mhurhangee/ep-ind-claims huggingface dataset:
Polymer comprising (i) a first monomer unit M 1 of formula in a first molar ratio m 1; (ii) a second monomer unit M 2 of formula in a second molar ratio m 2; (iii) one or more third monomer units M 3, each being independently of each other selected from the group consisting of formula, formula, formula, and formula, in a third molar ratio m 3, (iv) one or more fourth monomer units M 4, each independently of the other, one or more electron donors comprising a group selected from the group consisting of aryl, heteroaryl, ethene-2,1-diyl (*-(R 81)C=C(R 82)-*) and ethyndiyl (*-C≡C-*), wherein such aryl or heteroaryl group is different from formulae to, in a fourth molar ratio m 4, and (v) a fifth monomer unit M 5 of formula in a fifth molar ratio m 5, wherein, independently at each occurrence, one of X 1 and X 2 is N and the other is C-R 71, and X 3 is at each occurrence independently selected from the group consisting of O, S, Te, Se and N-R 91, wherein the polymer comprises monomer unit M 1 and monomer unit M 2, and the sum of first molar ratio m 1 and second molar ratio m 2 is at least 0.10 and at most 0.90, the third molar ratio m 3 is at least 0 and at most 0.80, the fourth molar ratio m 4 is at least 0 and at most 0.20, the fifth molar ratio m 5 is at least 0.10 and at most 0.90, and m 1 + m 2 + m 3 + m 4 + m 5 = 1, with the respective molar ratios m 1 to m 5 being relative to the total number of monomer units M 1 to M 5, and wherein, independently at each occurrence, R 11 to R 14, R 21 to R 24, R 31 to R 34, R 41 to R 43, R 51 to R 58, R 61 to R 68, R 71, R 81 to R 82 and R 91 are independently of each other H or a carbyl group. (i) a first monomer unit M 1 of formula in a first molar ratio m 1; (ii) a second monomer unit M 2 of formula in a second molar ratio m 2; (iii) one or more third monomer units M 3, each being independently of each other selected from the group consisting of formula, formula, formula, and formula, in a third molar ratio m 3, (iv) one or more fourth monomer units M 4, each independently of the other, one or more electron donors comprising a group selected from the group consisting of aryl, heteroaryl, ethene-2,1-diyl (*-(R 81)C=C(R 82)-*) and ethyndiyl (*-C≡C-*), wherein such aryl or heteroaryl group is different from formulae to, in a fourth molar ratio m 4, and (v) a fifth monomer unit M 5 of formula in a fifth molar ratio m 5, wherein, independently at each occurrence, one of X 1 and X 2 is N and the other is C-R 71, and X 3 is at each occurrence independently selected from the group consisting of O, S, Te, Se and N-R 91,
A data processing device comprising: a data processor (102, 103) configured to perform data processing on processing target data by use of an external clock, the processing target data being included in a data signal received from outside the data processing device, the external clock being included in the data signal; a data processing controller (105, 106, 107) configured to detect a state of the external clock and control execution of the data processing on the processing target data in accordance with the state of the external clock, the data processing controller (105, 106, 107) configured to operate with a clock generated by an electronic oscillator included in the data processing device, the clock having a lower impedance than an impedance of the external clock, and discard the processing target data received during a period in which an abnormality of the external clock is detected, in a case of detecting the abnormality of the external clock; and an internal clock generator including a phase-locked loop circuit and configured to generate, from the external clock, an internal clock to be used for operation of the data processor (102, 103), wherein the data processing controller (105, 106, 107) detects an abnormality of the external clock based on a PLL lock signal output from the PLL circuit. a data processor (102, 103) configured to perform data processing on processing target data by use of an external clock, the processing target data being included in a data signal received from outside the data processing device, the external clock being included in the data signal; a data processing controller (105, 106, 107) configured to detect a state of the external clock and control execution of the data processing on the processing target data in accordance with the state of the external clock, the data processing controller (105, 106, 107) configured to operate with a clock generated by an electronic oscillator included in the data processing device, the clock having a lower impedance than an impedance of the external clock, and discard the processing target data received during a period in which an abnormality of the external clock is detected, in a case of detecting the abnormality of the external clock; and an internal clock generator including a phase-locked loop circuit and configured to generate, from the external clock, an internal clock to be used for operation of the data processor (102, 103), wherein the data processing controller (105, 106, 107) detects an abnormality of the external clock based on a PLL lock signal output from the PLL circuit.
An information processing apparatus comprising: a position detection means to repeatedly detect a touch position to be input to an input surface; a rest-state determination means to determine, based on a distance between a detected touch position and a previously detected touch position, whether or not the touch position detected by the position detection means rests at the detected touch position; an invalidation means to invalidate a change of the touch position detected by the position detection means if a predetermined condition is satisfied; and a control means to cause a display to display a movement reflecting a change of the touch position detected by the position detection means which is not invalidated by the invalidation means, and to cause the display not to display a movement reflecting a change of the touch position detected by the position detection means which is invalidated by the invalidation means; the predetermined condition is that a time lapsed from a time when the touch position no longer rests until a time (t8, t9) when the change of the touch position is detected does not exceed a predetermined invalidation time period. a position detection means to repeatedly detect a touch position to be input to an input surface; a rest-state determination means to determine, based on a distance between a detected touch position and a previously detected touch position, whether or not the touch position detected by the position detection means rests at the detected touch position; an invalidation means to invalidate a change of the touch position detected by the position detection means if a predetermined condition is satisfied; and a control means to cause a display to display a movement reflecting a change of the touch position detected by the position detection means which is not invalidated by the invalidation means, and to cause the display not to display a movement reflecting a change of the touch position detected by the position detection means which is invalidated by the invalidation means; the predetermined condition is that a time lapsed from a time when the touch position no longer rests until a time (t8, t9) when the change of the touch position is detected does not exceed a predetermined invalidation time period.
X-ray detector, comprising: a light detection arrangement for detecting light incident on a detection surface thereof; a scintillator layer for converting incident X-rays into light; a reflector layer for reflecting light generated within the scintillator layer towards the light detection arrangement; a light emission layer interposed between the scintillator layer and the reflector layer, characterized in that a distance (d) between the scintillator layer and the reflector layer is less than 50μm, and wherein the light emission layer comprises an OLED. a light detection arrangement for detecting light incident on a detection surface thereof; a scintillator layer for converting incident X-rays into light; a reflector layer for reflecting light generated within the scintillator layer towards the light detection arrangement; a light emission layer interposed between the scintillator layer and the reflector layer, characterized in that a distance (d) between the scintillator layer and the reflector layer is less than 50μm, and wherein the light emission layer comprises an OLED.
A hot melt adhesive comprising: a thermoplastic block copolymer which is a block copolymer of a vinyl-based aromatic hydrocarbon and a conjugated diene compound; and an amorphous wax modified with a carboxylic acid and/or a carboxylic anhydride. a thermoplastic block copolymer which is a block copolymer of a vinyl-based aromatic hydrocarbon and a conjugated diene compound; and an amorphous wax modified with a carboxylic acid and/or a carboxylic anhydride.
A method for measuring low density lipoprotein cholesterol (LDL-C) in a body fluid, which comprises measuring low density lipoprotein cholesterol (LDL-C) by using (a) cholesterol esterase and (b) cholesterol oxidase or cholesterol dehydrogenase, in the presence of a polyoxyethylene-polyoxypropylene copolymer and a polyglyceryl ether, wherein the polyoxyethylene-polyoxypropylene copolymer is represented by the formula: HO-(C 2 H 4 O) a -(C 3 H 6 O) b -(C 2 H 4 O) c -H [wherein a, b, and c identically or differently represent an integer of 1 to 200], and the molecular weight of a polypropylene glycol group contained in the polyoxyethylene-polyoxypropylene copolymer is 2,750 or greater.
A field unit comprising: means for transmitting, to a base station, signals (165, 170) having different formats in terms of different power levels in time intervals that the field unit is not transmitting data, the means for transmitting signals having different formats comprising means for requesting, in at least one of the different formats, by the field unit, resources to transmit data; at least two of the different formats are associated with different power levels; means for applying a first power level for a non-request state and means for applying a second power level for a request state; means for receiving information indicating resources to transmit data in response to the request by the field unit for the resources to transmit data; means to be assigned an orthogonal sequence and means to derive the transmitted signals from the orthogonal sequence; characterised by means for transmitting signals for the non-request state and signals for the request state in a mutually exclusive code channel in time slots when a heartbeat signal is at a logical zero. means for transmitting, to a base station, signals (165, 170) having different formats in terms of different power levels in time intervals that the field unit is not transmitting data, the means for transmitting signals having different formats comprising means for requesting, in at least one of the different formats, by the field unit, resources to transmit data; at least two of the different formats are associated with different power levels; means for applying a first power level for a non-request state and means for applying a second power level for a request state; means for receiving information indicating resources to transmit data in response to the request by the field unit for the resources to transmit data; means to be assigned an orthogonal sequence and means to derive the transmitted signals from the orthogonal sequence; characterised by means for transmitting signals for the non-request state and signals for the request state in a mutually exclusive code channel in time slots when a heartbeat signal is at a logical zero.
A combination regulator and gauge for a vacuum device comprising: a. a vacuum gauge having a body portion and a stem portion; b. a regulator portion having a cylindrical body having a first portion of a first diameter tapering to a second portion of a second diameter, said vacuum gauge being disposed inside of and concentric with said regulator, said body portion of said gauge being inside said first portion of said regulator and said stem portion of said gauge being inside said second portion of said regulator; c. an opening, defined in said second portion of said regulator; and d. a sloped shoulder held adjacent said second portion of said regulator such that a rotation of said regulator will cause said shoulder to expose or cover varying portions of said opening. a. a vacuum gauge having a body portion and a stem portion; b. a regulator portion having a cylindrical body having a first portion of a first diameter tapering to a second portion of a second diameter, said vacuum gauge being disposed inside of and concentric with said regulator, said body portion of said gauge being inside said first portion of said regulator and said stem portion of said gauge being inside said second portion of said regulator; c. an opening, defined in said second portion of said regulator; and d. a sloped shoulder held adjacent said second portion of said regulator such that a rotation of said regulator will cause said shoulder to expose or cover varying portions of said opening.
An intragastric obesity treatment implant, comprising: a collapsible and expandable frame formed of a plurality of spaced wires each extending between end poles (116, 120), the frame having a relaxed generally spherical configuration with a size sufficient to contact the interior stomach walls upon contraction thereof; and a flexible material draped around and connected to the frame so as to span across the spaces between the wires, the frame being capable of being converted into a substantially linear delivery configuration by displacing the poles away from one another and being formed of a material that will resist degradation over a period of at least six months within the stomach, characterized in that each wire of said plurality of wires extends between the end poles along a generally helical path. a collapsible and expandable frame formed of a plurality of spaced wires each extending between end poles (116, 120), the frame having a relaxed generally spherical configuration with a size sufficient to contact the interior stomach walls upon contraction thereof; and a flexible material draped around and connected to the frame so as to span across the spaces between the wires, the frame being capable of being converted into a substantially linear delivery configuration by displacing the poles away from one another and being formed of a material that will resist degradation over a period of at least six months within the stomach, characterized in that each wire of said plurality of wires extends between the end poles along a generally helical path.
A tyre monitoring device configured to be mounted on a wheel and comprising: a pressure sensor for sensing an inflation pressure of a tyre on the wheel; a wireless communication interface configured to receive data indicative of a command to indicate tyre pressure; a storage (210, 211) storing a predetermined pressure value; characterized in that said wireless communication interface is further configured to communicate with at least one other tyre monitoring device, and wherein said tyre monitoring device comprises further an indicator configured to provide a first status indication and a second status indication, wherein the first status indication is different from the second status indication; and a processing system configured to operate the indicator to provide the first status indication or the second status indication responsive to receipt of the command to indicate tyre pressure, and based at least in part on the inflation pressure and the predetermined pressure value. a pressure sensor for sensing an inflation pressure of a tyre on the wheel; a wireless communication interface configured to receive data indicative of a command to indicate tyre pressure; a storage (210, 211) storing a predetermined pressure value; characterized in that said wireless communication interface is further configured to communicate with at least one other tyre monitoring device, and wherein said tyre monitoring device comprises further an indicator configured to provide a first status indication and a second status indication, wherein the first status indication is different from the second status indication; and a processing system configured to operate the indicator to provide the first status indication or the second status indication responsive to receipt of the command to indicate tyre pressure, and based at least in part on the inflation pressure and the predetermined pressure value.
Agglomerated zeolitic adsorbents based on zeolite X crystals with a number-average diameter of 1.7 μm or less, an Si/Al atomic ratio such that 1.15 < Si/Al ≤ 1.5, preferably such that 1.2 < Si/Al ≤ 1.3, at least 90% of the exchangeable cationic sites of which are occupied either by barium ions alone or by barium ions and potassium ions, it being possible for the exchangeable sites occupied by potassium to represent up to 1/3 of the exchangeable sites occupied by the barium ions and the potassium ions, and the possible balance of which is provided by ions of alkali metals or alkaline-earth metals other than barium and potassium, and an inert binder, characterized in that the Dubinin volume of said adsorbents, measured by nitrogen adsorption at 77°K after vacuum degassing at 300°C for 16 h, is 0.245 cm 3 /g or higher, preferably 0.250 cm 3 /g or higher, more preferably 0.253 cm 3 /g or higher, and in that the mechanical strength, measured by the Shell Method Series SMS1471-74 adapted for agglomerates having a size of less than 1.6 mm, is 2 MPa or higher.
Thermoplastic polymer powder P comprising: 10% to 89.9% by weight, based on the overall polymer powder P, of at least one semicrystalline polyolefin A; 10% to 89.9% by weight, based on the overall polymer powder P, of at least one amorphous styrene polymer B; 0.1% to 20% by weight, based on the overall polymer powder P, of at least one compatibilizer C selected from the group consisting of styrene-butadiene block copolymers, styrene-polyolefin copolymers, acrylonitrile-styrene-polyolefin copolymers and acrylonitrile-styrene-butadiene-polyolefin copolymers; optionally 0% to 5% by weight, based on the overall polymer powder P, of at least one additive and/or auxiliary; where the sum total of the percentages by weight of components A, B, C and optionally D together is 100% by weight; where the semicrystalline polymer A, the amorphous styrene polymer B and the compatibilizer C are in the form of a polymer blend, where the term "polymer blend" refers to a macroscopically homogeneous mixture of multiple different polymers; and where the thermoplastic polymer powder P has a median particle diameter D 50 in the range from 5 to 200 μm. 10% to 89.9% by weight, based on the overall polymer powder P, of at least one semicrystalline polyolefin A; 10% to 89.9% by weight, based on the overall polymer powder P, of at least one amorphous styrene polymer B; 0.1% to 20% by weight, based on the overall polymer powder P, of at least one compatibilizer C selected from the group consisting of styrene-butadiene block copolymers, styrene-polyolefin copolymers, acrylonitrile-styrene-polyolefin copolymers and acrylonitrile-styrene-butadiene-polyolefin copolymers; optionally 0% to 5% by weight, based on the overall polymer powder P, of at least one additive and/or auxiliary; where the sum total of the percentages by weight of components A, B, C and optionally D together is 100% by weight; where the semicrystalline polymer A, the amorphous styrene polymer B and the compatibilizer C are in the form of a polymer blend, where the term "polymer blend" refers to a macroscopically homogeneous mixture of multiple different polymers; and where the thermoplastic polymer powder P has a median particle diameter D 50 in the range from 5 to 200 μm. where the sum total of the percentages by weight of components A, B, C and optionally D together is 100% by weight; where the semicrystalline polymer A, the amorphous styrene polymer B and the compatibilizer C are in the form of a polymer blend, where the term "polymer blend" refers to a macroscopically homogeneous mixture of multiple different polymers; and where the thermoplastic polymer powder P has a median particle diameter D 50 in the range from 5 to 200 μm.
An arteriovenous access valve system (50, 350), comprising: a first valve configured to be positioned at or adjacent to an end of an arteriovenous graft; a second valve configured to be positioned at or adjacent to an opposite end of the arteriovenous graft; an actuator assembly (200, 300A, 300B, 400) in fluid communication with the first and second valves (24, 26), the actuator assembly (200, 300A, 300B, 400) including a housing (204, 404) and a driver assembly (210, 410) positioned within the housing (204, 404), the actuator assembly (200, 300A, 300B, 400) further including a drive magnet (246, 446) positioned within the housing (204, 404), characterized in that the drive magnet (246, 446) being rotatably coupled to the driver assembly (210, 410) such that, when the drive magnet (246, 446) is rotated, the driver assembly is configured to be rotatably driven so as to supply fluid to the first and second valves (24, 26) or to draw fluid out of the first and second valves (24, 26) depending on a rotational direction of the driver assembly (210, 410), wherein the driver assembly (210, 410) further includes first and second gears (234, 236) rotatably coupled to the drive magnet (246, 446), the first and second gears (234, 236) being configured to mesh with one another so as to pump the fluid into or draw the fluid out of the first and second valves (24, 26) depending on the rotational direction of the driver assembly (210, 410). a first valve configured to be positioned at or adjacent to an end of an arteriovenous graft; a second valve configured to be positioned at or adjacent to an opposite end of the arteriovenous graft; an actuator assembly (200, 300A, 300B, 400) in fluid communication with the first and second valves (24, 26), the actuator assembly (200, 300A, 300B, 400) including a housing (204, 404) and a driver assembly (210, 410) positioned within the housing (204, 404), the actuator assembly (200, 300A, 300B, 400) further including a drive magnet (246, 446) positioned within the housing (204, 404), characterized in that the drive magnet (246, 446) being rotatably coupled to the driver assembly (210, 410) such that, when the drive magnet (246, 446) is rotated, the driver assembly is configured to be rotatably driven so as to supply fluid to the first and second valves (24, 26) or to draw fluid out of the first and second valves (24, 26) depending on a rotational direction of the driver assembly (210, 410), wherein the driver assembly (210, 410) further includes first and second gears (234, 236) rotatably coupled to the drive magnet (246, 446), the first and second gears (234, 236) being configured to mesh with one another so as to pump the fluid into or draw the fluid out of the first and second valves (24, 26) depending on the rotational direction of the driver assembly (210, 410).
A crystalline form of trisodium [3-((1S,3R)-1-biphenyl-4-ylmethyl-3-ethoxycarbonyl-1-butylcarbamoyl) propionate- -3'-methyl-2'-(pentanoyl{2"-(tetrazol-5-ylate)biphenyl-4'-ylmethyl}amino)butyrate] hydrate, designated as Form II, characterized by an X-ray powder diffraction pattern comprising the following 2θ values measured using CuKa radiation: 4.3°±0.2°, 10.9°±0.2°, and 14.6°±0.2°.