mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a pilot signal, comprising: generating, by a base station, a pilot signal formed by a wide beam and a pilot signal formed by a plurality of narrow beams; and transmitting, by the base station, the pilot signals to a User Equipment, UE, through at least one pre-configured first antenna port and at least one pre-configured second antenna port, the pilot signal formed by the wide beam being transmitted through each of the at least one first antenna port, and the pilot signal formed by the plurality of narrow beams being transmitted through each of the at least one second antenna port; wherein the method is characterized in that the pilot signal formed by a plurality of narrow beams is formed by the plurality of narrow beams that are simultaneously transmitted through each of the at least one second antenna port. generating, by a base station, a pilot signal formed by a wide beam and a pilot signal formed by a plurality of narrow beams; and transmitting, by the base station, the pilot signals to a User Equipment, UE, through at least one pre-configured first antenna port and at least one pre-configured second antenna port, the pilot signal formed by the wide beam being transmitted through each of the at least one first antenna port, and the pilot signal formed by the plurality of narrow beams being transmitted through each of the at least one second antenna port; wherein the method is characterized in that the pilot signal formed by a plurality of narrow beams is formed by the plurality of narrow beams that are simultaneously transmitted through each of the at least one second antenna port.
A system (100, 200) that provides data to an industrial control system, comprising: an encapsulation component associated with an industrial control device (320, 410) that receives data from a source and encapsulates the data (220, 310) to package properties and methods relating to the data as one or more data objects, wherein object oriented access to the data is facilitated at multiple levels of a particular control architecture by utilizing a common data object format across multiple layers, comprising at least two of an enterprise resources planning layer (550, 640), a manufacturing execution systems layer (540, 630), an object layer or a control layer (520, 620); and a data consuming device located in an industrial control network that employs an interface to access at least one of the data objects from the encapsulated data, wherein only a single instance of each data object is associated with the industrial control system, and wherein the data consuming device can at least one of directly read data properties, directly write properties or directly invoke data methods, the encapsulation component further comprising an artificial intelligence, Al, component that determines the interface between the data consuming device, and the data object based on at least a history of data access of the data consuming device in relation to the source of the data. an encapsulation component associated with an industrial control device (320, 410) that receives data from a source and encapsulates the data (220, 310) to package properties and methods relating to the data as one or more data objects, wherein object oriented access to the data is facilitated at multiple levels of a particular control architecture by utilizing a common data object format across multiple layers, comprising at least two of an enterprise resources planning layer (550, 640), a manufacturing execution systems layer (540, 630), an object layer or a control layer (520, 620); and a data consuming device located in an industrial control network that employs an interface to access at least one of the data objects from the encapsulated data,
A spring system for a vibration-insulating bearing, in particular of machines, facilities, test stands, machine foundations and/or buildings, characterized in that the spring system is designed as a combination of an air spring system, including at least one air spring, and/or a viscous damping system and a mechanical spring system with at least one mechanical spring, in particular one spiral spring system, wherein the air spring or air springs and/or the damping elements of the viscous damping system and the mechanical spring or springs are chosen in such a manner that the damping characteristics of the air spring system and/or of the viscous damping system and of the mechanical spring system with regard to a standardized force application on the spring system partially overlap.
Method of detecting arcs in a plasma process which is supplied by a power supply with an output quantity (Uout, Iout, Pout), wherein the output quantity (Uout, Iout, Pout) is compared with an arc detection threshold value (Iarc_thres, Uarc_thres) and an arc is detected if the output quantity (Uout, Iout, Pout) passes the arc detection threshold value (Iarc_thres, Uarc_thres), wherein the arc detection threshold value (Iarc_thres, Uarc_thres) is determined based on at least one set point (Iset, Uset, Pset) for an output quantity, characterized in that a first modified set point (Iset*, Uset*) for a first output quantity (Uout, Iout) is determined based on a measured second output quantity (Uout, Iout) and a set point (Iset, Uset) of the second output quantity (Uout, Iout), wherein the arc detection threshold value (Iarc_thres, Uarc_thres) is determined based on the first modified set point (Iset*, Uset*).
A signal processing apparatus comprising a correction unit that is configured to correct a phase and/or an amplitude of a received signal using channel information obtained from a plurality of frequency samples being significant components by being extracted from frequency samples of known information included in the received signal, wherein the correction unit comprises: i) a phase detection unit that is configured to calculate a correction amount θ (t) for the phase of the received signal by using the obtained channel information, and a phase correction unit that is configured to correct the phase of the received signal by multiplying the received signal by a signal e -jθ(t) and/or ii) an envelope generation unit that is configured to calculate a correction amount K (t) for the amplitude of the received signal on the basis of an envelope generated by using the obtained channel information, and an amplitude correction unit that is configured to correct the amplitude of the received signal by multiplying the received signal by the correction amount K (t). i) a phase detection unit that is configured to calculate a correction amount θ (t) for the phase of the received signal by using the obtained channel information, and a phase correction unit that is configured to correct the phase of the received signal by multiplying the received signal by a signal e -jθ(t)
An apparatus for transferring a glove from a conveyor to a workstation, the apparatus comprising: a camera for locating a cuff of the glove on the conveyor; a pick-up assembly comprising a pair of inner grippers for gripping the cuff and two pairs of outer grippers for opening the glove; a pair of sensors for determining the position of the glove gripped by the pair of inner grippers and the two pairs of outer grippers; a robotic arm comprising a plurality of joined segments (41, 42, 43), wherein the pick-up assembly is mounted on one of the plurality of segments, for moving the pick-up assembly in different directions; a processor electrically connected to the camera, the pick-up assembly, the sensor, and the robotic arm, for receiving signals from the camera and the pair of sensors and sending commands to the pick-up assembly and the robotic arm. a camera for locating a cuff of the glove on the conveyor; a pick-up assembly comprising a pair of inner grippers for gripping the cuff and two pairs of outer grippers for opening the glove; a pair of sensors for determining the position of the glove gripped by the pair of inner grippers and the two pairs of outer grippers; a robotic arm comprising a plurality of joined segments (41, 42, 43), wherein the pick-up assembly is mounted on one of the plurality of segments, for moving the pick-up assembly in different directions; a processor electrically connected to the camera, the pick-up assembly, the sensor, and the robotic arm, for receiving signals from the camera and the pair of sensors and sending commands to the pick-up assembly and the robotic arm.
A method of manufacturing a coral scaffold for use as a bone graft substitute, the method comprising growing coral in a growth medium having a carbonate hardness, dKH, of 10 or more, removing at least a portion of the coral from the growth medium, devitalising coral removed from the growth medium, and sizing the devitalised coral to form the coral scaffold. growing coral in a growth medium having a carbonate hardness, dKH, of 10 or more, removing at least a portion of the coral from the growth medium, devitalising coral removed from the growth medium, and sizing the devitalised coral to form the coral scaffold.
Method for producing a sheet steel component by means of a press-hardening or form-hardening process, the sheet steel component being produced due to the fact that a blank made of at least one region made of a highly hardenable carbon/manganese/boron steel and at least one dual-phase steel is cold-formed, then heated and then quenched in a cooling press, or a blank made of at least one region made of a highly hardenable carbon/manganese/boron steel and at least one region made of a dual-phase steel is heated to a temperature above the austenitization temperature of the highly hardenable steel material and is then formed into the sheet steel component in a single stroke, or in a plurality of strokes, in a forming and cooling press, characterized in that as a softer material and as a partner for the highly hardenable carbon/manganese/boron steel, a dual-phase steel is used, the Ac3 value of which is increased until at the annealing temperatures required for austenitization of the carbon/manganese/boron steel, only a partial austenitization of the dual-phase steel takes place, so that when loaded into the cooling press, the dual-phase steel has a ferritic matrix and, in addition to this, austenite is present.
Motor vehicle latch, in particular a motor vehicle door latch, comprising a locking mechanism (1, 2) consisting substantially of a catch and a pawl, and comprising a securing device (5, 6, 7, 8) and comprising an emergency actuation element (9, 10, 11) for the securing device (5, 6, 7, 8), wherein the securing device (5, 6, 7, 8) has at least a first securing lever which can be acted upon both by a first motor drive and by an emergency actuation lever as part of the emergency actuation element (9, 10, 11), wherein the first securing lever has a spring for being positioned in one of the functional positions "anti-theft device ON" and "anti-theft device OFF," wherein the securing device (5, 6, 7, 8) has a second securing lever, wherein the first securing lever is designed as an anti-theft securing lever and the second securing lever is a central locking lever, wherein the two securing levers (5, 6) are mounted on the same axis about an axis of rotation.
A feeding device, comprising: a first linear driving mechanism comprising a first output end, the first output end being configured to reciprocate in a first direction; a second linear driving mechanism comprising a second output end, the second output end being configured to reciprocate in a second direction; a delivery mechanism, one end of which is rotatably connected to the first output end around a first axis, the first axis being perpendicular to the first direction; and an adjusting mechanism configured to connect the other end of the delivery mechanism to the second output end, such that the delivery mechanism is able to be driven by the second output end to rotate around the first axis, wherein the delivery mechanism comprises a first clamping member and a second clamping member that cooperate with each other to clamp a material, characterized in that the first clamping member and/or the second clamping member are/is provided with an elastic member, and the elastic member is configured to abut against the material. a first linear driving mechanism comprising a first output end, the first output end being configured to reciprocate in a first direction; a second linear driving mechanism comprising a second output end, the second output end being configured to reciprocate in a second direction; a delivery mechanism, one end of which is rotatably connected to the first output end around a first axis, the first axis being perpendicular to the first direction; and an adjusting mechanism configured to connect the other end of the delivery mechanism to the second output end, such that the delivery mechanism is able to be driven by the second output end to rotate around the first axis, wherein the delivery mechanism comprises a first clamping member and a second clamping member that cooperate with each other to clamp a material, characterized in that the first clamping member and/or the second clamping member are/is provided with an elastic member, and the elastic member is configured to abut against the material. the delivery mechanism comprises a first clamping member and a second clamping member that cooperate with each other to clamp a material, characterized in that the first clamping member and/or the second clamping member are/is provided with an elastic member, and the elastic member is configured to abut against the material.
A Periplaneta americana extract, prepared through the following steps: crushing dry or fresh Periplaneta americana; adding pure water 2-20 times the weight of the Periplaneta americana, uniformly mixing the pure water and the Periplaneta americana to produce a mixture, and regulating a pH value; adding a protease of 1-10% of the weight of the Periplaneta americana in the mixture in the step, hydrolyzing for 1-8 hours, then filtering, refrigerating, degreasing, and then centrifuging; concentrating a supernatant after centrifuging, adding ethanol in the concentrated solution until the volume concentration of ethanol in the obtained solution is 60% to 90%, standing, filtering, and recovering the ethanol, so as to obtain a filtrate after ethanol recovery; taking the filtrate after ethanol recovery, which is obtained in the step, enabling the filtrate to pass through an adsorption resin column, washing the filtrate with pure water, and collecting an effluent until a ninhydrin reaction of the effluent is negative; and then enabling the effluent to pass through a polyamide column, washing the effluent with pure water, and collecting a final effluent until the ninhydrin reaction of the final effluent is negative; and concentrating and drying the final effluent obtained in the step to obtain the Periplaneta americana extract; wherein a peptide ingredient content of the Periplaneta americana extract occupies 50% to 63% of total weight; for use in preventing and treating radiation induced pneumonitis and skin damages in patients with breast tumours. crushing dry or fresh Periplaneta americana; adding pure water 2-20 times the weight of the Periplaneta americana, uniformly mixing the pure water and the Periplaneta americana to produce a mixture, and regulating a pH value; adding a protease of 1-10% of the weight of the Periplaneta americana in the mixture in the step, hydrolyzing for 1-8 hours, then filtering, refrigerating, degreasing, and then centrifuging; concentrating a supernatant after centrifuging, adding ethanol in the concentrated solution until the volume concentration of ethanol in the obtained solution is 60% to 90%, standing, filtering, and recovering the ethanol, so as to obtain a filtrate after ethanol recovery; taking the filtrate after ethanol recovery, which is obtained in the step, enabling the filtrate to pass through an adsorption resin column, washing the filtrate with pure water, and collecting an effluent until a ninhydrin reaction of the effluent is negative; and then enabling the effluent to pass through a polyamide column, washing the effluent with pure water, and collecting a final effluent until the ninhydrin reaction of the final effluent is negative; and concentrating and drying the final effluent obtained in the step to obtain the Periplaneta americana extract;
An image processing device, comprising: an input interface configured to receive input of a first captured image and a second captured image captured by a plurality of imaging units (11L, 11R) of a stereo camera; and a controller configured to calculate parallax (d) by performing a one-dimensional matching based on pixel values of the first captured image and pixel values of the second captured image, extract one or more first feature points (P 1) from a region in the first captured image that includes continuous pixels having a difference in parallax (d) which is within a predetermined range, extract one or more second feature points (P 2) corresponding respectively to the one or more first feature points (P 1) by performing a two-dimensional matching between the one or more first feature points (P 1) and pixels in the second captured image, and calibrate at least one of the plurality of imaging units (11L, 11R) based on positions of the one or more first feature points (P 1) and positions of the one or more second feature points (P 2). an input interface configured to receive input of a first captured image and a second captured image captured by a plurality of imaging units (11L, 11R) of a stereo camera; and a controller configured to calculate parallax (d) by performing a one-dimensional matching based on pixel values of the first captured image and pixel values of the second captured image, extract one or more first feature points (P 1) from a region in the first captured image that includes continuous pixels having a difference in parallax (d) which is within a predetermined range, extract one or more second feature points (P 2) corresponding respectively to the one or more first feature points (P 1) by performing a two-dimensional matching between the one or more first feature points (P 1) and pixels in the second captured image, and calibrate at least one of the plurality of imaging units (11L, 11R) based on positions of the one or more first feature points (P 1) and positions of the one or more second feature points (P 2).
Drive unit for electrically driven or assisted two-wheeled vehicle, with a sprocket wheel, which has a tooth arrangement and is provided with wheel connection elements for connection to a vehicle wheel, with at least one guide profile, which is arranged concentrically to the sprocket wheel, with a motor support, which is provided with a support element for connection to a vehicle frame, with an electric motor, which is arranged on the motor support, with a driving pinion, which has drive connection to the electric motor, has a tooth arrangement matching the tooth arrangement of the sprocket wheel and is associated operatively with the sprocket wheel, with at least one guide wheel, which is associated with the guide profile and is rotatably mounted on the motor support.
A method for preparing a metal sheet comprising at least the steps of: - providing a steel substrate, at least one face of which is coated with a metal coating comprising at least 40% by weight of zinc, - applying on the outer surface of the metal coating an aqueous solution comprising an amino acid selected from among alanine, arginine, aspartic acid, cysteine, lysine, methionine, proline, threonine, valine, and a mixture thereof, each amino acid being in a neutral or salt form, the aqueous solution being free of compound comprising a metal from the group IIIB or from the group IVB, and the mass percentage as dry extract of the amino acid in neutral or salt form or of the mixture of amino acids in neutral or salt forms in the aqueous solution being greater than or equal to 50%, preferably greater than or equal to 75%. - providing a steel substrate, at least one face of which is coated with a metal coating comprising at least 40% by weight of zinc, - applying on the outer surface of the metal coating an aqueous solution comprising an amino acid selected from among alanine, arginine, aspartic acid, cysteine, lysine, methionine, proline, threonine, valine, and a mixture thereof, each amino acid being in a neutral or salt form,
A transmission method of transmitting data using two or more transmission antennas, the transmission method comprising: transmitting PUSCH, Physical Uplink Shared Channel, for transmitting data through changing the number of the transmission antennas to use; calculating PH, Power Headroom, using a maximum transmission power of the mobile station apparatus and a transmission power to achieve requested reception power in the base station apparatus; and transmitting the PH calculated; wherein the PH is calculated using a predetermined value as the maximum transmission power of the mobile station apparatus, where the predetermined value in the case of transmitting by using the two or more transmission antennas is equal to the predetermined value in the case of transmitting by using a single transmission antenna; and where the number of transmission antennas is determined based on indication which includes the number of the transmission antennas determined by the base station using the PH notified from the mobile station apparatus. transmitting PUSCH, Physical Uplink Shared Channel, for transmitting data through changing the number of the transmission antennas to use; calculating PH, Power Headroom, using a maximum transmission power of the mobile station apparatus and a transmission power to achieve requested reception power in the base station apparatus; and transmitting the PH calculated; wherein the PH is calculated using a predetermined value as the maximum transmission power of the mobile station apparatus, where the predetermined value in the case of transmitting by using the two or more transmission antennas is equal to the predetermined value in the case of transmitting by using a single transmission antenna; and where the number of transmission antennas is determined based on indication which includes the number of the transmission antennas determined by the base station using the PH notified from the mobile station apparatus.
A vehicle protection device, including a base and a barrier located in front of the base and connected to the latter by at least two struts attached at one end to the barrier and at the other end to the base; wherein, each of said struts is made of at least two separate rod-shaped elements having holes along their longitudinal axes and detachable joints at their ends, and configured to stay connected with each other by force of a flexible element going through the holes of all rod-shaped elements of struts and capable of disengaging from each other under axial or lateral load; wherein said flexible element is adapted to interact with a base-mounted mechanism for activating the sensor of the vehicle stopping system.
Method for the welded repair of a crack lying on the inside under a surface of a component (1, 120, 130, 155), in which method a flux is applied as a powder mixture to the surface above the crack of the component (1, 120, 130, 155) and then the flux is melted in the region around the crack lying on the inside by means of a welding device.