mhurhangee/patent-ind-claim-en huggingface dataset:
A catheter simulator comprising: a container filled with a liquid; an elastic heart model installed in the container in a state of having the container filled with a liquid, the heart model being provided with coronary arteries and an aorta ; and a pump connected to an apex section of the heart model and producing a pulsatile flow being passed inside the main body from the apex section to the aorta by means of the liquid. a container filled with a liquid; an elastic heart model installed in the container in a state of having the container filled with a liquid, the heart model being provided with coronary arteries and an aorta ; and a pump connected to an apex section of the heart model and producing a pulsatile flow being passed inside the main body from the apex section to the aorta by means of the liquid.
A liquid detergent composition comprising: (a) an aqueous medium; (b) about 5 wt% to about 45 wt% of a surfactant system; (c) about 0.1 wt% to about 10 wt% of a builder component; (d) about 0.01 wt% to about 1 wt% of an external structuring agent, comprising particulate cellulose material containing, by dry weight, at least 60 % cellulose, 0.5-10 % pectin and 1-15 % hemicellulose, and has a volume-weighted median particle dimension within the range of 25-75 μm, as measured by laser light diffractometry; and (e) another ingredient selected from enzymes, foam stabilizers, colorants, colorant stabilizers, fragrances, anti-redeposition polymers, pH adjusting agents, pearlescers, opacifiers, viscosity modifiers, preservatives, and natural hair nutrients. (a) an aqueous medium; (b) about 5 wt% to about 45 wt% of a surfactant system; (c) about 0.1 wt% to about 10 wt% of a builder component; (d) about 0.01 wt% to about 1 wt% of an external structuring agent, comprising particulate cellulose material containing, by dry weight, at least 60 % cellulose, 0.5-10 % pectin and 1-15 % hemicellulose, and has a volume-weighted median particle dimension within the range of 25-75 μm, as measured by laser light diffractometry; and (e) another ingredient selected from enzymes, foam stabilizers, colorants, colorant stabilizers, fragrances, anti-redeposition polymers, pH adjusting agents, pearlescers, opacifiers, viscosity modifiers, preservatives, and natural hair nutrients.
Teeth cleaning device for the simultaneous cleaning of all of the teeth of a user, comprising: a) a mouth insert for insertion into the mouth of the user; b) a plurality of cleaning structures , which are attached to the mouth insert or constructed in one piece with the mouth insert ; c) a coupling element (16; 16A, 16B) attached to the mouth insert ; and d) a drive device , having: - a vibration motor (20; 20A, 20B), which can be connected to the coupling element (16; 16A, 16B) in such a manner that the vibration motor vibrates the mouth insert (10; 10A, 10B) during the operation of the teeth cleaning device, and - a cleaning program selection element for selecting a cleaning program, which defines a vibration frequency of the vibration motor (20; 20A, 20B) within a predetermined frequency range and/or a vibration amplitude of the vibration motor (20; 20A, 20B) within a predetermined amplitude range; characterized in that the mouth insert is constructed in two pieces, having an upper mouth insert element for the teeth of the upper jaw and a lower mouth insert element for the teeth of the lower jaw, wherein a coupling element for connection to a respective assigned vibration motor is respectively attached to the upper and the lower mouth insert elements ; and in that the cleaning program selection element is designed to select a first predefined cleaning program for the upper mouth insert element and to select a second predefined cleaning program for the lower mouth insert element , from a memory of a control circuit of the drive device . a) a mouth insert for insertion into the mouth of the user; b) a plurality of cleaning structures , which are attached to the mouth insert or constructed in one piece with the mouth insert ; c) a coupling element (16; 16A, 16B) attached to the mouth insert ; and d) a drive device , having: - a vibration motor (20; 20A, 20B), which can be connected to the coupling element (16; 16A, 16B) in such a manner that the vibration motor vibrates the mouth insert (10; 10A, 10B) during the operation of the teeth cleaning device, and - a cleaning program selection element for selecting a cleaning program, which defines a vibration frequency of the vibration motor (20; 20A, 20B) within a predetermined frequency range and/or a vibration amplitude of the vibration motor (20; 20A, 20B) within a predetermined amplitude range; characterized in that - a vibration motor (20; 20A, 20B), which can be connected to the coupling element (16; 16A, 16B) in such a manner that the vibration motor vibrates the mouth insert (10; 10A, 10B) during the operation of the teeth cleaning device, and - a cleaning program selection element for selecting a cleaning program, which defines a vibration frequency of the vibration motor (20; 20A, 20B) within a predetermined frequency range and/or a vibration amplitude of the vibration motor (20; 20A, 20B) within a predetermined amplitude range; characterized in that
Method for forming an electrical contacting between a first superconducting strip conductor and a further electrical conductor element , - wherein the first superconducting strip conductor , in a contact region of the strip conductor , is brought into areal contact with a first main surface of a reactive multilayer film , - wherein the second main surface of the reactive multilayer film , facing away from the first main surface , is brought into areal contact with the further electrical conductor element , - wherein an electrically conductive connection layer and a permanent electrically conductive connection between the first superconducting strip conductor and the further electrical conductor element is formed from the materials of the multilayer film by subsequently triggering an exothermic chemical reaction in the multilayer film and by pressing the first superconducting strip conductor and the further electrical conductor element against one another with a pressing pressure (P) during the triggering. - wherein the first superconducting strip conductor , in a contact region of the strip conductor , is brought into areal contact with a first main surface of a reactive multilayer film , - wherein the second main surface of the reactive multilayer film , facing away from the first main surface , is brought into areal contact with the further electrical conductor element , - wherein an electrically conductive connection layer and a permanent electrically conductive connection between the first superconducting strip conductor and the further electrical conductor element is formed from the materials of the multilayer film by subsequently triggering an exothermic chemical reaction in the multilayer film and by pressing the first superconducting strip conductor and the further electrical conductor element against one another with a pressing pressure (P) during the triggering.
A first communication apparatus comprising: circuitry , which in operation, determines a first set of subframes available for a sidelink operation; and a transmitter , which in operation, transmits a sidelink signal in a subframe among the first set of subframes, wherein the first set of subframes is comprised of subframes within 10240 subframes except both of a second set of subframes and reserved subframes, the second set of subframes including subframes in which sidelink synchronization signal, SLSS, is configured, the reserved subframes being determined based on a length of a bitmap configured for resource pools of the sidelink operation, characterized in that a number of the reserved subframes within the 10240 subframes is determined by a following formula: Y = X mod the length of the bitmap , where X=10240 - (a number of the second set of subframes), and the reserved subframes are set per n subframes to subframes except the second set of subframes within the 10240 subframes, the n subframes not containing the second set, n being determined by a following formula: n = FLOOR X / Y where FLOOR is the operation of round down to the nearest integer, wherein, the second set of subframes includes at least one of downlink subframes and special subframes in TDD. circuitry , which in operation, determines a first set of subframes available for a sidelink operation; and a transmitter , which in operation, transmits a sidelink signal in a subframe among the first set of subframes, wherein the first set of subframes is comprised of subframes within 10240 subframes except both of a second set of subframes and reserved subframes, the second set of subframes including subframes in which sidelink synchronization signal, SLSS, is configured, the reserved subframes being determined based on a length of a bitmap configured for resource pools of the sidelink operation, characterized in that a number of the reserved subframes within the 10240 subframes is determined by a following formula: Y = X mod the length of the bitmap , where X=10240 - (a number of the second set of subframes), and the reserved subframes are set per n subframes to subframes except the second set of subframes within the 10240 subframes, the n subframes not containing the second set, n being determined by a following formula: n = FLOOR X / Y where FLOOR is the operation of round down to the nearest integer, wherein, the second set of subframes includes at least one of downlink subframes and special subframes in TDD.
A process for making an aqueous dispersion of fluoropolymer particles, said fluoropolymer having no measureable ionic groups, or a limited number of ionic groups providing an ion exchange ratio of greater than 53 and being a melt-processible copolymer comprising at least 60-98 wt% tetrafluoroethylene units and 2-40 wt% of at least one other monomer, said melt-processible copolymer having a melt flow rate of about 1-100 g/10 min as measured according to ASTM D-1238 and a melt viscosity of at least 10 2 Pa·s measured at 372°C by the method of ASTM D-1238 modified as described in U.S. Patent 4,380,618, said process comprising: providing dispersed particulate of fluorinated ionomer in an aqueous polymerization medium, said fluorinated ionomer having a molecular weight which provides solid fluorinated ionomer particulate at room temperature, wherein the fluorinated ionomer has an ion exchange ratio of 3 to 53; polymerizing at least one fluorinated monomer in said aqueous polymerization medium in the presence of said dispersed particulate of fluorinated ionomer and initiator to form the aqueous dispersion of particles of fluoropolymer; and providing surfactant in said polymerization medium, said surfactant being selected from the group consisting of hydrocarbon surfactants, siloxane surfactants, and fluorosurfactants, wherein said fluorinated ionomer in thermoplastic form has a melt flow rate according to the method of ASTM D-1238-04c at 270°C with a 2110 gram weight of 1 to 500 g/10 min, and wherein said dispersed particulate of fluorinated ionomer has a weight average particle size of 2 nm to 100 nm measured by dynamic light scattering at 25°C using a Malvern Instruments Nano S, which measures scattered light from a HeNe laser at 633 nm at a scattered angle of 173°. providing dispersed particulate of fluorinated ionomer in an aqueous polymerization medium, said fluorinated ionomer having a molecular weight which provides solid fluorinated ionomer particulate at room temperature, wherein the fluorinated ionomer has an ion exchange ratio of 3 to 53; polymerizing at least one fluorinated monomer in said aqueous polymerization medium in the presence of said dispersed particulate of fluorinated ionomer and initiator to form the aqueous dispersion of particles of fluoropolymer; and providing surfactant in said polymerization medium, said surfactant being selected from the group consisting of hydrocarbon surfactants, siloxane surfactants, and fluorosurfactants, wherein said fluorinated ionomer in thermoplastic form has a melt flow rate according to the method of ASTM D-1238-04c at 270°C with a 2110 gram weight of 1 to 500 g/10 min, and
A method of dynamic adaptive streaming over HTTP, by a client device from a server device , media data, in which the server device receives live media data in a communication session that may be unreliable and may result in loss of at least some media data, the method comprising: receiving data for a first period of media content and a second period of the media content; characterized in that wherein the data for the first period indicates that at least some media data of the first period is not available and a duration from the first period within which no media data is available, and wherein the data for the second period indicates available media data for the second period; and based on the data for the first period and the second period, omitting requests, within the duration of the first period, for media data of the first period that the data for the first period indicates is not available and sending one or more requests for the media data of the second period. receiving data for a first period of media content and a second period of the media content; characterized in that wherein the data for the first period indicates that at least some media data of the first period is not available and a duration from the first period within which no media data is available, and wherein the data for the second period indicates available media data for the second period; and based on the data for the first period and the second period, omitting requests, within the duration of the first period, for media data of the first period that the data for the first period indicates is not available and sending one or more requests for the media data of the second period.
A vacuum insulating glazing unit extending along a plane, P, defined by a longitudinal axis, X, and a vertical axis, Z, and comprising: a. a first glass pane having an inner pane face and an outer pane face and having a thickness Z1, and b. a second glass pane having an inner pane face and an outer pane face and having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P ; c. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; d. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; e. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, and wherein the inner pane faces of the first and second glass panes face the internal volume, V; characterized in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); and in that at least one of the inner pane faces (12 and/or 22) of the first and second glass panes is provided with a pyrolytic transparent conductive oxide-based coating. a. a first glass pane having an inner pane face and an outer pane face and having a thickness Z1, and b. a second glass pane having an inner pane face and an outer pane face and having a thickness, Z2, wherein the thicknesses are measured in the direction normal to the plane, P ; c. a set of discrete spacers positioned between the first and second glass panes, maintaining a distance between the first and the second glass panes; d. a hermetically bonding seal sealing the distance between the first and second glass panes over a perimeter thereof; e. an internal volume, V, defined by the first and second glass panes and the set of discrete spacers and closed by the hermetically bonding seal and wherein there is a vacuum of absolute pressure of less than 0.1 mbar, and wherein the inner pane faces of the first and second glass panes face the internal volume, V; characterized in that a thickness ratio, Z1/Z2, of the thickness of the first glass pane, Z1, to the thickness of the second glass pane, Z2, is equal to or greater than 1.10 (Z1 / Z2 ≥ 1.10); and in that at least one of the inner pane faces (12 and/or 22) of the first and second glass panes is provided with a pyrolytic transparent conductive oxide-based coating.
Device for coating a pipe or portion of a pipe, which have an outer surface determined by the outer circumference of the pipe or portion of a pipe, which device comprises: - a moving device , which can rotate around the outer surface of the pipe or portion of a pipe; and - a coating nozzle , which is connected to a molten-polymer source to form a polymer film, which nozzle is attached to the device , which can rotate around the pipe; - a feed tube , which forms at least part of the feed route of the molten polymer from the source to the coating nozzle, characterized in that the feed tube comprises: - rigid tubes . and - connectors , which connectors comprise at least two connector parts (21; 24, 27) for connection to the rigid tubes of the feed tube and bearings fitted between the connector parts, which permits the connector parts (21; 24, 27) to rotate around their common longitudinal axis and keeps the connector parts (21; 24, 27) coaxial to each other so that a movement parallel to the longitudinal axis and rotation away from the longitudinal axis is prevented and the pressure in the feed tube cannot stress the bearings and thus stiffen or prevent the movement of the connector parts, and the feed tube is formed of - at least one rigid tube that is bent over at least part of its length to an angle to the direction of the longitudinal axis of a connector determined by the connector parts (21; 24, 27),and - several rigid tubes and connectors . - a moving device , which can rotate around the outer surface of the pipe or portion of a pipe; and - a coating nozzle , which is connected to a molten-polymer source to form a polymer film, which nozzle is attached to the device , which can rotate around the pipe; - a feed tube , which forms at least part of the feed route of the molten polymer from the source to the coating nozzle, - rigid tubes . and - connectors , which connectors comprise at least two connector parts (21; 24, 27) for connection to the rigid tubes of the feed tube and bearings fitted between the connector parts, which permits the connector parts (21; 24, 27) to rotate around their common longitudinal axis and keeps the connector parts (21; 24, 27) coaxial to each other so that a movement parallel to the longitudinal axis and rotation away from the longitudinal axis is prevented and the pressure in the feed tube cannot stress the bearings and thus stiffen or prevent the movement of the connector parts, and - at least one rigid tube that is bent over at least part of its length to an angle to the direction of the longitudinal axis of a connector determined by the connector parts (21; 24, 27),and - several rigid tubes and connectors .
A green glass composition comprising: 0.65-1.3 wt% of Fe 2 O 3 , 0.1-0.4 wt% of TiO 2 , and 0.05-0.20 wt% of SO 3 , based on 100 wt% of a soda lime mother glass composition, wherein an oxidation-reduction ratio of Fe 2 O 3 is 0.22 to 0.38, wherein each one of Cr, Ce and Co components has an amount of less than 0.001 wt%, based on 100wt% of the soda lime mother glass composition, wherein the glass shows, on the basis of a standard thickness of the glass of 3.2mm, visible light transmittance (Tvis) of 70% or more, solar heat radiation transmittance (Tds) of 55% or less, and ultraviolet ray transmittance (Tuv) of 45% or less. 0.65-1.3 wt% of Fe 2 O 3 , 0.1-0.4 wt% of TiO 2 , and 0.05-0.20 wt% of SO 3 , based on 100 wt% of a soda lime mother glass composition, wherein an oxidation-reduction ratio of Fe 2 O 3 is 0.22 to 0.38, wherein each one of Cr, Ce and Co components has an amount of less than 0.001 wt%, based on 100wt% of the soda lime mother glass composition, wherein the glass shows, on the basis of a standard thickness of the glass of 3.2mm, visible light transmittance (Tvis) of 70% or more, solar heat radiation transmittance (Tds) of 55% or less, and ultraviolet ray transmittance (Tuv) of 45% or less.
A system for erasing digital ink, comprising: a stylus having a tail end , wherein the tail end comprises an eraser antenna configured to emit an erase signal , and a cover that houses the eraser antenna; and a computing device having a touch-screen , the computing device further comprising: a signal strength meter , the signal strength meter configured to detect a strength of the erase signal , wherein a change in distance between the eraser antenna and the digitizing surface, during surface contact of the tail end of the stylus and the touch-screen, affects a change to the erase signal; and a microcontroller configured to: determine, based upon the strength of the erase signal , a tilt of the stylus ; and initiate an erase function, wherein at least one of a width, an area, or an opacity of the erase function is based at least in part upon the tilt of the stylus . a stylus having a tail end , wherein the tail end comprises an eraser antenna configured to emit an erase signal , and a cover that houses the eraser antenna; and a computing device having a touch-screen , the computing device further comprising: a signal strength meter , the signal strength meter configured to detect a strength of the erase signal , wherein a change in distance between the eraser antenna and the digitizing surface, during surface contact of the tail end of the stylus and the touch-screen, affects a change to the erase signal; and a microcontroller configured to: determine, based upon the strength of the erase signal , a tilt of the stylus ; and initiate an erase function, wherein at least one of a width, an area, or an opacity of the erase function is based at least in part upon the tilt of the stylus . a signal strength meter , the signal strength meter configured to detect a strength of the erase signal , wherein a change in distance between the eraser antenna and the digitizing surface, during surface contact of the tail end of the stylus and the touch-screen, affects a change to the erase signal; and a microcontroller configured to: determine, based upon the strength of the erase signal , a tilt of the stylus ; and initiate an erase function, wherein at least one of a width, an area, or an opacity of the erase function is based at least in part upon the tilt of the stylus . determine, based upon the strength of the erase signal , a tilt of the stylus ; and initiate an erase function, wherein at least one of a width, an area, or an opacity of the erase function is based at least in part upon the tilt of the stylus .