mhurhangee/ep-ind-claims huggingface dataset:
A ventilating device in a helmet (1, 1a) used by being attached to the helmet, comprising: a bag-shaped body (11, 11a) formed having a shape of a bag with an upper part open using a first guiding sheet (4, 4a) and a second guiding sheet (5, 5a); attaching means provided on an upper end portion of the first guiding sheet (4, 4a) and for attaching the bag-shaped body (11, 11a) to the helmet; air blowing means attached to the bag-shaped body (11, 11a) and for taking in outside air into the bag-shaped body (11, 11a) and sending it out to a side of an open portion of the bag-shaped body (11, 11 a) along the first guiding sheet (4, 4a) and the second guiding sheet (5, 5a); and power supply means for driving the air blowing means, wherein the bag-shaped body (11, 11a) is attached to the helmet by using the attaching means so that the second guiding sheet (5, 5a) is located on a side of a human body and the first guiding sheet (4, 4a) is located on an outer side, the air taken into the bag-shaped body (11, 11 a) by the air blowing means is led to the open portion of the bag-shaped body (11, 11a) along the first guiding sheet (4, 4a) and the second guiding sheet (5, 5a) and introduced into the helmet through an air inlet formed between an inner edge of the helmet located close to the open portion and the head part of a user so that the inside of the helmet is ventilated. a bag-shaped body (11, 11a) formed having a shape of a bag with an upper part open using a first guiding sheet (4, 4a) and a second guiding sheet (5, 5a); attaching means provided on an upper end portion of the first guiding sheet (4, 4a) and for attaching the bag-shaped body (11, 11a) to the helmet; air blowing means attached to the bag-shaped body (11, 11a) and for taking in outside air into the bag-shaped body (11, 11a) and sending it out to a side of an open portion of the bag-shaped body (11, 11 a) along the first guiding sheet (4, 4a) and the second guiding sheet (5, 5a); and power supply means for driving the air blowing means, wherein the bag-shaped body (11, 11a) is attached to the helmet by using the attaching means so that the second guiding sheet (5, 5a) is located on a side of a human body and the first guiding sheet (4, 4a) is located on an outer side, the air taken into the bag-shaped body (11, 11 a) by the air blowing means is led to the open portion of the bag-shaped body (11, 11a) along the first guiding sheet (4, 4a) and the second guiding sheet (5, 5a) and introduced into the helmet through an air inlet formed between an inner edge of the helmet located close to the open portion and the head part of a user so that the inside of the helmet is ventilated.
A semiconductor device, comprising: an uppermost metal layer including a power supply enhancing wiring; power supply wiring coupled to the power supply enhancing wiring through a via between the uppermost metal layer and a metal layer underlying the uppermost metal layer; at least one memory device component disposed in vertical alignment with the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer; and a memory bank, including: a plurality of sense amplifiers; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats (312a, 312n); and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat; wherein the at least one memory device component disposed in vertical alignment with the via includes the second edge mat, and wherein the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer is located in an area that lacks global input/output lines. an uppermost metal layer including a power supply enhancing wiring; power supply wiring coupled to the power supply enhancing wiring through a via between the uppermost metal layer and a metal layer underlying the uppermost metal layer; at least one memory device component disposed in vertical alignment with the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer; and a memory bank, including: a plurality of sense amplifiers; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats (312a, 312n); and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat; a plurality of sense amplifiers; a plurality of memory mats coupled to the sense amplifiers, the memory mats including first and second edge mats (312a, 312n); and a global input/output line coupled to the sense amplifiers and disposed over the first edge mat and not disposed over the second edge mat; wherein the at least one memory device component disposed in vertical alignment with the via includes the second edge mat, and wherein the via between the uppermost metal layer and the metal layer underlying the uppermost metal layer is located in an area that lacks global input/output lines.
A filling system, comprising at least one filler for filling big bags with pulverulent or otherwise pourable or bulk or flowable products and in particular foodstuffs, and at least one partition, wherein the filler comprises at least one frame apparatus, from which a big bag to be filled is suspended, and at least one filling neck, wherein at least one big bag to be filled can be connected to the filling neck by an operator, and wherein at least the partition is suitable and designed for separating at least one filling region of the filler from at least one working region for an operator, characterised in that the partition has at least one handling section with at least one through-hole through which an operator can reach at least in part in order to connect a big bag suspended from the frame apparatus to the filling neck, and the filler comprises multiple stations (6, 7, 8), wherein the frame apparatus is movable and can be moved in the filler between the stations (6, 7, 8) on at least one rail or the like. at least one filler for filling big bags with pulverulent or otherwise pourable or bulk or flowable products and in particular foodstuffs, and at least one partition, wherein the filler comprises at least one frame apparatus, from which a big bag to be filled is suspended, and at least one filling neck, wherein at least one big bag to be filled can be connected to the filling neck by an operator, and wherein at least the partition is suitable and designed for separating at least one filling region of the filler from at least one working region for an operator, characterised in that the partition has at least one handling section with at least one through-hole through which an operator can reach at least in part in order to connect a big bag suspended from the frame apparatus to the filling neck, and the filler comprises multiple stations (6, 7, 8), wherein the frame apparatus is movable and can be moved in the filler between the stations (6, 7, 8) on at least one rail or the like.
Method for controlling an electric drive comprising an actuator which can be moved in a forward movement between a starting point and an end point and in a return movement between the end point and the starting point, the actuator, in the forward movement and/or return movement, being accelerated to a first speed (v max) over a first distance (x beschl), braked over a second distance (x brems), and thereafter being moved over a third distance (x safe1) at a second speed (v safe) as far as a stop, characterized in that, in a learning phase, over a plurality of forward and return movements, the third distance (x safe1) becomes shorter with each run until the third distance (x safe1) ultimately corresponds to a minimum distance (x safe-min), the length of the minimum distance (x safe-min) being predetermined. the actuator, in the forward movement and/or return movement, being accelerated to a first speed (v max) over a first distance (x beschl), braked over a second distance (x brems), and thereafter being moved over a third distance (x safe1) at a second speed (v safe) as far as a stop, characterized in that, in a learning phase, over a plurality of forward and return movements, the third distance (x safe1) becomes shorter with each run until the third distance (x safe1) ultimately corresponds to a minimum distance (x safe-min), the length of the minimum distance (x safe-min) being predetermined.
A method for prohibiting, by a user equipment, UE,, autonomous denial in a wireless communication system, the method comprising: receiving a configuration for autonomous denial over a first connection from a network; applying the autonomous denial for a first uplink, UL, transmission over the first connection based on the received configuration if downlink, DL, transmission over a second connection collides with the first UL transmission; and prohibiting the autonomous denial for a second UL transmission over the first connection if the second UL transmission corresponds to a specific signal. receiving a configuration for autonomous denial over a first connection from a network; applying the autonomous denial for a first uplink, UL, transmission over the first connection based on the received configuration if downlink, DL, transmission over a second connection collides with the first UL transmission; and prohibiting the autonomous denial for a second UL transmission over the first connection if the second UL transmission corresponds to a specific signal.
A wireless transmit receive unit, WTRU, configured to handle mobility and multi-connectivity, comprising: a processor configured to: receive a radio resource control, RRC, message from a base station, wherein the RRC message indicates a conditional reconfiguration to be applied by the WTRU and a condition for application of the conditional reconfiguration; responsive to receiving the RRC message, transmit a first message to the base station, wherein the first message indicates that the WTRU has received the RRC message; determine that the condition for application of the conditional reconfiguration is satisfied; transmit a second message to the base station, wherein the second message indicates that the condition for application of the conditional reconfiguration is satisfied; apply the conditional reconfiguration; and based on a determination that the application of the conditional reconfiguration has resulted in a failure, transmit a third message to the base station, wherein the third message indicates the failure. receive a radio resource control, RRC, message from a base station, wherein the RRC message indicates a conditional reconfiguration to be applied by the WTRU and a condition for application of the conditional reconfiguration; responsive to receiving the RRC message, transmit a first message to the base station, wherein the first message indicates that the WTRU has received the RRC message; determine that the condition for application of the conditional reconfiguration is satisfied; transmit a second message to the base station, wherein the second message indicates that the condition for application of the conditional reconfiguration is satisfied; apply the conditional reconfiguration; and based on a determination that the application of the conditional reconfiguration has resulted in a failure, transmit a third message to the base station, wherein the third message indicates the failure.
A shipping container comprising a pair of side walls, a rear end, a front end, a roof, a floor and a base frame, said base frame comprising two longitudinal bottom side rails and a plurality of parallel bottom cross members on which a corrugated steel floor is resting and to which cross members the floor is secured by fastening means, which steel floor is assembled of a plurality of corrugated floor slabs and which steel floor is positioned with corrugations comprising a number of ridges and grooves running in a lengthwise direction of the container towards an opening for loading and unloading goods to be shipped or stored in the container, where the bottom of the grooves of the corrugations are flush with or placed on a door sill, characterised in that a distance between the ridges measured from a vertical one side of a groove to a vertical other side of the groove is between 32.5mm and 40 mm and at an end of the floor pointing towards the opening for loading and unloading goods to be shipped or stored in the container, the ridges of the corrugations are provided each with a ramp, which ramps incline from the ridges of the corrugations to a level corresponding to the grooves of the corrugations, and that attachments for lashing are installed in the corrugated floor.
A method for verification of a data value via a Merkle root, comprising: storing, in a memory of a processing server, a Merkle root; receiving, by a receiving device of the processing server, at least a data value, a nonce, and a plurality of hash path values; generating, by a generation module of the processing server, a combined value by combining the data value and the nonce; generating, by a hashing module of the processing server, a first hash value via application of a hashing algorithm to the combined value; generating, by the hashing module of the processing server, a subsequent hash value via application of the hashing algorithm to a combination of the first hash value and a first of the plurality of hash path values; repeating, by the hashing module of the processing server, generation of the subsequent hash value using a combination of the next hash path value of the plurality of hash path values and the most recent subsequent hash value; and verifying, by a verification module of the processing server, the data value based on a comparison of the Merkle root and the last generated subsequent hash value. storing, in a memory of a processing server, a Merkle root; receiving, by a receiving device of the processing server, at least a data value, a nonce, and a plurality of hash path values; generating, by a generation module of the processing server, a combined value by combining the data value and the nonce; generating, by a hashing module of the processing server, a first hash value via application of a hashing algorithm to the combined value; generating, by the hashing module of the processing server, a subsequent hash value via application of the hashing algorithm to a combination of the first hash value and a first of the plurality of hash path values; repeating, by the hashing module of the processing server, generation of the subsequent hash value using a combination of the next hash path value of the plurality of hash path values and the most recent subsequent hash value; and verifying, by a verification module of the processing server, the data value based on a comparison of the Merkle root and the last generated subsequent hash value.
A biosensor for measuring glucose or lactate comprising: an insulative substrate; an electrode system comprising a working electrode and a counter electrode provided on the substrate; and a reagent layer provided on the electrode system, wherein the reagent layer comprises an oxidoreductase and 1-methoxy-5-methylphenazinium ethyl sulfate. an insulative substrate; an electrode system comprising a working electrode and a counter electrode provided on the substrate; and a reagent layer provided on the electrode system, wherein the reagent layer comprises an oxidoreductase and 1-methoxy-5-methylphenazinium ethyl sulfate.
A method for allocating a radio resource, comprising, at a Macrocell: receiving a radio resource request message from a terminal via a Physical Random Access Channel, PRACH, or a Physical Uplink Control Channel, PUCCH, wherein a movement speed of the terminal is carried in the request message; determining a radio resource allocated to the terminal according to the movement speed; and sending instruction information to the terminal, wherein the instruction information indicates the terminal to access the determined radio resource allocated to the terminal; wherein determining a radio resource allocated to the terminal according to the movement speed comprises: judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal. receiving a radio resource request message from a terminal via a Physical Random Access Channel, PRACH, or a Physical Uplink Control Channel, PUCCH, wherein a movement speed of the terminal is carried in the request message; determining a radio resource allocated to the terminal according to the movement speed; and sending instruction information to the terminal, wherein the instruction information indicates the terminal to access the determined radio resource allocated to the terminal; wherein determining a radio resource allocated to the terminal according to the movement speed comprises: judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal. judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal.
A socket comprising a socket-side terminal configured to be electrically connected to a header-side terminal and a socket housing to which the socket-side terminal is attached, wherein the socket-side terminal includes: a root portion adapted to be fixed to a conductor wiring pattern on a principal surface of a circuit board using solder; and a rising portion rising from the root portion, and extending to become away from the principal surface, an inverted U-shaped portion whose one end continues to an upper end of the rising portion; and a falling portion extending from an opposite end of the inverted U-shaped portion toward the principal surface, an inclined portion inclined to the principal surface in such a way as to become farther away from the rising portion as extending from a lower end of the falling portion toward the principal surface, and a facing portion continuing to a lower end of the inclined portion, placed opposite the falling portion, and configured to be brought into contact with the header-side terminal characterized in that the inclined portion includes at least one flat portion extending along an inclined plane intersecting the principal surface at a predetermined angle. a root portion adapted to be fixed to a conductor wiring pattern on a principal surface of a circuit board using solder; and a rising portion rising from the root portion, and extending to become away from the principal surface, an inverted U-shaped portion whose one end continues to an upper end of the rising portion; and a falling portion extending from an opposite end of the inverted U-shaped portion toward the principal surface, an inclined portion inclined to the principal surface in such a way as to become farther away from the rising portion as extending from a lower end of the falling portion toward the principal surface, and a facing portion continuing to a lower end of the inclined portion, placed opposite the falling portion, and configured to be brought into contact with the header-side terminal characterized in that the inclined portion includes at least one flat portion extending along an inclined plane intersecting the principal surface at a predetermined angle.
Cooling device for cooling at least one continuous element (150, 151), having a metal plate with a first side and a second side and having a cooling channel for a cryogenic gas, wherein the at least one element (150, 151) can be guided on the first side of the metal plate, wherein the at least one element (150, 151) is in thermally conductive contact with the first side of the metal plate, wherein the cooling channel is connected in a thermally conductive manner, at least in portions, to the metal plate, in particular to the second side of the metal plate, and wherein the cooling channel has a connection at a first end for an inlet of the cryogenic gas and a connection at a second end for an outlet of the cryogenic gas, wherein the cooling device is furthermore connected to a gas line for the cryogenic gas, which branches off from the cooling channel at an outlet-side end and is configured to conduct cryogenic gas into a region above the first side of the metal plate. wherein the at least one element (150, 151) can be guided on the first side of the metal plate, wherein the at least one element (150, 151) is in thermally conductive contact with the first side of the metal plate, wherein the cooling channel is connected in a thermally conductive manner, at least in portions, to the metal plate, in particular to the second side of the metal plate, and wherein the cooling channel has a connection at a first end for an inlet of the cryogenic gas and a connection at a second end for an outlet of the cryogenic gas, wherein the cooling device is furthermore connected to a gas line for the cryogenic gas, which branches off from the cooling channel at an outlet-side end and is configured to conduct cryogenic gas into a region above the first side of the metal plate.