mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing a fluid sample for a biological activity, the method comprising • providing a filter unit comprising a membrane (1, 17) having a thickness, a front face and a rear face, • passing the fluid sample through the filter membrane (1, 17) from its front face, • applying the filter unit in a container, • adding a medium into the container, and • performing a scanning and image analyzing procedure of the filter membrane (1, 17) using at least one selected scanning wavelength, characterized in that the scanning is an optical 3D scanning and comprises acquiring a plurality of images along at least one scanning path, wherein the 3D scanning comprises scanning through at least a part of the filter membrane thickness, such as scanning through the entire filter membrane thickness and optionally scanning through the entire filter membrane thickness and including at least a volume of the medium located adjacent the front face of the membrane (1, 17). • providing a filter unit comprising a membrane (1, 17) having a thickness, a front face and a rear face, • passing the fluid sample through the filter membrane (1, 17) from its front face, • applying the filter unit in a container, • adding a medium into the container, and • performing a scanning and image analyzing procedure of the filter membrane (1, 17) using at least one selected scanning wavelength,
A composite material, in particular for aeronautical applications, comprising: - a first pre-impregnated layer having a thermoplastic resin-based matrix reinforced with unidirectional fibres to give the first layer predefined mechanical properties; and - a second layer (6, 6') of magnetic field intensifier material, superimposed on a face of said first layer and joined to the first layer along said face; said second layer (6, 6') comprising electrically conductive fibres, preferably of carbon, dispersed in the second layer (6, 6') in at least two directions with different orientations so as to facilitate localized heating by electromagnetic induction; said first and second layers (2; 6, 6') joined together defining a lamina (L, L') of very easily heated composite material; characterized in that, with reference to a direction orthogonal to said face, said second layer (6, 6') has a thickness comprised between 1/10 and 1/100 of the thickness of said first layer so as to make said lamina (L, L') suitable for being consolidated and in-situ bonded to another said lamina (L', L') of the same type by electromagnetic induction. - a first pre-impregnated layer having a thermoplastic resin-based matrix reinforced with unidirectional fibres to give the first layer predefined mechanical properties; and - a second layer (6, 6') of magnetic field intensifier material, superimposed on a face of said first layer and joined to the first layer along said face; said second layer (6, 6') comprising electrically conductive fibres, preferably of carbon, dispersed in the second layer (6, 6') in at least two directions with different orientations so as to facilitate localized heating by electromagnetic induction; said first and second layers (2; 6, 6') joined together defining a lamina (L, L') of very easily heated composite material;
A two-wheeled vehicle tyre comprising: a tread portion being provided with a belt layer and a tread rubber disposed radially outwardly of the belt layer; the belt layer comprising steel cords oriented along a tyre circumferential direction; and the tread rubber comprising a cap rubber forming a tread surface and a base rubber disposed radially inwardly of the cap rubber, wherein 300% modulus (M300c) of the cap rubber is greater than 300% modulus (M300b) of the base rubber, measured based on JIS K6251 "Rubber, vulcanized or thermoplastic -Determination of tensile stress-strain properties", and loss tangent (tan δc) of the cap rubber is smaller than loss tangent (tan δb) of the base rubber, measured using a visco-elastic spectrometer under the following conditions based on JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" initial strain 10%, amplitude, plus/minus 2%, frequency 10 Hz, tensile deformation mode and temperature 70°C, characterized in that a maximum outer diameter of the tread surface when the tyre is mounted on a standard wheel rim and inflated to a standard pressure is equal to or less than 100.4% of a maximum outer diameter of the tread surface when the tyre is mounted on the standard wheel rim and inflated to 10 kPa. a tread portion being provided with a belt layer and a tread rubber disposed radially outwardly of the belt layer; the belt layer comprising steel cords oriented along a tyre circumferential direction; and the tread rubber comprising a cap rubber forming a tread surface and a base rubber disposed radially inwardly of the cap rubber, wherein 300% modulus (M300c) of the cap rubber is greater than 300% modulus (M300b) of the base rubber, measured based on JIS K6251 "Rubber, vulcanized or thermoplastic -Determination of tensile stress-strain properties", and loss tangent (tan δc) of the cap rubber is smaller than loss tangent (tan δb) of the base rubber, measured using a visco-elastic spectrometer under the following conditions based on JIS K6394 "Rubber, vulcanized or thermoplastic - Determination of dynamic properties - General guidance" initial strain 10%, amplitude, plus/minus 2%, frequency 10 Hz, tensile deformation mode and temperature 70°C, characterized in that a maximum outer diameter of the tread surface when the tyre is mounted on a standard wheel rim and inflated to a standard pressure is equal to or less than 100.4% of a maximum outer diameter of the tread surface when the tyre is mounted on the standard wheel rim and inflated to 10 kPa.
A method comprising: receiving, by a control panel configured to communicate with and control one or more security or automation devices of a security or automation system of a premises, an indication of an update in a configuration of a router that is included in the control panel, wherein the router is configured to support an Internet protocol "IP" network at the premises, and wherein the one or more security or automation devices of the security or automation system of the premises communicate over the IP network supported by the router; and configuring the router by the control panel in response to receiving the indication of the update in the configuration of the router. receiving, by a control panel configured to communicate with and control one or more security or automation devices of a security or automation system of a premises, an indication of an update in a configuration of a router that is included in the control panel, wherein the router is configured to support an Internet protocol "IP" network at the premises, and wherein the one or more security or automation devices of the security or automation system of the premises communicate over the IP network supported by the router; and configuring the router by the control panel in response to receiving the indication of the update in the configuration of the router.
A mobile communication method, comprising: a step of assigning predetermined sequences, in which an amplitude is constant in a temporal domain and a frequency domain and self-correlation is 0, to each cell (#A - #G); a step of generating a plurality of preambles by performing a cyclic shift with respect to the predetermined sequences by a predetermined period (Ncs) in each cell (#A - #G); and characterised in comprising a step of acquiring a reception timing distribution of preambles in the predetermined period in each cell (#A - #G). a step of assigning predetermined sequences, in which an amplitude is constant in a temporal domain and a frequency domain and self-correlation is 0, to each cell (#A - #G); a step of generating a plurality of preambles by performing a cyclic shift with respect to the predetermined sequences by a predetermined period (Ncs) in each cell (#A - #G); and characterised in comprising a step of acquiring a reception timing distribution of preambles in the predetermined period in each cell (#A - #G).
A method for producing a radio frequency absorber on the multi-layered assembly the method comprising the steps in the following order: applying a metamaterial layer to a low dielectric substrate, wherein the metamaterial has a first dielectric constant and the substrate has a second dielectric constant; adding resistive components to the metamaterial layer; adding capacitive components to the metamaterial layer; processing the metamaterial layer into a RFA skin; and applying the RFA skin to a multi-layered assembly for absorption of electromagnetic radiation in a targeted frequency range in a final product. applying a metamaterial layer to a low dielectric substrate, wherein the metamaterial has a first dielectric constant and the substrate has a second dielectric constant; adding resistive components to the metamaterial layer; adding capacitive components to the metamaterial layer; processing the metamaterial layer into a RFA skin; and applying the RFA skin to a multi-layered assembly for absorption of electromagnetic radiation in a targeted frequency range in a final product.
An exhaust-gas turbocharger comprising: a turbine housing which has a turbine housing inlet and a turbine housing outlet for exhaust gas, and which has a wastegate duct between the turbine housing inlet and the turbine housing outlet, and a flap arrangement comprising a pivotable flap lever, a flap plate, which is connected to the flap lever, for opening and closing the wastegate duct, and having a spring element which is arranged between the flap lever and a disc fastened to the flap plate, wherein the spring element has an outer circumferential region which is supported on a sliding contact surface of the flap lever, characterized in that said sliding contact surface is of curved form. a turbine housing which has a turbine housing inlet and a turbine housing outlet for exhaust gas, and which has a wastegate duct between the turbine housing inlet and the turbine housing outlet, and which has a turbine housing inlet and a turbine housing outlet for exhaust gas, and which has a wastegate duct between the turbine housing inlet and the turbine housing outlet, and a flap arrangement comprising a pivotable flap lever, a flap plate, which is connected to the flap lever, for opening and closing the wastegate duct, and having a spring element which is arranged between the flap lever and a disc fastened to the flap plate, a pivotable flap lever, a flap plate, which is connected to the flap lever, for opening and closing the wastegate duct, and having a spring element which is arranged between the flap lever and a disc fastened to the flap plate, wherein the spring element has an outer circumferential region which is supported on a sliding contact surface of the flap lever, characterized in that said sliding contact surface is of curved form.
A sensor system, comprising: a plurality of range finders (24RF-28RF), each of the range finders (24RF-28RF) including at least one emitter that is configured to emit selected radiation and at least one detector configured to detect the selected radiation, the range finders (24RF-28RF) being configured to provide an indication of a distance between the range finders (24RF-28RF) and an object (42, 44) based on the selected radiation reflected from the object (42, 44) and detected by the detectors; at least three cameras (24C-28C) that are configured to generate respective images (54, 56) of an object (42, 44) based on detecting the selected radiation from the object (42, 44); and a processor that is configured to determine a range basis from the indication from the range finders (24RF-28RF), wherein the object (42, 44) is at a distance from the cameras (24C-28C) within the determined range basis; select a combination of two of the cameras (24C-28C) from which to obtain an image (54, 56) of the object (42, 44) dependent on the determined range basis; and determine a distance between the sensor system and the object (42, 44) based on at least two of the images (54, 56) of the object (42, 44) from respective ones of the cameras (24C-28C). a plurality of range finders (24RF-28RF), each of the range finders (24RF-28RF) including at least one emitter that is configured to emit selected radiation and at least one detector configured to detect the selected radiation, the range finders (24RF-28RF) being configured to provide an indication of a distance between the range finders (24RF-28RF) and an object (42, 44) based on the selected radiation reflected from the object (42, 44) and detected by the detectors; at least three cameras (24C-28C) that are configured to generate respective images (54, 56) of an object (42, 44) based on detecting the selected radiation from the object (42, 44); and a processor that is configured to determine a range basis from the indication from the range finders (24RF-28RF), wherein the object (42, 44) is at a distance from the cameras (24C-28C) within the determined range basis; select a combination of two of the cameras (24C-28C) from which to obtain an image (54, 56) of the object (42, 44) dependent on the determined range basis; and determine a distance between the sensor system and the object (42, 44) based on at least two of the images (54, 56) of the object (42, 44) from respective ones of the cameras (24C-28C).
Preparation for inhibiting blood coagulation, wherein the preparation is an aqueous solution of at least one salt compound of: a) the cation of the basic amino acid lysine or arginine, and b) the anion of citric acid, characterised in that the basic amino acid is selected from the proteinogenic amino acids L-lysine or L-arginine, wherein the aqueous solution is isotonic, isonatriaemic, isokaliaemic and isohydric in comparison with human blood plasma. a) the cation of the basic amino acid lysine or arginine, and b) the anion of citric acid, characterised in that the basic amino acid is selected from the proteinogenic amino acids L-lysine or L-arginine, wherein the aqueous solution is isotonic, isonatriaemic, isokaliaemic and isohydric in comparison with human blood plasma.
A container closure (104, 350, 400), comprising: an outer cap including a top wall and an outer sidewall extending downward from the top wall; an inner cap (170, 420) secured within the outer cap, the inner cap (170, 420) including a bottom wall (180, 432) and an inner sidewall (182, 430) extending upwardly from the bottom wall (180, 432), the inner sidewall (182, 430) is offset from the outer sidewall to define a space (186, 436) between the outer cap and the inner cap (170, 420) for receiving an associated neck portion (112, 440) of an associated container (102, 442); a seal (134, 414) secured to the inner cap (170, 420), the seal (134, 414) including a seal sidewall (260, 492) and a rim (262, 494) extending inwardly from the seal sidewall, the seal sidewall (260, 492) sealingly engaging the inner sidewall (182, 430) and the rim (262, 494) sealingly overlapping the bottom wall (180, 432), characterized in that the inner cap (170, 420) together with the seal (134, 414) define an air pathway (300, 520) in fluid communication between the space (186, 436) between the outer and inner caps and an air opening (302, 472) formed on the bottom wall (180, 432) of the inner cap (170, 420) and selectively covered by the rim (262, 494). an outer cap including a top wall and an outer sidewall extending downward from the top wall; an inner cap (170, 420) secured within the outer cap, the inner cap (170, 420) including a bottom wall (180, 432) and an inner sidewall (182, 430) extending upwardly from the bottom wall (180, 432), the inner sidewall (182, 430) is offset from the outer sidewall to define a space (186, 436) between the outer cap and the inner cap (170, 420) for receiving an associated neck portion (112, 440) of an associated container (102, 442); a seal (134, 414) secured to the inner cap (170, 420), the seal (134, 414) including a seal sidewall (260, 492) and a rim (262, 494) extending inwardly from the seal sidewall, the seal sidewall (260, 492) sealingly engaging the inner sidewall (182, 430) and the rim (262, 494) sealingly overlapping the bottom wall (180, 432), characterized in that the inner cap (170, 420) together with the seal (134, 414) define an air pathway (300, 520) in fluid communication between the space (186, 436) between the outer and inner caps and an air opening (302, 472) formed on the bottom wall (180, 432) of the inner cap (170, 420) and selectively covered by the rim (262, 494).
A head for a ball striking device, comprising: a face having an outer surface located at a front of the head; a body connected to the face and extending rearward from the face; and a face mask connected to the outer surface of the face, the face mask having a first surface configured for forming at least a portion of a ball striking surface of the head configured for striking a ball, a second surface opposite the first surface and confronting the outer surface of the face, and a plurality of elongated slots extending completely through the face mask, from the first surface to the second surface, wherein the slots combine with the outer surface of the face to form a plurality of face grooves on the ball striking surface, such that the grooves are defined by the side walls of the slots and portions of the outer surface of the face, wherein one of the face and the face mask has a projection and the other of the face and the face mask has a receiver, wherein the projection and the receiver have complementary mating structure, and wherein the projection is received in the receiver when the face mask is connected to the face, wherein the outer surface of the face is substantially flat or the outer surface of the face has secondary grooves positioned in alignment with some or all of the slots. a face having an outer surface located at a front of the head; a body connected to the face and extending rearward from the face; and a face mask connected to the outer surface of the face, the face mask having a first surface configured for forming at least a portion of a ball striking surface of the head configured for striking a ball, a second surface opposite the first surface and confronting the outer surface of the face, and a plurality of elongated slots extending completely through the face mask, from the first surface to the second surface, wherein the slots combine with the outer surface of the face to form a plurality of face grooves on the ball striking surface, such that the grooves are defined by the side walls of the slots and portions of the outer surface of the face, wherein one of the face and the face mask has a projection and the other of the face and the face mask has a receiver, wherein the projection and the receiver have complementary mating structure, and wherein the projection is received in the receiver when the face mask is connected to the face, wherein the outer surface of the face is substantially flat or the outer surface of the face has secondary grooves positioned in alignment with some or all of the slots.
A back frame for an LED display screen, whereby it comprises two support structures and a bottom beam, wherein the two support structures are oppositely arranged at an interval, and two ends of the bottom beam are detachably connected with the two support structures, respectively; characterized in that each support structure comprises two vertical support frames, a plurality of transverse connecting frames, a base, and a plurality of first connecting members, the two vertical support frames are vertically and oppositely arranged on the base, the vertical support frame comprises a plurality of support frame units successively arranged in vertical direction and a plurality of first connecting members; in vertical direction, two adjacent support frame units are connected by two first connecting members, and the plurality of transverse connecting frames are horizontally arranged between the two vertical support frames, successively from top to bottom; wherein the two support structures are oppositely arranged in a manner that the four support frames of the two support structures lie in four parallel planes; wherein the support frame units and the transverse connecting frames are B-shaped support frames, the B-shaped support frame comprises two first support bars (121; 425) and three second support bars (122; 426), wherein the two first support bars (121; 425) and two of the second support bars (122; 426) are alternately and vertically connected in an end-to-end manner, and the other second support bar (122; 426) is vertically connected with the middles of the two first support bars (121; 425); wherein the two support structures each have a bottommost transverse connecting frame, wherein one of the first support bars of each bottommost transverse connecting frame is exposed to an outer side of a front end face of the corresponding vertical support frame, wherein both ends of the bottom beam are removably connected with one of the first support bars.
Method for the preparation of a sheet including a homogenized material containing alkaloids, said method comprising: ∘ forming a mixture comprising a reducing sugar and particles of a material containing alkaloids; ∘ extruding the mixture; ∘ adding water to the extruded mixture to form a slurry; and ∘ casting the slurry into a sheet. ∘ forming a mixture comprising a reducing sugar and particles of a material containing alkaloids; ∘ extruding the mixture; ∘ adding water to the extruded mixture to form a slurry; and ∘ casting the slurry into a sheet.
An insulation impedance detection circuit, characterized by comprising: an impedance detection module connected between a positive terminal and a negative terminal of a direct-current bus to be detected, the impedance detection module comprising a first resistance bridge and a second resistance bridge arranged in parallel, wherein the first resistance bridge is composed of a first resistor R3 and a second resistor R4 connected in series, a connection line between the first resistor R3 and the second resistor R4 being grounded, and the second resistance bridge is composed of a third resistor R5, a fourth resistor R6, and a first switch S disposed between the third resistor R5 and the fourth resistor R6, the third resistor R5 or the fourth resistor R6 being grounded through the first switch S; characterised in that the first resistor R3 and the third resistor R5 are connected to the positive terminal of the direct-current bus to be detected through a first sampling resistor R1, the second resistor R4 and the fourth resistor R6 are connected to the negative terminal of the direct-current bus to be detected through a second sampling resistor R2, each of the first sampling resistor R1 and the second sampling resistor R2 being provided with a voltage sampling chip, and the impedance detection module is configured to calculate an insulation impedance value of the direct-current bus to be detected according to voltage values of two sampling resistors before and after switching of the first switch S.
A gas turbine engine comprises an engine core, a casing, a splitter (5, 15, 55) and a variable area nozzle arrangement, the engine core is supported by the splitter (5, 15, 55) that extends from casing to define a flow area between the casing and the engine core, the variable area nozzle arrangement is characterised in that the splitter comprises a surface, part of the surface is defined by a deformable member (4, 14, 54) that is arranged to bulge laterally in order to vary the flow area while keeping a contiguous surface with the remainder of the splitter (5, 15, 55).