mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for diagnosing a diaphragm of a diaphragm valve or a diaphragm pump, comprising a first component, composed of a diaphragm provided in the housing, wherein a part of the diaphragm projects from the housing, and a second component, composed of a data capture device, wherein at least one sensor for capturing operating parameters is provided in the diaphragm , wherein at least one means for electromagnetic near field communication with the data capture device is provided in the diaphragm , characterized in that a mechanical reinforcement structure is provided in the diaphragm , and the mechanical reinforcement structure is made from electrically conductive material, wherein the reinforcement structure has the properties of a sensor .
A two wheeled vehicle comprising: a frame assembly , extending from a front portion (F) to a rear portion (R) along a longitudinal axis (F-R); a radiator disposed on the front portion (F); an internal combustion (IC) engine mounted to the front portion (F) of the frame assembly rearward of the radiator ; a radiator fan interposed between the radiator and the IC engine , said radiator fan configured to draw cooling air through the radiator ; a side body panel disposed on the left hand and right hand side of the two wheeled vehicle and covering the radiator , the radiator fan and at least a portion of the IC engine ; and wherein, an air deflecting structure disposed obliquely between the radiator fan and the IC engine substantially in proximity to the IC engine , said air deflecting structure being configured to direct the air thrown downstream by the radiator fan away from the rear portion of the side body panel towards the bottom of the two wheeled vehicle , characterized in that the two wheeled vehicle comprises a bottom fairing disposed on both ends of the air directing portions (404 and 405) to direct the air obliquely in a side- downward direction towards the bottom of the two wheeled vehicle . a frame assembly , extending from a front portion (F) to a rear portion (R) along a longitudinal axis (F-R); a radiator disposed on the front portion (F); an internal combustion (IC) engine mounted to the front portion (F) of the frame assembly rearward of the radiator ; a radiator fan interposed between the radiator and the IC engine , said radiator fan configured to draw cooling air through the radiator ; a side body panel disposed on the left hand and right hand side of the two wheeled vehicle and covering the radiator , the radiator fan and at least a portion of the IC engine ; and wherein, an air deflecting structure disposed obliquely between the radiator fan and the IC engine substantially in proximity to the IC engine , said air deflecting structure being configured to direct the air thrown downstream by the radiator fan away from the rear portion of the side body panel towards the bottom of the two wheeled vehicle , characterized in that the two wheeled vehicle comprises a bottom fairing disposed on both ends of the air directing portions (404 and 405) to direct the air obliquely in a side- downward direction towards the bottom of the two wheeled vehicle .
Method for authenticating an access authorization by means of an access control system , wherein the access control system comprises a terminal and an ID token which are designed to communicate with one another via a secure channel in the form of a session, wherein, in order to re-establish the session between the terminal and the ID token , a session-specific randomized attribute (RID) based on a unique identifier (TUID) of the terminal is generated and is stored at least in the terminal with an assignment to its own specific session context (TSK), wherein, in order to re-establish the session between the terminal and the ID token , the terminal transmits, to the ID token , the unique terminal identifier (TUID), on the basis of which the ID token determines the associated randomized attribute (RID) in a manner based on the session context and sends it to the terminal .
A first device , comprising means for causing the first device to: in response to detecting a wireless local area network, transmit a dummy MAC address of the first device to a second device in the wireless local area network, the dummy MAC address being different from a real MAC address of the first device ; transmit, via a dynamic host configuration protocol, DHCP, discovery message, an address conflict detection request for the dummy MAC address to the second device ; receive an address conflict detection response via a DHCP offer message; and in response to an address conflict detection response from the second device indicating that there is no conflict for the dummy MAC address, establish a connection with the wireless local area network using the dummy MAC address so that the real MAC address of the first device is not exposed to the second device. in response to detecting a wireless local area network, transmit a dummy MAC address of the first device to a second device in the wireless local area network, the dummy MAC address being different from a real MAC address of the first device ; transmit, via a dynamic host configuration protocol, DHCP, discovery message, an address conflict detection request for the dummy MAC address to the second device ; receive an address conflict detection response via a DHCP offer message; and in response to an address conflict detection response from the second device indicating that there is no conflict for the dummy MAC address, establish a connection with the wireless local area network using the dummy MAC address so that the real MAC address of the first device is not exposed to the second device.
An ethylene-vinyl alcohol copolymer composition comprising: (A) an ethylene-vinyl alcohol copolymer; and (B) an alkali earth metal compound; characterized in that the ethylene-vinyl alcohol copolymer composition further comprises: (C) a sorbic acid ester; wherein the sorbic acid ester (C) is present in an amount of 0.00001 to 10 ppm based on the weight of the ethylene-vinyl alcohol copolymer composition; wherein a ratio (B)/(C) of the weight of the alkali earth metal compound (B) on a metal basis to the weight of the sorbic acid ester (C) is 10 to 30,000. (A) an ethylene-vinyl alcohol copolymer; and (B) an alkali earth metal compound; wherein the sorbic acid ester (C) is present in an amount of 0.00001 to 10 ppm based on the weight of the ethylene-vinyl alcohol copolymer composition; wherein a ratio (B)/(C) of the weight of the alkali earth metal compound (B) on a metal basis to the weight of the sorbic acid ester (C) is 10 to 30,000.
A session management method of a control entity , the method comprising: transmitting, to a source base station , a bearer management message for one of establishing, modifying, and releasing a bearer; transmitting, to a target base station , a handover request including a first list for bearers in the source base station for the terminal and a second list for bearers in the control entity for the terminal, when a handover of a terminal occurs before a bearer management procedure associated with the bearer management message is completed; and receiving, from the target base station , a handover response including a bearer list generated based on one of the first list and the second list. transmitting, to a source base station , a bearer management message for one of establishing, modifying, and releasing a bearer; transmitting, to a target base station , a handover request including a first list for bearers in the source base station for the terminal and a second list for bearers in the control entity for the terminal, when a handover of a terminal occurs before a bearer management procedure associated with the bearer management message is completed; and receiving, from the target base station , a handover response including a bearer list generated based on one of the first list and the second list.
A method implemented in a decoder, the method comprising: receiving , by a receiver of the decoder, a bitstream comprising sub-pictures partitioned from a picture, and a sequence parameter set (SPS) comprising parameters, wherein the parameters comprise a sub-picture size for each of the sub-pictures and a sub-picture location for each of the sub-pictures, wherein the SPS further comprises a sub-picture identifier (ID) for each of the sub-pictures; parsing , by the processor, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures; generating , by the processor, the sub-pictures based on the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures to create a video sequence receiving , by a receiver of the decoder, a bitstream comprising sub-pictures partitioned from a picture, and a sequence parameter set (SPS) comprising parameters, wherein the parameters comprise a sub-picture size for each of the sub-pictures and a sub-picture location for each of the sub-pictures, wherein the SPS further comprises a sub-picture identifier (ID) for each of the sub-pictures; parsing , by the processor, the SPS to obtain the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures; generating , by the processor, the sub-pictures based on the sub-picture ID, the sub-picture size and the sub-picture location for each of the sub-pictures to create a video sequence
An assay method for identification of test agents that induce activation of cells, wherein the cells are bone marrow derived macrophages (BMDM) comprising: immobilising a fibrin composition to a solid support surface, wherein the fibrin composition displays: high affinity binding to fibrin receptors or cryptic fibrinogen receptors; and at least a two-fold increase in cell activation upon introduction of the composition to cells in vitro; introducing the cells to the solid support surface; and in the presence of test agent, measuring one or more biological outputs associated with the activation of the cell, wherein the one or more biological outputs comprise: (i) expression of one or more genes known to be associated with activation of cells, wherein the one or more genes are Cxcl10, Col5, IL-10 and Mcp-1; or (ii) the production of a reactive oxidative species. immobilising a fibrin composition to a solid support surface, wherein the fibrin composition displays: high affinity binding to fibrin receptors or cryptic fibrinogen receptors; and at least a two-fold increase in cell activation upon introduction of the composition to cells in vitro; high affinity binding to fibrin receptors or cryptic fibrinogen receptors; and at least a two-fold increase in cell activation upon introduction of the composition to cells in vitro; introducing the cells to the solid support surface; and in the presence of test agent, measuring one or more biological outputs associated with the activation of the cell, wherein the one or more biological outputs comprise: (i) expression of one or more genes known to be associated with activation of cells, wherein the one or more genes are Cxcl10, Col5, IL-10 and Mcp-1; or (ii) the production of a reactive oxidative species. (i) expression of one or more genes known to be associated with activation of cells, wherein the one or more genes are Cxcl10, Col5, IL-10 and Mcp-1; or (ii) the production of a reactive oxidative species.
A multilayer film or sheet comprising a layer (A) and a layer (B); wherein layer (A) is not foamed and comprises at least one multimodal linear low density polyethylene having a density of 905 to 935 kg/m 3 ; and wherein layer (B) is foamed and wherein the foamed layer (B) comprises: a) at least 45 wt% of at least one multimodal polyethylene being: i) a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 , or ii) a blend of a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 and a multimodal linear low density polyethylene (LLDPE) having a density of 915 to 930 kg/m 3 ; and b) optionally 10 to 50 wt% of a low density polyethylene (LDPE). wherein layer (A) is not foamed and comprises at least one multimodal linear low density polyethylene having a density of 905 to 935 kg/m 3 ; and wherein layer (B) is foamed and wherein the foamed layer (B) comprises: a) at least 45 wt% of at least one multimodal polyethylene being: i) a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 , or ii) a blend of a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 and a multimodal linear low density polyethylene (LLDPE) having a density of 915 to 930 kg/m 3 ; and b) optionally 10 to 50 wt% of a low density polyethylene (LDPE). a) at least 45 wt% of at least one multimodal polyethylene being: i) a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 , or ii) a blend of a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 and a multimodal linear low density polyethylene (LLDPE) having a density of 915 to 930 kg/m 3 ; and i) a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 , or ii) a blend of a multimodal medium density polyethylene (MDPE) having a density of 931 to 945 kg/m 3 and a multimodal linear low density polyethylene (LLDPE) having a density of 915 to 930 kg/m 3 ; and b) optionally 10 to 50 wt% of a low density polyethylene (LDPE).
A method for collecting image data destined for producing an immersive video, which method comprises a setting up of a first set of at least n (n>1) scanners, each being provided for producing scanning beams, which method also comprises the scanning of a predetermined space by each of the scanners of said first set of scanners by means of scanning beams for producing the image data of said space, which image data are stored in a memory, characterised in that a zone of viewpoints is determined by delimiting a volume from which a user of the immersive video will be able to see said space and to perform with his head a movement, in particular a translation movement, inside the zone of viewpoints, said zone of viewpoints having a dimension which corresponds to a head movement latitude which the user naturally has around a rest position, a second set of m (m>1) source points located at the ends of the zone of viewpoints being thereafter determined, which setting up of said first set of at least n scanners being realised by placing at each of said source points each time one of said scanners of said first set, said scanning of said space being realised by means of said scanners placed at said source points and by scanning step by step said space according to a succession of at the one hand azimuth angles and on the other hand elevation angles each located in a range predetermined by said zone of viewpoints, which production of image data is realised by collecting for each produced scanning beam the scanning beam reflected by each time a touched point situated within said space and touched by the concerned scanning beam and by determining by each step and on the basis of the reflected scanning beam a distance (d) between the touched point and the scanner having produced the concerned scanning beam as well as a colour parameter of said touched point, said data being stored in the memory in the form of a matrix structured according to the azimuth and elevation angles.
A method which is executed by a mobile station for autonomous uplink transmission, in which a scheduling grant from a network is not required, and in which autonomous uplink transmissions are transmissible in one or more air interface transmission time intervals by a Medium Access Control entity of the mobile station , the method comprising: determining, in addition to said air interface transmission time interval, a virtual transmission time interval for the Medium Access Control entity, which virtual transmission time interval defines a minimum time interval between a first autonomous uplink transmission and a subsequent first autonomous uplink transmission, and which virtual transmission time interval is a multiple of the air interface transmission time interval, wherein, when the Medium Access Control entity is not able to empty a buffer of the Radio Link Control layer in a first said air interface transmission time interval, the method comprises checking the buffer for the next said air interface transmission time interval. determining, in addition to said air interface transmission time interval, a virtual transmission time interval for the Medium Access Control entity, which virtual transmission time interval defines a minimum time interval between a first autonomous uplink transmission and a subsequent first autonomous uplink transmission, and which virtual transmission time interval is a multiple of the air interface transmission time interval, wherein, when the Medium Access Control entity is not able to empty a buffer of the Radio Link Control layer in a first said air interface transmission time interval, the method comprises checking the buffer for the next said air interface transmission time interval.
A cooking appliance, comprising: an oven unit including a cooking chamber ; a cooktop unit on the oven unit and including at least one cooktop heating unit ; an exhaust vent for discharging air from the cooking appliance; and an electric chamber for accommodating electric parts between the cooking chamber and the cooktop heating unit ; an exhaust duct having a first inlet at the cooking chamber and a first exhaust opening at the exhaust vent for connecting the cooking chamber to the exhaust vent ; and a cool air-exhaust duct having a second inlet at the electric chamber and a second exhaust opening at the exhaust vent for connecting the electric chamber to the exhaust vent ; a guide duct branching from the cool air-exhaust duct and extending along the exhaust duct to the exhaust vent ; a bypass member disposed inside the cool air-exhaust duct for directing some of the airflow flowing inside the cool air-exhaust duct through a diverging opening into the guide duct ; the bypass member is mounted to a portion of the cool air-exhaust duct adjacent to the diverging opening and forms a closed space with said portion, except for a lower portion of the bypass member facing the second inlet and a first lateral portion of the bypass member facing the diverging opening being open for guiding some of the airflow flowing inside the cool air-exhaust duct through the diverging opening . an oven unit including a cooking chamber ; a cooktop unit on the oven unit and including at least one cooktop heating unit ; an exhaust vent for discharging air from the cooking appliance; and an electric chamber for accommodating electric parts between the cooking chamber and the cooktop heating unit ; an exhaust duct having a first inlet at the cooking chamber and a first exhaust opening at the exhaust vent for connecting the cooking chamber to the exhaust vent ; and a cool air-exhaust duct having a second inlet at the electric chamber and a second exhaust opening at the exhaust vent for connecting the electric chamber to the exhaust vent ; a guide duct branching from the cool air-exhaust duct and extending along the exhaust duct to the exhaust vent ; a bypass member disposed inside the cool air-exhaust duct for directing some of the airflow flowing inside the cool air-exhaust duct through a diverging opening into the guide duct ; the bypass member is mounted to a portion of the cool air-exhaust duct adjacent to the diverging opening and forms a closed space with said portion, except for a lower portion of the bypass member facing the second inlet and a first lateral portion of the bypass member facing the diverging opening being open for guiding some of the airflow flowing inside the cool air-exhaust duct through the diverging opening .
Multi-component composition comprising a first component (A) comprising water, and a second component (B) comprising at least one hydraulic binder, wherein the multi-component composition comprises a copolymer CP , wherein the copolymer is a vinyl versatate copolymer CPA , and/or a copolymer based on styrene and (meth) acrylic acid esters CPB , and wherein the amount of hydraulic binder, based on the total weight of the multi-component composition, is from 25 - 65 weight-%, wherein the amount of copolymer CP , based on the total weight of the multi-component composition, is from 2.5 - 7 weight-%, 3 - 6.5 weight-%, 3-6 weight-%, 3.5 - 5.5 weight-%, more preferably 4-5 weight-%. a first component (A) comprising water, and a second component (B) comprising at least one hydraulic binder, wherein the multi-component composition comprises a copolymer CP , wherein the copolymer is a vinyl versatate copolymer CPA , and/or a copolymer based on styrene and (meth) acrylic acid esters CPB , and wherein the amount of hydraulic binder, based on the total weight of the multi-component composition, is from 25 - 65 weight-%, wherein the amount of copolymer CP , based on the total weight of the multi-component composition, is from 2.5 - 7 weight-%, 3 - 6.5 weight-%, 3-6 weight-%, 3.5 - 5.5 weight-%, more preferably 4-5 weight-%.
A method for controlling the orientation of a single-axis solar tracker orientable about an axis of rotation (A), the method repetitively completing successive control phases, wherein each control phase implements the following successive steps: a) observing the cloud coverage above the single-axis solar tracker ; b) comparing the observed cloud coverage with cloud coverage models stored in a database , each cloud coverage model being associated with an orientation setpoint value for the single-axis solar tracker ; c) matching the observed cloud coverage with a cloud coverage model ; d) controlling the orientation of the single-axis solar tracker by applying the orientation setpoint value associated with the cloud coverage model retained during step c); wherein each cloud coverage model is associated with an orientation setpoint value which depends on a composition of the cloud layer of the model, the composition depending on at least one of the following parameters: number of clouds, thickness of the cloud(s), location of the cloud(s), type of the cloud(s). a) observing the cloud coverage above the single-axis solar tracker ; b) comparing the observed cloud coverage with cloud coverage models stored in a database , each cloud coverage model being associated with an orientation setpoint value for the single-axis solar tracker ; c) matching the observed cloud coverage with a cloud coverage model ; d) controlling the orientation of the single-axis solar tracker by applying the orientation setpoint value associated with the cloud coverage model retained during step c);