mhurhangee/patent-ind-claim-en huggingface dataset:
Device for rearing and harvesting insect larvae, comprising: - at least one fattening trough ; - at least one support structure ; - at least one drive means ; wherein - the fattening trough has a base and at least one side wall and the base and the side wall delimit a fattening trough volume ; - the fattening trough has an axis of rotation; - the drive means and the at least one fattening trough are operatively connected to one another, so that the at least one fattening trough can be rotated about the axis of rotation from a first position to a second position, so that a content of the fattening trough falls out of the fattening trough in the second position; - wherein the second position of the fattening trough is offset by an angle of greater than or equal to 135° from the first position; and - the axis of rotation of the fattening trough runs coaxially with the longitudinal axis of the fattening trough. - at least one fattening trough ; - at least one support structure ; - at least one drive means ; - the fattening trough has a base and at least one side wall and the base and the side wall delimit a fattening trough volume ; - the fattening trough has an axis of rotation; - the drive means and the at least one fattening trough are operatively connected to one another, so that the at least one fattening trough can be rotated about the axis of rotation from a first position to a second position, so that a content of the fattening trough falls out of the fattening trough in the second position; - wherein the second position of the fattening trough is offset by an angle of greater than or equal to 135° from the first position; and - the axis of rotation of the fattening trough runs coaxially with the longitudinal axis of the fattening trough.
A method for manufacturing a security element having a reflective areal region that is perceptible for a viewer as a three-dimensional relief motif having, in the form of a specified three-dimensional image motif, a surface that jumps out and/or back with respect to its actual spatial form, and in the method, - from the specified three-dimensional image motif are produced, in an x-y plane, a first two-dimensional sub-image having a planar projection of the image motif, and within the projection of the image motif, a second two-dimensional sub-image having fine contour lines , - for the first sub-image , a coarse bulge G(x,y) is specified for the planar projection of the image motif, - for the second sub-image , a fine bulge f i (x,y) is specified for each of the fine contour lines , where i=1...N, and N is the number of specified fine contour lines , - from the coarse bulge G(x,y) and the fine bulges f i (x,y), a relief bulge R x y = M G x y , f i x y is calculated with a master function M that describes a composition of the coarse bulge G(x,y) and the N fine bulges f i (x,y), where i=1...N, and - a reflective areal region having a plurality of inclined reflective micromirrors having a local mirror inclination that is determined in each case by the relief bulge R(x,y) is produced. - from the specified three-dimensional image motif are produced, in an x-y plane, a first two-dimensional sub-image having a planar projection of the image motif, and within the projection of the image motif, a second two-dimensional sub-image having fine contour lines , - for the first sub-image , a coarse bulge G(x,y) is specified for the planar projection of the image motif, - for the second sub-image , a fine bulge f i (x,y) is specified for each of the fine contour lines , where i=1...N, and N is the number of specified fine contour lines , - from the coarse bulge G(x,y) and the fine bulges f i (x,y), a relief bulge R x y = M G x y , f i x y is calculated with a master function M that describes a composition of the coarse bulge G(x,y) and the N fine bulges f i (x,y), where i=1...N, and - a reflective areal region having a plurality of inclined reflective micromirrors having a local mirror inclination that is determined in each case by the relief bulge R(x,y) is produced.
A semiconductor construction , comprising: a semiconductor substrate ; a trench extending into the substrate; the trench comprising a narrow bottom portion having a substantially vertical sidewall and an upper wide portion over the bottom portion and joining the bottom portion; and a substantially solid electrically insulative material substantially filling the trench, wherein the trench has a void within the substantially solid electrically insulative material, and characterised by : the upper wide portion joining the bottom portion at a plurality of steps that extend perpendicularly to the sidewall; and the void being at least substantially entirely within the bottom portion of the trench. a semiconductor substrate ; a trench extending into the substrate; the trench comprising a narrow bottom portion having a substantially vertical sidewall and an upper wide portion over the bottom portion and joining the bottom portion; and a substantially solid electrically insulative material substantially filling the trench, wherein the trench has a void within the substantially solid electrically insulative material, and characterised by : the upper wide portion joining the bottom portion at a plurality of steps that extend perpendicularly to the sidewall; and the void being at least substantially entirely within the bottom portion of the trench. the upper wide portion joining the bottom portion at a plurality of steps that extend perpendicularly to the sidewall; and the void being at least substantially entirely within the bottom portion of the trench.
A humidity-sensitive composite material for absorbing and releasing water vapor in accordance with a surrounding water vapor partial pressure comprising a base material made of a porous silicone resin including a large number of independent closed pores , and a deliquescent liquid of a deliquescent inorganic compound retained in each of the independent closed pores inside the base material , wherein the porous silicone resin is permeable to water vapor but impermeable to liquid water.
A screen printer comprising: a squeegee device for spreading a cream solder over a mask having formed thereon a printing pattern configured of a plurality of through holes to force the cream solder through the printing pattern; a clamping device for holding a board that is conveyed to be placed under the mask ; and a lift device for disposing the board with respect to the mask in relation to a vertical direction, wherein the clamping device comprises a pair of clamping portions for holding the board therebetween from a width direction of the board , wherein the pair of clamping portions have individually detachable clamping members that are brought into abutment with lateral end faces of the board , wherein the clamping member has two or more clamping surfaces that are configured to be selectively brought into abutment with the board for holding the board , characterized in that the clamping member has formed thereon a top clamping surface that is a plane orthogonal to an abutment direction of the board with having a protruding flange portion at an upper side thereof and a side clamping surface that is a plane orthogonal to the abutment direction of the board , or the clamping member has a pair of top clamping surfaces that are planes orthogonal to an abutment direction of the board with having a protruding flange portion at an upper side thereof, or the clamping member has a pair of side clamping surfaces that are planes orthogonal to the abutment direction of the board . a squeegee device for spreading a cream solder over a mask having formed thereon a printing pattern configured of a plurality of through holes to force the cream solder through the printing pattern; a clamping device for holding a board that is conveyed to be placed under the mask ; and a lift device for disposing the board with respect to the mask in relation to a vertical direction, wherein the clamping device comprises a pair of clamping portions for holding the board therebetween from a width direction of the board , wherein the pair of clamping portions have individually detachable clamping members that are brought into abutment with lateral end faces of the board , wherein the clamping member has two or more clamping surfaces that are configured to be selectively brought into abutment with the board for holding the board , characterized in that the clamping member has formed thereon a top clamping surface that is a plane orthogonal to an abutment direction of the board with having a protruding flange portion at an upper side thereof and a side clamping surface that is a plane orthogonal to the abutment direction of the board , or the clamping member has a pair of top clamping surfaces that are planes orthogonal to an abutment direction of the board with having a protruding flange portion at an upper side thereof, or the clamping member has a pair of side clamping surfaces that are planes orthogonal to the abutment direction of the board .
Preform for the production of a plastics container in a stretch blow molding process with an elongate, tubular preform body closed at one of its longitudinal ends by a preform base and having at its other longitudinal end a preform neck , where the preform consists at least in some regions of polyethylene furanoate (PEF), characterized in that during the production of the preform the viscosity of the polyethylene furanoate (PEF) is from 0.75 dl/g to 0.9 dl/g measured by a measurement method in accordance with ASTM D4603, and the water content thereof is less than 50 ppm.
A method for encoding channel state information, CSI, comprising: mapping CSI and a fourth type of information bits according to indexes in a position index set; wherein the CSI comprises a first type of information bits, a second type of information bits, and a third type of information bits; and wherein the mapping comprises: placing the first type of information bits, the second type of information bits, the third type of information bits and the fourth type of information bits in the position index set in this sequence according to values of position indexes from small to large; and performing Polar codes encoding on the mapped CSI and the fourth type of information bits to obtain an encoded bit sequence. wherein the first type of information bits comprise a CSI-RS resource indicator, CRI, and a rank indicator, RI. wherein the second type of information bits are padding bits; the third type of information bits at least comprise a precoding matrix indicator, PMI, and a channel quality indicator, CQI, wherein the position of the PMI is in front of the position of the CQI; and the fourth type of information bits are parity check bits. mapping CSI and a fourth type of information bits according to indexes in a position index set; wherein the CSI comprises a first type of information bits, a second type of information bits, and a third type of information bits; and wherein the mapping comprises: placing the first type of information bits, the second type of information bits, the third type of information bits and the fourth type of information bits in the position index set in this sequence according to values of position indexes from small to large; and performing Polar codes encoding on the mapped CSI and the fourth type of information bits to obtain an encoded bit sequence. wherein the first type of information bits comprise a CSI-RS resource indicator, CRI, and a rank indicator, RI. wherein the second type of information bits are padding bits; the third type of information bits at least comprise a precoding matrix indicator, PMI, and a channel quality indicator, CQI, wherein the position of the PMI is in front of the position of the CQI; and the fourth type of information bits are parity check bits. placing the first type of information bits, the second type of information bits, the third type of information bits and the fourth type of information bits in the position index set in this sequence according to values of position indexes from small to large; and performing Polar codes encoding on the mapped CSI and the fourth type of information bits to obtain an encoded bit sequence. wherein the first type of information bits comprise a CSI-RS resource indicator, CRI, and a rank indicator, RI. wherein the second type of information bits are padding bits; the third type of information bits at least comprise a precoding matrix indicator, PMI, and a channel quality indicator, CQI, wherein the position of the PMI is in front of the position of the CQI; and the fourth type of information bits are parity check bits.
Brake control device for controlling the brakes of a rail vehicle or the brakes of a combination of a plurality of rail vehicles , wherein the brake control device is designed such that it can actuate the brakes of the rail vehicle or of the combination of a plurality of rail vehicles on an axle or on a bogie, wherein the brake control device is designed such that during a braking process the brakes of axles different from one another or the brakes of bogies different from one another can be actuated sequentially, characterised in that the brake control device is designed such that it carries out the control processes in a timed manner with a scanning time and the sequential actuation of the brakes is carried out in a distributed manner within the said scanning time .
A power conversion device comprising: a leak-current detecting unit that detects a zero-phase current flowing from either an electric-motor driving device (100; 100a; 100b; 100c; 100d), which drives an electric motor with electric power from an alternating-current power supply , or the electric motor to a ground; a leak-current control unit (22; 22a) that inputs the zero-phase current detected by the leak-current detecting unit , and generates a control signal having cyclicity that is synchronized with the alternating-current power supply ; and an anti-phase current generating unit (23; 23a) that inputs the control signal, generates an anti-phase current that is in anti-phase with respect to the zero-phase current, and outputs the anti-phase current, characterized in that the leak-current control unit (22; 22a) includes an accumulating unit configured to accumulate data detected by the leak-current detecting unit , and the leak-current control unit configured to output the zero-phase current detected by the leak-current detecting unit as the data to the accumulating unit and to output the control signal based on a leak-current data accumulated in the accumulating unit , the data of which is data obtained by one of several samples before reaching one cycle of samples, to the anti-phase current generating unit . a leak-current detecting unit that detects a zero-phase current flowing from either an electric-motor driving device (100; 100a; 100b; 100c; 100d), which drives an electric motor with electric power from an alternating-current power supply , or the electric motor to a ground; a leak-current control unit (22; 22a) that inputs the zero-phase current detected by the leak-current detecting unit , and generates a control signal having cyclicity that is synchronized with the alternating-current power supply ; and an anti-phase current generating unit (23; 23a) that inputs the control signal, generates an anti-phase current that is in anti-phase with respect to the zero-phase current, and outputs the anti-phase current, characterized in that the leak-current control unit (22; 22a) includes an accumulating unit configured to accumulate data detected by the leak-current detecting unit , and the leak-current control unit configured to output the zero-phase current detected by the leak-current detecting unit as the data to the accumulating unit and to output the control signal based on a leak-current data accumulated in the accumulating unit , the data of which is data obtained by one of several samples before reaching one cycle of samples, to the anti-phase current generating unit .
A power compressor health state diagnostic system, comprising: an auxiliary power unit comprising a power compressor , a combustor , a power turbine , and a load compressor ; an air inlet duct coupled to the auxiliary power unit and configured to supply air to the power compressor and the load compressor; a bleed air duct coupled to the auxiliary power unit for receiving bleed air discharged from the load compressor; a bleed air pressure sensor (144-1) disposed in the bleed air duct and configured to sense bleed air pressure and supply a bleed air pressure signal representative thereof; and a processor coupled to receive the bleed air pressure signal and configured, upon receipt thereof, to diagnose power compressor health state based solely on the sensed bleed air pressure, wherein the processor is further configured to track bleed air pressure overtime and diagnose the power compressor health state based on the tracked bleed air pressure. an auxiliary power unit comprising a power compressor , a combustor , a power turbine , and a load compressor ; an air inlet duct coupled to the auxiliary power unit and configured to supply air to the power compressor and the load compressor; a bleed air duct coupled to the auxiliary power unit for receiving bleed air discharged from the load compressor; a bleed air pressure sensor (144-1) disposed in the bleed air duct and configured to sense bleed air pressure and supply a bleed air pressure signal representative thereof; and a processor coupled to receive the bleed air pressure signal and configured, upon receipt thereof, to diagnose power compressor health state based solely on the sensed bleed air pressure, wherein the processor is further configured to track bleed air pressure overtime and diagnose the power compressor health state based on the tracked bleed air pressure.
A method of selectively etching a metal component of a workpiece further comprising a ferromagnetic insulator component , which method comprises: contacting the metal component with an etchant solution; wherein the etchant solution comprises a basic etchant and a solvent; wherein the solvent comprises a mixture of water and a C1 to C5 alkanol; and wherein the water is present in an amount in the range 3 % to 10 % by weight based on the total weight of the solvent. contacting the metal component with an etchant solution; wherein the etchant solution comprises a basic etchant and a solvent; wherein the solvent comprises a mixture of water and a C1 to C5 alkanol; and wherein the water is present in an amount in the range 3 % to 10 % by weight based on the total weight of the solvent.
Antenna construction for an antenna circuit , which comprises - a conductive ground plane on a first surface, - a first transmission line on at least one second surface, the first transmission line being connected to the ground plane through a fold in the edge of the antenna construction, - an insulation layer arranged between the first and the second surfaces, and - an electronic component attached to the second surface of the antenna construction, wherein - the electronic component comprises a double-terminal antenna connector, connected to the antenna construction, wherein the electronic component is connected from the first antenna terminal to the first transmission line and from the second antenna terminal to a second transmission line on the second surface, the length of the transmission line connected to the first antenna terminal of the electronic component being λ*(2n-1)/4 characterized by the length of the second transmission line being λ*n/2 or λ*(2n-1)/4, where n is an integer larger than zero. - a conductive ground plane on a first surface, - a first transmission line on at least one second surface, the first transmission line being connected to the ground plane through a fold in the edge of the antenna construction, - an insulation layer arranged between the first and the second surfaces, and - an electronic component attached to the second surface of the antenna construction, wherein - the electronic component comprises a double-terminal antenna connector, connected to the antenna construction, wherein the electronic component is connected from the first antenna terminal to the first transmission line and from the second antenna terminal to a second transmission line on the second surface, the length of the transmission line connected to the first antenna terminal of the electronic component being λ*(2n-1)/4 characterized by the length of the second transmission line being λ*n/2 or λ*(2n-1)/4, where n is an integer larger than zero.
An article useful as forming and cutting tool comprising: (a) an upper die having: (i) an upper pressure pad mounted to a support surface of the upper die , wherein the upper pressure pad includes an upper shearing edge located at least partially about an inner perimeter of the upper pressure pad ; (ii) an upper mold mounted to the support surface of the upper die and disposed within a recess of the upper pressure pad ; (b) a lower die opposing the upper die having: (i) a lower pressure pad mounted to a support surface of the lower die ; (ii) a lower mold mounted to the support surface of the lower die and disposed within a recess of the lower pressure pad , wherein the lower mold includes a lower shearing edge located at least partially about an outer perimeter of the lower mold ; and wherein the upper die is adapted to come into contact with the lower die such that the upper pressure pad applies pressure to the lower pressure pad and the upper mold applies pressure to the lower mold to form a composite structure ; characterized in that the upper die is adapted to contact the lower die so that the upper shearing edge bypasses the lower shearing edge to form a non-planar cut in a portion of the composite structure , wherein a portion of the upper shearing edge and a portion of the lower shearing edge are non-planar and are curved, angled or both relative to a transverse plane of the article, a longitudinal plane of the article, or both, and are adapted to form the non-planar cut. (a) an upper die having: (i) an upper pressure pad mounted to a support surface of the upper die , wherein the upper pressure pad includes an upper shearing edge located at least partially about an inner perimeter of the upper pressure pad ; (ii) an upper mold mounted to the support surface of the upper die and disposed within a recess of the upper pressure pad ; (i) an upper pressure pad mounted to a support surface of the upper die , wherein the upper pressure pad includes an upper shearing edge located at least partially about an inner perimeter of the upper pressure pad ; (ii) an upper mold mounted to the support surface of the upper die and disposed within a recess of the upper pressure pad ; (b) a lower die opposing the upper die having: (i) a lower pressure pad mounted to a support surface of the lower die ; (ii) a lower mold mounted to the support surface of the lower die and disposed within a recess of the lower pressure pad , wherein the lower mold includes a lower shearing edge located at least partially about an outer perimeter of the lower mold ; and (i) a lower pressure pad mounted to a support surface of the lower die ; (ii) a lower mold mounted to the support surface of the lower die and disposed within a recess of the lower pressure pad , wherein the lower mold includes a lower shearing edge located at least partially about an outer perimeter of the lower mold ; and
A panel assembly comprising: a panel ; a beam attached to the panel; and a plurality of stiffeners attached to the panel, wherein each stiffener comprises a respective bridge which crosses over the beam at an intersection from a first side of the beam to a second side of the beam, each bridge has an outer surface facing away from the panel and an inner surface facing towards the panel, the inner surface of each bridge deviates away from the panel to form a recess at the intersection, and the outer surface of each bridge deviates away from the panel to form a protrusion at the intersection.