mhurhangee/patent-ind-claim-en huggingface dataset:
Textile sheet in the form of a woven fabric with heat shrinkage properties and elastic properties wherein the textile sheet consists of a yarn system forming the textile sheet with a plurality of weft threads and a plurality of warp threads , wherein the yarn system comprises or consists of at least one heat-shrinkable elastic plastic yarn which retains its elastic properties at least partially even after heat-shrinkage treatment, wherein the heat-shrinkable elastic plastic yarn is based on a heat-shrinkable elastomeric and thermoplastic polyester, wherein the yarn system is free of non-heatshrinkable elastic plastic yarns, and the textile sheet being elastic in the weft direction and in the warp direction, characterized in that the heat-shrinkable elastic plastic yarn has an elongation at break of more than 55% at 20 °C, determined in accordance with DIN EN ISO 2062:2010-04. wherein the textile sheet consists of a yarn system forming the textile sheet with a plurality of weft threads and a plurality of warp threads , wherein the yarn system comprises or consists of at least one heat-shrinkable elastic plastic yarn which retains its elastic properties at least partially even after heat-shrinkage treatment, wherein the heat-shrinkable elastic plastic yarn is based on a heat-shrinkable elastomeric and thermoplastic polyester, wherein the yarn system is free of non-heatshrinkable elastic plastic yarns, and the textile sheet being elastic in the weft direction and in the warp direction, characterized in that the heat-shrinkable elastic plastic yarn has an elongation at break of more than 55% at 20 °C, determined in accordance with DIN EN ISO 2062:2010-04.
A pile assembly located within a bore , the pile assembly comprising: a hollow pile comprising a plurality of pre-formed pile sections that form a pile wall surrounding a cavity, to define a hollow interior of the pile; and a plurality of tensioning members for drawing the pre-formed pile sections together; wherein one or more of the pre-formed pile sections comprises one or more tensioning member channels for receiving a tensioning member, the one or more tensioning member channels being formed in a surface of a wall portion of the pre-formed pile section characterised in that one or more tensioning member channels is a surface groove formed in a surface of a wall portion of the pre-formed pile section. a hollow pile comprising a plurality of pre-formed pile sections that form a pile wall surrounding a cavity, to define a hollow interior of the pile; and a plurality of tensioning members for drawing the pre-formed pile sections together; wherein one or more of the pre-formed pile sections comprises one or more tensioning member channels for receiving a tensioning member, the one or more tensioning member channels being formed in a surface of a wall portion of the pre-formed pile section characterised in that one or more tensioning member channels is a surface groove formed in a surface of a wall portion of the pre-formed pile section.
A fan guard connector comprising: a fan guard structure configured to be secured to a cooling system ; a lever structure connected to the fan guard structure by a pivot element , wherein the lever structure is configured to rotate between an engaged and a disengaged position; and a connector member configured to secure the lever structure to the fan guard structure in the engaged position, characterized in that the connector member further comprises: a securing element configured to interlock within an aperture of the fan guard structure; and a gripping region configured to receive a force to turn the connector member and the securing element simultaneously between a locked and unlocked position. a fan guard structure configured to be secured to a cooling system ; a lever structure connected to the fan guard structure by a pivot element , wherein the lever structure is configured to rotate between an engaged and a disengaged position; and a connector member configured to secure the lever structure to the fan guard structure in the engaged position, characterized in that the connector member further comprises: a securing element configured to interlock within an aperture of the fan guard structure; and a gripping region configured to receive a force to turn the connector member and the securing element simultaneously between a locked and unlocked position. a securing element configured to interlock within an aperture of the fan guard structure; and a gripping region configured to receive a force to turn the connector member and the securing element simultaneously between a locked and unlocked position.
A microstructured passage module for an aerosol generator, comprising: a plate overlaid by a cover thus forming a compartment , and the plate and the cover in combination define an entrance and an exit for the compartment, a liquid flow direction is defined by liquid flowing from the entrance to the exit of said compartment; a plurality of walls along the liquid flow direction and parallel to each other over an entire width of the plate so as to define a plurality of passages threrebetween; a plurality of pillars protruding from the plate and a distance between two adjacent pillars is D; and a column protruding from the plate, adapted to be proximate to and substantially blocks the exit to the extent that aisles are formed between the column and the exit for the liquid to flow through, and the aisle has a width W, wherein the liquid flows through the compartment in the liquid flow direction such that an aerosol having a predetermined MMAD (Mass Median Aerodynamic Diameter) is achieved, wherein the width W is between 6,7 μm and 8,3 μm, and the distance D is between 6,7 μm and 8,3 μm. a plate overlaid by a cover thus forming a compartment , and the plate and the cover in combination define an entrance and an exit for the compartment, a liquid flow direction is defined by liquid flowing from the entrance to the exit of said compartment; a plurality of walls along the liquid flow direction and parallel to each other over an entire width of the plate so as to define a plurality of passages threrebetween; a plurality of pillars protruding from the plate and a distance between two adjacent pillars is D; and a column protruding from the plate, adapted to be proximate to and substantially blocks the exit to the extent that aisles are formed between the column and the exit for the liquid to flow through, and the aisle has a width W, wherein the liquid flows through the compartment in the liquid flow direction such that an aerosol having a predetermined MMAD (Mass Median Aerodynamic Diameter) is achieved, wherein the width W is between 6,7 μm and 8,3 μm, and the distance D is between 6,7 μm and 8,3 μm.
A starter for an internal combustion engine, having a starter pinion which is axially adjustable between an inoperative position and an advanced drive position, the starter pinion being arranged axially displaceably with respect to a driving component and being supported axially by means of a spring arrangement , wherein the spring arrangement , which exerts an axial spring force on the starter pinion , has a non-linear spring characteristic and at least two spring elements connected in series, characterized in that at least one spring element of the spring arrangement is covered by a cover plate , the cover plate forming a spring element.
A transmission method for wireless communication in a line of sight environment, the transmission method comprising: generating a pair of a first transmission signal z1 and a second transmission signal z2 for each pair of a first modulated signal s1 and a second modulated signal s2, the first transmission signal z1 and the second transmission signal z2 satisfying (z1, z2) T = F[i] (s1, s2) T , wherein F[i] is one matrix selected from among N matrices, N is equal to an integer 9 and i is equal to an integer no less than 0 and no more than 8; and transmitting the first transmission signal z1 and the second transmission signal z2 by using two antennas , characterized by the N matrices being expressed by the following equations: F i = 0 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ , F i = 1 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 2 9 π e j 2 9 π + π , F i = 2 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 4 9 π e j 4 9 π + π , F i = 3 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 6 9 π e j 6 9 π + π , F i = 4 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 8 9 π e j 8 9 π + π , F i = 5 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 10 9 π e j 10 9 π + π , F i = 6 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 12 9 π e j 12 9 π + π , F i = 7 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 14 9 π e j 14 9 π + π , and F i = 8 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 16 9 π e j 16 9 π + π , wherein a is a positive real number, and F[i] is selected from among the N matrices by regularly hopping over a period of N slots. generating a pair of a first transmission signal z1 and a second transmission signal z2 for each pair of a first modulated signal s1 and a second modulated signal s2, the first transmission signal z1 and the second transmission signal z2 satisfying (z1, z2) T = F[i] (s1, s2) T , wherein F[i] is one matrix selected from among N matrices, N is equal to an integer 9 and i is equal to an integer no less than 0 and no more than 8; and transmitting the first transmission signal z1 and the second transmission signal z2 by using two antennas , characterized by the N matrices being expressed by the following equations: F i = 0 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 0 e jπ , F i = 1 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 2 9 π e j 2 9 π + π , F i = 2 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 4 9 π e j 4 9 π + π , F i = 3 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 6 9 π e j 6 9 π + π , F i = 4 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 8 9 π e j 8 9 π + π , F i = 5 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 10 9 π e j 10 9 π + π , F i = 6 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 12 9 π e j 12 9 π + π , F i = 7 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 14 9 π e j 14 9 π + π , and F i = 8 = 1 α 2 + 1 e j 0 α × e j 0 α × e j 16 9 π e j 16 9 π + π , wherein a is a positive real number, and F[i] is selected from among the N matrices by regularly hopping over a period of N slots.
A solid pharmaceutical preparation comprising a safe and effective amount of lipoic acid, and a stabilizer comprising dicalcium phosphate and a binder, wherein the binder is a vinylpyrrolidone-vinyl acetate copolymer or a combination of vinylpyrrolidone-vinyl acetate copolymer and hydroxypropyl cellulose, wherein lipoic acid and the binder are present in relation to each other in a weight ratio from 1 : 0.1 to 1 : 0.01 and wherein dicalcium phosphate and the binder are present in relation to each other in a weight ratio from 2 : 1 to 1 : 0.01.
Computer implemented method for proof-of-work for generating and validating a block of a blockchain using at least one printing device, wherein the printing device is configured for generating at least one digital image depending on a printer control setting, the method comprises the following steps: i) providing an initial digital image comprising a plurality of colored pixels, wherein the initial digital image is taken from an image database and/or is generated by printing and scanning the initial digital image by using an initial printer control setting; ii) providing a task digital image comprising a plurality of colored pixels different from the initial digital image ; iii) selecting a mining printer control setting , printing the initial digital image by using the printing device by blending pigments with the selected mining printer control setting and scanning the printed image by using at least one scanning device, thereby generating a mining digital image having a plurality of colored pixels different from the initial digital image ; iv) comparing the colored pixels of the mining digital image and the task digital image by using at least one processing device; wherein the method comprises repeating steps ii) to iv) until the colored pixels of the mining digital image and the task digital image are found to be identical, wherein in each case in step iii) a different mining printer control setting is selected, wherein the mining printer control setting for which the mining digital image and the task digital image are found to be identical is used as the proof-of-work for generating and validating the block of the blockchain. i) providing an initial digital image comprising a plurality of colored pixels, wherein the initial digital image is taken from an image database and/or is generated by printing and scanning the initial digital image by using an initial printer control setting; ii) providing a task digital image comprising a plurality of colored pixels different from the initial digital image ; iii) selecting a mining printer control setting , printing the initial digital image by using the printing device by blending pigments with the selected mining printer control setting and scanning the printed image by using at least one scanning device, thereby generating a mining digital image having a plurality of colored pixels different from the initial digital image ; iv) comparing the colored pixels of the mining digital image and the task digital image by using at least one processing device;
A near-field electromagnetic induction (NFEMI) antenna device, comprising: a coil, having first and second coupling points, configured to generate and/or receive a magnetic (H-field) near-field signal; a conductive structure , being a conductive plate and having first and second coupling points separated by a distance; first and second feed points configured to carry a current from a transmitter and/or to a receiver circuit; wherein the first coupling point of the conductive structure is coupled to the first feed point and wherein the second coupling point of the conductive structure is coupled to the first coupling point of the coil; wherein the second coupling point of the coil is coupled to the second feed point; whereby conductive structure and the coil are connected in series; and wherein the conductive structure is configured to generate an electric (E-field) near-field in response to the current flowing through the conductive structure over the distance between the first and second coupling points of the conductive structure. a coil, having first and second coupling points, configured to generate and/or receive a magnetic (H-field) near-field signal; a conductive structure , being a conductive plate and having first and second coupling points separated by a distance; first and second feed points configured to carry a current from a transmitter and/or to a receiver circuit; wherein the first coupling point of the conductive structure is coupled to the first feed point and wherein the second coupling point of the conductive structure is coupled to the first coupling point of the coil; wherein the second coupling point of the coil is coupled to the second feed point; whereby conductive structure and the coil are connected in series; and wherein the conductive structure is configured to generate an electric (E-field) near-field in response to the current flowing through the conductive structure over the distance between the first and second coupling points of the conductive structure.
Method for the dynamic and interactive control of a home gateway (CPE) connected to a communication network (AN), characterized in that the method comprises: - filtering the incoming and outgoing streams entering and exiting the home gateway so as to detect a stream compliant with a filtering template contained in a configuration associated with the gateway, - in case of a stream compliant with the filtering template, triggering sending of a first notification ( NOTIF ) to at least one first contact address (AoC) and - actuating a corrective measure ( POLICY ) in respect of the configuration of the home gateway if a decision ( DECI ) is received from a second contact address following the sending of the notification, the first and second contact addresses being contained in the configuration associated with the gateway and forming part of the contact addresses declared by a known client of a user account of the gateway. - filtering the incoming and outgoing streams entering and exiting the home gateway so as to detect a stream compliant with a filtering template contained in a configuration associated with the gateway, - in case of a stream compliant with the filtering template, triggering sending of a first notification ( NOTIF ) to at least one first contact address (AoC) and - actuating a corrective measure ( POLICY ) in respect of the configuration of the home gateway if a decision ( DECI ) is received from a second contact address following the sending of the notification, the first and second contact addresses being contained in the configuration associated with the gateway and forming part of the contact addresses declared by a known client of a user account of the gateway.
A synthetic flooring comprising: - a substrate layer comprising a recycled polyvinyl chloride and a filler; and - a surface layer comprising a polyethylene terephtalate film printed on the back side and coated with a primer dispersion comprising : - polyvinyl chloride ; - pigment; and one or more agents chosen from pH adjusting agents, wetting agents, dispersants, defoaming agents, and viscosity agents. - a substrate layer comprising a recycled polyvinyl chloride and a filler; and - a surface layer comprising a polyethylene terephtalate film printed on the back side and coated with a primer dispersion comprising : - polyvinyl chloride ; - pigment; and - polyvinyl chloride ; - pigment; and
A stator for an electric motor , comprising: a stator core including an annular yoke and a plurality of tooth portions surrounded by the yoke , the stator core comprising slots constituted by adjacent tooth portions and the annular yoke ; a plurality of winding frames each covering a respective tooth portion , and each winding frame being formed of an insulating material; a plurality of windings each being concentratedly wound around a respective winding frame ; and a plurality of wedges each being disposed between the winding and the yoke in a respective slot , and each wedge being a plate member formed of an insulating material, characterized in that each winding frame is provided with a guide portion to guide insertion of the wedge between the winding and the yoke , and each guide portion protrudes from the respective winding frame toward the yoke , each wedge is inserted between a pair of the guide portions located at an interval corresponding to a width of the wedge . a stator core including an annular yoke and a plurality of tooth portions surrounded by the yoke , the stator core comprising slots constituted by adjacent tooth portions and the annular yoke ; a plurality of winding frames each covering a respective tooth portion , and each winding frame being formed of an insulating material; a plurality of windings each being concentratedly wound around a respective winding frame ; and a plurality of wedges each being disposed between the winding and the yoke in a respective slot , and each wedge being a plate member formed of an insulating material, characterized in that each winding frame is provided with a guide portion to guide insertion of the wedge between the winding and the yoke , and each guide portion protrudes from the respective winding frame toward the yoke , each wedge is inserted between a pair of the guide portions located at an interval corresponding to a width of the wedge .
An Fe-based amorphous alloy ribbon characterized in having continuous linear laser irradiation marks on at least one surface, the linear laser irradiation marks being arranged in a continuous line by a continuous wave, CW oscillation method along a direction orthogonal to a casting direction of the Fe-based amorphous alloy ribbon, each linear laser irradiation mark having unevenness on its surface, the unevenness being evaluated in the casting direction, and a height difference HL between a highest point and a lowest point along a thickness direction of the Fe-based amorphous alloy ribbon in a profile obtained along the casting direction of the linear laser irradiation marks being 0.25 μm to 2.0 μm.
An imaging and therapeutic delivery system comprising: a straight shaft having a distal end and a proximal end; a needle reciprocatably coupled to the shaft so that a tissue-penetrating tip on the needle can be distally advanced from the shaft along an axial path; a tip pivotally attached to the distal end of the shaft and movable between a position parallel to the axial path and a position at an acute or right angle relative to the axial path, wherein the tip includes a stop structure disposed thereon so that the stop structure prevents advancement of the needle when the tip is parallel to the axial path, and wherein deployment of the tip moves the stop structure out of the advancement path of the needle ; and an ultrasonic imaging array carried by the pivotally attached tip , wherein the tip can be oriented to align a field of view of the imaging array with the needle as the needle is advanced along the axial path so as to sweep the ultrasound field of view relative to the needle and anatomy to be imaged, the system further comprising a plurality of tines carried by the needle , wherein the tines are reciprocatably attached to the needle. a straight shaft having a distal end and a proximal end; a needle reciprocatably coupled to the shaft so that a tissue-penetrating tip on the needle can be distally advanced from the shaft along an axial path; a tip pivotally attached to the distal end of the shaft and movable between a position parallel to the axial path and a position at an acute or right angle relative to the axial path, wherein the tip includes a stop structure disposed thereon so that the stop structure prevents advancement of the needle when the tip is parallel to the axial path, and wherein deployment of the tip moves the stop structure out of the advancement path of the needle ; and an ultrasonic imaging array carried by the pivotally attached tip , wherein the tip can be oriented to align a field of view of the imaging array with the needle as the needle is advanced along the axial path so as to sweep the ultrasound field of view relative to the needle and anatomy to be imaged, the system further comprising a plurality of tines carried by the needle , wherein the tines are reciprocatably attached to the needle.
A method of calibrating a sensor, comprising: - initiating a calibration procedure from a mobile device , - establishing a communication between a mobile device and the sensor, - obtaining an identification (ID) of the sensor by the mobile device , - determining a position of the mobile device , - sending a request for calibration data to a calibration data provider, the request comprising at least the identification (ID) of the sensor and the position of the mobile device , - receiving calibration data from the calibration data provider, the calibration data corresponding to currently sensed values by at least one other sensor that is already calibrated and of the same type as the sensor to be calibrated, - providing the sensor with the calibration data, - calibrating the sensor in accordance with the calibration data. - initiating a calibration procedure from a mobile device , - establishing a communication between a mobile device and the sensor, - obtaining an identification (ID) of the sensor by the mobile device , - determining a position of the mobile device , - sending a request for calibration data to a calibration data provider, the request comprising at least the identification (ID) of the sensor and the position of the mobile device , - receiving calibration data from the calibration data provider, the calibration data corresponding to currently sensed values by at least one other sensor that is already calibrated and of the same type as the sensor to be calibrated, - providing the sensor with the calibration data, - calibrating the sensor in accordance with the calibration data.