mhurhangee/patent-ind-claim-en huggingface dataset:
A method of estimating a flow rate of a phase of a fluid having a plurality of components, the method comprising: polarizing nuclei of the fluid by applying a magnetic field over a plurality of non-identical polarization lengths, wherein a number of the polarization lengths is equal to or greater than a number of the components; selecting a flow velocity and measuring, for the selected flow velocity, a magnetization of the polarized nuclei for each of the plurality of polarization lengths; estimating a relative fraction of each of the plurality of components corresponding to the selected velocity based on the plurality of measured magnetizations; wherein measuring the magnetization of the polarized nuclei comprises pulsing a first coil with a tipping pulse, pulsing a second coil with a refocusing pulse, and measuring an echo resulting from the refocusing pulse with a third coil , wherein a time interval between the tipping pulse and the refocusing pulse used for measuring the echo is defined by the selected velocity and a distance between the first coil and the second coil . polarizing nuclei of the fluid by applying a magnetic field over a plurality of non-identical polarization lengths, wherein a number of the polarization lengths is equal to or greater than a number of the components; selecting a flow velocity and measuring, for the selected flow velocity, a magnetization of the polarized nuclei for each of the plurality of polarization lengths; estimating a relative fraction of each of the plurality of components corresponding to the selected velocity based on the plurality of measured magnetizations; wherein measuring the magnetization of the polarized nuclei comprises pulsing a first coil with a tipping pulse, pulsing a second coil with a refocusing pulse, and measuring an echo resulting from the refocusing pulse with a third coil , wherein a time interval between the tipping pulse and the refocusing pulse used for measuring the echo is defined by the selected velocity and a distance between the first coil and the second coil .
A feeding arrangement for a firewood processor, comprising a feeding surface arranged in connection with the firewood processor for feeding a log into the firewood processor, the feeding surface is connected to the firewood processor , and the feeding surface is arrangeable at least partly inclined, such that a first end of the feeding surface is lower than a second end in a log feeding stage, characterized in that - the feeding arrangement comprises a feeding member , at least one part of which is height adjustable, for transferring the log to the feeding surface, and the feeding member is connected to the feeding surface and/or to the firewood processor, and - the feeding member comprises a shaft part and a feeding part connected to an end of the shaft part for providing movement of the log , and the feeding part comprises at least one feeding roller for moving the log forward. - the feeding arrangement comprises a feeding member , at least one part of which is height adjustable, for transferring the log to the feeding surface, and the feeding member is connected to the feeding surface and/or to the firewood processor, and - the feeding member comprises a shaft part and a feeding part connected to an end of the shaft part for providing movement of the log , and the feeding part comprises at least one feeding roller for moving the log forward.
A high and low-pressure integrated air pump , comprising: a housing including an air inlet and an air outlet ; a high-pressure pump disposed within the housing , in fluid communication with the air inlet and in fluid communication with the air outlet via a first outlet passage ; and a low-pressure pump disposed within the housing , in fluid communication with the air inlet and in fluid communication with the air outlet via a second outlet passage ; a pressure valve disposed between the low-pressure pump and the air outlet , the pressure valve including: a signal switch in communication with a control circuit , a diaphragm in fluid communication with the low-pressure pump , and a trigger disposed between and in communication with the signal switch and the diaphragm , wherein, when the pressure within the low-pressure pump reaches a threshold, the trigger is biased toward the signal switch and triggers the signal switch to send a signal to the control circuit , wherein the signal switch and the control circuit are configured to cooperate to automatically disengage the low-pressure pump and engage the high-pressure pump in response to the signal. a housing including an air inlet and an air outlet ; a high-pressure pump disposed within the housing , in fluid communication with the air inlet and in fluid communication with the air outlet via a first outlet passage ; and a low-pressure pump disposed within the housing , in fluid communication with the air inlet and in fluid communication with the air outlet via a second outlet passage ; a pressure valve disposed between the low-pressure pump and the air outlet , the pressure valve including: a signal switch in communication with a control circuit , a diaphragm in fluid communication with the low-pressure pump , and a trigger disposed between and in communication with the signal switch and the diaphragm , a signal switch in communication with a control circuit , a diaphragm in fluid communication with the low-pressure pump , and a trigger disposed between and in communication with the signal switch and the diaphragm , wherein, when the pressure within the low-pressure pump reaches a threshold, the trigger is biased toward the signal switch and triggers the signal switch to send a signal to the control circuit , wherein the signal switch and the control circuit are configured to cooperate to automatically disengage the low-pressure pump and engage the high-pressure pump in response to the signal.
Nanofibers made of chitosan or a mixture of chitosan/gelatine, wherein the chitosan is chemically modified by methacrylate groups.
Elevator system comprising a car , a counterweight , at least one support means which at least partly supports the car and the counterweight and by means of which the car and the counterweight are interconnected, and comprising a compensating element for compensating for the weight of the support means , the compensating element comprising at least one belt (24, 26, 124 to 130, 224, 226), characterized in that the belt (24, 26, 124 to 130, 224, 226) is a discarded belt (24, 26, 124 to 130, 224, 226) that was previously used as a support means for a car of an elevator system, or the belts (24, 26, 124 to 130, 224, 226) are discarded belts (24, 26, 124 to 130, 224, 226) that were previously used as support means for cars of elevator systems.
Apparatus for controlling a brake device of a rail vehicle, having a characteristic curve changing device (13; 404) for varying a pressure characteristic curve of the brake device in a manner dependent on a friction characteristic of a brake pad type used in the brake device, and having a determining device (11; 403) for determining the friction characteristic on the basis of a control signal (BS) which indicates the selected brake pad type.
A composition for use in preventing or treating a viral infection in a patient comprising: a 3-alkyl pyridinium compound, or a pharmaceutically acceptable salt thereof, comprising a moiety represented by Formula : wherein R 1 is a saturated or unsaturated bivalent hydrocarbon group, wherein the N atom of the pyridine ring is covalently bonded to another R1, wherein the 3-alkyl pyridinium compound, or pharmaceutically acceptable salt, is a dimer, oligomer, or polymer with the Formula moiety repeated, and wherein the 3-alkyl pyridinium compound, or pharmaceutically acceptable salt is a cyclic compound. wherein R 1 is a saturated or unsaturated bivalent hydrocarbon group, wherein the N atom of the pyridine ring is covalently bonded to another R1, wherein the 3-alkyl pyridinium compound, or pharmaceutically acceptable salt, is a dimer, oligomer, or polymer with the Formula moiety repeated, and wherein the 3-alkyl pyridinium compound, or pharmaceutically acceptable salt is a cyclic compound.
A kinematic rail mount for mounting a device on a rail , the rail including a topmost surface and an under surface along opposing sides of the rail , the mount comprising: a frame having a length along a first direction (y), a width along a second direction (x), and a height along a third direction (z); and a clamp , wherein the clamp is operatively connected to the frame to be slidable along the second direction (x), the frame has a first end portion (A) and a second end portion (C) arranged along the first direction (y) and an intermediate portion (B) disposed between the first and second end portions (A, C), characterized in that : the clamp includes a guide disposed in a channel formed in the intermediate portion (B) of the frame , the first end portion (A) and second end portion (C) include, respectively, a first raised pad and a second raised pad , each raised pad disposed closer to a first edge of the frame than to a second edge of the frame , the first and second edges being opposing edges extending along the first direction (y), the intermediate portion (B) includes a third raised pad disposed closer to the second edge of the frame than to the first edge of the frame , the frame is configured to contact the topmost surface of the rail by only the first, second and third raised pads of the frame , and a surface of the first raised pad contacting the topmost surface of the rail , a surface of the second raised pad contacting the topmost surface of the rail , and a surface of the third raised pad contacting the topmost surface of the rail are discontinuous with each other. a frame having a length along a first direction (y), a width along a second direction (x), and a height along a third direction (z); and a clamp , wherein the clamp is operatively connected to the frame to be slidable along the second direction (x), the frame has a first end portion (A) and a second end portion (C) arranged along the first direction (y) and an intermediate portion (B) disposed between the first and second end portions (A, C), characterized in that : the clamp includes a guide disposed in a channel formed in the intermediate portion (B) of the frame , the first end portion (A) and second end portion (C) include, respectively, a first raised pad and a second raised pad , each raised pad disposed closer to a first edge of the frame than to a second edge of the frame , the first and second edges being opposing edges extending along the first direction (y), the intermediate portion (B) includes a third raised pad disposed closer to the second edge of the frame than to the first edge of the frame , the frame is configured to contact the topmost surface of the rail by only the first, second and third raised pads of the frame , and a surface of the first raised pad contacting the topmost surface of the rail , a surface of the second raised pad contacting the topmost surface of the rail , and a surface of the third raised pad contacting the topmost surface of the rail are discontinuous with each other.
Hybrid electroslag cladding method, comprising: providing a workpiece to be cladded; guiding a strip electrode onto the surface of the workpiece ; cladding the strip electrode onto the surface of the workpiece using electroslag cladding; guiding a metal cored hybrid electroslag cladding wire into the weld puddle of the strip electrode for controlling the chemical composition of the cladding; characterized by using a strip electrode with a given chemical composition for a first and a second workpiece requiring stainless steel claddings with different cladding compositions, and selecting a first metal cored hybrid electroslag cladding wire for controlling the chemical composition of the cladding of the first workpice and a second metal cored hybrid electroslag cladding wire for controlling the chemical composition of the cladding of the second workpiece , the first metal cored hybrid electroslag cladding wire having a chemical composition that differs from the chemical composition of the second metal cored hybrid electroslag cladding wire . providing a workpiece to be cladded; guiding a strip electrode onto the surface of the workpiece ; cladding the strip electrode onto the surface of the workpiece using electroslag cladding; guiding a metal cored hybrid electroslag cladding wire into the weld puddle of the strip electrode for controlling the chemical composition of the cladding; characterized by using a strip electrode with a given chemical composition for a first and a second workpiece requiring stainless steel claddings with different cladding compositions, and selecting a first metal cored hybrid electroslag cladding wire for controlling the chemical composition of the cladding of the first workpice and a second metal cored hybrid electroslag cladding wire for controlling the chemical composition of the cladding of the second workpiece , the first metal cored hybrid electroslag cladding wire having a chemical composition that differs from the chemical composition of the second metal cored hybrid electroslag cladding wire .
A method which utilizes a fifth generation network including fixed infrastructure providing backhaul access to a wide area network for precision mapping of a physical environment using a plurality of swarm drones , comprising: traversing the physical environment with the plurality of swarm drones ; using one or more sensors respectively coupled to each of the swarm drones , scanning the physical environment to generate environmental data that is associated with a given location in the physical environment; communicating with a remote master drone over respective one or more 5G network links in real time, the communications including the generated environmental data; enabling the remote master drone to determine respective current locations of one or more of the swarm drones using the communications over the 5G network links, wherein the remote master drone is arranged to communicate with the fixed 5G infrastructure and is further arranged as a mobile 5G access point for the plurality of the swarm drones ; deploying the plurality of swarm drones within the physical environment to enable utilization of redundant localization and environmental data to thereby increase precision and confidence in the generated environmental data on a per-location basis within the physical environment; and adjusting a configuration of the 5G network by autonomously changing locations of one or more master drones relative to the fixed 5G infrastructure and to the swarm drone to thereby optimize connectivity and improve location detection of the one or more swarm drones by the remote master drone. traversing the physical environment with the plurality of swarm drones ; using one or more sensors respectively coupled to each of the swarm drones , scanning the physical environment to generate environmental data that is associated with a given location in the physical environment; communicating with a remote master drone over respective one or more 5G network links in real time, the communications including the generated environmental data; enabling the remote master drone to determine respective current locations of one or more of the swarm drones using the communications over the 5G network links, wherein the remote master drone is arranged to communicate with the fixed 5G infrastructure and is further arranged as a mobile 5G access point for the plurality of the swarm drones ; deploying the plurality of swarm drones within the physical environment to enable utilization of redundant localization and environmental data to thereby increase precision and confidence in the generated environmental data on a per-location basis within the physical environment; and adjusting a configuration of the 5G network by autonomously changing locations of one or more master drones relative to the fixed 5G infrastructure and to the swarm drone to thereby optimize connectivity and improve location detection of the one or more swarm drones by the remote master drone.
An air conditioner in which each of a plurality of outdoor units is connected to an indoor unit via an interunit pipe , each outdoor unit is operated and indoor air conditioning is performed by the indoor unit , wherein the plurality of outdoor units comprise a GHP outdoor unit including a GHP compressor that is driven by an engine and an EHP outdoor unit including an EHP compressor that is driven by a commercial power source, wherein the air conditioner includes a controller that sends a control instruction signal to each of the GHP outdoor unit , the EHP outdoor unit and the indoor unit , and wherein the controller includes a controller control section configured to generally control a GHP control section , an EHP control section and an indoor control section , characterized in that the controller control section is configured to set the GHP control section to a master, and to set the EHP control section and the indoor control section to slaves, to transmit the control instruction signal from the controller control section first to the GHP control section , and to transmit this control instruction signal is sequentially from the GHP control section to the EHP control section and the indoor control section , wherein during operation of the EHP outdoor unit the controller control section is further configured to send a start signal to start the GHP outdoor unit , and when the start of the GHP outdoor unit is completed, the GHP control section is configured to send a stop instruction signal to the EHP control section , and based on this stop instruction signal, the EHP control section is configured to control and to stop the EHP outdoor unit . wherein the plurality of outdoor units comprise a GHP outdoor unit including a GHP compressor that is driven by an engine and an EHP outdoor unit including an EHP compressor that is driven by a commercial power source, wherein the air conditioner includes a controller that sends a control instruction signal to each of the GHP outdoor unit , the EHP outdoor unit and the indoor unit , and wherein the controller includes a controller control section configured to generally control a GHP control section , an EHP control section and an indoor control section , characterized in that the controller control section is configured to set the GHP control section to a master, and to set the EHP control section and the indoor control section to slaves, to transmit the control instruction signal from the controller control section first to the GHP control section , and to transmit this control instruction signal is sequentially from the GHP control section to the EHP control section and the indoor control section , wherein during operation of the EHP outdoor unit the controller control section is further configured to send a start signal to start the GHP outdoor unit , and when the start of the GHP outdoor unit is completed, the GHP control section is configured to send a stop instruction signal to the EHP control section , and based on this stop instruction signal, the EHP control section is configured to control and to stop the EHP outdoor unit .
A mobile measuring apparatus comprising: a mobile object ; and a measuring device mounted on the back side of the mobile object, the measuring device comprising a light shield and a measuring device body , wherein the measuring device body is provided with an image-capturing device configured to capture an image of a road surface in order to measure road surface conditions, wherein the light shield is disposed over an upper surface of the mobile object and an upper surface of the measuring device body and covers the gap between the mobile object and the measuring device body, as viewed from above the mobile measuring apparatus, and the light shield is configured to block light from a light source from passing through the gap between the mobile object and the measuring device body , so as to prevent a shadow of the measuring device body with a complicated shape from being generated on the road surface by light from the light source and from appearing in the captured image, thereby forming a shadow of a simplified shape on the road surface, which appears in the captured image. a mobile object ; and a measuring device mounted on the back side of the mobile object, the measuring device comprising a light shield and a measuring device body , wherein the measuring device body is provided with an image-capturing device configured to capture an image of a road surface in order to measure road surface conditions, wherein the light shield is disposed over an upper surface of the mobile object and an upper surface of the measuring device body and covers the gap between the mobile object and the measuring device body, as viewed from above the mobile measuring apparatus, and the light shield is configured to block light from a light source from passing through the gap between the mobile object and the measuring device body , so as to prevent a shadow of the measuring device body with a complicated shape from being generated on the road surface by light from the light source and from appearing in the captured image, thereby forming a shadow of a simplified shape on the road surface, which appears in the captured image.
A method for use in a wireless transmit receive unit, WTRU, the method comprising: monitoring a plurality of bandwidth sub bands, BWSBs , in an unlicensed frequency spectrum; the method being characterized in that the method further comprises: receiving configuration information indicating periodic monitoring occasions to be used for monitoring the plurality of BWSBs to determine availability of a channel, wherein the periodic monitoring occasions comprise a set of periodic monitoring occasions associated with a time offset per BWSB, and wherein each BWSB is associated with a different time offset; determining that the channel is available in a BWSB of the plurality of BWSBs based on monitoring the plurality of BWSBs according to the periodic monitoring occasions, wherein each of the plurality of BWSBs is monitored repeatedly until the channel is determined to be available in the BWSB; and transmitting on the BWSB . receiving configuration information indicating periodic monitoring occasions to be used for monitoring the plurality of BWSBs to determine availability of a channel, wherein the periodic monitoring occasions comprise a set of periodic monitoring occasions associated with a time offset per BWSB, and wherein each BWSB is associated with a different time offset; determining that the channel is available in a BWSB of the plurality of BWSBs based on monitoring the plurality of BWSBs according to the periodic monitoring occasions, wherein each of the plurality of BWSBs is monitored repeatedly until the channel is determined to be available in the BWSB; and transmitting on the BWSB .
A virus like particle (VLP) comprising: a.) a recombinant polypeptide consisting of the EDIII domain of each of Dengue virus serotype DENV-1, DENV-2, DENV-3, and DENV-4 linked to the N-terminal of HBsAg wherein the EDIII domains are fused sequentially, N-terminal to C-terminal, in the sequence DENV-1, DENV-3, DENV-4, DENV-2, wherein the amino acid sequence of the EDIII domains of each of Dengue virus serotypes DENV-1, DENV-2, DENV-3, and DENV-4 is SEQ ID No. 1, 2, 3, and 4 respectively; as shown in Figures 4a,b,c and d, respectively and b.) four expression cassettes of HBsAg polypeptide. a.) a recombinant polypeptide consisting of the EDIII domain of each of Dengue virus serotype DENV-1, DENV-2, DENV-3, and DENV-4 linked to the N-terminal of HBsAg wherein the EDIII domains are fused sequentially, N-terminal to C-terminal, in the sequence DENV-1, DENV-3, DENV-4, DENV-2, wherein the amino acid sequence of the EDIII domains of each of Dengue virus serotypes DENV-1, DENV-2, DENV-3, and DENV-4 is SEQ ID No. 1, 2, 3, and 4 respectively; as shown in Figures 4a,b,c and d, respectively and b.) four expression cassettes of HBsAg polypeptide.