mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for generating a formaldehyde monomer vapor , comprising: • an effusion tube comprising a first zone and a second zone , wherein the first zone comprises walls of micro-porous metal tube, and a closed end , wherein the second zone comprises non-porous metal tube, and an open end , wherein the two-zone effusion tube is fixtured inside of a larger cylindrical metal jacket with gas entry and exit ports at opposite ends of the jacket , which allows gas to flow over the exterior of the effusion tube , wherein the effusion tube is configured to contain a matrix comprising media containing a parent compound and an inert media , said parent compound being a formaldehyde-generating precursor, preferably a finely-divided paraformaldehyde powder or other formaldehyde-emitting material, and • a heating means for heating the effusion tube , thereby producing a desired gas which exits the open end of the metal jacket . • an effusion tube comprising a first zone and a second zone , wherein the first zone comprises walls of micro-porous metal tube, and a closed end , wherein the second zone comprises non-porous metal tube, and an open end , wherein the two-zone effusion tube is fixtured inside of a larger cylindrical metal jacket with gas entry and exit ports at opposite ends of the jacket , which allows gas to flow over the exterior of the effusion tube , wherein the effusion tube is configured to contain a matrix comprising media containing a parent compound and an inert media , said parent compound being a formaldehyde-generating precursor, preferably a finely-divided paraformaldehyde powder or other formaldehyde-emitting material, and • a heating means for heating the effusion tube , thereby producing a desired gas which exits the open end of the metal jacket .
A method for controlling user experience, UX, operations, comprising: on an electronic device having one or more processors and memory : identifying a first application being executed on the electronic device; identifying a first touchless UX operation associated with the first application, the first UX operation having a first initiation condition including at least detection of a presence in a required proximity range with a first required confidence level, the first required confidence level being selected from a plurality of predetermined confidence levels; the method being characterized in identifying a second application being executed on the electronic device; and identifying a second touchless UX operation associated with the second application, the second UX operation having a second initiation condition including at least detection of a presence in the required proximity range with a second required confidence level; identifying a first sensor signal that is used to determine a proximity of a presence with respect to the electronic device for both the first and second initiation conditions; determining from the first sensor signal the proximity of the presence with respect to the electronic device and an associated confidence level of the determination; determining whether the determined proximity and associated confidence level satisfy the first initiation condition; and in accordance with the determination that the first initiation condition has been satisfied, initializing the first UX operation associated with the first application. identifying a first application being executed on the electronic device; identifying a first touchless UX operation associated with the first application, the first UX operation having a first initiation condition including at least detection of a presence in a required proximity range with a first required confidence level, the first required confidence level being selected from a plurality of predetermined confidence levels; the method being characterized in identifying a second application being executed on the electronic device; and identifying a second touchless UX operation associated with the second application, the second UX operation having a second initiation condition including at least detection of a presence in the required proximity range with a second required confidence level; identifying a first sensor signal that is used to determine a proximity of a presence with respect to the electronic device for both the first and second initiation conditions; determining from the first sensor signal the proximity of the presence with respect to the electronic device and an associated confidence level of the determination; determining whether the determined proximity and associated confidence level satisfy the first initiation condition; and in accordance with the determination that the first initiation condition has been satisfied, initializing the first UX operation associated with the first application.
A rotary control valve comprising: a product end comprising a product housing containing a product rotor and a product stator therein, the product housing comprising a chamber therein for receipt of the product rotor and the product rotor comprising a plurality of cavities configured for alignment with ports in the product stator; an air end comprising an air housing containing an air rotor and an air stator , the air housing comprising a chamber therein for receipt of the air rotor and the air rotor comprising a plurality of cavities configured for alignment with ports in the air stator; a shaft operatively connected to the product rotor and the air rotor; and a motor configured to drive the shaft, characterized in that : both of the chambers are configured to hold pressurized gas therein; wherein the product stator and the air stator enclose their respective rotors within the chambers of the housings ; and wherein driving of the shaft is configured to rotate the product rotor and air rotor relative to their respective stators such that the cavities in each of the rotors selectively align with ports in their respective stators. a product end comprising a product housing containing a product rotor and a product stator therein, the product housing comprising a chamber therein for receipt of the product rotor and the product rotor comprising a plurality of cavities configured for alignment with ports in the product stator; an air end comprising an air housing containing an air rotor and an air stator , the air housing comprising a chamber therein for receipt of the air rotor and the air rotor comprising a plurality of cavities configured for alignment with ports in the air stator; a shaft operatively connected to the product rotor and the air rotor; and a motor configured to drive the shaft, characterized in that : both of the chambers are configured to hold pressurized gas therein; wherein the product stator and the air stator enclose their respective rotors within the chambers of the housings ; and wherein driving of the shaft is configured to rotate the product rotor and air rotor relative to their respective stators such that the cavities in each of the rotors selectively align with ports in their respective stators. both of the chambers are configured to hold pressurized gas therein; wherein the product stator and the air stator enclose their respective rotors within the chambers of the housings ; and wherein driving of the shaft is configured to rotate the product rotor and air rotor relative to their respective stators such that the cavities in each of the rotors selectively align with ports in their respective stators.
A method for coordinating operations of robots performing work on a part, the method comprising: - subdividing, by a controller , the part into regions (132-138); - subdividing each region into multiple sections; - generating a schedule indicating where and when a group of robots will perform work on the part, wherein the schedule including paths for robots that avoid collisions when timed with other robots and the movement of the group of robots is coordinated along the sections in a manner that prevents the robots from operating at the same time in sections that are directly adjacent; - assigning , by the controller , the group of robots to the part, wherein each robot in the group is assigned to a different region of the part; - initiating , by the controller , work on the part via the group of robots in accordance with the schedule; - determining , by the controller that a malfunctioning robot within the group is unable to continue performing work at a first location of the part in accordance with the schedule; - removing the malfunctioning robot from the group while other robots of the group continue performing the work in accordance with the schedule: - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule. - subdividing, by a controller , the part into regions (132-138); - subdividing each region into multiple sections; - generating a schedule indicating where and when a group of robots will perform work on the part, wherein the schedule including paths for robots that avoid collisions when timed with other robots and the movement of the group of robots is coordinated along the sections in a manner that prevents the robots from operating at the same time in sections that are directly adjacent; - assigning , by the controller , the group of robots to the part, wherein each robot in the group is assigned to a different region of the part; - initiating , by the controller , work on the part via the group of robots in accordance with the schedule; - determining , by the controller that a malfunctioning robot within the group is unable to continue performing work at a first location of the part in accordance with the schedule; - removing the malfunctioning robot from the group while other robots of the group continue performing the work in accordance with the schedule: - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule. - adding a functioning robot to the group at a second location of the part that the malfunctioning robot would occupy if the malfunctioning robot had been able to continue working on the part; - continuing work on the part via the group of robots in accordance with the schedule.
A method performed by a first user equipment, UE , in a wireless communication system, wherein the first UE is in a radio resource control, RRC, connected state, the method comprising: transmitting , to a base station, BS , a SidelinkUEInformation message including information related to a sidelink transmission, wherein the information includes a cast type, a destination identifier, a Quality of Service, QoS, flow identifier, QFI, and data rate information; receiving , from the BS , an RRC Reconfiguration message including a radio link control, RLC, configuration, wherein the RLC configuration is configured based on the data rate information included in the SidelinkUEInformation message; and performing the sidelink communication with a second UE , based on the received RLC configuration. transmitting , to a base station, BS , a SidelinkUEInformation message including information related to a sidelink transmission, wherein the information includes a cast type, a destination identifier, a Quality of Service, QoS, flow identifier, QFI, and data rate information; receiving , from the BS , an RRC Reconfiguration message including a radio link control, RLC, configuration, wherein the RLC configuration is configured based on the data rate information included in the SidelinkUEInformation message; and performing the sidelink communication with a second UE , based on the received RLC configuration.
A semiconductor memory device comprising - a stacked transistor structure on a an active region , said stacked transistor structure including stack-type transistors and being used to form single or double stacked memory cells in a memory cell region and comprising a gate oxide layer , a first top gate insulation layer , and a second top gate insulation layer , characterized by - a stacked capacitor structure including a plurality of stack-type capacitors (C1, C2, C3, C4, C5) being used as decoupling capacitors in a peripheral circuit region, wherein each of the decoupling capacitors comprises a dielectric layer , and a first and a second conductive layer disposed above and below the dielectric layer, respectively, wherein one of said dielectric layers is formed by the gate oxide layer , another one of said dielectric layers is formed by the first top gate insulation layer , and another one of said dielectric layers is formed by the second top gate insulation layer , said gate oxide layer and said first and second top gate insulation layers being stacked with gate electrodes of said stack-type transistors in the stacked transistor structure as well as with said first and said second conductive layers of said capacitors in the stacked capacitor structure. - a stacked transistor structure on a an active region , said stacked transistor structure including stack-type transistors and being used to form single or double stacked memory cells in a memory cell region and comprising a gate oxide layer , a first top gate insulation layer , and a second top gate insulation layer , characterized by - a stacked capacitor structure including a plurality of stack-type capacitors (C1, C2, C3, C4, C5) being used as decoupling capacitors in a peripheral circuit region, wherein each of the decoupling capacitors comprises a dielectric layer , and a first and a second conductive layer disposed above and below the dielectric layer, respectively, wherein one of said dielectric layers is formed by the gate oxide layer , another one of said dielectric layers is formed by the first top gate insulation layer , and another one of said dielectric layers is formed by the second top gate insulation layer , said gate oxide layer and said first and second top gate insulation layers being stacked with gate electrodes of said stack-type transistors in the stacked transistor structure as well as with said first and said second conductive layers of said capacitors in the stacked capacitor structure.
An electrochemical sensor for in vivo use, comprising: a substrate which is preferably planar; a working electrode formed on or in the substrate and having multiple working electrode areas exposed for contact with a body fluid; wherein the working electrode areas are preferably spaced along a lengthwise direction of the sensor , a second electrode formed on or in the substrate and having at least one second electrode area exposed for contact with a body fluid, preferably the second electrode comprises multiple second electrode areas; and a counter electrode formed on or in the substrate , the counter electrode comprising at least one counter electrode area exposed for contact with body fluid; characterised in that the multiple working electrode areas , the at least one second electrode area and the at least one counter electrode area are arranged symmetrically relative to each other, so that a symmetrical potential distribution is produced when an AC signal is applied to the sensor and the exposed working electrode areas all have substantially the same potential. a substrate which is preferably planar; a working electrode formed on or in the substrate and having multiple working electrode areas exposed for contact with a body fluid; wherein the working electrode areas are preferably spaced along a lengthwise direction of the sensor , a second electrode formed on or in the substrate and having at least one second electrode area exposed for contact with a body fluid, preferably the second electrode comprises multiple second electrode areas; and a counter electrode formed on or in the substrate , the counter electrode comprising at least one counter electrode area exposed for contact with body fluid; characterised in that the multiple working electrode areas , the at least one second electrode area and the at least one counter electrode area are arranged symmetrically relative to each other, so that a symmetrical potential distribution is produced when an AC signal is applied to the sensor and the exposed working electrode areas all have substantially the same potential.
A drive machinery (M) for an elevator, the drive machinery (M) comprising a rotatable drive sheave for driving plurality of ropes of the elevator, and a motor (m) for rotating the drive sheave ; the drive sheave comprising a drive sheave body rotatable around a rotational axis (X); plurality of rim arrangements mounted on the drive sheave body side by side in direction of said rotational axis (X), each said rim arrangement defining a circular outer rim for transmitting traction to a rope , said circular outer rims being coaxial with each other, characterized in that the diameter (d1,d2) of the circular outer rim of one or more of said rim arrangements is individually adjustable without changing diameters of the rims of the other rim arrangements for enlarging or reducing the turning radius of a rope passing around the circular outer rim in question, wherein said drive sheave comprises an adjusting means for individually adjusting the diameter of the circular outer rim of each of the one or more adjustable rim arrangements , wherein said adjusting means are electrically controllable. a drive sheave body rotatable around a rotational axis (X); plurality of rim arrangements mounted on the drive sheave body side by side in direction of said rotational axis (X), each said rim arrangement defining a circular outer rim for transmitting traction to a rope , said circular outer rims being coaxial with each other, characterized in that the diameter (d1,d2) of the circular outer rim of one or more of said rim arrangements is individually adjustable without changing diameters of the rims of the other rim arrangements for enlarging or reducing the turning radius of a rope passing around the circular outer rim in question, wherein said drive sheave comprises an adjusting means for individually adjusting the diameter of the circular outer rim of each of the one or more adjustable rim arrangements , wherein said adjusting means are electrically controllable.
A computer-implemented method, comprising: receiving a location-based search request from a client application , the location-based search request comprising a geographic area , a search term, and optionally additional data related to searching the geographic area ; determining a plurality of tiles that cover the geographic area , preferably by use of the additional data related to searching the geographic area , each tile of the plurality of tiles covering a portion of the geographic area and comprising a set of locations, wherein the plurality of tiles are configured for being displayed by the client application as an overlay on a map , and the plurality of tiles comprise a first tile and a second tile, the first tile covering a first geographic area, the second tile covering a second geographic area distinct from the first geographic area, wherein the first geographic area is larger than the second geographic area, wherein the first geographic area is constructed as larger than the second geographic area in response to a determination that the first geographic area contains a lower density of locations relevant to the search term than the second geographic area; and transmitting the plurality of tiles to the client application ; receiving a location-based search request from a client application , the location-based search request comprising a geographic area , a search term, and optionally additional data related to searching the geographic area ; determining a plurality of tiles that cover the geographic area , preferably by use of the additional data related to searching the geographic area , each tile of the plurality of tiles covering a portion of the geographic area and comprising a set of locations, wherein the plurality of tiles are configured for being displayed by the client application as an overlay on a map , and the plurality of tiles comprise a first tile and a second tile, the first tile covering a first geographic area, the second tile covering a second geographic area distinct from the first geographic area, wherein the first geographic area is larger than the second geographic area, wherein the first geographic area is constructed as larger than the second geographic area in response to a determination that the first geographic area contains a lower density of locations relevant to the search term than the second geographic area; and transmitting the plurality of tiles to the client application ;
PTC heater for an air conditioning system, in particular of a motor vehicle, - having a plurality of heating devices which are arranged in a stack-like fashion one on top of the other in a stacking direction (S), - wherein each heating device comprises a plurality of electric PTC heating elements which are arranged in a sandwich-like fashion in the stacking direction (S) between a first carrier and a second carrier , wherein a fin structure is arranged between every two heating devices which are adjacent in the stacking direction (S), on which fin structure a first carrier of a heating device and a second carrier of a heating device which is adjacent in the stacking direction (S) are supported, - having a supporting frame which is made of a plastic, surrounds the plurality of heating devices and is embodied as a single-piece injection moulded part, characterized in that the supporting frame is integrally injection moulded onto the heating devices . - having a plurality of heating devices which are arranged in a stack-like fashion one on top of the other in a stacking direction (S), - wherein each heating device comprises a plurality of electric PTC heating elements which are arranged in a sandwich-like fashion in the stacking direction (S) between a first carrier and a second carrier , wherein a fin structure is arranged between every two heating devices which are adjacent in the stacking direction (S), on which fin structure a first carrier of a heating device and a second carrier of a heating device which is adjacent in the stacking direction (S) are supported, - having a supporting frame which is made of a plastic, surrounds the plurality of heating devices and is embodied as a single-piece injection moulded part,
A manual vibrato system, including a manually operated vibrato control device comprising an arm , a rotation sensor to sense rotation of the arm and produce rotation data, and a processor receiving said rotation data, and in response to the rotation data generating pitch change instructions for communication to a pitch modification device , characterized in that the processor is adapted to define a null region of rotation of the arm in one or both directions so that if rotation data falls within said null region, no pitch change instructions are generated; in that the processor is adapted to further define a transition region, separate to the null region; and in that where the location and duration of location of the rotational position of the arm , determined from the rotation data, meet predetermined criteria, the centre position of the arm is redefined in the processor to be a new position, and the null region and transition region are redefined within the processor relative to the new centre position.