mhurhangee/ep-ind-claims huggingface dataset:
Wrapping apparatus for wrapping an object and for depositing the wrapped object on the ground, wherein the object - comprises two front faces (FF.l, FF.r) and - extends along and around a center axis reaching from one front face (FF.l) to the other front face (FF.r), wherein the wrapping apparatus comprises - a wrapper and - a tilting unit, wherein the wrapper is arranged to wrap the object into wrapping material, wherein the wrapping apparatus to move the wrapped object from the wrapper in an object moving direction onto the tilting unit and wherein the tilting unit is arranged - to tilt the wrapped object on the tilting unit selectively into a first one or a second one of two opposing directions (TD.1, TD.2) which are both perpendicular or angular to the object moving direction and - to deposit the tilted object onto one object front face (FF.l, FF.r) on the ground, characterized in that the tilting unit comprises - a tilting unit frame, - a trough carried by the tilting unit frame, and - a tilting actuator assembly (16.1, 16.2), wherein the trough is pivotal with respect to the tilting unit frame into both opposing directions (TD.1, TD.2), wherein the wrapper is arranged for causing the object - to move in the object moving direction onto the trough and - to rest on the trough with its center axis perpendicular to the object moving direction, wherein the tilting actuator assembly (16.1, 16.2) is arranged to selectively pivot the trough with respect to the tilting unit frame selectively upwards against the force of gravity into a first one or a second one of two opposing directions (TD.1, TD.2), thereby tilting the object on the trough with respect to the object moving direction onto the object front face (FF.l, FF.r). - comprises two front faces (FF.l, FF.r) and - extends along and around a center axis reaching from one front face (FF.l) to the other front face (FF.r), - a wrapper and - a tilting unit, - to tilt the wrapped object on the tilting unit selectively into a first one or a second one of two opposing directions (TD.1, TD.2) which are both perpendicular or angular to the object moving direction and - to deposit the tilted object onto one object front face (FF.l, FF.r) on the ground, - a tilting unit frame, - a trough carried by the tilting unit frame, and - a tilting actuator assembly (16.1, 16.2), - to move in the object moving direction onto the trough and - to rest on the trough with its center axis perpendicular to the object moving direction,
Yaw bearing arrangement for a wind turbine, comprising a yaw bearing with a yaw ring and radial adjustment means acting on the inner radial lateral surface of the yaw ring, the radial adjustment means comprising at least a housing, at least one sliding pad and one or more threaded adjustment bolts arranged in threaded housing bores and connected with the sliding pad for a radial adjustment of the sliding pad towards the lateral surface and axial bores for accommodating fixation bolts, characterized in that the housing is a ring or a ring segment with a plurality of radial, at least partially threaded bores, each radial bore accommodating a radial sliding unit comprising radial sliding pad and a threaded radial adjustment bolt for radial moving the sliding pad.
A method for forming composite materials having integrated electronics, the method comprising: positioning at least one electronic component (10, 28) on a lay-up surface of a lay-up system; positioning a composite material on the lay-up surface, wherein the composite material comprises resin and fibers; causing a flow of the resin between the lay-up surface and the fibers; and curing the resin to form a cured resin, wherein the electronic component (10, 28) and the fibers are located in the cured resin, wherein positioning the at least one electronic component (10, 28) comprises depositing electronically conductive ink on the lay-up surface. positioning at least one electronic component (10, 28) on a lay-up surface of a lay-up system; positioning a composite material on the lay-up surface, wherein the composite material comprises resin and fibers; causing a flow of the resin between the lay-up surface and the fibers; and curing the resin to form a cured resin, wherein the electronic component (10, 28) and the fibers are located in the cured resin, wherein positioning the at least one electronic component (10, 28) comprises depositing electronically conductive ink on the lay-up surface.
Set for processing a light-curing material - with an applicator, for dispensing, in particular in a manually controlled manner, a light-curing material contained in a reservoir of the applicator, - with at least one lighting means for curing the material dispensed from an outlet opening (9.1) of the applicator by the effect of pressure on the reservoir, - if required with a modelling device for processing the dispensed light-curing material, characterized in that - the reservoir is deformable - and in that ∘ at least one lighting means can be fastened detachably or undetachably to the applicator, and/or ∘ at least one lighting means can be fastened detachably or undetachably to the modelling device, or ∘ at least one lighting means can be exchanged between the applicator and the modelling device. - with an applicator, for dispensing, in particular in a manually controlled manner, a light-curing material contained in a reservoir of the applicator, - with at least one lighting means for curing the material dispensed from an outlet opening (9.1) of the applicator by the effect of pressure on the reservoir, - if required with a modelling device for processing the dispensed light-curing material, - the reservoir is deformable - and in that ∘ at least one lighting means can be fastened detachably or undetachably to the applicator, and/or ∘ at least one lighting means can be fastened detachably or undetachably to the modelling device, or ∘ at least one lighting means can be exchanged between the applicator and the modelling device. ∘ at least one lighting means can be fastened detachably or undetachably to the applicator, and/or ∘ at least one lighting means can be fastened detachably or undetachably to the modelling device, or ∘ at least one lighting means can be exchanged between the applicator and the modelling device.
Rotor for an electric motor of an electric compressor comprising a drive shaft, and one or more magnetic rings (12, 14, 16) arranged axially one behind the other, said rings being glued directly onto the drive shaft, wherein a number of radial grooves (28, 30, 32), which are arranged axially one behind the other and are spaced apart from each other, is formed on the drive shaft, said number corresponding to the number of the magnetic rings (12, 14, 16), said grooves being filled with adhesive and their width being smaller than the width of the magnetic rings (12, 14, 16) so that the magnetic rings (12, 14, 16) are supported directly on the drive shaft by their axial ends, wherein magnetic ring (12, 14, 16) is composed of at least two ring segment-shaped magnetic elements (12.1, 12.2, 14.1, 14.2, 16.1, 16.2).
Method for transmitting successive messages forming a frame in a telecommunication system with M sources ( s 1,...,s M), L relays ( r 1,...,r L) and a destination ( d), M > 1, L ≥ 1 according to an orthogonal multiple-access channel scheme between the M sources and the L relays with a maximum number of M + T max time intervals per frame transmitted, including M intervals allocated during a first phase to the successive transmission of the M sources, and T max cooperative transmission intervals allocated during a second phase to one or more nodes taken from among the sources and the relays according to a determined selection, characterized in that it comprises: - an initial phase of link adaptation with an initial rate being determined for each source by the destination on the basis of an average SNR of each of the links of the system and with this initial rate being transmitted to each source, - for each frame from among several frames, successively transmitting the messages from the M sources during the M intervals of the first phase with respective modulation and coding schemes determined on the basis of the initial rates, and characterized in that, in order to maximize the total rate of all the sources under the constraint of a target average BLER ε com at the end of X ≥ 1 cooperative transmissions, the method comprises maximizing the individual rate of each source, considering the known messages from the other sources under the constraint of a target individual average BLER ε com / M at the end of the X cooperative transmissions, and, after maximization, simultaneously decreasing or increasing the M individual rates taken together until a common outage probability which is less than ε com is obtained. - an initial phase of link adaptation with an initial rate being determined for each source by the destination on the basis of an average SNR of each of the links of the system and with this initial rate being transmitted to each source, - for each frame from among several frames, successively transmitting the messages from the M sources during the M intervals of the first phase with respective modulation and coding schemes determined on the basis of the initial rates,
A rock drill button, comprising a body made of sintered cemented carbide that comprises hard constituents of tungsten carbide in a binder phase comprising Co, wherein the cemented carbide comprises 4-12 mass% Co, Cr, and balance WC and unavoidable impurities, characterized in that said cemented carbide comprises Cr in such an amount that the Cr/Co weight ratio is within the range of 0.043-0.19, the WC grain size mean value is above 1.75 μm, and the cemented carbide is free from any graphite.
A method comprising: receiving data describing a local model (240b, 240c) of a first device (105a, 105b), wherein the local model (240b, 240c) is generated by the first device based on sensor readings at the first device; updating a global model hosted remote from the first device based on the local model (240b, 240c), wherein the global model is to model devices in a plurality of different asset taxonomies; determining a particular operating state affecting one or more of a set of devices deployed in a particular machine-to-machine network, wherein the set of devices comprises the first device; and reconfiguring the particular machine-to-machine network based on the global model; wherein the reconfiguration is responsive to a failure of the first device to successfully self-heal. receiving data describing a local model (240b, 240c) of a first device (105a, 105b), wherein the local model (240b, 240c) is generated by the first device based on sensor readings at the first device; updating a global model hosted remote from the first device based on the local model (240b, 240c), wherein the global model is to model devices in a plurality of different asset taxonomies; determining a particular operating state affecting one or more of a set of devices deployed in a particular machine-to-machine network, wherein the set of devices comprises the first device; and reconfiguring the particular machine-to-machine network based on the global model; wherein the reconfiguration is responsive to a failure of the first device to successfully self-heal.
An imaging system comprising: an illumination unit adapted to emit illumination light to illuminate a subject; a light receiving unit comprising a plurality of pixels adapted to receive light and photoelectrically convert the received light to generate an electric signal, said pixels being two-dimensionally arranged in a plurality of horizontal lines; a read unit adapted to carry out exposure for each horizontal line at different exposure timings and sequentially read the electric signal for each horizontal line; and an illumination controller, characterized in that the illumination controller is adapted to control the illumination unit, at every two horizontal lines, to emit a pulse of the illumination light whose center is positioned at an end point of a read period for a first horizontal line, during a period straddling the read period of the read unit for the first horizontal line and a read period for a second horizontal line which is adjacent to the first horizontal line and which is read immediately after the first horizontal line. an illumination unit adapted to emit illumination light to illuminate a subject; a light receiving unit comprising a plurality of pixels adapted to receive light and photoelectrically convert the received light to generate an electric signal, said pixels being two-dimensionally arranged in a plurality of horizontal lines; a read unit adapted to carry out exposure for each horizontal line at different exposure timings and sequentially read the electric signal for each horizontal line; and an illumination controller, characterized in that the illumination controller is adapted to control the illumination unit, at every two horizontal lines, to emit a pulse of the illumination light whose center is positioned at an end point of a read period for a first horizontal line, during a period straddling the read period of the read unit for the first horizontal line and a read period for a second horizontal line which is adjacent to the first horizontal line and which is read immediately after the first horizontal line.
Method for the production of a pulverulent substance, said method comprising the following steps: - providing a ground product composed substantially of roasted and ground coffee beans, wherein the ground product comprises a fine fraction having a particle size of smaller than 100 μm, and wherein the ground product contains a proportion of fine fraction of more than 7% and in particular more than 8%; - processing, in particular compacting, the ground product in a processing installation, in particular in a compacting installation, so as to form a pulverulent substance having in relation to the total particle count a proportion of fine fraction of less than 7%, preferably less than 5%, and particularly preferably less than 3%, of the particles; characterized in that processing the ground product is a compaction in a compacting installation, wherein the compaction in particular is carried out in a substantially loss-free manner, and in that compacting the ground product is performed in the compacting installation comprising a compacting unit having at least one paddle. - providing a ground product composed substantially of roasted and ground coffee beans, wherein the ground product comprises a fine fraction having a particle size of smaller than 100 μm, and wherein the ground product contains a proportion of fine fraction of more than 7% and in particular more than 8%; - processing, in particular compacting, the ground product in a processing installation, in particular in a compacting installation, so as to form a pulverulent substance having in relation to the total particle count a proportion of fine fraction of less than 7%, preferably less than 5%, and particularly preferably less than 3%, of the particles;
Machine for preparing espresso coffee, comprising an infusion chamber with a seat for a wafer containing the coffee powder that is subjected to infusion, the bottom of the seat comprising a perforated disc for the passage of the coffee infusion to a collecting chamber underneath, which comprises an infusion outlet that communicates, through an infusion outlet path, with a dispensing mouth for dispensing the beverage, the bottom of the seat being pushed to rise by the action of a spring, when the wafer seat is empty, to open a discharge passage between the wafer seat and the dispensing mouth, characterised in that between the infusion outlet and the dispensing mouth there is an overpressure valve that opens when the pressure in the infusion chamber exceeds a preset value and in that the collecting chamber has a bottom formed by a conveying disc on which the perforated disc is placed, the conveying disc having a central passage, that forms said infusion outlet, on which a deformable elastomeric membrane forming said overpressure valve is arranged, the bottom of the seat that is lifted by a spring comprising a liftable central unit consisting of the conveying disc and of the perforated disc, this liftable central unit having a peripheral edge that in the lowered position, when a wafer is inside the infusion chamber and pushes on the perforated disc so that the spring is compressed, closes the bottom of the seat against a peripheral sealing o-ring, and in the raised position the peripheral edge is moved from said sealing o-ring to open, whenever the infusion chamber is empty, said discharge passage bypassing the overpressure valve and being more direct than said infusion outlet path.
A method for tracking a user's exposure to air pollutants, comprising: receiving pollutant information from a plurality of air quality data sources at one or more user locations; determining a weighting for at least one of the plurality of data sources, wherein determining the weighting for at least one of the plurality of data sources comprises calculating the weighting of the data source based on information about the type of data source and hence quality of the data from the data source, the weighting thereby representing quality of the pollutant information from the respective data source; selecting data sources from the plurality of data sources based on the weighting; and aggregating pollutant information from the selected data sources to determine the user's exposure over a predetermined period of time. receiving pollutant information from a plurality of air quality data sources at one or more user locations; determining a weighting for at least one of the plurality of data sources, wherein determining the weighting for at least one of the plurality of data sources comprises calculating the weighting of the data source based on information about the type of data source and hence quality of the data from the data source, the weighting thereby representing quality of the pollutant information from the respective data source; selecting data sources from the plurality of data sources based on the weighting; and aggregating pollutant information from the selected data sources to determine the user's exposure over a predetermined period of time.
A revolving door comprising a cylindrical wall, and placed above the cylindrical wall a roof construction having a connecting element placed in the centre of the door and girders extending radially therefrom, with at least one rotatable door leaf being suspended from the roof construction within the cylindrical wall and below the roof construction, while the cylindrical wall is provided with passage openings (5,6) characterised in that the girders are placed under pre-tension, in order to create an upward force on the connecting element.
Method for processing image data, comprising: providing high dynamic range image data; providing low dynamic range image data of the high dynamic range image data; encoding (E7-E18) the low dynamic range image data in a first code stream; processing the low dynamic range image data so as to obtain a processed image (LDR*), this processing step comprising converting the low dynamic range image data into data having values in the range [0,1] and floating point representation, selecting a component of the high dynamic image data and a corresponding component of the processed low dynamic range image data (LDR*); calculating residual data of the selected component by dividing each pixel value of the selected component of the processed low dynamic range image data (LDR*) by a corresponding value of the corresponding component of the high dynamic range image data; scaling the residual data of the selected component into the range of values comprised between 0 and 1; gamma correcting the scaled residual data, wherein the step of gamma correcting the residual data comprises raising each component of the input scaled residual data to the power of 1/hdr_gamma, wherein hdr_gamma is calculated according to the following formula hdr_gamma = log min_ value log 0,5 wherein min _ value = 1 max _ HDR wherein max_HDR is the maximum pixel value of the input high dynamic range image data, encoding (E15-E17) the scaled residual data of the selected component in a residual code stream. providing high dynamic range image data; providing low dynamic range image data of the high dynamic range image data; encoding (E7-E18) the low dynamic range image data in a first code stream; processing the low dynamic range image data so as to obtain a processed image (LDR*), this processing step comprising converting the low dynamic range image data into data having values in the range [0,1] and floating point representation, selecting a component of the high dynamic image data and a corresponding component of the processed low dynamic range image data (LDR*); calculating residual data of the selected component by dividing each pixel value of the selected component of the processed low dynamic range image data (LDR*) by a corresponding value of the corresponding component of the high dynamic range image data; scaling the residual data of the selected component into the range of values comprised between 0 and 1; gamma correcting the scaled residual data, wherein the step of gamma correcting the residual data comprises raising each component of the input scaled residual data to the power of 1/hdr_gamma, wherein hdr_gamma is calculated according to the following formula hdr_gamma = log min_ value log 0,5 wherein min _ value = 1 max _ HDR wherein max_HDR is the maximum pixel value of the input high dynamic range image data, encoding (E15-E17) the scaled residual data of the selected component in a residual code stream.
A filter cartridge comprising: a housing body, said filter housing body having a side surface, and top surface with a stem extending therefrom, and a filter boss extending radially outwards from said side surface; said stem including ingress and egress ports for fluid flow, and a filter magnet having a plurality of correlated magnets for magnetic interaction with complementary magnets on a manifold, said filter magnet positioned on a top surface of said stem or within said stem; and filter media located within the filter cartridge. a housing body, said filter housing body having a side surface, and top surface with a stem extending therefrom, and a filter boss extending radially outwards from said side surface; said stem including ingress and egress ports for fluid flow, and a filter magnet having a plurality of correlated magnets for magnetic interaction with complementary magnets on a manifold, said filter magnet positioned on a top surface of said stem or within said stem; and filter media located within the filter cartridge.
An outer blade cutting wheel comprising an annular thin disc base having a pair of planar surfaces and a periphery, and a blade section composed of abrasive grains and a bond and formed on the periphery of the base, the wheel being adapted to rotate about an axis, characterized in that the blade section has a form such that, considering a volume delineated by two imaginary planes (vf1,vf2) extending parallel to the planar surfaces of the base and tangent to the side surfaces of the blade section and two imaginary circumferences (vc1,vc2) defined about the rotational axis and extending tangent to inner and outer perimeters of the blade section, the blade section occupies 10 to 40% of that volume, excluding the region occupied within it by the base, the side surfaces of the blade section having an indented shape relative to the imaginary planes (vf1,vf2).