mhurhangee/patent-ind-claim-en huggingface dataset:
A MEMS device, comprising: a cavity having an internal environment ; and a seal isolating the internal environment from an external environment outside the MEMS device ; characterized in that the seal is damaged by breaching; wherein the seal is breached by heating a wire included by the seal with an electrical current; wherein upon damage to the seal , a pathway forms which couples the internal environment to the external environment ; and wherein the MEMS device comprises a calibration circuit capable of measuring the internal environment before and after damage to the seal . a cavity having an internal environment ; and a seal isolating the internal environment from an external environment outside the MEMS device ; characterized in that the seal is damaged by breaching; wherein the seal is breached by heating a wire included by the seal with an electrical current; wherein upon damage to the seal , a pathway forms which couples the internal environment to the external environment ; and wherein the MEMS device comprises a calibration circuit capable of measuring the internal environment before and after damage to the seal .
A fibre optic cable tube connector, to connect tubes wherein fibre optic cables are fed, the fibre optic cable tube connector comprising a fibre optic cable tube connector body made of a plastic, the body defining a through bore and having an end connector at either end, each end connector being configured to receive and grip a respective tube (T); the body comprising an outer sleeve and an inner sleeve , the inside of the inner sleeve being configured to receive the distal end of a respective tube; the outer wall of the inner sleeve being generally spaced from an inner wall of the outer sleeve to define an air gap , the inner sleeve being supported on the outer sleeve by at least one circumferentially intermittent discrete web of material which supports the inner sleeve and maintains the air gap between the inner and outer sleeve. made of a plastic, the body defining a through bore and having an end connector at either end, each end connector being configured to receive and grip a respective tube (T); the body comprising an outer sleeve and an inner sleeve , the inside of the inner sleeve being configured to receive the distal end of a respective tube; the outer wall of the inner sleeve being generally spaced from an inner wall of the outer sleeve to define an air gap , the inner sleeve being supported on the outer sleeve by at least one circumferentially intermittent discrete web of material which supports the inner sleeve and maintains the air gap between the inner and outer sleeve.
Control device comprising a grip member (C) that is mobile in rotation about an axis of rotation, and a rotation sensor for detecting the rotation of said grip member (C), the grip member (C) comprising at least two distinct grip regions that are intended to be actuated to rotate the grip member (C), at least one tactile sensor that is associated with one of the grip regions and is configured to detect actuation by a user interacting with the associated grip region and a stepped circular knob, characterized in that each step of the stepped circular knob is associated with a corresponding grip region .
A substantially alkali-free glass comprising in mole percent on an oxide basis: SiO 2 : 65-70.3 Al 2 O 3 : 11-14 B 2 O 3 : 2-7.5 MgO: 2-7.5 CaO: 3-11 SrO: 0-5.5 BaO: 0-2 ZnO: 0-2 wherein: (a) SiO 2 + Al 2 O 3 ≤ 81.3 ; (b) ∑ RO / Al 2 O 3 ≤ 1.3 ; (c) a 0 + a 1 ∗ Al 2 O 3 + a 2 ∗ B 2 O 3 + a 3 ∗ MgO + a 4 ∗ CaO + a 5 ∗ SrO ≥ 740 ; and (d) the annealing point of the glass is greater than or equal to 740°C when measured by a fiber elongation technique; where: (i) [SiO 2 ], [Al 2 O 3 ], [B 2 O 3 ], [MgO], [CaO], and [SrO] are the mole percents of SiO 2 , Al 2 O 3 , B 2 O 3 , MgO, CaO, and SrO, respectively; (ii) ∑[RO] equals the sum of the mole percents of MgO, CaO, SrO, BaO, and ZnO; and (iii) a 0 = 847.516, a 1 = 4.747, a 2 = -10.144, a 3 = -5.089, a 4 = -6.837, and a 5 = -6.548. SiO 2 : 65-70.3 Al 2 O 3 : 11-14 B 2 O 3 : 2-7.5 MgO: 2-7.5 CaO: 3-11 SrO: 0-5.5 BaO: 0-2 ZnO: 0-2 (a) SiO 2 + Al 2 O 3 ≤ 81.3 ; (b) ∑ RO / Al 2 O 3 ≤ 1.3 ; (c) a 0 + a 1 ∗ Al 2 O 3 + a 2 ∗ B 2 O 3 + a 3 ∗ MgO + a 4 ∗ CaO + a 5 ∗ SrO ≥ 740 ; and (d) the annealing point of the glass is greater than or equal to 740°C when measured by a fiber elongation technique; (i) [SiO 2 ], [Al 2 O 3 ], [B 2 O 3 ], [MgO], [CaO], and [SrO] are the mole percents of SiO 2 , Al 2 O 3 , B 2 O 3 , MgO, CaO, and SrO, respectively; (ii) ∑[RO] equals the sum of the mole percents of MgO, CaO, SrO, BaO, and ZnO; and (iii) a 0 = 847.516, a 1 = 4.747, a 2 = -10.144, a 3 = -5.089, a 4 = -6.837, and a 5 = -6.548.
A screen wire regulation and control device with an easy disassembly and assembly structure, comprising: a wire regulation body and a fixing seat , wherein the wire regulation body and the fixing seat are assembled with each other, and an outer periphery of the fixing seat is provided with a protruded portion C31 > and a fastener , wherein an end of the fastener is spaced apart from the fixing seat at a distance to form a compression space, and the compression space is greater than a distance of the protruded portion protruding from the outer periphery of the fixing seat .
Motor vehicle latch, in particular a motor vehicle door latch, comprising a locking mechanism consisting substantially of a catch and a pawl , and comprising an operating lever chain for the locking mechanism , the operating lever chain having at least one operating lever , a coupling element , and a release lever on the locking mechanism side, and an inertia element additionally being provided for acting upon the coupling element , at least in the event of a crash, the coupling element being disengaged in normal operation and only being engaged in the event of a crash by means of the inertia element , characterized in that the coupling element is formed at least in two parts with a coupling lever and a transmission lever .
Microneedle applicator for applying a fluid product on the skin and for making it penetrate into the skin, the applicator defining a longitudinal axis X and comprising: - an application face (C11; C21; C31) provided with at least one fluid product outlet (C110; C210; C310) and with several microneedles (C111; C211; C311), - a motor (M1) for making the microneedles (C111; C211; C311) vibrate, - at least one fluid product reservoir (C13; C24; C34) connected to the fluid product outlet (C110; C210; C310), - an actuation member (111; I21; I31) for conveying the fluid product from the fluid product reservoir (C13; C24; C34) to the fluid product outlet (C110; C210; C310), characterised in that it comprises three distinct modules (M, C1; C2; C3, I1; I2; I3) axially connected to one another, namely: - a motor module (M) housing the motor (M1) and accessories for making the motor (M1) function, - a cartridge module (C1; C2; C3) housing said at least one fluid product reservoir (C13; C24; C34) and forming the application face (C11; C21; C31), - an intermediate module (11; I2; I3) connected to the motor module (M) and removably connected to the cartridge module (C1; C2; C3), the intermediate module (11; I2; I3) comprising the actuation member (111; I21; I31) and transmission means (115; I25) for transmitting the vibrations generated by the motor (M1) of the motor module (M) to the microneedles (C111; C211; C311) of the cartridge module (C1; C2; C3). - an application face (C11; C21; C31) provided with at least one fluid product outlet (C110; C210; C310) and with several microneedles (C111; C211; C311), - a motor (M1) for making the microneedles (C111; C211; C311) vibrate, - at least one fluid product reservoir (C13; C24; C34) connected to the fluid product outlet (C110; C210; C310), - an actuation member (111; I21; I31) for conveying the fluid product from the fluid product reservoir (C13; C24; C34) to the fluid product outlet (C110; C210; C310), - a motor module (M) housing the motor (M1) and accessories for making the motor (M1) function, - a cartridge module (C1; C2; C3) housing said at least one fluid product reservoir (C13; C24; C34) and forming the application face (C11; C21; C31), - an intermediate module (11; I2; I3) connected to the motor module (M) and removably connected to the cartridge module (C1; C2; C3), the intermediate module (11; I2; I3) comprising the actuation member (111; I21; I31) and transmission means (115; I25) for transmitting the vibrations generated by the motor (M1) of the motor module (M) to the microneedles (C111; C211; C311) of the cartridge module (C1; C2; C3).
A system , comprising: an obtaining module configured to obtain driving data from sensors associated with a vehicle driven by a driver; a target time period determination module configured to determine, based on the driving data, a plurality of fluctuation variances of the driving data corresponding to a plurality of time points and a target time period, wherein the plurality of fluctuation variances of the driving data corresponding to the plurality of time points within the target time period are greater than a fluctuation variance threshold; a target data determination module configured to obtain, based on the driving data, target data within the target time period; an identification module configured to identify, based on the target data, a presence of a risky driving behavior of the driver. an obtaining module configured to obtain driving data from sensors associated with a vehicle driven by a driver; a target time period determination module configured to determine, based on the driving data, a plurality of fluctuation variances of the driving data corresponding to a plurality of time points and a target time period, wherein the plurality of fluctuation variances of the driving data corresponding to the plurality of time points within the target time period are greater than a fluctuation variance threshold; a target data determination module configured to obtain, based on the driving data, target data within the target time period; an identification module configured to identify, based on the target data, a presence of a risky driving behavior of the driver.
A Transparent Interconnection of Lots of Links, TRILL, Intermediate System to Intermediate System, ISIS-based route calculation method, comprising: acquiring, by a route calculation unit, a Link State Protocol Data Unit, LSP, packet from each Routing Bridge, RB, in a network (S102); and calculating, by the route calculation unit, a routing table of each RB according to the LSP packet acquired from each RB, and sending, by the route calculation unit, the routing table to each RB for which the routing table was calculated (S104); wherein the LSP packet comprises: a neighbour Type, Length, Value, TLV, 22 of the RB from which the LSP packet is acquired, wherein the neighbour TLV22 of the RB contains one or more neighbour items, each neighbour item containing next-hop information needed by a current neighbour; wherein the route calculation unit is located on a part of RBs in all RBs of the network; or, the route calculation unit is located in a preset route calculation device. acquiring, by a route calculation unit, a Link State Protocol Data Unit, LSP, packet from each Routing Bridge, RB, in a network (S102); and calculating, by the route calculation unit, a routing table of each RB according to the LSP packet acquired from each RB, and sending, by the route calculation unit, the routing table to each RB for which the routing table was calculated (S104); wherein the LSP packet comprises: a neighbour Type, Length, Value, TLV, 22 of the RB from which the LSP packet is acquired, wherein the neighbour TLV22 of the RB contains one or more neighbour items, each neighbour item containing next-hop information needed by a current neighbour; wherein the route calculation unit is located on a part of RBs in all RBs of the network; or, the route calculation unit is located in a preset route calculation device.
A silicone gel composition comprising: (A) 100 parts by weight of organopolysiloxane having at least one silicon-bonded alkenyl group per molecule, represented by the average compositional formula : R a R 1 b SiO (4-a-b)/2 wherein R is independently alkenyl, R 1 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, a is a positive number of 0.0001 to 0.2, b is a positive number of 1.7 to 2.2, and the sum a+b is 1.9 to 2.4, (B) organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, represented by the average compositional formula : R 2 c H d SiO( 4-c-d)/2 wherein R 2 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, c is a positive number of 0.7 to 2.2, d is a positive number of 0.001 to 0.5, and the sum c+d is 0.8 to 3, in such an amount as to give 0.01 to 3 silicon-bonded hydrogen atoms in component (B) per silicon-bonded alkenyl in the entire composition, (C) an effective amount of a platinum-based catalyst, and (D) nickel carboxylate and/or niobium carboxylate having the formula : (R 3 COO) f M wherein R 3 which may be the same or different is a monovalent hydrocarbon group, M is at least one metal selected from nickel and niobium, f is 2 when M is nickel, and f is 4 or 5 when M is niobium, in an amount of 1 to 1,000 ppm based on the total weight of the composition. (A) 100 parts by weight of organopolysiloxane having at least one silicon-bonded alkenyl group per molecule, represented by the average compositional formula : R a R 1 b SiO (4-a-b)/2 wherein R is independently alkenyl, R 1 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, a is a positive number of 0.0001 to 0.2, b is a positive number of 1.7 to 2.2, and the sum a+b is 1.9 to 2.4, (B) organohydrogenpolysiloxane having at least two silicon-bonded hydrogen atoms per molecule, represented by the average compositional formula : R 2 c H d SiO( 4-c-d)/2 wherein R 2 is independently a substituted or unsubstituted monovalent hydrocarbon group free of aliphatic unsaturation, c is a positive number of 0.7 to 2.2, d is a positive number of 0.001 to 0.5, and the sum c+d is 0.8 to 3, in such an amount as to give 0.01 to 3 silicon-bonded hydrogen atoms in component (B) per silicon-bonded alkenyl in the entire composition, (C) an effective amount of a platinum-based catalyst, and (D) nickel carboxylate and/or niobium carboxylate having the formula : (R 3 COO) f M wherein R 3 which may be the same or different is a monovalent hydrocarbon group, M is at least one metal selected from nickel and niobium, f is 2 when M is nickel, and f is 4 or 5 when M is niobium, in an amount of 1 to 1,000 ppm based on the total weight of the composition.
A photovoltaic cell, comprising: a substrate; a passivation layer located on at least one surface of the substrate; busbars and fingers intersecting with each other on a surface of the substrate, wherein the busbars are electrically connected to the fingers , and a quantity of the busbars is 10 to 15; and a plurality of electrode pads arranged on a surface of the substrate, wherein each busbar is connected to 4 to 6 electrode pads , the 4 to 6 electrode pads include first electrode pads and second electrode pads , the first electrode pads are located on two ends of the busbars , the second electrode pads are located between the first electrode pads , the first electrode pads each have an area of 0.6 mm 2 to 1.3 mm 2 , and the second electrode pads each have an area of 0.2 mm 2 to 0.5 mm 2 ;. wherein the photovoltaic cell is characterized in that : each of the second electrode pads is in contact with one of the busbars and is not in contact with the fingers . a substrate; a passivation layer located on at least one surface of the substrate; busbars and fingers intersecting with each other on a surface of the substrate, wherein the busbars are electrically connected to the fingers , and a quantity of the busbars is 10 to 15; and a plurality of electrode pads arranged on a surface of the substrate, wherein each busbar is connected to 4 to 6 electrode pads , the 4 to 6 electrode pads include first electrode pads and second electrode pads , the first electrode pads are located on two ends of the busbars , the second electrode pads are located between the first electrode pads , the first electrode pads each have an area of 0.6 mm 2 to 1.3 mm 2 , and the second electrode pads each have an area of 0.2 mm 2 to 0.5 mm 2 ;. wherein the photovoltaic cell is characterized in that : each of the second electrode pads is in contact with one of the busbars and is not in contact with the fingers .
A support device for a cleaner, comprising: a charging stand body provided with a charging port for charging the cleaner; and a plurality of fixing parts disposed to be spaced apart from each other on the charging stand body and each having a fixing groove capable of accommodating a fixing protrusion provided on the cleaner; characterized in that the fixing groove is defined in each of facing surfaces of the plurality of fixing parts . a charging stand body provided with a charging port for charging the cleaner; and a plurality of fixing parts disposed to be spaced apart from each other on the charging stand body and each having a fixing groove capable of accommodating a fixing protrusion provided on the cleaner; characterized in that the fixing groove is defined in each of facing surfaces of the plurality of fixing parts .
A tire tread comprising: a tread having a surface (TS); at least one tread feature at the surface of the tread, wherein the at least one tread feature is selected from a group consisting of a rib , lug, block, and slick surface; an RFID chip disposed in the tread , the RFID chip having a chip casing and a local antenna; and characterized in that a helical, metallic RFID tag antenna is operably connected to the local antenna of the RFID chip , wherein the helical, metallic RFID tag antenna is configured to provide an operable frequency response between 900 and 930 MHz upon receiving electromagnetic waves having a power between 12 and 24 dBm, and wherein the helical, metallic RFID tag antenna is disposed within the at least one tread feature and has a wear rate commensurate with a wear rate of the at least one tread feature. a tread having a surface (TS); at least one tread feature at the surface of the tread, wherein the at least one tread feature is selected from a group consisting of a rib , lug, block, and slick surface; an RFID chip disposed in the tread , the RFID chip having a chip casing and a local antenna; and characterized in that a helical, metallic RFID tag antenna is operably connected to the local antenna of the RFID chip , wherein the helical, metallic RFID tag antenna is configured to provide an operable frequency response between 900 and 930 MHz upon receiving electromagnetic waves having a power between 12 and 24 dBm, and wherein the helical, metallic RFID tag antenna is disposed within the at least one tread feature and has a wear rate commensurate with a wear rate of the at least one tread feature. wherein the helical, metallic RFID tag antenna is configured to provide an operable frequency response between 900 and 930 MHz upon receiving electromagnetic waves having a power between 12 and 24 dBm, and wherein the helical, metallic RFID tag antenna is disposed within the at least one tread feature and has a wear rate commensurate with a wear rate of the at least one tread feature.
A computer-implemented method comprising: transmitting a message by a Traffic Broadcast System , the message comprising a location (50 ), a traffic pattern code (50 ) and a time period of validity (50 ); receiving the message by a Navigation System ; and selecting a first traffic pattern stored in a geographic database , wherein the first traffic pattern is selected based on a current time period, represents an expected traffic speed for a first location (50 ) on a section of a road network for the current time period, and is identified by a first traffic pattern code (50 ); using the first traffic pattern to perform a navigation system function associated with travelling in the section of the road network ; receiving a message from the Traffic Broadcast System including a second traffic pattern code (50 ) which identifies a second traffic pattern stored in the geographic database , the second traffic pattern representing an expected traffic speed for a second location (50 ) on the road network for the current time period, the second location (50 ) being different from the first location (50 ) on the road network ; during a specified time period of validity (50 ) for the second traffic pattern , using the second traffic pattern to perform the navigation system function associated with travelling in the section of the road network ; and after expiry of the time period of validity (50 ), reverting to using the first traffic pattern for performing the navigation system function associated with travelling in the section of the road network . transmitting a message by a Traffic Broadcast System , the message comprising a location (50 ), a traffic pattern code (50 ) and a time period of validity (50 ); receiving the message by a Navigation System ; and selecting a first traffic pattern stored in a geographic database , wherein the first traffic pattern is selected based on a current time period, represents an expected traffic speed for a first location (50 ) on a section of a road network for the current time period, and is identified by a first traffic pattern code (50 ); using the first traffic pattern to perform a navigation system function associated with travelling in the section of the road network ; receiving a message from the Traffic Broadcast System including a second traffic pattern code (50 ) which identifies a second traffic pattern stored in the geographic database , the second traffic pattern representing an expected traffic speed for a second location (50 ) on the road network for the current time period, the second location (50 ) being different from the first location (50 ) on the road network ; during a specified time period of validity (50 ) for the second traffic pattern , using the second traffic pattern to perform the navigation system function associated with travelling in the section of the road network ; and after expiry of the time period of validity (50 ), reverting to using the first traffic pattern for performing the navigation system function associated with travelling in the section of the road network .