mhurhangee/patent-ind-claim-en huggingface dataset:
A method of releasing an output-suppressed control state in an air conditioning system that includes a control device configured to control one or more air conditioners , and a management device configured to be connected to the control device via a network to transmit, to the control device, a command to control output suppression of an air conditioner from among the one or more air conditioners to cause the air conditioner to be in the output-suppressed control state, the method comprising: a confirmation step of confirming whether communication between the control device and the management device is disconnected; and a transmission control step of, in a case where the communication between the control device and the management device is not disconnected, prohibiting transmission of a command to release the output-suppressed control state to the control device without intervention of the management device , and in a case where the communication between the control device and the management device is disconnected, allowing transmission of the command to release the output-suppressed control state to the control device without intervention of the management device. a confirmation step of confirming whether communication between the control device and the management device is disconnected; and a transmission control step of, in a case where the communication between the control device and the management device is not disconnected, prohibiting transmission of a command to release the output-suppressed control state to the control device without intervention of the management device , and in a case where the communication between the control device and the management device is disconnected, allowing transmission of the command to release the output-suppressed control state to the control device without intervention of the management device.
A therapeutic collar designed to be fitted around the neck of a patient (P) comprising: - A flexible body having in a worn configuration an annular shape and having a longitudinal axis (A), said body comprising two end sections that can be parted reciprocally and defining a front section and a rear section and two side connecting zones; - A dividing plane between said end sections ; - A closing and opening device of said two end sections ; - A reciprocally coaxial inner wall and an outer wall of said body ; said body further comprising cooling means associated to said inner wall characterized in that said cooling means comprise a plurality of cooling units , each consisting of the combination of a Peltier's cell and a serpentine tube in close contact with each other, with a layer of heat conductive gel interposed therebetween, said serpentine having respective inlet and outlet ; each cooling unit being further connected to a pumping group and a control unit through a respective connection which is independent from connections of other cooling units. - A flexible body having in a worn configuration an annular shape and having a longitudinal axis (A), said body comprising two end sections that can be parted reciprocally and defining a front section and a rear section and two side connecting zones; - A dividing plane between said end sections ; - A closing and opening device of said two end sections ; - A reciprocally coaxial inner wall and an outer wall of said body ; said body further comprising cooling means associated to said inner wall characterized in that said cooling means comprise a plurality of cooling units , each consisting of the combination of a Peltier's cell and a serpentine tube in close contact with each other, with a layer of heat conductive gel interposed therebetween, said serpentine having respective inlet and outlet ; each cooling unit being further connected to a pumping group and a control unit through a respective connection which is independent from connections of other cooling units.
S-1-propenylcysteine or a salt thereof for use in the treatment of hypertension.
A bicycle frame , comprising: a front frame assembly including: a bottom bracket shell ; and a forward shock attachment point statically located relative to the bottom bracket shell ; and a rear frame assembly pivotably connected to the front frame assembly , the rear frame assembly including: a rear wheel forkend ; and a rearward shock attachment point statically located relative to the rear wheel forkend ; wherein the bicycle frame further comprises: a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly ; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell , wherein the bottom linkage passes under the bottom bracket shell ; and wherein the forward shock attachment point and the rearward shock attachment point cooperate to position a suspension shock absorber and damper between the front frame assembly and the rear frame assembly . a front frame assembly including: a bottom bracket shell ; and a forward shock attachment point statically located relative to the bottom bracket shell ; and a bottom bracket shell ; and a forward shock attachment point statically located relative to the bottom bracket shell ; and a rear frame assembly pivotably connected to the front frame assembly , the rear frame assembly including: a rear wheel forkend ; and a rearward shock attachment point statically located relative to the rear wheel forkend ; a rear wheel forkend ; and a rearward shock attachment point statically located relative to the rear wheel forkend ; wherein the bicycle frame further comprises: a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly ; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell , wherein the bottom linkage passes under the bottom bracket shell ; and a top linkage pivotably connected to the front frame assembly and pivotably connected to the rear frame assembly ; and a bottom linkage pivotably connected to the rear frame assembly and pivotably connected to the front frame assembly forward of the bottom bracket shell , wherein the bottom linkage passes under the bottom bracket shell ; and wherein the forward shock attachment point and the rearward shock attachment point cooperate to position a suspension shock absorber and damper between the front frame assembly and the rear frame assembly .
A nanopore cell, comprising: a conductive layer ; characterized in that a titanium nitride (TiN) working electrode is disposed above the conductive layer ; and insulating walls are disposed above the TiN working electrode , wherein the insulating walls and the TiN working electrode form a well into which an electrolyte may be contained. a conductive layer ; characterized in that a titanium nitride (TiN) working electrode is disposed above the conductive layer ; and insulating walls are disposed above the TiN working electrode , wherein the insulating walls and the TiN working electrode form a well into which an electrolyte may be contained.
Road and path lighting system comprising: a lighting device having a light source , a projection unit for projecting signals onto a projection surface , and a communication module which is designed to control the projection unit on the basis of incoming input signals, wherein the projection unit comprises a further light source , wherein the input signals are data signals, wherein the communication module is designed to actuate the light source of the lighting device and the projection unit on the basis of the input signals, wherein the signals are light signals which display information on the projection surface as images. a lighting device having a light source , a projection unit for projecting signals onto a projection surface , and a communication module which is designed to control the projection unit on the basis of incoming input signals, wherein the projection unit comprises a further light source , wherein the input signals are data signals, wherein the communication module is designed to actuate the light source of the lighting device and the projection unit on the basis of the input signals, wherein the signals are light signals which display information on the projection surface as images.
A method of predicting a viewing direction of a user operating in an immersive media service by a media transmission apparatus, the method comprising: generating a plurality of spaces of interests, SOIs, and SOI description information for the SOIs; determining at least one SOI corresponding to a viewing direction of the user for a immersive media based on the SOI description information,; and transmitting , to a media reception apparatus, SOI description information corresponding to the determined at least one SOI among the SOI description information corresponding to the plurality of SOIs, and immersive media data corresponding to the determined at least one SOI among the immersive media data corresponding to the plurality of SOls, wherein the SOI description information includes identification information for the at least one SOI, a spatial range indicator for an object of interest, OOI, a vector for indicating direction of the OOI, characterised in that the SOI description information further includes: a priority indicator indicating a priority for each of a plurality of OOIs in the SOI, information on object role describing what the OOI represents in a scene being represented in immersive media, and an indicator indicating dependency between an OOI and other OOI, wherein the priority of the OOI is determined based on the object role of the OOI and the dependency between the OOI and the other OOI. generating a plurality of spaces of interests, SOIs, and SOI description information for the SOIs; determining at least one SOI corresponding to a viewing direction of the user for a immersive media based on the SOI description information,; and transmitting , to a media reception apparatus, SOI description information corresponding to the determined at least one SOI among the SOI description information corresponding to the plurality of SOIs, and immersive media data corresponding to the determined at least one SOI among the immersive media data corresponding to the plurality of SOls, wherein the SOI description information includes identification information for the at least one SOI, a spatial range indicator for an object of interest, OOI, a vector for indicating direction of the OOI, characterised in that the SOI description information further includes: a priority indicator indicating a priority for each of a plurality of OOIs in the SOI, information on object role describing what the OOI represents in a scene being represented in immersive media, and an indicator indicating dependency between an OOI and other OOI, wherein the priority of the OOI is determined based on the object role of the OOI and the dependency between the OOI and the other OOI.
A method for identifying androgen receptor-variant 7 (AR-V7) in a biological liquid, wherein the biological liquid is blood or serum that has been taken from a subject comprising: a) isolating circulating tumor cells (CTCs) from said biological liquid from a subject specific for prostate cancer, wherein the subject has been administered a selected chemotherapy; b) extracting the RNA from the isolated CTCs; c) creating a cDNA library from the RNA of b) using 100 bp paired end RNA-seq methodology; d) performing an exonic read of the cDNA library of c) using high throughput sequencing; e) identifying the subject as having AR-V7 when the biological liquid that has been taken from the subject contains AR-V7. a) isolating circulating tumor cells (CTCs) from said biological liquid from a subject specific for prostate cancer, wherein the subject has been administered a selected chemotherapy; b) extracting the RNA from the isolated CTCs; c) creating a cDNA library from the RNA of b) using 100 bp paired end RNA-seq methodology; d) performing an exonic read of the cDNA library of c) using high throughput sequencing; e) identifying the subject as having AR-V7 when the biological liquid that has been taken from the subject contains AR-V7.
A electrochemical energy storage device, comprising: a positive electrode plate comprising a positive electrode current collector and a positive electrode film which is provided to the positive electrode current collector and contains a positive electrode material; a negative electrode plate; and a separator; wherein, the positive electrode material comprises a prussian blue analogue positive electrode material; a molecular formula of the prussian blue analogue positive electrode material is A x M c [M'(CN) 6 ] 1- y ( b -H 2 O) 6y-d L d • □ y • ( i -H 2 O) z ; where, A is one or more selected from a group consisting of alkali metal cation, alkaline-earth metal cation, Zn 2+ and Al 3+ ; M is a metal with the valence of 2+ or 3+; M' is a metal with the valence of 2+ or 3+; b -H 2 O is a coordinated water; □ is a M'(CN) 6 cavity; L is a neutral ligand, the neutral ligand is C 5 H 5 N; i -H 2 O is an interstitial water; 0 < x ⩽ 2 ; 0 < c ⩽ 1 ; 0 < y < 1 ; 0 < d ⩽ 6 y ; 0 ⩽ z ⩽ 16 ; wherein, the electrochemical energy storage device is a lithium-ion battery, a sodium-ion battery, a potassium-ion battery, a zinc-ion battery or an aluminum-ion battery. a positive electrode plate comprising a positive electrode current collector and a positive electrode film which is provided to the positive electrode current collector and contains a positive electrode material; a negative electrode plate; and a separator; wherein, the positive electrode material comprises a prussian blue analogue positive electrode material; a molecular formula of the prussian blue analogue positive electrode material is A x M c [M'(CN) 6 ] 1- y ( b -H 2 O) 6y-d L d • □ y • ( i -H 2 O) z ; where, A is one or more selected from a group consisting of alkali metal cation, alkaline-earth metal cation, Zn 2+ and Al 3+ ; M is a metal with the valence of 2+ or 3+; M' is a metal with the valence of 2+ or 3+; b -H 2 O is a coordinated water; □ is a M'(CN) 6 cavity; L is a neutral ligand, the neutral ligand is C 5 H 5 N; i -H 2 O is an interstitial water; 0 < x ⩽ 2 ; 0 < c ⩽ 1 ; 0 < y < 1 ; 0 < d ⩽ 6 y ; 0 ⩽ z ⩽ 16 ; wherein, the electrochemical energy storage device is a lithium-ion battery, a sodium-ion battery, a potassium-ion battery, a zinc-ion battery or an aluminum-ion battery.
A computer-implemented method to track the spread of infection, said method comprising: in a plurality of infection samples, for each infection sample sequencing data; determining an expected range of changes over time for a pathogenic organism using linear regression on sample data which contains changes over time for different samples and computing a prediction interval, wherein the prediction interval bounds the expected range of expected changes for infection transmission; for at least one infection sample, computing the number of mutational changes over time between that sample and at least one additional infection sample; for each of the computed number of mutational changes over time, determining if the number of mutational changes over time between samples is within the prediction interval; and for each of the computed number of mutational changes over time that are within the prediction interval, marking the associated pair of samples as a potential transmission. in a plurality of infection samples, for each infection sample sequencing data; determining an expected range of changes over time for a pathogenic organism using linear regression on sample data which contains changes over time for different samples and computing a prediction interval, wherein the prediction interval bounds the expected range of expected changes for infection transmission; for at least one infection sample, computing the number of mutational changes over time between that sample and at least one additional infection sample; for each of the computed number of mutational changes over time, determining if the number of mutational changes over time between samples is within the prediction interval; and for each of the computed number of mutational changes over time that are within the prediction interval, marking the associated pair of samples as a potential transmission.
A cellular communication network comprising a base station serving a radio cell and at least a first and a second user equipment (13 1 , 13 2 ) located within said radio cell , wherein the base station is configured to receive a first radio signal (14 1 ) from the first user equipment (13 1 ) and to receive a second radio signal (14 2 ) from the second user equipment (13 2 ) and to determine at least one physical signal property of said received first and second radio signals (14 1 , 14 2 ), wherein the base station is further configured to assign a user equipment identifier to each of said first and second user equipments (13 1 , 13 2 ), wherein the base station comprises a first group (c 1 ) of user equipment identifiers and a second group (c 2 ) of user equipment identifiers , wherein at least one of the user equipment identifiers of the first group (c 1 ) is identical to at least one of the user equipment identifiers of the second group (c 2 ), or wherein all of the user equipment identifiers of the first group (c 1 ) are identical to the user equipment identifiers of the second group (c 2 ), and wherein the base station is configured to selectively assign a user equipment identifier (16 1A ) of the first group (c 1 ) to the first user equipment (13 1 ) and an identical user equipment identifier (16 1A ) of the second group (c 2 ) to the second user equipment (13 2 ) based on the at least one determined physical signal property of said first and second user equipments (13 1 , 13 2 ). wherein the base station is configured to receive a first radio signal (14 1 ) from the first user equipment (13 1 ) and to receive a second radio signal (14 2 ) from the second user equipment (13 2 ) and to determine at least one physical signal property of said received first and second radio signals (14 1 , 14 2 ), wherein the base station is further configured to assign a user equipment identifier to each of said first and second user equipments (13 1 , 13 2 ), wherein the base station comprises a first group (c 1 ) of user equipment identifiers and a second group (c 2 ) of user equipment identifiers , wherein at least one of the user equipment identifiers of the first group (c 1 ) is identical to at least one of the user equipment identifiers of the second group (c 2 ), or wherein all of the user equipment identifiers of the first group (c 1 ) are identical to the user equipment identifiers of the second group (c 2 ), and wherein the base station is configured to selectively assign a user equipment identifier (16 1A ) of the first group (c 1 ) to the first user equipment (13 1 ) and an identical user equipment identifier (16 1A ) of the second group (c 2 ) to the second user equipment (13 2 ) based on the at least one determined physical signal property of said first and second user equipments (13 1 , 13 2 ).
A titanium alloy comprising: 4.75 - 6.75 wt. % Al; 6.75 - 8.5 wt. % (Nb + Ta), wherein the titanium alloy includes at least 6.75 wt. % Nb; 1.5 - 3.5 wt. % Sn; up to 5.0 wt. % Zr; and up to 2.5 wt. % Mo, the balance being titanium, optional incidental elements, and impurities, wherein: the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr. 4.75 - 6.75 wt. % Al; 6.75 - 8.5 wt. % (Nb + Ta), wherein the titanium alloy includes at least 6.75 wt. % Nb; 1.5 - 3.5 wt. % Sn; up to 5.0 wt. % Zr; and up to 2.5 wt. % Mo, the balance being titanium, optional incidental elements, and impurities, wherein: the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr. the incidental elements comprise up to 0.60 wt. % Si, up to 0.20 wt. % O, and up to 0.10 wt. % C; and the impurities comprise up to 0.1 wt. % Fe, up to 0.1 wt. % Ni, up to 0.3 wt. % Cu, and up to 0.3 wt. % Cr.
A vehicle comprising: an engine comprising two banks of cylinders having axial directions angled relative to each other to form a region running between the axial directions of the two banks; a plurality of exhaust components located in the region; and a heat shield enclosing the exhaust components between the engine and the heat shield, the heat shield comprising an inner surface facing the exhaust components, a first heat shield inlet and a heat shield outlet , and the heat shield being configured to channel an airflow between the first heat shield inlet and the heat shield outlet over the inner surface of the heat shield, wherein the heat shield comprises an air diverter comprising a first diverter inlet and a plurality of diverter outlets , and the air diverter is configured to disperse an airflow entering from the first heat shield inlet over the inner surface of the heat shield. an engine comprising two banks of cylinders having axial directions angled relative to each other to form a region running between the axial directions of the two banks; a plurality of exhaust components located in the region; and a heat shield enclosing the exhaust components between the engine and the heat shield, the heat shield comprising an inner surface facing the exhaust components, a first heat shield inlet and a heat shield outlet , and the heat shield being configured to channel an airflow between the first heat shield inlet and the heat shield outlet over the inner surface of the heat shield, wherein the heat shield comprises an air diverter comprising a first diverter inlet and a plurality of diverter outlets , and the air diverter is configured to disperse an airflow entering from the first heat shield inlet over the inner surface of the heat shield.
An intragastric device comprising: a porous structure comprising a top, a bottom, and an interior and having a pre-deployment shape with a first volume and a post-deployment shape with a second volume greater than said first volume, wherein, in said post-deployment shape, said porous structure includes at least one first opening proximate said top and at least one second opening proximate said bottom; and an anti-migration component positioned proximate said bottom of said porous structure , wherein said anti-migration component comprises a compressed pre-deployment configuration and an expanded post-deployment configuration and is adapted to be positioned proximal to a patient's pylorus and adapted to prevent migration of the porous structure into and through said pylorus; and when in said post-deployment configuration, said porous structure comprises a wire mesh structure and characterised in that said wire mesh structure comprises different wire mesh weave patterns. a porous structure comprising a top, a bottom, and an interior and having a pre-deployment shape with a first volume and a post-deployment shape with a second volume greater than said first volume, wherein, in said post-deployment shape, said porous structure includes at least one first opening proximate said top and at least one second opening proximate said bottom; and an anti-migration component positioned proximate said bottom of said porous structure , wherein said anti-migration component comprises a compressed pre-deployment configuration and an expanded post-deployment configuration and is adapted to be positioned proximal to a patient's pylorus and adapted to prevent migration of the porous structure into and through said pylorus; and when in said post-deployment configuration, said porous structure comprises a wire mesh structure and characterised in that said wire mesh structure comprises different wire mesh weave patterns.