mhurhangee/ep-ind-claims huggingface dataset:
A local oscillator signal generation circuit for a frequency divider circuit comprising: a delay device adapted to delay a data signal according to a control signal; a data flip-flop having the delayed data signal provided to its data input terminal and a reference clocking signal provided to its clock input terminal; and a control circuit adapted to generate first and second partially overlapping pulse windows (UP, LOCK) from the delayed data signal and to generate a control signal based on the first and second partially overlapping pulse window (UP, LOCK) and the reference clocking signal, wherein the control signal is provided to the delay device to control the amount by which the data signal is delayed in order to control the phase relationship between the data signal and the reference clock signal before the data signal is sampled by the data flip-flop, and wherein a local oscillator signal is derived from the output of the data flip-flop. a delay device adapted to delay a data signal according to a control signal; a data flip-flop having the delayed data signal provided to its data input terminal and a reference clocking signal provided to its clock input terminal; and a control circuit adapted to generate first and second partially overlapping pulse windows (UP, LOCK) from the delayed data signal and to generate a control signal based on the first and second partially overlapping pulse window (UP, LOCK) and the reference clocking signal, wherein the control signal is provided to the delay device to control the amount by which the data signal is delayed in order to control the phase relationship between the data signal and the reference clock signal before the data signal is sampled by the data flip-flop, and wherein a local oscillator signal is derived from the output of the data flip-flop.
A computer-implemented method for constructing a polyline from a plurality of line segments (503a-503e) representing a plurality of object edges detected from image data, the method comprising: selecting, by a processor, a line segment from the plurality of line segments (503a-503e); determining a neighboring line segment from among the plurality of line segments (503a-503e), the neighboring line segment having a closest distance to the line segment from among the plurality of line segments (503a-503e); determining that the closest distance is a mutual closest distance between the line segment and the neighboring line segment such that the line segment and the neighboring line segment are mutually closest to each other; and merging the line segment and the neighboring line segment into a polyline (341a-341c, 509) based on the determining that the closest distance is a mutual closest distance between the line segment and the neighboring line segment, wherein the plurality of line segments (503a-503e) represents a plurality of object edges detected from the image data by a computer vision system. selecting, by a processor, a line segment from the plurality of line segments (503a-503e); determining a neighboring line segment from among the plurality of line segments (503a-503e), the neighboring line segment having a closest distance to the line segment from among the plurality of line segments (503a-503e); determining that the closest distance is a mutual closest distance between the line segment and the neighboring line segment such that the line segment and the neighboring line segment are mutually closest to each other; and merging the line segment and the neighboring line segment into a polyline (341a-341c, 509) based on the determining that the closest distance is a mutual closest distance between the line segment and the neighboring line segment, wherein the plurality of line segments (503a-503e) represents a plurality of object edges detected from the image data by a computer vision system.
A medicine information insert, comprising a plurality of sheets, made preferably of paper, each having at least one graphical representation relating to a medicine; wherein the sheets are superposed over each other in such a way that the sheet surfaces (3, 6) constituting the large planar surfaces of the sheets are in contact with each other, and wherein the sheets have at least one fold line for folding the sheets onto themselves into a condition of minimum dimensions and which is substantially parallel to a line identified by one of the sides of the sheets characterised in that the sheets are fixed together at a respective joining zone and the joining zone is located at an edge of the sheets.
A method of encoding video data, the method comprising: arranging header information (94A, 94B... 94N) of a plurality of video blocks (MB1...MBn) of a coded unit of video data into groups of header syntax elements (99A...99K), wherein the header information includes a plurality of different types of header syntax elements (98A,... 98K 1) for each of the plurality of video blocks, each of the groups of header syntax elements (99A... 99K) including header syntax elements of one of the different types of header syntax elements from each of the plurality of video blocks; encoding said arranged header information (99A... 99K) of the plurality of video blocks in a first sequence of bits of an encoded bitstream; encoding an indicator that identifies a location within the encoded bitstream at which a transition from the first sequence of bits to a second sequence of bits occurs; and encoding residual information (96A... 96N) of the plurality of video blocks in the second sequence of bits of the encoded bitstream. arranging header information (94A, 94B... 94N) of a plurality of video blocks (MB1...MBn) of a coded unit of video data into groups of header syntax elements (99A...99K), wherein the header information includes a plurality of different types of header syntax elements (98A,... 98K 1) for each of the plurality of video blocks, each of the groups of header syntax elements (99A... 99K) including header syntax elements of one of the different types of header syntax elements from each of the plurality of video blocks; encoding said arranged header information (99A... 99K) of the plurality of video blocks in a first sequence of bits of an encoded bitstream; encoding an indicator that identifies a location within the encoded bitstream at which a transition from the first sequence of bits to a second sequence of bits occurs; and encoding residual information (96A... 96N) of the plurality of video blocks in the second sequence of bits of the encoded bitstream.
A portable electronic device, comprising: an outer periphery component, comprising: an antenna section having a first surface and a first coupling structure extending from the first surface; a conductive section having a second surface and a second coupling structure extending from the second surface; characterized by: a knuckle that completely surrounds the first and second coupling structures to physically couple and electrically isolate the antenna section and the conductive section, the knuckle separating the antenna section and the conductive section. an antenna section having a first surface and a first coupling structure extending from the first surface; a conductive section having a second surface and a second coupling structure extending from the second surface; characterized by: a knuckle that completely surrounds the first and second coupling structures to physically couple and electrically isolate the antenna section and the conductive section, the knuckle separating the antenna section and the conductive section.
A height control system for printing substrates for digital printing machines with heads defining a printing area, comprising: - a support table to move the printing substrates to the printing area; - an aspiration assembly for exerting aspiration through the support table such that the printing substrates are retained by suction against the support table when they are moved; characterised in that it additionally comprises: - a pressure assembly that has runners (10, 11) distributed transversely on the support table and arranged to limit the height of the printing substrates with respect to the support table according to an actuation height of the aspiration assembly. - a support table to move the printing substrates to the printing area; - an aspiration assembly for exerting aspiration through the support table such that the printing substrates are retained by suction against the support table when they are moved; - a pressure assembly that has runners (10, 11) distributed transversely on the support table and arranged to limit the height of the printing substrates with respect to the support table according to an actuation height of the aspiration assembly.
A carrier synchronization method, comprising: performing n times frequency multiplication on a received signal (301, 501); performing narrowband filtering for a first time on the signal obtained after the n times frequency multiplication; performing rectangular wave shaping for a first time on the signal obtained after the narrowband filtering is performed for the first time; performing narrowband filtering for a second time on the signal obtained after the rectangular wave shaping is performed for the first time; performing rectangular wave shaping for a second time on the signal obtained after the narrowband filtering is performed for the second time; and performing n times frequency division on the signal obtained after the filtering and shaping, to restore a carrier signal, wherein n is a positive integer greater than or equal to 4 (303, 506). performing n times frequency multiplication on a received signal (301, 501); performing narrowband filtering for a first time on the signal obtained after the n times frequency multiplication; performing rectangular wave shaping for a first time on the signal obtained after the narrowband filtering is performed for the first time; performing narrowband filtering for a second time on the signal obtained after the rectangular wave shaping is performed for the first time; performing rectangular wave shaping for a second time on the signal obtained after the narrowband filtering is performed for the second time; and performing n times frequency division on the signal obtained after the filtering and shaping, to restore a carrier signal, wherein n is a positive integer greater than or equal to 4 (303, 506).
A method for manufacturing a stent, the method comprising: forming a stent blank from a first material, the stent blank comprising a plurality of struts and a plurality of crowns, each crown connecting at least two struts, and a plurality of slots in at least some of the plurality of struts and/or the plurality of crowns; depositing a second material over outer surfaces of the struts and the crowns and in the slots to encase the stent blank in the second material; creating an opening through the second material; and removing the first material to form a stent comprising the second material, the stent having a continuous lumen from one end of the stent to the other end of the stent, the continuous lumen being partitioned in portions corresponding to the locations of the slots in the stent blank. forming a stent blank from a first material, the stent blank comprising a plurality of struts and a plurality of crowns, each crown connecting at least two struts, and a plurality of slots in at least some of the plurality of struts and/or the plurality of crowns; depositing a second material over outer surfaces of the struts and the crowns and in the slots to encase the stent blank in the second material; creating an opening through the second material; and removing the first material to form a stent comprising the second material, the stent having a continuous lumen from one end of the stent to the other end of the stent, the continuous lumen being partitioned in portions corresponding to the locations of the slots in the stent blank.
Device for labeling containers with elastic label sleeves, comprising: - electrically controllable spreading units with spreading segments which can be moved apart from an inner position for receiving the label sleeves into an outer position for expanding the label sleeves; - positioning units for positioning the containers in the expanded label sleeves; - electrically controllable removal units for transferring the label sleeves to the containers by pulling the containers at the opening side out of the spreading units; and - a control device characterized in that the control device is configured such that with said device different spreading rates are set for at least two movement phases (T1, T2) for moving the spreading segments apart, and/or that with said device different lifting rates are set for at least two movement phases (T1', T2') for pulling out the containers. - electrically controllable spreading units with spreading segments which can be moved apart from an inner position for receiving the label sleeves into an outer position for expanding the label sleeves; - positioning units for positioning the containers in the expanded label sleeves; - electrically controllable removal units for transferring the label sleeves to the containers by pulling the containers at the opening side out of the spreading units; and - a control device
A drive system for a self-propelled harvester (1, 2) including a drive engine in the form of an internal combustion engine, a first driven pulley which is driven by the drive engine and which drives at least one drive pulley of a working member by means of a drive belt, and at least a first and a second hydraulic unit (23, 24), characterised in that the drive belt is drivingly connected to a pulley which is portion-wise surrounded by mutually oppositely disposed housing elements (34, 35) which are stationary relative to the pulley, on which housing elements are arranged the first hydraulic unit and the second hydraulic unit which are drivingly connected to a shaft passing through the pulley.
A cosmetic product consisting of i) a packaging, selected from a pump spray container, a squeeze container and a spray can containing at least one propellant, and ii) an antiperspirant cosmetic agent contained therein for spray application, containing in a cosmetically acceptable carrier a) at least one antiperspirant zirconium-free aluminum salt in a total quantity of from 2 to 40 wt.%, preferably from 8 to 35 wt.%, particularly preferably from 10 to 28 wt.%, and extremely preferably from 12 to 20 wt.%, wherein the wt.% is based on the total weight of the active substance in the agent, which active substance is free of crystallization water and ligands, without taking into consideration an optionally available propellant, and additionally b) methanesulfonic acid of the following formula (MS-1) wherein the antiperspirant zirconium-free aluminum salt is selected from the watersoluble astringent inorganic salts of aluminum. i) a packaging, selected from a pump spray container, a squeeze container and a spray can containing at least one propellant, and ii) an antiperspirant cosmetic agent contained therein for spray application, containing in a cosmetically acceptable carrier a) at least one antiperspirant zirconium-free aluminum salt in a total quantity of from 2 to 40 wt.%, preferably from 8 to 35 wt.%, particularly preferably from 10 to 28 wt.%, and extremely preferably from 12 to 20 wt.%, wherein the wt.% is based on the total weight of the active substance in the agent, which active substance is free of crystallization water and ligands, without taking into consideration an optionally available propellant, and additionally b) methanesulfonic acid of the following formula (MS-1) wherein the antiperspirant zirconium-free aluminum salt is selected from the watersoluble astringent inorganic salts of aluminum. a) at least one antiperspirant zirconium-free aluminum salt in a total quantity of from 2 to 40 wt.%, preferably from 8 to 35 wt.%, particularly preferably from 10 to 28 wt.%, and extremely preferably from 12 to 20 wt.%, wherein the wt.% is based on the total weight of the active substance in the agent, which active substance is free of crystallization water and ligands, without taking into consideration an optionally available propellant, and additionally b) methanesulfonic acid of the following formula (MS-1) wherein the antiperspirant zirconium-free aluminum salt is selected from the watersoluble astringent inorganic salts of aluminum.
An information transmission method, wherein the method comprises: receiving by a terminal device, first downlink control information, DCI, sent by a network device, wherein the first DCI carries first indication information and second indication information, the first indication information is used to indicate data transmission, and the second indication information is used to indicate an operation mode of an inactivity timer in discontinuous reception DRX; and determining, by the terminal device, the operation mode of the inactivity timer based on an indication of the first DCI; wherein the operation mode of the inactivity timer comprises any one of the following: starting timing, stopping timing, resetting timing, and continuing timing; wherein the second indication information is explicitly indicated in the first DCI, and the first DCI is used to schedule new data transmission or data retransmission; and a new data indicator NDI field in the first DCI carries the first indication information, and a field in the first DCI other than the NDI field carries the second indication information. receiving by a terminal device, first downlink control information, DCI, sent by a network device, wherein the first DCI carries first indication information and second indication information, the first indication information is used to indicate data transmission, and the second indication information is used to indicate an operation mode of an inactivity timer in discontinuous reception DRX; and determining, by the terminal device, the operation mode of the inactivity timer based on an indication of the first DCI; wherein the operation mode of the inactivity timer comprises any one of the following: starting timing, stopping timing, resetting timing, and continuing timing; wherein the second indication information is explicitly indicated in the first DCI, and the first DCI is used to schedule new data transmission or data retransmission; and a new data indicator NDI field in the first DCI carries the first indication information, and a field in the first DCI other than the NDI field carries the second indication information.
A combination of a stationary platform in conjunction with a supply transport device, the stationary platform being configured to support the supply transport device, the stationary platform comprising: a frame having at least two longitudinal sides (1104, 1106), a first end and a second opposing end, and a top surface and a bottom surface, the top surface being configured for the supply transport device to be placed thereon; a plurality of legs extending from the bottom surface of the frame configured to support the frame, and at least one cross member extending perpendicularly between the at least two longitudinal sides (1104, 1106) so that the at least two longitudinal sides (1104, 1106), the first end and the second opposing end and the at least one cross member form a rectangular structure having openings formed in the interior thereof, wherein the stationary platform slidably receives the supply transport device on the top surface of the frame, and the first end and/or the second opposing end of the frame has a hole formed therein, configured to engaging a locking mechanism on the supply transport device. a frame having at least two longitudinal sides (1104, 1106), a first end and a second opposing end, and a top surface and a bottom surface, the top surface being configured for the supply transport device to be placed thereon; a plurality of legs extending from the bottom surface of the frame configured to support the frame, and at least one cross member extending perpendicularly between the at least two longitudinal sides (1104, 1106) so that the at least two longitudinal sides (1104, 1106), the first end and the second opposing end and the at least one cross member form a rectangular structure having openings formed in the interior thereof, wherein the stationary platform slidably receives the supply transport device on the top surface of the frame, and the first end and/or the second opposing end of the frame has a hole formed therein, configured to engaging a locking mechanism on the supply transport device.
An electronic device comprising: a first cavity and a second cavity; a first light emitter located in the first cavity and configured to generate a first light; a first light sensor located in the first cavity, the first light sensor configured to: detect a portion of the first light that is reflected from a user, and generate a first signal indicative of the portion of the first light that is reflected from the user, the first signal including non-pulsatile blood information; a second light emitter located in the first cavity and configured to generate a second light; a second light sensor located in the second cavity, the second light sensor configured to: detect a reflection of the second light, and generate a second signal indicative of the reflection of the second light; and logic coupled to the first and second light sensor, the logic configured to: receive the first signal and the second signal, and determine heart rate from the first signal and the second signal. a first cavity and a second cavity; a first light emitter located in the first cavity and configured to generate a first light; a first light sensor located in the first cavity, the first light sensor configured to: detect a portion of the first light that is reflected from a user, and generate a first signal indicative of the portion of the first light that is reflected from the user, the first signal including non-pulsatile blood information; detect a portion of the first light that is reflected from a user, and generate a first signal indicative of the portion of the first light that is reflected from the user, the first signal including non-pulsatile blood information; a second light emitter located in the first cavity and configured to generate a second light; a second light sensor located in the second cavity, the second light sensor configured to: detect a reflection of the second light, and generate a second signal indicative of the reflection of the second light; and logic coupled to the first and second light sensor, the logic configured to: receive the first signal and the second signal, and determine heart rate from the first signal and the second signal. detect a reflection of the second light, and generate a second signal indicative of the reflection of the second light; and logic coupled to the first and second light sensor, the logic configured to: receive the first signal and the second signal, and determine heart rate from the first signal and the second signal. receive the first signal and the second signal, and determine heart rate from the first signal and the second signal.
A coil support for an electrical coil arrangement, wherein the coil support comprises a winding receptacle region for at least one circumferential portion of a coil winding, which winding receptacle region is delimited by a winding receptacle region inner surface for contact with an innermost winding layer of the coil winding and at least one first end piece protruding away from the winding receptacle region inner surface, characterized in that a fluid receptacle reservoir, which is enclosed at least in regions, is arranged on a side of the first end piece facing away from the winding receptacle region, the fluid receptacle reservoir is connected using a fluid passage opening to the winding receptacle region, and the fluid passage opening is arranged adjoining the winding receptacle region inner surface.