mhurhangee/ep-ind-claims huggingface dataset:
A method of determining data spots in a network, the method comprising: determining available transmission resources, the transmission resources including at least a first network user acting as an ad hoc hotspot by transmitting data via sideloading, the first network user having a geographic positon associated therewith; determining characteristics of the transmission resources, the characteristics Including a geographic position of the transmission resources and content available at the transmission resources; determining a geographic position of a data spot selected from the transmission resources, the data spot selected based on the content available at the transmission resources, a content requested by a second network user, the geographic position of the transmission resources in relation to a geographic position of the second network user; and transmitting, from the network to the second network user, the geographic position of the data spot; determining a change in the geographic position of the transmission resources in relation to the geographic position of the second network user; and repeating the determining of the geographic position of the data spot and the transmitting of the geographic position of the data spot to the second network user based on the determined change, wherein the data spot is further selected from the transmission resources based on a compatibility in communication protocols between the second network user and the transmission resources and a capability of the second network user to receive the data via the sideloading. determining available transmission resources, the transmission resources including at least a first network user acting as an ad hoc hotspot by transmitting data via sideloading, the first network user having a geographic positon associated therewith; determining characteristics of the transmission resources, the characteristics Including a geographic position of the transmission resources and content available at the transmission resources; determining a geographic position of a data spot selected from the transmission resources, the data spot selected based on the content available at the transmission resources, a content requested by a second network user, the geographic position of the transmission resources in relation to a geographic position of the second network user; and transmitting, from the network to the second network user, the geographic position of the data spot; determining a change in the geographic position of the transmission resources in relation to the geographic position of the second network user; and repeating the determining of the geographic position of the data spot and the transmitting of the geographic position of the data spot to the second network user based on the determined change, wherein the data spot is further selected from the transmission resources based on a compatibility in communication protocols between the second network user and the transmission resources and a capability of the second network user to receive the data via the sideloading.
An audio signal processing apparatus comprising: a sound source direction estimator configured to estimate and output a plurality of sound source directions based on a plurality of sound collection signals of a plurality of microphones (11-1 to 11-n); a beam forming means configured to receive the plurality of sound source directions output by the sound source direction estimator, form M sound collection beams using the plurality of sound collection signals of the plurality of microphones (11-1 to 11-n) according to the plurality of sound source directions, and output the M sound collection beams as audio signals of M channels, respectively; a selecting means configured to select a channel group of N channels from among the M channels based on a volume level of the audio signal of each of the M channels; and a gain controller configured to control a gain of the audio signal of each channel of the channel group selected by the selecting means, according to a volume level of the audio signal of each channel of the channel group, wherein M is greater than or equal to three, N is greater than or equal to two, and M is greater than N; wherein the sound source direction estimator is configured to estimate the plurality of sound source directions by calculating a cross correlation of the plurality of sound collection signals of the plurality of microphones (11-1 to 11-n), and wherein the selecting means is configured not to simultaneously select channels corresponding to sound collection beams in which sound collection directions thereof are adjacent to each other, among the M sound collection beams. a sound source direction estimator configured to estimate and output a plurality of sound source directions based on a plurality of sound collection signals of a plurality of microphones (11-1 to 11-n); a beam forming means configured to receive the plurality of sound source directions output by the sound source direction estimator, form M sound collection beams using the plurality of sound collection signals of the plurality of microphones (11-1 to 11-n) according to the plurality of sound source directions, and output the M sound collection beams as audio signals of M channels, respectively; a selecting means configured to select a channel group of N channels from among the M channels based on a volume level of the audio signal of each of the M channels; and a gain controller configured to control a gain of the audio signal of each channel of the channel group selected by the selecting means, according to a volume level of the audio signal of each channel of the channel group, wherein M is greater than or equal to three, N is greater than or equal to two, and M is greater than N; wherein the sound source direction estimator is configured to estimate the plurality of sound source directions by calculating a cross correlation of the plurality of sound collection signals of the plurality of microphones (11-1 to 11-n), and wherein the selecting means is configured not to simultaneously select channels corresponding to sound collection beams in which sound collection directions thereof are adjacent to each other, among the M sound collection beams.
Hydraulic control device of a hydraulic system for a hydraulically actuated raisable and lowerable hook of a crane, wherein the hydraulic system comprises at least one working machine, configured as a hydraulic motor, and at least one drive machine, configured in particular as a pump, wherein the working machine is connected to at least one of the drive machines, indirectly or directly, by means of two connections, which, depending on the operational state of the working machine, serve as intake or return elements, by way of corresponding working lines, and wherein in the one working line a lowering brake valve is provided, which is connected via a control line to the other working line in such a way that the lowering brake valve can be moved, against a resetting force, out of its blocking position by the control pressure prevailing in this other working line and reproduced via the control line, into a throughflow position for the lowering of the hook by means of a winch, preferably a primary winch, characterised in that an outflow line leading back to a tank branches off from the control line, and wherein, for the adjustment of the control pressure taking effect on the lowering brake valve to different values, the outflow line is provided with a switchover capability element, with which the effective hydraulic resistance in the outflow line can be changed by controlling or regulating to at least two different values.
A process for an adhesion test, comprising the steps of: - providing an adhesive element (1, 101) comprising: - a bi-adhesive layer (4, 104) including a first adhesive surface (6, 106), designed to co-operate in a relation of adhesion with a surface (20, 220) undergoing said test, and a second, adhesive surface (8, 108), said bi-adhesive layer (4, 104) having a fragmented structure, and - a support layer having a comparative adhesion surface, designed to co-operate in a relation of adhesion with said second adhesive surface (8, 108), - applying said adhesive element (1, 101) on the surface (20, 220) undergoing said test so as to cause an adhesion between said adhesive element (1, 101) and said surface (20, 220); - removing said support layer from said bi-adhesive layer (4, 104); and - evaluating the distribution of the fragments (10, 110) of said bi-adhesive layer (4, 104). - providing an adhesive element (1, 101) comprising: - a bi-adhesive layer (4, 104) including a first adhesive surface (6, 106), designed to co-operate in a relation of adhesion with a surface (20, 220) undergoing said test, and a second, adhesive surface (8, 108), said bi-adhesive layer (4, 104) having a fragmented structure, and - a support layer having a comparative adhesion surface, designed to co-operate in a relation of adhesion with said second adhesive surface (8, 108), - a bi-adhesive layer (4, 104) including a first adhesive surface (6, 106), designed to co-operate in a relation of adhesion with a surface (20, 220) undergoing said test, and a second, adhesive surface (8, 108), said bi-adhesive layer (4, 104) having a fragmented structure, and - a support layer having a comparative adhesion surface, designed to co-operate in a relation of adhesion with said second adhesive surface (8, 108), - applying said adhesive element (1, 101) on the surface (20, 220) undergoing said test so as to cause an adhesion between said adhesive element (1, 101) and said surface (20, 220); - removing said support layer from said bi-adhesive layer (4, 104); and - evaluating the distribution of the fragments (10, 110) of said bi-adhesive layer (4, 104).
An image composition method comprising: a step of receiving a plurality of images acquired by subjecting a subject to split imaging; a step of composing the plurality of images based on correspondence points of images; in the case where all of the plurality of images are unable to be composed into one image, which case can be determined on the basis of any one or more of the number of correspondence points, whether or not the reliability of the correspondence points is sufficient, and whether or not the projective transformation matrix can be calculated based on the correspondence points; a step of dividing the plurality of images into composable image groups (G1, G2); a step of deciding an image arrangement based on correspondence points (P1a, P1b; P1a...) of images by image group (G1, G2); a step of making a display device display the plurality of images in the decided image arrangement by image group; a step of designating correspondence points for one image group among the displayed image groups and another image group among the image groups by user input; and a step of composing the one image group and the other image group based on the designated correspondence points. a step of receiving a plurality of images acquired by subjecting a subject to split imaging; a step of composing the plurality of images based on correspondence points of images; in the case where all of the plurality of images are unable to be composed into one image, which case can be determined on the basis of any one or more of the number of correspondence points, whether or not the reliability of the correspondence points is sufficient, and whether or not the projective transformation matrix can be calculated based on the correspondence points; a step of dividing the plurality of images into composable image groups (G1, G2); a step of deciding an image arrangement based on correspondence points (P1a, P1b; P1a...) of images by image group (G1, G2); a step of making a display device display the plurality of images in the decided image arrangement by image group; a step of designating correspondence points for one image group among the displayed image groups and another image group among the image groups by user input; and a step of composing the one image group and the other image group based on the designated correspondence points.
A printer (100, 200) comprising: a printing unit configured to print on an RFID medium while feeding a continuous body on which RFID mediums are provided in series, each of the RFID mediums including an RFID inlet; an antenna provided upstream of the printing unit and configured to write information to the RFID inlet; first processing means for back-feeding the continuous body until the RFID inlet of an RFID medium in a print start position reaches a position allowing a communication with the antenna and writing information to the RFID inlet, and then forward-feeding the continuous body until the RFID medium reaches the print start position; and second processing means for printing on the RFID medium while forward-feeding the continuous body, characterized in that said second processing means being configured to stop printing on the RFID medium halfway and writing information to an RFID inlet of a subsequent RFID medium following the RFID medium under printing when the RFID inlet of the subsequent RFID medium reaches the position allowing the communication with the antenna, and then resume and complete printing on the RFID medium, printing on which was stopped halfway; and when a printing and issuing instruction of the RFID mediums is issued, processing of the first processing means is executed once, and then processing of the second processing means is executed. a printing unit configured to print on an RFID medium while feeding a continuous body on which RFID mediums are provided in series, each of the RFID mediums including an RFID inlet; an antenna provided upstream of the printing unit and configured to write information to the RFID inlet; first processing means for back-feeding the continuous body until the RFID inlet of an RFID medium in a print start position reaches a position allowing a communication with the antenna and writing information to the RFID inlet, and then forward-feeding the continuous body until the RFID medium reaches the print start position; and second processing means for printing on the RFID medium while forward-feeding the continuous body, characterized in that said second processing means being configured to stop printing on the RFID medium halfway and writing information to an RFID inlet of a subsequent RFID medium following the RFID medium under printing when the RFID inlet of the subsequent RFID medium reaches the position allowing the communication with the antenna, and then resume and complete printing on the RFID medium, printing on which was stopped halfway; and when a printing and issuing instruction of the RFID mediums is issued, processing of the first processing means is executed once, and then processing of the second processing means is executed.
A rotatable link comprising a body section, a base section, a rotation disc, and a first fastener; wherein the base section comprises: a) a base unit with a cable channel at least partly formed therein; b) an elongated member with a first end attached to the base unit, and with a second end configured to be removably received by the first fastener; and c) a rotation limiting channel configured for rotatably engaging with a stop pin of the rotation disc; wherein the rotation disc comprises: a) a channel configured for rotatably engaging with the elongated member of the base section; b) a cable channel in communication with the cable channel of the base unit; and c) a stop pin with a first end attached to the rotation disc - wherein the body section comprises a base part, a rotation ring, a body part, and a second fastener; wherein the base part comprises: a) a base unit with a cable channel at least partly formed therein; b) an elongated member with a first end attached to the base unit, and with a second end configured to be removably received by the second fastener; and c) a stop pin with a first end attached to the base unit; wherein the body part comprises a bottom part configured for rotatably engaging with the rotation ring; wherein the bottom part of the body part comprises: a) a channel configured for rotatably engaging with the elongated member of the base unit; b) a cable channel in communication with both the cable channel of the base part base unit and the cable channel of the base section base unit; and c) a rotation limiting channel configured for rotatably engaging with the stop pin of the base unit. a) a base unit with a cable channel at least partly formed therein; b) an elongated member with a first end attached to the base unit, and with a second end configured to be removably received by the first fastener; and c) a rotation limiting channel configured for rotatably engaging with a stop pin of the rotation disc; a) a channel configured for rotatably engaging with the elongated member of the base section; b) a cable channel in communication with the cable channel of the base unit; and c) a stop pin with a first end attached to the rotation disc - wherein the body section comprises a base part, a rotation ring, a body part, and a second fastener; a) a base unit with a cable channel at least partly formed therein; b) an elongated member with a first end attached to the base unit, and with a second end configured to be removably received by the second fastener; and c) a stop pin with a first end attached to the base unit; a) a channel configured for rotatably engaging with the elongated member of the base unit; b) a cable channel in communication with both the cable channel of the base part base unit and the cable channel of the base section base unit; and c) a rotation limiting channel configured for rotatably engaging with the stop pin of the base unit.
A method of transmitting uplink channel by a mobile station in an orthogonal frequency division multiplexing, OFDM, wireless communication system, the method comprising: receiving information associated with a radio resource allocation map from a base station, wherein the radio resource allocation map comprises control parameters for a primary channel quality indication channel, CQICH, and a secondary CQICH; and transmitting the primary CQICH and the secondary CQICH to the base station utilizing the information, wherein the primary CQICH consists of 6 uplink tiles, and is used for carrying a 6-bit payload, wherein the secondary CQICH consists of 6 uplink tiles, and is used for carrying a 4-bit payload, characterized in that the primary CQICH and the secondary CQICH carry non-pilot symbols only, the primary CQICH and the secondary CQICH are orthogonally modulated with quadrature phase shift keying, QPSK, symbols, the m-th uplink tile of the primary CQICH has a below structure: Subcarrier 0 Subcarrier 1 Subcarrier 2 Subcarrier 3 Symbol 0 NULL M n,8m M n,8m+1 NULL Symbol 1 M n,8m+2 M n,8m+3 M n,8m+4 M n,8m+5 Symbol 2 NULL M n,8m+6 M n,8m+7 NULL, wherein M n,8m+k (0≤k≤7) is the k-th QPSK symbol of the m-th uplink tile in the n-th primary CQICH, and the m-th uplink tile of the secondary CQICH has a below structure: Subcarrier 0 Subcarrier 1 Subcarrier 2 Subcarrier 3 Symbol 0 M n,4m NULL NULL M n,4m+1 Symbol 1 NULL NULL NULL NULL Symbol 2 M n,4m+2 NULL NULL M n,4m+3, wherein M n,4m+k (0≤k≤3) is the k-th QPSK symbol of the m-th uplink tile in the n-th secondary CQICH. receiving information associated with a radio resource allocation map from a base station, wherein the radio resource allocation map comprises control parameters for a primary channel quality indication channel, CQICH, and a secondary CQICH; and transmitting the primary CQICH and the secondary CQICH to the base station utilizing the information,
A motor including a housing, a cover, a rotating shaft, and a cooling fan, wherein the housing has a surrounding wall defining therein an inner space with a front opening and has a rear closure wall opposite to the front opening, the rear closure wall defining a central hole and a plurality of outlet holes; the cover, which is substantially disk-shaped and closes the front opening of the housing, has a central hub defining a central hole; the rotating shaft is mounted across the inner space of the housing, the rotating shaft having a first end which is inserted through the central hole of the rear closure wall and having a second end which is inserted through the central hole of the cover; the cooling fan is fixed to the second end of the rotating shaft, so that the cooling fan is rotated together with the rotating shaft; the cover defines a plurality of inlet holes around its central hub; characterized by: an air collecting structure, which is adapted to be fixed to the cover, has a central hub defining a conical surface and a central hole aligned with the central hole of the cover for allowing the second end of the rotating shaft to insert therethrough and has an outer ring around the central hub of the air collecting structure and defines a plurality of through holes, located between the outer ring and the central hub of the air collecting structure and aligned with the inlet holes of the cover, whereby a central portion of a whirling, ongoing air current generated by the cooling fan can flow through the space between the outer ring and the central hub of the air collecting structure and then flow through the through holes of the air collecting structure and the inlet holes of the cover to enter the inner space of the housing and finally flow out of the housing via the outlet holes for dissipating the heat generated in the housing.
An actuator comprising: a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to vibrate an object of vibration in accordance with expansion and contraction of the piezoelectric element; fixing portions; supports configured to support the vibration plate on the fixing portions, a support being provided at each end of the vibration plate in a longitudinal direction and one end of each support being connected to the vibration plate and the other end of each support being connected to one of the fixing portions, the fixing portions being configured to join the actuator to a housing; and a holder joined to the vibration plate and configured to hold the object of vibration; wherein a height (h) of the holder is less than a maximum bending displacement (D max) at which the piezoelectric element is not damaged by an external force; wherein, when the actuator is not driven, the vibration plate is flat; characterised in that when the actuator is not driven, the end of each support at the side connected to the vibration plate is further outward than the end at the side connected to the fixing portion, an angle between the vibration plate and the support being acute; and in that the vibration plate and the support are integrally molded. a piezoelectric element; a vibration plate that has the piezoelectric element joined thereto and is configured to vibrate an object of vibration in accordance with expansion and contraction of the piezoelectric element; fixing portions; supports configured to support the vibration plate on the fixing portions, a support being provided at each end of the vibration plate in a longitudinal direction and one end of each support being connected to the vibration plate and the other end of each support being connected to one of the fixing portions, the fixing portions being configured to join the actuator to a housing; and a holder joined to the vibration plate and configured to hold the object of vibration; wherein a height (h) of the holder is less than a maximum bending displacement (D max) at which the piezoelectric element is not damaged by an external force; wherein, when the actuator is not driven, the vibration plate is flat; characterised in that when the actuator is not driven, the end of each support at the side connected to the vibration plate is further outward than the end at the side connected to the fixing portion, an angle between the vibration plate and the support being acute; and in that the vibration plate and the support are integrally molded.