mhurhangee/ep-ind-claims huggingface dataset:
A light detector comprising: a first set of light detection elements and a second set of light detection elements each being disposed on a substrate; and a first selection and integration circuit and a second selection and integration circuit each being disposed on the substrate, wherein the first set of light detection elements includes a plurality of subsets (CU in CHU1) arranged in a first direction, each of the plurality of subsets in the first set including at least one light detection element (DC in CU in CHU1) arranged in a second direction intersecting with the first direction, the second set of light detection elements includes a plurality of subsets (CU in CHU2) arranged in the first direction, each of the plurality of subsets in the second set including at least one light detection element (DC in CU in CHU2) arranged in the second direction, the first selection and integration circuit is configured to select a first subset (CU1 in CHU1) in the first set, and integrate outputs from the light detection elements in the first subset, the second selection and integration circuit is configured to select a second subset (CU1 in CHU2) in the second set, and integrate outputs from the light detection elements in the second subset, wherein the first set of light detection elements and the second set of light detection elements are arranged in the second direction, and each of the sets of the light detection elements is a pixel. a first set of light detection elements and a second set of light detection elements each being disposed on a substrate; and a first selection and integration circuit and a second selection and integration circuit each being disposed on the substrate, wherein the first set of light detection elements includes a plurality of subsets (CU in CHU1) arranged in a first direction, each of the plurality of subsets in the first set including at least one light detection element (DC in CU in CHU1) arranged in a second direction intersecting with the first direction, the second set of light detection elements includes a plurality of subsets (CU in CHU2) arranged in the first direction, each of the plurality of subsets in the second set including at least one light detection element (DC in CU in CHU2) arranged in the second direction, the first selection and integration circuit is configured to select a first subset (CU1 in CHU1) in the first set, and integrate outputs from the light detection elements in the first subset, the second selection and integration circuit is configured to select a second subset (CU1 in CHU2) in the second set, and integrate outputs from the light detection elements in the second subset, wherein the first set of light detection elements and the second set of light detection elements are arranged in the second direction, and each of the sets of the light detection elements is a pixel.
An injection molding method which includes a cylinder having a discharge nozzle formed on a front side thereof, a single axis screw provided to be rotatable in the cylinder, and a fiber-supplying device for filling the cylinder with reinforcing fiber, and performs injection molding while separately supplying the reinforcing fiber and a resin starting material and supplying the reinforcing fiber on a side closer to the front side than the resin starting material, the method comprising: a plasticization process of rotating the screw in a normal direction while retracting to melt the resin starting material and transport the melted resin starting material forward, and providing the reinforcing fiber with the melted resin starting material, thereby obtaining a predetermined amount of a kneaded product; and an injection process of discharging the kneaded product from the discharge nozzle by allowing the screw to advance and be rotated in a reverse direction, wherein the reinforcing fiber is supplied into the cylinder in the injection process, wherein the cylinder is provided with a vent hole which penetrates through a body of the cylinder from an outer peripheral surface to an inner peripheral surface thereof in order to supply the reinforcing fiber from the side closer to the front side than the resin starting material, and in the injection process, a reverse rotational velocity of the screw is set so that movement of a flight of the screw in a projection region of the vent hole is equal to or smaller than one lead length of the flight. a plasticization process of rotating the screw in a normal direction while retracting to melt the resin starting material and transport the melted resin starting material forward, and providing the reinforcing fiber with the melted resin starting material, thereby obtaining a predetermined amount of a kneaded product; and an injection process of discharging the kneaded product from the discharge nozzle by allowing the screw to advance and be rotated in a reverse direction, wherein the reinforcing fiber is supplied into the cylinder in the injection process, wherein the cylinder is provided with a vent hole which penetrates through a body of the cylinder from an outer peripheral surface to an inner peripheral surface thereof in order to supply the reinforcing fiber from the side closer to the front side than the resin starting material, and in the injection process, a reverse rotational velocity of the screw is set so that movement of a flight of the screw in a projection region of the vent hole is equal to or smaller than one lead length of the flight.
A printing method by an inkjet print device on a substrate wherein the inkjet print device comprises a conveyor system to transport the substrate; and wherein the conveyor system is characterized by comprising a fibrillar adhesive system to hold the substrate stable while printing.
A concrete mixing-and-transport truck with a rotary sealed feed-in/feed-out port comprising: a sub-frame; a mixing drum provided with a rotary driving mechanism on the sub-frame; the rotary sealed feed-in/feed-out port is located at the back-end of the mixing drum; characterized in that it further comprises a rotary inner cylinder, a rotary support body, a rotary sealing stand, a mixing drum roller, and a sealing end cap; said sealing end cap, including a feeding hopper and an feed-out door is connected to the rotary support body; following along said rotary sealed feed-in/feed-out port of the mixing drum, the rotary inner cylinder is connected to the back end of said rotary sealed feed-in/feed-out port and the rotary support body is rotatably supported by the rotary inner cylinder; at least one sealing belt is provided on the rotary inner cylinder and the back end surface of the backmost of the sealing belt is adapted to tight contact with the front end surface of the sealing end cap; and, the rotary sealing stand is installed on the sub-frame; the rotary support body is installed on the rotary sealing stand in movable connecting manner; the mixing drum roller is fixed on the rotary sealing stand. a sub-frame; a mixing drum provided with a rotary driving mechanism on the sub-frame; the rotary sealed feed-in/feed-out port is located at the back-end of the mixing drum; characterized in that it further comprises a rotary inner cylinder, a rotary support body, a rotary sealing stand, a mixing drum roller, and a sealing end cap; said sealing end cap, including a feeding hopper and an feed-out door is connected to the rotary support body; following along said rotary sealed feed-in/feed-out port of the mixing drum, the rotary inner cylinder is connected to the back end of said rotary sealed feed-in/feed-out port and the rotary support body is rotatably supported by the rotary inner cylinder; at least one sealing belt is provided on the rotary inner cylinder and the back end surface of the backmost of the sealing belt is adapted to tight contact with the front end surface of the sealing end cap; and, the rotary sealing stand is installed on the sub-frame; the rotary support body is installed on the rotary sealing stand in movable connecting manner; the mixing drum roller is fixed on the rotary sealing stand.
An electronic device comprising: a body configured to house the electronic device and including a space for accommodating a battery on one surface of the body; and a cover configured to cover at least the space and being detachably attached to the body, wherein the cover comprises: a first sealing member located between the one surface of the body and an inner surface of the cover and formed to surround the space; wherein the cover further comprises: an outer cover; an inner cover located between the outer cover and the body when the cover is attached to the body; an electronic module, wherein at least a portion of the electronic module is inserted between the outer cover and the inner cover; and the first sealing member coupled to an inner surface of the inner cover. a body configured to house the electronic device and including a space for accommodating a battery on one surface of the body; and a cover configured to cover at least the space and being detachably attached to the body, wherein the cover comprises: a first sealing member located between the one surface of the body and an inner surface of the cover and formed to surround the space; wherein the cover further comprises: an outer cover; an inner cover located between the outer cover and the body when the cover is attached to the body; an electronic module, wherein at least a portion of the electronic module is inserted between the outer cover and the inner cover; and the first sealing member coupled to an inner surface of the inner cover. a first sealing member located between the one surface of the body and an inner surface of the cover and formed to surround the space; wherein the cover further comprises: an outer cover; an inner cover located between the outer cover and the body when the cover is attached to the body; an electronic module, wherein at least a portion of the electronic module is inserted between the outer cover and the inner cover; and the first sealing member coupled to an inner surface of the inner cover. an outer cover; an inner cover located between the outer cover and the body when the cover is attached to the body; an electronic module, wherein at least a portion of the electronic module is inserted between the outer cover and the inner cover; and the first sealing member coupled to an inner surface of the inner cover.
A wireless transmit/receive unit, WTRU, comprising: a processor configured to: receive configuration information for a sidelink, SL, listen before talk, LBT, procedure, wherein the configuration information indicates a time period and a maximum counter value; perform, based on the configuration information, the SL LBT procedure on a set of resources; determine to trigger a consistent SL LBT failure, CSLF, based on the SL LBT procedure performed on the set of resources, wherein a number of LBT failures associated with the set of resources reaches the maximum counter value; based on the determination to trigger the CSLF, start a timer, wherein the timer is associated with the time period; during the time period that the timer is running, select a first resource for a first SL transmission from a plurality of resources that excludes the set of resources associated with the CSLF; trigger a CSLF medium access control, MAC, control element, CE; send the CSLF MAC CE; and after the timer expires, cancel the CSLF associated with the set of resources. receive configuration information for a sidelink, SL, listen before talk, LBT, procedure, wherein the configuration information indicates a time period and a maximum counter value; perform, based on the configuration information, the SL LBT procedure on a set of resources; determine to trigger a consistent SL LBT failure, CSLF, based on the SL LBT procedure performed on the set of resources, wherein a number of LBT failures associated with the set of resources reaches the maximum counter value; based on the determination to trigger the CSLF, start a timer, wherein the timer is associated with the time period; during the time period that the timer is running, select a first resource for a first SL transmission from a plurality of resources that excludes the set of resources associated with the CSLF; trigger a CSLF medium access control, MAC, control element, CE; send the CSLF MAC CE; and after the timer expires, cancel the CSLF associated with the set of resources.
A two-wheel vehicle having two wheels, which are arranged along with a traveling direction, and capable of turning around a turning center by tilting a body of the two-wheel vehicle toward the turning center, the two-wheel vehicle comprising: an operation amount detector for detecting an operation amount of a driver, which is applied to the body; a target rolling angle determination device for determining a target rolling angle based on at least the operation amount; an actual rolling angle detector for detecting an actual rolling angle of the two-wheel vehicle; a torque generator for generating a torque, which is applied to at least one of the two wheels; and a controller for controlling the torque generator; characterized in that the controller is adapted to control the torque generator to generate the torque for reducing an absolute value of a difference between the target rolling angle and the actual rolling angle. an operation amount detector for detecting an operation amount of a driver, which is applied to the body; a target rolling angle determination device for determining a target rolling angle based on at least the operation amount; an actual rolling angle detector for detecting an actual rolling angle of the two-wheel vehicle; a torque generator for generating a torque, which is applied to at least one of the two wheels; and a controller for controlling the torque generator; the controller is adapted to control the torque generator to generate the torque for reducing an absolute value of a difference between the target rolling angle and the actual rolling angle.
Mobile device for stacking logs into a pallet with sides, installed in a container frame, which is installed on a trailer vehicle and comprises the first field or the reception and guiding part, the second field with a pallet, the device for transversal transfer of logs and the stacking table, and the third field with the automatic device 30 for pallet packaging, characterized in that the above-mentioned first field comprises axially-oriented vibrating chutes with openings on the lower side, two vibrators, positioned on outer sides of said chutes, acceleration rollers running in the direction of transport, the separation belt surrounded with two sides and equipped with vanes oriented perpendicularly to the direction of transport of the said separation belt, where between two consecutive vanes chambers are formed, the spring-loaded return plate, where said spring-loaded return plate is inclined upwards in the direction of transport, and spring-loaded press wheel which is positioned in the central part of the upper end of the spring-loaded return plate, embedded rollers and two guides, alignment bars, vertical alignment brushes, delivery/feed belt, cross wheel and the delivery chute.
System having a wiper arm, which has a wiper arm adapter, and having a wiper arm device, which has at least one wiper nozzle unit and at least one coupling unit for connection to the wiper arm by at least one first coupling means, wherein the coupling unit is provided for connecting the wiper arm device to the wiper arm adapter of the wiper arm, wherein the wiper nozzle unit comprises at least one wiper nozzle basic body arranged on a base plate, at least one first wiper nozzle element, which has at least one first outlet opening, and at least one second wiper nozzle element, which has at least one second outlet opening, wherein a distance (al) between the at least one first outlet opening and a centre of gravity of the wiper nozzle basic body is substantially smaller than a distance between the at least one second outlet opening and the centre of gravity of the wiper nozzle basic body, characterized in that the wiper nozzle basic body has a basic unit which is formed by a cylindrical component, wherein, in a mounted state of the wiper arm device, the basic unit protrudes perpendicularly from the base plate on a side of the base plate which faces away from the side surface of the wiper arm adapter, wherein the centre of gravity of the wiper nozzle basic body is arranged approximately in a geometrical centre point of the basic unit, wherein the wiper nozzle elements (22, 26, 74, 78) of the wiper nozzle unit each protrude from the basic unit on a circumferential surface of the cylindrical basic unit.
A coal feeder system, comprising: a coal surge bin configured to store processed coal for feeding into a gasifier; a lock vessel coupled to the coal surge bin, the lock vessel being a pressure swing device; characterised by: a gas collector and distributor disposed (310, 320) within the lock vessel, the gas collector and distributor configured to distribute gas within the lock vessel; a gas permeable membrane (208, 212) disposed within a conical section of the lock vessel; a feed vessel coupled to the lock vessel, the feed vessel configured to operate at a substantially constant pressure; a pressure control device configured to maintain a substantially constant pressure between the feed vessel and a gasifier; and a feeder device configured to control a coal feed rate into the gasifier. a coal surge bin configured to store processed coal for feeding into a gasifier; a lock vessel coupled to the coal surge bin, the lock vessel being a pressure swing device; characterised by: a gas collector and distributor disposed (310, 320) within the lock vessel, the gas collector and distributor configured to distribute gas within the lock vessel; a gas permeable membrane (208, 212) disposed within a conical section of the lock vessel; a feed vessel coupled to the lock vessel, the feed vessel configured to operate at a substantially constant pressure; a pressure control device configured to maintain a substantially constant pressure between the feed vessel and a gasifier; and a feeder device configured to control a coal feed rate into the gasifier.
A biofragment composition for selectively binding an antigen of interest in a sample, comprising a bioparticle fragment of an initial intact bioparticle, wherein the bioparticle fragment displays at least one heterologous antigen-binding molecule, wherein the bioparticle fragment is not an intact bioparticle, wherein the bioparticle fragment contains less than all of the surface area of the initial intact bioparticle, and wherein the at least one heterologous antigen-binding molecule is capable of specifically binding the antigen of interest.
Androgynous coupling means (10, 16, 17) exhibiting both male and female coupling sections (11, 12), wherein the androgynous coupling means is configured for form fit coupling with at least one further of said, androgynous coupling means (10, 16, 17), exhibiting geometrically respective male and female coupling sections (11, 12) based on axial interlocking between the male and female coupling sections (11, 12), wherein the male coupling sections exhibit at least one lateral locking contour configured for form fit with at least one blocking element based on radial interlocking, wherein the respective lateral locking contour faces in a radial direction, especially in a radial direction outwards, wherein within the respective lateral locking contour, the male coupling sections exhibit at least one radial recess providing a radial cavity for arranging or radially accommodating, in a coupled state, the at least one blocking element, especially at least one ball, wherein in the coupled state, the radial recess is configured for fixing the at least one blocking element based on form fit within the radial cavity such that the androgynous coupling means is fixed in an axial relative position with respect to the corresponding androgynous coupling means, characterised in that the the at least one blocking element is configured to be actuated in radial direction based on axial actuation of a positioning element engaging the at least one blocking element when actuated in the axial direction, wherein the radial recess is arranged such that, based on axial relative motion of at least two rings of a ring-in-ring-arrangement of a plurality of axially guiding rings, the at least one blocking element can be radially positioned and fixed by axial relative motion of the positioning element in form of a positioning ring of the at least two rings, especially a positioning ring with a conical or wedge-shaped geometry, and wherein, by retracting the positioning ring in the axial direction, the at least one blocking element can be unblocked
A fine particle comprising an identification information group including multiple types of identification information (3, 4) identifiable by magnification, wherein the identification information group includes first identification information and second identification information which cannot be identified at any magnifying power capable of identifying the first identification information, characterized in that the size of the first identification information and the size of the second identification information is 300 μm or less and the size of the second identification information is 0.4μm or more, the size of the second identification information is 1/10 or less relative to the size of the first identification information, and the particle diameter of the fine particle is 50 μm or more and 300 μm or less.
A turbine blade comprising an airfoil and a fir tree root, the fir tree root having a lengthwise direction (l), a crosswise direction (b) extending between two lateral sides (20, 21) of the fir tree root, and a span direction (s) extending from a root base towards an airfoil tip, the fir tree root comprising at least one longitudinal groove (14, 15, 16) arranged on each lateral side (20, 21) and extending along and defining the lengthwise direction, the fir tree root having a root width (w) measured between the two lateral sides, said root width (w) varying along the span direction, the fir tree root comprising at least two channels (31, 32, 33) extending in the span direction, each of said channels having a channel length (l1, l2, l3) measured along the lengthwise direction, the root further comprising at least one web (34, 35) interposed between each pair of neighboring channels, each of said at least one web having a web length (l4, l5) measured along the lengthwise direction, characterized in that for each web (34, 35) a local web-to-channel ratio (l4/l1; l4/l2; l5/l2; l5/l3) between the web length (l4, l5) and the channel length (l1, l2, l3) of each of the two neighboring channels (31, 32, 33) is larger than or equal to 0.5 and is smaller than or equal to 0.85 at least at a position where the root width (w) is a minimum load bearing root width in a load bearing section of the fir tree root.