mhurhangee/patent-ind-claim-en huggingface dataset:
An infusion system for being operatively connected to a fluid delivery line and to an infusion container containing an infusion fluid, the infusion system comprising: a pump ; a plurality of different types of sensors connected to the pump or the fluid delivery line, the plurality of different types of sensors configured to indicate whether air is in the fluid delivery line, wherein the plurality of different types of sensors comprise an air sensor and a force sensor; at least one processor in electronic communication with the pump and the plurality of different types of sensors; and a memory in electronic communication with the at least one processor, wherein the memory comprises programming code for execution by the at least one processor, and the programming code is configured to, based on measurements taken by the plurality of different types of sensors, determine the following: whether there is air in the fluid delivery line; whether there is a partial occlusion or total occlusion in the fluid delivery line; or a percentage of the air present in the fluid delivery line or the probability of the air being in the fluid delivery line; characterized in that the programming code is further configured to adjust a sensitivity of measurements determined from the air sensor based on a measurement determined from the force sensor. a pump ; a plurality of different types of sensors connected to the pump or the fluid delivery line, the plurality of different types of sensors configured to indicate whether air is in the fluid delivery line, wherein the plurality of different types of sensors comprise an air sensor and a force sensor; at least one processor in electronic communication with the pump and the plurality of different types of sensors; and a memory in electronic communication with the at least one processor, wherein the memory comprises programming code for execution by the at least one processor, and the programming code is configured to, based on measurements taken by the plurality of different types of sensors, determine the following: whether there is air in the fluid delivery line; whether there is a partial occlusion or total occlusion in the fluid delivery line; or a percentage of the air present in the fluid delivery line or the probability of the air being in the fluid delivery line; whether there is air in the fluid delivery line; whether there is a partial occlusion or total occlusion in the fluid delivery line; or a percentage of the air present in the fluid delivery line or the probability of the air being in the fluid delivery line; characterized in that the programming code is further configured to adjust a sensitivity of measurements determined from the air sensor based on a measurement determined from the force sensor.
A beverage preparation device, comprising an extraction head (100/100a), the extraction head (100/100a) comprises a frame , a capsule holder (20/20a), a push plate (30/30a) and a closing mechanism (40/40a), the capsule holder (20/20a) is disposed on the frame , the push plate (30/30a) covers the capsule holder ((20/20a), a brewing chamber is formed between the push plate (30/30a) and the capsule holder (20/20a), and the closing mechanism (40/40a) is connected to the push plate (30/30a), wherein the closing mechanism (40/40a) comprises a flap , a crank , a connecting assembly , and a push shaft fixedly connected to the push plate (30/30a), the crank is disposed on the flap , the connecting assembly is rotatably connected to the crank , and when the flap is moved, the push shaft moves relative to the capsule holder (20/20a), to seal or open the brewing chamber; characterized in that the push plate (30/30a) comprises at least one lancet (32/32a) extending into the brewing chamber, and the at least one lancet (32/32a) is configured to pierce a capsule located in the brewing chamber; the extraction head (100/100a) further comprises a propulsion compensation mechanism , the propulsion compensation mechanism is configured to push the push plate (30/30a) on the capsule holder (20/20a), the propulsion compensation mechanism comprises a first housing and a second housing , the first housing is extended upward from a side of the push plate (30/30a) which is away from the capsule holder (20/20a), the second housing covers the first housing and is connected to the push plate (30/30a), the first housing and the second housing form a sealed chamber, a water inlet is disposed on the second housing and configured for connecting to a water injection pipe, the at least one lancet (32/32a) passes through the first housing and extends towards the capsule holder (20/20a), the first housing further comprises an unidirectional pressure-holding seal assembly which is disposed in a connecting passage between the lancet (32/32a) and the sealed chamber, and the unidirectional pressure-maintaining seal assembly is configured for one-way water injection to the connecting passage and maintaining pressure
A fusion protein comprising (a) an extracellular domain containing a polypeptide derived from PD-1 at its N-terminus; (b) a transmembrane domain derived from PD-1, wherein said transmembrane domain comprises the amino acid sequence of SEQ ID NO: 8; and (c) an intracellular domain containing a polypeptide derived from 4-1BB at its C-terminus, wherein said intracellular domain comprises an amino acid sequence with 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10 amino acid substitutions, deletions, and/or insertions compared to the amino acid sequence of SEQ ID NO: 4, wherein said fusion protein is capable of increasing the proliferation rate of a CD8 + T cell when transduced, transformed or otherwise introduced into said CD8 + T cell upon stimulation of said CD8 + T cell with a PD-L1/L2 + target cell. (a) an extracellular domain containing a polypeptide derived from PD-1 at its N-terminus; (b) a transmembrane domain derived from PD-1, wherein said transmembrane domain comprises the amino acid sequence of SEQ ID NO: 8; and (c) an intracellular domain containing a polypeptide derived from 4-1BB at its C-terminus, wherein said intracellular domain comprises an amino acid sequence with 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10 amino acid substitutions, deletions, and/or insertions compared to the amino acid sequence of SEQ ID NO: 4,
A connecting device (2-2""') for connecting a conveying carriage (1-1""') to a drive chain , having: - a swivel lever (6-6'"") which can be connected swivelably to the conveying carriage (1-1"'"); - a chain attachment (8-8'"") which can be connected to the drive chain ; and - an articulated connection (10-10""') which connects the swivel lever (6-6""') and the chain attachment (8-8""'); wherein the articulated connection (10-10""') has three rotational degrees of freedom between the swivel lever (6-6"'") and the chain attachment (8-8'""), wherein the swivel lever (6-6""') has a swivel joint (12; 12"; 12""; 12"'") for connecting to the conveying carriage (1-1""'), wherein in an installation state the swivel lever (6-6"'") can be swiveled relative to the conveying carriage (1-1'"") in a horizontal plane by means of the swivel joint (12; 12"; 12""; 12'""). - a swivel lever (6-6'"") which can be connected swivelably to the conveying carriage (1-1"'"); - a chain attachment (8-8'"") which can be connected to the drive chain ; and - an articulated connection (10-10""') which connects the swivel lever (6-6""') and the chain attachment (8-8""');
A method of emitting two or more compositions from a refill , the refill including a container having a body forming a reservoir and an opening in communication with the reservoir , a first composition disposed within the reservoir, a second composition disposed within the reservoir and substantially separated from the first composition , a wick extending out of the container , and a sheath disposed about an entire perimeter of the wick along a majority of a length of a portion of the wick disposed within the reservoir such that a bottom portion of the wick is exposed only to the first composition prior to emission of either the first or second compositions , wherein the method comprising the steps of: emitting the first composition until the first composition is substantially depleted; emitting the second composition after the first composition is substantially depleted; and wherein the first and second compositions comprise different active materials or a same active material at different intensity levels, thereby acting as an indicator to indicate that emission of the second composition has commenced and wherein the active material(s) is a fragrance and the first composition is a water-based fragrance and the second composition is an oil-based fragrance. emitting the first composition until the first composition is substantially depleted; emitting the second composition after the first composition is substantially depleted; and wherein the first and second compositions comprise different active materials or a same active material at different intensity levels, thereby acting as an indicator to indicate that emission of the second composition has commenced and wherein the active material(s) is a fragrance and the first composition is a water-based fragrance and the second composition is an oil-based fragrance.
A motorcycle comprising: a frame , an electric motor supported by the frame , at least a first battery and a second battery for powering the electric motor , said first and second battery being housed respectively inside a first casing and a second casing , said first casing is positioned on the opposite side to the second casing relative to the frame , said frame being interposed between the first and second casings , said electric motorcycle comprising coupling means for fixing said first and second casings to said frame , said frame comprising at least a first supporting element for said first casing extending laterally from said frame and at least a second supporting element for said second casing , said second supporting element extending laterally from said frame on the opposite side with respect to said first supporting element, characterised by said first casing comprising a first structural element and the second casing comprising a second structural element , said first casing being fixed to said frame by the first structural element and said second casing being fixed to said frame by the second structural element , said electric motorcycle comprising a load-bearing structure comprising said frame and said first and second structural elements . a frame , an electric motor supported by the frame , at least a first battery and a second battery for powering the electric motor , said first and second battery being housed respectively inside a first casing and a second casing , said first casing is positioned on the opposite side to the second casing relative to the frame , said frame being interposed between the first and second casings , said electric motorcycle comprising coupling means for fixing said first and second casings to said frame , said frame comprising at least a first supporting element for said first casing extending laterally from said frame and at least a second supporting element for said second casing , said second supporting element extending laterally from said frame on the opposite side with respect to said first supporting element, characterised by said first casing comprising a first structural element and the second casing comprising a second structural element , said first casing being fixed to said frame by the first structural element and said second casing being fixed to said frame by the second structural element , said electric motorcycle comprising a load-bearing structure comprising said frame and said first and second structural elements .
A method for manufacturing a structural component of a blade segment for a segmented rotor blade of a wind turbine , the method comprising: (a) providing a first mold of the structural component, the first mold having an outer wall that defines at least a portion of an inner surface of the structural component; (b) securing at least one tooling pin to the outer wall of the first mold for defining a pin joint slot in the structural component; (c) laying up one or more fiber layers atop the first mold so as to at least partially cover the outer wall, the one or more fiber layers having at least one hole that fits around the at least one tooling pin; (d) infusing the one or more fiber layers together via a first resin material so as to form a first side of the structural component; and, (e) repeating steps (a) through (d) so as to form a second side of the structural component; (f) placing the first and second sides into a second mold in opposite directions such that their respective holes align in a chord-wise direction; and, (g) infusing the first and second sides together in the second mold via a second resin material. (a) providing a first mold of the structural component, the first mold having an outer wall that defines at least a portion of an inner surface of the structural component; (b) securing at least one tooling pin to the outer wall of the first mold for defining a pin joint slot in the structural component; (c) laying up one or more fiber layers atop the first mold so as to at least partially cover the outer wall, the one or more fiber layers having at least one hole that fits around the at least one tooling pin; (d) infusing the one or more fiber layers together via a first resin material so as to form a first side of the structural component; and, (e) repeating steps (a) through (d) so as to form a second side of the structural component; (f) placing the first and second sides into a second mold in opposite directions such that their respective holes align in a chord-wise direction; and, (g) infusing the first and second sides together in the second mold via a second resin material.
An autonomous robot comprising: a robot body defining a forward drive direction (F); a drive system supporting the robot body and configured to maneuver the robot over a surface ; at least one proximity sensor comprising: a sensor body ; a first emitter housed by the sensor body ; a second emitter housed by the sensor body adjacent to the first emitter, and a receiver disposed adjacent the first emitter opposite the second emitter , characterized in that the sensor body includes at least one wall defining a field of view of each of the first and second emitters and the receiver by at least two baffles arranged to define the fields of view of the first emitter, the second emitter and the receiver with respective baffling pinch points. a robot body defining a forward drive direction (F); a drive system supporting the robot body and configured to maneuver the robot over a surface ; at least one proximity sensor comprising: a sensor body ; a first emitter housed by the sensor body ; a second emitter housed by the sensor body adjacent to the first emitter, and a receiver disposed adjacent the first emitter opposite the second emitter , a sensor body ; a first emitter housed by the sensor body ; a second emitter housed by the sensor body adjacent to the first emitter, and a receiver disposed adjacent the first emitter opposite the second emitter , characterized in that the sensor body includes at least one wall defining a field of view of each of the first and second emitters and the receiver by at least two baffles arranged to define the fields of view of the first emitter, the second emitter and the receiver with respective baffling pinch points.
Composition, comprising 30-65 wt.% PVC resin and 10-35 wt.% rice husk powder based on the total amount of the composition, characterized in that 40-70 wt.% of the rice husk powder have a particle size in the range of <150 μm (>100 mesh) and 30-60 wt.% of the rice husk powder have a particle size in the range of 249-150 μm (100 mesh), wherein the particle size is determined by a sieving method in accordance with the description.
A special vertical embedding box for tomographic plastination, wherein comprising two panels oppositely provided and a sealing part provided on the two panels , wherein the sealing part comprises vertical sealing strips and a horizontal sealing strip that are connected between the two panels in a fixed manner, two vertical sealing strips are provided, and the horizontal sealing strip is provided between the lower portions of the two vertical sealing strips and the two panels are fixed by fixing pieces , wherein the two panels are two pieces of tempered glasses; characterized in that the vertical sealing strips and the horizontal sealing strip are made of silica gel and coated directly on one of the two pieces of tempered glasses.
A method of decoding an image, the method comprising: reconstructing a target region and at least one reference region in the image based on information obtained from a bitstream, wherein the target region is encoded after applying at least one of down-sampling or low-pass filtering to the target region, and the at least one reference region is encoded at normal quality or high quality; determining (S310) the at least one reference region to be referenced by the target region; extracting (S320) a reference texture feature from the determined at least one reference region by inputting the at least one reference region to a first convolutional neural network, CNN, configured to extract texture features; post-processing the target region by applying at least one of up-sampling or high-pass filtering to the target region, and changing (S330) pixel values of the post-processed target region based on the reference texture feature by applying the target region and the at least one reference region to a second CNN trained to minimize distance between a texture feature of the target region and the reference texture feature of the at least one reference region, wherein a texture region is determined in the image in consideration of characteristics of the image including pixel values, the texture region being a region having similar texture features, wherein the texture region of the image is split into a plurality of regions in consideration of features of the texture region, and the target region and the at least one reference region selected from among the plurality of regions. reconstructing a target region and at least one reference region in the image based on information obtained from a bitstream, wherein the target region is encoded after applying at least one of down-sampling or low-pass filtering to the target region, and the at least one reference region is encoded at normal quality or high quality; determining (S310) the at least one reference region to be referenced by the target region; extracting (S320) a reference texture feature from the determined at least one reference region by inputting the at least one reference region to a first convolutional neural network, CNN, configured to extract texture features; post-processing the target region by applying at least one of up-sampling or high-pass filtering to the target region, and changing (S330) pixel values of the post-processed target region based on the reference texture feature by applying the target region and the at least one reference region to a second CNN trained to minimize distance between a texture feature of the target region and the reference texture feature of the at least one reference region, wherein a texture region is determined in the image in consideration of characteristics of the image including pixel values, the texture region being a region having similar texture features, wherein the texture region of the image is split into a plurality of regions in consideration of features of the texture region, and the target region and the at least one reference region selected from among the plurality of regions.
A post-treatment system, comprising: a temperature sensor , a three-way valve , a supercharger , a diesel oxide catalyst , and a first selectively catalytic reduction , which are arranged in a main exhaust pipeline in a listed sequence; a bypass pipeline arranged in parallel with the supercharger, wherein an input port of the bypass pipeline is connected to an outlet of the three-way valve, and an output port of the bypass pipeline is connected to a pipeline between the supercharger and the diesel oxide catalyst; a second selectively catalytic reduction arranged in the bypass pipeline; a first spray system for spraying a reductant into a pipeline between the first selectively catalytic reduction and the diesel oxide catalyst; a second spray system for spraying a reductant into a pipeline between the second selectively catalytic reduction and the three-way valve; and a controller connected to the temperature sensor, the three-way valve the first spray system and the second spray system. a temperature sensor , a three-way valve , a supercharger , a diesel oxide catalyst , and a first selectively catalytic reduction , which are arranged in a main exhaust pipeline in a listed sequence; a bypass pipeline arranged in parallel with the supercharger, wherein an input port of the bypass pipeline is connected to an outlet of the three-way valve, and an output port of the bypass pipeline is connected to a pipeline between the supercharger and the diesel oxide catalyst; a second selectively catalytic reduction arranged in the bypass pipeline; a first spray system for spraying a reductant into a pipeline between the first selectively catalytic reduction and the diesel oxide catalyst; a second spray system for spraying a reductant into a pipeline between the second selectively catalytic reduction and the three-way valve; and a controller connected to the temperature sensor, the three-way valve the first spray system and the second spray system.
A method for performing data transmission by a user equipment, UE, in a wireless communication system, the method comprising: receiving, by the UE , a message indicating a change of a Radio resource control, RRC, state from a RRC CONNECTED state to a RRC INACTIVE state, wherein the message includes information related to uplink grants associated with a configured grant, CG, and a threshold related to a time gap; and based on the time gap between a current time and a location of a random access, RA, resource in a time domain being smaller than the threshold, performing, by the UE , the data transmission in the RRC INACTIVE state on the RA resource with ignoring at least one of the uplink grants associated with the CG which is located earlier than the RA resource. receiving, by the UE , a message indicating a change of a Radio resource control, RRC, state from a RRC CONNECTED state to a RRC INACTIVE state, wherein the message includes information related to uplink grants associated with a configured grant, CG, and a threshold related to a time gap; and based on the time gap between a current time and a location of a random access, RA, resource in a time domain being smaller than the threshold, performing, by the UE , the data transmission in the RRC INACTIVE state on the RA resource with ignoring at least one of the uplink grants associated with the CG which is located earlier than the RA resource.
Compressive pants, comprising a front, flat-knitted pants section which forms an abdominal section, and a further pants section which encloses the buttocks in the wearing position, characterized in that the further pants section is a flat-knitted fabric with a fabric edge, which is sewn at the edge onto the front pants section , wherein the flat-knitted fabric consists of at least one knitting thread forming the stitches and of an interposed elastic weft thread and has an upper ground fabric portion , which is adjoined by a buttocks portion having two arches which lie next to each other and, in the wearing position, each receive one half of the buttocks, wherein each arch is formed by several knitted gussets , wherein each gusset comprises several rows of stitches, and the gussets of one arch are knitted with an offset, in the fabric transverse direction, relative to the gussets of the other arch .