mhurhangee/patent-ind-claim-en huggingface dataset:
Process for unwinding from a reel a flexible textile or composite web or strip having a thickness of between 0.1 mm and 0.8 mm, a weight of between 15 g/m 2 and 50 g/m 2 , and for conveying the web or strip over a length of more than 30 m with a tensile force on the web or strip of less than 10 N and at a speed of more than 600 m/min, and for winding the web or strip around a reel or around a plurality of reels of web or strip of smaller width characterized in that it consists of unwinding and rewinding the web or strip via a plurality of pairs of rollers motorized and driven in rotation at identical speeds, each pair of rollers being mounted in a loading module , the modules being spaced apart from each other by a distance of between 1. 5 m and 3 m, each pair of rollers successively drives a first face of the web or strip by means of a first roller driven in rotation in one direction, and a second opposite face of the web or strip by means of a second roller driven in rotation in an opposite direction, so as to have no slippage between the web or strip and the rollers , the rollers of each pair of rolls are arranged so that the portion of the web or strip between the rollers forms an angle of between 50° and 80° with the plane (P) passing through the axes of revolution of the rollers , the rollers of each pair of rollers are arranged so that the length of the portion of the web or strip between the rollers is between 0. 2 to 2 times the diameter of the rollers .
A method performed by a base station (1q-01, 1q-03, 1q-05, 2m-01, 2m-02, 2m-03) in a wireless mobile communication system, the method comprising: identifying a service type of a terminal (1p-00, 1p-02, 1p-04; 2l-01, 2l-02, 2l-03), the terminal being associated with a first antenna port; determining a demodulation reference signal, DM-RS, pattern based on the identified service type from among a first DM-RS pattern and a second DM-RS pattern, the first DM-RS pattern using a first resource and the second DM-RS pattern using the first resource and a second resource; and transmitting, to the terminal, a downlink control channel and a DM-RS based on the determined DM-RS pattern, wherein in the first DM-RS pattern, the second resource is used for another terminal associated with a second antenna port and is not used for the terminal. identifying a service type of a terminal (1p-00, 1p-02, 1p-04; 2l-01, 2l-02, 2l-03), the terminal being associated with a first antenna port; determining a demodulation reference signal, DM-RS, pattern based on the identified service type from among a first DM-RS pattern and a second DM-RS pattern, the first DM-RS pattern using a first resource and the second DM-RS pattern using the first resource and a second resource; and transmitting, to the terminal, a downlink control channel and a DM-RS based on the determined DM-RS pattern, wherein in the first DM-RS pattern, the second resource is used for another terminal associated with a second antenna port and is not used for the terminal.
Wiper arm having a connection adapter on which a wiper blade , in particular a flat-bar wiper blade or joint-free wiper blade can be held and which has an opening for laterally receiving a pin of the wiper arm , wherein, when the pin is inserted, the connection adapter can rotate about the pin , and locking means for securing the pin in the opening , in particular a bridge which is arranged on the wiper arm parallel to the pin and by way of an angled end engages over the connection adapter , wherein the connection adapter has fluid connections for the supply of a cleaning fluid, characterized in that at least one fluid connection can be connected to the connection adapter by means of a fluid plug-type connector on the top side of the connection adapter .
A machine for hot marking parts of revolution , that machine comprising: - a heat punch , - first means for relative movement between the heat punch and a part along a first axis (Z6), - second means for bringing each part to be marked across from the punch, those means being able to rotate the part around its axis of revolution (A100), - third means for relative movement between the part and the punch along a second axis perpendicular to the first axis (Z6) and the axis of revolution (A100) of the part during the marking, - fourth means for relative movement between the part and the punch along a third axis (Y6) perpendicular to the second axis, and - means for bringing a marking ribbon between the part and the heat punch , characterized in that the machine further comprises: - fifth means for orienting a marking surface (S92) of the punch around a fourth axis (X92) parallel to the second axis and, in a complementary manner, to a contact generatrix (G100) of the part, the axis (A100) of revolution of the part being perpendicular to the first axis (Z6) during the marking, and - sixth means for rotating the punch around a fifth axis (Z96) perpendicular to the third (Y6) and fourth (X92) axes. - a heat punch , - first means for relative movement between the heat punch and a part along a first axis (Z6), - second means for bringing each part to be marked across from the punch, those means being able to rotate the part around its axis of revolution (A100), - third means for relative movement between the part and the punch along a second axis perpendicular to the first axis (Z6) and the axis of revolution (A100) of the part during the marking, - fourth means for relative movement between the part and the punch along a third axis (Y6) perpendicular to the second axis, and - means for bringing a marking ribbon between the part and the heat punch , - fifth means for orienting a marking surface (S92) of the punch around a fourth axis (X92) parallel to the second axis and, in a complementary manner, to a contact generatrix (G100) of the part, the axis (A100) of revolution of the part being perpendicular to the first axis (Z6) during the marking, and - sixth means for rotating the punch around a fifth axis (Z96) perpendicular to the third (Y6) and fourth (X92) axes.
A change gearing particularly for shredders , having at least two reduction stages with ratios different from each other, comprising an outer case (G), wherein a drive shaft (A) is axially arranged, carrying at least two sun pinions (C1, C2) acting on respective sets of planetary gears (B1, B2) which engage in corresponding toothed crowns (E1, E2), said set of planetary gears (B1, B2) being mounted on planetary gear carriers (D1, D2), rigidly connected to each other, characterized in that said toothed crowns (E1, E2) are embedded and fixed to respective shells (H1, H2) which can rotate on bearings (T1, T2) and carries, at the outside, disk clutches (F1, F2) apt to block alternately the respective shells (H1, H2) to the outer case (G).
A method of manufacturing a product comprising fibrous plant residues and plant extracts, the method comprising the steps of: a) extracting substances of plants to obtain plant extracts and fibrous plant residues; b) separating the plant extracts from the fibrous plant residues; c) feeding two or more different fibrous plant residues into two or more separate extruders, and then d) separately extruding the two or more different fibrous plant residues through die openings of the two or more separate extruder to obtain two or more extrudates, and e) assemble the two or more extrudates to obtain a three dimensionally shaped product, wherein the plant extracts are added to the two or more fibrous plant residues before and/or during and/or after step d); wherein in step d) the two or more different fibrous plant residues are extruded in such a way that the product has different material densities to be able to absorb controlled amounts of liquid at certain locations such that the product expands in a controlled manner and assumes a desired shape when immersed into a liquid. a) extracting substances of plants to obtain plant extracts and fibrous plant residues; b) separating the plant extracts from the fibrous plant residues; c) feeding two or more different fibrous plant residues into two or more separate extruders, and then d) separately extruding the two or more different fibrous plant residues through die openings of the two or more separate extruder to obtain two or more extrudates, and e) assemble the two or more extrudates to obtain a three dimensionally shaped product, wherein the plant extracts are added to the two or more fibrous plant residues before and/or during and/or after step d); wherein in step d) the two or more different fibrous plant residues are extruded in such a way that the product has different material densities to be able to absorb controlled amounts of liquid at certain locations such that the product expands in a controlled manner and assumes a desired shape when immersed into a liquid.
An apparatus, comprising: a support structure having a planar surface; a first planar substrate located at an offset distance from the planar surface and having a first optical device, the first optical device having an array of first optical ports along an edge of the first planar substrate ; a second planar substrate located at an offset distance from the planar surface and having one or more second optical devices with second optical ports along a second edge of the second planar substrate , the second edge facing the first edge; a first heater thermally coupled to the first planar substrate ; and a second heater thermally coupled to the second planar substrate , wherein: the first planar substrate has a substantially different thermal expansivity than the second planar substrate ; and the first heater and the second heater are configured to be separately controllable. a support structure having a planar surface; a first planar substrate located at an offset distance from the planar surface and having a first optical device, the first optical device having an array of first optical ports along an edge of the first planar substrate ; a second planar substrate located at an offset distance from the planar surface and having one or more second optical devices with second optical ports along a second edge of the second planar substrate , the second edge facing the first edge; a first heater thermally coupled to the first planar substrate ; and a second heater thermally coupled to the second planar substrate , wherein: the first planar substrate has a substantially different thermal expansivity than the second planar substrate ; and the first heater and the second heater are configured to be separately controllable. the first planar substrate has a substantially different thermal expansivity than the second planar substrate ; and the first heater and the second heater are configured to be separately controllable.
Device for conveying a coolant for cooling a drive unit , comprising a curved pipe section ; and a pump , preferably an impeller pump, with a conveying element and a straight and tubular suction nozzle arranged directly downstream of the curved pipe section and directly upstream of the conveying element , characterized by a flow directing element arranged inside the suction nozzle , preferably for homogenizing a flow in the suction nozzle , wherein the flow directing element is configured to reduce a flow dead space in the suction nozzle caused by the curved pipe section , by deflecting a partial flow towards the flow dead space ; and/or at least one inflow channel which opens into the suction nozzle in a radial direction with respect to the suction nozzle , preferably for homogenizing a flow in the suction nozzle , wherein the at least one inflow channel opens into the suction nozzle such that a flow dead space in the suction nozzle caused by the curved pipe section is reduced by opening into the suction nozzle in a direction towards the flow dead space . a curved pipe section ; and a pump , preferably an impeller pump, with a conveying element and a straight and tubular suction nozzle arranged directly downstream of the curved pipe section and directly upstream of the conveying element , a flow directing element arranged inside the suction nozzle , preferably for homogenizing a flow in the suction nozzle , wherein the flow directing element is configured to reduce a flow dead space in the suction nozzle caused by the curved pipe section , by deflecting a partial flow towards the flow dead space ; and/or at least one inflow channel which opens into the suction nozzle in a radial direction with respect to the suction nozzle , preferably for homogenizing a flow in the suction nozzle , wherein the at least one inflow channel opens into the suction nozzle such that a flow dead space in the suction nozzle caused by the curved pipe section is reduced by opening into the suction nozzle in a direction towards the flow dead space .
A PET system with a data transmitting device, the data transmitting device comprising: n number of collecting modules in a serial connection, wherein the n number of collecting modules comprise an n-th collecting module , an i-th collecting module and a first collecting module ; n is an integer greater than 1; i is an integer greater than 1 and less than n; the n-th collecting module is configured to transmit a data packet collected by itself to a (n-1)-th collecting module; the i-th collecting module is configured to transmit a data packet obtained by superposing a data packet collected by itself with a data packet received from a (i+1)-th collecting module to the (i-1)-th collecting module; the first collecting module is configured to transmit a data packet obtained by superposing a data packet collected by itself with a data packet received from a second collecting module to a host computer comprised in the PET system; and characterized in that , the host computer is configured to conduct a determination of a coincidence event based on the data packet received from the first collecting module . n number of collecting modules in a serial connection, wherein the n number of collecting modules comprise an n-th collecting module , an i-th collecting module and a first collecting module ; n is an integer greater than 1; i is an integer greater than 1 and less than n; the n-th collecting module is configured to transmit a data packet collected by itself to a (n-1)-th collecting module; the i-th collecting module is configured to transmit a data packet obtained by superposing a data packet collected by itself with a data packet received from a (i+1)-th collecting module to the (i-1)-th collecting module; the first collecting module is configured to transmit a data packet obtained by superposing a data packet collected by itself with a data packet received from a second collecting module to a host computer comprised in the PET system; and characterized in that , the host computer is configured to conduct a determination of a coincidence event based on the data packet received from the first collecting module .
A balance for a horological movement, comprising rigid parts constituted by a hub defining the pivot axis (D) of said balance , at least one felloe segment, at least one arm connecting said at least one felloe segment to said hub , and including at least one slot for receiving and gripping in position an inertia-block , said at least one slot opening into a housing delimited on the one hand by a rigid part of said balance , and on the other hand an elastic arm including a first end integral with a rigid part of said balance , and a second distal end which is free relative to said hub , to said arm , and to said felloe segment, balance wherein said elastic arm has a body of a non-constant section, a part of the body having a greater thickness than the rest of the elastic arm , the thickness varying in the plane of the balance, so as to have a larger volume of material under stress and store a maximum of elastic energy, characterised in that said housing is ovoid in shape with an entrance defined by the slot and a bottom, the bottom of the housing having dimensions greater than those of the entrance of the housing .
Method for estimating an air mass flow rate (m) entering a cylinder of a four-stroke spark-ignition engine (E), equipped with an intake manifold (IM) and at least one intake valve and a pressure (PS) and temperature (TS) sensor associated with the intake manifold, the method being based on an air mass flow estimation model comprising - a first contribution ( f ( p,T,N e ,η,.,. )) calculated by means of a steady-state modelling of the estimate of the mass air flow entering the engine, - a second contribution m p , T , ... p ̇ p μ function of an average pressure and a relative derivative over time, estimated as a function of + an estimate of an average pressure at the intake manifold based on a pressure measurement acquired by means of said pressure sensor (PS) and + an estimate of a temperature (T) in the vicinity of said engine intake valve, - a third contribution m p , T , ... T ̇ T υ function of a temperature and a relative derivative over time estimated in the vicinity of said engine intake valve, as a function of at least one temperature measurement (T) at the intake manifold acquired by means of said temperature sensor (TS), and as a function of said estimate of said average pressure at the intake manifold and wherein the first and second contributions have a positive sign and the third contribution has a negative sign. - a first contribution ( f ( p,T,N e ,η,.,. )) calculated by means of a steady-state modelling of the estimate of the mass air flow entering the engine, - a second contribution m p , T , ... p ̇ p μ function of an average pressure and a relative derivative over time, estimated as a function of + an estimate of an average pressure at the intake manifold based on a pressure measurement acquired by means of said pressure sensor (PS) and + an estimate of a temperature (T) in the vicinity of said engine intake valve, + an estimate of an average pressure at the intake manifold based on a pressure measurement acquired by means of said pressure sensor (PS) and + an estimate of a temperature (T) in the vicinity of said engine intake valve, - a third contribution m p , T , ... T ̇ T υ function of a temperature and a relative derivative over time estimated in the vicinity of said engine intake valve, as a function of at least one temperature measurement (T) at the intake manifold acquired by means of said temperature sensor (TS), and as a function of said estimate of said average pressure at the intake manifold and
A system, comprising: an inlet grid ; a first vibration device (120a-n) coupled to the inlet grid and a second vibration device (120a-n) coupled to the inlet grid ; and a controller communicatively coupled to the first vibration device (120a-n) and the second vibration device (120a-n), wherein the controller is configured to transmit a first vibration signal to the first vibration device (120a-n) and a second vibration signal to the second vibration device (120a-n); characterized in that the first vibration signal is operable to cause the first vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a first natural frequency, thereby inducing a first mode shape in the inlet grid ; the second vibration signal is operable to cause the second vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a second natural frequency, thereby inducing a second mode shape in the inlet grid ; the first vibration device and the second vibration device operate concurrently; and the first mode shape and the second mode shape superimpose at one or more anti-nodes on the inlet grid to break up and prevent ice on the inlet grid . an inlet grid ; a first vibration device (120a-n) coupled to the inlet grid and a second vibration device (120a-n) coupled to the inlet grid ; and a controller communicatively coupled to the first vibration device (120a-n) and the second vibration device (120a-n), wherein the controller is configured to transmit a first vibration signal to the first vibration device (120a-n) and a second vibration signal to the second vibration device (120a-n); characterized in that the first vibration signal is operable to cause the first vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a first natural frequency, thereby inducing a first mode shape in the inlet grid ; the second vibration signal is operable to cause the second vibration device (120a-n) to vibrate the inlet grid such that the inlet grid resonates at a second natural frequency, thereby inducing a second mode shape in the inlet grid ; the first vibration device and the second vibration device operate concurrently; and the first mode shape and the second mode shape superimpose at one or more anti-nodes on the inlet grid to break up and prevent ice on the inlet grid .
An expanded beads molded article, which is an expanded beads molded article of expanded olefin thermoplastic elastomer beads, wherein the olefin thermoplastic elastomer is a block copolymer of a polyethylene block and an ethylene/α-olefin copolymer block, the expanded beads have through-holes, the expanded beads are crosslinked, and which is characterized by having a voidage of 5 to 40% and a density of 30 to 150 g/L, and a flexural modulus of the olefin thermoplastic elastomer that constitutes the expanded beads molded article being from 10 to 100 MPa wherein the voidage, density and flexural modulus are determined according to the method as described in the specification.
Vehicle brake comprising at least one disk which is rotationally integral with a central drum of a wheel, the central drum being rotatingly supported on a shaft and the central drum forming, for the said at least one disk a half-shell of a housing compartment composed of two half-shells separated from one another along a plane parallel to the plane subtended by said disk , while a cover half-shell is provided on the side of the disk opposite the drum and closes said compartment on the disk side opposite said drum, said cover half-shell being provided with at least one braking element compressible by at least one hydraulically operated pushing member against the facing surface of the disk by means of the operation of a braking control member, such as a lever or a brake pedal, the cover half-shell being not-rotatingly supported with respect to the central drum , wherein said disk comprises a crown of teeth or radial ribs engaging a concentric crown of radial engaging recesses on said central drum and characterized in that said central drum comprises a backing surface of at least part of said radial ribs and at least part of the face of the disk facing towards said drum, the backing surface constituting the countercheck of the disk against the compressing action of at least one braking element against the surface of the opposite face of the disk.
A storage system including a carrier rail having a U-shaped cross section with a first and a second leg interconnected by a front portion , wherein the front portion is provided with first and second parallel rows of elongated slots to accommodate a suspension element such as a bracket, a basket or the like, the system comprising a flexible cover strip having an abutment face and an exterior face , the cover strip including a plurality of projections , elongate in the longitudinal direction of the strip, rising from the abutment face of the strip in first and second parallel rows, wherein the proximal end of each projection has a length that is equal to or shorter than the length of a slot and a width that is narrower than or equal to the width of a slot , wherein the projections are located on the cover strip in a pattern coinciding with slots on a front surface of the rail, such that the cover strip can be fitted on the front portion with the projections entering the slots, and wherein at least some of the projections are provided with a snap element at their distal ends, which snap elements prevent the cover strip from falling off the rail, the system being characterised by the projections rising obliquely from the abutment face .