mhurhangee/patent-ind-claim-en huggingface dataset:
A fingerboard latch assembly comprising: a latch bracket ; a latch rotatably mounted on the latch bracket ; and a sensor unit , the sensor unit being arranged in a recess within the latch that is sealed by a lid or by a body of material within the end of the recess to encapsulate the sensor unit in the latch , the sensor unit comprising: a sensor arranged to sense the orientation of the latch ; and a wireless communication unit arranged to wirelessly communicate the orientation of the latch sensed by the sensor . a latch bracket ; a latch rotatably mounted on the latch bracket ; and a sensor unit , the sensor unit being arranged in a recess within the latch that is sealed by a lid or by a body of material within the end of the recess to encapsulate the sensor unit in the latch , the sensor unit comprising: a sensor arranged to sense the orientation of the latch ; and a wireless communication unit arranged to wirelessly communicate the orientation of the latch sensed by the sensor . a sensor arranged to sense the orientation of the latch ; and a wireless communication unit arranged to wirelessly communicate the orientation of the latch sensed by the sensor .
A data transmission method, comprising: processing (S301), by a transmit end device, a data flow, wherein the processing comprises: adding a flow identifier indication, FII, to a header of a service data adaptation protocol layer-protocol data unit, SDAP PDU, of the data flow, wherein the FII is used to indicate whether a flow identifier, FID, is comprised in the header of the SDAP, and wherein the FII is further used to indicate whether the SDAP header includes an access stratum data flow reflective indication, ARI, and a non-access stratum data flow reflective indication, NRI, wherein if the FII indicates that the SDAP header includes the ARI and the NRI, the SDAP header further contains the ARI and the NRI, and if the FII indicates that the ARI and NRI are not included in the SDAP header, the SDAP header does not contain the ARI and the NRI; and sending (S302), by the transmit end device, the processed data flow. processing (S301), by a transmit end device, a data flow, wherein the processing comprises: adding a flow identifier indication, FII, to a header of a service data adaptation protocol layer-protocol data unit, SDAP PDU, of the data flow, wherein the FII is used to indicate whether a flow identifier, FID, is comprised in the header of the SDAP, and wherein the FII is further used to indicate whether the SDAP header includes an access stratum data flow reflective indication, ARI, and a non-access stratum data flow reflective indication, NRI, wherein if the FII indicates that the SDAP header includes the ARI and the NRI, the SDAP header further contains the ARI and the NRI, and if the FII indicates that the ARI and NRI are not included in the SDAP header, the SDAP header does not contain the ARI and the NRI; and sending (S302), by the transmit end device, the processed data flow.
A method for frame acknowledgement, the method comprising: encapsulating an immediate acknowledgement instruction into a data frame; said immediate acknowledgement instruction being used for instructing a return frame acknowledge response in the next time period; transmitting the data frame having said immediate acknowledgement instruction attached thereto; wherein each physical frame includes a downlink physical period and an uplink physical period successively, and wherein, when transmitting said data frame having the immediate acknowledgement instruction attached thereto in the downlink physical period of a physical frame, said immediate acknowledgement instruction is used for instructing a return frame acknowledge response in the uplink physical period of the physical frame; and when transmitting said data frame having the immediate acknowledgement instruction attached thereto in the uplink physical period of a physical frame, said immediate acknowledgement instruction is used for instructing a return frame acknowledge response in the downlink physical period of the next physical frame. encapsulating an immediate acknowledgement instruction into a data frame; said immediate acknowledgement instruction being used for instructing a return frame acknowledge response in the next time period; transmitting the data frame having said immediate acknowledgement instruction attached thereto; wherein each physical frame includes a downlink physical period and an uplink physical period successively, and wherein, when transmitting said data frame having the immediate acknowledgement instruction attached thereto in the downlink physical period of a physical frame, said immediate acknowledgement instruction is used for instructing a return frame acknowledge response in the uplink physical period of the physical frame; and when transmitting said data frame having the immediate acknowledgement instruction attached thereto in the uplink physical period of a physical frame, said immediate acknowledgement instruction is used for instructing a return frame acknowledge response in the downlink physical period of the next physical frame.
An exercise device for exercising a joint and a limb comprising: an actuation member rotatable about a rotation axis (X), the actuation member including a first portion and a second portion , the second portion is movable in a direction perpendicular to the rotation axis (X); a first load cell having a first end mounted to the second portion and a second end mounted to a support member , the first load cell configured to measure force between the support member and the actuation member ; a foot plate at a distal end of the second portion of the actuation member; a foot plate load cell mounted to the foot plate, the foot plate load cell configured to measure force exerted on the foot plate in a direction away from the rotation axis; and a restrictor configured to restrict movement of the second portion of the actuation member and the foot plate at the distal end thereof in the direction perpendicular to the rotation axis unless force exerted on the foot plate exceeds a predetermined force. an actuation member rotatable about a rotation axis (X), the actuation member including a first portion and a second portion , the second portion is movable in a direction perpendicular to the rotation axis (X); a first load cell having a first end mounted to the second portion and a second end mounted to a support member , the first load cell configured to measure force between the support member and the actuation member ; a foot plate at a distal end of the second portion of the actuation member; a foot plate load cell mounted to the foot plate, the foot plate load cell configured to measure force exerted on the foot plate in a direction away from the rotation axis; and a restrictor configured to restrict movement of the second portion of the actuation member and the foot plate at the distal end thereof in the direction perpendicular to the rotation axis unless force exerted on the foot plate exceeds a predetermined force.
A station for application of fluid media, especially glue, to a substrate , for instance to a blank or a web of material for a cigarette packet, with at least one valve group comprising valves, wherein with each valve of the valve group , fluid medium can be applied in each case in targeted manner to the substrate , wherein each valve is automatically movable in each case from a working position , in which it can apply the fluid medium to the substrate, to a nonworking position , wherein the valve group is made up of redundant valves, each of which when needed may take over the function of another valve of the valve group , and wherein in the event that a first valve of the valve group is moved to the nonworking position , a second valve of the valve group can be moved into a working position instead of the first valve and takes over the function of the first valve, characterized in that each valve of the group is individually swivelable about a common axis of rotation from the respective nonworking position to the respective working position and back, wherein each valve is secured to its own movable pivot arm , assigned to it only, which is swivelable about the common axis of rotation .
A method for transmitting system information between Internet-of vehicles devices, performed by a second Internet-of vehicles device, the method comprising: receiving a physical broadcast channel sent by a first Internet-of-vehicles device via a side link, wherein the physical broadcast channel carries first system information, the first system information comprises an extension indicator which is configured to indicate whether there is second system information outside the physical broadcast channel , and the extension indicator is generated when the first Internet-of vehicles device determines whether the second system information needs to be sent outside the physical broadcast channel; extracting the extension indicator ; obtaining extension configuration information contained in the first system information in response to the extension indicator indicating that the second system information is outside the physical broadcast channel , wherein the extension configuration information is configured to indicate a resource position of the second system information, and the resource position indicated by the extension configuration information is a resource position other than a resource position occupied by the physical broadcast channel; receiving the second system information sent by the first Internet-of vehicles device based on the resource position of the second system information; and not performing the receiving of the second system information in response to the extension indicator indicating that there is no second system information. receiving a physical broadcast channel sent by a first Internet-of-vehicles device via a side link, wherein the physical broadcast channel carries first system information, the first system information comprises an extension indicator which is configured to indicate whether there is second system information outside the physical broadcast channel , and the extension indicator is generated when the first Internet-of vehicles device determines whether the second system information needs to be sent outside the physical broadcast channel; extracting the extension indicator ; obtaining extension configuration information contained in the first system information in response to the extension indicator indicating that the second system information is outside the physical broadcast channel , wherein the extension configuration information is configured to indicate a resource position of the second system information, and the resource position indicated by the extension configuration information is a resource position other than a resource position occupied by the physical broadcast channel; receiving the second system information sent by the first Internet-of vehicles device based on the resource position of the second system information; and not performing the receiving of the second system information in response to the extension indicator indicating that there is no second system information.
A device for blow molding a container from a preform, the device comprising: a mold base including an inner mold portion and an outer mold portion ; a case beneath the mold base , the case including an inner case portion supporting the inner mold portion and an outer case portion supporting the outer mold portion ; a pedestal for supporting the mold base and the case ; at least one electric heating element (40; 40'; 40A, 40B) for heating the mold base; a first insulator for isolating the heating element (40; 40'; 40A, 40B), which insulates portions of the pedestal beneath the case from being heated; the at least one electric heating element including an outer electric heating element included with one of the outer mold portion and the outer case portion , the device being characterized in including an inner electric heating element included with one of the inner mold portion and the inner case portion , wherein the inner electric heating element and the outer electric heating element are configured to be heated to different temperatures. a mold base including an inner mold portion and an outer mold portion ; a case beneath the mold base , the case including an inner case portion supporting the inner mold portion and an outer case portion supporting the outer mold portion ; a pedestal for supporting the mold base and the case ; at least one electric heating element (40; 40'; 40A, 40B) for heating the mold base; a first insulator for isolating the heating element (40; 40'; 40A, 40B), which insulates portions of the pedestal beneath the case from being heated; the at least one electric heating element including an outer electric heating element included with one of the outer mold portion and the outer case portion , the device being characterized in including an inner electric heating element included with one of the inner mold portion and the inner case portion , wherein the inner electric heating element and the outer electric heating element are configured to be heated to different temperatures.
Material for packaging food comprising a first layer made of paper, which is coupled to a second layer made of polyethylene or from biodegradable and compostable plastic material, an optional third metallic layer deposited on said second layer , said second layer is coupled to said first layer by interposition of an adhesive layer , or by interposition between said third metallic layer and said first layer of paper , characterised in that on said second layer on the surface facing towards or in contact with the food a natural extract or an essential oil or at least one active molecule isolated from said natural extract or said essential oil from Rosmarinus officinalis or Citrus limon or Vitis vinifera or mixtures thereof is present.
A star tracker device having an Active-Pixel-Sensor apparatus, the Active-Pixel-Sensor apparatus including an imager chip , said imager chip comprising an array of photo-diodes operating as optical pixels, and a logic circuit being configured to: - read out a pixel signal depending on an amount of light irradiated during a predetermined integration time (T) and resetting the optical pixel upon termination of the predetermined integration time (T); - periodically perform a non-destructive readout of the pixel signal during the integration time (T); - determine an output signal value by repeatedly adding increments to a base value, wherein one such increment is added for each non-destructive readout, and output the determined output signal value upon termination of the predetermined integration time as a modified pixel signal; - for each non-destructive readout, determine the difference (D 1 , D 5 ) between the results of the present non-destructive readout and the previous non-destructive readout; - for each non-destructive readout, detect whether or not the discontinuity has occurred by comparing the determined difference (D 1 , D 5 ) to a predetermined threshold value, wherein a discontinuity is detected when the determined difference (D 1 , D 5 ) exceeds the predetermined threshold value; and - for each non-destructive readout, use the determined difference (D 1 , D 5 ) as said increment if the determined difference (D 1 , D 5 ) is below said predetermined threshold value, and use an extrapolated difference value as the increment if the determined difference (D 1 , D 5 ) exceeds said predetermined threshold value. - read out a pixel signal depending on an amount of light irradiated during a predetermined integration time (T) and resetting the optical pixel upon termination of the predetermined integration time (T); - periodically perform a non-destructive readout of the pixel signal during the integration time (T); - determine an output signal value by repeatedly adding increments to a base value, wherein one such increment is added for each non-destructive readout, and output the determined output signal value upon termination of the predetermined integration time as a modified pixel signal; - for each non-destructive readout, determine the difference (D 1 , D 5 ) between the results of the present non-destructive readout and the previous non-destructive readout; - for each non-destructive readout, detect whether or not the discontinuity has occurred by comparing the determined difference (D 1 , D 5 ) to a predetermined threshold value, wherein a discontinuity is detected when the determined difference (D 1 , D 5 ) exceeds the predetermined threshold value; and - for each non-destructive readout, use the determined difference (D 1 , D 5 ) as said increment if the determined difference (D 1 , D 5 ) is below said predetermined threshold value, and use an extrapolated difference value as the increment if the determined difference (D 1 , D 5 ) exceeds said predetermined threshold value.
A pharmaceutical composition for use in preventing or treating a degenerative neurological disease, comprising a mixed extract of mulberry and Poria cocos peel as an active ingredient.
An apparatus for detecting a holographic feature on a film section of a web-shaped exposure film, in which the holographic features has been imaged, comprising: - a holding device having a suction plate on which the film section can be placed and to which a negative pressure can be applied for fixing the film section can be applied, - a lifting device , which is designed to move the holding device with the suction plate between a raised position and a lowered position, - an illumination device for illuminating the film section from a first direction at a first angle with respect to a normal of the film section fixed on the suction plate such that the holographic feature is reconstructed, and - an optical detection device whose optical axis is oriented at a second angle , different from the first angle , with respect to the normal of the film section fixed on the suction plate so as to optically detect the reconstructed holographic feature. - a holding device having a suction plate on which the film section can be placed and to which a negative pressure can be applied for fixing the film section can be applied, - a lifting device , which is designed to move the holding device with the suction plate between a raised position and a lowered position, - an illumination device for illuminating the film section from a first direction at a first angle with respect to a normal of the film section fixed on the suction plate such that the holographic feature is reconstructed, and - an optical detection device whose optical axis is oriented at a second angle , different from the first angle , with respect to the normal of the film section fixed on the suction plate so as to optically detect the reconstructed holographic feature.
A paper bag for receiving and containing goods, the bag comprising: - a first wall panel having two longitudinal side edges ; and - a second wall panel having two longitudinal side edges ; wherein - the first and second wall panels exhibit respective, mutually aligned first cuts or lines of weakness, which are arranged in proximity to a first longitudinal end of the first and second wall panels and configured to form a cut-out handle; the bag being characterized in that - at least one reinforcement patch is arranged between the first and second wall panels , overlapping said first cuts and adhered to the first and second wall panels ; wherein - the bag further comprises two gusset sections , each gusset section connecting a longitudinal side edge of the first wall panel with a corresponding longitudinal side edge of the second wall panel . - a first wall panel having two longitudinal side edges ; and - a second wall panel having two longitudinal side edges ; wherein - the first and second wall panels exhibit respective, mutually aligned first cuts or lines of weakness, which are arranged in proximity to a first longitudinal end of the first and second wall panels and configured to form a cut-out handle; the bag being characterized in that - at least one reinforcement patch is arranged between the first and second wall panels , overlapping said first cuts and adhered to the first and second wall panels ; wherein - the bag further comprises two gusset sections , each gusset section connecting a longitudinal side edge of the first wall panel with a corresponding longitudinal side edge of the second wall panel .
A lacing engine apparatus for an automated footwear platform, the apparatus comprising: a housing receiving a portion of a lace cable ; a drivetrain disposed within the housing , the drivetrain including a motor to deliver rotational input to a series of reduction gears and a pinion gear ; a first yoke including a first linear array of gear teeth engaging a first side of the pinion gear and a first lace guide to engage the lace cable in a first location upon translation of the first yoke , the first linear array of gear teeth enabling the first yoke to translate in a first direction in response to rotation of the pinion gear; and a second yoke including a second linear array of gear teeth engaging a second side of the pinion gear and a second lace guide to engage the lace cable in a second location upon translation of the second yoke , the second linear array of gear teeth enabling the second yoke to translate in a second direction in response to rotation of the pinion gear . a housing receiving a portion of a lace cable ; a drivetrain disposed within the housing , the drivetrain including a motor to deliver rotational input to a series of reduction gears and a pinion gear ; a first yoke including a first linear array of gear teeth engaging a first side of the pinion gear and a first lace guide to engage the lace cable in a first location upon translation of the first yoke , the first linear array of gear teeth enabling the first yoke to translate in a first direction in response to rotation of the pinion gear; and a second yoke including a second linear array of gear teeth engaging a second side of the pinion gear and a second lace guide to engage the lace cable in a second location upon translation of the second yoke , the second linear array of gear teeth enabling the second yoke to translate in a second direction in response to rotation of the pinion gear .
A computer-implemented method comprising: receiving, by a receiver device , from a transmitter device , an exploratory power wave and a communications signal requesting a feedback communications signal based upon the exploratory power wave; transmitting, by the receiver device , the feedback communications signal containing first data indicating a location of the receiver device relative to the transmitter within a transmission field; receiving, by the receiver device , a second exploratory power wave and a second communications signal requesting a second feedback communications signal based upon the second exploratory power wave; and transmitting, by the receiver device , the second feedback communications signal containing second data indicating a comparatively more granular location, as compared to the first data indicating the location, of the receiver device relative to the transmitter within the transmission field. receiving, by a receiver device , from a transmitter device , an exploratory power wave and a communications signal requesting a feedback communications signal based upon the exploratory power wave; transmitting, by the receiver device , the feedback communications signal containing first data indicating a location of the receiver device relative to the transmitter within a transmission field; receiving, by the receiver device , a second exploratory power wave and a second communications signal requesting a second feedback communications signal based upon the second exploratory power wave; and transmitting, by the receiver device , the second feedback communications signal containing second data indicating a comparatively more granular location, as compared to the first data indicating the location, of the receiver device relative to the transmitter within the transmission field.