mhurhangee/patent-ind-claim-en huggingface dataset:
A rod handheld two-in-one separated-type suction cleaner, comprising: a main device , a push rod , and a ground brush , wherein the main device is a handheld suction cleaner and the push rod is a hollow rod, every two of the main device, the push rod and the ground brush are detachably assembled, wherein, the rod handheld two-in-one separated-type suction cleaner further comprises an independent dust-air separation and dust storage device, which is detachably arranged between the ground brush and the main device , and in the case that the main device , the push rod , the ground brush and the independent dust-air separation and dust storage device are used in combination, the independent dust-air separation and dust storage device forms a first dust collecting device and a built-in dust collecting device of the main device forms a second dust collecting device , when the rod handheld two-in-one separated-type suction cleaner is in operation, filtered secondary dust air is formed after initial dust air passing through the first dust collecting device , and at least a portion of dust in the initial dust air is collected in the first dust collecting device and then the secondary dust air enters the second dust collecting device for being filtered. a main device , a push rod , and a ground brush , wherein the main device is a handheld suction cleaner and the push rod is a hollow rod, every two of the main device, the push rod and the ground brush are detachably assembled, wherein, the rod handheld two-in-one separated-type suction cleaner further comprises an independent dust-air separation and dust storage device, which is detachably arranged between the ground brush and the main device , and in the case that the main device , the push rod , the ground brush and the independent dust-air separation and dust storage device are used in combination, the independent dust-air separation and dust storage device forms a first dust collecting device and a built-in dust collecting device of the main device forms a second dust collecting device , when the rod handheld two-in-one separated-type suction cleaner is in operation, filtered secondary dust air is formed after initial dust air passing through the first dust collecting device , and at least a portion of dust in the initial dust air is collected in the first dust collecting device and then the secondary dust air enters the second dust collecting device for being filtered.
A crystalline sodium salt of 5-methyl- -tetrahydrofolic acid wherein the molar ratio of 5-methyl- -tetrahydrofolic acid to sodium is from 1:1.51 to 1:2.5 or hydrates or solvates thereof.
Solid feed component having a pipe component and a pipe collar coupled therewith, wherein the solid feed component has a wear indicator, and a radially at least partially circumferential electrical conductor (8, 8.1, 8.2) is arranged to the pipe collar and/or in the pipe component such that in the case of advancing abrasive wear of the solid feed component the electrical conductor (8, 8.1, 8.2) is damaged, in particular severed, wherein the pipe component is double-layered in design and/or that the pipe collar is double-layered in design having an inner ring and an outer ring , characterised in that in the pipe component and/or in the pipe collar is arranged a radially at least partially circumferential groove , wherein the electrical conductor (8, 8.1, 8.2) is arranged in the groove .
A developer quantity control blade which controls a quantity of a developer to be conveyed from a developer container by a developer bearing member , comprising: a supporting member ; and a blade member , wherein the blade member is composed of a thermoplastic elastomer composition comprising: a block copolymer having a polyamide structure and a polyether structure; and an ion conductive agent; characterized in that , in the blade member, a quantity of an extraction component measurable by the method described in the section of the description headed by "3. Extraction treatment" is 0.5% by mass or more and 2.4% by mass or less, and a quantity of a molecule having a molecular weight of 5000 or less in the extraction component obtainable by the method described in the section of the description headed by "3. Extraction treatment" is 70% by mass or more as measurable by the method described in the section of the description headed by "4. Measurement of molecular weight of extract". a supporting member ; and a blade member , wherein the blade member is composed of a thermoplastic elastomer composition comprising: a block copolymer having a polyamide structure and a polyether structure; and an ion conductive agent; a block copolymer having a polyamide structure and a polyether structure; and an ion conductive agent; characterized in that , in the blade member, a quantity of an extraction component measurable by the method described in the section of the description headed by "3. Extraction treatment" is 0.5% by mass or more and 2.4% by mass or less, and a quantity of a molecule having a molecular weight of 5000 or less in the extraction component obtainable by the method described in the section of the description headed by "3. Extraction treatment" is 70% by mass or more as measurable by the method described in the section of the description headed by "4. Measurement of molecular weight of extract".
A downlink control channel configuration method, comprising: receiving , in a second downlink control channel transmitted by a pre-configured second frequency domain resource, a first indication information that is used for indicating a number of frequency domain resource scheduling units contained in a first frequency domain resource, wherein the first frequency domain resource is a frequency domain resource for transmitting a first downlink control channel within at least one time domain resource scheduling unit, wherein the time domain resource scheduling unit consists of a symbol or a mini-slot; and determining , according to the first indication information, the number of frequency domain resource scheduling units contained in the first frequency domain resource; characterized in that the method further comprises: receiving a third indication information that is used for indicating a third frequency domain resource in the first downlink control channel transmitted by the first frequency domain resource or the second downlink control channel transmitted by the second frequency domain resource, wherein the third frequency domain resource contains the first frequency domain resource and the frequency domain resource for transmitting the downlink data channel within the at least one time domain resource scheduling unit. receiving , in a second downlink control channel transmitted by a pre-configured second frequency domain resource, a first indication information that is used for indicating a number of frequency domain resource scheduling units contained in a first frequency domain resource, wherein the first frequency domain resource is a frequency domain resource for transmitting a first downlink control channel within at least one time domain resource scheduling unit, wherein the time domain resource scheduling unit consists of a symbol or a mini-slot; and determining , according to the first indication information, the number of frequency domain resource scheduling units contained in the first frequency domain resource; characterized in that the method further comprises: receiving a third indication information that is used for indicating a third frequency domain resource in the first downlink control channel transmitted by the first frequency domain resource or the second downlink control channel transmitted by the second frequency domain resource, wherein the third frequency domain resource contains the first frequency domain resource and the frequency domain resource for transmitting the downlink data channel within the at least one time domain resource scheduling unit.
A chip comprising: an array of pixels wherein each pixel comprises: a ISFET sensor; and a sigma delta ADC, and a clocking arrangement comprising: a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal. an array of pixels wherein each pixel comprises: a ISFET sensor; and a sigma delta ADC, and a ISFET sensor; and a sigma delta ADC, and a clocking arrangement comprising: a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal. a first clock signal common to all of the pixels in the array, for sampling the ISFET signal; and a second clock signal provided sequentially across the array, for conversion of the signal.
A vibration sensor , comprising: an RF receiver circuit configured to receive an RF input signal ; an RF signal characterization circuit configured to measure an attribute of the RF input signal over a set time-period; wherein the attribute of the RF input signal varies based on a physical motion between the vibration sensor and an RF source transmitting the RF input signal ; and a vibration profiling circuit configured to map the attribute of the RF input signal to a vibration level, characterized in that : the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period. an RF receiver circuit configured to receive an RF input signal ; an RF signal characterization circuit configured to measure an attribute of the RF input signal over a set time-period; wherein the attribute of the RF input signal varies based on a physical motion between the vibration sensor and an RF source transmitting the RF input signal ; and a vibration profiling circuit configured to map the attribute of the RF input signal to a vibration level, characterized in that : the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period. the attribute is a number of RF input signal characteristics that exceed a threshold number over a predetermined time period; and the vibration profiling circuit is configured to increase the vibration level in response to an increase in the number of RF input signal characteristics that exceed the threshold number over the time period.
A sand moulding machine for the production of sand mould parts including a moulding chamber formed by a chamber top wall , a chamber bottom wall , two opposed chamber side walls and two opposed chamber end walls , wherein a chamber wall is provided with at least one sand filling opening , wherein at least one of the chamber end walls is provided with a pattern plate having a pattern adapted to form a pattern in a sand mould part , wherein at least one of the chamber end walls is displaceable in a longitudinal direction of the moulding chamber in order to compact sand fed into the moulding chamber , wherein at least one of the pattern plates is associated with at least one reference pattern block positioned in fixed relationship to the pattern of said pattern plate and adapted to form a reference pattern in an external face of a sand mould part , and wherein a non-contact distance measuring device is arranged adjacent a path of travel of the compacted sand mould parts and is adapted to measure a varying distance to the reference patterns of the sand mould parts during a relative displacement in a displacement direction between the compacted sand mould parts and the non-contact distance measuring device , characterised in that the at least one reference pattern block includes a set of at least two flat faces (L, M, N) following one after the other in the longitudinal direction of the moulding chamber and being adapted to form a corresponding reference pattern including a set of at least two flat surfaces (I, m, n) following one after the other in the displacement direction (D), in that each flat face (L, M, N) is arranged at an oblique angle to another one of the flat faces, and that the non-contact distance measuring device is adapted to measure the varying distance to the at least two flat surfaces (I, m, n) of the reference pattern one after the other as they pass relatively the non-contact distance measuring device in succession during said relative displacement.
A breast treatment device comprising: a sheet of acellular tissue matrix, wherein the sheet of acellular tissue matrix comprises a flexible sheet with a top surface and a bottom surface, wherein the sheet has an upper curved border having a first degree of curvature and a lower curved border having a second degree of curvature, wherein the upper curved border and lower curved border are joined at lateral apices separated by a distance of 15-30 cm and the upper curved border and lower curved border define a height 15-25 cm to allow complete coverage of an anterior surface of a breast implant when implanted in a breast, wherein the lower curved border is shaped and sized to conform to a desired shape of a lower margin of the breast, and wherein the sheet of acellular tissue matrix contacts overlying dermal or subcutaneous tissue when implanted in the breast.
Support device for mounting a solar module (S1, S2, S3, S4), especially a photovoltaic panel, on a mounting surface, in particular on a roof of a building (M, RT), the support device comprising: a) a base body in the form of a U-shaped profile having two profile legs and a base section connecting the two profile legs ; whereby an outer surface of the base section of the U-shaped profile is configured to support a solar module (S1, S2, S3, S4), and whereby a profile depth of the U-shaped profile increases along a longitudinal axis from a front face to a rear face of the U-shaped profile ; and b) at each of the two free end portions (111.1, 112.1) of the profile legs , at least one projection protruding from the respective profile leg , whereby the at least one projections are configured as a seating for placing the support device on a mounting surface; and c) at least one fixing element (120a, 120b, ... , 120f) which is configured to engage a fastening member for attachment of the support device to the mounting surface, characterized in that at each of the two free end portions (111.1, 112.1) of the profile legs of the U-shaped profile , an L-shaped bar is arranged which runs in parallel to the respective profile leg , preferably from the front face to the rear face of the U-shaped profile , whereby a first section of the L-shaped bar is contacting the free end portion (111.1, 112.1) of the respective profile leg and is configured as the at least one projection protruding from the respective profile leg and as the seating for placing the support device on a mounting surface, and at least one region of the second and free end of the L-shaped bar is configured as the fixing element (120a, 120b, ..., 120f). a) a base body in the form of a U-shaped profile having two profile legs and a base section connecting the two profile legs ; whereby an outer surface of the base section of the U-shaped profile is configured to support a solar module (S1, S2, S3, S4), and whereby a profile depth of the U-shaped profile increases along a longitudinal axis from a front face to a rear face of the U-shaped profile ; and b) at each of the two free end portions (111.1, 112.1) of the profile legs , at least one projection protruding from the respective profile leg , whereby the at least one projections are configured as a seating for placing the support device on a mounting surface; and c) at least one fixing element (120a, 120b, ... , 120f) which is configured to engage a fastening member for attachment of the support device to the mounting surface,
A lens driving device, comprising: a base ; a first frame disposed on the base ; a substrate disposed between the base and the first frame; a second frame disposed in the first frame; a third frame disposed between the first frame and the second frame; a second magnet disposed on the second frame; and a second coil disposed between the first frame and the substrate and disposed at a position corresponding to the second magnet , wherein the second coil is configured to move the second frame in a direction perpendicular to an optical axis direction, wherein the first frame is configured to be moved in the optical axis direction and the second frame is configured to be moved in the direction perpendicular to the optical axis direction, and wherein the substrate is configured to be moved according to a movement of the first frame. a base ; a first frame disposed on the base ; a substrate disposed between the base and the first frame; a second frame disposed in the first frame; a third frame disposed between the first frame and the second frame; a second magnet disposed on the second frame; and a second coil disposed between the first frame and the substrate and disposed at a position corresponding to the second magnet , wherein the second coil is configured to move the second frame in a direction perpendicular to an optical axis direction, wherein the first frame is configured to be moved in the optical axis direction and the second frame is configured to be moved in the direction perpendicular to the optical axis direction, and wherein the substrate is configured to be moved according to a movement of the first frame.
A nitrided steel part comprising a steel material as a material, the steel material consisting of, by mass%, C: 0.2 to 0.6%, Si: 0.05 to 1.5%, Mn: 0.2 to 2.5%, P: 0.025% or less, S: 0.003 to 0.05%, Cr: 0.05 to 0.5%, Al: 0.01 to 0.05%, N: 0.003 to 0.025%, optionally one or more of Mo: 0.01 to less than 0.50%, V: 0.01 to less than 0.50%, Cu: 0.01 to less than 0.50%, Ni: 0.01 to less than 0.50%, and Ti: 0.005 to less than 0.05%, and a balance of Fe and impurities, the nitrided steel part comprising a compound layer of a thickness of 3 μm or less comprising iron, nitrogen, and carbon formed on the steel surface and a hardened layer formed under the compound layer, an effective hardened layer depth of the nitrided steel part being 160 to 410 μm, wherein a phase structure of the compound layer comprises, by area ratio, γ' (Fe 4 N) in an amount of 50% or more and a balance of ε (Fe 2-3 N); the hardened layer is a nitrogen diffused layer; the effective hardened layer depth which is the depth in a range where the Vickers hardness in the distribution measured in the depth direction from the surface of the test material using the hardness distribution in the depth direction obtained by the Vickers hardness test is 250HV or more as determined by JIS Z 2244 with a test force of 1.96 N; and the void area ratio is less than 10%, wherein the void area ratio is determined in an area of 25 μm 2 in a range of 5 μm depth from the outermost surface.
Apparatus (A) comprising: - a bearing frame (U) suitable for being connected to a supporting element (E, T) and to suction means (M); - a suction assembly connected to the bearing frame (U); said suction assembly comprising a suction mouth connected to a suction duct in order to suck the air; - a joint connecting the bearing frame (U) to the suction assembly ; - at least one accessory unit comprising a pneumatic and/or electric/electronic accessory and a supporting arm with a duct connected to the joint , wherein said bearing frame (U) comprises a central duct ; said joint comprises a central compartment , wherein an end of said bearing frame (U) is disposed in said central compartment of the joint so that said central duct of the bearing frame (U) communicates with the suction duct of the suction assembly , characterized in that said bearing frame (U) comprises a peripheral duct ; said joint comprises and a peripheral compartment in communication with said central compartment ; an end of said duct of the supporting arm of the accessory unit is arranged in said peripheral compartment ; said peripheral duct of the bearing frame (U) communicates with said peripheral compartment of the joint and with said duct of the supporting arm of the accessory unit . - a bearing frame (U) suitable for being connected to a supporting element (E, T) and to suction means (M); - a suction assembly connected to the bearing frame (U); said suction assembly comprising a suction mouth connected to a suction duct in order to suck the air; - a joint connecting the bearing frame (U) to the suction assembly ; - at least one accessory unit comprising a pneumatic and/or electric/electronic accessory and a supporting arm with a duct connected to the joint , wherein said bearing frame (U) comprises a central duct ; said joint comprises a central compartment , wherein an end of said bearing frame (U) is disposed in said central compartment of the joint so that said central duct of the bearing frame (U) communicates with the suction duct of the suction assembly , characterized in that said bearing frame (U) comprises a peripheral duct ; said joint comprises and a peripheral compartment in communication with said central compartment ; an end of said duct of the supporting arm of the accessory unit is arranged in said peripheral compartment ; said peripheral duct of the bearing frame (U) communicates with said peripheral compartment of the joint and with said duct of the supporting arm of the accessory unit .
Device for flexibly roll forming a semi-finished product , in particular a rolled sheet, into a profile (12', 12") having a cross-section varying along the longitudinal axis thereof and/or having a varying longitudinal axis, the device comprising a frame , a plurality of support devices carried by the frame , the support devices each being translationally movable relative to the frame and rotatably mounted, a plurality of profiling units , each having a pair of rotatably mounted rollers (20', 20"), between which a roller gap remains, characterized in that on each support device exactly two profiling units are arranged so as to be rotatably mounted relative to the support device . a frame , a plurality of support devices carried by the frame , the support devices each being translationally movable relative to the frame and rotatably mounted, a plurality of profiling units , each having a pair of rotatably mounted rollers (20', 20"), between which a roller gap remains, characterized in that on each support device exactly two profiling units are arranged so as to be rotatably mounted relative to the support device .