mhurhangee/ep-ind-claims huggingface dataset:
A bulkhead for a transport refrigeration unit, comprising: a bulkhead body including an inner panel, an outer panel generally tracking a contour of the inner panel, an insulation layer positioned between the inner and outer panels (82, 80), a peripheral edge, and a center portion surrounded by the peripheral edge, the center portion being offset from a plane defined by the peripheral edge; a service opening defined in an offset portion of the center portion; and a removable access door that closes the service opening, wherein the removable access door is oriented parallel to a plane defined by the peripheral edge; wherein the service opening is configured to provide access to an evaporator unit of a TRU from a front side of the bulkhead; characterized in that the removable access door includes an inner panel made from a sheet moulding compound material and an outer panel made from the sheet molding compound material, a center portion of the inner panel protrudes toward the outer panel of the removable access door, and the inner panel of the removable access door is shaped to track the curvature of the inner panel of bulkhead body to allow airflow to be formed. a bulkhead body including an inner panel, an outer panel generally tracking a contour of the inner panel, an insulation layer positioned between the inner and outer panels (82, 80), a peripheral edge, and a center portion surrounded by the peripheral edge, the center portion being offset from a plane defined by the peripheral edge; a service opening defined in an offset portion of the center portion; and a removable access door that closes the service opening, wherein the removable access door is oriented parallel to a plane defined by the peripheral edge; wherein the service opening is configured to provide access to an evaporator unit of a TRU from a front side of the bulkhead; characterized in that the removable access door includes an inner panel made from a sheet moulding compound material and an outer panel made from the sheet molding compound material, a center portion of the inner panel protrudes toward the outer panel of the removable access door, and the inner panel of the removable access door is shaped to track the curvature of the inner panel of bulkhead body to allow airflow to be formed.
A conjugate of a cell-penetrating carrier peptide and an active ingredient, wherein the carrier peptide is a peptide consisting of SEQ ID NO:48, a peptide made of 30 or less amino acids and having at least 80% homology with the above-mentioned peptide, or a fragment of any one of the above mentioned peptides, wherein the peptide having at least 80% homology and the fragment retain the cell-penetrating ability of SEQ ID NO:48, and wherein the active ingredient is not a protein or peptide. wherein the carrier peptide is a peptide consisting of SEQ ID NO:48, a peptide made of 30 or less amino acids and having at least 80% homology with the above-mentioned peptide, or a fragment of any one of the above mentioned peptides, wherein the peptide having at least 80% homology and the fragment retain the cell-penetrating ability of SEQ ID NO:48, and wherein the active ingredient is not a protein or peptide.
An oral care mouthrinse composition comprising: (a) 0.05 to 0.1 % by weight of the composition of cetylpyridinium chloride and (b) a pharmaceutically-acceptable liquid carrier comprising by weight of the composition from 60% to 95% of water, from 5% to 30% of glycerin, from 0.04% to 2% of a flavoring agent, from 0.01% to 3% by weight of a sweetening agent, and from 0.001% to 0.5% of a coloring agent; wherein the composition contains less than 0.1 % by weight of surfactants and wherein the composition has at least 65% bioavailability as determined by the Disk Retention Assay to deliver a bioavailable amount of at least 324 ppm of quaternary ammonium antimicrobial agent and wherein the composition does not comprise a preservative and wherein the composition comprises no ethyl alcohol. (a) 0.05 to 0.1 % by weight of the composition of cetylpyridinium chloride and (b) a pharmaceutically-acceptable liquid carrier comprising by weight of the composition from 60% to 95% of water, from 5% to 30% of glycerin, from 0.04% to 2% of a flavoring agent, from 0.01% to 3% by weight of a sweetening agent, and from 0.001% to 0.5% of a coloring agent; wherein the composition contains less than 0.1 % by weight of surfactants and wherein the composition has at least 65% bioavailability as determined by the Disk Retention Assay to deliver a bioavailable amount of at least 324 ppm of quaternary ammonium antimicrobial agent and wherein the composition does not comprise a preservative and wherein the composition comprises no ethyl alcohol.
A drinking container for beverages comprising a body for receiving beverages, having a base, a first side wall adjoining the base and an opening section adjoining the first side wall and having a discharge opening; a cover module which can be placed on or is present on the body and has a second side wall and a cover flap adjacent thereto, wherein, when the cover module is present on the body, the first and second side walls form an outline shape of the container, at least in sections, the diameter of which runs through at least one diameter maximum in a longitudinal direction of the container; and at least one film which, at least in regions, rests against the first and second side walls and extends on one side and an opposite side of the at least one diameter maximum, wherein the cover module is connected by way of the film to the body, characterized in that the container further comprises a separate first closure for the discharge opening, and the first closure of the discharge opening comprises or is a destructible film, and wherein the cover module comprises a destruction unit for the first closure.
A system for controlling an HVAC system of a type having a plurality of HVAC vents, each HVAC vent disposed in a corresponding location in a building, the system comprising a corresponding plurality of intelligent controlled registers (113, 116, 120,1 23, 126, 200), each intelligent controlled register (113, 116, 120, 123,126, 200) associated with a distinct one of the HVAC vents, each one of the intelligent controlled registers (113, 116, 120, 123, 126, 200) being in communication with at least one other of the plurality of intelligent controlled registers (113, 116, 120, 123, 126, 200) and executing an autonomous local control program, such program processing data provided by each of the other intelligent controlled registers (113,116,120,123,126, 200), so as to collectively control the plurality of HVAC vents on a peer-to-peer basis, wherein each intelligent controlled register (113,116,120,123,126, 200) comprises: a motor coupled to a controllable damper (300, 303); a temperature sensor; a wireless transceiver for communicating with at least one other of the plurality of intelligent controlled registers (113, 116, 120, 123, 126, 200); a controller coupled to the motor, the temperature sensor and the transceiver; a power source coupled to the motor, the transceiver and the controller; characterized in that the controller is configured to carry out processes including: obtaining data from the temperature sensor and, via the wireless transceiver, data from at least one other of the plurality of intelligent controlled registers (113, 116, 120, 123, 126, 200); using the obtained data to automatically determine a desired operation of the damper (300, 303); and driving the motor to cause the desired operation of the damper (300, 303). a motor coupled to a controllable damper (300, 303); a temperature sensor; a wireless transceiver for communicating with at least one other of the plurality of intelligent controlled registers (113, 116, 120, 123, 126, 200); a controller coupled to the motor, the temperature sensor and the transceiver; a power source coupled to the motor, the transceiver and the controller; obtaining data from the temperature sensor and, via the wireless transceiver, data from at least one other of the plurality of intelligent controlled registers (113, 116, 120, 123, 126, 200); using the obtained data to automatically determine a desired operation of the damper (300, 303); and driving the motor to cause the desired operation of the damper (300, 303).
Implant (11; 411; 611; 1011) for filling a bore hole in a bone, comprising a single solid moulded ceramic tile implant body (13; 413; 613; 1013) of width D and thickness H, wherein D is greater than H, wherein the implant body has an exposed top ceramic surface and wherein a plurality of wire anchoring arms (15; 415; 615; 1015) extend substantially laterally from the moulded ceramic implant body, characterised in that the implant body has an exposed bottom ceramic surface and in that the moulded ceramic implant body has been moulded around the wire anchoring arms to provide a wire-supported implant body.
A resistive paste that contains an In-Sn complex oxide, a glass frit, and an organic vehicle, the resistive paste further comprising: a densification promoting metal (Mp) that promotes densification of a sintered compact formed by firing the resistive paste and is at least one selected from the group consisting of Ni and Cu; and optionally, a densification preventing metal (Mc) that prevents the densification and is at least one selected from the group consisting of Mo, Cr, and Nb; wherein the component ratio (ITO, Mp, Mc) of the In-Sn complex oxide, the densification promoting metal (Mp), and the densification preventing metal (Mc) on the basis of volume percent is in a range included by a polygon defined by point A (95, 5, 0), point B (92.5, 5, 2.5), point C (55, 30, 15), point D (50, 40, 10), and point E (70, 30, 0). a densification promoting metal (Mp) that promotes densification of a sintered compact formed by firing the resistive paste and is at least one selected from the group consisting of Ni and Cu; and optionally, a densification preventing metal (Mc) that prevents the densification and is at least one selected from the group consisting of Mo, Cr, and Nb; wherein the component ratio (ITO, Mp, Mc) of the In-Sn complex oxide, the densification promoting metal (Mp), and the densification preventing metal (Mc) on the basis of volume percent is in a range included by a polygon defined by point A (95, 5, 0), point B (92.5, 5, 2.5), point C (55, 30, 15), point D (50, 40, 10), and point E (70, 30, 0).
A tire comprising a land part partitioned between two main grooves (10, 11) extending in a circumferential direction of a tire and resonators formed in the land part, wherein a resonator has a cavity part separated from the two main grooves and is opened at the surface of the land part, a 1st sipe that is opened at one main groove and the cavity part and a 2nd sipe that is opened at the other main groove (10, 11) and the cavity part, wherein the lengths of the first and the second sipes (32, 33) are 10mm or more and 25mm or less, I the tire being characterised in that depths of the main grooves are 3mm or more and 6.5mm or less, a volume value of the cavity part is 3 times or more and 5 times or less a sum of the cross-sectional areas of the two main grooves with the land in between. wherein a resonator has a cavity part separated from the two main grooves and is opened at the surface of the land part, a 1st sipe that is opened at one main groove and the cavity part and a 2nd sipe that is opened at the other main groove (10, 11) and the cavity part, wherein the lengths of the first and the second sipes (32, 33) are 10mm or more and 25mm or less, I the tire being characterised in that depths of the main grooves are 3mm or more and 6.5mm or less, a volume value of the cavity part is 3 times or more and 5 times or less a sum of the cross-sectional areas of the two main grooves with the land in between. depths of the main grooves are 3mm or more and 6.5mm or less, a volume value of the cavity part is 3 times or more and 5 times or less a sum of the cross-sectional areas of the two main grooves with the land in between.
An apparatus (100, 816) for catalysing nanobubbles that are produced in water by a nanobubble generator (102, 808), the apparatus comprising: a hollow tubular body (104, 304, 406, 414, 504, 604, 824, 910) having a first end (106, 506, 606, 822, 908) and a second end (108, 502, 602, 826); and at least one riffle (110, 408, 412) inside the hollow tubular body, wherein the first end is configured to be fluidically coupled to an output of the nanobubble generator and the second end is configured to be fluidically coupled to an input of a piping system, and wherein when the water including the nanobubbles flows from the nanobubble generator towards the piping system through the apparatus, the at least one riffle breaks the nanobubbles into smaller-sized nanobubbles and promote circulation of the smaller-sized nanobubbles, wherein the at least one riffle (110, 408, 412) is implemented as a spiral element that is a resilient member, characterised in that the spiral element is removably insertable inside the hollow tubular body (104, 304, 406, 414, 504, 824, 910), in that the inner surface of the hollow tubular body is smooth, and in that the apparatus (100, 816) further comprises an adjustable mechanics having a nut (402, 410) and a threaded tube (404, 408), the threaded tube having threads on its outer surface and being dimensioned to be screwable into the nut, wherein the nut is configured to be fixed at the second end of the hollow tubular body and the threaded tube is configured to be rotatably screwed with respect to the nut, to adjust a length of the spiral element inserted in the hollow tubular body when the adjustable mechanics is in use. a hollow tubular body (104, 304, 406, 414, 504, 604, 824, 910) having a first end (106, 506, 606, 822, 908) and a second end (108, 502, 602, 826); and at least one riffle (110, 408, 412) inside the hollow tubular body, wherein the first end is configured to be fluidically coupled to an output of the nanobubble generator and the second end is configured to be fluidically coupled to an input of a piping system, and wherein when the water including the nanobubbles flows from the nanobubble generator towards the piping system through the apparatus, the at least one riffle breaks the nanobubbles into smaller-sized nanobubbles and promote circulation of the smaller-sized nanobubbles, wherein the at least one riffle (110, 408, 412) is implemented as a spiral element that is a resilient member, characterised in that the spiral element is removably insertable inside the hollow tubular body (104, 304, 406, 414, 504, 824, 910), in that the inner surface of the hollow tubular body is smooth, and in that the apparatus (100, 816) further comprises an adjustable mechanics having a nut (402, 410) and a threaded tube (404, 408), the threaded tube having threads on its outer surface and being dimensioned to be screwable into the nut, wherein the nut is configured to be fixed at the second end of the hollow tubular body and the threaded tube is configured to be rotatably screwed with respect to the nut, to adjust a length of the spiral element inserted in the hollow tubular body when the adjustable mechanics is in use.
An apparatus for analyzing biologic fluid, comprising: a tape including a first planar member and a second planar member spaced apart from one another and bonded together at discrete points, wherein at least one of the first planar member and second planar member is transparent, and at least one chamber having a height is formed between the planar members (12, 14), characterized in that at least three separators are disposed in each of the at least one chamber, and wherein at least one of the first planar member, second planar member, or separators is flexible to permit the chamber height to be substantially uniform; a source reel on which the tape is wound; and a take-up reel on which the tape is wound. a tape including a first planar member and a second planar member spaced apart from one another and bonded together at discrete points, wherein at least one of the first planar member and second planar member is transparent, and at least one chamber having a height is formed between the planar members (12, 14), characterized in that at least three separators are disposed in each of the at least one chamber, and wherein at least one of the first planar member, second planar member, or separators is flexible to permit the chamber height to be substantially uniform; a source reel on which the tape is wound; and a take-up reel on which the tape is wound.
A compensator module configured to be connected to a transceiver unit by an antenna cable, comprising: a signal input configured for supplying a transmitter power in a first frequency band delivered via the antenna cable to the compensator module as a transmitter input power, wherein the transmitter power is provided by the transceiver unit at its output, wherein the transmitter input power is supplied at the signal input of the compensator module, a transmitter amplifier configured for amplifying the transmitter input power to provide a transmitter output power, and a signal output configured for delivering the transmitter output power in the first frequency band to an antenna or an equivalent load, wherein the compensator module is configured to generate a parameter that represents the transmitter output power, and wherein the compensator module comprises a data interface configured to transmit the parameter to the transceiver unit over the antenna cable, characterized in that the parameter is determined from a difference between the transmitter output power and the transmitter power, wherein the transmitter power is known from a preset initial parameter which is stored in the compensator module and transmitted to the transceiver unit, the preset initial parameter corresponding to a predefined transmitter power to be provided by the transceiver unit. a signal input configured for supplying a transmitter power in a first frequency band delivered via the antenna cable to the compensator module as a transmitter input power, wherein the transmitter power is provided by the transceiver unit at its output, wherein the transmitter input power is supplied at the signal input of the compensator module, a transmitter amplifier configured for amplifying the transmitter input power to provide a transmitter output power, and a signal output configured for delivering the transmitter output power in the first frequency band to an antenna or an equivalent load, wherein the compensator module is configured to generate a parameter that represents the transmitter output power, and wherein the compensator module comprises a data interface configured to transmit the parameter to the transceiver unit over the antenna cable,
A wireless terminal comprising: a plurality of communication interfaces (11, 12, 13, 14); at least one memory; and at least one processor configured to load system software and first and second application programs (34, 33) from the at least one memory, execute the system software and the first and second application programs (34, 33), and perform gateway processing by executing the first application program, characterized in that the gateway processing comprises: receiving, by the first application program, transmission data of the second application program using an inter-program communication function provided by the system software; converting, by the first application program, the transmission data into a protocol data unit, PDU, corresponding to a disruption tolerant network, DTN; selecting, by the first application program, from the plurality of communication interfaces (11, 12, 13, 14), at least one communication interface to which the PDU is to be transmitted; and sending, by the first application program, the PDU to be transmitted to the at least one communication interface while conforming to the DTN. a plurality of communication interfaces (11, 12, 13, 14); at least one memory; and at least one processor configured to load system software and first and second application programs (34, 33) from the at least one memory, execute the system software and the first and second application programs (34, 33), and perform gateway processing by executing the first application program, characterized in that the gateway processing comprises: receiving, by the first application program, transmission data of the second application program using an inter-program communication function provided by the system software; converting, by the first application program, the transmission data into a protocol data unit, PDU, corresponding to a disruption tolerant network, DTN; selecting, by the first application program, from the plurality of communication interfaces (11, 12, 13, 14), at least one communication interface to which the PDU is to be transmitted; and sending, by the first application program, the PDU to be transmitted to the at least one communication interface while conforming to the DTN. receiving, by the first application program, transmission data of the second application program using an inter-program communication function provided by the system software; converting, by the first application program, the transmission data into a protocol data unit, PDU, corresponding to a disruption tolerant network, DTN; selecting, by the first application program, from the plurality of communication interfaces (11, 12, 13, 14), at least one communication interface to which the PDU is to be transmitted; and sending, by the first application program, the PDU to be transmitted to the at least one communication interface while conforming to the DTN.
A method comprising: receiving an assignment of at least one time segment from among multiple time segments of a segmented transmission time interval, TTI, wherein the TTI is a subframe of a radio frame, and wherein at least two terminals are assigned different channelization codes within the same time segment of the segmented TTI; obtaining input samples for the at least one time segment; and despreading the input samples with at least one channelization code used in the segmented TTI, in accordance with the assignment. receiving an assignment of at least one time segment from among multiple time segments of a segmented transmission time interval, TTI, wherein the TTI is a subframe of a radio frame, and wherein at least two terminals are assigned different channelization codes within the same time segment of the segmented TTI; obtaining input samples for the at least one time segment; and despreading the input samples with at least one channelization code used in the segmented TTI, in accordance with the assignment.
A method, comprising: holding in a memory of a receiver, for each temperature in a range of temperatures, a respective first parameter indicative of a frequency error of a crystal oscillator in the receiver at the temperature, and a respective second parameter indicative of an uncertainty of the first parameter; measuring an operating temperature of the crystal oscillator; selecting, based on the first and second parameters corresponding to the measured operating temperature, a baseline frequency and a size of a frequency uncertainty range around the baseline frequency, over which to attempt initial acquisition of signals from a transmitter; and tuning the receiver to receive the signals from the transmitter over the selected frequency uncertainty range. holding in a memory of a receiver, for each temperature in a range of temperatures, a respective first parameter indicative of a frequency error of a crystal oscillator in the receiver at the temperature, and a respective second parameter indicative of an uncertainty of the first parameter; measuring an operating temperature of the crystal oscillator; selecting, based on the first and second parameters corresponding to the measured operating temperature, a baseline frequency and a size of a frequency uncertainty range around the baseline frequency, over which to attempt initial acquisition of signals from a transmitter; and tuning the receiver to receive the signals from the transmitter over the selected frequency uncertainty range.