mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication system in which a retransmission control is performed between a transmitting apparatus and a receiving apparatus, wherein the transmitting apparatus comprises transmitting means configured to transmit communication data to the receiving apparatus; retransmission control means configured to transmit, to the receiving apparatus, data including a data portion that is the same as the communication data before the transmission apparatus receives a negative acknowledgment signal (NACK) of the communication data from the receiving apparatus, wherein the receiving apparatus receives the communication data, and the receiving apparatus receives the data including a data portion that is the same as the communication data, and further configured to wait for an arrival of a negative acknowledgement signal or an acknowledgment signal of the data including a data portion that is the same as the communication data; and receiving means configured to receive, from the receiving apparatus, the negative acknowledgement signal (NACK) or the acknowledgment signal of the data including a data portion that is the same as the communication data, wherein the receiving apparatus comprises transmitting means configured to transmit, to the transmitting apparatus, the acknowledgment signal or the negative acknowledgement signal of the data including a data portion that is the same as the communication data. transmitting means configured to transmit communication data to the receiving apparatus; retransmission control means configured to transmit, to the receiving apparatus, data including a data portion that is the same as the communication data before the transmission apparatus receives a negative acknowledgment signal (NACK) of the communication data from the receiving apparatus, wherein the receiving apparatus receives the communication data, and the receiving apparatus receives the data including a data portion that is the same as the communication data, and further configured to wait for an arrival of a negative acknowledgement signal or an acknowledgment signal of the data including a data portion that is the same as the communication data; and receiving means configured to receive, from the receiving apparatus, the negative acknowledgement signal (NACK) or the acknowledgment signal of the data including a data portion that is the same as the communication data, wherein transmitting means configured to transmit, to the transmitting apparatus, the acknowledgment signal or the negative acknowledgement signal of the data including a data portion that is the same as the communication data.
A radio frequency system comprising: a first RF generator including a first power source configured to generate a first RF signal applied to a load; and a second RF generator including: a second power source configured to generate a second RF signal applied to the load; and a power controller coupled to the second power source, wherein the power controller is configured to respond to a trigger signal and to generate a control signal to vary the second RF signal in response to the trigger signal, wherein the control signal is arranged to selectively introduce a frequency offset into the second RF signal. a first RF generator including a first power source configured to generate a first RF signal applied to a load; and a second RF generator including: a second power source configured to generate a second RF signal applied to the load; and a power controller coupled to the second power source, wherein the power controller is configured to respond to a trigger signal and to generate a control signal to vary the second RF signal in response to the trigger signal, wherein the control signal is arranged to selectively introduce a frequency offset into the second RF signal. a second power source configured to generate a second RF signal applied to the load; and a power controller coupled to the second power source, wherein the power controller is configured to respond to a trigger signal and to generate a control signal to vary the second RF signal in response to the trigger signal, wherein the control signal is arranged to selectively introduce a frequency offset into the second RF signal.
A dental three-dimensional data processing device, comprising: an input unit configured to receive teeth data and image data of a human face, wherein the image data are image data scanning a face where a human opens a mouth to expose teeth, and wherein the image data are successive data acquired in real time; a control unit configured to generate three-dimensional alignment data by combining and aligning the teeth data and the image data, wherein the control unit is configured to align them by matching the teeth included in the image data with the teeth data; a movement extraction unit configured to generate trajectory data by analyzing a movement of the teeth or a temporomandibular joint to which the teeth are connected from the image data; and a simulation unit configured to simulate the movement of the teeth or the temporomandibular joint by applying the trajectory data to the alignment data. an input unit configured to receive teeth data and image data of a human face, wherein the image data are image data scanning a face where a human opens a mouth to expose teeth, and wherein the image data are successive data acquired in real time; a control unit configured to generate three-dimensional alignment data by combining and aligning the teeth data and the image data, wherein the control unit is configured to align them by matching the teeth included in the image data with the teeth data; a movement extraction unit configured to generate trajectory data by analyzing a movement of the teeth or a temporomandibular joint to which the teeth are connected from the image data; and a simulation unit configured to simulate the movement of the teeth or the temporomandibular joint by applying the trajectory data to the alignment data.
A gapped core leg for a shunt reactor, the gapped core leg comprising: a plurality of core elements arranged in a stacked manner, and a spacer arranged in a gap between adjacent core elements, characterized in that the spacer is directly cast between the adjacent core elements. a plurality of core elements arranged in a stacked manner, and a spacer arranged in a gap between adjacent core elements, characterized in that the spacer is directly cast between the adjacent core elements.
An image restoration device for producing a restoration image having an extended depth of field, by restoring a sweep image which is captured by an imaging device and is subjected to focus sweep during exposure on an area, between focal points in an image space, which corresponds to a sweep range including a desirable distance range to be desirably focused, by driving the imaging device or a lens which collects liaht to the imaging device. characterized in that the image restoration device comprises: a point spread function storage unit configured to store any two PSFs among (i) a first PSF to be used for restoring a first sweep image serving as the sweep image when the sweep range is a first range, (ii) a second PSF to be used for restoring a second sweep image serving as the sweep image when the sweep range is a second range which excludes the first range, and (iii) a third PSF to be used for restoring a third sweep image serving as the sweep image when the sweep range is a third range obtained by adding the first range and the second range; a PSF calculation unit configured to perform addition on the two PSFs when the PSFs of the first and second ranges are stored or subtraction on the two PSFs when the PSF of the third range is stored to calculate a remaining one among the first PSF, the second PSE and the third PSE; an image restoration unit configured to (i) restore the first sweep image using the first PSF to produce the restoration image, (ii) restore the second sweep image using the second PSF to produce the restoration image, and (iii) restore the third sweep image using the third PSF to produce the restoration image wherein each of the PSFs for each sweep range is an IPSF expressed by integration and is calculated by integration over time when a focal point is swept. a point spread function storage unit configured to store any two PSFs among (i) a first PSF to be used for restoring a first sweep image serving as the sweep image when the sweep range is a first range, (ii) a second PSF to be used for restoring a second sweep image serving as the sweep image when the sweep range is a second range which excludes the first range, and (iii) a third PSF to be used for restoring a third sweep image serving as the sweep image when the sweep range is a third range obtained by adding the first range and the second range; a PSF calculation unit configured to perform addition on the two PSFs when the PSFs of the first and second ranges are stored or subtraction on the two PSFs when the PSF of the third range is stored to calculate a remaining one among the first PSF, the second PSE and the third PSE; an image restoration unit configured to (i) restore the first sweep image using the first PSF to produce the restoration image, (ii) restore the second sweep image using the second PSF to produce the restoration image, and (iii) restore the third sweep image using the third PSF to produce the restoration image wherein each of the PSFs for each sweep range is an IPSF expressed by integration and is calculated by integration over time when a focal point is swept.
An array antenna comprising: a first plurality of antenna elements disposed to provide a transmit array antenna; a Butler matrix beamforming circuit that forms orthogonal beams at fixed locations having a plurality of antenna ports and a plurality of switch ports with each of the antenna ports coupled to ones of said first plurality of antenna elements; and a first switched beam combining circuit having an input port and a plurality of output ports, each of the output ports coupled to a corresponding one of the plurality of switch ports of said Butler matrix beamforming circuit; and a second plurality of antenna elements disposed to provide a receive array antenna; a Butler matrix beamforming circuit that forms orthogonal beams at fixed locations having a plurality of antenna ports and a plurality of switch ports with each of the antenna ports coupled to ones of said second plurality of antenna elements; and a second switched beam combining circuit having a plurality of input ports and an output port, each of the plurality of input ports coupled to a corresponding one of the plurality of the switch ports of said Butler matrix beamforming circuit, characterized in that the array antenna is provided in a single Low Temperature Co-fired Ceramic substrate. a first plurality of antenna elements disposed to provide a transmit array antenna; a Butler matrix beamforming circuit that forms orthogonal beams at fixed locations having a plurality of antenna ports and a plurality of switch ports with each of the antenna ports coupled to ones of said first plurality of antenna elements; and a first switched beam combining circuit having an input port and a plurality of output ports, each of the output ports coupled to a corresponding one of the plurality of switch ports of said Butler matrix beamforming circuit; and a second plurality of antenna elements disposed to provide a receive array antenna; a Butler matrix beamforming circuit that forms orthogonal beams at fixed locations having a plurality of antenna ports and a plurality of switch ports with each of the antenna ports coupled to ones of said second plurality of antenna elements; and a second switched beam combining circuit having a plurality of input ports and an output port, each of the plurality of input ports coupled to a corresponding one of the plurality of the switch ports of said Butler matrix beamforming circuit, characterized in that the array antenna is provided in a single Low Temperature Co-fired Ceramic substrate.
A method of preparing a thiazolidine-sugar conjugate comprising admixing an amino sugar with a thiazolidine carboxylic acid, thereby producing the thiazolidine-sugar conjugate.
A photochromic material formed of a biimidazole compound represented by the following general formula: (where, R 4 and R 5 respectively and independently represent a halogen atom or alkyl group, R 1 to R 3 and R 6 to R 8 respectively and independently represent a hydrogen atom, halogen atom, alkyl group, fluoroalkyl group, hydroxyl group, alkoxyl group, amino group, alkylamino group, carbonyl group, alkylcarbonyl group, nitro group, cyano group or aryl group, Ar 1 to Ar 4 respectively and independently represent a substituted or unsubstituted aryl group, R 4 may form a condensed, substituted or unsubstituted aryl ring with R 3, and R 5 may form a condensed, substituted or unsubstituted aryl ring with R 6).
A method comprising: (a) providing a lignocellulosic material; (b) hydrolyzing said lignocellulosic material in an HCl-comprising hydrolysis medium to form a hydrolysate comprising carbohydrate and HCl; and (c) performing partial or complete deacidification of at least a fraction of the hydrolysate to produce an HCl fraction for recycle and an HCl-depleted hydrolysate; wherein said step (c) comprises bringing said hydrolysate, as such or after modification thereof, into contact with a first extractant comprising a first solvent characterized by a water solubility of less than 10% and by at least one of (al) having a polarity related component of Hoy's cohesion parameter (delta-P) between 5 and 10 MPa 1/2 and having a hydrogen bonding related component of Hoy's cohesion parameter (delta-H) between 5 and 20 MPa 1/2, whereupon HCl selectively transfers to said first extractant to form an HCl-carrying first extract and an HCl-depleted aqueous feed; and bringing said HCl-depleted aqueous feed solution into contact with a second extractant comprising S1 and a second solvent S2 characterized by water solubility of at least 30% and by at least one of having a delta-P greater than 8 MPa 1/2 and having a delta-H greater than 12 MPa 1/2, whereupon HCl selectively transfers to said second extractant to form an HCl-carrying second extract and said acid-depleted hydrolysate; and recovering HCl from said first and second extractants; wherein the S1 solvent is hexanol, 2-ethyl-1-hexanol, or a combination thereof; and wherein the S2 solvent is ethanol, methanol, or a combination thereof. (a) providing a lignocellulosic material; (b) hydrolyzing said lignocellulosic material in an HCl-comprising hydrolysis medium to form a hydrolysate comprising carbohydrate and HCl; and (c) performing partial or complete deacidification of at least a fraction of the hydrolysate to produce an HCl fraction for recycle and an HCl-depleted hydrolysate; wherein the S1 solvent is hexanol, 2-ethyl-1-hexanol, or a combination thereof; and wherein the S2 solvent is ethanol, methanol, or a combination thereof.
A composition comprising one or more kinds of peptides, sucrose, and an inorganic salt, wherein said peptide consists of an amino acid sequence selected from SEQ ID NOs: 1 to 5, or an amino acid sequence where one or two amino acid(s) may each independently be substituted, deleted or added in the amino acid sequence selected from SEQ ID NOs: 1 to 5.
A composition comprising: (a) an ethylene-propylene-diene terpolymer having a Mooney viscosity [ML(1+4) 125 °C] of 25 to 300 and having an ethylene content of from 50 wt% to 90 wt% and a diene content of from 5 wt% to 15 wt%, based on the weight of the ethylene-propylene-diene terpolymer; (b) a propylene-based elastomer having at least 60 wt% propylene-derived units and 5 to 25 wt% ethylene-derived units, based on total weight of the propylene-based elastomer, and a heat of fusion of less than 80 J/g; (c) from 50 phr to 150 phr of one or more fillers relative to the total amount of ethylene-propylene-diene terpolymer and propylene-based elastomer; and (d) a foaming agent. (a) an ethylene-propylene-diene terpolymer having a Mooney viscosity [ML(1+4) 125 °C] of 25 to 300 and having an ethylene content of from 50 wt% to 90 wt% and a diene content of from 5 wt% to 15 wt%, based on the weight of the ethylene-propylene-diene terpolymer; (b) a propylene-based elastomer having at least 60 wt% propylene-derived units and 5 to 25 wt% ethylene-derived units, based on total weight of the propylene-based elastomer, and a heat of fusion of less than 80 J/g; (c) from 50 phr to 150 phr of one or more fillers relative to the total amount of ethylene-propylene-diene terpolymer and propylene-based elastomer; and (d) a foaming agent.
Line-guiding device with a plurality of links which are connected to one another in an articulated fashion and form a loop consisting of an upper run, a deflection region, and a lower run, wherein neighbouring links can be pivoted relative to each other about a respective pivot axis, wherein the pivot axes are, at least in the case of some of the links, arranged closer to a loop inner side than a loop outer side, wherein the links each have two side tabs situated opposite each other, wherein side tabs of neighbouring links form at least one running surface on the loop inner side, wherein at least some of the links have a respective roller projecting from the running surface, wherein the upper run and the lower run can bear against each other via the running surface in such a way that the upper run and the lower run can be moved relative to each other by means of the rollers, characterized in that the running surface is interrupted at at least some of the links by a plurality of depressions.
A method of making a fiber optic connector sub-assembly, comprising: (a) providing a ferrule having a front end, a rear end, a ferrule bore extending between the front and rear ends (14,16) along a longitudinal axis; (b) initially disposing a bonding agent in the ferrule bore; (c) heating at least a portion of the ferrule above a melting temperature of the bonding agent initially disposed in the ferrule bore so that some of the bonding agent melts; and (d) solidifying the bonding agent that has melted in step (c) to form the fiber optic connector sub-assembly; wherein: the bonding agent has first and second ends along the longitudinal axis that have been melted and solidified following steps (c) and (d); characterized in that a portion of the bonding agent initially disposed in the ferrule bore in step (b) remains below the melting temperature of the bonding agent during steps (c) and (d) so that the portion of the bonding agent is unaffected by the melting and the solidifying during steps (c) and (d); and that step (d) is performed without any optical fiber being located in the ferrule bore. (a) providing a ferrule having a front end, a rear end, a ferrule bore extending between the front and rear ends (14,16) along a longitudinal axis; (b) initially disposing a bonding agent in the ferrule bore; (c) heating at least a portion of the ferrule above a melting temperature of the bonding agent initially disposed in the ferrule bore so that some of the bonding agent melts; and (d) solidifying the bonding agent that has melted in step (c) to form the fiber optic connector sub-assembly; the bonding agent has first and second ends along the longitudinal axis that have been melted and solidified following steps (c) and (d); characterized in that a portion of the bonding agent initially disposed in the ferrule bore in step (b) remains below the melting temperature of the bonding agent during steps (c) and (d) so that the portion of the bonding agent is unaffected by the melting and the solidifying during steps (c) and (d); and that step (d) is performed without any optical fiber being located in the ferrule bore.
A method comprising: identifying, by a controlling device, a first network device (104, 106, 108) that is generating data traffic being queued at a first queue of a first port (10, 11, 12, 13, 14, 15) at the controlling device; detecting, by the controlling device, that the data traffic generated by the first network device (104, 106, 108) is at least partially causing a congestion at the first queue of the controlling device; determining, by the controlling device, a second network device (104, 106, 108) that is coupled to the first network device (104, 106, 108); and determining, by the controlling device, a second port (20, 21, 22, 23, 31, 32, 33) of the secohd network device (104, 106, 108) to which the first network device (104, 106, 108) is connected; characterized by generating, by the controlling device, an end to end flow control message comprising an identifier of the first network device (104, 106, 108), an identifier of the second network device (104, 106, 108) and identifier of the second port (20, 21, 22, 23, 31, 32, 33) of the second network device (104, 106, 108); and transmitting, by the controlling device, the end to end flow control message to the second network device (104, 106, 108). identifying, by a controlling device, a first network device (104, 106, 108) that is generating data traffic being queued at a first queue of a first port (10, 11, 12, 13, 14, 15) at the controlling device; detecting, by the controlling device, that the data traffic generated by the first network device (104, 106, 108) is at least partially causing a congestion at the first queue of the controlling device; determining, by the controlling device, a second network device (104, 106, 108) that is coupled to the first network device (104, 106, 108); and determining, by the controlling device, a second port (20, 21, 22, 23, 31, 32, 33) of the secohd network device (104, 106, 108) to which the first network device (104, 106, 108) is connected; characterized by generating, by the controlling device, an end to end flow control message comprising an identifier of the first network device (104, 106, 108), an identifier of the second network device (104, 106, 108) and identifier of the second port (20, 21, 22, 23, 31, 32, 33) of the second network device (104, 106, 108); and transmitting, by the controlling device, the end to end flow control message to the second network device (104, 106, 108).
A leakage protection device comprising a housing and a core assembly disposed in the housing, the core assembly comprising a control circuit board and an input assembly and an output assembly which are coupled to the control circuit board, the leakage protection device comprising a reset assembly and a test assembly; the reset assembly comprising a reset button disposed outside the housing, and the test assembly comprising a test button disposed outside the housing; and the input assembly extending out of the housing in a first direction, the reset button and the test button being arranged on the outer peripheral surface of the housing parallel to the first direction so that the operation directions of the reset button and the test button are angled with the first direction; wherein the leakage protection device further comprises a releasing assembly and a detection assembly coupled to the control circuit board; characterized in that, the input assembly comprises a pair of elastic contact arms (871, 872), each elastic contact arm is provided with a movable electrical contact; the output assembly comprises a pair of contact arms (861, 862), each contact arm is provided with a static electrical contact to cooperate with the movable electrical contact; and the releasing assembly is provided with a releaser for urging the movable electrical contact to engage with or disengage from the static electrical contact, and the pair of elastic contact arms (871, 872) of the input assembly are coupled to a power supply terminal through the detection assembly.