mhurhangee/ep-ind-claims huggingface dataset:
A packaging box, comprising: a box body, wherein the box body is provided with an accommodation cavity accommodating a vacuum bag roll, and the box body is provided with a bag outlet; a reel, wherein the reel is rotatably arranged in the box body, and the vacuum bag roll is mounted on the reel; and a cutting device, wherein the cutting device comprises a cutting part, and the cutting part is slidably connected to the box body; and a protective cover arranged on the box body; wherein the protective cover covers both the bag outlet and the cutting device; a bag opening of the vacuum bag roll stretches out from the box body to the cutting part after passing through the bag outlet; the box body is provided with a recessed part on which the cutting device is arranged, the protective cover covers the recessed part, and the bag outlet is arranged on the recessed part; the recessed part comprises a first side wall and a second side wall, the first side wall is arranged at a top end of the second side wall, and an L-shaped structure is formed between the first side wall and the second side wall; the cutting device is arranged on the second side wall, and the bag outlet is arranged at a joint of the first side wall and the second side wall; and a height of the bag outlet is not greater than 3 mm. a box body, wherein the box body is provided with an accommodation cavity accommodating a vacuum bag roll, and the box body is provided with a bag outlet; a reel, wherein the reel is rotatably arranged in the box body, and the vacuum bag roll is mounted on the reel; and a cutting device, wherein the cutting device comprises a cutting part, and the cutting part is slidably connected to the box body; and a protective cover arranged on the box body; wherein the protective cover covers both the bag outlet and the cutting device; a bag opening of the vacuum bag roll stretches out from the box body to the cutting part after passing through the bag outlet; the box body is provided with a recessed part on which the cutting device is arranged, the protective cover covers the recessed part, and the bag outlet is arranged on the recessed part; the recessed part comprises a first side wall and a second side wall, the first side wall is arranged at a top end of the second side wall, and an L-shaped structure is formed between the first side wall and the second side wall; the cutting device is arranged on the second side wall, and the bag outlet is arranged at a joint of the first side wall and the second side wall; and a height of the bag outlet is not greater than 3 mm.
A wireless sidelink communication method, comprising: sending, by a first terminal, Hybrid Automatic Repeat reQuest, HARQ, feedback information to a second terminal on a plurality of Physical Resource Blocks, PRBs, of a Physical Sidelink Feedback Channel, PSFCH, when the sidelink communication operates in an unlicensed frequency band, wherein the HARQ feedback information is carried by one PRB, and the HARQ feedback information is carried by a symbol sequence; and the method further comprises: mapping, by the first terminal, the HARQ feedback information to the plurality of PRBs for transmission over the PSFCH. sending, by a first terminal, Hybrid Automatic Repeat reQuest, HARQ, feedback information to a second terminal on a plurality of Physical Resource Blocks, PRBs, of a Physical Sidelink Feedback Channel, PSFCH, when the sidelink communication operates in an unlicensed frequency band, wherein the HARQ feedback information is carried by one PRB, and the HARQ feedback information is carried by a symbol sequence; and the method further comprises: mapping, by the first terminal, the HARQ feedback information to the plurality of PRBs for transmission over the PSFCH.
A system for mildly heating body tissue being disposed about a blood vessel, the system comprising: an elongate catheter having a proximal end and a distal end with an axis therebetween an inflatable balloon positioned adjacent to the distal end of the elongate catheter; an energy delivery portion configured to deliver focused ultrasound energy to the body tissue, said energy delivery portion including at least one ultrasound transducer mounted to an outer surface of the inflatable balloon; a tissue analyzer configured to characterize the body tissue in the blood vessel proximate the energy delivery portion; an energy source coupled to the energy delivery portion transmitting tissue treatment energy, wherein the energy source comprises ultrasound energy; and a processor coupled to the tissue analyzer and energy source, the processor configured to determine an appropriate treatment energy for the characterized body tissue by selecting an energy wavelength of the ultrasound energy based on characterization of the body tissue such that application of the appropriate treatment energy mildly heats the body tissue with the energy delivery portion without ablating the body tissue. an elongate catheter having a proximal end and a distal end with an axis therebetween an inflatable balloon positioned adjacent to the distal end of the elongate catheter; an energy delivery portion configured to deliver focused ultrasound energy to the body tissue, said energy delivery portion including at least one ultrasound transducer mounted to an outer surface of the inflatable balloon; a tissue analyzer configured to characterize the body tissue in the blood vessel proximate the energy delivery portion; an energy source coupled to the energy delivery portion transmitting tissue treatment energy, wherein the energy source comprises ultrasound energy; and a processor coupled to the tissue analyzer and energy source, the processor configured to determine an appropriate treatment energy for the characterized body tissue by selecting an energy wavelength of the ultrasound energy based on characterization of the body tissue such that application of the appropriate treatment energy mildly heats the body tissue with the energy delivery portion without ablating the body tissue.
A temperature control apparatus for fuel cell system comprising: a fuel cell stack; a first cooling line configured to circulate a first coolant that passes via the fuel cell stack; a first radiator disposed on the first cooling line and being configured to cool the first coolant; a valve configured to switch a flow path of the first coolant to the fuel cell stack or the first radiator; and a controller connected to the valve, characterized in that the controller is configured to: set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range. a fuel cell stack; a first cooling line configured to circulate a first coolant that passes via the fuel cell stack; a first radiator disposed on the first cooling line and being configured to cool the first coolant; a valve configured to switch a flow path of the first coolant to the fuel cell stack or the first radiator; and a controller connected to the valve, characterized in that the controller is configured to: set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range. set a target temperature at an inlet of the fuel cell stack and a correction coefficient for controlling an opening degree of the valve; measure a first coolant temperature at an outlet of the fuel cell stack and a second coolant temperature at an outlet of the first radiator; calculate the opening degree of the valve based on the first coolant temperature, the second coolant temperature, the target temperature, and the correction coefficient; and correct the correction coefficient based on comparison of a third coolant temperature at the inlet of the fuel cell stack and the target temperature, in response to the opening degree being within a first range.
An illumination system (1; 30; 40; 60; 70; 90) for spot illumination comprising: a tubular reflector (3; 31; 61; 91) having an essentially polygonal cross-section and with a reflective inner surface, said tubular reflector having an entrance aperture, and an exit aperture being larger than the entrance aperture; and a light-source array (2; 33; 41; 63; 71; 93) comprising a plurality of light-sources arranged in a physical light-source configuration to emit light into the tubular reflector at the entrance aperture thereof, wherein said tubular reflector (3; 31; 61; 91) comprises an uneven number larger than 3 of reflective surfaces (14a-g) each being arranged to provide a primary mirror image of said light-source array, said primary mirror image having a primary mirror image light-source configuration; and wherein said light-source array (2; 33; 41; 63; 71; 93) is configured in such a way that, for each of said primary mirror images, at least half of all secondary mirror images of said light-source array resulting from reflection of said primary mirror image by said reflective surfaces (14a-g) exhibit secondary mirror image light-source configurations that are different from said physical light-source configuration. a tubular reflector (3; 31; 61; 91) having an essentially polygonal cross-section and with a reflective inner surface, said tubular reflector having an entrance aperture, and an exit aperture being larger than the entrance aperture; and a light-source array (2; 33; 41; 63; 71; 93) comprising a plurality of light-sources arranged in a physical light-source configuration to emit light into the tubular reflector at the entrance aperture thereof, wherein said tubular reflector (3; 31; 61; 91) comprises an uneven number larger than 3 of reflective surfaces (14a-g) each being arranged to provide a primary mirror image of said light-source array, said primary mirror image having a primary mirror image light-source configuration; and wherein said light-source array (2; 33; 41; 63; 71; 93) is configured in such a way that, for each of said primary mirror images, at least half of all secondary mirror images of said light-source array resulting from reflection of said primary mirror image by said reflective surfaces (14a-g) exhibit secondary mirror image light-source configurations that are different from said physical light-source configuration.
An electronic device (200, 300, 400, 500), comprising: a housing (210, 310) forming a first portion of an outer surface of the electronic device; and a display (160, 220, 320, 440) received in the housing and forming a second portion of the outer surface, wherein the display includes: a plurality of pixels (680, 780) configured to output one or more colors, one or more thin film transistors layers (670, 770, 870, 970, 1070, 1170) including at least one opening (670a, 770a, 870a, 970a) formed through the TFT layers, a waveguide (640, 740, 840, 940, 1040, 1140) formed in the opening, and a biometric sensor (350a, 350b, 451, 551, 630, 830, 930, 1030, 1130) formed between the plurality of pixels and said waveguide extending from the biometric sensor to the second portion. a housing (210, 310) forming a first portion of an outer surface of the electronic device; and a display (160, 220, 320, 440) received in the housing and forming a second portion of the outer surface, wherein the display includes: a plurality of pixels (680, 780) configured to output one or more colors, one or more thin film transistors layers (670, 770, 870, 970, 1070, 1170) including at least one opening (670a, 770a, 870a, 970a) formed through the TFT layers, a waveguide (640, 740, 840, 940, 1040, 1140) formed in the opening, and a biometric sensor (350a, 350b, 451, 551, 630, 830, 930, 1030, 1130) formed between the plurality of pixels and said waveguide extending from the biometric sensor to the second portion. a plurality of pixels (680, 780) configured to output one or more colors, one or more thin film transistors layers (670, 770, 870, 970, 1070, 1170) including at least one opening (670a, 770a, 870a, 970a) formed through the TFT layers, a waveguide (640, 740, 840, 940, 1040, 1140) formed in the opening, and a biometric sensor (350a, 350b, 451, 551, 630, 830, 930, 1030, 1130) formed between the plurality of pixels and said waveguide extending from the biometric sensor to the second portion.
A method of wireless communication, comprising: communicating, by a first wireless communication device, a control information communication protection request for protecting control information communication over a shared spectrum, wherein the shared spectrum is shared by a plurality of network operating entities based on priorities, and wherein the first wireless communication device is associated with a first network operating entity of the plurality of network operating entities, wherein the control information communication protection request is communicated following a request from the first network operating entity for a reservation of a transmission opportunity, TXOP, in the shared spectrum, and is communicated in a transmission period different from a transmission period of a response to the reservation; communicating, by the first wireless communication device with a second wireless communication device associated with the first network operating entity, control information in a first link direction during the TXOP in the shared spectrum; and communicating, by the first wireless communication device with the second wireless communication device, data in a second link direction during the TXOP. communicating, by a first wireless communication device, a control information communication protection request for protecting control information communication over a shared spectrum, wherein the shared spectrum is shared by a plurality of network operating entities based on priorities, and wherein the first wireless communication device is associated with a first network operating entity of the plurality of network operating entities, wherein the control information communication protection request is communicated following a request from the first network operating entity for a reservation of a transmission opportunity, TXOP, in the shared spectrum, and is communicated in a transmission period different from a transmission period of a response to the reservation; communicating, by the first wireless communication device with a second wireless communication device associated with the first network operating entity, control information in a first link direction during the TXOP in the shared spectrum; and communicating, by the first wireless communication device with the second wireless communication device, data in a second link direction during the TXOP.
A method of identifying an amount of viral-host junctions in ctDNAs from a subject infected with hepatitis B virus comprising: obtaining the ctDNAs in a serum obtained from the subject; ligating each ctDNA with at least one adaptor; amplifying all the ctDNAs ligating the at least one adaptor in a similar proportion by using a plurality of primers, wherein each of the primers is complementary to a sequence of the corresponding adaptor; hybridizing polynucleotide probes with the ctDNAs ligated with the adaptors; capturing and isolating target ctDNAs hybridized with the polynucleotide probes; sequencing the target ctDNAs, wherein the target ctDNAs having one or more viral-host junction sequences, wherein each viral-host junction sequence comprises a viral genome sequence and a host genome sequence; and accumulating a read number related to the viral-host junctions in the target ctDNAs to identify the amount of the viral-host junctions, wherein the amount of the viral-host junctions are defines as the accumulated read number, the read number is defined as the times the viral-host junction sequence appearing in the target ctDNAs, wherein the detected viral-host junctions sequences comprises same sequences, different sequences, or a combination thereof, and each viral-host junction sequence is counted to give the read number; and wherein the amount of the viral-host junctions are configured to indicate the hepatitis B virus-related tumor status. obtaining the ctDNAs in a serum obtained from the subject; ligating each ctDNA with at least one adaptor; amplifying all the ctDNAs ligating the at least one adaptor in a similar proportion by using a plurality of primers, wherein each of the primers is complementary to a sequence of the corresponding adaptor; hybridizing polynucleotide probes with the ctDNAs ligated with the adaptors; capturing and isolating target ctDNAs hybridized with the polynucleotide probes; sequencing the target ctDNAs, wherein the target ctDNAs having one or more viral-host junction sequences, wherein each viral-host junction sequence comprises a viral genome sequence and a host genome sequence; and accumulating a read number related to the viral-host junctions in the target ctDNAs to identify the amount of the viral-host junctions, wherein the amount of the viral-host junctions are defines as the accumulated read number, the read number is defined as the times the viral-host junction sequence appearing in the target ctDNAs, wherein the detected viral-host junctions sequences comprises same sequences, different sequences, or a combination thereof, and each viral-host junction sequence is counted to give the read number; and wherein the amount of the viral-host junctions are configured to indicate the hepatitis B virus-related tumor status.
A packet transmission method, comprising: receiving, by a software-defined networking, SDN, forwarding apparatus, an uplink general packet radio service tunneling protocol user plane, GTPU, packet from a base station, wherein the uplink GTPU packet carries an Internet Protocol, IP, address of a target server; determining, by the SDN forwarding apparatus, whether the target server is an intranet server; and when the target server is an intranet server, sending, by the SDN forwarding apparatus, the uplink GTPU packet to a target gateway, wherein the target gateway is a gateway corresponding to the target server, wherein the sending, by the SDN forwarding apparatus, the uplink GTPU packet to a target gateway comprises: determining, by the SDN forwarding apparatus, an IP address of the target gateway and a tunnel endpoint identifier, TEID, of the target gateway, and sending, by the SDN forwarding apparatus, the uplink GTPU packet to the target gateway according to the IP address and the TEID of the target gateway and wherein the determining, by the SDN forwarding apparatus, an IP address of the target gateway and a TEID of the target gateway comprises: receiving, by the SDN forwarding apparatus, the IP address and the TEID of the target gateway from an SDN controller, wherein the SDN controller is configured to instruct the target gateway to assign the TEID; or when the target server is not an intranet server, sending, by the SDN forwarding apparatus, the uplink GTPU packet to a serving gateway. receiving, by a software-defined networking, SDN, forwarding apparatus, an uplink general packet radio service tunneling protocol user plane, GTPU, packet from a base station, wherein the uplink GTPU packet carries an Internet Protocol, IP, address of a target server; determining, by the SDN forwarding apparatus, whether the target server is an intranet server; and when the target server is an intranet server, sending, by the SDN forwarding apparatus, the uplink GTPU packet to a target gateway, wherein the target gateway is a gateway corresponding to the target server, wherein the sending, by the SDN forwarding apparatus, the uplink GTPU packet to a target gateway comprises: determining, by the SDN forwarding apparatus, an IP address of the target gateway and a tunnel endpoint identifier, TEID, of the target gateway, and sending, by the SDN forwarding apparatus, the uplink GTPU packet to the target gateway according to the IP address and the TEID of the target gateway and wherein the determining, by the SDN forwarding apparatus, an IP address of the target gateway and a TEID of the target gateway comprises: receiving, by the SDN forwarding apparatus, the IP address and the TEID of the target gateway from an SDN controller, wherein the SDN controller is configured to instruct the target gateway to assign the TEID; or when the target server is not an intranet server, sending, by the SDN forwarding apparatus, the uplink GTPU packet to a serving gateway.
A method for reducing power consumption of a metering device having a transceiver for wireless communication by means of frames transmitted via a wireless link and a microcontroller unit for data processing, the method comprising the steps of: (a) checking a preamble and/or a synchronization word of a frame received by the transceiver by a hardware accelerator circuit of said transceiver, (b) if a matching preamble and/or a synchronization word has been detected by said hardware accelerator circuit checking by said hardware accelerator circuit the data content within at least one header field of the received frame; and (c) if a matching data content within the at least one header field has been detected by said hardware accelerator circuit waking up the microcontroller unit from a sleep mode by said hardware accelerator circuit to process data transported in data fields of the received frame wherein the wireless link is a wireless M-bus, and wherein the hardware accelerator circuit of the metering device comprises a register, which stores an expectation wake-up value for each header field of a received frame expected by the metering device for waking up the microcontroller unit of the respective metering device. (a) checking a preamble and/or a synchronization word of a frame received by the transceiver by a hardware accelerator circuit of said transceiver, (b) if a matching preamble and/or a synchronization word has been detected by said hardware accelerator circuit checking by said hardware accelerator circuit the data content within at least one header field of the received frame; and (c) if a matching data content within the at least one header field has been detected by said hardware accelerator circuit waking up the microcontroller unit from a sleep mode by said hardware accelerator circuit to process data transported in data fields of the received frame
Electronic weighing machine comprising a measurement value pick-up (1 to 16), a digital signal processing unit, a digital display, a spirit level, which consists of a container partly filled with liquid under formation of a gas bubble, and switching means or program parts in the digital signal processing unit for detecting deflection of the gas bubble, characterised in that additional switching means (32 to 36) or program parts for detection of the diameter of the gas bubble are present.