mhurhangee/patent-ind-claim-en huggingface dataset:
A wire conveying mechanism comprising a slip clutch mechanism connectable to a motor, wherein the slip clutch mechanism is a push-type friction clutch having first and second moving parts and a rotating shaft , wherein the first moving part comprising a rotating disc received on the rotating shaft , characterized in that the rotating disc is fixed relative to the rotating shaft , and the second moving part comprises a rotating friction pad disc , also received on the rotating shaft to rotate freely relative to the rotating shaft , to which are secured friction pads and a driving gear to which the friction pad disc is secured.
An omnidirectional imaging device comprising two imaging bodies each having an optical system including a wide-angle lens having an angle of view wider than 180 degrees and an imaging element provided in a substrate, wherein the wide-angle lens includes, in order from an object side to an image side, a front group having a negative power, a reflection surface, and a back group having a positive power, and a distance from a most object side surface of the front group to the reflection surface LF and a distance from the reflection surface to a most image side surface of the back group LR satisfy the following condition: LF < LR ; and the front group includes, in order from an object side to an image side, a meniscus lens (L11, L21) having a negative refractive power, an aspheric surface meniscus lens (L12, L22) having a negative refractive power, and a negative meniscus lens (L13, L23), and the back group includes, in order from an object side to an image side, a biconvex lens (L14, L24) having a positive refractive power, a cemented lens of a biconvex lens (L15, L25) having a positive refractive power and a biconcave lens (L16, L26) having a negative refractive power, and a biconvex lens (L17, L27) having a positive refractive power; wherein a maximum angle of view of each optical system of the imaging body F (degree), a distance from an incident light beam position at the maximum angle of view in the optical system to a reflection position on the reflection member at a center angle of view in the optical system a, a distance from the incident light beam position at the maximum angle of view to the imaging element b and a distance from a center of the imaging element in the substrate provided with the imaging element to an end of the substrate c satisfy the following condition . c ≦ a + b / tan F / 2
A point to point radio link arrangement comprising: - at least two link nodes (110, 120; 610, 620), wherein: • a first link node is arranged to obtain first link data (X1) over a first carrier frequency; and • a second link node is arranged to obtain second link data (X2) over a second carrier frequency separate from the first carrier frequency; and - a classification unit arranged to: • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data (X1) to the second link data (X2) over a time window (T); and • output disturbance event decision data (Y) in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event. - at least two link nodes (110, 120; 610, 620), wherein: • a first link node is arranged to obtain first link data (X1) over a first carrier frequency; and • a second link node is arranged to obtain second link data (X2) over a second carrier frequency separate from the first carrier frequency; and • a first link node is arranged to obtain first link data (X1) over a first carrier frequency; and • a second link node is arranged to obtain second link data (X2) over a second carrier frequency separate from the first carrier frequency; - a classification unit arranged to: • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data (X1) to the second link data (X2) over a time window (T); and • output disturbance event decision data (Y) in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event. • obtain the link data (X1, X2) from the at least two link nodes (110, 120; 610, 620); • determine if the link data (X1, X2) are affected by either a frequency dependent disturbance event or by a frequency independent disturbance event by comparing the first link data (X1) to the second link data (X2) over a time window (T); and • output disturbance event decision data (Y) in dependence of whether the link data (X1, X2) have been determined to be affected by either a frequency dependent disturbance event or a frequency independent disturbance event.
A method of transmitting, by a user equipment , a narrowband physical random access channel, NPRACH, preamble in a narrow band-Internet of things, NB-IoT, system supporting time division duplexing, TDD, the method comprising: receiving, from a base station , control information related to an uplink-downlink configuration that is related to control in which subframes uplink or downlink transmissions take place in a frame; and transmitting, to the base station , the NPRACH preamble, wherein the NPRACH preamble is repeatedly transmitted as a plurality of preamble repetition units, with each preamble repetition unit including a plurality of symbol groups, and with each symbol group including one cyclic prefix, CP, and one or more symbols, wherein not all symbol groups included in the each preamble repetition unit are contiguous in time, a subcarrier spacing for the NPRACH preamble is configured as 3.75kHz, (i) a length of the CP and (ii) a number of symbols included in the each symbol group depend on the uplink-downlink configuration, and the number of symbols included in the each symbol group is less than 5, and the length of the CP is shorter than a length of one symbol of the each symbol group. receiving, from a base station , control information related to an uplink-downlink configuration that is related to control in which subframes uplink or downlink transmissions take place in a frame; and transmitting, to the base station , the NPRACH preamble, wherein the NPRACH preamble is repeatedly transmitted as a plurality of preamble repetition units, with each preamble repetition unit including a plurality of symbol groups, and with each symbol group including one cyclic prefix, CP, and one or more symbols, wherein not all symbol groups included in the each preamble repetition unit are contiguous in time, a subcarrier spacing for the NPRACH preamble is configured as 3.75kHz, (i) a length of the CP and (ii) a number of symbols included in the each symbol group depend on the uplink-downlink configuration, and the number of symbols included in the each symbol group is less than 5, and the length of the CP is shorter than a length of one symbol of the each symbol group.
A method for determining the nucleotide sequence contiguous to a known target nucleotide sequence, the method comprising: (i) shearing a nucleic acid preparation that comprises genomic DNA or mRNA to generate a nucleic acid fragment comprising a known target nucleotide sequence, wherein the known target nucleotide sequence comprises a sequence associated with a gene rearrangement, optionally wherein the gene rearrangement results in a fusion oncogene; (ii) ligating a Y-shaped adaptor to the nucleic acid fragment comprising the known target nucleotide sequence to produce a ligation product; (iii) amplifying the ligation product using a first adaptor primer and a first target-specific primer; (iv) amplifying an amplification product of (iii) with a second adaptor primer and a second target-specific primer, wherein the second adaptor primer and the second target-specific primer are nested relative to the first adaptor primer and the first target-specific primer, respectively, wherein the amplifying of the amplification product of (iii) is conducted using a nucleic acid polymerase enzyme capable of initiating synthesis at a 3' end of a primer annealed to a template and proceeding toward a 5' end of the template, and wherein the template is the amplification product of (iii), thereby producing a further amplification product having a 3' end; and (v) sequencing the further amplification product having the 3' end of (iv) using a first sequencing primer and a second sequencing primer. (i) shearing a nucleic acid preparation that comprises genomic DNA or mRNA to generate a nucleic acid fragment comprising a known target nucleotide sequence, wherein the known target nucleotide sequence comprises a sequence associated with a gene rearrangement, optionally wherein the gene rearrangement results in a fusion oncogene; (ii) ligating a Y-shaped adaptor to the nucleic acid fragment comprising the known target nucleotide sequence to produce a ligation product; (iii) amplifying the ligation product using a first adaptor primer and a first target-specific primer; (iv) amplifying an amplification product of (iii) with a second adaptor primer and a second target-specific primer, wherein the second adaptor primer and the second target-specific primer are nested relative to the first adaptor primer and the first target-specific primer, respectively, wherein the amplifying of the amplification product of (iii) is conducted using a nucleic acid polymerase enzyme capable of initiating synthesis at a 3' end of a primer annealed to a template and proceeding toward a 5' end of the template, and wherein the template is the amplification product of (iii), thereby producing a further amplification product having a 3' end; and (v) sequencing the further amplification product having the 3' end of (iv) using a first sequencing primer and a second sequencing primer.
A pressure sensor, comprising: a first pressure sensor element comprising a capacitive MEMS pressure sensor having a deformable top electrode, and a fixed bottom electrode spaced by a first cavity portion, wherein the top electrode deforms in response to an external pressure (Pout) to be sensed; and a second pressure sensor element housed within a second cavity portion, wherein the second cavity portion has a rigid top cover, wherein the first and second cavity portions are connected to define a sealed cavity, wherein the sensor further comprises means for combining the first and second pressure sensor element outputs, such that the second pressure sensor element output provides calibration of the first pressure sensor output, characterized in that the second pressure sensor element measures an internal pressure (Pin) inside the cavity, wherein the second pressure sensor element comprises: a Pirani gauge; or a MEMS resonator with the resonance frequency or the quality factor of the resonance frequency used to determine the internal pressure (Pin). a first pressure sensor element comprising a capacitive MEMS pressure sensor having a deformable top electrode, and a fixed bottom electrode spaced by a first cavity portion, wherein the top electrode deforms in response to an external pressure (Pout) to be sensed; and a second pressure sensor element housed within a second cavity portion, wherein the second cavity portion has a rigid top cover, wherein the first and second cavity portions are connected to define a sealed cavity, wherein the sensor further comprises means for combining the first and second pressure sensor element outputs, such that the second pressure sensor element output provides calibration of the first pressure sensor output, characterized in that the second pressure sensor element measures an internal pressure (Pin) inside the cavity, wherein the second pressure sensor element comprises: a Pirani gauge; or a MEMS resonator with the resonance frequency or the quality factor of the resonance frequency used to determine the internal pressure (Pin). a Pirani gauge; or a MEMS resonator with the resonance frequency or the quality factor of the resonance frequency used to determine the internal pressure (Pin).
Box for food use, comprising: - a first tub , - a lid to close an opening of the first tub , - a second tub having an opening identical to that of the first tub , the tubs having complementing shapes and thus being stackable such that the first tub can close the opening of the second tub , in which the box comprises at least one pair of clip-fastening flaps pivotably hinged to the lid on first opposing edges of the lid , characterized in that each clip-fastening flap has a proximal clip to collaborate with a clip-fastening cavity formed under a rim of the opening of the first tub and has a distal clip to collaborate with a clip-fastening cavity formed under a rim of the opening of the second tub . - a first tub , - a lid to close an opening of the first tub , - a second tub having an opening identical to that of the first tub , the tubs having complementing shapes and thus being stackable such that the first tub can close the opening of the second tub , in which the box comprises at least one pair of clip-fastening flaps pivotably hinged to the lid on first opposing edges of the lid , characterized in that each clip-fastening flap has a proximal clip to collaborate with a clip-fastening cavity formed under a rim of the opening of the first tub and has a distal clip to collaborate with a clip-fastening cavity formed under a rim of the opening of the second tub .
A suturing device loader for loading a shuttle into a suturing device , the suturing device loader comprising: a body having a device space ; a loader control ; a suture ; a shuttle track ; and a shuttle moveable along said shuttle track from a shuttle first position to a shuttle second position, wherein the shuttle is moveable from the shuttle first position to the shuttle second position via the loader control , wherein when the shuttle is in the shuttle first position, the suturing device is positionable in the device space , wherein when the suturing device is positioned in the device space , the shuttle is moveable from the shuttle first position to the shuttle second position, wherein when the shuttle is in the shuttle first position, the shuttle is outside the suturing device, wherein when the shuttle is in the shuttle second position, the shuttle is inside the suturing device, wherein the loader control is moveable from a loader control first position to a loader control second position, wherein when the loader control is in the loader control first position, the shuttle is in the shuttle first position, wherein when the loader control is in the loader control second position, the shuttle is in the shuttle second position, wherein the shuttle is connected to the loader control via the suture , and wherein the suture is under more tension when the shuttle is inside the suturing device than when the shuttle is in the shuttle first position. a body having a device space ; a loader control ; a suture ; a shuttle track ; and a shuttle moveable along said shuttle track from a shuttle first position to a shuttle second position, wherein the shuttle is moveable from the shuttle first position to the shuttle second position via the loader control , wherein when the shuttle is in the shuttle first position, the suturing device is positionable in the device space , wherein when the suturing device is positioned in the device space , the shuttle is moveable from the shuttle first position to the shuttle second position, wherein when the shuttle is in the shuttle first position, the shuttle is outside the suturing device, wherein when the shuttle is in the shuttle second position, the shuttle is inside the suturing device, wherein the loader control is moveable from a loader control first position to a loader control second position, wherein when the loader control is in the loader control first position, the shuttle is in the shuttle first position, wherein when the loader control is in the loader control second position, the shuttle is in the shuttle second position, wherein the shuttle is connected to the loader control via the suture , and wherein the suture is under more tension when the shuttle is inside the suturing device than when the shuttle is in the shuttle first position.
A diagnostic test kit to identify food sensitivity in humans, wherein the kit comprises: a diagnostic test to identify the presence of a first set of food sensitivities in a human, wherein the diagnostic test comprises: a substrate, an absorbent region and a test region; the absorbent region being configured to contact a fecal sample obtained from a human and absorb fluid therefrom, and the test region comprising one or more IgA food antibody binding agents coupled to the substrate, wherein at least one of the IgA food antibody binding agents comprises an IgA conjugate associated with an IgA food antibody associated with one or more food sensitivities in the set of food sensitivities, and the IgA conjugate binds to the IgA food antibody when the IgA food antibody is proximate the IgA conjugate; wherein the diagnostic test is adapted to allow fluid comprising at least a portion of the one or more IgA antibodies present in the fecal sample to be transferred between the absorbent region and the test region of the diagnostic test to allow identification of the presence of the first set of food sensitivities; wherein the diagnostic test is integrated with a specimen container, the specimen container adapted to allow a testing portion of the fecal sample to be disposed in the specimen container to allow identification of the first set of food sensitivities, and wherein the diagnostic test is positioned in the specimen container to allow contact with the testing portion of the fecal sample; and wherein the kit further comprises a fecal sample collection tool and the diagnostic test is integrated with the fecal sample collection tool. a substrate, an absorbent region and a test region; the absorbent region being configured to contact a fecal sample obtained from a human and absorb fluid therefrom, and the test region comprising one or more IgA food antibody binding agents coupled to the substrate, wherein at least one of the IgA food antibody binding agents comprises an IgA conjugate associated with an IgA food antibody associated with one or more food sensitivities in the set of food sensitivities, and the IgA conjugate binds to the IgA food antibody when the IgA food antibody is proximate the IgA conjugate; wherein the diagnostic test is adapted to allow fluid comprising at least a portion of the one or more IgA antibodies present in the fecal sample to be transferred between the absorbent region and the test region of the diagnostic test to allow identification of the presence of the first set of food sensitivities; wherein the diagnostic test is integrated with a specimen container, the specimen container adapted to allow a testing portion of the fecal sample to be disposed in the specimen container to allow identification of the first set of food sensitivities, and wherein the diagnostic test is positioned in the specimen container to allow contact with the testing portion of the fecal sample; and wherein the kit further comprises a fecal sample collection tool and the diagnostic test is integrated with the fecal sample collection tool.
A method of joining a vehicle back door , the method comprising: forming a closed cross section by joining, with an adhesive , an inner panel , preferably made of resin, and an outer panel , preferably made of resin, to each other; characterised by further comprising: inserting a first holding jig , preferably having a cylindrical-shaped distal portion, inside the closed cross section from a, preferably circular-shaped, hole portion formed in the outer panel and allowing the adhesive to harden in a state in which a joint portion between the inner panel and the outer panel is sandwiched between and held by the first holding jig and a second holding jig placed outside the closed cross section .
Process for the production of compressed tablets, wherein coated particles comprising (i) 40 wt-% - 95 wt-%, based on the total weight of the coated particle, of a core, comprising at least one active ingredient and (ii) 5 wt-% - 60 wt-%, based on the total weight of the coated particle, of a coating system, and said coating system comprises at least one wax and/or at least one fat chosen from the group consisting of glycerine monostearate, carnauba wax, candelilla wax, sugarcane wax, palmitic acid, stearic acid, (fully) hydrogenated cottonseed oil, (fully) hydrogenated palm oil, and (fully) hydrogenated rapeseed oil, are compressed with a pressure of a least 5 kN. (i) 40 wt-% - 95 wt-%, based on the total weight of the coated particle, of a core, comprising at least one active ingredient and (ii) 5 wt-% - 60 wt-%, based on the total weight of the coated particle, of a coating system, and said coating system comprises at least one wax and/or at least one fat chosen from the group consisting of glycerine monostearate, carnauba wax, candelilla wax, sugarcane wax, palmitic acid, stearic acid, (fully) hydrogenated cottonseed oil, (fully) hydrogenated palm oil, and (fully) hydrogenated rapeseed oil, are compressed with a pressure of a least 5 kN.
A synchronizing assembly for a gas turbine engine comprising: a synchronizing ring for controlling a position of variable stator vanes , the synchronizing ring having a countersunk orifice ; and a bumper assembly comprising: a bumper at least partially enclosing a cavity within the bumper, the bumper comprising an outward side , an inward side opposite the outward side, a first side extending between the outward side and the inward side, a first opening on the outward side extending into the bumper to define a first portion of the cavity; a bolt having a first end and a second end opposite the first end, the bolt comprising a bolt head proximate the first end and a bolt shank proximate the second end, wherein the bolt shank extends through the first opening , wherein the bolt shank is located within an opening in the synchronizing ring , characterised in that the bumper comprises a second opening on the first side extending into the bumper to define a second portion of the cavity; and the bolt head is secured within the second portion of the cavity; and wherein the bumper further comprises a raised boss extending away from the outward surface , the raised boss configured to mate with the countersunk orifice of the synchronizing ring. a synchronizing ring for controlling a position of variable stator vanes , the synchronizing ring having a countersunk orifice ; and a bumper assembly comprising: a bumper at least partially enclosing a cavity within the bumper, the bumper comprising an outward side , an inward side opposite the outward side, a first side extending between the outward side and the inward side, a first opening on the outward side extending into the bumper to define a first portion of the cavity; a bolt having a first end and a second end opposite the first end, the bolt comprising a bolt head proximate the first end and a bolt shank proximate the second end, wherein the bolt shank extends a bumper at least partially enclosing a cavity within the bumper, the bumper comprising an outward side , an inward side opposite the outward side, a first side extending between the outward side and the inward side, a first opening on the outward side extending into the bumper to define a first portion of the cavity; a bolt having a first end and a second end opposite the first end, the bolt comprising a bolt head proximate the first end and a bolt shank proximate the second end, wherein the bolt shank extends through the first opening , wherein the bolt shank is located within an opening in the synchronizing ring ,