mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic transport device, comprising a first side and a second side opposite to each other, the first side being provided with a main drive device , a step drive wheel and a first handrail drive wheel in transmission connection with the main drive device; wherein, the second side is provided with: a step driven wheel ; a second handrail drive wheel in transmission connection with the step driven wheel, wherein a handrail of the automatic transport device wraps around the first handrail drive wheel and the second handrail drive wheel; a first tensioning device and a first transmission member , wherein the first tensioning device is capable of adjusting the movement of the step driven wheel relative to the step drive wheel, thereby maintaining the first transmission member between the step drive wheel and the step driven wheel in tension; a second tensioning device and a second transmission member , wherein the second handrail drive wheel is in transmission connection with the step driven wheel through the second transmission member, and the second tensioning device is capable of maintaining the second transmission member in tension during movement of the step driven wheel; wherein the second tensioning device is a floating gear device acting on the second transmission member, and wherein the floating gear device comprises: a floating body and a first wheel on the floating body, the bottom of the first wheel being wrapped around and supported by the second transmission member, and the floating body being mounted in a track so as to float up and down; and characterized in that ; the floating body further comprises a second wheel , the bottom of which is wrapped around and supported by the second transmission member. a step driven wheel ; a second handrail drive wheel in transmission connection with the step driven wheel, wherein a handrail of the automatic transport device wraps around the first handrail drive wheel and the second handrail drive wheel; a first tensioning device and a first transmission member , wherein the first tensioning device is capable of adjusting the movement of the step driven wheel relative to the step drive wheel, thereby maintaining the first transmission member between the step drive wheel and the step driven wheel in tension; a second tensioning device and a second transmission member , wherein the second handrail drive wheel is in transmission connection with the step driven wheel through the second transmission member, and the second tensioning device is capable of maintaining the second transmission member in tension during movement of the step driven wheel; wherein the second tensioning device is a floating gear device acting on the second transmission member, and wherein the floating gear device comprises: a floating body and a first wheel on the floating body, the bottom of the first wheel being wrapped around and supported by the second transmission member, and the floating body being mounted in a track so as to float up and down; and characterized in that ; the floating body further comprises a second wheel , the bottom of which is wrapped around and supported by the second transmission member.
A method for transmitting a downlink packet to a user equipment, UE , in an idle mode in a mobile communication system in which a gateway is separated into a user plane node and a control plane node , the method comprising: receiving, by the user plane node , an update command message including a preset buffering time from the control plane node ; receiving and buffering, by the user plane node , the downlink packet for the UE ; transmitting, by the user plane node , a notification message of a reception of the downlink packet to the control plane node ; and transmitting, by the user plane node , the buffered downlink packet to the UE through a base station , characterized in that the user plane node delays the notification message of the reception of the downlink packet to the control plane node until the preset buffering time elapses. receiving, by the user plane node , an update command message including a preset buffering time from the control plane node ; receiving and buffering, by the user plane node , the downlink packet for the UE ; transmitting, by the user plane node , a notification message of a reception of the downlink packet to the control plane node ; and transmitting, by the user plane node , the buffered downlink packet to the UE through a base station , characterized in that the user plane node delays the notification message of the reception of the downlink packet to the control plane node until the preset buffering time elapses.
Bearing arrangement for a wind turbine comprising a bearing housing and a drive shaft , whereby the drive shaft is arranged within the bearing housing in an axial direction along a longitudinal axis (A) of the bearing housing , the bearing arrangement further comprising a downwind bearing and an upwind bearing , whereby the downwind bearing and the upwind bearing are arranged between the bearing housing and the drive shaft , wherein the downwind bearing and/or the upwind bearing is a radial fluid bearing comprising multiple radial bearing bodies , multiple radial tiltable support structures secured to the multiple radial bearing bodies , whereby each one of a multiple of radial bearing pads is attached to one of the multiple radial tiltable support structures and the multiple radial bearing pads are arranged about the drive shaft , characterized in that , at least one curved interface plate is attached to at least one of the multiple radial bearing bodies opposite of the radial bearing pad , whereby the interface plate is arranged in contact with a cylindrical seat of the radial fluid bearing, whereby the cylindrical seat is formed in the bearing housing, such that a first interface plate side of the at least one interface plate , which is in contact with the cylindrical seat , has a curvature corresponding to a curvature of the cylindrical seat .
A filter, comprising a metal cavity , at least one metal resonant cavity , and a metal cover covering the metal cavity and the at least one metal resonant cavity , wherein a dielectric waveguide is disposed in the metal cavity , and the dielectric waveguide is electrically connected to the metal cavity ; a resonant rod is disposed in the at least one metal resonant cavity ; and a coupling structure is disposed between the metal cavity and the at least one metal resonant cavity that is neighboring to the metal cavity , the coupling structure comprises a communication area between the metal cavity and the at least one metal resonant cavity and a dielectric body that protrudes into the communication area , the dielectric body is connected to the dielectric waveguide , and the coupling structure is coupled to the resonant rod in the at least one metal resonant cavity ; wherein the dielectric waveguide and the dielectric body are of an integral structure; wherein at least two dielectric resonant cavities are disposed on the dielectric waveguide , the at least two dielectric resonant cavities are coupled together. a dielectric waveguide is disposed in the metal cavity , and the dielectric waveguide is electrically connected to the metal cavity ; a resonant rod is disposed in the at least one metal resonant cavity ; and a coupling structure is disposed between the metal cavity and the at least one metal resonant cavity that is neighboring to the metal cavity , the coupling structure comprises a communication area between the metal cavity and the at least one metal resonant cavity and a dielectric body that protrudes into the communication area , the dielectric body is connected to the dielectric waveguide , and the coupling structure is coupled to the resonant rod in the at least one metal resonant cavity ; wherein the dielectric waveguide and the dielectric body are of an integral structure; wherein at least two dielectric resonant cavities are disposed on the dielectric waveguide , the at least two dielectric resonant cavities are coupled together.
A fluid level sensor for measuring a fill level of a hot melt adhesive within a receiving space that is at least partially defined by a sidewall and configured to receive adhesive to be melted, the fluid level sensor characterized by : a plate element having an electrically driven electrode and a ground electrode operatively connected for measuring a dielectric capacitance of air and adhesive acting as a dielectric between said driven and ground electrodes , said ground electrode adapted to be electrically connected to the sidewall such that the sidewall forms at least a portion of said ground electrode ; and a plurality of fastener mounts connected to said plate element and adapted to receive fasteners for coupling said plate element into adjacent relationship with the sidewall , wherein each of the fastener mounts further includes a mount aperture extending through the plate element from a front face to a rear face , such that the dielectric capacitance measured by said plate element varies with the fill level of the adhesive. a plate element having an electrically driven electrode and a ground electrode operatively connected for measuring a dielectric capacitance of air and adhesive acting as a dielectric between said driven and ground electrodes , said ground electrode adapted to be electrically connected to the sidewall such that the sidewall forms at least a portion of said ground electrode ; and a plurality of fastener mounts connected to said plate element and adapted to receive fasteners for coupling said plate element into adjacent relationship with the sidewall , wherein each of the fastener mounts further includes a mount aperture extending through the plate element from a front face to a rear face , such that the dielectric capacitance measured by said plate element varies with the fill level of the adhesive.
An electronic device comprising: a battery ; a temperature sensor ; a charging circuit configured to charge the battery; a coil antenna ; and at least one processor configured to: measure a temperature corresponding to at least a part of the electronic device by using the temperature sensor , charge the battery depending on a first charging characteristic by using the charging circuit and supply a current to the coil antenna to allow the coil antenna to emit heat, when the temperature is less than a first temperature value, and charge the battery depending on a second charging characteristic by using the charging circuit , when the temperature is between the first temperature value and a second temperature value higher than the first temperature value, after the current is supplied, wherein the first charging characteristic includes a first magnitude of a current used for charging of the battery, and the second charging characteristic includes a second magnitude of the current greater than the first magnitude, and wherein the electronic device further comprises a thermal diffusion sheet attached to the battery and configured to transfer heat, which is emitted from an outside of the battery, to the battery. a battery ; a temperature sensor ; a charging circuit configured to charge the battery; a coil antenna ; and at least one processor configured to: measure a temperature corresponding to at least a part of the electronic device by using the temperature sensor , charge the battery depending on a first charging characteristic by using the charging circuit and supply a current to the coil antenna to allow the coil antenna to emit heat, when the temperature is less than a first temperature value, and charge the battery depending on a second charging characteristic by using the charging circuit , when the temperature is between the first temperature value and a second temperature value higher than the first temperature value, after the current is supplied, measure a temperature corresponding to at least a part of the electronic device by using the temperature sensor , charge the battery depending on a first charging characteristic by using the charging circuit and supply a current to the coil antenna to allow the coil antenna to emit heat, when the temperature is less than a first temperature value, and charge the battery depending on a second charging characteristic by using the charging circuit , when the temperature is between the first temperature value and a second temperature value higher than the first temperature value, after the current is supplied, wherein the first charging characteristic includes a first magnitude of a current used for charging of the battery, and the second charging characteristic includes a second magnitude of the current greater than the first magnitude, and wherein the electronic device further comprises a thermal diffusion sheet attached to the battery and configured to transfer heat, which is emitted from an outside of the battery, to the battery.
A washer comprising - a body , - a tub disposed within the body wherein the washing-drying processes are performed, - a housing disposed on the body , - a dispenser disposed inside the housing and having more than one division wherein the cleaning agents are stored, - a main flushing unit that is disposed within the housing and that is configured to spray water from over the dispenser to wash the inside of the dispenser , - an outlet opening that is disposed on the base of the housing and that opens to the tub , and - an auxiliary flushing unit disposed on the side wall of the housing and extending in the movement direction of the dispenser , wherein the auxiliary flushing unit comprises a channel extending along the side wall of the housing and plurality of headpieces opening into the housing such that the auxiliary flushing unit is configured to directly wash the inside of the housing , characterized by the auxiliary flushing unit comprising a lid that covers the channel and a barrier that is disposed on the lid and that is positioned just before the first headpiece with respect to the flow direction of water. - a body , - a tub disposed within the body wherein the washing-drying processes are performed, - a housing disposed on the body , - a dispenser disposed inside the housing and having more than one division wherein the cleaning agents are stored, - a main flushing unit that is disposed within the housing and that is configured to spray water from over the dispenser to wash the inside of the dispenser , - an outlet opening that is disposed on the base of the housing and that opens to the tub , and - an auxiliary flushing unit disposed on the side wall of the housing and extending in the movement direction of the dispenser , wherein the auxiliary flushing unit comprises a channel extending along the side wall of the housing and plurality of headpieces opening into the housing such that the auxiliary flushing unit is configured to directly wash the inside of the housing ,
A seaweed-based powder comprising at least 80% dry basis of particles of a macroscopic, multicellular marine algae, having a storage modulus (G') of at least 30 Pa as determined on a solution of reconstituted skimmed milk containing 0.3 wt% of said powder relative to the total weight of said solution and wherein said powder has a critical gelling concentration (C 0 ) of at most 0.1 wt%, wherein the skimmed milk was reconstituted by dissolving powdered skimmed milk at 10% w/w in ultrapure water having 18.2 MΩ.cm resistivity, whilst stirring for 4 hours at room temperature, wherein G' and C 0 are measured according to the methods described in "METHODS OF MEASUREMENT" section.
A computer-implemented method to perform video action classification using a trained machine learning, ML, model , the method comprising: receiving a plurality of frames of a video ; inputting the plurality of frames into the trained ML model; extracting, using a backbone network of the trained ML model, spatial features and temporal features from the plurality of frames ; identifying, within the plurality of frames, whether there any actors performing an action in the frames by: applying an actor transformer module of the ML model to the extracted spatial features and temporal features from key frames of the plurality of frames to generate actor queries , and predicting, using the generated actor queries , a bounding box around each actor performing an action; identifying and classifying, when at least one actor is identified, the action being performed in the frames by: applying an action transformer module of the ML model to the extracted spatial features and temporal features and the actor queries generated by the actor transformer module , to generate action queries, and predicting, using the generated action queries, a class for each actor performing the identified and classified action; and matching the identified actors to the identified and classified action. receiving a plurality of frames of a video ; inputting the plurality of frames into the trained ML model; extracting, using a backbone network of the trained ML model, spatial features and temporal features from the plurality of frames ; identifying, within the plurality of frames, whether there any actors performing an action in the frames by: applying an actor transformer module of the ML model to the extracted spatial features and temporal features from key frames of the plurality of frames to generate actor queries , and predicting, using the generated actor queries , a bounding box around each actor performing an action; applying an actor transformer module of the ML model to the extracted spatial features and temporal features from key frames of the plurality of frames to generate actor queries , and predicting, using the generated actor queries , a bounding box around each actor performing an action; identifying and classifying, when at least one actor is identified, the action being performed in the frames by: applying an action transformer module of the ML model to the extracted spatial features and temporal features and the actor queries generated by the actor transformer module , to generate action queries, and predicting, using the generated action queries, a class for each actor performing the identified and classified action; and applying an action transformer module of the ML model to the extracted spatial features and temporal features and the actor queries generated by the actor transformer module , to generate action queries, and predicting, using the generated action queries, a class for each actor performing the identified and classified action; and matching the identified actors to the identified and classified action.
A method for coating a solid wood floor , comprising: providing a solid wood floor , wherein the solid wood floor has two side surfaces defining boundaries of a width dimension (x) of the solid wood floor ; and providing a polyethylene protective film , and adhering the polyethylene protective film to at least one of the two side surfaces ; the method further comprises: forming a paint film on the at least one side surface before adhering the polyethylene protective film to the at least one side surface ; and heating both ends of the at least one side surface after adhering the polyethylene protective film to the at least one side surface , wherein the heating temperature ranges from 400°C to 600°C. providing a solid wood floor , wherein the solid wood floor has two side surfaces defining boundaries of a width dimension (x) of the solid wood floor ; and providing a polyethylene protective film , and adhering the polyethylene protective film to at least one of the two side surfaces ; the method further comprises: forming a paint film on the at least one side surface before adhering the polyethylene protective film to the at least one side surface ; and heating both ends of the at least one side surface after adhering the polyethylene protective film to the at least one side surface , wherein the heating temperature ranges from 400°C to 600°C. forming a paint film on the at least one side surface before adhering the polyethylene protective film to the at least one side surface ; and heating both ends of the at least one side surface after adhering the polyethylene protective film to the at least one side surface , wherein the heating temperature ranges from 400°C to 600°C.
Process for the manufacture of a microcapsule comprising a core of hydrophobic material composed of at least one fragrance and a microcapsule shell which consists essentially of the following monomers in the polymerized form: (a) one or more C 1 -C 24 -alkyl ester(s) of (meth)acrylic acid as monomer A, (b) one or more bi- or polyfunctional monomers as monomer B and (c) optionally, one or more other ethylenically unsaturated monomers as monomer C, wherein the microcapsule is obtained by suspension polymerization, the shear rate for the preparation of the emulsion lies in the range of from 200 to 350rpm, the stirring time for the preparation of the emulsion lies in the range of from 15 min to 180 min and an anchor-type stirring blade is used for the preparation of the emulsion, wherein the mean diameter of the microcapsules is in the range from 25 to 45 μm. (a) one or more C 1 -C 24 -alkyl ester(s) of (meth)acrylic acid as monomer A, (b) one or more bi- or polyfunctional monomers as monomer B and (c) optionally, one or more other ethylenically unsaturated monomers as monomer C, wherein the microcapsule is obtained by suspension polymerization, the shear rate for the preparation of the emulsion lies in the range of from 200 to 350rpm, the stirring time for the preparation of the emulsion lies in the range of from 15 min to 180 min and an anchor-type stirring blade is used for the preparation of the emulsion, wherein the mean diameter of the microcapsules is in the range from 25 to 45 μm.
Exhaust gas cleaning system for cleaning exhaust gas (EG) onboard a ship, which exhaust gas cleaning system comprises a first sub system including a scrubber unit comprising a scrubber arranged to wash the exhaust gas (EG) with a scrubber fluid and a centrifugal separator arranged in communication with the scrubber unit for receiving the scrubber fluid after washing and separate it into a first and a section fraction, which second fraction is more polluted than the first fraction, wherein the scrubber comprises an exhaust gas inlet for receiving the exhaust gas (EG) and an exhaust gas outlet for outputting the washed exhaust gas (EGW), the exhaust gas cleaning system further comprising a second sub system including a membrane filter arranged in communication with the centrifugal separator for receiving the first fraction output from the centrifugal separator and separating it into a third and a fourth fraction, which fourth fraction is more polluted than the third fraction, the exhaust gas cleaning system being characterized in that the centrifugal separator is in communication with the scrubber unit for feeding the first fraction of the scrubber fluid to the scrubber unit .