mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound system (900, 1000, 1100) for non-invasive sonodynamic therapy with planar acoustic waves to treat cells harboring a sonosensitizer, the ultrasound system comprising: a patient interface (650, 906) comprising: a flexible membrane; a rigid shell (110, 1008); and a cooling system (600, 1120), wherein the flexible membrane is couplable to the rigid shell (110, 1008), wherein the rigid shell (110, 1008) comprises an array of flat piezoelectric transducers (150a-150h, 904), wherein the array of flat piezoelectric transducers (150a-150h, 904) is configured to be driven, by a controller (902, 1012) coupled thereto, with a signal at a frequency to produce a modulated acoustic wave to produce an acoustic intensity at the sonosensitizer to treat tumor cells in a patient, wherein each of the flat piezoelectric transducers is configured to emit a planar acoustic wave, wherein the flexible membrane is configured to acoustically couple the array of flat piezoelectric transducers to a skin surface of the patient, wherein the flexible membrane is configured for conforming to the skin surface of the patient, wherein the cooling system (600, 1120) is configured to circulate a fluid to reduce heat at the patient interface, wherein the flexible membrane is configured to create an elastic, fluid-filled pocket in the cooling system (600, 1120) that acoustically couples the array of flat piezoelectric transducers (105a-105h, 904) to the skin surface, and wherein the cooling system (600, 1120) comprises a cooling channel connected to an inlet and an outlet configured to remove heat from the skin surface of the patient. a flexible membrane; a rigid shell (110, 1008); and a cooling system (600, 1120), wherein the flexible membrane is couplable to the rigid shell (110, 1008), wherein the rigid shell (110, 1008) comprises an array of flat piezoelectric transducers (150a-150h, 904), wherein the array of flat piezoelectric transducers (150a-150h, 904) is configured to be driven, by a controller (902, 1012) coupled thereto, with a signal at a frequency to produce a modulated acoustic wave to produce an acoustic intensity at the sonosensitizer to treat tumor cells in a patient, wherein each of the flat piezoelectric transducers is configured to emit a planar acoustic wave, wherein the flexible membrane is configured to acoustically couple the array of flat piezoelectric transducers to a skin surface of the patient, wherein the flexible membrane is configured for conforming to the skin surface of the patient, wherein the cooling system (600, 1120) is configured to circulate a fluid to reduce heat at the patient interface, wherein the flexible membrane is configured to create an elastic, fluid-filled pocket in the cooling system (600, 1120) that acoustically couples the array of flat piezoelectric transducers (105a-105h, 904) to the skin surface, and wherein the cooling system (600, 1120) comprises a cooling channel connected to an inlet and an outlet configured to remove heat from the skin surface of the patient.
A surgical suture (200, 100) comprising: a shaft (202, 102) having a leading end (204, 104), a trailing end (206, 106), and a lumen extending between the leading (204, 104) and trailing (206, 106) ends; a plurality of flexible protrusions (208, 108) extending from said shaft (202, 102); and at least one filament (270, 272) extending through said lumen; characterized in that each of the flexible protrusions of said plurality of flexible protrusions (208, 108) includes a base adjacent the shaft and a flared ring spaced from the outer surface of said shaft. a shaft (202, 102) having a leading end (204, 104), a trailing end (206, 106), and a lumen extending between the leading (204, 104) and trailing (206, 106) ends; a plurality of flexible protrusions (208, 108) extending from said shaft (202, 102); and at least one filament (270, 272) extending through said lumen;
Device for scanning measurement of the eye, consisting of an OCT arrangement with an anterior chamber measurement mode and a retina measurement mode, characterized in that an optical element which can be moved axially for switching between the modes is arranged between the x-y scanner and the eye, and in that the x-y scanner is illuminated convergently or divergently for switching between the modes.
Fuel composition comprising: (a) a base fuel suitable for use in an internal combustion engine; and (b) a tetraalkylethane compound having the formula: wherein Ar represents an aryl group and each X is independently selected from a hydrogen atom, unsubstituted, straight chain or branched C 1 -C 12 alkyl group, (CH 2) n OH or (CH 2) n NH 2, wherein n is in the range of 1 to 9, provided that at least one of the X groups in each CX 3 group is a hydrogen atom; and c) an alkylbenzene compound having the formula wherein each R1-R6 group is independently selected from hydrogen and a C 1 -C 6 alkyl group, wherein at least one of the R1-R6 groups is a C 1 -C 6 alkyl group. (a) a base fuel suitable for use in an internal combustion engine; and (b) a tetraalkylethane compound having the formula: wherein Ar represents an aryl group and each X is independently selected from a hydrogen atom, unsubstituted, straight chain or branched C 1 -C 12 alkyl group, (CH 2) n OH or (CH 2) n NH 2, wherein n is in the range of 1 to 9, provided that at least one of the X groups in each CX 3 group is a hydrogen atom; and c) an alkylbenzene compound having the formula wherein each R1-R6 group is independently selected from hydrogen and a C 1 -C 6 alkyl group, wherein at least one of the R1-R6 groups is a C 1 -C 6 alkyl group.
Packaging of cardboard, paper or the like, comprising - a front wall and a rear wall, at least each two sidewalls (22, 22', 22", 24, 24', 24") connecting the front and rear walls (12, 14) for forming face sides (16, 18) of the packaging, wherein the packaging is formed in the shape of a prismatic body along a longitudinal axis, - a bottom construction including at least one bottom flap (26, 28) hinged to the front or rear wall (12, 14) for bottom-side closure of the packaging, - a lid construction including at least one lid flap (32, 34) hinged to the front or rear wall (12, 14) for lid-side closure of the packaging, wherein the bottom construction and/or the lid construction include at least one dust flap hinged to a bottom-side and/or lid-side end of at least one face-side sidewall (22, 24), and wherein the dust flap includes at least one locking lug, wherein the locking lug is formed such that it abuts on the bottom and/or lid flap (26, 28, 32, 34) and/or the front wall and/or the rear wall in locking manner in closure position of the dust flap and locks in a recess formed in the bottom and/or lid flap (26, 28, 32, 34), characterized in that the recess is formed in the transitional area between the front and/or rear wall (12, 14) and the corresponding bottom and/or lid flap (26, 28, 32, 34). - a front wall and a rear wall, at least each two sidewalls (22, 22', 22", 24, 24', 24") connecting the front and rear walls (12, 14) for forming face sides (16, 18) of the packaging, wherein the packaging is formed in the shape of a prismatic body along a longitudinal axis, - a bottom construction including at least one bottom flap (26, 28) hinged to the front or rear wall (12, 14) for bottom-side closure of the packaging, - a lid construction including at least one lid flap (32, 34) hinged to the front or rear wall (12, 14) for lid-side closure of the packaging,
A method for operating a terminal in a wireless communication system, the method comprising: determining at least one of an average transmission power of data resource elements, REs, and an average transmission power of reference signal REs, based on an average transmission power of REs on the uplink and pre-determined power adjustment parameter (2620, 2630); determining a first transmission power of symbol based on the at least one of the determined average transmission power of the data REs and the average transmission power of the reference signal REs; and adjusting the first transmission power of symbol to a second transmission power for transmitting the symbol based on a maximum terminal transmission power and the first transmission power. determining at least one of an average transmission power of data resource elements, REs, and an average transmission power of reference signal REs, based on an average transmission power of REs on the uplink and pre-determined power adjustment parameter (2620, 2630); determining a first transmission power of symbol based on the at least one of the determined average transmission power of the data REs and the average transmission power of the reference signal REs; and adjusting the first transmission power of symbol to a second transmission power for transmitting the symbol based on a maximum terminal transmission power and the first transmission power.
A pretensioner comprising at least: a pipe; a plurality of ball shaped force transmission members provided movably in the pipe to transmit a force for rotating a spool in a seatbelt retracting direction; a gas generator that generates gas in case of an emergency; a piston that is movably provided in the pipe and pushes the ball shaped force transmission members when moved by a pressure of the gas; a ring gear at least rotatably provided and including a plurality of internal teeth on an inner periphery and a plurality of pressed portions on an outer periphery; and a pinion provided in a spool-side member to rotate the spool and including external teeth to be meshed with the internal teeth, wherein, in case of the emergency, the ball shaped force transmission members are adapted to press the pressed portions of the ring gear to rotate the spool in the seatbelt retracting direction, characterized in that: the ring gear includes a stopper that is adapted to stop rotation of the ring gear by contact with at least one of the ball shaped force transmission members when the ring gear is rotated by a predetermined rotation amount by being pressed by the ball shaped force transmission members. a pipe; a plurality of ball shaped force transmission members provided movably in the pipe to transmit a force for rotating a spool in a seatbelt retracting direction; a gas generator that generates gas in case of an emergency; a piston that is movably provided in the pipe and pushes the ball shaped force transmission members when moved by a pressure of the gas; a ring gear at least rotatably provided and including a plurality of internal teeth on an inner periphery and a plurality of pressed portions on an outer periphery; and a pinion provided in a spool-side member to rotate the spool and including external teeth to be meshed with the internal teeth, the ring gear includes a stopper that is adapted to stop rotation of the ring gear by contact with at least one of the ball shaped force transmission members when the ring gear is rotated by a predetermined rotation amount by being pressed by the ball shaped force transmission members.
Method for estimating the dose administered by an external radiotherapy system provided with a portal imaging device, characterised in that (a) a portal image is acquired using the portal imaging device; (b) the grey level, N g, of the pixel is determined at the centre of the portal image, corresponding to the intersection of the portal imaging device with the axis of the irradiation beam; (c) the dose administered by the system is calculated at a depth of reference ( z ref) in water using D k D 10 eq = α + β ln N g N g,10 where N g,10 is the grey level of the pixel at the centre of the image, obtained for a dose and reference irradiation conditions, D 10 eq is a predetermined constant dose and α, β are coefficients determined beforehand in a prior phase of calibration. (a) a portal image is acquired using the portal imaging device; (b) the grey level, N g, of the pixel is determined at the centre of the portal image, corresponding to the intersection of the portal imaging device with the axis of the irradiation beam; (c) the dose administered by the system is calculated at a depth of reference ( z ref) in water using D k D 10 eq = α + β ln N g N g,10 where N g,10 is the grey level of the pixel at the centre of the image, obtained for a dose and reference irradiation conditions, D 10 eq is a predetermined constant dose and α, β are coefficients determined beforehand in a prior phase of calibration.
An apparatus, comprising: a light beam scanning device configured to scan a light beam (103, 201), within a scan range, over a scene that is within a field of view of the scan range and generate an image map of at least a portion of the scene, based at least in part upon a time of flight of the light beam (103, 201) to and from one or more points within the scene, wherein the light beam scanning device is characterized by: a lens element assembly (104, 204) located in the light beam pathway, the lens element assembly (104, 204) comprising a plurality of lens elements (206, 208) and configured to dynamically adjust a divergence (240A, 204B) and diameter of the light beam (103, 201), such that a spot size of the light beam (103, 201) is adjusted, wherein at least one lens element of the plurality of lens elements (206, 208) is configured to be adjustable, in a direction parallel to a direction of the light beam (103, 201), relative to at least one other lens element of the plurality of lens elements (206, 208), to dynamically adjust a diameter of the light beam (103, 201) along at least one cross-sectional axis of the light beam (103, 201), relative to a diameter of the light beam (103, 201) along at least one other cross-sectional axis of the beam.
A method of manufacturing an amorphous magnetic core (1, 1'), wherein the method comprises assembling a plurality of lamination layers (6, 6') made of amorphous metal strips to designing a wound core shape or a stacked core shape wherein the wound core shape has two parallel faces formed by edges of the lamination layers and has means for constraining the shape of the core during the manufacturing, whereas the stacked core has side faces formed by edges of the lamination layers, characterized in that the method further comprises: - a step of introducing between the neighbouring lamination layers (6, 6') of each said core (1,1') respectively, an organometallic binder (11, 11a) for forming a number of film layers (8, 8') of the binder, wherein the thermal expansion coefficient of the film layers (8, 8') is lower than the thermal expansion coefficient of core lamination layers (6, 6'), and wherein each film layer (8, 8') is disposed through the whole cross-section of the core (1,1') perpendicular to the both faces of the wound core or to all side faces of the stacked core, and - a step of binding together the lamination layers (6, 6') with the film layers (8, 8') by annealing the core (1,1') at a temperature 350-400°C and in a magnetic field having value above 800 A/m, wherein the lamination layers bonded with the film layers (8, 8'), form the core (1, 1') thereby reducing audible noise when the core is under operating condition. - a step of introducing between the neighbouring lamination layers (6, 6') of each said core (1,1') respectively, an organometallic binder (11, 11a) for forming a number of film layers (8, 8') of the binder, wherein the thermal expansion coefficient of the film layers (8, 8') is lower than the thermal expansion coefficient of core lamination layers (6, 6'), and wherein each film layer (8, 8') is disposed through the whole cross-section of the core (1,1') perpendicular to the both faces of the wound core or to all side faces of the stacked core, and - a step of binding together the lamination layers (6, 6') with the film layers (8, 8') by annealing the core (1,1') at a temperature 350-400°C and in a magnetic field having value above 800 A/m, wherein the lamination layers bonded with the film layers (8, 8'), form the core (1, 1') thereby reducing audible noise when the core is under operating condition.
Device for conveying materials comprising at least one conveying belt and a conveying belt drive casing, the drive casing comprising a structure, a drum for setting the conveying belt in motion that is capable of rotating in the structure, a rotation shaft to which the drum is fixed by a clamping means, and a bearing guiding the rotation shaft and fixed to the structure, characterized in that the drive casing comprises, on each side, a mechanical abutment fixed to the structure and capable of supporting the drum when the bearing and the rotation shaft are removed.
A heterodimeric antibody comprising: a) a first monomer comprising: i) a first heavy chain constant domain comprising a first variant Fc domain; and ii) a first antigen binding domain; and b) a second monomer comprising: i) a second heavy chain constant domain comprising a second variant Fc domain; and ii) a second antigen binding domain; wherein said first variant Fc domain comprises amino acid substitutions S364K/E357Q and said second variant Fc domain comprises amino acid substitutions L368D/K370S. a) a first monomer comprising: i) a first heavy chain constant domain comprising a first variant Fc domain; and ii) a first antigen binding domain; and i) a first heavy chain constant domain comprising a first variant Fc domain; and ii) a first antigen binding domain; and b) a second monomer comprising: i) a second heavy chain constant domain comprising a second variant Fc domain; and ii) a second antigen binding domain; i) a second heavy chain constant domain comprising a second variant Fc domain; and ii) a second antigen binding domain;
A switchable window, comprising: first and second transparent substrates (80, 90) supporting first and second transparent conductive electrodes, respectively; an electro-optical layer comprising a plurality of microcells dispersed in a connective polymer based matrix, each said microcell comprising a core of polymer stabilized liquid crystal and being encapsulated in a polymer inclusive shell, and wherein the liquid crystal forms a double twist cylinder structure; wherein the electro-optical layer is sandwiched between the first and second substrates, and between the first and second transparent conductive electrodes.
Air inlet, configured to be mounted on an air passage passing through a joinery, the passage having an internal opening and an opposite external opening and being configured to allow a flow of air to pass, the air inlet comprising a filtration module, intended to filter the flow of air, in which: - a filter module is configured to be fixed directly to the joinery opposite the internal opening, characterised in that the filtration module further comprises: - a support, which delimits a housing for receiving a filter and which is intended to be fixed directly to the joinery, the support comprising retaining lugs for holding the filter in the housing and opposite the internal opening. - a filter module is configured to be fixed directly to the joinery opposite the internal opening, - a support, which delimits a housing for receiving a filter and which is intended to be fixed directly to the joinery, the support comprising retaining lugs for holding the filter in the housing and opposite the internal opening.
A refrigerator comprising a compartment, a door for accessing the compartment in which a chamber for preserving food items is disposed wherein said chamber has a UV light source for preventing microorganism growth in food items preserved within said chamber and a cover for effecting physical isolation of said chamber from inner volume of the compartment characterized in that; said cover of said chamber comprises a second locking means for effecting closing of said cover in a locked manner, said door comprises a first locking means for effecting closing of said door in a locked manner, an electronic control unit for controlling said first locking means and said second locking means and said cover and said door are automatically locked to prevent access while said UV lamp is operational.
System for turning plate-shaped bodies, particularly slabs and plates, comprising at least one turning arm (3, 4), which is arranged to be pivotable about a pivot axis and which can be brought into physical contact with a flat side of a plate-shaped body to be turned, and at least one further turning arm (3, 4), which is arranged to be pivotable about a further pivot axis and which can be brought into physical contact with a further flat side of the plate-shaped body to be turned, wherein the two pivot axes are arranged parallel to and at a spacing from one another, characterised by at least one drivable eccentric arrangement (8, 9) by which a position of one of the pivot axes is adjustable before and/or during a turning process.
A composition comprising at least these components: i) at least one sort of semiconducting nanoparticle; ii) at least one antioxidant; iii) a polymerizable component; and iii) a liquid organic compound, preferably, the composition comprises in the range from 50 to 400 parts of the polymerizable component based on 100 parts of said semiconducting nanoparticles in the composition, wherein the composition further comprises an organic additive, which is composed of a divalent metal ion and at least one functionalized hydrocarbon group. i) at least one sort of semiconducting nanoparticle; ii) at least one antioxidant; iii) a polymerizable component; and iii) a liquid organic compound, preferably, the composition comprises in the range from 50 to 400 parts of the polymerizable component based on 100 parts of said semiconducting nanoparticles in the composition,
A method for identifying agents that inhibit or stimulate production of virus RNA, lentivirus protein, or virus particles, or that inhibit or stimulate virus latency comprising, (a) providing a control cell containing at least one virus nucleic acid sequence containing at least one AGG motif, and a test cell containing at least one virus nucleic acid sequence containing at least one AGG motif that has been mutated to a non-AGG sequence, (b) contacting the test cell and the control cell with one or more agents, and (c) identifying at least one agent that inhibits or stimulates production of virus RNA, production of lentivirus protein, production of virus particles or that inhibits or stimulates virus latency, in the control cell as compared to the test cell. (a) providing a control cell containing at least one virus nucleic acid sequence containing at least one AGG motif, and a test cell containing at least one virus nucleic acid sequence containing at least one AGG motif that has been mutated to a non-AGG sequence, (b) contacting the test cell and the control cell with one or more agents, and (c) identifying at least one agent that inhibits or stimulates production of virus RNA, production of lentivirus protein, production of virus particles or that inhibits or stimulates virus latency, in the control cell as compared to the test cell.