sealed portion coupling the first sealed portion to the housing, the second sealed portion having at least one seal that fluidically isolates the first sealed portion from the housing, characterized in that the second sealed portion includes a pressure port (138, 140) coupled to an interior of the second sealed portion.
A system for use in automation technology comprising: an Ethernet-enabled field device configured to measure a physical variable, and to generate data representative of the measured physical variable; an Ethernet cable connectable/connected to said field device, wherein said Ethernet cable having Power over Ethernet, PoE, capability so as to both transmit the data from the field device as well as supply power to the field device over the Ethernet cable; and a power sourcing equipment with at least a first output port to which said Ethernet cable is connectable/connected, characterized in that said power sourcing equipment is arranged so that an input alternating voltage (U in) is transformed to a first alternating output voltage (U out), which is provided at said first output port to supply power to the field device over said Ethernet cable. an Ethernet-enabled field device configured to measure a physical variable, and to generate data representative of the measured physical variable; an Ethernet cable connectable/connected to said field device, wherein said Ethernet cable having Power over Ethernet, PoE, capability so as to both transmit the data from the field device as well as supply power to the field device over the Ethernet cable; and a power sourcing equipment with at least a first output port to which said Ethernet cable is connectable/connected, characterized in that said power sourcing equipment is arranged so that an input alternating voltage (U in) is transformed to a first alternating output voltage (U out), which is provided at said first output port to supply power to the field device over said Ethernet cable.
An apparatus for managing fluid in a system for negative-pressure therapy, the apparatus comprising: an exudate container; a solution source; and an instillation regulator (116, 200) fluidly coupled to the exudate container and to the solution source, the instillation regulator (116, 200) configured to be actuated by negative pressure from a negative-pressure source, characterised in that the instillation regulator (116, 200) comprises: a housing configured to be coupled to the exudate container; a piston disposed in the housing and partitioning the housing into the first chamber and a second chamber; a solution inlet port fluidly coupled to the solution source and to the first chamber; a solution outlet port fluidly coupled to the first chamber and suitable to be fluidly coupled to a dressing; and a negative-pressure port fluidly coupled to the second chamber and suitable to be fluidly coupled to the negative pressure source, wherein the piston is actuated by negative-pressure applied to the negative-pressure port during a negative-pressure interval to draw the solution into the first chamber through the solution inlet port and to instill the solution from the first chamber through the solution outlet port during a venting interval. an exudate container; a solution source; and an instillation regulator (116, 200) fluidly coupled to the exudate container and to the solution source, the instillation regulator (116, 200) configured to be actuated by negative pressure from a negative-pressure source, characterised in that the instillation regulator (116, 200) comprises: a housing configured to be coupled to the exudate container; a piston disposed in the housing and partitioning the housing into the first chamber and a second chamber; a solution inlet port fluidly coupled to the solution source and to the first chamber; a solution outlet port fluidly coupled to the first chamber and suitable to be fluidly coupled to a dressing; and a negative-pressure port fluidly coupled to the second chamber and suitable to be fluidly coupled to the negative pressure source, a housing configured to be coupled to the exudate container; a piston disposed in the housing and partitioning the housing into the first chamber and a second chamber; a solution inlet port fluidly coupled to the solution source and to the first chamber; a solution outlet port fluidly coupled to the first chamber and suitable to be fluidly coupled to a dressing; and a negative-pressure port fluidly coupled to the second chamber and suitable to be fluidly coupled to the negative pressure source, wherein the piston is actuated by negative-pressure applied to the negative-pressure port during a negative-pressure interval to draw the solution into the first chamber through the solution inlet port and to instill the solution from the first chamber through the solution outlet port during a venting interval.
A package body comprising a lid material, a container and contents, the lid material consisting of a multilayer body having at least a base layer and a thermal adhesive layer, the thermal adhesive layer being laminated as the outermost layer on one surface of the lid material, and hydrophobic oxide fine particles having an average primary particle diameter of 3 to 100 nm being attached to the outside surface where the thermal adhesive layer does not adjoin another layer, the hydrophobic oxide fine particles forming a porous layer having a three-dimensional network structure, and the container being filled with contents, and sealed with the opening of the container in contact with the thermal adhesive layer of the lid material, wherein the amount of the hydrophobic oxide fine particles attaching to the thermal adhesive layer is 0.01 to 10 g/m 2.
A cooling device for cooling at least two power electronic devices by a working fluid, the cooling device comprising: - A Pulsating Heat Pipe circuit system (10, 30, 50; 60) having tubes of capillary dimension for the working fluid enabling the working fluid to perform thermofluidic transport by Pulsating Heat Pipe action; - A heat receiver arrangement comprising a heat receiver portion of the Pulsating Heat Pipe circuit system (10; 60) and - A heat dissipator arrangement comprising a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein the Pulsating Heat Pipe circuit system (10, 30, 50; 60) connects the heat receiver portion with the heat dissipator portion for transferring heat from the heat receiver portion to the heat dissipator portion by the Pulsating Heat Pipe action of the working fluid characterised in that: the heat receiver arrangement further comprises a pair of thermo-conducting walls (20, 20a) provided on mutually opposite sides of the heat receiver arrangement and sandwiching the heat receiver portion between them, each of the thermo-conducting walls (20, 20a) being adapted for receiving and for being thermally connected to a respective one of the power electronic devices, wherein the thermo-conducting walls (20, 20a) are thermally coupled to the heat receiver portion such that in an operating state heat is transferred from the power electronic devices through the respective thermo-conducting walls (20, 20a) to the heat receiver portion thereby heating the working fluid. - A Pulsating Heat Pipe circuit system (10, 30, 50; 60) having tubes of capillary dimension for the working fluid enabling the working fluid to perform thermofluidic transport by Pulsating Heat Pipe action; - A heat receiver arrangement comprising a heat receiver portion of the Pulsating Heat Pipe circuit system (10; 60) and - A heat dissipator arrangement comprising a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein a) a heat dissipator portion of the Pulsating Heat Pipe circuit system (10; 60) and b) a plurality of fins thermally coupled to the heat dissipator portion for transferring heat from the heat dissipator portion to an external cooling fluid for cooling the working fluid in the heat dissipator portion, wherein
An optical fiber comprising: a plurality of dopant concentration profiles in a core of the optical fiber; where the plurality of dopant concentration profiles comprises a first dopant concentration profile and a second dopant concentration profile; where the first dopant concentration profile is obtained from a first dopant that increases the refractive index of the core above its base refractive index and the second dopant concentration profile is obtained from a second dopant that decreases the refractive index of the core below its base refractive index; where the first dopant concentration and the second dopant concentration are each varied in a stepwise manner, charaterized in that a ratio of the first dopant concentration to the second dopant concentration is operative to result in an interaction of a fundamental optical mode at a given wavelength with a plurality of acoustic modes thereby increasing a ratio of Brillouin Scattering intensity ratio of a tertiary or a quarternary peak relative to a Brillouin Scattering intensity of a primary peak to be greater than 0.4 in a Brillouin Scattering spectrum. a plurality of dopant concentration profiles in a core of the optical fiber; where the plurality of dopant concentration profiles comprises a first dopant concentration profile and a second dopant concentration profile; where the first dopant concentration profile is obtained from a first dopant that increases the refractive index of the core above its base refractive index and the second dopant concentration profile is obtained from a second dopant that decreases the refractive index of the core below its base refractive index; where the first dopant concentration and the second dopant concentration are each varied in a stepwise manner, charaterized in that a ratio of the first dopant concentration to the second dopant concentration is operative to result in an interaction of a fundamental optical mode at a given wavelength with a plurality of acoustic modes thereby increasing a ratio of Brillouin Scattering intensity ratio of a tertiary or a quarternary peak relative to a Brillouin Scattering intensity of a primary peak to be greater than 0.4 in a Brillouin Scattering spectrum.
A chemical compound represented by Formula Ia selected from the group consisting of: Ia-70 Ia-71 Ia-113 Ia-115 its stereoisomers, tautomers, pharmaceutically acceptable salts, or its isotopic substitutions in which the hydrogen, oxygen or nitrogen atom is replaced by its corresponding isotope.