mhurhangee/ep-ind-claims huggingface dataset:
A data collection device, characterized by comprising: an acquisition unit configured to acquire, for a plurality of data transmission requests, first predicted values of a delay from transmission of the respective data transmission requests to a start of reception of the respective data transmitted by a respective target of the respective data transmission requests and second predicted values of a throughput regarding the reception of the respective data transmitted by a respective target of the respective data transmission requests; a classification unit configured to classify the plurality of data transmission requests into groups based on first dispersion of the first predicted values and second dispersion of the second predicted values; a determination unit configured to determine transmission timings of each of the groups wherein the transmission timings of the respective data transmission requests belonging to the same group are the same; and a vehicle data request unit configured to transmit the data transmission requests to their respective target on the basis of the determined transmission timings of the respective group to which a respective data transmission request belongs. an acquisition unit configured to acquire, for a plurality of data transmission requests, first predicted values of a delay from transmission of the respective data transmission requests to a start of reception of the respective data transmitted by a respective target of the respective data transmission requests and second predicted values of a throughput regarding the reception of the respective data transmitted by a respective target of the respective data transmission requests; a classification unit configured to classify the plurality of data transmission requests into groups based on first dispersion of the first predicted values and second dispersion of the second predicted values; a determination unit configured to determine transmission timings of each of the groups wherein the transmission timings of the respective data transmission requests belonging to the same group are the same; and a vehicle data request unit configured to transmit the data transmission requests to their respective target on the basis of the determined transmission timings of the respective group to which a respective data transmission request belongs.
Thread tapping tool, a) at the circumference of which cutting teeth each having a leading end and a trailing end are arranged, b) wherein the leading end of each tooth forms, between at least one tool face (6, 6a) with at least one rake angle (γ, γ1) and at least one tool flank (7, 7a) with at least one clearance angle (α, α1), at least one wedge with at least one wedge edge (9, 9a) and at least one wedge angle (β, β1), c) wherein the or at least one wedge edge (9, 9a) forms a circumferential edge of the thread tapping tool, and d) wherein the or at least one wedge angle (β) at and/or close to the associated wedge edge (9, 9a) is enlarged by forming an edge transition between the tool face and the tool flank, characterised in that e) the or at least one edge transition has one or more curvatures in sections, f) and in that the edge transition which has one or more curvatures in sections, is configured straight in at least one partial region. a) at the circumference of which cutting teeth each having a leading end and a trailing end are arranged, b) wherein the leading end of each tooth forms, between at least one tool face (6, 6a) with at least one rake angle (γ, γ1) and at least one tool flank (7, 7a) with at least one clearance angle (α, α1), at least one wedge with at least one wedge edge (9, 9a) and at least one wedge angle (β, β1), c) wherein the or at least one wedge edge (9, 9a) forms a circumferential edge of the thread tapping tool, and d) wherein the or at least one wedge angle (β) at and/or close to the associated wedge edge (9, 9a) is enlarged by forming an edge transition between the tool face and the tool flank, characterised in that e) the or at least one edge transition has one or more curvatures in sections, f) and in that the edge transition which has one or more curvatures in sections, is configured straight in at least one partial region.
A spinal distraction system comprising: a bearing connector, a fixated rod and a sliding rod wherein the bearing connector is fastened to the fixated rod and the sliding rod, wherein the sliding rod includes a spring and a stop ring, the spring configured to be loaded onto the sliding rod so that it abuts the stop ring; wherein the stop ring includes a bore and a set screw so that the sliding rod is inserted through the bore of the stop ring. a bearing connector, a fixated rod and a sliding rod wherein the bearing connector is fastened to the fixated rod and the sliding rod, wherein the sliding rod includes a spring and a stop ring, the spring configured to be loaded onto the sliding rod so that it abuts the stop ring; wherein the stop ring includes a bore and a set screw so that the sliding rod is inserted through the bore of the stop ring.
A process for identifying a polynucleotide encoding a polypeptide which confers resistance to Puccinia graminis comprising: i) obtaining an isolated polynucleotide operably linked to a promoter, the polynucleotide encoding a polypeptide comprising amino acids having a sequence as provided in SEQ ID NO:1 or SEQ ID NO:2, or an amino acid sequence which is at least 40% identical to one or both of SEQ ID NO:1 and SEQ ID NO:2, ii) introducing the polynucleotide into a plant, iii) determining whether the level of resistance to Puccinia graminis is modified relative to an isogenic plant lacking the polynucleotide, and iv) optionally, selecting a polynucleotide which when expressed confers resistance to Puccinia graminis. i) obtaining an isolated polynucleotide operably linked to a promoter, the polynucleotide encoding a polypeptide comprising amino acids having a sequence as provided in SEQ ID NO:1 or SEQ ID NO:2, or an amino acid sequence which is at least 40% identical to one or both of SEQ ID NO:1 and SEQ ID NO:2, ii) introducing the polynucleotide into a plant, iii) determining whether the level of resistance to Puccinia graminis is modified relative to an isogenic plant lacking the polynucleotide, and iv) optionally, selecting a polynucleotide which when expressed confers resistance to Puccinia graminis.
An applicator configured for topically applying a composition to a face comprising: a first surface and an opposing second surface configured to make contact with the skin or facial substrate; wherein the applicator is non-porous, free of a non-woven material, and free of an adhesive; wherein the second surface is a concave surface, being configured to contain a volume from 0.1 ml to 10 ml; wherein the first surface is generally convex; wherein the first surface and the second surface each comprise a non-absorbing elastomeric material; wherein the applicator has a curvilinear shape as defined by a circumferential edge, said curvilinear shape being elliptical; wherein the applicator has a length from 45 mm to 70 mm, and a thickness not exceeding 6mm.
Diaphragm pump with several pump chambers, wherein each pump chamber is provided with at least one inlet valve and at least one outlet valve and the diaphragm pump has an inlet chamber and an outlet chamber, wherein the respective pump chamber is connected via the inlet valve to the inlet chamber and via the outlet valve to the outlet chamber, wherein the inlet valve has an inlet opening able to be closed by an inlet valve body and the outlet valve has an outlet opening able to be closed by an outlet valve body, characterised in that the outlet opening of the respective pump chamber surrounds the inlet opening of the respective pump chamber or that the inlet opening of the respective pump chamber surrounds the outlet opening of the respective pump chamber.
Method for monitoring a sealing structure for sealing at least one negative or positive pressure zone adjoining a surface moving in a direction of movement in a machine for producing or processing a fibrous web, the sealing structure comprising at least one sealing element which is in frictional contact with the moving surface and as a result is subjected to wear, and the method comprising the steps: a) providing the time z0 at which the sealing element became operational b) providing the time z1 at which a defined first level of wear of the sealing element was reached, c) providing at least one further characteristic variable K1 d) predicting a remaining operating time of the sealing element from the knowledge of the times z0 and z1, in particular from the time difference between z0 and z1, and also the at least one further characteristic variable K1, by means of a computer system, characterized in that the further characteristic variable K1 describes the machine speed, the operating times of the machine, the stoppage times of the machine, the type and/or quantity of the products produced, or the contact pressure of the sealing element onto the moving surface. a) providing the time z0 at which the sealing element became operational b) providing the time z1 at which a defined first level of wear of the sealing element was reached, c) providing at least one further characteristic variable K1 d) predicting a remaining operating time of the sealing element from the knowledge of the times z0 and z1, in particular from the time difference between z0 and z1, and also the at least one further characteristic variable K1, by means of a computer system, characterized in that the further characteristic variable K1 describes the machine speed, the operating times of the machine, the stoppage times of the machine, the type and/or quantity of the products produced, or the contact pressure of the sealing element onto the moving surface.
A linear compressor comprising: a cylinder; a piston configured to axially reciprocate in the cylinder; a back cover disposed at a rear of the piston, the back cover defining an opening at a central region around an axial centerline thereof; a first muffler unit coupled to the piston, the first muffler unit comprising (i) an inner guide disposed in the piston and (ii) a first intake muffler disposed between the inner guide and the back cover; and a second muffler unit comprising (i) a second intake muffler that is in fluid communication with the first intake muffler and (ii) a muffler body surrounding the second intake muffler, characterized in that: the second intake muffler is coupled to the back cover adjacent to the opening, the second muffler unit further comprises (iii) a muffler cover disposed between the muffler body and the back cover, an outer circumferential surface of the second intake muffler defines a first communication hole that fluidly communicates an inside of the second intake muffler with a first space that is defined between the second intake muffler and the muffler body, and the muffler body defines a resonance communication hole that fluidly communicates the first space with a second space that is defined between the muffler body and the muffler cover. a cylinder; a piston configured to axially reciprocate in the cylinder; a back cover disposed at a rear of the piston, the back cover defining an opening at a central region around an axial centerline thereof; a first muffler unit coupled to the piston, the first muffler unit comprising (i) an inner guide disposed in the piston and (ii) a first intake muffler disposed between the inner guide and the back cover; and a second muffler unit comprising (i) a second intake muffler that is in fluid communication with the first intake muffler and (ii) a muffler body surrounding the second intake muffler, characterized in that: the second intake muffler is coupled to the back cover adjacent to the opening, the second muffler unit further comprises (iii) a muffler cover disposed between the muffler body and the back cover, an outer circumferential surface of the second intake muffler defines a first communication hole that fluidly communicates an inside of the second intake muffler with a first space that is defined between the second intake muffler and the muffler body, and the muffler body defines a resonance communication hole that fluidly communicates the first space with a second space that is defined between the muffler body and the muffler cover. the second intake muffler is coupled to the back cover adjacent to the opening, the second muffler unit further comprises (iii) a muffler cover disposed between the muffler body and the back cover, an outer circumferential surface of the second intake muffler defines a first communication hole that fluidly communicates an inside of the second intake muffler with a first space that is defined between the second intake muffler and the muffler body, and the muffler body defines a resonance communication hole that fluidly communicates the first space with a second space that is defined between the muffler body and the muffler cover.
A computer-implemented method for targeting a specified capacity of a variational embedding, the method comprising: adjusting a KL term of a reference encoder to provide an upper bound on variational embedding capacity, the KL term configured to align the reference encoder with a prior embedding; receiving, at the reference encoder, a reference audio signal; determining, by the reference encoder, a variational embedding associated with the reference audio signal, the variational embedding having a capacity bounded by the upper bound provided by the adjusted KL term; and providing the variational embedding associated with the reference audio signal to a text-to-speech synthesis model, the TTS synthesis model configured to convert input text into synthesized speech based on the variational embedding associated with the reference audio signal. adjusting a KL term of a reference encoder to provide an upper bound on variational embedding capacity, the KL term configured to align the reference encoder with a prior embedding; receiving, at the reference encoder, a reference audio signal; determining, by the reference encoder, a variational embedding associated with the reference audio signal, the variational embedding having a capacity bounded by the upper bound provided by the adjusted KL term; and providing the variational embedding associated with the reference audio signal to a text-to-speech synthesis model, the TTS synthesis model configured to convert input text into synthesized speech based on the variational embedding associated with the reference audio signal.
Holder for medical instruments, with a support arm on which at least one medical instrument can be secured, and with at least one joint for positioning the support arm and/or the medical instrument, wherein the at least one joint is designed as a ball-and-socket joint which is provided with at least one bearing shell and a joint ball and is arranged in a joint housing, and whose pivot angle about the longitudinal axis of the joint is limited by a pivot guard, wherein the pivot guard is arranged in the inside of the joint ball and is composed of a stop connected rigidly to the joint ball and of a counter-stop connected rigidly to the joint housing, characterized in that the stop on the joint ball side is arranged on the inside of a recess of the joint ball approximately at the height of the centre of the joint ball, wherein the stop is designed as a projection that points radially inwards and that is arranged on a ring let into the inside of the recess, and in that the counter-stop on the joint housing side is arranged on a rod that is rigidly connected to the joint housing and that protrudes into the recess of the joint ball.
A method for magnetic/impedance burst testing of an AC induction motor, i.e. ACIM, comprising: providing a portable tester that provides a Signal Processor, a single-phase power source VAC, an AC to DC boost converter connected to the power source, at least one energy storage device connected to the AC to DC boost converter, a pulse width modulated drive module connected to the at least one energy storage device, and a series of at least three switches, i.e. IPM, using switch/level boost-type pulse width modulated rectification, the IPM connected to both the 3 legs of the large electric motor and the pulse width modulated drive module, the method comprising: programming the pulse width modulated drive module with a desired duration of output burst with the Signal Processor; programming the pulse width modulated drive module with an initial magnetic test angle with the Signal Processor; programming the pulse width modulated drive module with a test frequency for magnetic angle reversals with the Signal Processor; programming a Programmable Gain Amplifier with the Signal Processor to optimize the signal gain in order to prevent voltage and current signal clipping; and controlling the pulse width modulated drive module with the Signal Processor to control the amplitude, magnetic angle and test frequency for magnetic angle reversals applied to the ACIM. programming the pulse width modulated drive module with a desired duration of output burst with the Signal Processor; programming the pulse width modulated drive module with an initial magnetic test angle with the Signal Processor; programming the pulse width modulated drive module with a test frequency for magnetic angle reversals with the Signal Processor; programming a Programmable Gain Amplifier with the Signal Processor to optimize the signal gain in order to prevent voltage and current signal clipping; and controlling the pulse width modulated drive module with the Signal Processor to control the amplitude, magnetic angle and test frequency for magnetic angle reversals applied to the ACIM.
A semiconductor module, comprising: a base (10a, 10b, 10c) configuring a multiple of terminals (C1 to C6, B1, B2, M1, M2) or wires (G1, G2); a semiconductor switching element (T1 to T4) mounted on a mounting portion of the terminal (C1 to C6, B1, B2, M1, M2); and a molded resin that seals the semiconductor switching element (T1 to T4), wherein a wide portion (G10, G11, G12, G13, G20) having a width greater than that of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) is a reinforcing member and formed in one portion of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) in an outer peripheral side end portion of the molded resin, and the wide portion (G10, G11, G12, G13, G20) is embedded and fixed in an interior of the molded resin in a state extended toward the interior from the outer peripheral side end portion of the molded resin, characterized in that one portion of the wide portion (G10, G11, G12, G13, G20) is formed protruding in upward and downward and in left and right directions from an external side face of the molded resin. a base (10a, 10b, 10c) configuring a multiple of terminals (C1 to C6, B1, B2, M1, M2) or wires (G1, G2); a semiconductor switching element (T1 to T4) mounted on a mounting portion of the terminal (C1 to C6, B1, B2, M1, M2); and a molded resin that seals the semiconductor switching element (T1 to T4), wherein a wide portion (G10, G11, G12, G13, G20) having a width greater than that of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) is a reinforcing member and formed in one portion of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) in an outer peripheral side end portion of the molded resin, and the wide portion (G10, G11, G12, G13, G20) is embedded and fixed in an interior of the molded resin in a state extended toward the interior from the outer peripheral side end portion of the molded resin, characterized in that one portion of the wide portion (G10, G11, G12, G13, G20) is formed protruding in upward and downward and in left and right directions from an external side face of the molded resin.
A stereolithography apparatus comprising a vat (20, 21) for containing a liquid resin, said vat (20, 21) comprising: a) a receptacle for the resin; b) at least one supplemental resin container (127, 128, 129) containing resin and in flow communication with said receptacle for adding resin to or removing resin from said receptacle, thereby to maintain a resin level in said receptacle; and c) a controller operatively connected to said at least one supplemental resin container (127, 128, 129) for controlling flow to and from said supplemental resin container (127, 128, 129), characterized in that d) said at least one supplemental resin container (127, 128, 129) comprises a radio frequency identification tag so as to ensure accurate resin replacement. a) a receptacle for the resin; b) at least one supplemental resin container (127, 128, 129) containing resin and in flow communication with said receptacle for adding resin to or removing resin from said receptacle, thereby to maintain a resin level in said receptacle; and c) a controller operatively connected to said at least one supplemental resin container (127, 128, 129) for controlling flow to and from said supplemental resin container (127, 128, 129), characterized in that d) said at least one supplemental resin container (127, 128, 129) comprises a radio frequency identification tag so as to ensure accurate resin replacement.
A gate driving circuit comprising a plurality of sets of gate driving units, wherein each set of gate driving units comprises m gate driving units, and m is an integer greater than 1; each set of gate driving units is configured to output a gate driving signal to a gate line; when one gate driving unit in a set of gate driving units malfunctions, said gate driving unit is configured to be terminated in operation and other gate driving units in the set of gate driving units are configured to maintain an operation of the set of gate driving units, characterized in that each of gate driving units comprises a gate driving module, a detection module and a control module, wherein the gate driving module comprises a first input port (a) and a second input port (b), the first input port (a) of the gate driving module is connected to a first clock signal, and the second input port (b) of the gate driving module is connected to a second clock signal inverted to the first clock signal; when the detection module detects that there is a short-circuit between the first input port (a) of the gate driving module and the second input port (b) of the gate driving module, the detection module is configured to send a short-circuit signal to the control module; the control module is configured to disconnect a connection between the first input port (a) of the gate driving module and the first clock signal as well as a connection between the second input port (b) of the gate driving module and the second clock signal according to the short-circuit signal.
A blood component separation device for separating a plurality of blood components from blood sampled from a blood donor, and collecting platelets, comprising: a donor calculation unit that is configured to calculate a predicted platelet recovery rate from a hematocrit value of the blood and a platelet concentration of the blood, and is configured to calculate a recommended processing amount of the blood recommended for collecting a target number of units of platelets on the basis of the calculated predicted platelet recovery rate, wherein an operating unit is configured to set the predicted platelet recovery rate calculated from the hematocrit value and the platelet concentration to be smaller by a predetermined value α, when the blood donor is female than that when the blood donor is male. a donor calculation unit that is configured to calculate a predicted platelet recovery rate from a hematocrit value of the blood and a platelet concentration of the blood, and is configured to calculate a recommended processing amount of the blood recommended for collecting a target number of units of platelets on the basis of the calculated predicted platelet recovery rate, wherein an operating unit is configured to set the predicted platelet recovery rate calculated from the hematocrit value and the platelet concentration to be smaller by a predetermined value α, when the blood donor is female than that when the blood donor is male.