mhurhangee/patent-ind-claim-en huggingface dataset:
A copolymer comprising units derived from ethylene, units derived from tetrafluoroethylene, and units derived from other monomer i.e. a monomer other than ethylene and tetrafluoroethylene, wherein to the sum of the units derived from ethylene and the units derived from tetrafluoroethylene, the proportion of the units derived from ethylene is from 49 to 40 mol%, and the proportion of the units derived from tetrafluoroethylene is from 51 to 60 mol%, to all units in the copolymer, the proportion of the units derived from said other monomer is from 2.6 to 6.0 mol%, the melting point is at least 230°C, wherein the melting point is the temperature at the endothermic peak due to melting at the time when, by means of a scanning differential thermal analyzer, in an air atmosphere, 5 mg of a copolymer is heated to 300°C at 10°C/min., held for 5 minutes, then cooled to 150°C at 10°C/min., held for 5 minutes, and again heated to 300°C at 10°C/min, and the melt flow rate measured in accordance with ASTM D3159 under conditions of a temperature of 297°C and a load of 49 N, is from 1 to 15 g/10 min.
A computer-implemented method for capturing a data set, comprising: under the control of one or more computer systems configured with executable instructions, receiving, in a server, a request to take a capture representing a data set at a period in time; instructing one or more client applications, which have sent one or more instructions to perform data operations, to suspend at least acknowledgement of completion of data operations, the data operations including manipulation of a data set that is distributed among a plurality of partitions, each of the partitions being operated in accordance with operation of a corresponding server of a plurality of servers, the one or more client applications each being in communication with a server for at least writing to the data set of the corresponding partition; responsive to suspension by the client applications of acknowledgement of completion of the data operations, instructing the servers storage interfaces to enqueue an instruction to capture corresponding portions of the data set stored in corresponding partitions of the data set and subsequently resume at least acknowledgement of completion of the data operations. under the control of one or more computer systems configured with executable instructions, receiving, in a server, a request to take a capture representing a data set at a period in time; instructing one or more client applications, which have sent one or more instructions to perform data operations, to suspend at least acknowledgement of completion of data operations, the data operations including manipulation of a data set that is distributed among a plurality of partitions, each of the partitions being operated in accordance with operation of a corresponding server of a plurality of servers, the one or more client applications each being in communication with a server for at least writing to the data set of the corresponding partition; responsive to suspension by the client applications of acknowledgement of completion of the data operations, instructing the servers storage interfaces to enqueue an instruction to capture corresponding portions of the data set stored in corresponding partitions of the data set and subsequently resume at least acknowledgement of completion of the data operations.
An electrical steel sheet comprising, with a symmetry plane being the center of the steel sheet in the thickness direction, a surface part in which the Si concentration in the steel sheet changes continuously from a high Si concentration to a low Si concentration in the thickness direction of the steel sheet from the surface of the steel sheet, a boundary part in which the Si concentration changes discontinuously, and an inner part in which the Si concentration does not change substantially in the thickness direction of the steel sheet, the inner part including the center of the steel sheet in the thickness direction, the average Si concentration in the surface part being 2.5% to 6.5% by mass and the average Si concentration in the inner part being 2.0% or less by mass, the electrical steel sheet having a stress distribution such that an in-plane tensile stress is generated in the surface part and an in-plane compressive stress is generated in the inner part, the average aspect ratio of crystal grains included in the surface part, that is, the ratio of the dimension of the crystal grains in a direction parallel to the surface of the steel sheet to the dimension of the crystal grains in a direction (depth direction) perpendicular to the surface of the steel sheet, being 0.7 or more and 4.0 or less, wherein the average aspect ratio is the average of aspect ratios of 50 or more crystal grains and, in the case where a crystal grain included in the surface part extends to the inner part beyond the boundary part, the dimension of the crystal grain in the direction (depth direction) perpendicular to the surface of the steel sheet is determined taking a portion of the crystal grain which is included in the inner part into account, wherein the steel sheet is obtained by the method according to claim 5 or is obtained from a steel sheet having a composition containing, by mass, C: 0.020% or less, Si: 0.15% to 2.0%, Mn: 0.05% to 2.00%, P: 0.1% or less, S: 0.01% or less, Al: 0.1% or less, and N: 0.01% or less, with the balance being Fe and inevitable impurities.
An optical anti-counterfeiting component comprising:- a substrate ; a sub-wavelength surface micro-structure and an optical reflection facet , both of which are formed on the upper surface of said substrate ; wherein at least part of the upper surface of the substrate is covered by the sub-wavelength surface micro-structure and the optical reflection facet ; and a multi-layer structured coating formed on the sub-wavelength surface micro-structure and the optical reflection facet , wherein the multi-layer structured coating covering the sub-wavelength surface micro-structure and the multi-layer structured coating covering the optical reflection facet are the same multi-layer structured coating which is formed in the same process. a substrate ; a sub-wavelength surface micro-structure and an optical reflection facet , both of which are formed on the upper surface of said substrate ; wherein at least part of the upper surface of the substrate is covered by the sub-wavelength surface micro-structure and the optical reflection facet ; and a multi-layer structured coating formed on the sub-wavelength surface micro-structure and the optical reflection facet , wherein the multi-layer structured coating covering the sub-wavelength surface micro-structure and the multi-layer structured coating covering the optical reflection facet are the same multi-layer structured coating which is formed in the same process.
A saddle riding type vehicle comprising: - a main body extending along a longitudinal axis (L-L) and having a front part , a tail part and a central part comprised between the front part and the tail part , wherein the central part comprises a feet platform for supporting a driver's feet; - at least a front wheel and at least a rear wheel ; - an engine operatively connected to at least one of said wheels ; - at least one headlight fixed to the front part ; - at least one rear light fixed to the tail part ; wherein said saddle riding type vehicle further comprises an auxiliary lighting device fixed to the main body and adapted to be electrically controlled in order to be activated and deactivated, wherein the auxiliary lighting device is arranged and oriented so that, when activated, it lights said feet platform , wherein said vehicle comprises a fuel tank filler and/or an electrical recharge socket and wherein said auxiliary lighting device is adapted and configured to light said fuel tank filler and/or said electrical recharge socket ; wherein the auxiliary lighting device is mounted on a front shield , being in a position substantially cantilevered with respect to the line of said front shield of the saddle riding type vehicle. - a main body extending along a longitudinal axis (L-L) and having a front part , a tail part and a central part comprised between the front part and the tail part , wherein the central part comprises a feet platform for supporting a driver's feet; - at least a front wheel and at least a rear wheel ; - an engine operatively connected to at least one of said wheels ; - at least one headlight fixed to the front part ; - at least one rear light fixed to the tail part ; wherein said saddle riding type vehicle further comprises an auxiliary lighting device fixed to the main body and adapted to be electrically controlled in order to be activated and deactivated, wherein the auxiliary lighting device is arranged and oriented so that, when activated, it lights said feet platform , wherein said vehicle comprises a fuel tank filler and/or an electrical recharge socket and wherein said auxiliary lighting device is adapted and configured to light said fuel tank filler and/or said electrical recharge socket ; wherein the auxiliary lighting device is mounted on a front shield , being in a position substantially cantilevered with respect to the line of said front shield of the saddle riding type vehicle.
An egress seal fitting (200; 300) for a bulkhead penetration (208; 308), comprising: a housing (202; 302; 400), wherein the housing (202; 302; 400) comprises an annular cylindrical structure extending between a flanged portion and a base portion (216; 402) ; a driver (204; 304) configured to couple to the housing (202; 302; 400), wherein the driver (204; 304) comprises an annular cylindrical drive portion and a head , wherein the driver (204; 304) is configured to_define a driver cavity (218; 318) within the housing (202; 302; 400); and a seal member (228; 328) configured to be disposed within the driver cavity (218; 318) of the housing (202; 302; 400), wherein the driver (204; 304) is configured to pass a penetrating member (210; 310) through the housing (202; 302; 400) and apply pressure to the seal member (228; 328), characterised in that the housing (202; 302; 400) is separated into a first housing half (202'; 302') and a second housing half (202"), wherein the driver (204; 304) is divided into a first driver half (204'; 304') and a second driver half (204"). a housing (202; 302; 400), wherein the housing (202; 302; 400) comprises an annular cylindrical structure extending between a flanged portion and a base portion (216; 402) ; a driver (204; 304) configured to couple to the housing (202; 302; 400), wherein the driver (204; 304) comprises an annular cylindrical drive portion and a head , wherein the driver (204; 304) is configured to_define a driver cavity (218; 318) within the housing (202; 302; 400); and a seal member (228; 328) configured to be disposed within the driver cavity (218; 318) of the housing (202; 302; 400), wherein the driver (204; 304) is configured to pass a penetrating member (210; 310) through the housing (202; 302; 400) and apply pressure to the seal member (228; 328), characterised in that the housing (202; 302; 400) is separated into a first housing half (202'; 302') and a second housing half (202"), wherein the driver (204; 304) is divided into a first driver half (204'; 304') and a second driver half (204").
A method for generating a gaseous mixture by means of an apparatus comprising at least two inputs, of which the first is an input for a carrier gas (IN1) and the second is an input for a pollutant (IN2, IN3) and at least one gas output (OUT MEL), a system of solenoid valves (E3, E4, E6, E21, E22, E23, E24, E25, E31, E32, E33, E34, E35), a microfluidic circuit (CMF) and a mixing cell (C MEL), the microfluidic circuit comprising a sub-circuit (SC) that can be isolated or connected with the mixing cell by means of the system of solenoid valves, characterised in that it comprises the following steps of: a) cleaning the microfluidic circuit by pure air received on the first input; b) forming a first air stream (TRAIN1) with a gas received on the first input of the apparatus, sending this first air stream to the mixing cell and adding a pollutant in the sub-circuit isolated from the mixing cell from at least one pollutant received on the second input of the apparatus; c) opening the sub-circuit by the system of solenoid valves, so that the sub-circuit is linked to the first input of the apparatus supplied with gas and to the input (IN_MEL) of the mixing cell, the opening of the sub-circuit causing a second air stream (TRAIN2) to be sent to the mixing cell; steps b) and c) being repeated until the desired quantity of gaseous mixture is obtained at the output (OUT_MEL) of the mixing cell. a) cleaning the microfluidic circuit by pure air received on the first input; b) forming a first air stream (TRAIN1) with a gas received on the first input of the apparatus, sending this first air stream to the mixing cell and adding a pollutant in the sub-circuit isolated from the mixing cell from at least one pollutant received on the second input of the apparatus; c) opening the sub-circuit by the system of solenoid valves, so that the sub-circuit is linked to the first input of the apparatus supplied with gas and to the input (IN_MEL) of the mixing cell, the opening of the sub-circuit causing a second air stream (TRAIN2) to be sent to the mixing cell; steps b) and c) being repeated until the desired quantity of gaseous mixture is obtained at the output (OUT_MEL) of the mixing cell.
Ultrasonic transducer comprising: - at least one piezoelectric wafer having two parallel planar main faces: a front face and a posterior face , - at least one posterior plate having two parallel planar main faces: an anterior face and a rear face , the anterior face of said posterior plate extending facing, and in contact with, the posterior face of the piezoelectric wafer , - the posterior plate has a thickness between three and seven times the thickness of the piezoelectric wafer, characterised in that : - the posterior plate has an acoustic impedance between 10 MPa.s.m -1 and 35 MPa.s.m -1 . - at least one piezoelectric wafer having two parallel planar main faces: a front face and a posterior face , - at least one posterior plate having two parallel planar main faces: an anterior face and a rear face , the anterior face of said posterior plate extending facing, and in contact with, the posterior face of the piezoelectric wafer , - the posterior plate has a thickness between three and seven times the thickness of the piezoelectric wafer, - the posterior plate has an acoustic impedance between 10 MPa.s.m -1 and 35 MPa.s.m -1 .
An in-ear stimulation device for administering caloric stimulation to the ear canal of a subject during a treatment session, comprising: (a) first and second earpieces configured to be insertable into the ear canals of the subject; (b) at least first and second thermoelectric devices thermally coupled to respective ones of the first and second earpieces ; (c) a first heat sink thermally coupled to the first thermoelectric device opposite the first earpiece and a second heat sink thermally coupled to the second thermoelectric device opposite the second earpiece; and (d) a controller comprising a waveform generator in communication with the first and second thermoelectric devices , the waveform generator configured to generate a first control signal to control a first caloric output to the first thermoelectric device and a second control signal to control a second caloric output to the second thermoelectric device; wherein the first and second caloric outputs are actively controlled time-varying waveforms such that an intensity of the first and second caloric outputs is repeatedly adjusted throughout the treatment session in response to active feedback from a first and second temperature sensor mounted on the first and second earpieces , respectively, so that drift of the thermal stimulus from what is intended for delivery which would otherwise occur due to patient contact is minimized. (a) first and second earpieces configured to be insertable into the ear canals of the subject; (b) at least first and second thermoelectric devices thermally coupled to respective ones of the first and second earpieces ; (c) a first heat sink thermally coupled to the first thermoelectric device opposite the first earpiece and a second heat sink thermally coupled to the second thermoelectric device opposite the second earpiece; and (d) a controller comprising a waveform generator in communication with the first and second thermoelectric devices , the waveform generator configured to generate a first control signal to control a first caloric output to the first thermoelectric device and a second control signal to control a second caloric output to the second thermoelectric device;
Woven fabric, particularly a warp faced fabric, such as a denim fabric, comprising: a front and a back , a plurality of picks extending in weft direction (H) and a plurality of warp yarns extending in warp direction (V) and bypassing picks at their front side to define over portions and bypassing picks at their back side to define under portions , wherein said plurality of warp yarns comprise frontside warp yarns and backside warp yarns , said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns , wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between over portions between which said loose loop under portion extend, characterized in that at least one of the plurality of backside warp yarns is thinner than at least one of the plurality of frontside warp yarns . a front and a back , a plurality of picks extending in weft direction (H) and a plurality of warp yarns extending in warp direction (V) and bypassing picks at their front side to define over portions and bypassing picks at their back side to define under portions , wherein said plurality of warp yarns comprise frontside warp yarns and backside warp yarns , said frontside warp yarns and said backside warp yarns being designed and/or woven such that under portions of the backside warp yarns form loose loops extending looser than the under portions of said frontside warp yarns , wherein a loose loop can be identified in a woven fabric in that the length of the backside warp yarn forming the under portion is larger than the distance between over portions between which said loose loop under portion extend, characterized in that at least one of the plurality of backside warp yarns is thinner than at least one of the plurality of frontside warp yarns .
An electronic apparatus comprising: a processor configured to: obtain a content to be pre-fetched among a plurality of contents , obtain a resource from among a plurality of resources (711-713, 721-722, 731) available in the electronic apparatus , form a pipeline in which the obtained content is to be processed before the obtained content is selected by a user, by using the obtained resource and a fake renderer , the pipeline including a demultiplexer, an image decoder configured to perform image decoding on the data obtained from the demultiplexer, and a fake renderer, wherein the fake renderer is a software module used to configure the pipeline until an appropriate hardware renderer becomes available to replace the fake renderer to process the obtained content , characterized in that the image decoder included in the pipeline starts to perform the image decoding operation on the obtained content before the fake renderer is replaced by the hardware renderer, and wherein the processor identifies that there are insufficient hardware renderers to form the pipeline which processes the obtained content , and allocates the fake renderer to the obtained content to form the pipeline in response to there being insufficient hardware renderers to form the pipeline . obtain a content to be pre-fetched among a plurality of contents , obtain a resource from among a plurality of resources (711-713, 721-722, 731) available in the electronic apparatus , form a pipeline in which the obtained content is to be processed before the obtained content is selected by a user, by using the obtained resource and a fake renderer , the pipeline including a demultiplexer, an image decoder configured to perform image decoding on the data obtained from the demultiplexer, and a fake renderer, wherein the fake renderer is a software module used to configure the pipeline until an appropriate hardware renderer becomes available to replace the fake renderer to process the obtained content , characterized in that the image decoder included in the pipeline starts to perform the image decoding operation on the obtained content before the fake renderer is replaced by the hardware renderer, and wherein the processor identifies that there are insufficient hardware renderers to form the pipeline which processes the obtained content , and allocates the fake renderer to the obtained content to form the pipeline in response to there being insufficient hardware renderers to form the pipeline .
An injector or applicator for dispensing a liquid or pasty drug, comprising a housing portion , a piston body supported therein in a longitudinally-displaceable manner, and a closing cap with a cap portion for closing the opening of the injector or applicator and with a connecting portion for connecting the closing cap with the housing portion , the cap portion and the connecting portion being releasably connected by a tear edge , wherein the housing portion comprises an undercut and in that the piston body comprises a protrusion, which are adjusted to one another in such a way that the piston body or a part thereof are retained at the undercut when trying to withdraw the same from the housing portion , characterized in that the piston body comprises a plunger and a piston which is releasably connected with the plunger .