mhurhangee/ep-ind-claims huggingface dataset:
A CPAP apparatus comprising a blower, characterized in that the blower comprises: a motor provided with opposed first and second shafts (704, 706); a first stage impeller operatively connected to the first shaft; a second stage impeller operatively connected to the second shaft; an inner casing to support the motor; an outer casing to support the inner casing; and a substantially annular channel between the inner and outer casings, wherein, in operation, gas is directed from the first stage impeller towards the second stage impeller via the substantially annular channel; and wherein the substantially annular channel allows for cooling of the motor as gas flows along the inner casing. a motor provided with opposed first and second shafts (704, 706); a first stage impeller operatively connected to the first shaft; a second stage impeller operatively connected to the second shaft; an inner casing to support the motor; an outer casing to support the inner casing; and a substantially annular channel between the inner and outer casings, wherein, in operation, gas is directed from the first stage impeller towards the second stage impeller via the substantially annular channel; and wherein the substantially annular channel allows for cooling of the motor as gas flows along the inner casing.
A method, performed by a user device, for avoiding undesired message transmissions from the user device to a radio access network RAN, wherein the RAN is configured to transmit a barring factor with any one of a plurality of values, and wherein the plurality of values correspond to different probabilities that the user device will be barred from transmitting at least some messages to the RAN, the method comprising: receiving, from the RAN, a first value of the barring factor; determining, based on a first probability corresponding to the first value, that access barring applies to a message transmission; suspending the message transmission while running a first timer, the method being characterised by: after the first timer expires or stops): if the first value does not correspond to a maximum probability of the different probabilities, determining that the access barring is alleviated, and if the first value corresponds to the maximum probability, continuing to suspend the message transmission. receiving, from the RAN, a first value of the barring factor; determining, based on a first probability corresponding to the first value, that access barring applies to a message transmission; suspending the message transmission while running a first timer, the method being characterised by: after the first timer expires or stops): if the first value does not correspond to a maximum probability of the different probabilities, determining that the access barring is alleviated, and if the first value corresponds to the maximum probability, continuing to suspend the message transmission. if the first value does not correspond to a maximum probability of the different probabilities, determining that the access barring is alleviated, and if the first value corresponds to the maximum probability, continuing to suspend the message transmission.
A method for making an oil continuous nanoemulsion comprising the steps of: (a) combining, in no particular order, a first and a second oil continuous macroemulsion, the first macroemulsion having a pH from 10 to 14 and skin benefit agent in its water phase and the second macroemulsion having a pH from 2 to 5; (b) mixing the first and second macroemulsions to produce a mixture of macroemulsions, the mixture having macroemulsions with a pH from 10 to 14 and a pH from 2 to 5; and (c) shearing the mixture of macroemulsions to produce a nanoemulsion having a particle size from 150 to 900 nm, the nanoemulsion comprising 0.15 to 5% by weight skin benefit agent in its water phase. (a) combining, in no particular order, a first and a second oil continuous macroemulsion, the first macroemulsion having a pH from 10 to 14 and skin benefit agent in its water phase and the second macroemulsion having a pH from 2 to 5; (b) mixing the first and second macroemulsions to produce a mixture of macroemulsions, the mixture having macroemulsions with a pH from 10 to 14 and a pH from 2 to 5; and (c) shearing the mixture of macroemulsions to produce a nanoemulsion having a particle size from 150 to 900 nm, the nanoemulsion comprising 0.15 to 5% by weight skin benefit agent in its water phase.
Patient table for a nuclear magnetic resonance tomography examination of a body part of a patient, in particular of the mammary, comprising two recesses, which are in each case intended to receive a mammary and an examination device, which is disposed in the direct vicinity thereof, wherein - The examination device is disposed below the patient table and comprises a medial coil, a lateral coil, a medial biopsy unit and a lateral biopsy unit, wherein the coils (111; 121) and the biopsy units (112, 122) are oriented perpendicular to the body surface of the patient; - the medial coil and the medial biopsy unit are connected, are in operative connection with one another and form a medial examination unit, the medial coil being in contact with the mammary; - the medial coil and the medial biopsy unit are connected, are in operative connection with one another and form a medial examination unit, the medial coil being in contact with the mammary, and - the mutually opposite ends of the medial examination unit and the mutually opposite ends of the lateral examination unit are in each case angled and/or curved in the direction of the mammary to be examined, characterized in that the angling or curvature of the medial and/or lateral examination unit (110, 120) is movable and optionally fixable, the angling and/or curvature of the examination units (110, 120) being 1° to 50°. - The examination device is disposed below the patient table and comprises a medial coil, a lateral coil, a medial biopsy unit and a lateral biopsy unit, wherein the coils (111; 121) and the biopsy units (112, 122) are oriented perpendicular to the body surface of the patient; - the medial coil and the medial biopsy unit are connected, are in operative connection with one another and form a medial examination unit, the medial coil being in contact with the mammary; - the medial coil and the medial biopsy unit are connected, are in operative connection with one another and form a medial examination unit, the medial coil being in contact with the mammary, and - the mutually opposite ends of the medial examination unit and the mutually opposite ends of the lateral examination unit are in each case angled and/or curved in the direction of the mammary to be examined, characterized in that the angling or curvature of the medial and/or lateral examination unit (110, 120) is movable and optionally fixable, the angling and/or curvature of the examination units (110, 120) being 1° to 50°.
A composition comprising: (a) an alkyldiphenyloxide disulfonate compound of formula I: wherein M + is H + or a monovalent cation, and R 1 is C 12 alkyl or C 16 alkyl (b) a nonionic surfactant of formula II: wherein X is ethylene oxide Y is propylene oxide, m is 4-30 and n is 12-30, z is an integer ranging from 1 to 50, and R is R A or R A -C(=O)- wherein R A is C 6 -C 20 alkyl or C 6 -C 20 alkenyl (a) an alkyldiphenyloxide disulfonate compound of formula I: wherein M + is H + or a monovalent cation, and R 1 is C 12 alkyl or C 16 alkyl (b) a nonionic surfactant of formula II: wherein X is ethylene oxide Y is propylene oxide, m is 4-30 and n is 12-30, z is an integer ranging from 1 to 50, and R is R A or R A -C(=O)- wherein R A is C 6 -C 20 alkyl or C 6 -C 20 alkenyl
A device for detecting the position of a laser beam of determined diameter and emitted by a laser of an additive manufacturing machine, said detection device comprising an upper portion comprising a scanning area of the laser beam, said scanning area being located below a circular central opening in an upper surface of the upper portion and comprising at its center a circular hole of diameter substantially equal to the diameter of the laser beam and of determined position, the top portion comprising a first and a second element, the second element comprising the circular hole, the first and the second element being configured such that the reflections of the laser beam between the first and the second element (104, 106) are infinite to dissipate the energy of the laser beam; the detection device comprising a bottom portion, the bottom portion comprising at least one sensor for sensing a portion of the energy transmitted by the laser beam and comprising a graphite martyr plate for absorbing the remaining portion of the energy transmitted by the laser beam so that when the laser beam scans the scan area at a plurality of positions, the sensor captures a portion of the energy transmitted by the laser beam for each position, the portion of the transmitted energy being maximum when the laser beam is aligned with the circular hole. the detection device comprising a bottom portion, the bottom portion comprising at least one sensor for sensing a portion of the energy transmitted by the laser beam and comprising a graphite martyr plate for absorbing the remaining portion of the energy transmitted by the laser beam so that when the laser beam scans the scan area at a plurality of positions, the sensor captures a portion of the energy transmitted by the laser beam for each position, the portion of the transmitted energy being maximum when the laser beam is aligned with the circular hole.
An infrared detector (70; 150) for generating an image of an object, the infrared detector (70; 150) comprising: a function generator (72; 152) configured to generate at least one oscillating signal; a plurality of thermal sensing elements (90; 202) being arranged in one of a column and a row, each of the thermal sensing elements (90; 202) including: a thermopile (96; 204) being configured to detect at least a portion of a thermal output from the object and to generate an electrical output signal indicative of at least a portion of the detected thermal output; at least one first switch (92; 94) being operatively coupled to the thermopile and being configured to receive the at least one oscillating signal to modulate the electrical output signal of the thermopile (96; 204) for generating a modulated output signal; and a second switch being operatively coupled to the thermopile (96; 204) and being configured to provide an electrical bypass such that the thermal sensing element (90; 202) is capable of providing an electrical output therefrom in the event the thermopile is damaged. a function generator (72; 152) configured to generate at least one oscillating signal; a plurality of thermal sensing elements (90; 202) being arranged in one of a column and a row, each of the thermal sensing elements (90; 202) including: a thermopile (96; 204) being configured to detect at least a portion of a thermal output from the object and to generate an electrical output signal indicative of at least a portion of the detected thermal output; at least one first switch (92; 94) being operatively coupled to the thermopile and being configured to receive the at least one oscillating signal to modulate the electrical output signal of the thermopile (96; 204) for generating a modulated output signal; and a second switch being operatively coupled to the thermopile (96; 204) and being configured to provide an electrical bypass such that the thermal sensing element (90; 202) is capable of providing an electrical output therefrom in the event the thermopile is damaged.
A method of identifying an agent that modulates the activity of a PRPK/TPRKB complex for use in the treatment of a disease, condition, or disorder associated with cell proliferation, IL-2 production, TNF-α production, or natural killer activation comprising: (i) providing a PRPK/TPRKB complex comprising PRPK and TPRKB; (ii) providing a test agent having a structure of formula I; wherein: X is -C(=O)- or -CH 2 -; R 1, R 2, R 3, and R 4 are independently hydrogen, halo, C 1-6 alkyl, C 1-6 alkoxy, or -N(R 5)2; each R 5 is independently hydrogen or C 1-6 alkyl, or two R 5 groups are taken together with the nitrogen to which they are attached to form a heterocycle; R 6 is hydrogen, halo, benzyl, or C 1-8 alkyl; R 7 is hydrogen, benzyl, or C 1-8 alkyl; and R 8, R 8', R 9, and R 9' are independently hydrogen, halo, C 1-6 alkyl, or C 1-6 alkoxy; (iii) contacting the test agent with the PRPK/TPRKB complex; and (iv) detecting an interaction between the test agent and at least one of PRPK and TPRKBp. (i) providing a PRPK/TPRKB complex comprising PRPK and TPRKB; (ii) providing a test agent having a structure of formula I; wherein: X is -C(=O)- or -CH 2 -; R 1, R 2, R 3, and R 4 are independently hydrogen, halo, C 1-6 alkyl, C 1-6 alkoxy, or -N(R 5)2; each R 5 is independently hydrogen or C 1-6 alkyl, or two R 5 groups are taken together with the nitrogen to which they are attached to form a heterocycle; R 6 is hydrogen, halo, benzyl, or C 1-8 alkyl; R 7 is hydrogen, benzyl, or C 1-8 alkyl; and R 8, R 8', R 9, and R 9' are independently hydrogen, halo, C 1-6 alkyl, or C 1-6 alkoxy; X is -C(=O)- or -CH 2 -; R 1, R 2, R 3, and R 4 are independently hydrogen, halo, C 1-6 alkyl, C 1-6 alkoxy, or -N(R 5)2; each R 5 is independently hydrogen or C 1-6 alkyl, or two R 5 groups are taken together with the nitrogen to which they are attached to form a heterocycle; R 6 is hydrogen, halo, benzyl, or C 1-8 alkyl; R 7 is hydrogen, benzyl, or C 1-8 alkyl; and R 8, R 8', R 9, and R 9' are independently hydrogen, halo, C 1-6 alkyl, or C 1-6 alkoxy; (iii) contacting the test agent with the PRPK/TPRKB complex; and (iv) detecting an interaction between the test agent and at least one of PRPK and TPRKBp.
A tilt mechanism for a chair, said tilt mechanism (10; 40; 90; 100) being configured for adjustment of a tension applied by a chair back, said tilt mechanism comprising: a base (11; 41), a back bracket (13; 43) tiltably supported on said base (11; 41) and configured to be attached to said chair back, a rocker (12; 42, 42', 45-47) having a pivot axis (15; 45; 106) provided at a fixed location relative to said rocker (12; 42, 42', 45-47), said rocker (12; 42, 42', 45-47) being coupled to said back bracket (13; 43) so as to be moveable relative to said back bracket (13; 43) and being configured such that said rocker (12; 42, 42', 45-47) pivots about said pivot axis (15; 45; 106) when said back bracket (13; 43) tilts relative to said base (11; 41), and an energy storage mechanism (23; 61-68; 61, 91; 61, 101) coupled to said rocker (12; 42, 42', 45-47) to exert a force onto a portion of said rocker (12; 42, 42', 45-47), which portion is spaced from said pivot axis (15; 45; 106) by a distance, characterized by an actuating mechanism (50, 51) coupled to at least one of said rocker (12; 42, 42', 45-47) or said energy storage mechanism (23; 61-68; 61, 91; 61, 101) and configured to alter said distance between said pivot axis (15; 45; 106) and said portion of said rocker (12; 42, 42', 45-47) at which said force is exerted onto said rocker (12; 42, 42', 45-47). a base (11; 41), a back bracket (13; 43) tiltably supported on said base (11; 41) and configured to be attached to said chair back, a rocker (12; 42, 42', 45-47) having a pivot axis (15; 45; 106) provided at a fixed location relative to said rocker (12; 42, 42', 45-47), said rocker (12; 42, 42', 45-47) being coupled to said back bracket (13; 43) so as to be moveable relative to said back bracket (13; 43) and being configured such that said rocker (12; 42, 42', 45-47) pivots about said pivot axis (15; 45; 106) when said back bracket (13; 43) tilts relative to said base (11; 41), and an energy storage mechanism (23; 61-68; 61, 91; 61, 101) coupled to said rocker (12; 42, 42', 45-47) to exert a force onto a portion of said rocker (12; 42, 42', 45-47), which portion is spaced from said pivot axis (15; 45; 106) by a distance, characterized by an actuating mechanism (50, 51) coupled to at least one of said rocker (12; 42, 42', 45-47) or said energy storage mechanism (23; 61-68; 61, 91; 61, 101) and configured to alter said distance between said pivot axis (15; 45; 106) and said portion of said rocker (12; 42, 42', 45-47) at which said force is exerted onto said rocker (12; 42, 42', 45-47).
A computer-implemented method comprising: receiving, from an application associated with a first perimeter on a device, a request to access data associated with a second, different perimeter on the device, wherein the data has a data type, and wherein the second perimeter includes computing resources executable to control access to data associated with the second perimeter; determining that a first management policy associated with the first perimeter permits the application to access the data based on the data type and independent of a second, different management policy associated with the second perimeter, wherein the second management policy is configured to deny access to the data by applications not associated with the second perimeter; and based on the determining, providing the application access to the data, thereby overriding the second management policy by permitting the application to access the data, wherein the first perimeter includes computing resources executable to control access of data within or outside the first perimeter by applications associated with the first perimeter. receiving, from an application associated with a first perimeter on a device, a request to access data associated with a second, different perimeter on the device, wherein the data has a data type, and wherein the second perimeter includes computing resources executable to control access to data associated with the second perimeter; determining that a first management policy associated with the first perimeter permits the application to access the data based on the data type and independent of a second, different management policy associated with the second perimeter, wherein the second management policy is configured to deny access to the data by applications not associated with the second perimeter; and based on the determining, providing the application access to the data, thereby overriding the second management policy by permitting the application to access the data,
A railroad sleeper for fixation of at least one pair of rails (2,2') of a railroad network, the railroad sleeper comprising a contact surface, wherein each rail of the pair of rails (2, 2') is fixed spaced apart from each other, when in use, the railroad sleeper being provided with an inverted-U shape and comprising a hollow sector delimited by association of the contact surface with the anchorage walls (5,5'), thus establishing a free portion adjacent to the anchorage walls (5,5') and opposite the contact surface, wherein the contact surface and the anchorage walls (5, 5') establish an inner wall, an outer wall and an intermediate layer of the railroad sleeper, so that: - the inner and outer walls of the railroad sleeper are manufactured from a polymeric material, and - the intermediate layer is manufactured from a composition comprising a bending module higher than or equal to 5000 MPa, wherein the intermediate layer comprises a composition of polypropylene with fiberglass. - the inner and outer walls of the railroad sleeper are manufactured from a polymeric material, and - the intermediate layer is manufactured from a composition comprising a bending module higher than or equal to 5000 MPa,
Plastic bottle having an aperture, comprising: a tubular shaped bottle neck finish comprising tamper evident ring and a transport ring positioned beneath the tamper evident ring; and a strip tethered stopper comprising a closure shell, a tamper band, and a strip having a thickness, the strip connecting the closure shell to the tamper band, wherein the tamper band of the stopper is secured under the tamper evident ring, and the transport ring comprises a retaining feature, characterised in that the retaining feature is configured to receive and to retain the strip of the stopper, when the closure shell is removed from the aperture. a tubular shaped bottle neck finish comprising tamper evident ring and a transport ring positioned beneath the tamper evident ring; and a strip tethered stopper comprising a closure shell, a tamper band, and a strip having a thickness, the strip connecting the closure shell to the tamper band, wherein the tamper band of the stopper is secured under the tamper evident ring, and the transport ring comprises a retaining feature, characterised in that the retaining feature is configured to receive and to retain the strip of the stopper, when the closure shell is removed from the aperture.
Fabric spreader of a finishing machine having a chain extending all the way around it and having a large number of needle carriages that are fitted with perpendicularly arranged needles the free ends of which point upwards, and a driving means that extends drive-effectively between a needle carriage and the chain, in such a way that the needle carriage is driven by the chain and is carried along with the chain, where the needle carriage can be moved relative to the chain in a lengthwise direction of the chain in that the position of the driving means relative to the chain and/or the needle carriage can be changed and where rollers are provided for on the needle carriage to steady the needle carriage against pulling and tilting forces on a guide rail, characterised in that each of the rollers that steadies the needle carriage against tilting forces is rotatably mounted about a horizontal axle and in that the driving means incorporates a sliding piece that is without spring force freely moveably mounted on and guided by the needle carriage in the lengthwise direction of the chain.
A resin composition containing: 100 parts by mass of component, a hydrogenated block copolymer having an MFR (temperature 230 °C, load 2.16 kg) of 0.1 g/10 min or less; more than 1000 parts by mass and at most 1400 parts by mass of component, an oil; and at least 10 parts by mass and at most 80 parts by mass of component, a polyolefin resin having a specific surface area of 0.1 to 30 m 2 /g, wherein the specific surface area is measured in accordance with the JIS Z8830:2013 standard. 100 parts by mass of component, a hydrogenated block copolymer having an MFR (temperature 230 °C, load 2.16 kg) of 0.1 g/10 min or less; more than 1000 parts by mass and at most 1400 parts by mass of component, an oil; and at least 10 parts by mass and at most 80 parts by mass of component, a polyolefin resin having a specific surface area of 0.1 to 30 m 2 /g, wherein the specific surface area is measured in accordance with the JIS Z8830:2013 standard.
An anti-N3pGlu Aβ antibody for use in a method to treat a disease characterized by Aβ deposits in the brain of a patient positive for amyloid deposits comprising administering to the patient 6 separate doses at monthly intervals of 10 to 60 mg/kg of the antibody wherein the antibody has a light chain of SEQ ID NO: 28 and a heavy chain of SEQ ID NO: 29.
A complete media formulation comprising the following components: albumin; an iron carrier; glutamine; hyaluronidase; fibroblast growth factor; a salt or mineral; and essential amino acids, at an osmolarity of about 220-330 mOsm/Liter; and further comprising a substrate. albumin; an iron carrier; glutamine; hyaluronidase; fibroblast growth factor; a salt or mineral; and essential amino acids, at an osmolarity of about 220-330 mOsm/Liter; and further comprising a substrate.