mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wireless device, the method comprising: the wireless device transmitting at least one request message for receipt by a wireless network to at least one of request attachment of the wireless device to the wireless network and request location updating for the wireless device from the wireless network; and, the wireless device subsequently attempting an emergency call to a wireless network regardless of whether or not the wireless device receives a response to the request. the wireless device transmitting at least one request message for receipt by a wireless network to at least one of request attachment of the wireless device to the wireless network and request location updating for the wireless device from the wireless network; and, the wireless device subsequently attempting an emergency call to a wireless network regardless of whether or not the wireless device receives a response to the request.
A system comprising: a magnetic separator comprising a first pole end (22, 24, 1102, 1104, 1106, 1108) and an opposing second pole end (22, 24, 1102, 1104, 1106, 1108) separated by a gap, for applying a magnetic field across said gap, said magnetic field decreasing from said pole ends towards an area of minimum field between said pole ends; and a microfluidic chip (14, 714, 814, 1014, 1214A, 1214B, 1214C) having a first face (32, 34) and an opposite second face (32, 34), defining a first fluid channel (36, 38, 706, 806, 1036A, 1036B, 1036C, 1036D, 1236A, 1236B, 1236C) adjacent said first face and a second fluid channel (36, 38, 706, 806, 1036A, 1036B, 1036C, 1036D, 1236A, 1236B, 1236C) adjacent said second face, said chip inserted into said gap with said area of minimum field being positioned between, and offset from, said first and second channels. a magnetic separator comprising a first pole end (22, 24, 1102, 1104, 1106, 1108) and an opposing second pole end (22, 24, 1102, 1104, 1106, 1108) separated by a gap, for applying a magnetic field across said gap, said magnetic field decreasing from said pole ends towards an area of minimum field between said pole ends; and a microfluidic chip (14, 714, 814, 1014, 1214A, 1214B, 1214C) having a first face (32, 34) and an opposite second face (32, 34), defining a first fluid channel (36, 38, 706, 806, 1036A, 1036B, 1036C, 1036D, 1236A, 1236B, 1236C) adjacent said first face and a second fluid channel (36, 38, 706, 806, 1036A, 1036B, 1036C, 1036D, 1236A, 1236B, 1236C) adjacent said second face, said chip inserted into said gap with said area of minimum field being positioned between, and offset from, said first and second channels.
Thermomagnetic actuator suitable for use in a security electric switch, which is together with an interrupting assembly mountable within the casing of the security electric switch, and which comprises a tubular casing, which is closed on its one end portion (1") and which is widened on its open end portion and is in the area of said open end portion adapted to receive a cover, wherein an actuating needle is inserted within said casing, which is centrally arranged and displaceable to and fro along said casing and which moreover in the area of said cover protrudes outside of said casing wherein said needle is placed at certain distance apart from the closed end portion (1") of said casing, and wherein an immovable yoke and a displaceable anchor are inserted within said casing, so that said yoke is located adjacent to said widened open end portion of the casing and the needle is extending through it with the possibility of its previously mentioned to and fro displacement, and that the anchor is arranged in the area of said closed end portion (1") of the casing adjacent to said needle and can be displaced to and fro within said casing towards the yoke or away from it, and wherein a compression spring is also inserted within said casing between said yoke and said anchor and is intended to press the anchor away from the yoke, wherein the anchor is furnished on it side faced towards the yoke with a centrally arranged cavity (2"), the cavity (2") being adapted to receive a portion of said spring which is faced towards the anchor but not that portion of the spring, which is faced towards the yoke, and wherein moreover also a bimetallic disc is inserted within said casing, through which said actuating needle is extending and is by means of said bimetallic disc axially displaceable in a direction towards said interrupting assembly of the switch, and wherein an electromagnetic coil is wound around said casing, which is electrically connectable into an electric circuit which is established throughout the security electric switch in which said thermomagnetic actuator is integrated, characterized in that said yoke is along its complete circumference spaced apart from the internal surface of the casing and is surrounded with an thermal insulating ring, which is uninterrupted along its complete circumference and on the one hand rests on the internal surface of the casing and on the other hand rests on said yoke, and in that the anchor is, at least on its side which is faced towards the closed end portion (1") of the casing, furnished with a centrally arranged axial through-passage, wherein said axial through-passage within the anchor is adapted to receive a thermal insulating guide, which is inserted between the anchor and the casing, and in that a thermal insulating bush is inserted between said bimetallic disc and said actuating needle.
A computer-implemented method for cooking food, comprising: receiving image data corresponding to a view of a food item during a cooking process implemented by a cooking apparatus; identifying a region of interest in the view, wherein the region of interest comprises an indication of liquid leached out from the food item as a result of the cooking process; and determining a cooked level of the food item based on: a distribution of the liquid on a surface in the view; and a parameter value indicative of the cooked level of the food item, wherein the parameter value is derived from a part of the image data that corresponds to the region of interest; characterised in that the distribution of the liquid is indicated by a flow path of the liquid on the surface, and wherein the region of interest comprises a location along the flow path. receiving image data corresponding to a view of a food item during a cooking process implemented by a cooking apparatus; identifying a region of interest in the view, wherein the region of interest comprises an indication of liquid leached out from the food item as a result of the cooking process; and determining a cooked level of the food item based on: a distribution of the liquid on a surface in the view; and a parameter value indicative of the cooked level of the food item, wherein the parameter value is derived from a part of the image data that corresponds to the region of interest; characterised in that the distribution of the liquid is indicated by a flow path of the liquid on the surface, and wherein the region of interest comprises a location along the flow path. a distribution of the liquid on a surface in the view; and a parameter value indicative of the cooked level of the food item, wherein the parameter value is derived from a part of the image data that corresponds to the region of interest; characterised in that the distribution of the liquid is indicated by a flow path of the liquid on the surface, and wherein the region of interest comprises a location along the flow path.
A laminated glass structure, comprising: a substrate having a thickness from 2.5 mm to 50 mm and primary surfaces; a buffer layer having a thickness from 0.1 mm to 2.5 mm, an elastic modulus of at least 70 GPa and a coefficient of thermal expansion between 4 and 25 ppm ∗ °C -1 laminated to the substrate with a first adhesive; and a flexible glass sheet having a thickness of no greater than 0.3 mm laminated to the buffer layer with a second adhesive; and wherein the buffer layer comprises a metal alloy; or the substrate comprises a material selected from the group consisting of a polymer, a wood, a low pressure laminate, a high pressure laminate, a melamine-containing laminate, a particle-reinforced board, a fiber-reinforced board, and a medium density fiberboard. a substrate having a thickness from 2.5 mm to 50 mm and primary surfaces; a buffer layer having a thickness from 0.1 mm to 2.5 mm, an elastic modulus of at least 70 GPa and a coefficient of thermal expansion between 4 and 25 ppm ∗ °C -1 laminated to the substrate with a first adhesive; and a flexible glass sheet having a thickness of no greater than 0.3 mm laminated to the buffer layer with a second adhesive; and wherein the buffer layer comprises a metal alloy; or the substrate comprises a material selected from the group consisting of a polymer, a wood, a low pressure laminate, a high pressure laminate, a melamine-containing laminate, a particle-reinforced board, a fiber-reinforced board, and a medium density fiberboard.
A compressor comprising: a shell; a terminal block attached to said shell; a fence at least partially surrounding the terminal block; a terminal plug engaging said terminal block; and an electrical component housing (312, 412) comprising: a base (314, 414) including aperture (321, 421) extending through a surface facing said shell; and a lid (316, 416) engaging said base (314, 414) and cooperating with said base (314, 414) to define the electrical component housing (312, 412); wherein said aperture (321, 421) is engaging said fence so that said fence extends through said aperture (321, 421), so that said base (314, 414) is hanging from said fence, and wherein the compressor is characterised in that said terminal plug is disposed outside of said electrical component housing (312, 412). a shell; a terminal block attached to said shell; a fence at least partially surrounding the terminal block; a terminal plug engaging said terminal block; and an electrical component housing (312, 412) comprising: a base (314, 414) including aperture (321, 421) extending through a surface facing said shell; and a lid (316, 416) engaging said base (314, 414) and cooperating with said base (314, 414) to define the electrical component housing (312, 412); a base (314, 414) including aperture (321, 421) extending through a surface facing said shell; and a lid (316, 416) engaging said base (314, 414) and cooperating with said base (314, 414) to define the electrical component housing (312, 412); wherein said aperture (321, 421) is engaging said fence so that said fence extends through said aperture (321, 421), so that said base (314, 414) is hanging from said fence, and wherein the compressor is characterised in that said terminal plug is disposed outside of said electrical component housing (312, 412).
Method for joining a plurality of individual digital images to form a total image, comprising the steps: - providing a first individual digital image (I a) and a second individual digital image (I b) overlapping the latter, - determining a plurality of features of the first individual image (I a), wherein the features are each allocated first feature coordinates, - determining the features in the second individual image (I b), wherein the features are each allocated second feature coordinates, - determining a transformation matrix having at least six degrees of freedom between the individual images (I a, I b), in that -- a first part quantity of the features is selected, -- a test transformation matrix is calculated from the first and second feature coordinates of this part quantity, -- a quality value is determined for the test transformation matrix with a second part quantity of the features, and -- the transformation matrix is determined proceeding from the test transformation matrix, when the quality value fulfils a quality criterion, and - joining the individual images (I a, I b) to form a total image by means of the transformation matrix characterized in that the feature coordinates are normalized before the calculation of the transformation matrix and the normalization takes place in such a way that the feature coordinates belonging to an individual image (I a, I b) each have an average distance of 2 from a focal point calculated from these feature coordinates. - providing a first individual digital image (I a) and a second individual digital image (I b) overlapping the latter, - determining a plurality of features of the first individual image (I a), wherein the features are each allocated first feature coordinates, - determining the features in the second individual image (I b), wherein the features are each allocated second feature coordinates, - determining a transformation matrix having at least six degrees of freedom between the individual images (I a, I b), in that -- a first part quantity of the features is selected, -- a test transformation matrix is calculated from the first and second feature coordinates of this part quantity, -- a quality value is determined for the test transformation matrix with a second part quantity of the features, and -- the transformation matrix is determined proceeding from the test transformation matrix, when the quality value fulfils a quality criterion, and -- a first part quantity of the features is selected, -- a test transformation matrix is calculated from the first and second feature coordinates of this part quantity, -- a quality value is determined for the test transformation matrix with a second part quantity of the features, and -- the transformation matrix is determined proceeding from the test transformation matrix, when the quality value fulfils a quality criterion, and - joining the individual images (I a, I b) to form a total image by means of the transformation matrix
A system for determining rated capacity of an offshore crane, the system comprising: a rangefinder mounted on a crane boom proximate a crane boom tip; said rangefinder having a signal transmitter and a signal receiver; said rangefinder oriented to direct a signal downward; said rangefinder oriented to receive a refracted signal from a refractive surface proximate a target load said rangefinder adapted and configured to determine vertical distance measurements of said boom tip to said refractive surface based on said refracted signal; and said rangefinder including a signal processor; and a data processor disposed on said crane and operably connected to said signal processor; said system adapted and configured_to utilize said vertical distance measurements to determine velocity measurements of relative movement of said refractive surface in relation to said boom tip; and said system adapted and configured to calculate a load capacity of said crane utilizing said velocity measurements of relative movement. a rangefinder mounted on a crane boom proximate a crane boom tip; said rangefinder having a signal transmitter and a signal receiver; said rangefinder oriented to direct a signal downward; said rangefinder oriented to receive a refracted signal from a refractive surface proximate a target load said rangefinder adapted and configured to determine vertical distance measurements of said boom tip to said refractive surface based on said refracted signal; and said rangefinder including a signal processor; and said rangefinder having a signal transmitter and a signal receiver; said rangefinder oriented to direct a signal downward; said rangefinder oriented to receive a refracted signal from a refractive surface proximate a target load said rangefinder adapted and configured to determine vertical distance measurements of said boom tip to said refractive surface based on said refracted signal; and said rangefinder including a signal processor; and a data processor disposed on said crane and operably connected to said signal processor; said system adapted and configured_to utilize said vertical distance measurements to determine velocity measurements of relative movement of said refractive surface in relation to said boom tip; and said system adapted and configured to calculate a load capacity of said crane utilizing said velocity measurements of relative movement. said system adapted and configured_to utilize said vertical distance measurements to determine velocity measurements of relative movement of said refractive surface in relation to said boom tip; and said system adapted and configured to calculate a load capacity of said crane utilizing said velocity measurements of relative movement.
A primer composition containing a) at least one organic binder dispersed or dispersible in water, wherein the binder is present in a quantity, based on the total weight of the composition, of no more than 7.0 wt.% (solids content), b) at least one hydrophobing agent, wherein the hydrophobing agent is present in a quantity, based on the total weight of the composition, of no more than 1.75 wt.% (solids or active substance content), and c) at least 90.25 wt.% water and d) optionally at least one in-can preservative, wherein the components forming the primer composition always add up to 100.0 wt.%. a) at least one organic binder dispersed or dispersible in water, wherein the binder is present in a quantity, based on the total weight of the composition, of no more than 7.0 wt.% (solids content), b) at least one hydrophobing agent, wherein the hydrophobing agent is present in a quantity, based on the total weight of the composition, of no more than 1.75 wt.% (solids or active substance content), and c) at least 90.25 wt.% water and d) optionally at least one in-can preservative,
Process for building tyres for vehicle wheels, comprising: - building a green tyre by forming its components on at least one forming drum; - moulding and vulcanising the green tyre; wherein forming at least one of the components of the green tyre comprises: - advancing a continuous elongated element towards the forming drum along a zigzag path defined by a plurality of idle rollers (19, 21) on which said continuous elongated element is partially wound; - applying said continuous elongated element on said forming drum; characterized in that, during the movement through the zigzag path, said continuous elongated element is partially wound around at least one drive element (29, 31) operatively interposed between the idle rollers (19, 21), said drive element (29, 31) being moved in rotation by a motor (30, 32) in one sense in accordance with a feed direction (F1-F8) of the continuous elongated element through said path; wherein a torque (C d) is applied at at least one drive element (29, 31) placed along said zigzag path, in a manner such that the continuous elongated element is conducted in the feed direction (F1-F8) and that the longitudinal tension (σ d) in the continuous elongated element downstream of said drive element (29, 31) is reduced with respect to the longitudinal tension (σ u) upstream of said drive element (29, 31). - building a green tyre by forming its components on at least one forming drum; - moulding and vulcanising the green tyre; - advancing a continuous elongated element towards the forming drum along a zigzag path defined by a plurality of idle rollers (19, 21) on which said continuous elongated element is partially wound; - applying said continuous elongated element on said forming drum;
Multiple cam for an assembled camshaft of an internal combustion engine having at least two cam profiles (3, 4) in which at least a first cam profile for sliding actuation and at least a second cam profile for rolling actuation is constructed, characterised in that the multiple cam carries in the region of the second cam profile a steel profile which is cast in the multiple cam.
A gas turbine engine, comprising: a nacelle having an inner wall providing a bypass duct of a gas turbine engine, and an outer wall; an accessory gearbox being received between the inner wall and the outer wall of the nacelle; and an accessory drive (D4,D5) of the accessory gearbox, the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T) that is transverse to a central axis of the gas turbine engine, characterized in that: the accessory drive axis (A T) extends tangentially relative to the nacelle. a nacelle having an inner wall providing a bypass duct of a gas turbine engine, and an outer wall; an accessory gearbox being received between the inner wall and the outer wall of the nacelle; and an accessory drive (D4,D5) of the accessory gearbox, the accessory drive (D4,D5) configured to rotate about an accessory drive axis (A T) that is transverse to a central axis of the gas turbine engine, characterized in that: the accessory drive axis (A T) extends tangentially relative to the nacelle.
A composition comprising i) an alkali metal salt of an aldonic acid, which is sodium gluconate; ii) 0.1 to 5 wt %, citric acid by weight of the total composition; and iii) a surfactant, selected from an anionic surfactant and a cationic surfactant; wherein the composition has a pH of from 3 to 5. i) an alkali metal salt of an aldonic acid, which is sodium gluconate; ii) 0.1 to 5 wt %, citric acid by weight of the total composition; and iii) a surfactant, selected from an anionic surfactant and a cationic surfactant;
A process for preparing a geopolymer foam comprising the following steps: (i) preparing an aqueous foam having a water volume fraction at atmospheric pressure of 8% or less by adding one or more surfactants to water and bubbling an inert gas or air into the mixture; (ii) preparing a metakaolin suspension with a weight ratio of liquid to metakaolin in the range of from 1.3 to 2.3; (iii) mixing the aqueous foam and the metakaolin suspension; and (iv) setting the resulting mixture. (i) preparing an aqueous foam having a water volume fraction at atmospheric pressure of 8% or less by adding one or more surfactants to water and bubbling an inert gas or air into the mixture; (ii) preparing a metakaolin suspension with a weight ratio of liquid to metakaolin in the range of from 1.3 to 2.3; (iii) mixing the aqueous foam and the metakaolin suspension; and (iv) setting the resulting mixture.
A method for detecting hydrogen cyanide, HCN, the method comprising: receiving an ambient gas into a housing of a sensor, wherein the ambient gas comprises HCN gas and hydrogen sulfide, H 2 S, gas, and wherein the sensor comprises a porous working electrode and a counter electrode; filtering the H 2 S gas from the ambient gas through a filter, wherein the filter is incorporated into the sensor and the filter comprises 3 grams of silver sulfate layered onto an 8 grams of polytetrafluoroethylene, PTFE, support material; applying a voltage potential between the counter electrode and the porous working electrode; contacting the ambient gas with the porous working electrode; allowing the ambient gas to diffuse through the porous working electrode to contact an electrolyte within the housing; generating a current between the porous working electrode and the counter electrode in response to a reaction between the ambient gas and the electrolyte at a surface area of the porous working electrode; and determining a concentration of the HCN in the ambient gas based on the current. receiving an ambient gas into a housing of a sensor, wherein the ambient gas comprises HCN gas and hydrogen sulfide, H 2 S, gas, and wherein the sensor comprises a porous working electrode and a counter electrode; filtering the H 2 S gas from the ambient gas through a filter, wherein the filter is incorporated into the sensor and the filter comprises 3 grams of silver sulfate layered onto an 8 grams of polytetrafluoroethylene, PTFE, support material; applying a voltage potential between the counter electrode and the porous working electrode; contacting the ambient gas with the porous working electrode; allowing the ambient gas to diffuse through the porous working electrode to contact an electrolyte within the housing; generating a current between the porous working electrode and the counter electrode in response to a reaction between the ambient gas and the electrolyte at a surface area of the porous working electrode; and determining a concentration of the HCN in the ambient gas based on the current.