mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer comprising polymerized units of a first monomer represented by Formula 1 below of which homopolymer has a Hansen solubility parameter of less than 10.0 (cal/cm 3 ) 1/2 ; polymerized units of a second monomer represented by Formula 2 or 3 below of which homopolymer has a Hansen solubility parameter of 10.0 (cal/cm 3 ) 1/2 or more; and polymerized units of a vinyl monomer represented by Formula 6 below, wherein the polymer comprises 70 weight% or more of the polymerized units derived from the first monomer, wherein the polymer comprises 0.1 to 30 parts by weight of the polymerized units derived from the second monomer and 0.1 to 60 parts by weight of the polymerized units derived from the vinyl monomer relative to 100 parts by weight of the polymerized units derived from the first monomer: wherein in Formula 1, Q is an alkyl group, and B is a straight or branched alkyl group having 5 or more carbon atoms or an alicyclic hydrocarbon group; wherein in Formula 2, Q is hydrogen or an alkyl group, U is an alkylene group, Z is hydrogen or an alkyl group, and m is 1 to 20: wherein in Formula 3, Q is hydrogen or an alkyl group, A and U are each independently an alkylene group, X is a hydroxy group or a cyano group, and n is 1 to 20; wherein in Formula 6, X is a nitrogen atom or an oxygen atom, Y is a carbonyl group or a single bond, R 1 and R 3 are each independently hydrogen or an alkyl group, or R 1 and R 3 are linked together to form an alkylene group, and R 2 is an alkenyl group, provided that when X is an oxygen atom, R 1 is not present.
A basic unit for an erectable barrier, said basic unit comprising: a base configured to rest on a ground; a movable hurdle pivotally connected to the base through a hinge and configured to be in a resting position and in an active upright position, wherein in the resting position the movable hurdle is configured to rest on the base and wherein the movable hurdle is configured to rotate about the hinge to be positioned in the active upright position; and an adjunct provided in the area of the hinge , the adjunct being provided on two opposite sides of the base and attached to the hinge in a manner that allows the movable hurdle to rotate about the base ; characterized in that the adjunct is the portion of the area of the hinge that is in contact with the ground, the adjunct being provided with pointers that are configured to transfer energy from an impact of a vehicle with the movable hurdle to the ground, the movable hurdle comprises a first movable hurdle portion and a second movable hurdle portion parallel one to the other, and connected by at least one connecting rod , such that in the resting position the first movable hurdle portion and the second movable hurdle portion of said movable hurdle are placed on said two opposite sides of the base . a base configured to rest on a ground; a movable hurdle pivotally connected to the base through a hinge and configured to be in a resting position and in an active upright position, wherein in the resting position the movable hurdle is configured to rest on the base and wherein the movable hurdle is configured to rotate about the hinge to be positioned in the active upright position; and an adjunct provided in the area of the hinge , the adjunct being provided on two opposite sides of the base and attached to the hinge in a manner that allows the movable hurdle to rotate about the base ; characterized in that the adjunct is the portion of the area of the hinge that is in contact with the ground, the adjunct being provided with pointers that are configured to transfer energy from an impact of a vehicle with the movable hurdle to the ground, the movable hurdle comprises a first movable hurdle portion and a second movable hurdle portion parallel one to the other, and connected by at least one connecting rod , such that in the resting position the first movable hurdle portion and the second movable hurdle portion of said movable hurdle are placed on said two opposite sides of the base .
A comfort layer configured for a bedding or seating product, said comfort layer comprising: a matrix of mini coil springs ; a first ply of fabric on a top side of the matrix of mini coil springs ; a second ply of fabric on a bottom side of the matrix of mini coil springs , the first and second plies of fabric being joined with rectangular weld seams comprising spaced linear weld segments with gaps therebetween around each of the mini coil springs to create individual pockets which contain the mini coil springs , characterized in that each of the plies of fabric comprising two or three layers including from the inside moving outwardly: an optional protective layer , an airtight layer and a sound attenuating layer , and being impermeable to airflow, wherein when at least some of the mini coil springs in at least some of the pockets are subjected to a load air moves between the pockets through the gaps between the linear weld segment of the rectangular weld seams and exits perimeter pockets into the atmosphere, the rate of compression of the mini coil springs being slowed by the size of the gaps between the linear weld segments of the rectangular weld seams , and when the load is removed, a rate of return of the comfort layer to its original height depends upon the mini coil springs in the at least some pockets returning to their original height, causing separation of the layers of fabric and drawing air into the pockets through the gaps between the linear weld segments of the rectangular weld seams . a matrix of mini coil springs ; a first ply of fabric on a top side of the matrix of mini coil springs ; a second ply of fabric on a bottom side of the matrix of mini coil springs , the first and second plies of fabric being joined with rectangular weld seams comprising spaced linear weld segments with gaps therebetween around each of the mini coil springs to create individual pockets which contain the mini coil springs , characterized in that each of the plies of fabric comprising two or three layers including from the inside moving outwardly: an optional protective layer , an airtight layer and a sound attenuating layer , and being impermeable to airflow, wherein when at least some of the mini coil springs in at least some of the pockets are subjected to a load air moves between the pockets through the gaps between the linear weld segment of the rectangular weld seams and exits perimeter pockets into the atmosphere, the rate of compression of the mini coil springs being slowed by the size of the gaps between the linear weld segments of the rectangular weld seams , and when the load is removed, a rate of return of the comfort layer to its original height depends upon the mini coil springs in the at least some pockets returning to their original height, causing separation of the layers of fabric and drawing air into the pockets through the gaps between the linear weld segments of the rectangular weld seams .
A binding machine comprising: a wire feeding unit configured to feed a wire (W); a curl guide unit configured to curl the wire fed by the wire feeding unit around an object to be bound; a binding unit including a twisting shaft provided to be rotatable around a predetermined axis, a gripping part provided at one end side of the twisting shaft and a drive unit provided to the other end side of the twisting shaft, wherein the gripping part is configured to grip the wire curled by the curl guide unit and the twisting shaft is configured to twist the gripped wire so as to bind the object; a control unit configured to control an operation of the drive unit; an operation unit configured to adjust fastening torque of the wire (W); a wiring connecting the operation unit to the control unit ; and a binding machine main body configured to accommodate therein the binding unit , the control unit and the wiring, wherein when an inside of the binding machine main body is divided into two by a virtual plane perpendicular to or substantially perpendicular to the predetermined axis so as to be partitioned into a first space (S1) in which the gripping part is accommodated and a second space (S2) in which the drive unit is accommodated, the control unit and the wiring are arranged in the second space in which the drive unit is accommodated. a wire feeding unit configured to feed a wire (W); a curl guide unit configured to curl the wire fed by the wire feeding unit around an object to be bound; a binding unit including a twisting shaft provided to be rotatable around a predetermined axis, a gripping part provided at one end side of the twisting shaft and a drive unit provided to the other end side of the twisting shaft, wherein the gripping part is configured to grip the wire curled by the curl guide unit and the twisting shaft is configured to twist the gripped wire so as to bind the object; a control unit configured to control an operation of the drive unit; an operation unit configured to adjust fastening torque of the wire (W); a wiring connecting the operation unit to the control unit ; and a binding machine main body configured to accommodate therein the binding unit , the control unit and the wiring, wherein when an inside of the binding machine main body is divided into two by a virtual plane perpendicular to or substantially perpendicular to the predetermined axis so as to be partitioned into a first space (S1) in which the gripping part is accommodated and a second space (S2) in which the drive unit is accommodated, the control unit and the wiring are arranged in the second space in which the drive unit is accommodated.
A hinge for a door or a window, which comprises a frame portion and a sash portion which can be arranged each in a hidden manner in the frame and in the sash, respectively, of the door or the window, wherein the frame portion includes a fastening section which is connected via a joint to a hinge loop , and wherein the hinge loop extends substantially in the direction perpendicular to the fold into the inside of the sash portion , such that the depth of penetration of the hinge loop in the sash portion corresponds to a multiple of its thickness in the direction normal to the sash plane of the door and the window, respectively, and wherein the hinge loop further is held in a receiving portion which is located in the inside of the sash portion wherein the height of the receiving portion relative to the sash portion is displaceable and fixable by means of a first adjustment device , and the receiving portion is displaceable in the direction normal to the sash plane of the door or the window relative to the sash portion by means of a second adjustment device , and wherein the depth of penetration of the hinge loop in the receiving portion can be adjusted by means of a third adjustment device , characterized in that all of the three adjustment devices are arranged in the sash portion , and can be actuated from the same direction by means of adjusting screws which are all arranged in parallel to the insertion direction of the hinge loop .
Method for operating a driver assistance system for an assisted lane change procedure of a motor vehicle from an initial lane to an adjacent target lane , comprising at least one environment sensor for detecting objects in an environment of the motor vehicle , and at least one map unit for collecting map data about the lane course, - wherein a current vehicle position is determined based on the map data , - wherein a lane change path for a lane change procedure is predicted when a lane change procedure is activated, - wherein, for the lane change path , a probability magnitude is determined for another road user to change lanes onto the target lane , - wherein the sensitivity of the environment sensor for identifying objects is adjusted according to the probability magnitude, - wherein the environment is continuously monitored for the presence of objects by the environment sensor during the lane change procedure, and - wherein the lane change procedure is aborted if an object is detected by the environment sensor . - wherein a current vehicle position is determined based on the map data , - wherein a lane change path for a lane change procedure is predicted when a lane change procedure is activated, - wherein, for the lane change path , a probability magnitude is determined for another road user to change lanes onto the target lane , - wherein the sensitivity of the environment sensor for identifying objects is adjusted according to the probability magnitude, - wherein the environment is continuously monitored for the presence of objects by the environment sensor during the lane change procedure, and - wherein the lane change procedure is aborted if an object is detected by the environment sensor .
Multilayer composite , comprising at least three superimposed plies of fibre composite which are defined relative to one another as two outer plies of fibre composite and at least one inner ply of fibre composite , wherein (a) each of these at least three plies of fibre composite comprises endless fibres , wherein - the endless fibres within the respective ply are unidirectionally aligned and - are embedded in a polycarbonate-based plastic , wherein the polycarbonate is selected from homopolycarbonate or copolycarbonate, (b) the inner plies of fibre composite have substantially the same orientation and their orientation relative to the outer plies of fibre composite is rotated by 30° to 90°, wherein the orientation of a ply of fibre composite is determined by the orientation of the unidirectionally aligned fibres present therein, wherein the thickness ratio of the sum of the two outer plies to the sum of all inner plies of fibre composite is 0.35 to 0.65. (a) each of these at least three plies of fibre composite comprises endless fibres , wherein - the endless fibres within the respective ply are unidirectionally aligned and - are embedded in a polycarbonate-based plastic , wherein the polycarbonate is selected from homopolycarbonate or copolycarbonate, - the endless fibres within the respective ply are unidirectionally aligned and - are embedded in a polycarbonate-based plastic , wherein the polycarbonate is selected from homopolycarbonate or copolycarbonate, (b) the inner plies of fibre composite have substantially the same orientation and their orientation relative to the outer plies of fibre composite is rotated by 30° to 90°, wherein the orientation of a ply of fibre composite is determined by the orientation of the unidirectionally aligned fibres present therein, wherein the thickness ratio of the sum of the two outer plies to the sum of all inner plies of fibre composite is 0.35 to 0.65.
A wireless communication device that does not have an internal power supply for collecting vehicle on-board diagnostics (OBD) data, the device comprising: a connector for connecting the device to a vehicle OBD port to receive OBD data and power; a processor and a real-time clock powered by the connector and arranged to apply time stamps to the OBD data; a memory for storing the time-stamped OBD data; and a wireless transceiver for pairing with an external mobile telecommunications device to wirelessly transmit OBD data, wherein the wireless communication device is not continuously paired with the external mobile telecommunications device and the time-stamped OBD data is stored in the memory until a later time when a data transmission instruction is received, wherein the wireless communication device is arranged to determine when it has been disconnected from the vehicle OBD port by determining a disconnection event and uses the real-time clock to apply a time stamp before storing the disconnection event in the memory , and to correct the time-stamped OBD data received after re-connection by synchronising with an external reference clock signal provided by the mobile telecommunications device when the wireless communication device is paired with the external mobile telecommunications device before the corrected OBD data is transmitted to the external mobile telecommunications device . a connector for connecting the device to a vehicle OBD port to receive OBD data and power; a processor and a real-time clock powered by the connector and arranged to apply time stamps to the OBD data; a memory for storing the time-stamped OBD data; and a wireless transceiver for pairing with an external mobile telecommunications device to wirelessly transmit OBD data, wherein the wireless communication device is not continuously paired with the external mobile telecommunications device and the time-stamped OBD data is stored in the memory until a later time when a data transmission instruction is received, wherein the wireless communication device is arranged to determine when it has been disconnected from the vehicle OBD port by determining a disconnection event and uses the real-time clock to apply a time stamp before storing the disconnection event in the memory , and to correct the time-stamped OBD data received after re-connection by synchronising with an external reference clock signal provided by the mobile telecommunications device when the wireless communication device is paired with the external mobile telecommunications device before the corrected OBD data is transmitted to the external mobile telecommunications device .
An ostomy appliance for attachment around a stoma of a user, comprising: - a carrier sheet having a proximal surface and a distal surface and a through-going hole extending from the proximal surface to the distal surface; - a first adhesive material disposed on the proximal surface of the carrier sheet and configured to adhere the appliance to a peristomal skin surface of the user, characterized by further comprising: - a second material disposed at least on a portion of the distal surface of the carrier sheet , wherein the second material is configured to dissipate in response to being exposed to stomal fluids on the side of the carrier sheet facing away from the user in use; and - a signal generator adapted to provide an indicator signal when the dissipation of the second material reaches a pre-defined threshold value. - a carrier sheet having a proximal surface and a distal surface and a through-going hole extending from the proximal surface to the distal surface; - a first adhesive material disposed on the proximal surface of the carrier sheet and configured to adhere the appliance to a peristomal skin surface of the user, characterized by further comprising: - a second material disposed at least on a portion of the distal surface of the carrier sheet , wherein the second material is configured to dissipate in response to being exposed to stomal fluids on the side of the carrier sheet facing away from the user in use; and - a signal generator adapted to provide an indicator signal when the dissipation of the second material reaches a pre-defined threshold value.
Moulded-foam element made of polyurethane foam (PUR foam) and/or polyisocyanurate foam (PIR foam) produced in a continuous procedure and having a homogeneous bulk density between 28 kg/m 3 and 40 kg/m 3 , in particular for composite heat insulation systems (EIFS/ETICS) on buildings, with a cell structure which has geometrical structures which are distinguishable in at least two spatial directions oriented perpendicularly to each other, and which is embodied free of foils.
A scroll compressor comprising: a casing ; a drive motor coupled to the casing ; a rotary shaft coupled to the drive motor to be rotated; a main frame spaced apart from the drive motor and allowing the rotary shaft to be arranged therethrough; a fixed scroll coupled to the main frame ; an orbiting scroll arranged between the main frame and the fixed scroll and configured to make an orbiting motion in engagement with the fixed scroll to form a compression chamber (S1) in cooperation with the fixed scroll , the rotary shaft being inserted into and eccentrically coupled to the orbiting scroll ; a discharge cover coupled to an outer surface of the fixed scroll to form a closed space (V3); a discharge port formed in the fixed scroll to connect the compression chamber (S1) and the closed space (V3); and a discharge hole passing through the main frame and the fixed scroll to allow the closed space (V3) to communicate with an outside of the main frame , wherein the discharge hole comprises a first discharge hole formed in the main frame , and a second discharge hole formed in the fixed scroll and connected to the first discharge hole ; characterized in that both ends of the discharge hole have a cross-sectional area different from a cross-sectional area of an inner portion of the discharge hole , and in that the discharge hole comprises an expanded flow channel formed therein. a casing ; a drive motor coupled to the casing ; a rotary shaft coupled to the drive motor to be rotated; a main frame spaced apart from the drive motor and allowing the rotary shaft to be arranged therethrough; a fixed scroll coupled to the main frame ; an orbiting scroll arranged between the main frame and the fixed scroll and configured to make an orbiting motion in engagement with the fixed scroll to form a compression chamber (S1) in cooperation with the fixed scroll , the rotary shaft being inserted into and eccentrically coupled to the orbiting scroll ; a discharge cover coupled to an outer surface of the fixed scroll to form a closed space (V3); a discharge port formed in the fixed scroll to connect the compression chamber (S1) and the closed space (V3); and a discharge hole passing through the main frame and the fixed scroll to allow the closed space (V3) to communicate with an outside of the main frame , wherein the discharge hole comprises a first discharge hole formed in the main frame , and a second discharge hole formed in the fixed scroll and connected to the first discharge hole ; characterized in that both ends of the discharge hole have a cross-sectional area different from a cross-sectional area of an inner portion of the discharge hole , and in that the discharge hole comprises an expanded flow channel formed therein.
Method for detecting a phase (PI) of an analog signal (SI3) via a hybrid coupler (CH2) operating in a power combiner mode, the hybrid coupler (CH2) comprising a first input (BE3) intended to receive said analog signal (SI3), a second input (BE4) intended to receive an additional analog signal (SI4) phase-shifted by 90° relative to the analog signal (SI3), a first output (BS3) providing an output signal (SS1), and a second output (BS4), the method being characterised in that it comprises: an injection at the second output (BS4) of a test signal (ST1) having an initial test phase (PTI), an iterative generation of a current test phase (PTC) for the test signal (ST1), from the initial test phase (PTI) to a final test phase (PTF) equal to the initial test phase (PTI) increased by at least part of a complete turn, with a measurement of the current peak value (AC1) of the output signal (SS1) in each iteration, and storing the current test phase (PTC) and the current peak value (AC1) as a maximum (Amax) or minimum (Amin) peak value, if there is not respectively a larger stored maximum peak value (Amax) or a smaller stored minimum peak value (Amin) than the current peak value (AC1), and determining the phase (PI) of the analog signal (SI3) from the stored test phase (PTM). an injection at the second output (BS4) of a test signal (ST1) having an initial test phase (PTI), an iterative generation of a current test phase (PTC) for the test signal (ST1), from the initial test phase (PTI) to a final test phase (PTF) equal to the initial test phase (PTI) increased by at least part of a complete turn, with a measurement of the current peak value (AC1) of the output signal (SS1) in each iteration, and storing the current test phase (PTC) and the current peak value (AC1) as a maximum (Amax) or minimum (Amin) peak value, if there is not respectively a larger stored maximum peak value (Amax) or a smaller stored minimum peak value (Amin) than the current peak value (AC1), and determining the phase (PI) of the analog signal (SI3) from the stored test phase (PTM).