mhurhangee/patent-ind-claim-en huggingface dataset:
A turning method comprising holding a workpiece (W) with a rotatable main spindle , and turning the workpiece (W) using a first cutting tool and a second cutting tool , characterized in that a chatter vibration is detected when a workpiece (W) is held by the main spindle and turned, that it is determined whether or not the chatter vibration has occurred, that a frequency (fc) of the chatter vibration is calculated when determining that the chatter vibration has occurred, and that the workpiece (W) is turned in a state in which a first edge of the first cutting tool is offset based on the frequency (fc) of the chatter vibration by a given offset angle (φ1) around a rotation center axis (P) with respect to a reference line (L) that connects the first edge and a second edge of the second cutting tool when the first edge and the second edge are situated opposite to each other at an angle of 180° around the rotation center axis (P).
A voltage-nonlinear resistor element comprising: a first layer composed primarily of zinc oxide; a second layer adjacent to the first layer , the second layer being composed primarily of zinc oxide and having a smaller thickness and a higher volume resistivity than the first layer ; and a third layer adjacent to the second layer on a side of the second layer which is opposite to the side on which the second layer is adjacent to the first layer , the third layer being composed primarily of a metal oxide other than zinc oxide, characterised in that the first layer has a volume resistivity of 6 × 10 -4 Ωcm or less, wherein the second layer has a volume resistivity that is higher than the volume resistivity of the first layer and 2 × 10 -3 Ωcm or less, and wherein the third layer is composed primarily of bismuth oxide, manganese oxide and cobalt oxide. a first layer composed primarily of zinc oxide; a second layer adjacent to the first layer , the second layer being composed primarily of zinc oxide and having a smaller thickness and a higher volume resistivity than the first layer ; and a third layer adjacent to the second layer on a side of the second layer which is opposite to the side on which the second layer is adjacent to the first layer , the third layer being composed primarily of a metal oxide other than zinc oxide, characterised in that the first layer has a volume resistivity of 6 × 10 -4 Ωcm or less, wherein the second layer has a volume resistivity that is higher than the volume resistivity of the first layer and 2 × 10 -3 Ωcm or less, and wherein the third layer is composed primarily of bismuth oxide, manganese oxide and cobalt oxide.
A method for playing an audio programming during a faster than 1X speed video trick mode playback of a video presentation, the method comprising : - retrieving from a storage medium information for producing at least a video portion and a corresponding audio portion of a presentation, said audio portion of said presentation having periods of relative silence ; - selectively gating , said audio portion of said presentation to remove at least a portion of said periods of relative silence, the audio levels of removed audio portions being below a predetermined audio level threshold, wherein audio portions are not removed unless it is determined that the audio level of these portions is less than the predetermined audio level threshold for a predetermined time period by comparing consecutive digital audio words against a threshold, flagging them as low if they do not exceed the threshold and identifying a continuous series of low flagged audio words, - concatenating a remainder of said audio portion of said presentation for playback after said portion of said periods of relative silence have been removed. - retrieving from a storage medium information for producing at least a video portion and a corresponding audio portion of a presentation, said audio portion of said presentation having periods of relative silence ; - selectively gating , said audio portion of said presentation to remove at least a portion of said periods of relative silence, the audio levels of removed audio portions being below a predetermined audio level threshold, wherein audio portions are not removed unless it is determined that the audio level of these portions is less than the predetermined audio level threshold for a predetermined time period by comparing consecutive digital audio words against a threshold, flagging them as low if they do not exceed the threshold and identifying a continuous series of low flagged audio words, - concatenating a remainder of said audio portion of said presentation for playback after said portion of said periods of relative silence have been removed.
ACCOMMODATIVE INTRAOCULAR LENS comprising a lens, haptics and a support in the form of a ring, wherein the Accommodative Intraocular Lens comprises two groups of elements: • A first group comprising an optical part and at least two soft haptics each associated with rigid haptics via a lever , • A second group comprising an inner ring , which comprising at least two curving flaps wherein the inner ring and the at least two curving flaps are housed in an outer ring , wherein the first group is made integral with second group through fixing points. • A first group comprising an optical part and at least two soft haptics each associated with rigid haptics via a lever , • A second group comprising an inner ring , which comprising at least two curving flaps wherein the inner ring and the at least two curving flaps are housed in an outer ring ,
A toilet comprising: a base ; a seat rotatably coupled to the base ; and a cover rotatably coupled to the seat ; wherein the cover and the seat define an angled axis that is oriented upward and forward toward a front end of the base ; and wherein the cover and the seat are each configured to rotate about the angled axis between a lowered position in which the cover and the seat are located adjacent the base and a stowed position in which the cover and the seat are oriented in an upward direction. a base ; a seat rotatably coupled to the base ; and a cover rotatably coupled to the seat ; wherein the cover and the seat define an angled axis that is oriented upward and forward toward a front end of the base ; and wherein the cover and the seat are each configured to rotate about the angled axis between a lowered position in which the cover and the seat are located adjacent the base and a stowed position in which the cover and the seat are oriented in an upward direction.
A PF-4 interacting heparinoid for use in a method of attenuating a myelosuppressive side effect of a myelosuppressive treatment regimen, said method comprising: adjunctively administering said PF-4 interacting heparinoid to a patient receiving a myelosuppressive treatment regimen, wherein the PF-4 heparinoid is substantially desulfated at the 2-O position and 3-O position, and wherein the patient is a human.
A method for correcting an area of overlap between two films created by sequential shadow mask evaporations, the method comprising: correcting design features in an original layout to generate a corrected layout using a software tool , such that the corrected layout modifies shapes of the design features; or correcting design features in an original layout to generate a corrected layout using a lithographic tool , such that the corrected layout modifies shapes of the design features; patterning the modified shapes of the design features at locations on a wafer according to the corrected layout using the lithographic tool, wherein the corrected layout includes a sidewall flashing correction, wherein the sidewall flashing correction is configured to modify the shapes of the design features to prevent a width of the first film, the second film, or both the first film and second film from being reduced by flashing against a sidewall of a resist material; and depositing a first film by an initial shadow mask evaporation and a second film by a subsequent shadow mask evaporation to produce a corrected junction at the locations on the wafer, such that the first film and the second film have an overlap, the overlap defining a tunnel junction. correcting design features in an original layout to generate a corrected layout using a software tool , such that the corrected layout modifies shapes of the design features; or correcting design features in an original layout to generate a corrected layout using a lithographic tool , such that the corrected layout modifies shapes of the design features; patterning the modified shapes of the design features at locations on a wafer according to the corrected layout using the lithographic tool, wherein the corrected layout includes a sidewall flashing correction, wherein the sidewall flashing correction is configured to modify the shapes of the design features to prevent a width of the first film, the second film, or both the first film and second film from being reduced by flashing against a sidewall of a resist material; and depositing a first film by an initial shadow mask evaporation and a second film by a subsequent shadow mask evaporation to produce a corrected junction at the locations on the wafer, such that the first film and the second film have an overlap, the overlap defining a tunnel junction.
An enhanced LOng-RAnge Navigation, eLORAN, receiver (15a-b) comprising: an antenna and eLORAN receiver circuitry coupled thereto, the antenna comprising a ferromagnetic core comprising a ferromagnetic medial portion and a plurality of ferromagnetic arms (21a-d) extending outwardly therefrom, and a respective electrically conductive layer (22a-d) surrounding each of the plurality of ferromagnetic arms (21a-d) and having a slot (28a-d) therein. a ferromagnetic core comprising a ferromagnetic medial portion and a plurality of ferromagnetic arms (21a-d) extending outwardly therefrom, and a respective electrically conductive layer (22a-d) surrounding each of the plurality of ferromagnetic arms (21a-d) and having a slot (28a-d) therein.
A medical device delivery system , the system comprising: a catheter shaft ; at least one loop attached to the catheter shaft ; a medical device having an interior and an exterior; at least one opening through the medical device configured to allow the loop to extend from the interior to the exterior of the medical device ; and a release line exterior to the medical device held in place by passing through the loop , wherein the at least one loop is flexible and includes at least two flexible loops aligned relative to a longitudinal axis of the medical device ; and wherein the at least one flexible loop is configured to form a lumen for the release line . a catheter shaft ; at least one loop attached to the catheter shaft ; a medical device having an interior and an exterior; at least one opening through the medical device configured to allow the loop to extend from the interior to the exterior of the medical device ; and a release line exterior to the medical device held in place by passing through the loop , wherein the at least one loop is flexible and includes at least two flexible loops aligned relative to a longitudinal axis of the medical device ; and wherein the at least one flexible loop is configured to form a lumen for the release line .
A method of wireless communication by a user equipment, comprising: receiving a channel usage indicator over an unlicensed radio frequency spectrum band, when a clear channel assessment, CCA, is successfully performed by a base station; determining at least one orthogonal frequency division multiplexing, OFDM, symbol to monitor based on a time associated with the received channel usage indicator, wherein the channel usage indicator reserves a channel of the unlicensed radio frequency spectrum band for both future downlink transmissions by the base station and uplink transmissions by the user equipment, UE, connected to the base station, and wherein the determined at least one OFDM symbol comprises adjacent orthogonal frequency division multiplexing, OFDM, symbols of a first subframe of a downlink transmission following a reception of the channel usage indicator; receiving a primary synchronization signal, PSS, on a same set of subcarriers during each of the adjacent OFDM symbols from the base station over the unlicensed radio frequency spectrum band during the determined at least one OFDM symbol; performing cross-correlation of samples of the PSS received during the determined at least one OFDM symbol; recovering a timing of the base station based on the cross-correlation of the samples; and synchronizing the UE with the base station based at least in part on the received PSS and the recovered timing of the base station. receiving a channel usage indicator over an unlicensed radio frequency spectrum band, when a clear channel assessment, CCA, is successfully performed by a base station; determining at least one orthogonal frequency division multiplexing, OFDM, symbol to monitor based on a time associated with the received channel usage indicator, wherein the channel usage indicator reserves a channel of the unlicensed radio frequency spectrum band for both future downlink transmissions by the base station and uplink transmissions by the user equipment, UE, connected to the base station, and wherein the determined at least one OFDM symbol comprises adjacent orthogonal frequency division multiplexing, OFDM, symbols of a first subframe of a downlink transmission following a reception of the channel usage indicator; receiving a primary synchronization signal, PSS, on a same set of subcarriers during each of the adjacent OFDM symbols from the base station over the unlicensed radio frequency spectrum band during the determined at least one OFDM symbol; performing cross-correlation of samples of the PSS received during the determined at least one OFDM symbol; recovering a timing of the base station based on the cross-correlation of the samples; and synchronizing the UE with the base station based at least in part on the received PSS and the recovered timing of the base station.
Platform for maintenance operations as a modular and temporary maintenance platform (WP) for a wind turbine, the maintenance platform (WP) being rotatably mounted on the support structure and comprising a stationary support structure , characterized in that the maintenance platform (WP) can be detachably arranged in front of a rotor hub of the wind turbine and has a base frame with a plurality of tread plates .
An information transmission method, comprising: receiving , by user equipment, on a physical downlink control channel, PDCCH, at a set time prior to a start time of a first time period, an indication field that has a length of M bits and that is sent by a base station; determining , by the user equipment, locations of K bits corresponding to the user equipment in the M bits, wherein M is a positive integer greater than 1, and K is a positive integer greater than 1 and less than M; and determining , by the user equipment according to values of the K bits, whether to receive and read downlink information from the base station within the first time period on a PDCCH; wherein the user equipment is in a connected state, the first time period is a scheduling cycle, and the downlink information is scheduling information that the user equipment expects to receive for scheduling the user equipment to receive downlink data or to send uplink data. receiving , by user equipment, on a physical downlink control channel, PDCCH, at a set time prior to a start time of a first time period, an indication field that has a length of M bits and that is sent by a base station; determining , by the user equipment, locations of K bits corresponding to the user equipment in the M bits, wherein M is a positive integer greater than 1, and K is a positive integer greater than 1 and less than M; and determining , by the user equipment according to values of the K bits, whether to receive and read downlink information from the base station within the first time period on a PDCCH; wherein the user equipment is in a connected state, the first time period is a scheduling cycle, and the downlink information is scheduling information that the user equipment expects to receive for scheduling the user equipment to receive downlink data or to send uplink data.
An optical transmitter for an optical network unit of a multi-wavelength passive optical network comprising an optical line termination and a number of further optical network units (301-315) for transmitting upstream signals to said optical line termination on multiple upstream channels (λu1, λu2, λu3, λu4), said optical transmitter being configured to generate and transmit an optical activation signal (AS) carrying activation information to be transmitted from said optical network unit to said optical line termination for activating said optical network unit on an upstream channel (λu2) of said multiple upstream channels (λu1, λu2, λu3, λu4), said activation information comprising an identifier of said optical network unit , said activation signal having an optical power (P C ) lower than the optical power (P D ) of each one of said upstream signals, said optical transmitter comprising an optical source and: - a first electric source configured to modulate said optical source with a first electric signal carrying said activation information; and - a second electric source configured to directly modulate said optical source with a second electric signal so as to produce a frequency chirp on said optical activation signal (AS). - a first electric source configured to modulate said optical source with a first electric signal carrying said activation information; and - a second electric source configured to directly modulate said optical source with a second electric signal so as to produce a frequency chirp on said optical activation signal (AS).
A respiratory treatment device comprising: a housing enclosing at least one chamber; a chamber inlet configured to receive air into the at least one chamber; at least one chamber outlet configured to permit air to exit the at least one chamber; a flow path defined between the chamber inlet and the at least one chamber outlet ; an orifice positioned in the at least one chamber along the flow path such that the flow path passes through the orifice , and, a vane positioned adjacent the orifice, the vane being configured to rotate in response to the flow of air through the orifice , characterized in that the vane is biased by an elastic band toward a position where a central portion of the vane is not aligned with the orifice. a housing enclosing at least one chamber; a chamber inlet configured to receive air into the at least one chamber; at least one chamber outlet configured to permit air to exit the at least one chamber; a flow path defined between the chamber inlet and the at least one chamber outlet ; an orifice positioned in the at least one chamber along the flow path such that the flow path passes through the orifice , and, a vane positioned adjacent the orifice, the vane being configured to rotate in response to the flow of air through the orifice , characterized in that the vane is biased by an elastic band toward a position where a central portion of the vane is not aligned with the orifice.
A system comprising: a teleoperational assembly including an operator control system and a plurality of manipulators configured for teleoperation by the operator control system, wherein a first manipulator of the plurality of manipulators is configured to control movement of a first medical instrument in a surgical environment and a second manipulator of the plurality of manipulators is configured to control movement of an imaging instrument ; and a processing unit including one or more processors, wherein the processing unit is configured to: display an image of a field of view of the surgical environment captured by the imaging instrument ; determine a position of a distal end portion of the first medical instrument in an image coordinate space; determine an initial position for a first badge associated with the distal end portion of the first medical instrument ; determine a badge placement boundary for the image of the field of view by determining a viewable space boundary for the image of the field of view, the badge placement boundary being inside the image of the field of view; determine an inset boundary within the viewable space boundary based on a radius of the first badge ; and adjust the first badge from the initial position to a display position within the badge placement boundary by determining an inset boundary, wherein the display position of the first badge is constrained to be within the inset boundary. display an image of a field of view of the surgical environment captured by the imaging instrument ; determine a position of a distal end portion of the first medical instrument in an image coordinate space; determine an initial position for a first badge associated with the distal end portion of the first medical instrument ; determine a badge placement boundary for the image of the field of view by determining a viewable space boundary for the image of the field of view, the badge placement boundary being inside the image of the field of view; determine an inset boundary within the viewable space boundary based on a radius of the first badge ; and adjust the first badge from the initial position to a display position within the badge placement boundary by determining an inset boundary, wherein the display position of the first badge is constrained to be within the inset boundary.
A method for providing viable Escherichia coli ( E. coli) embedded in a matrix in form of a particle, the method comprising mixing E. coli with alginate, forming particles, contacting the particles with a preservation solution comprising maltodextrin or dextran and further comprising sucrose or trehalose, and drying to obtain a water activity ≤ 0.3.
A forward handover method, wherein the method comprise: • receiving, by a base station , a forward handover indication sent from a source base station of a user equipment or from an Operation, Administration and Maintenance, OAM, controller ; • receiving, by the base station , a radio resource control, RRC, re-establishment request message of the user equipment , and • determining, by the base station ,, after the reception of the RRC re-establishment request message, whether to acquire context information of the user equipment from the source base station based on a content of the previously received forward handover indication, and after determining to acquire the context information, acquiring the context information from the source base station . • receiving, by a base station , a forward handover indication sent from a source base station of a user equipment or from an Operation, Administration and Maintenance, OAM, controller ; • receiving, by the base station , a radio resource control, RRC, re-establishment request message of the user equipment , and • determining, by the base station ,, after the reception of the RRC re-establishment request message, whether to acquire context information of the user equipment from the source base station based on a content of the previously received forward handover indication, and after determining to acquire the context information, acquiring the context information from the source base station .