mhurhangee/patent-ind-claim-en huggingface dataset:
An analysis system, comprising: an analysis cartridge , comprising: a cartridge body having an accommodation portion ; a liquid storage box disposed within the accommodation portion and having a liquid storage tank and a pillar receiving space facing downwards; and a sealing film covering the pillar receiving space and sealing an opening of the liquid storage tank ; and an analyzer comprising a supporting base and a protruding pillar disposed on the supporting base ; wherein a first terminal of the sealing film is fixed to a top side of the liquid storage box for sealing the opening of the liquid storage tank , the sealing film has been bent over the first terminal for covering the opening of the pillar receiving space , and a second terminal of the sealing film is fixed on the bottom side of the liquid storage box , and wherein during disposing the analysis cartridge on the supporting base , the protruding pillar pushes the sealing film into the pillar receiving space and pulls the sealing film to expose the opening of the liquid storage tank . an analysis cartridge , comprising: a cartridge body having an accommodation portion ; a liquid storage box disposed within the accommodation portion and having a liquid storage tank and a pillar receiving space facing downwards; and a sealing film covering the pillar receiving space and sealing an opening of the liquid storage tank ; and a cartridge body having an accommodation portion ; a liquid storage box disposed within the accommodation portion and having a liquid storage tank and a pillar receiving space facing downwards; and a sealing film covering the pillar receiving space and sealing an opening of the liquid storage tank ; and an analyzer comprising a supporting base and a protruding pillar disposed on the supporting base ; wherein a first terminal of the sealing film is fixed to a top side of the liquid storage box for sealing the opening of the liquid storage tank , the sealing film has been bent over the first terminal for covering the opening of the pillar receiving space , and a second terminal of the sealing film is fixed on the bottom side of the liquid storage box , and wherein during disposing the analysis cartridge on the supporting base , the protruding pillar pushes the sealing film into the pillar receiving space and pulls the sealing film to expose the opening of the liquid storage tank .
An electrostatic dissipative composite, comprising a) a continuous thermoplastic polymer phase comprising at least one polycarbonate ; and b) at least one dispersed filler phase comprised of a filler composition, comprising i.a conductive carbon black; and ii.a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene; wherein the filler composition is present in a volume percentage loading in the range of from 7.4 to 10.5 relative to a total volume of the composite; and wherein the composite exhibits a surface resistivity in the range of from 10 6 ohm/sq to 10 9 ohm/sq. a) a continuous thermoplastic polymer phase comprising at least one polycarbonate ; and b) at least one dispersed filler phase comprised of a filler composition, comprising i.a conductive carbon black; and ii.a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene; i.a conductive carbon black; and ii.a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene;
A method for wireless communication at a user equipment UE , comprising: receiving a configuration for a repetition window comprising a set of transmission time intervals TTIs , the repetition window configured for sending a plurality of instances of an autonomous uplink transmission using the set of TTIs; identifying , from the set of TTIs, a first subset of TTIs that is unavailable for sending the plurality of instances of the autonomous uplink transmission; determining a second subset of TTIs from the set of TTIs that is available for sending the plurality of instances of the autonomous uplink transmission; determining a power value based at least in part on a number of TTIs in the first subset of TTIs that is unavailable, and transmitting , based at least in part on identifying the first subset of TTIs that is unavailable, instances of the autonomous uplink transmission using the second subset of TTIs with an increased transmit power, or a scheduling request SR, or a combination thereof, wherein the transmit power is increased by the determined power value receiving a configuration for a repetition window comprising a set of transmission time intervals TTIs , the repetition window configured for sending a plurality of instances of an autonomous uplink transmission using the set of TTIs; identifying , from the set of TTIs, a first subset of TTIs that is unavailable for sending the plurality of instances of the autonomous uplink transmission; determining a second subset of TTIs from the set of TTIs that is available for sending the plurality of instances of the autonomous uplink transmission; determining a power value based at least in part on a number of TTIs in the first subset of TTIs that is unavailable, and transmitting , based at least in part on identifying the first subset of TTIs that is unavailable, instances of the autonomous uplink transmission using the second subset of TTIs with an increased transmit power, or a scheduling request SR, or a combination thereof, wherein the transmit power is increased by the determined power value
An apparatus comprising an integrated circuit to be used in a station STA, the apparatus by means of the integrated circuit to cause the station to: set an initial transmission window, TW, value for a current TW, wherein the current TW represents a maximum number of discovery periods that the apparatus is to wait between attempts to transmit a synch frame; determine a first selection number that is an integer between a minimum TW and the current TW to determine a next discovery period for a next attempt to transmit a synch frame; establish a back-off period comprising a time period within a discovery window of said next discovery period during which the device is to monitor for synch frames prior to transmitting; if a synch frame is not detected prior to expiry of the established back-off period, transmit a first synch frame within the discovery window , DW, of said next discovery period ; and decrease a value of the current TW based on transmission of the first synch frame. set an initial transmission window, TW, value for a current TW, wherein the current TW represents a maximum number of discovery periods that the apparatus is to wait between attempts to transmit a synch frame; determine a first selection number that is an integer between a minimum TW and the current TW to determine a next discovery period for a next attempt to transmit a synch frame; establish a back-off period comprising a time period within a discovery window of said next discovery period during which the device is to monitor for synch frames prior to transmitting; if a synch frame is not detected prior to expiry of the established back-off period, transmit a first synch frame within the discovery window , DW, of said next discovery period ; and decrease a value of the current TW based on transmission of the first synch frame.
Device for preparing a beverage comprising a device housing with a device space which accommodates preparing means and at least one supply container for an ingredient of the beverage to be prepared, which supply container is provided with dosing means for drawing off therefrom and delivering a controlled quantity to the preparing means, wherein the preparing means debouch into a dispensing body for dispensing the prepared beverage, characterized in that the supply container is removable from the device housing on a filling side and comprises an outflow opening on a side remote from the filling side, that the supply container comprises on a filling side a handle which is pivotable from a flat, ready-to-operate position to a raised removable position, that the handle extends from at least one first arm of an arm assembly which is connected for pivoting around a pivot axis (S) to a wall of the supply container and which comprises at least one opposite second arm on a side of the pivot axis (S) remote from the first arm , and that the outflow opening is closable by closing means which extend from the at least one second arm, wherein in the lying position of the handle the closing means leave the outflow opening clear and in the raised removable position close off the outflow opening .
An accessory (100; 40; 70) configured to be detachably mountable to an image pickup apparatus including a first mount portion (201, A) including a plurality of first bayonet claw portions (201a-201c), and a plurality of first terminals (203a-203k, 203m), the accessory (100; 40; 70) comprising: a second mount portion (301, B) including a plurality of second bayonet claw portions (301d-301f) configured to enable engagement with the plurality of first bayonet claw portions (201a-201c); and a plurality of second terminals (303a-303k, 303m) configured to enable contact with the plurality of first terminals (203a-203k, 203m) and provided at positions that are different from positions of the plurality of second bayonet claw portions (301d-301f), characterized in that when viewed in a central axis direction of the second mount portion (301, B), a half line that extends from the central axis of the second mount portion (301, B) and passes through a predetermined second terminal , among the plurality of second terminals (303a-303k, 303m), that determines whether the accessory (100; 40; 70) is mounted on the image pickup apparatus or not, passes through a predetermined second bayonet claw portion among the plurality of second bayonet claw portions (301d-301f), and a half line that extends from the central axis of the second mount portion (301, B) and passes through a different predetermined second terminal , among the plurality of second terminals (303a-303k, 303m), that distinguishes the type of accessory mounted on the image pickup apparatus passes through between the plurality of second bayonet claw portions (301d-301f). a second mount portion (301, B) including a plurality of second bayonet claw portions (301d-301f) configured to enable engagement with the plurality of first bayonet claw portions (201a-201c); and a plurality of second terminals (303a-303k, 303m) configured to enable contact with the plurality of first terminals (203a-203k, 203m) and provided at positions that are different from positions of the plurality of second bayonet claw portions (301d-301f), characterized in that when viewed in a central axis direction of the second mount portion (301, B), a half line that extends from the central axis of the second mount portion (301, B) and passes through a predetermined second terminal , among the plurality of second terminals (303a-303k, 303m), that determines whether the accessory (100; 40; 70) is mounted on the image pickup apparatus or not, passes through a predetermined second bayonet claw portion among the plurality of second bayonet claw portions (301d-301f), and a half line that extends from the central axis of the second mount portion (301, B) and passes through a different predetermined second terminal , among the plurality of second terminals (303a-303k, 303m), that distinguishes the type of accessory mounted on the image pickup apparatus passes through between the plurality of second bayonet claw portions (301d-301f).
A hybrid electric vehicle comprising: a first control unit configured to acquire information about a traveling route, wherein the first control unit is further configured to determine if a specific zone related to discharge of exhaust gas is present on the traveling route; and a second control unit configured to determine a target motor temperature to be reached when entering the specific zone , and a cooling distance necessary to reach the target motor temperature using the information received from the first control unit, wherein the second control unit is configured to determine a time at which to start cooling control based on the determined cooling distance, and further configured to perform control so as to restrict a motor-driving range from the time at which to start the cooling control until entering the specific zone . a first control unit configured to acquire information about a traveling route, wherein the first control unit is further configured to determine if a specific zone related to discharge of exhaust gas is present on the traveling route; and a second control unit configured to determine a target motor temperature to be reached when entering the specific zone , and a cooling distance necessary to reach the target motor temperature using the information received from the first control unit, wherein the second control unit is configured to determine a time at which to start cooling control based on the determined cooling distance, and further configured to perform control so as to restrict a motor-driving range from the time at which to start the cooling control until entering the specific zone .
A fastening device , comprising a main part and a fastening member, the main part composed of a base , a spool , a knob and an engaging unit , the fastening member disposed at the main part such that the base , the spool , the knob and the engaging unit are assembled, wherein: the spool is disposed at the base , and a lace is wound around the spool ; the knob is disposed at the base , and the knob comprises a spiral track ; the engaging unit is coupled to the spool , and the engaging unit comprises a guiding portion coupled to the spiral track ; and the guiding portion is limitedly moved along the spiral track by rotating the knob , such that the engaging unit has a first position and a second position relative to the knob , the engaging unit prohibits the spool from rotating toward a releasing direction (A1) when the engaging unit is at the first position, and the engaging unit allows the spool to be rotated toward the releasing direction (A1) when the engaging unit is at the second position; characterized in that , the engaging unit further comprises a pawl arm , the base comprises a plurality of inner teeth , when the engaging unit is at the first position, the pawl arm is engaged with the inner teeth in the releasing direction (A1) to prohibit the spool from rotating, and the pawl arm is disengaged with the inner teeth in a tightening direction (A2) opposite to the releasing direction (A1). the spool is disposed at the base , and a lace is wound around the spool ; the knob is disposed at the base , and the knob comprises a spiral track ; the engaging unit is coupled to the spool , and the engaging unit comprises a guiding portion coupled to the spiral track ; and the guiding portion is limitedly moved along the spiral track by rotating the knob , such that the engaging unit has a first position and a second position relative to the knob , the engaging unit prohibits the spool from rotating toward a releasing direction (A1) when the engaging unit is at the first position, and the engaging unit allows the spool to be rotated toward the releasing direction (A1) when the engaging unit is at the second position; characterized in that , the engaging unit further comprises a pawl arm , the base comprises a plurality of inner teeth , when the engaging unit is at the first position, the pawl arm is engaged with the inner teeth in the releasing direction (A1) to prohibit the spool from rotating, and the pawl arm is disengaged with the inner teeth in a tightening direction (A2) opposite to the releasing direction (A1).
An ophthalmic device , comprising: an enclosure shaped for mounting in or on an eye; an antenna electrode disposed within the enclosure , the antenna electrode having a shared terminal (N1); an impedance sensor coupled to the shared terminal (N1) of the antenna electrode , the impedance sensor forming an oscillator with the antenna electrode , wherein the antenna electrode has an impedance that varies based upon an amount an eyelid overlaps the enclosure when the ophthalmic device is mounted in or on the eye and wherein the impedance influences an oscillation condition of the oscillator; a power rectifier coupled to the antenna electrode to harvest power from a wireless signal incident upon the antenna electrode ; and a switching circuit coupled to the power rectifier and the shared terminal (N1) to selectively couple a load of the power rectifier to the antenna electrode to allow the power rectifier to harvest the power from the wireless signal and to decouple the load of the power rectifier while the impedance sensor is operating to measure the impedance of the antenna electrode . an enclosure shaped for mounting in or on an eye; an antenna electrode disposed within the enclosure , the antenna electrode having a shared terminal (N1); an impedance sensor coupled to the shared terminal (N1) of the antenna electrode , the impedance sensor forming an oscillator with the antenna electrode , wherein the antenna electrode has an impedance that varies based upon an amount an eyelid overlaps the enclosure when the ophthalmic device is mounted in or on the eye and wherein the impedance influences an oscillation condition of the oscillator; a power rectifier coupled to the antenna electrode to harvest power from a wireless signal incident upon the antenna electrode ; and a switching circuit coupled to the power rectifier and the shared terminal (N1) to selectively couple a load of the power rectifier to the antenna electrode to allow the power rectifier to harvest the power from the wireless signal and to decouple the load of the power rectifier while the impedance sensor is operating to measure the impedance of the antenna electrode .
An X-ray system for scanning moving cargo travelling at a speed in the range of 20 km/h to 150 km/h, the system comprising: an X-ray source for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor to measure a speed of the moving cargo; and a control system for receiving data indicative of said speed from the sensor and modulating a pulse rate of the cone-beam of X-rays based upon the speed of the moving cargo and a dimension of said detector array. an X-ray source for generating a cone-beam of X-rays to irradiate the moving cargo, wherein the moving cargo travels along a linear trajectory perpendicular to the plane of the cone-beam of X-rays; at least one two-dimensional detector array to receive the cone-beam of X-rays transmitted through the moving cargo, wherein said X-ray source and said at least one detector array are placed on opposite sides of the moving cargo; a sensor to measure a speed of the moving cargo; and a control system for receiving data indicative of said speed from the sensor and modulating a pulse rate of the cone-beam of X-rays based upon the speed of the moving cargo and a dimension of said detector array.
Method for determining a position of at least one virtual reality headset in a vehicle moving along a travel section of a fairground ride , - which vehicle receives at least one passenger on whom the virtual reality headset is placed during a ride with the vehicle , - wherein, during an operation of the fairground ride in an actual reality, a virtual reality corresponding to the ride with the vehicle is generated and is represented on the virtual reality headset , - the fairground ride has at least one position sensor from which at least one position signal emanates, - the virtual reality headset is a mobile virtual reality headset , - the virtual reality headset has a detachable and/or a wireless communication interface, via which a data connection takes place between the virtual reality headset and a data processing device of the fairground ride , characterised in that - wherein the virtual reality headset has at least one receiver which evaluates the position signal of the position sensor for determining the position of the virtual reality headset in the vehicle relative to the position sensor . - which vehicle receives at least one passenger on whom the virtual reality headset is placed during a ride with the vehicle , - wherein, during an operation of the fairground ride in an actual reality, a virtual reality corresponding to the ride with the vehicle is generated and is represented on the virtual reality headset , - the fairground ride has at least one position sensor from which at least one position signal emanates, - the virtual reality headset is a mobile virtual reality headset , - the virtual reality headset has a detachable and/or a wireless communication interface, via which a data connection takes place between the virtual reality headset and a data processing device of the fairground ride , characterised in that - wherein the virtual reality headset has at least one receiver which evaluates the position signal of the position sensor for determining the position of the virtual reality headset in the vehicle relative to the position sensor .
A method performed by a communication device, the method comprising: receiving a first Buffer Status Report, BSR, at the communication device; and triggering a Pre-emptive Buffer Status Report, Pre-BSR, based on the first BSR if a trigger condition is met; triggering a Pre-emptive Scheduling Request, Pre-SR, if there is no uplink resource available for transmitting the Pre-BSR; and cancelling the triggered Pre-SR if uplink resource large enough to accommodate the Pre-BSR is granted. receiving a first Buffer Status Report, BSR, at the communication device; and triggering a Pre-emptive Buffer Status Report, Pre-BSR, based on the first BSR if a trigger condition is met; triggering a Pre-emptive Scheduling Request, Pre-SR, if there is no uplink resource available for transmitting the Pre-BSR; and cancelling the triggered Pre-SR if uplink resource large enough to accommodate the Pre-BSR is granted.
A forward osmosis membrane comprising: a hydrophilic porous support layer, wherein the support layer material includes one or more aramid polymers; a first polyamide rejection layer; and a woven or non-woven mesh embedded in the support layer material; wherein the support layer and the rejection layer are incorporated into a thin film composite membrane, and are adjacent layers in the thin film composite membrane. a hydrophilic porous support layer, wherein the support layer material includes one or more aramid polymers; a first polyamide rejection layer; and a woven or non-woven mesh embedded in the support layer material; wherein the support layer and the rejection layer are incorporated into a thin film composite membrane, and are adjacent layers in the thin film composite membrane.