mhurhangee/ep-ind-claims huggingface dataset:
A system for treating a volume of tissue with high intensity focused ultrasound (HIFU), the system comprising: a hand-held or hand-guided HIFU applicator; a HIFU transducer having a movable transducer focal zone, wherein the HIFU transducer is configured to deliver HIFU treatment signals to a targeted volume of tissue at a treatment site; and a processor programmed to cause the HIFU transducer to deliver the HIFU treatment signals in a pattern at a periphery of the targeted volume of tissue, wherein the HIFU treatment signals are delivered in a pattern that creates a plurality of elemental treatment volumes (80, 82, 84, 86, 88 89) around the periphery of the targeted volume of tissue, and wherein the processor is programmed to determine a power level for the HIFU treatment signals by referencing predetermined data stored in a memory that relates power applied in HIFU treatment signals by the HIFU transducer to power contained in the HIFU treatment signals at the focal zone at a fundamental frequency or one or more harmonics of the fundamental frequency, and based on the predetermined data, selecting a power level for the HIFU treatment signals such that a portion of the power at the fundamental frequency of the HIFU treatment signals is converted to power at a harmonic of the fundamental frequency at the treatment site. a hand-held or hand-guided HIFU applicator; a HIFU transducer having a movable transducer focal zone, wherein the HIFU transducer is configured to deliver HIFU treatment signals to a targeted volume of tissue at a treatment site; and a processor programmed to cause the HIFU transducer to deliver the HIFU treatment signals in a pattern at a periphery of the targeted volume of tissue, wherein the HIFU treatment signals are delivered in a pattern that creates a plurality of elemental treatment volumes (80, 82, 84, 86, 88 89) around the periphery of the targeted volume of tissue, and wherein the processor is programmed to determine a power level for the HIFU treatment signals by referencing predetermined data stored in a memory that relates power applied in HIFU treatment signals by the HIFU transducer to power contained in the HIFU treatment signals at the focal zone at a fundamental frequency or one or more harmonics of the fundamental frequency, and based on the predetermined data, selecting a power level for the HIFU treatment signals such that a portion of the power at the fundamental frequency of the HIFU treatment signals is converted to power at a harmonic of the fundamental frequency at the treatment site.
Roof box for transporting luggage on a vehicle roof, comprising: - a hollow body, which can be positioned on the roof racks of a vehicle and is provided with an opening and a further opening, through which it is possible to have access to its interior intended for the luggage, wherein the opening is located in a lateral longitudinal side of the hollow body and the further opening is located in a lateral transverse side of the hollow body; - a hatch, which is hinged on the aforementioned lateral longitudinal side to the hollow body and is rotatable from a closed position, in which it closes the opening, to an open position, in which it does not obstruct the opening, and vice-versa; - fastening means for fastening the hollow body, in a manner that can be detached if required, to the roof racks of a vehicle; - a number of projections (7, 7a) which (7, 7a) are present in the inner part of the hollow body and form supports on which the flat bodies (6; 6, 6a) can be placed in a removable manner; characterized in that it provides - a further hatch, which is hinged to the hollow body on a lateral transverse side, and is rotatable from a closed position, in which it closes the further opening, into an open position, in which it does not obstruct the further opening, and vice-versa; - flat bodies (6,6a) for dividing the interior of the hollow body; - that the projections (7, 7a), extend along the inner side walls delimiting the interior of the hollow body, and - that one of the projections (7, 7a) extends continuously at the same height as calculated by the floor. - a hollow body, which can be positioned on the roof racks of a vehicle and is provided with an opening and a further opening, through which it is possible to have access to its interior intended for the luggage, wherein the opening is located in a lateral longitudinal side of the hollow body and the further opening is located in a lateral transverse side of the hollow body; - a hatch, which is hinged on the aforementioned lateral longitudinal side to the hollow body and is rotatable from a closed position, in which it closes the opening, to an open position, in which it does not obstruct the opening, and vice-versa; - fastening means for fastening the hollow body, in a manner that can be detached if required, to the roof racks of a vehicle; - a number of projections (7, 7a) which (7, 7a) are present in the inner part of the hollow body and form supports on which the flat bodies (6; 6, 6a) can be placed in a removable manner; characterized in that it provides - a further hatch, which is hinged to the hollow body on a lateral transverse side, and is rotatable from a closed position, in which it closes the further opening, into an open position, in which it does not obstruct the further opening, and vice-versa; - flat bodies (6,6a) for dividing the interior of the hollow body; - that the projections (7, 7a), extend along the inner side walls delimiting the interior of the hollow body, and - that one of the projections (7, 7a) extends continuously at the same height as calculated by the floor.
A method of manufacturing a separator for a lithium secondary battery, the method comprising: preparing a gas mixture by mixing N 2 gas or O 2 gas or a mixture thereof with F 2 gas; and bringing the gas mixture into contact with a porous resin to form a polar functional group on a surface of the porous resin; characterized in that the pressure ratio of the F 2 gas to the N 2 gas or the O 2 gas or the mixture thereof in the preparing step is in the range from 7.5:2.5 to 9.4:0.6. preparing a gas mixture by mixing N 2 gas or O 2 gas or a mixture thereof with F 2 gas; and bringing the gas mixture into contact with a porous resin to form a polar functional group on a surface of the porous resin; characterized in that the pressure ratio of the F 2 gas to the N 2 gas or the O 2 gas or the mixture thereof in the preparing step is in the range from 7.5:2.5 to 9.4:0.6.
A method of manufacturing a semiconductor light-emitting diode device, comprising the steps of: - providing a first substrate; - providing a semiconductor epitaxial stack; - forming a patterned sacrificial layer between the first substrate and the semiconductor epitaxial stack; - adhering the first substrate to the semiconductor epitaxial stack by a first adhesive layer, wherein the first adhesive layer is covering the sacrificial layer; - patterning the semiconductor epitaxial stack into the multiple epitaxial units (2201, 2202), wherein the plurality of epitaxial units comprises: multiple first epitaxial units, wherein each of the first epitaxial units has a first geometric shape and a first area; and multiple second epitaxial units, wherein each of the second epitaxial units has a second geometric shape and a second area, and the multiple second epitaxial units is corresponding to the position of the patterned sacrificial layer; - providing a second substrate with a surface; - decreasing the adhesion of the patterned sacrificial layer; - thereafter transferring the multiple second epitaxial units to the surface of the second substrate; and - dividing the first substrate to form multiple first semiconductor light-emitting diode devices, wherein each of the first semiconductor light-emitting diode devices has one of the first epitaxial units; wherein the first geometric shape is different from the second geometric shape or the first area is different from the second area. - providing a first substrate; - providing a semiconductor epitaxial stack; - forming a patterned sacrificial layer between the first substrate and the semiconductor epitaxial stack; - adhering the first substrate to the semiconductor epitaxial stack by a first adhesive layer, wherein the first adhesive layer is covering the sacrificial layer; - patterning the semiconductor epitaxial stack into the multiple epitaxial units (2201, 2202), wherein the plurality of epitaxial units comprises: multiple first epitaxial units, wherein each of the first epitaxial units has a first geometric shape and a first area; and multiple second epitaxial units, wherein each of the second epitaxial units has a second geometric shape and a second area, and the multiple second epitaxial units is corresponding to the position of the patterned sacrificial layer; multiple first epitaxial units, wherein each of the first epitaxial units has a first geometric shape and a first area; and multiple second epitaxial units, wherein each of the second epitaxial units has a second geometric shape and a second area, and the multiple second epitaxial units is corresponding to the position of the patterned sacrificial layer; - providing a second substrate with a surface; - decreasing the adhesion of the patterned sacrificial layer; - thereafter transferring the multiple second epitaxial units to the surface of the second substrate; and - dividing the first substrate to form multiple first semiconductor light-emitting diode devices, wherein each of the first semiconductor light-emitting diode devices has one of the first epitaxial units;
A memory cell, comprising: a bottom electrode having an upper surface with an upper surface area; first and second programmable material plates (22, 24) having length, width and thickness (30, 32) dimensions; the thickness (30, 32) dimensions being less than the length and width dimensions; the programmable material plates (22, 24) having thin edges along the thickness (30, 32) dimensions; the first programmable material plate being supported edgewise over the bottom electrode; the first programmable material plate having a bottom thin edge and an upper thin edge; only the bottom thin edge of the first programmable material plate being against the bottom electrode, and being directly against only a portion of the upper surface area of the bottom electrode; the second programmable material plate being supported edgewise over the first programmable material plate; the second programmable material plate having a bottom thin edge and a top thin edge; the bottom thin edge of the second programmable material plate being directly against the top thin edge of the first programmable material plate; and a top electrode over the top thin edge of the second programmable material plate. a bottom electrode having an upper surface with an upper surface area; first and second programmable material plates (22, 24) having length, width and thickness (30, 32) dimensions; the thickness (30, 32) dimensions being less than the length and width dimensions; the programmable material plates (22, 24) having thin edges along the thickness (30, 32) dimensions; the first programmable material plate being supported edgewise over the bottom electrode; the first programmable material plate having a bottom thin edge and an upper thin edge; only the bottom thin edge of the first programmable material plate being against the bottom electrode, and being directly against only a portion of the upper surface area of the bottom electrode; the second programmable material plate being supported edgewise over the first programmable material plate; the second programmable material plate having a bottom thin edge and a top thin edge; the bottom thin edge of the second programmable material plate being directly against the top thin edge of the first programmable material plate; and a top electrode over the top thin edge of the second programmable material plate.
A method performed by a terminal (1515, 1535) in a communication system, the method comprising: receiving, from a base station, a physical uplink control channel, PUCCH, configuration and a physical downlink shared channel, PDSCH, configuration, the PUCCH configuration including information on a number of slots and information on a length of a subslot; receiving, from the base station, downlink control information, DCI, including resource allocation information; receiving, from the base station, data based on the PDSCH configuration and the resource allocation information; and performing repetition of PUCCH transmission for the data over N slots based on the PUCCH configuration, wherein N indicates the number of slots, and wherein the repetition of the PUCCH transmission is performed based on alternating between multiple transmission and reception points, TRPs, per L repetitions of the PUCCH transmission. receiving, from a base station, a physical uplink control channel, PUCCH, configuration and a physical downlink shared channel, PDSCH, configuration, the PUCCH configuration including information on a number of slots and information on a length of a subslot; receiving, from the base station, downlink control information, DCI, including resource allocation information; receiving, from the base station, data based on the PDSCH configuration and the resource allocation information; and performing repetition of PUCCH transmission for the data over N slots based on the PUCCH configuration, wherein N indicates the number of slots, and wherein the repetition of the PUCCH transmission is performed based on alternating between multiple transmission and reception points, TRPs, per L repetitions of the PUCCH transmission.
A battery diagnosing apparatus, comprising: a profile generating unit configured to generate a differential profile (PDa, PDb) representing a corresponding relationship between a voltage of a battery and a differential capacity (dQ/dV) for the voltage of the battery; and a control unit configured to receive the differential profile (PDa, PDb) from the profile generating unit, determine a target peak (TPa, TPb) in the differential profile (PDa, PDb), determine a behavior pattern of the target peak (TPa, TPb) based on a reference peak (RPa, RPb) included in a preset reference profile (Pa, Pb), and diagnose a state of a negative electrode of the battery by comparing the behavior pattern determined for the target peak (TPa, TPb) with a plurality of preset behavior types, characterized in that the control unit is configured to determine the behavior pattern of the target peak (TPa, TPb) by comparing the voltages of the reference peak (RPa, RPb) and the target peak (TPa, TPb) and comparing the differential capacities (dQ/dV) of the reference peak (RPa, RPb) and the target peak (TPa, TPb). a profile generating unit configured to generate a differential profile (PDa, PDb) representing a corresponding relationship between a voltage of a battery and a differential capacity (dQ/dV) for the voltage of the battery; and a control unit configured to receive the differential profile (PDa, PDb) from the profile generating unit, determine a target peak (TPa, TPb) in the differential profile (PDa, PDb), determine a behavior pattern of the target peak (TPa, TPb) based on a reference peak (RPa, RPb) included in a preset reference profile (Pa, Pb), and diagnose a state of a negative electrode of the battery by comparing the behavior pattern determined for the target peak (TPa, TPb) with a plurality of preset behavior types, characterized in that the control unit is configured to determine the behavior pattern of the target peak (TPa, TPb) by comparing the voltages of the reference peak (RPa, RPb) and the target peak (TPa, TPb) and comparing the differential capacities (dQ/dV) of the reference peak (RPa, RPb) and the target peak (TPa, TPb).
A pressure vessel comprising: a pressure vessel body provided with a flow channel through which a fluid is caused to flow, having a rectangular cross-sectional shape, and formed in an elongated shape; and a circular body flange provided on at least one longitudinal end side of the pressure vessel body and including an opening portion formed as a through hole, the pressure vessel body being inserted in the body flange, wherein the pressure vessel body has a fluid inlet-outlet port which is provided in a side surface on the one longitudinal end side and provided on the body flange side of the pressure vessel body and connects with the flow channel and through which the fluid is caused to flow in or out, the pressure vessel further comprises an inlet-outlet header which is formed between an outer surface of the pressure vessel body and an inner surface of the body flange as a closed space connecting with the fluid inlet-outlet port and which the fluid is caused to flow into and out of, and the opening portion of the body flange has a space in which the pressure vessel body is insertable and a space in which the inlet-outlet header is formable. a pressure vessel body provided with a flow channel through which a fluid is caused to flow, having a rectangular cross-sectional shape, and formed in an elongated shape; and a circular body flange provided on at least one longitudinal end side of the pressure vessel body and including an opening portion formed as a through hole, the pressure vessel body being inserted in the body flange, wherein the pressure vessel body has a fluid inlet-outlet port which is provided in a side surface on the one longitudinal end side and provided on the body flange side of the pressure vessel body and connects with the flow channel and through which the fluid is caused to flow in or out, the pressure vessel further comprises an inlet-outlet header which is formed between an outer surface of the pressure vessel body and an inner surface of the body flange as a closed space connecting with the fluid inlet-outlet port and which the fluid is caused to flow into and out of, and the opening portion of the body flange has a space in which the pressure vessel body is insertable and a space in which the inlet-outlet header is formable.
Adhesive composition comprising: • at least one starch and/or at least one starch derivative, in an amount of 22% w/w to 46% w/w, dry matter, of the overall adhesive composition; • at least one solvent, said solvent preferably comprising or consisting of water, in an amount of 30% w/w to 95% w/w of the overall adhesive composition; • microfibrillated cellulose in an amount of 0.001% w/w to 10% w/w, dry matter, of the overall adhesive composition, preferably of 0.01% w/w to 10% w/w, dry matter, of the overall adhesive composition, wherein the amount of microfibrillated cellulose, as measured relative to the overall amount of starch, in the adhesive composition is from 0.003% w/w to 22% w/w, and wherein the microfibrillated cellulose is non-modified (native) microfibrillated cellulose or physically modified microfibrillated cellulose. • at least one starch and/or at least one starch derivative, in an amount of 22% w/w to 46% w/w, dry matter, of the overall adhesive composition; • at least one solvent, said solvent preferably comprising or consisting of water, in an amount of 30% w/w to 95% w/w of the overall adhesive composition; • microfibrillated cellulose in an amount of 0.001% w/w to 10% w/w, dry matter, of the overall adhesive composition, preferably of 0.01% w/w to 10% w/w, dry matter, of the overall adhesive composition,
A water heating and treatment system with UV lamp and anti-scale water treatment sanitation for suppression of pathogens and undesired bacterial content in a domestic hot water system comprising: a water heater; a cold water supply line to supply water to said water heater comprising the anti-scale device, and the UV sanitation lamp; a single or multiple mixing station to supply heated water to one or multiple temperature zones, said single or multiple mixing station fluidly coupled to said cold water supply line and to a hot water outflow line from said water heater, said single or multiple mixing station to supply a heated water to at least a first temperature zone at a first hot water temperature; a water heater sanitation loop including a sanitation loop pump to circulate hot water within said water heater; and a three-way return water diverter valve fluidly coupled to said single or multiple mixing station via one or more sanitation components, and to a drain or to another use, via a drain line or a diverted water line, said three-way return water diverter valve to provide a portion of a re-circulated hot water from a hot water recirculation line to said mixing station and a remaining portion of the re-circulated hot water to said drain. a water heater; a cold water supply line to supply water to said water heater comprising the anti-scale device, and the UV sanitation lamp; a single or multiple mixing station to supply heated water to one or multiple temperature zones, said single or multiple mixing station fluidly coupled to said cold water supply line and to a hot water outflow line from said water heater, said single or multiple mixing station to supply a heated water to at least a first temperature zone at a first hot water temperature; a water heater sanitation loop including a sanitation loop pump to circulate hot water within said water heater; and a three-way return water diverter valve fluidly coupled to said single or multiple mixing station via one or more sanitation components, and to a drain or to another use, via a drain line or a diverted water line, said three-way return water diverter valve to provide a portion of a re-circulated hot water from a hot water recirculation line to said mixing station and a remaining portion of the re-circulated hot water to said drain.
A composition comprising a peptide and sugar extract of passionflower seeds, particularly Passiflora incarnata seeds or Passiflora edulis seeds, advantageously Passiflora edulis seeds, as active agent, and if need be a suitable excipient, characterized in that the peptide and sugar extract is obtained by enzymatic hydrolysis, in the presence of at least one protease and at least one carbohydrase.