mhurhangee/ep-ind-claims huggingface dataset:
A method for using location information with a first spreadsheet (24, 248) on a first computing device associated with a first spreadsheet user, comprising: receiving, on the first computing device, location information for a location of the first spreadsheet user and a location of a second spreadsheet user associated with a second computing device (220, 230); performing an operation on data within the first spreadsheet using the location information that creates updated information, wherein a spreadsheet application interacting with the first spreadsheet comprises native location based functionality; and displaying the first spreadsheet with the updated information, wherein performing the operation is automatically triggered if the location information satisfies a predefined condition, wherein performing the operation includes: determining when the second spreadsheet user is within a predetermined proximity of the first spreadsheet user; determining when the second spreadsheet user has data that is available for collaborating; and starting a collaboration session with the second spreadsheet user when the second spreadsheet user is within the predetermined proximity, wherein starting the collaboration session includes accessing a second spreadsheet of the second spreadsheet user and using values that are stored in the second spreadsheet of the second spreadsheet user. receiving, on the first computing device, location information for a location of the first spreadsheet user and a location of a second spreadsheet user associated with a second computing device (220, 230); performing an operation on data within the first spreadsheet using the location information that creates updated information, wherein a spreadsheet application interacting with the first spreadsheet comprises native location based functionality; and displaying the first spreadsheet with the updated information, wherein performing the operation is automatically triggered if the location information satisfies a predefined condition, wherein performing the operation includes: determining when the second spreadsheet user is within a predetermined proximity of the first spreadsheet user; determining when the second spreadsheet user has data that is available for collaborating; and starting a collaboration session with the second spreadsheet user when the second spreadsheet user is within the predetermined proximity, wherein starting the collaboration session includes accessing a second spreadsheet of the second spreadsheet user and using values that are stored in the second spreadsheet of the second spreadsheet user. determining when the second spreadsheet user is within a predetermined proximity of the first spreadsheet user; determining when the second spreadsheet user has data that is available for collaborating; and starting a collaboration session with the second spreadsheet user when the second spreadsheet user is within the predetermined proximity, wherein starting the collaboration session includes accessing a second spreadsheet of the second spreadsheet user and using values that are stored in the second spreadsheet of the second spreadsheet user.
A tool tip position detecting device for a remote controlled actuator, the remote controlled actuator including a spindle guide of an elongated shape, a main body housing connected with a base end of the spindle guide, a tool rotatably supported by a tip end of the spindle guide, a tool rotation drive source for rotating the tool through a drive transmission unit inserted within the spindle guide, and an operator unit for operating the tool rotation drive source, which device comprises: an external force free position detector for detecting a position and an attitude of the main body housing to detect a tip position of the tool when no external force is applied to the tool and the spindle guide, from a detection value thereof; a strain detector (62X, 62Y) for detecting a strain value of the spindle guide; and a corrector for correcting the tip position of the tool, detected by the external force free position detector, with the use of a detected strain value of the strain detector, wherein the tool tip position detecting device is capable of being used with a plurality of models of remote controlled actuators each utilizing a spindle guide of a different type, and wherein the corrector includes a plurality of type specific tables, in which relations between detected strain values of the strain detector one for each types of spindle guide and amount of corrections to be used in the correction are stored, and a table selector for selecting one of the type specific tables appropriate to a particular type of spindle guide out from the plural type specific tables. an external force free position detector for detecting a position and an attitude of the main body housing to detect a tip position of the tool when no external force is applied to the tool and the spindle guide, from a detection value thereof; a strain detector (62X, 62Y) for detecting a strain value of the spindle guide; and a corrector for correcting the tip position of the tool, detected by the external force free position detector, with the use of a detected strain value of the strain detector, wherein the tool tip position detecting device is capable of being used with a plurality of models of remote controlled actuators each utilizing a spindle guide of a different type, and wherein the corrector includes a plurality of type specific tables, in which relations between detected strain values of the strain detector one for each types of spindle guide and amount of corrections to be used in the correction are stored, and a table selector for selecting one of the type specific tables appropriate to a particular type of spindle guide out from the plural type specific tables.
A biomaterial delivery device comprising an elongated handheld powder storage conduit sized for use in the mouth of a human patient, the conduit having a proximal end, a distal end, and a bore having a central axis, the proximal end being closed by a movable powder dispensing actuator, the distal end being closed by an openable sealing nib that can be moved from its closed to its open position by force upon the actuator whether or not the distal end is in contact with a surface, the conduit containing finely-divided loosely-filled powdered sterile biomaterial; and characterised by the conduit containing a plurality of powder-contacting clump-disrupting projections (20a, 20b), the projections (20a, 20b) being arrayed inside and along the length of the conduit between the actuator and the nib and being movable in the direction of the central axis by force upon the actuator, wherein the device when held with its proximal end uppermost and the nib actuated to its open position provides a path along which powder falls past the projections (20a, 20b) and nib and is gravitationally dispensed from the device in non-aerosolized form.
A power metering circuit, comprising: a current input path configured for receiving an analog current input at a first analog to digital converter (202a; 302a); a voltage input path configured for receiving an analog voltage input at a second analog to digital converter (202b; 302b); and a multiplier (210; 310) configured to multiply an output of the current input path and the voltage input path; characterized by a control circuit (218; 318, 320, 322) configured to track a line frequency; and a notch filter (212; 312) configured to receive an output of the multiplier (210; 310), the notch filter (212; 312) having a stop band based on the tracked line frequency (fline); wherein the control circuit (218; 318, 320, 322) is further configured for setting a sampling frequency of the first analog to digital converter (202a; 302a) and the second analog to digital converter (202b; 302b) to a multiple of the tracked line frequency (f line). a current input path configured for receiving an analog current input at a first analog to digital converter (202a; 302a); a voltage input path configured for receiving an analog voltage input at a second analog to digital converter (202b; 302b); and a multiplier (210; 310) configured to multiply an output of the current input path and the voltage input path; characterized by a control circuit (218; 318, 320, 322) configured to track a line frequency; and a notch filter (212; 312) configured to receive an output of the multiplier (210; 310), the notch filter (212; 312) having a stop band based on the tracked line frequency (fline); wherein the control circuit (218; 318, 320, 322) is further configured for setting a sampling frequency of the first analog to digital converter (202a; 302a) and the second analog to digital converter (202b; 302b) to a multiple of the tracked line frequency (f line).
Cable entry for a component housing having a spacer element and having a cable line comprising a plurality of insulated individual cores, the individual cores being separated and guided by the spacer element and a region of the individual cores that is free of insulation layers being sealed at least in portions by means of a casting compound, the spacer element being designed as a substantially circular element which extends in the longitudinal direction and has, radially on its outer surface, open, longitudinally extending receiving channels for receiving the individual cables, which channels extend into the spacer element to a predetermined depth, the cable entry being characterised in that the receiving channels are formed at a predetermined spacing from one another in the longitudinal direction in the outer surface of the spacer element, in that the region of each individual core that is free of insulation layers is arranged within the receiving channels, in that the receiving channels and the individual cores guided therein are completely sealed by the casting compound, and in that a groove is provided at least between two receiving channels and extends in parallel with said channels, which groove does not extend into the spacer element as far as the receiving channels.
A method for initiating a user plane path modification, comprising: sending (600, 1004, 1102), by a mobility management function entity, first location information of a terminal device to a session management function entity; receiving (600, 1004, 1102), by the session management function entity, the first location information from the mobility management function entity; determining (610, 903, 1005, 1103), by the session management function entity, that the first location information is not within a first service area, the first service area being a service area of a first user plane function entity serving a session of the terminal device; in response to the determination, selecting (620, 903, 1005, 1103), by the session management function entity, a first target user plane function entity based on the first location information; and initiating (630, 1006, 1104), by the session management function entity, a procedure to modify the user plane path for the session, wherein the session is served by the first target user plane function entity through the modified user plane path. sending (600, 1004, 1102), by a mobility management function entity, first location information of a terminal device to a session management function entity; receiving (600, 1004, 1102), by the session management function entity, the first location information from the mobility management function entity; determining (610, 903, 1005, 1103), by the session management function entity, that the first location information is not within a first service area, the first service area being a service area of a first user plane function entity serving a session of the terminal device; in response to the determination, selecting (620, 903, 1005, 1103), by the session management function entity, a first target user plane function entity based on the first location information; and initiating (630, 1006, 1104), by the session management function entity, a procedure to modify the user plane path for the session, wherein the session is served by the first target user plane function entity through the modified user plane path.
A method of wireless communication for a mobile device having at least a first radio and a second radio, comprising: communicating using the first radio based on a first radio technology; determining, by the first radio with respect to the second radio configured based on a second radio technology different from the first radio technology, an availability of the second radio to assist the first radio with a first-radio operation, wherein the second radio is determined to be available to assist the first radio with the first-radio operation when the second radio is performing a first type of task and the second radio is determined to not be available to assist the first radio with the first-radio operation when the second radio is performing a second type of task, wherein the second radio is configured to stop performing the first type of task in response to a request, from the first radio, of the availability of the second radio to assist the first radio with the first-radio operation; configuring, by the first radio, the second radio to perform the first-radio operation; and performing at least a portion of the first-radio operation at the second radio, wherein the configuring and performing is done based on the availability of the second radio to assist the first radio with the first-radio operation. communicating using the first radio based on a first radio technology; determining, by the first radio with respect to the second radio configured based on a second radio technology different from the first radio technology, an availability of the second radio to assist the first radio with a first-radio operation, wherein the second radio is determined to be available to assist the first radio with the first-radio operation when the second radio is performing a first type of task and the second radio is determined to not be available to assist the first radio with the first-radio operation when the second radio is performing a second type of task, wherein the second radio is configured to stop performing the first type of task in response to a request, from the first radio, of the availability of the second radio to assist the first radio with the first-radio operation; configuring, by the first radio, the second radio to perform the first-radio operation; and performing at least a portion of the first-radio operation at the second radio, wherein the configuring and performing is done based on the availability of the second radio to assist the first radio with the first-radio operation.
Redox device, in particular hydrogen-oxygen redox device (10a-b), for carrying out at least one redox reaction under consumption or generation of at least one reaction gas, with at least one reaction gas conduction system (16a-b, 18a-b) for conducting a gas flow of a reaction gas, with at least one gas purification unit (20a-b, 30a-b) for a removal of foreign molecules from the gas flow, which is connected to the at least one reaction gas conduction system (16a-b, 18a-b), wherein the at least one gas purification unit (20a-b, 30a-b) comprises a sorption unit (22a-b, 32a-b) for a removal of the foreign molecules, with an electrolyser (12a-b) and with a fuel cell, characterised by at least one heat transport unit (40a-b), which is configured to conduct a waste heat for supporting a regeneration of the at least one sorption unit (22b, 24b, 32b, 34b) to the at least one gas purification unit (20b, 30b), wherein the waste heat is a heat that occurs in an operation of the electrolyser (12a-b) or of the fuel cell, wherein, in the regeneration, a heat input increases a desorption probability of sorbed foreign molecules from the at least one sorption unit (22b, 24b, 32b, 34b).
A process for manufacturing a resin molded article, comprising thermally molding a sheet which contains a thermoplastic resin and a fiber together with a composition which contains a thermoplastic resin belonging to a similar type to a type of the thermoplastic resin of the sheet, and a laser direct structuring additive, wherein the resin molded article is selected from the group consisting of internal structures and chassis for electronic organizers, PDAs such as hand-held computers, pagers, cell phones and PHS phones and wherein the thermoplastic resin contained in the sheet and the thermoplastic resin contained in the composition are, respectively: a polyamide resin and a polyamide resin; a polyester resin and a polyester resin; a polyolefin resin and a polyolefin resin; a polypropylene resin and a polypropylene resin; a polyethylene resin and a polyethylene resin; an acrylic resin and an acrylic resin; a styrene resin and a styrene resin; or a polyamide resin and a polyurethane resin, wherein the amount of an LDS additive in the fiber-reinforced resin sheet is 0.1 % by weight or less of the sheet; wherein the fiber is regularly arranged in the sheet; wherein the fiber is impregnated with the thermoplastic resin contained in the sheet; and wherein the fiber-reinforced resin sheet has a thickness of 0.01 to 5 mm. wherein the thermoplastic resin contained in the sheet and the thermoplastic resin contained in the composition are, respectively: a polyamide resin and a polyamide resin; a polyester resin and a polyester resin; a polyolefin resin and a polyolefin resin; a polypropylene resin and a polypropylene resin; a polyethylene resin and a polyethylene resin; an acrylic resin and an acrylic resin; a styrene resin and a styrene resin; or a polyamide resin and a polyurethane resin, wherein the amount of an LDS additive in the fiber-reinforced resin sheet is 0.1 % by weight or less of the sheet; wherein the fiber is regularly arranged in the sheet; wherein the fiber is impregnated with the thermoplastic resin contained in the sheet; and wherein the fiber-reinforced resin sheet has a thickness of 0.01 to 5 mm.
A computer-implemented method for performing non-invasive estimation of left ventricular compliance for a subject, the computer-implemented method comprising: obtaining ultrasound data of the subject's heart, wherein the ultrasound data was captured over a time period comprising at least a portion of a cardiac cycle of the heart and comprises velocity data along a direction of mitral inflow; and determining, by processing the velocity data, a velocity component along the direction of mitral inflow of the heart over the time period; characterized in that the computer-implemented method further comprises: determining a temporal variation of the left ventricular pressure from the determined velocity component by processing the velocity component using a physical model; determining, by processing the obtained ultrasound data, a temporal variation of the left ventricle volume; and estimating the left ventricular compliance by processing the determined temporal variation of the left ventricle volume and the determined temporal variation of the left ventricular pressure. obtaining ultrasound data of the subject's heart, wherein the ultrasound data was captured over a time period comprising at least a portion of a cardiac cycle of the heart and comprises velocity data along a direction of mitral inflow; and determining, by processing the velocity data, a velocity component along the direction of mitral inflow of the heart over the time period; characterized in that the computer-implemented method further comprises: determining a temporal variation of the left ventricular pressure from the determined velocity component by processing the velocity component using a physical model; determining, by processing the obtained ultrasound data, a temporal variation of the left ventricle volume; and estimating the left ventricular compliance by processing the determined temporal variation of the left ventricle volume and the determined temporal variation of the left ventricular pressure. determining a temporal variation of the left ventricular pressure from the determined velocity component by processing the velocity component using a physical model; determining, by processing the obtained ultrasound data, a temporal variation of the left ventricle volume; and estimating the left ventricular compliance by processing the determined temporal variation of the left ventricle volume and the determined temporal variation of the left ventricular pressure.
Machine (10, 10') for simultaneous cutting of a plurality of slabs from a block of stone material through a plurality of band saw blades, wherein each of said band saw blades is closed in a loop between a respective driving pulley or a shared driving drum and a respective driven pulley or a shared driven drum, said driving pulleys or said shared driving drum rotating around a first axis of rotation, or respective first axes of rotation parallel to each other, and said driven pulleys or said shared driven drum rotating around the same second axis (A') of rotation, parallel to said first axis of rotation, or respective second axes of rotation parallel to each other and parallel to said first axes of rotation, said axis of rotation of the driving pulleys or of said shared driving drum and said axis of rotation (A') of the driven pulleys or of said shared driven drum being in turn mounted on a frame movable with respect to said block of stone material, along two directions (x, y) incident to each other, one direction (x) of cutting said block of stone material, said direction (x) of cutting being disposed on a plane (τ) of cutting of said slabs, said plane (τ) of cutting being in its turn incident with respect to a direction (y) of relative advancement of said block of stone material with respect to said frame, characterised in that said frame is provided with wheels which rest on rails, which allow the frame to move along said direction (x) of cutting, the plane (π) to which said direction (x) of cutting and said direction (y) of relative advancement of said block of stone material with respect to said frame belong is horizontal and at least the portion of the path of each of said band saw blades included between respective movable spacers is inclined with respect to the vertical of an angle (β) comprised between 3 and 20° in the direction of cutting.
A parameter configuring method, characterized in that the method comprises: determining (101, 201) coverage ranges of cells by a base station or an OAM according to parameter ranges of configured more than one groups of parameter sets; configuring (102, 202) cell types corresponding to the coverage ranges of cells by the base station or the OAM; wherein the cell types are denoted by the parameter, and notifying, by the base station or the OAM, information on a changed cell type to a network side neighboring base station when the coverage ranges of cells change. determining (101, 201) coverage ranges of cells by a base station or an OAM according to parameter ranges of configured more than one groups of parameter sets; configuring (102, 202) cell types corresponding to the coverage ranges of cells by the base station or the OAM; wherein the cell types are denoted by the parameter, and notifying, by the base station or the OAM, information on a changed cell type to a network side neighboring base station when the coverage ranges of cells change.
A brake disk stack (100; 200) characterised by comprising a carbon/carbon ("C/C") rotor disk (108; 208) adjacent to a ceramic matrix composite ("CMC") stator disk (106; 206), an end plate (104; 204) comprising a CMC component and a pressure plate (102; 202) comprising a CMC component.