mhurhangee/ep-ind-claims huggingface dataset:
A retroreflective traffic sign consisting of: a polymeric film having a front face and a rear face; said rear face having a pattern of microprismatic retroreflective elements integrally formed as part of said film, a pattern of cell walls formed of an adhesive-containing polymer defining cells in which the microprismatic retroreflective elements are in the cells, and a substrate is adhered directly to the cell walls formed of the adhesive-containing polymer while leaving an air gap between the microprismatic retroreflective elements and the substrate in the cells. a polymeric film having a front face and a rear face; said rear face having a pattern of microprismatic retroreflective elements integrally formed as part of said film, a pattern of cell walls formed of an adhesive-containing polymer defining cells in which the microprismatic retroreflective elements are in the cells, and a substrate is adhered directly to the cell walls formed of the adhesive-containing polymer while leaving an air gap between the microprismatic retroreflective elements and the substrate in the cells.
Plastics molding, composed of a. a transparent plastic and b. a mixture composed of UV stabilizers and UV absorbers, characterized in that the transparent plastic is a poly(meth)acrylate, the constitution of which is as follows: c. from 50% by weight to 99.9% by weight of methyl methacrylate, d. from 0.1% by weight to 50% by weight of C 1 -C 4 acrylate, e. from 0% by weight to 10% by weight of monomers copolymerizable with the monomers a. and b., and in that the matrix has an average molar mass of from 80 000 g/mol to 180 000 g/mol. a. a transparent plastic and b. a mixture composed of UV stabilizers and UV absorbers, c. from 50% by weight to 99.9% by weight of methyl methacrylate, d. from 0.1% by weight to 50% by weight of C 1 -C 4 acrylate, e. from 0% by weight to 10% by weight of monomers copolymerizable with the monomers a. and b.,
Pneumatic spring module (10, 50) having a pneumatic spring and a shock absorber for springing and damping vibrations of a motor vehicle running gear, wherein the pneumatic spring has a rolling bellows which is fastened to a pneumatic spring cover and a roll-off piston having a piston lower part, wherein the rolling bellows at least partially delimits a first working chamber filled with compressed air, wherein provided in the roll-off piston are at least two working chambers (20, 21; 57, 58), which are mutually separated by a divider wall (37, 38; 59, 60) and are connectable to the first working chamber by way of switchable valves (28, 29) disposed in the roll-off piston, wherein the roll-off piston has at least two working chambers (20, 21; 57, 58) which are disposed next to one another, characterized in that in the piston lower part a plurality of working chambers (57a, 57b, 57c, 58) are separated by additional vertical divider walls (59, 60, 61, 62) that are disposed so as to be offset in the circumferential direction and are in each case able to be switched on by means of an assigned valve (28, 29).
A method for use by a mobile communication device in facilitating voice calls through one of a wireless local area network "WLAN" or a wireless wide area network "WWAN", the method comprising: when switching communication operations from the WLAN to the WWAN: transmitting through the WLAN, and to a location server in the WLAN, a message for forwarding voice calls to a WWAN identification number of the mobile communication device; transmitting, to the WWAN, a message for cancelling the forwarding of voice calls to a WLAN identification number of the mobile communication device; and in response to detecting a predetermined condition comprising an abrupt WLAN coverage loss where the mobile communication device fails to adequately send the message for forwarding the voice calls to the WWAN identification number: transmitting, through the WWAN, and to the location server in the WLAN, the message for forwarding voice calls to the WWAN identification number using a packet data service of the WWAN. when switching communication operations from the WLAN to the WWAN: transmitting through the WLAN, and to a location server in the WLAN, a message for forwarding voice calls to a WWAN identification number of the mobile communication device; transmitting, to the WWAN, a message for cancelling the forwarding of voice calls to a WLAN identification number of the mobile communication device; and in response to detecting a predetermined condition comprising an abrupt WLAN coverage loss where the mobile communication device fails to adequately send the message for forwarding the voice calls to the WWAN identification number: transmitting, through the WWAN, and to the location server in the WLAN, the message for forwarding voice calls to the WWAN identification number using a packet data service of the WWAN. transmitting through the WLAN, and to a location server in the WLAN, a message for forwarding voice calls to a WWAN identification number of the mobile communication device; transmitting, to the WWAN, a message for cancelling the forwarding of voice calls to a WLAN identification number of the mobile communication device; and in response to detecting a predetermined condition comprising an abrupt WLAN coverage loss where the mobile communication device fails to adequately send the message for forwarding the voice calls to the WWAN identification number: transmitting, through the WWAN, and to the location server in the WLAN, the message for forwarding voice calls to the WWAN identification number using a packet data service of the WWAN.
Panel dividing system comprising a cutting saw with a sawing tool, comprising an automatic detection device which can detect at least one parameter on a machined workpiece that characterizes a sawing groove or sawing joint produced by the sawing tool, and which provides signals corresponding to the detected parameter to an open-loop and/or closed-loop controller, and comprising a feed apparatus which is controlled by the open-loop and/or closed-loop controller and feeds the workpiece to the cutting saw, characterized in that the open-loop and/or closed-loop controller is designed such that when the feed apparatus is controlled, the controller takes into account the parameter detected by the detection device that characterizes a sawing groove or sawing joint previously produced by the sawing tool.
Drive device for a vehicle flap, comprising an electric motor (2, 102, 202) for driving the vehicle flap, a supply circuit (3, 103, 203), comprising a first voltage source (9, 109, 209) for supplying power to the electric motor, a first electrical lead (4; 104; 204) and a second electrical lead (5; 105; 205), the first voltage source (9; 109; 209) being arranged between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), a control circuit (12; 112; 212), comprising a logic unit (15; 115; 215), a second voltage source and a switch control device (13; 113; 213), wherein a switching element (10; 110; 210) and a diode (11; 111; 211) are connected between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), wherein the switching element (10; 110; 210) and the diode (11; 111; 211) are connected in series and the switching element (10, 110) is coupled to the switch control device (13, 113, 213), and wherein the switch control device (13; 113; 213) provides a control voltage for switching the switching element (10; 110; 210), characterized in that the logic unit and the switch control device are connected in parallel and in that the second voltage source (14, 114, 214) supplies the logic unit (15, 115, 215) and the switch control device with power. an electric motor (2, 102, 202) for driving the vehicle flap, a supply circuit (3, 103, 203), comprising a first voltage source (9, 109, 209) for supplying power to the electric motor, a first electrical lead (4; 104; 204) and a second electrical lead (5; 105; 205), the first voltage source (9; 109; 209) being arranged between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), a control circuit (12; 112; 212), comprising a logic unit (15; 115; 215), a second voltage source and a switch control device (13; 113; 213), wherein a switching element (10; 110; 210) and a diode (11; 111; 211) are connected between the first electrical lead (4; 104; 204) and the second electrical lead (5; 105; 205), wherein the switching element (10; 110; 210) and the diode (11; 111; 211) are connected in series and the switching element (10, 110) is coupled to the switch control device (13, 113, 213), and wherein the switch control device (13; 113; 213) provides a control voltage for switching the switching element (10; 110; 210), characterized in that the logic unit and the switch control device are connected in parallel and in that the second voltage source (14, 114, 214) supplies the logic unit (15, 115, 215) and the switch control device with power.
A vacuum cleaner filter bag with a bag wall made of filter material that has a through passage through which air to be cleaned can flow into the vacuum cleaner filter bag, in which the bag wall consists of at least partially pleated nonwoven material, and the vacuum cleaner filter bag is configured as a flat bag in such a way that the bag wall comprises a first and a second filter material layer that are connected to each other by means of a peripheral weld seam, wherein the first and / or the second filter material layer consists of at least partially pleated nonwoven material.
A component for a gas turbine engine, comprising: a body portion; a cooling circuit disposed within said body portion and including at least a first cavity, a core in fluid communication with said first cavity, and an exit surface that extends through an exterior surface of said body portion; and a plurality of surface indicators for indicating whether the component is within an acceptable manufacturing tolerance visible near said exit surface; characterised in that: a first portion of said plurality of surface indicators are located at a leading edge of a discharge opening of said exit surface and a second portion of said plurality of surface indicators are located at a trailing edge of said discharge opening. a body portion; a cooling circuit disposed within said body portion and including at least a first cavity, a core in fluid communication with said first cavity, and an exit surface that extends through an exterior surface of said body portion; and a plurality of surface indicators for indicating whether the component is within an acceptable manufacturing tolerance visible near said exit surface; characterised in that: a first portion of said plurality of surface indicators are located at a leading edge of a discharge opening of said exit surface and a second portion of said plurality of surface indicators are located at a trailing edge of said discharge opening.
A process for preparing -5-bromo-4-(3-amino)piperidin-1-yl)-3-(cyclopropanecarboxamido)-1 H -pyrrolo[2,3- b]pyridine of Formula: comprising the step of reacting a compound of Formula: wherein X is I, Cl, or Br, with a compound of Formula: wherein R is an amino protecting group, to provide a compound of Formula:
Sealing device for bottles and containers, comprising a teat which can be coupled to the neck of a bottle and a closing cap comprising a body, a lid which can be folded back to allow access to the teat and an anchor seal, wherein the device is characterised in that an insert is over-injected on the lid, made from a more flexible material than that of the cap, said insert joining the body to the lid and forming a hinge area and in that the cap comprises a first cut which encompasses the entire perimeter of the cap, with the exception of the hinge area, where said first cut defines a fine for folding back and opening the lid in relation to the body; and a plurality of first connection points disposed within the area of the first cut consisting of small projections formed in the inner wall of the cap which keep the lid and body joined together until aperture by folding back of said lid.
A method of processing a speech signal, said method comprising: generating a sequence of spectral tilt values that is based on a plurality of inactive frames of the speech signal, wherein each of the spectral tilt values is based on at least one reflection coefficient of a corresponding inactive frame of the speech signal; calculating a change among at least two values of the sequence of reflection coefficient based spectral tilt values; for an inactive frame among the plurality of inactive frames, deciding whether to transmit a silence insertion descriptor, SID, frame; and wherein said deciding whether to transmit the silence insertion descriptor, SID, frame is based on the calculated change. generating a sequence of spectral tilt values that is based on a plurality of inactive frames of the speech signal, wherein each of the spectral tilt values is based on at least one reflection coefficient of a corresponding inactive frame of the speech signal; calculating a change among at least two values of the sequence of reflection coefficient based spectral tilt values; for an inactive frame among the plurality of inactive frames, deciding whether to transmit a silence insertion descriptor, SID, frame; and wherein said deciding whether to transmit the silence insertion descriptor, SID, frame is based on the calculated change.
A fluorine-containing ether monocarboxylic acid aminoalkyl ester represented by the general formula: C n F 2n+1 O[CF(CF 3)CF 2 O] a CF(CF 3)COO(CH 2) b NR 1 R 2 wherein R 1 is a hydrogen atom, an alkyl group having 1 to 12 carbon atoms, an aryl group, or an aralkyl group; R 2 is an alkyl group having 1 to 12 carbon atoms, an aryl group, or an aralkyl group; n is an integer of 1 to 3; a is an integer of 4 to 10; and b is an integer of 1 to 12.
A polyolefin composition comprising: 5-35% by weight of a propylene-based polymer containing 90% by weight or more of propylene units and containing 10% by weight or less of a fraction soluble in xylene at 25°C (XS A), both the amount of propylene units and of the fraction XS A being referred to the weight of; 25-50% by weight, of a copolymer of ethylene and a C 3 -C 8 alpha-olefin containing from 0.1% to 20% by weight of alpha-olefin units and containing 75% by weight or less of a fraction soluble in xylene at 25°C (XS B), both the amount of ethylene units and of the fraction XS B being referred to the weight of; and 30-60% by weight, of a copolymer of ethylene and propylene containing from 25% to 75% by weight of ethylene units and containing from 55% to 95% by weight, of a fraction soluble in xylene at 25°C (XS C), both the amount of ethylene units and of the fraction XS C being referred to the weight of; the amounts of, and being referred to the total weight of + +, wherein the composition has 20% by weight or less of a fraction obtained in the second fractionation step (fraction 2) in the preparative fractionation method as described herein. 5-35% by weight of a propylene-based polymer containing 90% by weight or more of propylene units and containing 10% by weight or less of a fraction soluble in xylene at 25°C (XS A), both the amount of propylene units and of the fraction XS A being referred to the weight of; 25-50% by weight, of a copolymer of ethylene and a C 3 -C 8 alpha-olefin containing from 0.1% to 20% by weight of alpha-olefin units and containing 75% by weight or less of a fraction soluble in xylene at 25°C (XS B), both the amount of ethylene units and of the fraction XS B being referred to the weight of; and 30-60% by weight, of a copolymer of ethylene and propylene containing from 25% to 75% by weight of ethylene units and containing from 55% to 95% by weight, of a fraction soluble in xylene at 25°C (XS C), both the amount of ethylene units and of the fraction XS C being referred to the weight of;
A canvas pool comprising a sidewall and an edge, wherein the canvas pool comprises a continuous inflatable tube of the type that forms an inflatable upper edge of flexible material of said canvas pool, wherein the continuous inflatable tube is a substantially cylindrical continuous and whole strip, without seams or seals, openings or outline cuttings, and wherein the tube comprises at least one inflating valve, characterized in that the continuous inflatable tube comprises a lower continuous longitudinal flange which is welded in a sole welding line to the edge of the canvas pool, wherein said tube's material has an UV protector against ultraviolet rays, high impact to resist possible punctures and comprises an anti-tack to prevent the sides of the tube from sticking naturally when rolled up.
A fuel cell system comprising: a hydro-desulfurizer configured to remove sulfur compounds in power generation material; a fuel cell unit configured to generate electric power using the power generation material and discharge exhaust gas; a recycle channel configured to supply a part of hydrogen-containing gas from the fuel cell unit to a power generation material channel before the power generation material enters the hydro-desulfurizer; and an ejector which is provided in the power generation material channel upstream of the hydro-desulfurizer and into which the hydrogen-containing gas from the recycle channel flows, characterized in that the fuel cell system further comprising: a first container that houses the fuel cell unit; and a second container that houses the ejector, wherein the second container has an inlet port through which the exhaust gas from the fuel cell unit discharged from the first container enters the second container and an outlet port through which exhaust gas exits the second container, and the ejector is arranged to be heated by the exhaust gas flowing between the inlet port and the outlet port. a hydro-desulfurizer configured to remove sulfur compounds in power generation material; a fuel cell unit configured to generate electric power using the power generation material and discharge exhaust gas; a recycle channel configured to supply a part of hydrogen-containing gas from the fuel cell unit to a power generation material channel before the power generation material enters the hydro-desulfurizer; and an ejector which is provided in the power generation material channel upstream of the hydro-desulfurizer and into which the hydrogen-containing gas from the recycle channel flows, characterized in that the fuel cell system further comprising: a first container that houses the fuel cell unit; and a second container that houses the ejector, wherein the second container has an inlet port through which the exhaust gas from the fuel cell unit discharged from the first container enters the second container and an outlet port through which exhaust gas exits the second container, and the ejector is arranged to be heated by the exhaust gas flowing between the inlet port and the outlet port. a first container that houses the fuel cell unit; and a second container that houses the ejector, wherein the second container has an inlet port through which the exhaust gas from the fuel cell unit discharged from the first container enters the second container and an outlet port through which exhaust gas exits the second container, and the ejector is arranged to be heated by the exhaust gas flowing between the inlet port and the outlet port.
A sous vide device including: an outer housing (104, 400); an inner wall located within the housing and enclosing a space; an inner tubular wall located in the space and enclosing a first duct, with a second duct being located between the inner wall and the inner tubular wall, with the first duct having a liquid inlet, and the second duct having a liquid outlet adjacent the liquid inlet, with the first duct being connected to the second duct at a position spaced from the inlet and outlet so as to provide a liquid flow path extending from the inlet to the outlet; rotatably driven vanes associated with the liquid flow path to cause liquid to flow from the inlet to the outlet; a motor (208, 410) drivingly connected to the vanes to cause rotation thereof; and a heater (201, 440) operatively associated with the liquid flow path to heat the liquid passing therealong. an outer housing (104, 400); an inner wall located within the housing and enclosing a space; an inner tubular wall located in the space and enclosing a first duct, with a second duct being located between the inner wall and the inner tubular wall, with the first duct having a liquid inlet, and the second duct having a liquid outlet adjacent the liquid inlet, with the first duct being connected to the second duct at a position spaced from the inlet and outlet so as to provide a liquid flow path extending from the inlet to the outlet; rotatably driven vanes associated with the liquid flow path to cause liquid to flow from the inlet to the outlet; a motor (208, 410) drivingly connected to the vanes to cause rotation thereof; and a heater (201, 440) operatively associated with the liquid flow path to heat the liquid passing therealong.
An upper for an article of footwear, the upper comprising: a first knit layer; a second knit layer; a third layer located between the first knit layer and the second knit layer, the third layer including a first meltable material with a melting point of 150°C or less, wherein the first knit layer and the second knit layer are secured via the material of the third layer; a first zone, wherein the first knit layer, the second knit layer, and the third layer are coextensive in the first zone; and a second zone, wherein the first knit layer, the second knit layer, and the third layer are coextensive in the second zone, and wherein less of the material of the third layer, by mass per unit surface area, is located in the second zone than in the first zone, wherein the first zone has a first stretch resistance, wherein the second zone has a second stretch resistance, and wherein the first stretch resistance is greater than the second stretch resistance, the upper further comprising a support member located between the first knit layer and the second knit layer, the support member configured to limit the stretch resistance at least in a third zone, characterized in that the support member includes a second meltable material with a melting point different than the material of the third layer, and wherein the support member is secured to at least one of the first knit layer and the second knit layer via the second meltable material. a first knit layer; a second knit layer; a third layer located between the first knit layer and the second knit layer, the third layer including a first meltable material with a melting point of 150°C or less, wherein the first knit layer and the second knit layer are secured via the material of the third layer; a first zone, wherein the first knit layer, the second knit layer, and the third layer are coextensive in the first zone; and a second zone, wherein the first knit layer, the second knit layer, and the third layer are coextensive in the second zone, and wherein less of the material of the third layer, by mass per unit surface area, is located in the second zone than in the first zone, wherein the first zone has a first stretch resistance, wherein the second zone has a second stretch resistance, and wherein the first stretch resistance is greater than the second stretch resistance, the upper further comprising a support member located between the first knit layer and the second knit layer, the support member configured to limit the stretch resistance at least in a third zone, characterized in that the support member includes a second meltable material with a melting point different than the material of the third layer, and wherein the support member is secured to at least one of the first knit layer and the second knit layer via the second meltable material.