mhurhangee/ep-ind-claims huggingface dataset:
A cross-flow fan applied to a fan heater, comprising two fixing plates oppositely disposed, and a plurality of blades connected between the two fixing plates, the plurality of blades being disposed at intervals along an outer edge of each fixing plate, wherein the blades are twisted along an axial direction of the cross-flow fan, and a relative twisting angle at both ends of one of the blades is no less than 5° and no more than 40°, characterized in that the cross-flow fan comprises a plurality of first blades and a plurality of second blades, wherein one of the first blades and one of the second blades are alternately disposed; a width of the one of the first blades is greater than a width of the one of the second blades; and, wherein gaps between two of the first blades and the second blades are alternately changed. two fixing plates oppositely disposed, and a plurality of blades connected between the two fixing plates, the plurality of blades being disposed at intervals along an outer edge of each fixing plate, wherein the blades are twisted along an axial direction of the cross-flow fan, and a relative twisting angle at both ends of one of the blades is no less than 5° and no more than 40°, characterized in that the cross-flow fan comprises a plurality of first blades and a plurality of second blades, wherein one of the first blades and one of the second blades are alternately disposed; a width of the one of the first blades is greater than a width of the one of the second blades; and, wherein gaps between two of the first blades and the second blades are alternately changed.
A method for providing a K2-enriched FU-LING extract, comprising the following steps: (a) mixing a FU-LING with water to provide a first mixture; (b) alkalizing the first mixture to obtain a second mixture at a temperature ranging from 60°C to 70°C; (c) decreasing the pH value of the second mixture by at least 3 to obtain a third mixture, wherein the third mixture contains K1 of no more than 0.5 wt%, based on the total weight of K1 and K2; (d) alkalizing the third mixture to obtain a fourth mixture having a pH value of more than 10; (e) performing a centrifugation on the fourth mixture after the step (d) to remove liquids; and (f) neutralizing the fourth mixture, wherein the K1 is at least one of pachymic acid and dehydropachymic acid, and wherein the K2 is tumulosic acid, dehydrotumulosic acid, polyporenic acid C and 3-epi-dehydrotumulosic acid, and wherein the tumulosic acid, dehydrotumulosic acid, polyporenic acid C and 3-epi-dehydrotumulosic acid are at a total amount of no less than 45%, based on the total weight of the K2-enriched FU-LING extract. (a) mixing a FU-LING with water to provide a first mixture; (b) alkalizing the first mixture to obtain a second mixture at a temperature ranging from 60°C to 70°C; (c) decreasing the pH value of the second mixture by at least 3 to obtain a third mixture, wherein the third mixture contains K1 of no more than 0.5 wt%, based on the total weight of K1 and K2; (d) alkalizing the third mixture to obtain a fourth mixture having a pH value of more than 10; (e) performing a centrifugation on the fourth mixture after the step (d) to remove liquids; and (f) neutralizing the fourth mixture,
System for generating collisions or situations close to collisions between a collision body, in particular a vehicle, and a test object, wherein the system comprises an attachment plate with a coupling mechanism by which the test object is detachably coupleable on the attachment plate, a driving belt which is attached to the attachment plate, and a driving unit with a driving body for driving the driving belt, wherein the driving unit, the driving belt and the attachment plate are directly placeable on a ground, such that the driving body is moving the driving belt and the attachment plate along the ground, wherein the driving belt comprises a bearing surface for bearing on the ground and an edge surface, wherein a width of the bearing surface is larger than a height of the edge surface, such that the driving belt is flexible and twistable around a longitudinal direction of the driving belt, and such that the driving belt is rigid around a normal of the bearing surface. an attachment plate with a coupling mechanism by which the test object is detachably coupleable on the attachment plate, a driving belt which is attached to the attachment plate, and a driving unit with a driving body for driving the driving belt, wherein the driving unit, the driving belt and the attachment plate are directly placeable on a ground, such that the driving body is moving the driving belt and the attachment plate along the ground, wherein the driving belt comprises a bearing surface for bearing on the ground and an edge surface, wherein a width of the bearing surface is larger than a height of the edge surface, such that the driving belt is flexible and twistable around a longitudinal direction of the driving belt, and such that the driving belt is rigid around a normal of the bearing surface.
An isolated hydrophobic modified polynucleotide, wherein the polynucleotide is double stranded RNA attached to a hydrophobic molecule, wherein the double stranded nucleic acid molecule comprises a guide strand and a passenger strand, wherein the guide strand is from 16-29 nucleotides long and is substantially complementary to a target gene, wherein the passenger strand is from 8-14 nucleotides long and has complementarity to the guide strand, wherein position 1 of the guide strand is 5' phosphorylated and/or has a 2'O-methyl modification, wherein at least 40% of the nucleotides of the double stranded nucleic acid are modified, and wherein the double stranded nucleic acid molecule has one end that is blunt or includes a one-two nucleotide overhang, wherein the hydrophobic modified polynucleotide is capable of inhibiting expression of the target gene.
Presentation display having two side walls (12, 12') which have in each case a row of slot-like recesses arranged one above the other with a vertical spacing, and having shelves which can be inserted by way of laterally projecting insertion lugs into recesses of both side walls (12, 12') and which, in the installed state, are supported by the side walls (12, 12'), characterized in that, in each side wall (12, 12'), between in each case two successive recesses, there is arranged a recess pair having two slot-like partial recesses which are arranged with a spacing to one another as measured in a horizontal direction, shelves can be inserted by way of a laterally projecting insertion lug pair, which is designed correspondingly to the recess pair, into said recess pair, the recesses of one side wall (12, 12') are assigned to recess pairs of the other side wall, and the shelves have an insertion lug at one side and have an insertion lug pair at the other side.
An apparatus for encoding an image, the apparatus comprising: an intra predictor configured to generate a prediction block using intra prediction; a transform/quantization unit configured to transform and quantize a residual block to generate a quantized transform block; an inverse quantization/transform unit configured to inversely quantize and inversely transform the quantized transform block; and an entropy coder configured to entropy-code quantized transform coefficients of the quantized transform block, wherein the quantized transform coefficients are divided into a plurality of sub-blocks if it is determined that a size of a transform block is equal to or larger than 8x8 in an intra prediction, wherein the plurality of sub-blocks are scanned and non-zero coefficients of each sub-block are scanned according to a scan pattern, wherein said scan pattern for scanning the plurality of sub-blocks and for scanning the non-zero coefficients of each sub-block is determined by an intra prediction mode of the prediction block to entropy-code the scanned non-zero coefficients, wherein, when the intra prediction mode is a horizontal mode, the scan pattern is a vertical scan pattern, wherein the entropy coder scans the non-zero coefficients of each sub-block in a reverse direction from a last non-zero coefficient of each sub-block. an intra predictor configured to generate a prediction block using intra prediction; a transform/quantization unit configured to transform and quantize a residual block to generate a quantized transform block; an inverse quantization/transform unit configured to inversely quantize and inversely transform the quantized transform block; and an entropy coder configured to entropy-code quantized transform coefficients of the quantized transform block, wherein the quantized transform coefficients are divided into a plurality of sub-blocks if it is determined that a size of a transform block is equal to or larger than 8x8 in an intra prediction, wherein the plurality of sub-blocks are scanned and non-zero coefficients of each sub-block are scanned according to a scan pattern, wherein said scan pattern for scanning the plurality of sub-blocks and for scanning the non-zero coefficients of each sub-block is determined by an intra prediction mode of the prediction block to entropy-code the scanned non-zero coefficients, wherein, when the intra prediction mode is a horizontal mode, the scan pattern is a vertical scan pattern, wherein the entropy coder scans the non-zero coefficients of each sub-block in a reverse direction from a last non-zero coefficient of each sub-block.
Work tool comprising a releasable tooth (5, 90) and a tooth support member (4, 91), the releasable tooth (5, 90) being releasably fixed to the tooth support member (4, 91), - the tooth support member (4, 91) having a base surface (43, 75), two spaced apart side surfaces (16, 17), a front surface, a rear surface, and a top surface extending along a length between the front surface and the rear surface; - the releasable tooth (5, 90) having two spaced-apart side walls (11, 12) situated alongside the side surfaces (16, 17), a front transverse part and a top wall extending along a length from the front transverse part, the top wall being adapted for transferring a force exerted on the releasable tooth (50, 90) with a component that is directed transversely to the top wall, to the top surface of the tooth support member (4, 91); - the top wall having an opening, overlying a part of the top surface of the tooth support member (4, 91); - characterised in that the side walls (11, 12) of the releasable tooth (5, 90) are supported by the base surface (43, 75). - the tooth support member (4, 91) having a base surface (43, 75), two spaced apart side surfaces (16, 17), a front surface, a rear surface, and a top surface extending along a length between the front surface and the rear surface; - the releasable tooth (5, 90) having two spaced-apart side walls (11, 12) situated alongside the side surfaces (16, 17), a front transverse part and a top wall extending along a length from the front transverse part, the top wall being adapted for transferring a force exerted on the releasable tooth (50, 90) with a component that is directed transversely to the top wall, to the top surface of the tooth support member (4, 91); - the top wall having an opening, overlying a part of the top surface of the tooth support member (4, 91); - characterised in that the side walls (11, 12) of the releasable tooth (5, 90) are supported by the base surface (43, 75).
A system configured to identify fat content in a region of interest, the system comprising: a radio-frequency source configured to direct pulses of radio-frequency electromagnetic radiation toward the region of interest, wherein the region of interest has an object of interest, a reference with known properties, and a boundary area with one or more boundary locations between the object of interest and the reference; at least one thermoacoustic or ultrasonic transducer configured to receive a plurality of thermoacoustic bipolar signals from the one or more boundary locations, wherein the plurality of thermoacoustic bipolar signals are induced by the pulses of radio-frequency electromagnetic radiation delivered to the region of interest; and a processor configured to accept data from a radio-frequency source and the plurality of thermoacoustic or ultrasonic transducers, characterised in that said processor is further configured to calculate a fat concentration that is a function of a difference between two peaks of the thermoacoustic bipolar signal at each respective boundary location and a distance or distances between each respective boundary location of the object of interest and the reference.
A two stroke internal combustion engine comprising: a cylinder head, wherein the cylinder head comprises: an auxiliary combustion chamber to achieve at least partial combustion of a charge; an inlet passage through which the charge is to be inducted into the auxiliary combustion chamber, the inlet passage being in substantial proximity of the auxiliary combustion chamber; an inlet port provided at the auxiliary combustion chamber, wherein the inlet passage opens into the auxiliary combustion chamber through the inlet port; and an inlet valve provided at the inlet port to regulate an induction of the charge into the auxiliary combustion chamber through the inlet passage; and a cylinder block having the cylinder head mounted thereon, wherein the cylinder block comprises a cylinder bore having a piston disposed therein; a main combustion chamber formed between the cylinder head and the piston, wherein a volume of the main combustion chamber is less than a volume of the auxiliary combustion chamber; a fuel supply pump in fluid communication with the auxiliary combustion chamber through the inlet passage to induct the charge into the auxiliary combustion chamber. a cylinder head, wherein the cylinder head comprises: an auxiliary combustion chamber to achieve at least partial combustion of a charge; an inlet passage through which the charge is to be inducted into the auxiliary combustion chamber, the inlet passage being in substantial proximity of the auxiliary combustion chamber; an inlet port provided at the auxiliary combustion chamber, wherein the inlet passage opens into the auxiliary combustion chamber through the inlet port; and an inlet valve provided at the inlet port to regulate an induction of the charge into the auxiliary combustion chamber through the inlet passage; and an auxiliary combustion chamber to achieve at least partial combustion of a charge; an inlet passage through which the charge is to be inducted into the auxiliary combustion chamber, the inlet passage being in substantial proximity of the auxiliary combustion chamber; an inlet port provided at the auxiliary combustion chamber, wherein the inlet passage opens into the auxiliary combustion chamber through the inlet port; and an inlet valve provided at the inlet port to regulate an induction of the charge into the auxiliary combustion chamber through the inlet passage; and a cylinder block having the cylinder head mounted thereon, wherein the cylinder block comprises a cylinder bore having a piston disposed therein; a main combustion chamber formed between the cylinder head and the piston, wherein a volume of the main combustion chamber is less than a volume of the auxiliary combustion chamber; a fuel supply pump in fluid communication with the auxiliary combustion chamber through the inlet passage to induct the charge into the auxiliary combustion chamber.
Device for processing preforms, comprising at least a holder device for holding at least one preform and for at least partial contacting arrangement of at least one wall part of the preform on at least one contact device, wherein by the at least one contact device a temperature of the first wall part can be prespecified which at least temporarily differs from the temperature of a second wall part of the preform that is always spaced from the contact device, wherein the contact device isheld releasably by a carrier device forming a holding zone for the contact device, wherein the outer holding zone at least in sections are formed negatively to the contact device, wherein the contact device is in contact with the holding zones with part of its outer surface facing the holding zones, and the inner surface of the contact device forms a cooling contact contour, and wherein the cooling contact contour extends linearly or curve-shaped or section-wise in a curveshape and is adapted and arranged to contact a wall region of the preform.
Electronic module comprising a set of electronic switches intended to produce a rectifier/inverter bridge arm for a phase of the machine for a rotating electric machine comprising: - a housing defined by a top face, a bottom face and at least three lateral faces, - electronic components disposed in said housing, said electronic components being mounted on power links (103, 104, 105), and said power links comprising ends which are all disposed in the vicinity of one and the same lateral face of the housing characterized in that the power links comprise at least one phase trace intended to be connected to a phase of the stator and electrical power conductors (103, 104) for supplying power to the components of said module, and in that a phase trace comprises an end placed between two electrical power conductors (103, 104) supplying power to the components of said module. - a housing defined by a top face, a bottom face and at least three lateral faces, - electronic components disposed in said housing,
Elevator access control system comprising at least two cameras (14, 16) including: a first camera which is configured to be mounted to an elevator car for capturing at least one first picture of persons residing within the elevator car, the at least one first picture allowing to identify individual persons; a second camera which is configured to be mounted to the elevator car for capturing at least one second picture of persons residing within the elevator car, the at least one second picture allowing to count the number of persons residing within the elevator car; and an evaluation unit which is configured for identifying persons from the at least one first picture captured by the first camera, counting the number of persons residing within the elevator car from the at least one second picture captured by the second camera and providing a car enable signal only in case the number of identified persons is identical to the number of persons residing within the elevator car; wherein the elevator access control system is configured for: tracking all persons entering the elevator car in the at least one second picture; associating a list of allowed landings with every tracked person which has been identified; and issuing an alarm signal in case a tracked person leaves the elevator car at a landing he/she is not allowed to enter. a first camera which is configured to be mounted to an elevator car for capturing at least one first picture of persons residing within the elevator car, the at least one first picture allowing to identify individual persons; a second camera which is configured to be mounted to the elevator car for capturing at least one second picture of persons residing within the elevator car, the at least one second picture allowing to count the number of persons residing within the elevator car; and an evaluation unit which is configured for identifying persons from the at least one first picture captured by the first camera, counting the number of persons residing within the elevator car from the at least one second picture captured by the second camera and providing a car enable signal only in case the number of identified persons is identical to the number of persons residing within the elevator car; wherein the elevator access control system is configured for: tracking all persons entering the elevator car in the at least one second picture; associating a list of allowed landings with every tracked person which has been identified; and issuing an alarm signal in case a tracked person leaves the elevator car at a landing he/she is not allowed to enter. tracking all persons entering the elevator car in the at least one second picture; associating a list of allowed landings with every tracked person which has been identified; and issuing an alarm signal in case a tracked person leaves the elevator car at a landing he/she is not allowed to enter.
An apparatus for estimating internal resistance of a battery pack, comprising: a voltage sensing unit that measures a voltage value of the battery pack; a current sensing unit that measures a current value of the battery pack; a temperature sensing unit that measures a temperature value of the battery pack; and a microprocessor unit /MCU/ that is configured to calculate the internal resistance of the battery pack using values transferred from the voltage sensing unit, the current sensing unit, and the temperature sensing unit, wherein current values satisfying a predetermined condition and voltage and temperature values according to the current values are extracted and then used to calculate the internal resistance of the battery pack, characterized in that the internal resistance IR is calculated using the following equation: IR = N ∗ ΣI i ∗ V i − ΣI i ΣV i / N ∗ ΣI i 2 − ΣI i 2 wherein N is the number of extracted current and voltage values, I i is an ith current value, and V i is an ith voltage value. a voltage sensing unit that measures a voltage value of the battery pack; a current sensing unit that measures a current value of the battery pack; a temperature sensing unit that measures a temperature value of the battery pack; and a microprocessor unit /MCU/ that is configured to calculate the internal resistance of the battery pack using values transferred from the voltage sensing unit, the current sensing unit, and the temperature sensing unit, wherein current values satisfying a predetermined condition and voltage and temperature values according to the current values are extracted and then used to calculate the internal resistance of the battery pack, characterized in that the internal resistance IR is calculated using the following equation: IR = N ∗ ΣI i ∗ V i − ΣI i ΣV i / N ∗ ΣI i 2 − ΣI i 2 wherein N is the number of extracted current and voltage values, I i is an ith current value, and V i is an ith voltage value.