mhurhangee/ep-ind-claims huggingface dataset:
A system for administrating the use by passengers of at least one transport means requiring payment, with - at least one transponder (200, 300) utilized as an electronic ticket for means of transport requiring payment, with an antenna (220, 320) having an antenna area that is made of a conductive material and has a predetermined antenna structure, by which a first resonance frequency of the antenna is adjusted, and with a chip (210, 310) that is or can be electrically coupled with the antenna (220, 320), and - at least one reading antenna attached at an access to the transport means or to a restricted-access area surrounding the transport means, characterized in that - the antenna (220, 320) is adapted to measure movement information, in particular speed or distance, in accordance with the Doppler principle, wherein the antenna area is supplied with a frequency-selective surface (240, 340) by which a second resonance frequency of the antenna (220, 320) is adjusted that is different from the first resonance frequency, and in that - the reading antenna is adapted for communication with the transponder (200, 300) at the second resonance frequency, and with the antenna it is possible to measure, in accordance with the Doppler principle, movement information, in particular speed or distance, of a transponder (200, 300) relative to the reading antenna, in such a fashion that it is possible to distinguish between a passenger equipped with a transponder (200, 300) entering and leaving the transport means or the restricted-access area surrounding the transport means. - at least one transponder (200, 300) utilized as an electronic ticket for means of transport requiring payment, with an antenna (220, 320) having an antenna area that is made of a conductive material and has a predetermined antenna structure, by which a first resonance frequency of the antenna is adjusted, and with a chip (210, 310) that is or can be electrically coupled with the antenna (220, 320), and - at least one reading antenna attached at an access to the transport means or to a restricted-access area surrounding the transport means, characterized in that - the antenna (220, 320) is adapted to measure movement information, in particular speed or distance, in accordance with the Doppler principle, wherein the antenna area is supplied with a frequency-selective surface (240, 340) by which a second resonance frequency of the antenna (220, 320) is adjusted that is different from the first resonance frequency, and in that - the reading antenna is adapted for communication with the transponder (200, 300) at the second resonance frequency, and with the antenna it is possible to measure, in accordance with the Doppler principle, movement information, in particular speed or distance, of a transponder (200, 300) relative to the reading antenna, in such a fashion that it is possible to distinguish between a passenger equipped with a transponder (200, 300) entering and leaving the transport means or the restricted-access area surrounding the transport means.
An auto-injector device comprising: a housing having a distal end and a proximal end; a medicament cartridge disposed within the housing; a needle unit comprising a needle, the needle unit being disposed in the distal end of the housing; a button disposed in the proximal end of the housing, the button being configured to directly act on the cartridge to move the cartridge onto the needle unit to fluidly connect the needle with the cartridge when, in use, the button is pressed from an initial position into a depressed position; a plunger displaceable to drive medicament from the cartridge through the needle; a plunger mechanism triggerable to displace the plunger during operation of the device; and a sleeve displaceable along a longitudinal axis of the device between a first position in which the sleeve conceals the needle and a second position in which the needle is exposed from an end of the sleeve, wherein the sleeve is configured to trigger the plunger mechanism when, during use, the sleeve is moved from the first position to the second position. a housing having a distal end and a proximal end; a medicament cartridge disposed within the housing; a needle unit comprising a needle, the needle unit being disposed in the distal end of the housing; a button disposed in the proximal end of the housing, the button being configured to directly act on the cartridge to move the cartridge onto the needle unit to fluidly connect the needle with the cartridge when, in use, the button is pressed from an initial position into a depressed position; a plunger displaceable to drive medicament from the cartridge through the needle; a plunger mechanism triggerable to displace the plunger during operation of the device; and a sleeve displaceable along a longitudinal axis of the device between a first position in which the sleeve conceals the needle and a second position in which the needle is exposed from an end of the sleeve, wherein the sleeve is configured to trigger the plunger mechanism when, during use, the sleeve is moved from the first position to the second position.
A process for the purification of a diaminophenothiazinium compound including the steps of: (i) contacting the diaminophenothiazinium compound with a metal-free reducing agent at an acidic pH to form a protonated stabilised diaminophenothiazinium complex; (ii) purifying the protonated stabilised diaminophenothiazinium complex; and (iii) contacting the purified protonated stabilised diaminophenothiazinium complex with an oxidising agent to convert it back to the diaminophenothiazinium compound, to thereby purify the diaminophenothiazinium compound. (i) contacting the diaminophenothiazinium compound with a metal-free reducing agent at an acidic pH to form a protonated stabilised diaminophenothiazinium complex; (ii) purifying the protonated stabilised diaminophenothiazinium complex; and (iii) contacting the purified protonated stabilised diaminophenothiazinium complex with an oxidising agent to convert it back to the diaminophenothiazinium compound, to thereby purify the diaminophenothiazinium compound.
A water-soluble film, comprising: a polyvinyl alcohol resin; and a plasticizer, wherein the plasticizer contains a polyhydric alcohol having a melting point of 80°C or more, a polyhydric alcohol having a melting point of 50°C or less, and a polyhydric alcohol having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol is sorbitol, the polyhydric alcohol is glycerin, and the polyhydric alcohol is trimethylolpropane, and wherein the content ratio of the polyhydric alcohol with respect to a total amount of the polyhydric alcohol, the polyhydric alcohol, and the polyhydric alcohol is 15 wt. % or less. a polyvinyl alcohol resin; and a plasticizer, wherein the plasticizer contains a polyhydric alcohol having a melting point of 80°C or more, a polyhydric alcohol having a melting point of 50°C or less, and a polyhydric alcohol having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol is sorbitol, the polyhydric alcohol is glycerin, and the polyhydric alcohol is trimethylolpropane, and wherein the content ratio of the polyhydric alcohol with respect to a total amount of the polyhydric alcohol, the polyhydric alcohol, and the polyhydric alcohol is 15 wt. % or less. a polyhydric alcohol having a melting point of 80°C or more, a polyhydric alcohol having a melting point of 50°C or less, and a polyhydric alcohol having a melting point of more than 50°C and less than 80°C, wherein the polyhydric alcohol is sorbitol, the polyhydric alcohol is glycerin, and the polyhydric alcohol is trimethylolpropane, and wherein the content ratio of the polyhydric alcohol with respect to a total amount of the polyhydric alcohol, the polyhydric alcohol, and the polyhydric alcohol is 15 wt. % or less.
An electronic device, comprising: - a battery, and - a heater for heating the battery as a first heating function of the heater, wherein the heater is further configured for performing a second heating function, wherein the first heating function is different from the second heating function, wherein the device is configured for switching between the first and second heating functions of the heater in dependence of a temperature of the battery, wherein the device is an aerosol-generating device, and wherein heating an aerosol-forming substrate is the second heating function. - a battery, and - a heater for heating the battery as a first heating function of the heater,
A device which is configured to be connected to a delivery server which stores a plurality of image analysis engines for each of which at least one of a shooting condition of image data appropriate for an image analysis or a target object to be detected among objects which are possibly included in image data is different, the device being configured to use an image analysis engine to perform an image analysis on image data obtained by a monitoring camera, the device comprising: a communication unit which is configured to receive, from the delivery server, an image analysis engine corresponding to at least one of the shooting condition of the image data obtained by the device or the target object which is set for the device, among the plurality of image analysis engines; and an analyzing unit which is configured to perform the image analysis by operating the received image analysis engine, wherein the communication unit is configured to additionally receive, from the delivery server, another image analysis engine corresponding to at least one of the shooting condition of the image data obtained by the device or the target object which is set for the device, among the plurality of image analysis engines, the communication unit is configured to receive, from the delivery server, a setting of a condition of determining a timing at which each image analysis engine in the device performs the image analysis. a communication unit which is configured to receive, from the delivery server, an image analysis engine corresponding to at least one of the shooting condition of the image data obtained by the device or the target object which is set for the device, among the plurality of image analysis engines; and an analyzing unit which is configured to perform the image analysis by operating the received image analysis engine, wherein the communication unit is configured to additionally receive, from the delivery server, another image analysis engine corresponding to at least one of the shooting condition of the image data obtained by the device or the target object which is set for the device, among the plurality of image analysis engines, the communication unit is configured to receive, from the delivery server, a setting of a condition of determining a timing at which each image analysis engine in the device performs the image analysis.
A cutting system for an autonomous mower comprising: a housing having an outer circumference including at least one vertical standoff, and an open lower portion; at least one rotating blade disk, provided within the housing and having a central portion, a top side, a bottom side, and a peripheral edge; a first pair of cutting blades pivotally secured to the bottom side of the blade disk between the central portion of the blade disk and the blade disk peripheral edge, and extending away from the blade disk at an angle; and a second pair of cutting blades pivotally secured to the bottom side of the blade disk radially inward and offset from the first pair of cutting blades, and extending away from the blade disk at an angle. a housing having an outer circumference including at least one vertical standoff, and an open lower portion; at least one rotating blade disk, provided within the housing and having a central portion, a top side, a bottom side, and a peripheral edge; a first pair of cutting blades pivotally secured to the bottom side of the blade disk between the central portion of the blade disk and the blade disk peripheral edge, and extending away from the blade disk at an angle; and a second pair of cutting blades pivotally secured to the bottom side of the blade disk radially inward and offset from the first pair of cutting blades, and extending away from the blade disk at an angle.
A parallelogram staircase with a walking surfaces incline system which is mounted on an undercarriage and includes a bottom link, a top link, multiple steps with walking surfaces, preferably 16 steps, and a platform where between the undercarriage and the platform there is a lifting frame changing the slope of the staircase, wherein the top link and the bottom link are attached between the undercarriage and the platform, the links (3 and 4) being linked by identical steps; wherein there is a distance A between attachments (2a and 2b) of an individual step at the top link and the bottom link wherein there is a distance B between the attachments of two adjacent steps at the top link, as well as between the attachments of these steps at the bottom link; that the parallelogram also consists of first attachments (5a and 5b) of the platform to the top link and to the bottom link and of the second attachments (2a and 2b) of the nearest step to the platform, wherein the distance between the first attachments (5a and 5b) is the distance A and the distance between pairs of first and second attachments (2a and 5a; 2b and 5b) is the distance B'; characterized in that the bottom link consists of a left bottom link and a right bottom link, which are composed of long bottom link parts (41a and 41a') and short bottom link parts (41b and 41b'), which are coupled in pairs and at an angle; that a distance C between third attachments (1a and 1b) of the top link and the bottom link (3 and 4) to the undercarriage is smaller than the distance A; that the distances between the third attachment of the bottom link and the pair of first and second attachments (2b and 5b) of the bottom link are larger than the distances between the third attachment of the top link the pair of first and second attachments (2a and 5a) of the top link, such that at the same change of the staircase slope the pair of attachments (2b and 5b) of the bottom link is moved by a greater distance than the pair of attachments (2a and 5a) of the top link, which causes a change in the incline of the walking surfaces of steps and the platform; that geometrical deviations between the positions of the third attachments of the rigid bottom link at different staircase slopes are accommodated by the third attachments of the bottom link being linearly moveable along beds (13 and 13') of the undercarriage.
A method for determining information about accuracy variation over temperature of a solenoid fluid control valve, the method comprising: performing a current sweep at a first temperature, the current sweep comprising supplying, by a variable current source, a first current to a coil of the solenoid fluid control valve, changing the first current, and recording at least one resulting control pressure (step 100); for at least one command pressure, determining an error in a control pressure at the first temperature based on the current sweep by determining a command current corresponding to the at least one command pressure based on the current sweep, supplying the command current to the solenoid fluid control valve, and measuring a resulting control pressure (step 102); calculating a metric based on the current sweep (step 104); and determining a pressure error offset for a second temperature based on the metric (step 110). performing a current sweep at a first temperature, the current sweep comprising supplying, by a variable current source, a first current to a coil of the solenoid fluid control valve, changing the first current, and recording at least one resulting control pressure (step 100); for at least one command pressure, determining an error in a control pressure at the first temperature based on the current sweep by determining a command current corresponding to the at least one command pressure based on the current sweep, supplying the command current to the solenoid fluid control valve, and measuring a resulting control pressure (step 102); calculating a metric based on the current sweep (step 104); and determining a pressure error offset for a second temperature based on the metric (step 110).
A window assembly comprising: a substrate (17, 18, 20); a transparent layer disposed on said substrate (17, 18, 20) and defining an area having a periphery and with said transparent layer comprising a metal compound such that said transparent layer is electrically conductive; an outer region devoid of said transparent layer defined adjacent said transparent layer along said periphery; an antenna element disposed on said substrate (17, 18, 20) and being configured to transmit and/or receive radio frequency signals, and with said antenna element including: a first antenna segment disposed in said outer region and spaced from said periphery with said first antenna segment being elongated and extending along said periphery; and a second antenna segment and a third antenna segment each extending substantially perpendicular from said first antenna segment toward said transparent layer such that each of said second and third antenna segments (50, 70) crosses said periphery of said transparent layer with said second and third antenna segments (50, 70) each abutting and being in direct electrical contact with said transparent layer; and a feeding element coupled to said antenna element for energizing said antenna segments (40, 50, 70) and said transparent layer such that said antenna segments (40, 50, 70) and said transparent layer collectively transmit and/or receive radio frequency signals. a substrate (17, 18, 20); a transparent layer disposed on said substrate (17, 18, 20) and defining an area having a periphery and with said transparent layer comprising a metal compound such that said transparent layer is electrically conductive; an outer region devoid of said transparent layer defined adjacent said transparent layer along said periphery; an antenna element disposed on said substrate (17, 18, 20) and being configured to transmit and/or receive radio frequency signals, and with said antenna element including: a first antenna segment disposed in said outer region and spaced from said periphery with said first antenna segment being elongated and extending along said periphery; and a second antenna segment and a third antenna segment each extending substantially perpendicular from said first antenna segment toward said transparent layer such that each of said second and third antenna segments (50, 70) crosses said periphery of said transparent layer with said second and third antenna segments (50, 70) each abutting and being in direct electrical contact with said transparent layer; and a feeding element coupled to said antenna element for energizing said antenna segments (40, 50, 70) and said transparent layer such that said antenna segments (40, 50, 70) and said transparent layer collectively transmit and/or receive radio frequency signals.
A method for preparing a compound of formula: or a salt or solvate thereof, comprising the steps of: (a) carboxylating a compound of formula or a salt thereof: under reaction conditions sufficient to form a compound of formula or a hydrate, solvate, or salt thereof: (b) chlorinating a compound of formula or a hydrate, solvate or salt thereof under reaction conditions sufficient to form a compound of formula or a salt thereof: and (c) contacting a compound of formula or a salt thereof with a compound of formula or a salt thereof: under reaction conditions sufficient to yield a compound of formula. (a) carboxylating a compound of formula or a salt thereof: under reaction conditions sufficient to form a compound of formula or a hydrate, solvate, or salt thereof: (b) chlorinating a compound of formula or a hydrate, solvate or salt thereof under reaction conditions sufficient to form a compound of formula or a salt thereof: and (c) contacting a compound of formula or a salt thereof with a compound of formula or a salt thereof: under reaction conditions sufficient to yield a compound of formula.
A method for operating a system for controlling an implantable medical device susceptible to malfunctioning during exposure to at least one of a magnetic field or a Radio Frequency field, the method comprising the steps of: detecting exposure of the implantable device to the at least one of the magnetic field or the Radio Frequency field using a sensing device (105; 205; 315); when the at least one field being detected exceeds a corresponding predetermined threshold level, generating an input signal at a microcontroller; automatically triggering, in response to the generated input signal, (i) a safety mode enabling a predetermined safety mode operation that alters some operation, without ceasing all operation, of the implantable medical device, and (ii) after expiration of a predetermined safety mode time interval when the at least one field being detected falls below its corresponding predetermined threshold level or a predetermined period of time elapses, a self testing mode enabling a predetermined self testing operation to verify proper operation of the implantable medical device, characterised in that; the predetermined safety mode operation further comprises (i) duplicating all data, (ii) saving all data to a memory, (iii) short circuiting a transmitter/receiver of the implantable medical device, (iv) calculating memory checksums to be verified during the self testing mode, and (v) storing data detected by the sensing device. detecting exposure of the implantable device to the at least one of the magnetic field or the Radio Frequency field using a sensing device (105; 205; 315); when the at least one field being detected exceeds a corresponding predetermined threshold level, generating an input signal at a microcontroller; automatically triggering, in response to the generated input signal, (i) a safety mode enabling a predetermined safety mode operation that alters some operation, without ceasing all operation, of the implantable medical device, and (ii) after expiration of a predetermined safety mode time interval when the at least one field being detected falls below its corresponding predetermined threshold level or a predetermined period of time elapses, a self testing mode enabling a predetermined self testing operation to verify proper operation of the implantable medical device, characterised in that; the predetermined safety mode operation further comprises (i) duplicating all data, (ii) saving all data to a memory, (iii) short circuiting a transmitter/receiver of the implantable medical device, (iv) calculating memory checksums to be verified during the self testing mode, and (v) storing data detected by the sensing device.