mhurhangee/ep-ind-claims huggingface dataset:
Method for managing phone calls in a communication system comprising a called endpoint associated with a group of endpoints, said group comprising the called endpoint and at least one monitoring endpoint, the group of endpoints being associated with a same user, wherein, for an incoming phone call from a calling endpoint to the called endpoint: 1) the called endpoint receives a request to establish the incoming phone call from the calling endpoint; characterized in that 2) the called endpoint sends a message to a server of the communication system, said message reporting about the incoming phone call from the calling endpoint; a) the server receives the message from the called endpoint reporting about the incoming phone call from the calling endpoint to the called endpoint; b) the server identifies said group of endpoints associated with the called endpoint based on said message; c) the server identifies the at least one monitoring endpoint associated with the group of endpoints identified in step b); d) the server sends to the at least one monitoring endpoint identified in step c) a message notifying the incoming phone call from the calling endpoint to the called endpoint. 1) the called endpoint receives a request to establish the incoming phone call from the calling endpoint; 2) the called endpoint sends a message to a server of the communication system, said message reporting about the incoming phone call from the calling endpoint; a) the server receives the message from the called endpoint reporting about the incoming phone call from the calling endpoint to the called endpoint; b) the server identifies said group of endpoints associated with the called endpoint based on said message; c) the server identifies the at least one monitoring endpoint associated with the group of endpoints identified in step b); d) the server sends to the at least one monitoring endpoint identified in step c) a message notifying the incoming phone call from the calling endpoint to the called endpoint. a) the server receives the message from the called endpoint reporting about the incoming phone call from the calling endpoint to the called endpoint; b) the server identifies said group of endpoints associated with the called endpoint based on said message; c) the server identifies the at least one monitoring endpoint associated with the group of endpoints identified in step b); d) the server sends to the at least one monitoring endpoint identified in step c) a message notifying the incoming phone call from the calling endpoint to the called endpoint.
An aluminum magnesium titanate crystal structure, said aluminum magnesium titanate crystal structure comprising a solid solution wherein at least some of Al atoms in the surface layer of aluminum magnesium titanate crystal represented by the empirical formula: Mg x Al 2(1-x) Ti (1+x) O 5 (wherein 0.25≤x<1) are substituted with Si atoms, wherein in the solid solution, 0.1 to 1 mol% of Al atoms are substituted with Si atoms, and which has a thermal expansion coefficient of from -6x10 -6 (1/K) to 6x10 -6 (1/K) in a range of from 50 to 800°C at a temperature raising rate of 20°C/min, and a remaining ratio α of aluminum magnesium titanate of at least 50%, when held in an atmosphere of 1,100°C for 300 hours, whereby the remaining ratio α is obtained by means of an XRD measurement and is defined as follows: α = R / R 0 × 100 R = intensity ratio I MAT /(I MAT + I TiO2), measured after holding a specimen in an atmosphere of 1100°C upon expiration of 300 hours, I TiO2 integrated intensity of the diffraction peak at the face of rutile, I MAT integrated intensity of the diffraction peak at the face of aluminum titanate; and R 0 intensity ratio of aluminum magnesium titanate to rutile as defined for R but measured before carrying out the thermal treatment at 1100°C; wherein said aluminum magnesium titanate crystal structure is obtainable by a process comprising firing at a temperature of from 1,200 to 1,700°C, a raw material mixture having 1 to 10 parts by mass of a silicon-containing compound that is an aluminosilicate selected from plagioclase, feldspathoid, mica clay mineral, zeolite or cordierite, which has a melting point of from 700 to 1,500°C, mixed to 100 parts by mass of a mixture comprising a Mg-containing compound, Al-containing compound and Ti-containing compound in the same ratio as the metal component ratio of Mg, Al and Ti in aluminum magnesium titanate represented by the empirical formula Mg x Al 2(1-x) Ti (1+x) O 5 (wherein 0.25≤x<1), as calculated as the respective oxides, wherein aluminum magnesium titanate crystal is formed in a liquid phase of the silicon-containing compound, wherein if the silicon-containing compound is a plagioclase, NaAlSi 3 O 8 is excluded from the silicon-containing compound. R = intensity ratio I MAT /(I MAT + I TiO2), measured after holding a specimen in an atmosphere of 1100°C upon expiration of 300 hours, I TiO2 integrated intensity of the diffraction peak at the face of rutile, I MAT integrated intensity of the diffraction peak at the face of aluminum titanate; and R 0 intensity ratio of aluminum magnesium titanate to rutile as defined for R but measured before carrying out the thermal treatment at 1100°C;
Hysteresis clutch, particularly for transmitting of rotational energy in machines, having a first rotor rotatable about a rotation axis (Ax) and comprising a number M of permanent magnets with a first coercive field strength (H C1), having prismatic wedge-shaped pole pieces arranged on the first rotor, which have trapezoidal axially oriented end faces, wherein the permanent magnets of the first rotor have a trapezoidal cross-section and are arranged in pockets having a trapezoidal cross-section, being formed between adjacent pole pieces, and having a narrow side radially on the outside and a broad side radially on the inside, having a second rotor rotatable about the rotation axis (Ax) comprising a number S of permanent magnets with a second coercive field strength (H C2) which is lower than the first coercive field strength (H C1), wherein the number S of the permanent magnets of the second rotor is at least two and the product of the number M times the number S divided by 180 is a power of the number two, i.e.: M*S/180=2 N, wherein N is a natural number [N=0, 1, 2, 3...], having a truncated cone-shaped or cylindrical air gap formed between the first rotor and the second rotor. having a first rotor rotatable about a rotation axis (Ax) and comprising a number M of permanent magnets with a first coercive field strength (H C1), having prismatic wedge-shaped pole pieces arranged on the first rotor, which have trapezoidal axially oriented end faces, wherein the permanent magnets of the first rotor have a trapezoidal cross-section and are arranged in pockets having a trapezoidal cross-section, being formed between adjacent pole pieces, and having a narrow side radially on the outside and a broad side radially on the inside, having a second rotor rotatable about the rotation axis (Ax) comprising a number S of permanent magnets with a second coercive field strength (H C2) which is lower than the first coercive field strength (H C1), wherein the number S of the permanent magnets of the second rotor is at least two and the product of the number M times the number S divided by 180 is a power of the number two, i.e.: M*S/180=2 N, wherein N is a natural number [N=0, 1, 2, 3...], having a truncated cone-shaped or cylindrical air gap formed between the first rotor and the second rotor.
An apparatus for measuring fluid speed, the apparatus comprising: a channel (110, 210) having a passage formed therein for holding a fluid flowing therethrough; a first light source (121, 221) and a second light source (122, 222) located in any one region of an upper part and a lower part of the channel; a sensor (130, 230) installed in an opposite region of the region where the first light source (121, 221) and the second light source (122, 222) are located with respect to the channel (110, 210), the sensor (130, 230) configured to receive light emitted from the first light source and the second light source; and a speed calculation unit (140, 240) configured to calculate a speed of the fluid by using an intensity of light received at the sensor, characterized in that the sensor (130, 230), being positioned at a predetermined distance (k) from the channel (110, 210), is sized to receive light from both the first and the second light sources, and wherein the first and second light sources are adapted to emit light not parallel with each other, such that the size of the sensor is smaller than would be required in case of parallel beams. a channel (110, 210) having a passage formed therein for holding a fluid flowing therethrough; a first light source (121, 221) and a second light source (122, 222) located in any one region of an upper part and a lower part of the channel; a sensor (130, 230) installed in an opposite region of the region where the first light source (121, 221) and the second light source (122, 222) are located with respect to the channel (110, 210), the sensor (130, 230) configured to receive light emitted from the first light source and the second light source; and a speed calculation unit (140, 240) configured to calculate a speed of the fluid by using an intensity of light received at the sensor, characterized in that the sensor (130, 230), being positioned at a predetermined distance (k) from the channel (110, 210), is sized to receive light from both the first and the second light sources, and wherein the first and second light sources are adapted to emit light not parallel with each other, such that the size of the sensor is smaller than would be required in case of parallel beams.
An iron alloy being characterized in that: it consists of aluminum (Al) in an amount of from 3 to 5.5% by mass (hereinafter being simply referred to as "%"); manganese (Mn) in an amount from 0.2 to 6%; chromium (Cr) in an amount of from 1 to 8%; and the balance being iron (Fe), and inevitable impurities; when the entirety is taken as 100%; and it exhibits a good damping property, and/or a soft magnetic property. it consists of aluminum (Al) in an amount of from 3 to 5.5% by mass (hereinafter being simply referred to as "%"); manganese (Mn) in an amount from 0.2 to 6%; chromium (Cr) in an amount of from 1 to 8%; and the balance being iron (Fe), and inevitable impurities; when the entirety is taken as 100%; and it exhibits a good damping property, and/or a soft magnetic property.
A magnetic element, comprising: (a) a first seed layer consisting of TaN; (b) a second seed layer contacting a top surface of the first seed layer and consisting of Mg,or MgZr, wherein the second seed layer forms a first interface with a magnetic layer; (c) the magnetic layer that has perpendicular magnetic anisotropy; and (d) a tunnel barrier layer comprised of MgO or another oxide that is formed on the magnetic layer to give a composite seed layer/magnetic layer/tunnel barrier layer configuration; so that the first seed layer and the second seed layer give a TaN/Mg or TaN/MgZr configuration. (a) a first seed layer consisting of TaN; (b) a second seed layer contacting a top surface of the first seed layer and consisting of Mg,or MgZr, wherein the second seed layer forms a first interface with a magnetic layer; (c) the magnetic layer that has perpendicular magnetic anisotropy; and (d) a tunnel barrier layer comprised of MgO or another oxide that is formed on the magnetic layer to give a composite seed layer/magnetic layer/tunnel barrier layer configuration;
A protective packaging structure for transporting compressible materials, the structure comprising: a containment unit having a first, lower shell and a second, upper shell, the first, lower shell including one or more wells for receiving a compressible material therein, each of the one or more wells having a surface feature to facilitate containment and reduce movement of the compressible material within the one or more wells, and the second, upper shell being configured to nest against the first, lower shell to form a closed container, the upper shell further having raised portions configured to define discrete geometries of the compressible material, wherein the first, lower shell and the second, upper shell are configured to attach to each other and create an interior volume within the closed container sufficient to exert a compressive force against the compressible material within the closed container and protect the compressive material from shock, vibration, deformation, or separation from agitation when inside the closed container; and wherein the raised portions each comprise substantially linear raised hatch marks arranged in a cross pattern to form rectangular geometries. a containment unit having a first, lower shell and a second, upper shell, the first, lower shell including one or more wells for receiving a compressible material therein, each of the one or more wells having a surface feature to facilitate containment and reduce movement of the compressible material within the one or more wells, and the second, upper shell being configured to nest against the first, lower shell to form a closed container, the upper shell further having raised portions configured to define discrete geometries of the compressible material, wherein the first, lower shell and the second, upper shell are configured to attach to each other and create an interior volume within the closed container sufficient to exert a compressive force against the compressible material within the closed container and protect the compressive material from shock, vibration, deformation, or separation from agitation when inside the closed container; and wherein the raised portions each comprise substantially linear raised hatch marks arranged in a cross pattern to form rectangular geometries.
A serum fucosidase detection kit, comprises a reagent 1 and a reagent 2, reagent 1: buffer (pH4.0-4.5) 50 -500 mmol/l surface active agent 1 -50 g/l anti-interference agent 1-20 g/L preservative 0.1 -100 g/L; reagent 2: buffer (pH7.0-7.5) 50 -500 mmol/L glucose 2-60 g/L hexokinase 1 -20 KU/L glucose-6-phosphate dehydrogenase 1 -20 KU/l magnesium sulfate 0.3-5 g/L substrate 0.2-5 g/L stabilizer 1-100 mmol/L protective agent 0.1-40 g/L preservative 0.1-100 g/L, wherein the substrate is 2-chloro-p-nitrophenol-α-L-fucoside (CNP-AFU) or polyvinylsulfuric acid potassium salt with CNP-AFU and the stabilizer is reduced coenzyme I (NADH) or reduced coenzyme II (NADPH).
A supply air device comprising a frame structure having a bottom plate facing a room, into which the supply air is arranged to be discharged from the supply air device, wherein - the bottom plate comprises circular openings, and - rotatable supply air nozzles are arranged within each opening, characterized in that - the perimeter of each circular opening comprises a plurality of opening detents, and - the perimeter of each supply air nozzle comprises at least one nozzle detent engageable with the opening detents, wherein - the supply air nozzle is rotatable about its central axis between positions where at least one nozzle detent is engaged with opening detents. - the bottom plate comprises circular openings, and - rotatable supply air nozzles are arranged within each opening, - the perimeter of each circular opening comprises a plurality of opening detents, and - the perimeter of each supply air nozzle comprises at least one nozzle detent engageable with the opening detents, wherein - the supply air nozzle is rotatable about its central axis between positions where at least one nozzle detent is engaged with opening detents.
A process for the heat treatment of a coating deposited on at least one portion of a first face of a substrate comprising a first face and a second face opposite said first face, wherein said coating is treated by means of a laser radiation focused on said coating in the form of a laser line extending along a first direction, said heat treatment being such that, in a second direction transverse to said first direction, a relative displacement movement is created between said substrate and said laser line, said process being characterized in that said second face is heated locally at a temperature of at least 30°C in an additional heating zone extending facing said laser line over a length of at least 10 cm along said second direction, with the aid of at least one additional heating means positioned on the side opposite said laser line with respect to said substrate,the mean width of the laser line is within a range extending from 40 to 100 micrometers.
An integrated bed for oriental medicine therapy on which oriental medicine therapy for a patient is performed, the integrated bed comprising: a seat; a first support connected to one side of the seat so as to adjust a position thereof with respect to the seat, the first support being configured to support a portion of a body of the patient; a second support connected to another side of the seat so as to adjust a position thereof with respect to the seat, the second support being configured to support another portion of the body of the patient; and a compartment provided in at least one of: the seat, the first support, and the second support, the compartment being configured to store an oriental medicine therapy apparatus for treatment of the patient; characterized in that the first support comprises: a shoulder supporting member configured to support a shoulder portion of the patient; a head supporting member connected to the shoulder supporting member and configured to support a head of the patient; and a connecting member configured to connect the shoulder supporting member to the seat and being configured to tilt with respect to the seat, and the shoulder supporting member being configured to tilt with respect to the connecting member; and in that the second support comprises: a chest supporting member configured to support a chest portion of the patient; a chin supporting member connected to the chest supporting member, the chin supporting member configured to support a chin portion of the patient; and a movable connecting member movably coupled to a movable rail provided in the seat at one end thereof and tiltably coupled to the chest supporting member at another end thereof. a seat; a first support connected to one side of the seat so as to adjust a position thereof with respect to the seat, the first support being configured to support a portion of a body of the patient; a second support connected to another side of the seat so as to adjust a position thereof with respect to the seat, the second support being configured to support another portion of the body of the patient; and a compartment provided in at least one of: the seat, the first support, and the second support, the compartment being configured to store an oriental medicine therapy apparatus for treatment of the patient; a shoulder supporting member configured to support a shoulder portion of the patient; a head supporting member connected to the shoulder supporting member and configured to support a head of the patient; and a connecting member configured to connect the shoulder supporting member to the seat and being configured to tilt with respect to the seat, and the shoulder supporting member being configured to tilt with respect to the connecting member; a chest supporting member configured to support a chest portion of the patient; a chin supporting member connected to the chest supporting member, the chin supporting member configured to support a chin portion of the patient; and a movable connecting member movably coupled to a movable rail provided in the seat at one end thereof and tiltably coupled to the chest supporting member at another end thereof.
A dopant source gas supply apparatus for delivery of a dopant source gas to an ion implantation tool of an ion implantation system, the apparatus comprising a gas box that in operation is at elevated operational voltage relative to ground, wherein the gas box is in an outer enclosure, the outer enclosure being adapted to also contain the ion implantation tool, and the dopant source gas supply apparatus is arranged in an arrangement comprising: a dopant source gas supply vessel positioned in remote relationship to the gas box of said ion implantation system, outside the outer enclosure; a dopant source gas local vessel positioned in the gas box of said ion implantation system; and a supply line (36, 68) interconnecting the dopant source gas supply vessel in supply relationship to said dopant source gas local vessel and adapted to flow dopant source gas from the dopant source gas supply vessel to the dopant source gas local vessel only when the ion implantation system is in a non-operational state and the gas box is not at said elevated operational voltage; wherein the dopant source gas local vessel comprises a gas storage and dispensing vessel containing a physical adsorbent having sorptive affinity for the dopant source gas; and wherein the supply line (36, 68) is adapted to be evacuated when the ion implantation system is in an operational state, by an assembly comprising a central processor unit arranged to control flow of gas through said supply line (36, 68). a dopant source gas supply vessel positioned in remote relationship to the gas box of said ion implantation system, outside the outer enclosure; a dopant source gas local vessel positioned in the gas box of said ion implantation system; and a supply line (36, 68) interconnecting the dopant source gas supply vessel in supply relationship to said dopant source gas local vessel and adapted to flow dopant source gas from the dopant source gas supply vessel to the dopant source gas local vessel only when the ion implantation system is in a non-operational state and the gas box is not at said elevated operational voltage; wherein the dopant source gas local vessel comprises a gas storage and dispensing vessel containing a physical adsorbent having sorptive affinity for the dopant source gas; and wherein the supply line (36, 68) is adapted to be evacuated when the ion implantation system is in an operational state, by an assembly comprising a central processor unit arranged to control flow of gas through said supply line (36, 68).
Filter element having a bellows made of a pleated filter medium and edge strips for bounding the bellows, wherein the filter element has a functional space that adjoins the bellows and is arranged within the edge strips, having an interface between the bellows and functional space, said interface separating the bellows from the functional space, wherein the filter element has at least one sensor element and/or at least one fragrancing element, characterized in that the interface is formed from filter medium or is embodied as an edge strip, and in that the interface is provided with at least one cutout (5a, 5b) for receiving the sensor elements and/or the fragrancing elements. wherein the filter element has at least one sensor element and/or at least one fragrancing element, characterized in that the interface is formed from filter medium or is embodied as an edge strip, and in that the interface is provided with at least one cutout (5a, 5b) for receiving the sensor elements and/or the fragrancing elements.