mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a wireless device comprises: generating a signal comprising repeating segments for transmission in a subslot duration transmission time interval, TTI, to a network node ; transmitting the signal comprising the repeating segments to the network node in the subslot duration TTI; wherein the repeating segments are repeated in time consecutive segments within a symbol having a symbol duration, and wherein the repeating segment is repeated a number of times, characterized in that the number of times is selected based on a known position and/or duration of at least one signal distortions. generating a signal comprising repeating segments for transmission in a subslot duration transmission time interval, TTI, to a network node ; transmitting the signal comprising the repeating segments to the network node in the subslot duration TTI; wherein the repeating segments are repeated in time consecutive segments within a symbol having a symbol duration, and wherein the repeating segment is repeated a number of times, characterized in that the number of times is selected based on a known position and/or duration of at least one signal distortions.
An axial transmission system comprising: - a driving pulley , mounted on a drive shaft , comprising a stationary disc secured to said drive shaft and a mobile disc axially moveable wherein an outer face of said mobile disc has a series of housings inclined with respect to a direction vertical or perpendicular to the axis of rotation of the device and containing masses that can be moved inertially against a cover rotating integrally with the drive shaft ; - a driven pulley , mounted on an output shaft , comprising a stationary disc secured to said output shaft and a mobile disc moveable in the axial direction as a result of its own inertia with respect to the output shaft ; and - a belt that associates the driving and driven pulleys in rotation; and wherein the masses have a projecting end in a rounded spherical cap-like configuration forming a contact surface with the inner surface of the cover , and wherein the cover is rounded in a bell-shaped configuration; characterized in that the housings and the masses have a trapezoidal configuration with rounded edges defining means for guiding the masses in the axial direction, and preventing the masses from rotating inside their respective housings . - a driving pulley , mounted on a drive shaft , comprising a stationary disc secured to said drive shaft and a mobile disc axially moveable wherein an outer face of said mobile disc has a series of housings inclined with respect to a direction vertical or perpendicular to the axis of rotation of the device and containing masses that can be moved inertially against a cover rotating integrally with the drive shaft ; - a driven pulley , mounted on an output shaft , comprising a stationary disc secured to said output shaft and a mobile disc moveable in the axial direction as a result of its own inertia with respect to the output shaft ; and - a belt that associates the driving and driven pulleys in rotation; and wherein the masses have a projecting end in a rounded spherical cap-like configuration forming a contact surface with the inner surface of the cover , and wherein the cover is rounded in a bell-shaped configuration;
An in vitro method for the diagnosis of metastasis in a subject with prostate cancer and/or for the prognosis of the tendency to develop metastasis in a subject with prostate cancer, said method comprising: (i) quantifying the c-MAF amplification or copy number in a prostate tumor sample of said subject and (ii) comparing the amplification or copy number obtained in (i) with the amplification or copy number of the c-MAF gene in a control sample, wherein if the amplification or copy number of the c-MAF gene in said tumor sample is increased with respect to the amplification or copy number of the c-MAF gene in the control sample, then said subject has a positive diagnosis for metastasis or a greater tendency to develop metastasis. (i) quantifying the c-MAF amplification or copy number in a prostate tumor sample of said subject and (ii) comparing the amplification or copy number obtained in (i) with the amplification or copy number of the c-MAF gene in a control sample,
Spraying device for an agricultural field sprayer for the metered application of spray liquid, preferably on agricultural land, comprising a) a pivotable spray boom comprising two lateral booms , each comprising a plurality of application elements for spraying and/or finely distributing the spray liquid, b) wherein at least one fluid distributor for distributing the spray liquid to several partial streams is arranged on each boom , comprising - at least one distributor inlet for supplying spray liquid, and - a plurality of distributor outlets for the partial streams, and c) wherein each of the application elements is fluidically connected to one of the distributor outlets via a discharge line (15; 16), the spraying device being characterised in that the discharge lines (15; 16) comprise an internal diameter of less than 10 mm. a) a pivotable spray boom comprising two lateral booms , each comprising a plurality of application elements for spraying and/or finely distributing the spray liquid, b) wherein at least one fluid distributor for distributing the spray liquid to several partial streams is arranged on each boom , comprising - at least one distributor inlet for supplying spray liquid, and - a plurality of distributor outlets for the partial streams, and - at least one distributor inlet for supplying spray liquid, and - a plurality of distributor outlets for the partial streams, and c) wherein each of the application elements is fluidically connected to one of the distributor outlets via a discharge line (15; 16), the spraying device being characterised in that the discharge lines (15; 16) comprise an internal diameter of less than 10 mm.
A portable electronic device , comprising: an enclosure configured to define an internal volume; a vision subsystem positioned in the internal volume, the vision subsystem configured to provide object recognition of an object that is external to the enclosure, the vision subsystem comprising a camera module and a light emitting module ; a bracket assembly configured to hold the vision subsystem, the bracket assembly supported by the enclosure and free of affixation to the enclosure, the bracket assembly comprising: a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance ; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure. an enclosure configured to define an internal volume; a vision subsystem positioned in the internal volume, the vision subsystem configured to provide object recognition of an object that is external to the enclosure, the vision subsystem comprising a camera module and a light emitting module ; a bracket assembly configured to hold the vision subsystem, the bracket assembly supported by the enclosure and free of affixation to the enclosure, the bracket assembly comprising: a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance ; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure. a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance ; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure.
A resin composition, comprising: an ethylene-vinyl alcohol copolymer (A); an isobutylene-based copolymer (B) containing a halogen atom; a halogen scavenger (C), and an acetic acid metal salt (D), wherein a mass ratio (B/A) of the isobutylene-based copolymer (B) to the ethylene-vinyl alcohol copolymer (A) is from 5/95 to 45/55, a content of the halogen scavenger (C) is from 0.025 to 0.8 part by mass based on 100 parts by mass of a total of the ethylene-vinyl alcohol copolymer (A) and the isobutylene-based copolymer (B), and a content of the acetic acid metal salt (D) is from 0.001 to 0.1 part by mass based on 100 parts by mass of a total of the ethylene-vinyl alcohol copolymer (A) and the isobutylene-based copolymer (B).
An optical zoom system for a mobile device , the optical zoom system comprising: at least three spatially separated lens groups arranged on an optical axis , wherein the optical zoom system does not include any further lens groups on the optical axis , wherein a third lens group is immovable along the optical axis , a second lens group is movable along the optical axis to set a magnification of the optical zoom system , and a first lens group is movable along the optical axis to focus the optical zoom system, the optical zoom system further comprising: a first actuator configured to move the first lens group , and a second actuator configured to move the second lens group , characterized in that the first actuator is more precise and/or faster than the second actuator. at least three spatially separated lens groups arranged on an optical axis , wherein the optical zoom system does not include any further lens groups on the optical axis , wherein a third lens group is immovable along the optical axis , a second lens group is movable along the optical axis to set a magnification of the optical zoom system , and a first lens group is movable along the optical axis to focus the optical zoom system, the optical zoom system further comprising: a first actuator configured to move the first lens group , and a second actuator configured to move the second lens group , characterized in that the first actuator is more precise and/or faster than the second actuator. a first actuator configured to move the first lens group , and a second actuator configured to move the second lens group , characterized in that the first actuator is more precise and/or faster than the second actuator.
Method for timing a basketball match using a timing system comprising a timing device linked to at least one optical ball detector and linked to at least one visual ball detector for detecting a ball in a basketball hoop, the optical ball detector comprising at least one optical sensor , which is positioned near or on the basketball hoop, and the visual ball detector comprising one or more kinetic cameras for detecting the motion and the depth of the ball in the basketball hoop, the method comprising the steps of: - starting to count game time by activating the timing device , - capturing, using the optical sensor , the passage of the basketball ball into a rim of the basketball hoop from above the hoop, and visually detecting, by way of at least one kinetic camera , the motion of the basketball ball passing into the rim of the basketball hoop through information processing, and - transmitting at least one signal detecting the passage of the ball into the basketball hoop from the optical ball detector and from the visual detector to the timing device in order to stop game time. - starting to count game time by activating the timing device , - capturing, using the optical sensor , the passage of the basketball ball into a rim of the basketball hoop from above the hoop, and visually detecting, by way of at least one kinetic camera , the motion of the basketball ball passing into the rim of the basketball hoop through information processing, and - transmitting at least one signal detecting the passage of the ball into the basketball hoop from the optical ball detector and from the visual detector to the timing device in order to stop game time.
Apparatus for forming a compacted unitary bale of agricultural or forestry biomass, comprising: a mobile structure having a floor and upstanding walls defining a compacting chamber , and an inlet in an upper region of one end of the structure configured for receiving a substantially continuous stream (S) of the agricultural or forestry biomass for flow along a path through the chamber from the one end toward a second end opposite the one end; packer apparatus configured and supported in the chamber for reciprocating movement through the chamber between the one end and the second end and progressive movement upwardly within the chamber , for compacting the biomass against the floor for forming the bale ; and a crop deflector supported in the chamber above the packer apparatus for deflecting the stream (S) of the biomass downwardly, the crop deflector being configured and operable so as to move continuously with the packer apparatus between the ends of the chamber and to substantially constantly reconfigure as a function of a position of the packer apparatus and a direction of the movement thereof so as to deflect the stream (S) of the biomass directly in a path of the packer apparatus in the current direction of the movement thereof so as to be immediately compacted thereby onto the floor or the bale , the crop deflector having a crop deflecting surface positioned and configured to be impinged by the stream (S) of the biomass and to deflect and guide the stream (S) downwardly; characterized by the crop deflecting surface being configured to and operable to be extendable and retractable for varying its vertical extent. a mobile structure having a floor and upstanding walls defining a compacting chamber , and an inlet in an upper region of one end of the structure configured for receiving a substantially continuous stream (S) of the agricultural or forestry biomass for flow along a path through the chamber from the one end toward a second end opposite the one end; packer apparatus configured and supported in the chamber for reciprocating movement through the chamber between the one end and the second end and progressive movement upwardly within the chamber , for compacting the biomass against the floor for forming the bale ; and a crop deflector supported in the chamber above the packer apparatus for deflecting the stream (S) of the biomass downwardly, the crop deflector being configured and operable so as to move continuously with the packer apparatus between the ends of the chamber and to substantially constantly reconfigure as a function of a position of the packer apparatus and a direction of the movement thereof so as to deflect the stream (S) of the biomass directly in a path of the packer apparatus in the current direction of the movement thereof so as to be immediately compacted thereby onto the floor or the bale , the crop deflector having a crop deflecting surface positioned and configured to be impinged by the stream (S) of the biomass and to deflect and guide the stream (S) downwardly; characterized by the crop deflecting surface being configured to and operable to be extendable and retractable for varying its vertical extent.
A method of feeding rod-shaped consumer goods to a packing apparatus, the method comprising: providing a plurality of rod-shaped consumer goods to an upstream end of a stacking channel , wherein the step of providing a plurality of rod-shaped consumer goods comprises providing a plurality of aerosol-generating articles , wherein each aerosol-generating article has a total length of between 40 millimetres and 50 millimetres; feeding the plurality of aerosol-generating articles along the stacking channel to a downstream end of the stacking channel , wherein the upstream end is higher than the downstream end in the vertical direction, and wherein at least a portion of the stacking channel extends at an angle of between 25 degrees and 75 degrees with respect to the vertical direction; receiving the plurality of aerosol-generating articles into a hopper from the downstream end of the stacking channel ; and distributing the plurality of aerosol-generating articles from the hopper into a packing apparatus, wherein the step of feeding the plurality of aerosol-generating articles along the stacking channel comprises moving the plurality of aerosol-generating articles with at least one conveyor along at least a portion of the stacking channel in the downstream direction, the at least one conveyor comprising at least one of a mechanically driven belt or a directed airflow. providing a plurality of rod-shaped consumer goods to an upstream end of a stacking channel , wherein the step of providing a plurality of rod-shaped consumer goods comprises providing a plurality of aerosol-generating articles , wherein each aerosol-generating article has a total length of between 40 millimetres and 50 millimetres; feeding the plurality of aerosol-generating articles along the stacking channel to a downstream end of the stacking channel , wherein the upstream end is higher than the downstream end in the vertical direction, and wherein at least a portion of the stacking channel extends at an angle of between 25 degrees and 75 degrees with respect to the vertical direction; receiving the plurality of aerosol-generating articles into a hopper from the downstream end of the stacking channel ; and distributing the plurality of aerosol-generating articles from the hopper into a packing apparatus, wherein the step of feeding the plurality of aerosol-generating articles along the stacking channel comprises moving the plurality of aerosol-generating articles with at least one conveyor along at least a portion of the stacking channel in the downstream direction, the at least one conveyor comprising at least one of a mechanically driven belt or a directed airflow.
A laundry treatment apparatus comprising: a cabinet having an opening ; a drawer dischargeable from the cabinet through the opening ; a receiving unit provided in the drawer for receiving water and laundry; a drain pump for discharging water from the receiving unit ; a drain channel extending from a higher position than a highest level (F) of water that can be stored in the receiving unit , the drain channel being located outside the cabinet ; and a connection channel located in the cabinet for connecting the drain pump and the drain channel to each other, characterized in that water stored inside the connection channel flows to the drain pump by gravity and is collected in the drain pump when the operation of the drain pump is stopped. a cabinet having an opening ; a drawer dischargeable from the cabinet through the opening ; a receiving unit provided in the drawer for receiving water and laundry; a drain pump for discharging water from the receiving unit ; a drain channel extending from a higher position than a highest level (F) of water that can be stored in the receiving unit , the drain channel being located outside the cabinet ; and a connection channel located in the cabinet for connecting the drain pump and the drain channel to each other, characterized in that water stored inside the connection channel flows to the drain pump by gravity and is collected in the drain pump when the operation of the drain pump is stopped.
Implant comprising at least one photosensitive pixel structure comprising a substrate layer and an interface layer , wherein the interface layer is provided at least on a part of a front surface of the substrate layer and wherein the interface layer at least partially comprises a first material layer and the interface layer at least partially comprises a second material layer covering the first material layer , such that the first material layer is at least partially sandwiched between the second material layer and the substrate , wherein the second material layer has a thickness in the range of 200nm-600nm.
A method for charging a battery, being applied to a charging-and-discharging apparatus, the charging-and-discharging apparatus comprising a bidirectional alternating current/direct current, AC/DC, converter , a first direct current/direct current, DC/DC, converter , and a control unit, wherein the first DC/DC converter is a bidirectional DC/DC converter connected in series between AC/DC converter and battery to be charged; wherein the method comprises: receiving a first charging current sent by a battery management system, BMS, of a battery and controlling the bidirectional AC/DC converter and the first DC/DC converter according to the first charging current to charge the battery through an AC power; receiving a first discharging current sent by the BMS and discharging a power of the battery according to the first discharging current, wherein the first discharging current is a discharging current sent by the BMS when a first accumulative charging amount of the battery is greater than or equal to a first accumulative charging amount threshold and a voltage of a battery cell of the battery does not exceed a full-charging voltage of the battery cell; and receiving a second charging current sent by the BMS and controlling the bidirectional AC/DC converter 0 and the first DC/DC converter according to the second charging current to charge the battery through the AC power, wherein the second charging current is a charging current sent by the BMS when a first accumulative discharging amount of the battery is greater than or equal to a first accumulative discharging amount threshold. receiving a first charging current sent by a battery management system, BMS, of a battery and controlling the bidirectional AC/DC converter and the first DC/DC converter according to the first charging current to charge the battery through an AC power; receiving a first discharging current sent by the BMS and discharging a power of the battery according to the first discharging current, wherein the first discharging current is a discharging current sent by the BMS when a first accumulative charging amount of the battery is greater than or equal to a first accumulative charging amount threshold and a voltage of a battery cell of the battery does not exceed a full-charging voltage of the battery cell; and receiving a second charging current sent by the BMS and controlling the bidirectional AC/DC converter 0 and the first DC/DC converter according to the second charging current to charge the battery through the AC power, wherein the second charging current is a charging current sent by the BMS when a first accumulative discharging amount of the battery is greater than or equal to a first accumulative discharging amount threshold.