mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the capacitance and loss-factor of each of a plurality of capacitive components of an electrical power device, wherein the method comprises: a) obtaining for each capacitive component a respective capacitance value and loss-factor value, and b) processing the capacitance values and the loss-factor values, wherein the processing involves removing a common influence of temperature on the capacitance values from the capacitance values and removing a common influence of temperature on the loss-factor values from the loss-factor values to obtain for each capacitive component a temperature-compensated capacitance value and a temperature-compensated loss-factor value, wherein the processing involves transforming by means of a first eigenvector matrix a capacitance vector for which each element is a respective one of the capacitance values, to obtain a transformed capacitance vector, and transforming back the transformed capacitance vector with the inverse of an adjusted first eigenvector matrix to obtain an adjusted capacitance vector, which as its elements contains the temperature-compensated capacitance values, wherein the adjusted first eigenvector matrix has the elements of one of the eigenvectors set to zero, wherein the eigenvector which has its elements set to zero is the eigenvector which corresponds to the largest eigenvalue, wherein the first eigenvector matrix contains the eigenvectors of a first covariance matrix of a learning-period capacitance matrix containing for each capacitive component a plurality of capacitance values obtained during a learning-period. a) obtaining for each capacitive component a respective capacitance value and loss-factor value, and b) processing the capacitance values and the loss-factor values, wherein the processing involves removing a common influence of temperature on the capacitance values from the capacitance values and removing a common influence of temperature on the loss-factor values from the loss-factor values to obtain for each capacitive component a temperature-compensated capacitance value and a temperature-compensated loss-factor value, wherein the processing involves transforming by means of a first eigenvector matrix a capacitance vector for which each element is a respective one of the capacitance values, to obtain a transformed capacitance vector, and transforming back the transformed capacitance vector with the inverse of an adjusted first eigenvector matrix to obtain an adjusted capacitance vector, which as its elements contains the temperature-compensated capacitance values, wherein the adjusted first eigenvector matrix has the elements of one of the eigenvectors set to zero, wherein the eigenvector which has its elements set to zero is the eigenvector which corresponds to the largest eigenvalue, wherein the first eigenvector matrix contains the eigenvectors of a first covariance matrix of a learning-period capacitance matrix containing for each capacitive component a plurality of capacitance values obtained during a learning-period.
A control device for a motor vehicle with an electric motor characterized in that it comprises, on one side of a flywheel, a pallet connected to means for providing the motor drive according to a direction of rotation corresponding to forward travel and on the other side of the flywheel, another pallet connected to means for driving the motor in a direction of rotation opposite to the previous one, corresponding to reverse travel.
Air-core inductor with a temperature measurement system, wherein a thermographic sensor, means for obtaining electrical energy from the electromagnetic field of the air-core inductor and means for contactless data transfer of the temperature measurement system are arranged on the air-core inductor, wherein the temperature measurement system is configured such that monitoring and control of the air-core inductor are effected and that on the basis of the determined infrared images of the thermographic sensor, by means of simulation, an expected remaining service life of the air-core inductor and a proposal for an exchange date are determined.
A cutting head (30,50) for a drill bit, characterised in that the cutting head (30,50) comprises four substantially identically shaped cutting arms (300,500) extending radially from a common central axial point, each cutting arm comprising a cutting edge (301,501) extending outwardly and axially backwards from the common central axial point, the cutting edges (301,501) equiangularly spaced apart from each other about the central axis of the cutting head (30,50), wherein each cutting arm (301,501) further comprises a side chamfer (350,550) extending between its radially outer face (302,502) and its rotationally trailing side face.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, BS, a UE capability enquiry; transmitting, to the BS as a response to the UE capability enquiry, UE capability information including a band combination, BC, list, characterized in that: wherein, a first field for a first BC of the BC list is included in the UE capability information, the first field for the first BC indicates that a Carrier Aggregation, CA, and a dual connectivity, DC, of a first radio access technology, RAT, and a second RAT is supported for the first BC, and wherein the first field includes a second field for a first feature set, FS, combination supported for the first BC, the second field for the first FS combination being associated with the DC. receiving, from a base station, BS, a UE capability enquiry; transmitting, to the BS as a response to the UE capability enquiry, UE capability information including a band combination, BC, list, characterized in that: wherein, a first field for a first BC of the BC list is included in the UE capability information, the first field for the first BC indicates that a Carrier Aggregation, CA, and a dual connectivity, DC, of a first radio access technology, RAT, and a second RAT is supported for the first BC, and wherein the first field includes a second field for a first feature set, FS, combination supported for the first BC, the second field for the first FS combination being associated with the DC. wherein, a first field for a first BC of the BC list is included in the UE capability information, the first field for the first BC indicates that a Carrier Aggregation, CA, and a dual connectivity, DC, of a first radio access technology, RAT, and a second RAT is supported for the first BC, and wherein the first field includes a second field for a first feature set, FS, combination supported for the first BC, the second field for the first FS combination being associated with the DC.
A lighting device comprising: a light source unit including a substrate and a light emitting device disposed on the substrate; a heat sink including an inner surface on which the substrate of the light source unit is disposed and a opening; and a top plate being disposed on the heat sink and including a reflective surface which reflects light from the light source unit in a particular direction, Characterized in that: the lighting device comprises a bottom plate disposed on the opening, and wherein the bottom plate comprises a light emitting opening through which the light reflected by the reflective surface of the top plate passes and comprises an edge defining the light emitting opening, in that the lighting device comprises an optical body which is disposed between the heat sink and the reflective surface of the top plate and excites, diffuses or collects light from the light source unit, and in that the edge is disposed on an imaginary line connecting the light source unit with the lowest portion of the reflective surface. a light source unit including a substrate and a light emitting device disposed on the substrate; a heat sink including an inner surface on which the substrate of the light source unit is disposed and a opening; and a top plate being disposed on the heat sink and including a reflective surface which reflects light from the light source unit in a particular direction, Characterized in that: the lighting device comprises a bottom plate disposed on the opening, and wherein the bottom plate comprises a light emitting opening through which the light reflected by the reflective surface of the top plate passes and comprises an edge defining the light emitting opening, in that the lighting device comprises an optical body which is disposed between the heat sink and the reflective surface of the top plate and excites, diffuses or collects light from the light source unit, and in that the edge is disposed on an imaginary line connecting the light source unit with the lowest portion of the reflective surface.
An encoding device, comprising: a normalization means for extracting an envelope from a spectrum of an audio signal and for normalizing the spectrum using the envelope; an envelope emphasis means for emphasizing the envelope; a noise shaping means for dividing the envelope emphasized by the envelope emphasis means by a value larger than 1 and for subtracting noise shaping specified by predetermined information from a result of the division; a quantization means for setting a result of the subtraction by the noise shaping means as a quantization bit count and for quantizing the spectrum normalized by the normalization means, based on the a quantization bit count; and a multiplexing means for multiplexing the predetermined information, the spectrum quantized by the quantization means, and the envelope, wherein the predetermined information is information indicative of a lowest value and a highest value of the noise shaping. a normalization means for extracting an envelope from a spectrum of an audio signal and for normalizing the spectrum using the envelope; an envelope emphasis means for emphasizing the envelope; a noise shaping means for dividing the envelope emphasized by the envelope emphasis means by a value larger than 1 and for subtracting noise shaping specified by predetermined information from a result of the division; a quantization means for setting a result of the subtraction by the noise shaping means as a quantization bit count and for quantizing the spectrum normalized by the normalization means, based on the a quantization bit count; and a multiplexing means for multiplexing the predetermined information, the spectrum quantized by the quantization means, and the envelope, wherein the predetermined information is information indicative of a lowest value and a highest value of the noise shaping.
Regeneration device constructed for preparation of reclaimed foundry sands, comprising: - a cylinder-shaped container with a lid and a base, - a first opening and/or a second opening, - a plurality of friction elements constructed to be rotationally driven in the container, wherein the friction elements are arranged on a first shaft, and - a first bearing constructed at the first shaft, characterised in that the first shaft has a second bearing spaced from the first bearing and the friction elements are arranged between the first bearing and the second bearing, the container has a first flange at the upper side and a second flange at the lower side, wherein the first flange is non-positively connected with the lid and the second flange is non-positively connected with the base, the container is arranged on a support frame and is movable by means of the support frame, and the base is constructed as an inflow box, wherein the inflow box is delimited relative to the container by means of a nozzle base. - a cylinder-shaped container with a lid and a base, - a first opening and/or a second opening, - a plurality of friction elements constructed to be rotationally driven in the container, wherein the friction elements are arranged on a first shaft, and - a first bearing constructed at the first shaft,
Cooling device, in particular refrigerator, with a cooling unit and a useable space which can be cooled by the cooling unit, wherein at least part of the useable space is formed by at least one vacuum container, and wherein the cooling device comprises a vacuum pump for generating a vacuum in an interior space of the vacuum container, wherein the vacuum container can be removed from the cooling device and wherein a coupling is provided via which the vacuum container can be connected to the vacuum pump, and in particular wherein the vacuum container is adapted such that the vacuum in its interior space is maintained even after the vacuum container has been removed, wherein the coupling comprises a first part arranged stationary in the cooling device and a second part arranged fixedly at the vacuum container, wherein the first part and the second part are connectable to one another, wherein the vacuum container comprises a cover and a bottom part which together enclose the interior space of the vacuum container, characterized in that wherein the second part of the coupling is arranged at the cover, characterized in that the cover comprises a boundary area which projects laterally beyond the bottom part at at least one location, wherein a mouth of the second part of the coupling is arranged at the boundary area, and comprising a frame part for receiving the at least one vacuum container, wherein the first part of the coupling is arranged at the frame part, and wherein the vacuum container can be inserted into the frame part such that it is held by the frame part at the boundary area of the cover and that a mouth of the first part reaches the mouth of the second part of the coupling.
A method of syncing a device clock over a communication network comprising: sending a plurality of sync requests over the communication network; for each sync request, storing in memory a sent host time TH0 when the sync request was sent; receiving from a local device a plurality of local time reports over the communication network; for each local time report, storing in memory a receive host time TH3 when the local time report was received; calculating a host time T such that T=(TH0+TH3)/2 for a plurality of sent host times and their corresponding receive host times; for each local time report, storing in memory a device local time X extracted from the local time report; and calculating coefficients Ai and Bi using linear regression after calculating T from at least two sent host times and their corresponding receive host times, where X=Ai ∗ T+Bi. sending a plurality of sync requests over the communication network; for each sync request, storing in memory a sent host time TH0 when the sync request was sent; receiving from a local device a plurality of local time reports over the communication network; for each local time report, storing in memory a receive host time TH3 when the local time report was received; calculating a host time T such that T=(TH0+TH3)/2 for a plurality of sent host times and their corresponding receive host times; for each local time report, storing in memory a device local time X extracted from the local time report; and calculating coefficients Ai and Bi using linear regression after calculating T from at least two sent host times and their corresponding receive host times, where X=Ai ∗ T+Bi.
An in vitro method for the quantification of antibodies anti-beta amyloid protein in a sample of cerebrospinal fluid comprising the following steps: a) concentrating the quantity of said antibodies of said sample with magnetic micro beads coated with macromolecules capable of binding said antibodies; b) analysing the concentrated sample obtained in step a) by immunoenzyme assay or by radioimmunoassay; c) analysing a sample comprising antibodies anti-beta amyloid protein having a known titre with the same assay used in step b) and elaborating the related calibration curve, wherein said antibody having a known titre is a murine antibody belonging to the IgG2a or IgG2b class or a human or humanized antibody belonging to the IgG2b or IgG1 class wherein said concentration step a) comprises a step of absorption of said cerebrospinal fluid sample on said micro beads and a step of elution of said antibodies from said micro beads; said analysis step b) comprises the following steps: I) providing a solid phase coated with beta amyloid protein and/or isoforms thereof; II) incubating said solid phase with the concentrated material obtained from step a) thus allowing the binding of said autoantibodies to the beta amyloid protein on said solid phase, followed by rinsing to remove the unbound material; III) incubating the solid phase obtained in step II) with a protein conjugated to an enzyme, or a radioactive label capable of binding human antibodies, followed by rinsing to remove said unbound conjugated protein; IV) detecting the signal of said conjugated protein. a) concentrating the quantity of said antibodies of said sample with magnetic micro beads coated with macromolecules capable of binding said antibodies; b) analysing the concentrated sample obtained in step a) by immunoenzyme assay or by radioimmunoassay; c) analysing a sample comprising antibodies anti-beta amyloid protein having a known titre with the same assay used in step b) and elaborating the related calibration curve, wherein said antibody having a known titre is a murine antibody belonging to the IgG2a or IgG2b class or a human or humanized antibody belonging to the IgG2b or IgG1 class wherein I) providing a solid phase coated with beta amyloid protein and/or isoforms thereof; II) incubating said solid phase with the concentrated material obtained from step a) thus allowing the binding of said autoantibodies to the beta amyloid protein on said solid phase, followed by rinsing to remove the unbound material; III) incubating the solid phase obtained in step II) with a protein conjugated to an enzyme, or a radioactive label capable of binding human antibodies, followed by rinsing to remove said unbound conjugated protein; IV) detecting the signal of said conjugated protein.
A system comprising: a plurality of power devices (102, 112, 202, 302, 402, 420, 502, 702, 802, 902, 1002) arranged in a sequence, wherein each power device comprises a power conversion circuit, an output, an input terminal, and a common; and a plurality of first current paths, wherein, between each adjacent pair of the power devices in the sequence, one of the plurality of first current paths connects the output of a first power device of the adjacent pair to the common of a second power device of the adjacent pair, and wherein the output of the first power device of the adjacent pair is configured to be connected by one of a plurality of second current paths through one of a plurality of power sources (101, 201, 501, 701, 801, 901) to the input terminal of the second power device of the adjacent pair. a plurality of power devices (102, 112, 202, 302, 402, 420, 502, 702, 802, 902, 1002) arranged in a sequence, wherein each power device comprises a power conversion circuit, an output, an input terminal, and a common; and a plurality of first current paths, wherein, between each adjacent pair of the power devices in the sequence, one of the plurality of first current paths connects the output of a first power device of the adjacent pair to the common of a second power device of the adjacent pair, and wherein the output of the first power device of the adjacent pair is configured to be connected by one of a plurality of second current paths through one of a plurality of power sources (101, 201, 501, 701, 801, 901) to the input terminal of the second power device of the adjacent pair.
A binding tool for documents or the like, comprising: a base portion that is formed of a metal plate; rings that are each mounted on said base portion so as to be selectively changed into a closed ring posture to bind documents or the like and an opened ring posture to open a part of a closed ring for insertion of the documents or the like; and a switching mechanism that is mounted on said base portion and includes a switching lever for switching said rings between said closed ring posture and said opened ring posture; wherein said switching lever has a base end and a free end, and a cam member is provided on said base end of said switching lever for adjusting the degree of opening/closing of each of said individual rings according to a rotated position of said free end of said switching lever; characterized in that said cam member has a cam main body and camshafts that protrude from said cam main body; and said base portion is formed with bearing portions for supporting said camshafts, and said bearing portions are each formed of an inner surface of a curved portion where a part of said base portion is curved to a front surface side thereof, and said camshafts are inserted into the inner surfaces of the bearing portions. a base portion that is formed of a metal plate; rings that are each mounted on said base portion so as to be selectively changed into a closed ring posture to bind documents or the like and an opened ring posture to open a part of a closed ring for insertion of the documents or the like; and a switching mechanism that is mounted on said base portion and includes a switching lever for switching said rings between said closed ring posture and said opened ring posture; wherein said switching lever has a base end and a free end, and a cam member is provided on said base end of said switching lever for adjusting the degree of opening/closing of each of said individual rings according to a rotated position of said free end of said switching lever; characterized in that said cam member has a cam main body and camshafts that protrude from said cam main body; and said base portion is formed with bearing portions for supporting said camshafts, and said bearing portions are each formed of an inner surface of a curved portion where a part of said base portion is curved to a front surface side thereof, and said camshafts are inserted into the inner surfaces of the bearing portions.
A hull locating arrangement for a multi-hulled vessel having a body, the hull locating arrangement comprising support components for at least partially suspending the body above at least a first and a second hull, the hull locating arrangement comprising for a said hull a first locating linkage and a second locating linkage to together constrain said hull in the lateral, longitudinal, roll and yaw directions relative to the body, the first and second locating linkages (6, 7) being longitudinally spaced, the first locating linkage including a first part and a second part, one of said parts of the first locating linkage being pivotally connected to the body about a body end pivot axis, the other of said parts being pivotally connected to said hull about a hull end pivot axis, the first locating linkage being arranged to permit relative motion between the first and second parts (26, 27) along at least one sliding axis to thereby permit the first locating linkage to vary in length between the body end pivot axis and the hull end pivot axis whilst providing at least a lateral constraint of the said hull relative to the body, the support components including a first support component (28, 29) adjacent the first locating linkage, the first support component including a first support element (71, 72) providing a support force supporting a portion of the body above the said hull, characterised in that the support force of the first support element (71, 72) of the first support component (28, 29) has a line of action that is within thirty degrees of parallel to a first linkage plane extending through the body end pivot axis and the hull end pivot axis, the locating forces from the first locating linkage are applied to the body and the said hull at the body end pivot axis and hull end pivot axis, and the first support element support force is applied to the body or the said hull at at least one of the body end pivot axis and hull and pivot axis.