mhurhangee/ep-ind-claims huggingface dataset:
A conference migration method, wherein the method comprises: performing, by a first terminal, a first conference with a second terminal, wherein the first conference is a point to point conference; sending, by the first terminal, a request to a server, so as to acquire a uniform resource identifier, URI, of a second conference; sending, by the first terminal via the server, a related parameter of the first conference to a multipoint control unit, MCU, of the second conference, wherein the related parameter of the first conference comprises a static parameter of the conference and/or a dynamic parameter of the conference, wherein the static parameter of the conference specifically comprises one piece of the following information: a conference name, a conference time, or encryption information; and the dynamic parameter of the conference specifically comprises one piece of the following information: conference token management information or conference state information; instructing, by the first terminal, the second terminal to transfer the call to the URI; calling, separately by the first terminal and the second terminal, the URI to join the second conference with the MCU; releasing the point-to-point conference between the first terminal and the second terminal; and performing, by the first terminal, the second conference with the second terminal by using the multipoint control unit of the second conference, wherein a related parameter of the second conference is the same as the related parameter of the first conference. performing, by a first terminal, a first conference with a second terminal, wherein the first conference is a point to point conference; sending, by the first terminal, a request to a server, so as to acquire a uniform resource identifier, URI, of a second conference; sending, by the first terminal via the server, a related parameter of the first conference to a multipoint control unit, MCU, of the second conference, wherein the related parameter of the first conference comprises a static parameter of the conference and/or a dynamic parameter of the conference, wherein the static parameter of the conference specifically comprises one piece of the following information: a conference name, a conference time, or encryption information; and the dynamic parameter of the conference specifically comprises one piece of the following information: conference token management information or conference state information; instructing, by the first terminal, the second terminal to transfer the call to the URI; calling, separately by the first terminal and the second terminal, the URI to join the second conference with the MCU; releasing the point-to-point conference between the first terminal and the second terminal; and performing, by the first terminal, the second conference with the second terminal by using the multipoint control unit of the second conference, wherein a related parameter of the second conference is the same as the related parameter of the first conference.
A smart lug comprising: a lug body that includes a first attachment mechanism (150, 1220) sized to both receive insertion of an attaching means and accommodate tightening of the inserted attaching means to affix the smart lug to a surface of another object, structure, or item of equipment, and a second attachment mechanism (140, 1205) for connecting to a cable, the first attachment mechanism (150, 1220) including a through hole in the lug body, the second attachment mechanism (140, 1205) comprising a lug cut-out in the lug body and an attachment mechanism, the lug cut-out configured to receive insertion of the cable, the attachment mechanism being an attachment screw configured to be selectively tightened against the cable in the lug cut-out to affix the lug body to the inserted cable; wireless communication circuitry (510, 110, 1235) affixed to the lug body; and one or more sensor components affixed to the lug body, coupled to the wireless communication circuitry (510, 110, 1235), and configured to sense environmental parameters associated with the lug body or with the other object, structure, or item of equipment. a lug body that includes a first attachment mechanism (150, 1220) sized to both receive insertion of an attaching means and accommodate tightening of the inserted attaching means to affix the smart lug to a surface of another object, structure, or item of equipment, and a second attachment mechanism (140, 1205) for connecting to a cable, the first attachment mechanism (150, 1220) including a through hole in the lug body, the second attachment mechanism (140, 1205) comprising a lug cut-out in the lug body and an attachment mechanism, the lug cut-out configured to receive insertion of the cable, the attachment mechanism being an attachment screw configured to be selectively tightened against the cable in the lug cut-out to affix the lug body to the inserted cable; wireless communication circuitry (510, 110, 1235) affixed to the lug body; and one or more sensor components affixed to the lug body, coupled to the wireless communication circuitry (510, 110, 1235), and configured to sense environmental parameters associated with the lug body or with the other object, structure, or item of equipment.
A microwave treatment device comprising: a heating chamber configured to accommodate a heating target; a microwave generator configured to output a microwave having a frequency in a specified frequency band; a feeder configured to radiate the microwave inside the heating chamber; a detector configured to detect a reflected microwave power reflected from the heating chamber; a controller configured to cause the microwave generator to execute a frequency sweeping in the specified frequency band, and to control the microwave generator according to a temporal change in a frequency characteristic of the reflected microwave power, the temporal change in the frequency characteristic of the reflected microwave power being based on the frequency of the microwave, a level of the reflected microwave power, and a time passed from a start of heating; and a heater configured to heat the heating target by radiation heating, characterized in that the controller is configured to recognize a progress of cooking according to a temporal change in a frequency of at least one of a local minimum point, a local maximum point, a maximum point, and a minimum point contained in the frequency characteristic of the reflected microwave power to control the microwave generator and the heater. a heating chamber configured to accommodate a heating target; a microwave generator configured to output a microwave having a frequency in a specified frequency band; a feeder configured to radiate the microwave inside the heating chamber; a detector configured to detect a reflected microwave power reflected from the heating chamber; a controller configured to cause the microwave generator to execute a frequency sweeping in the specified frequency band, and to control the microwave generator according to a temporal change in a frequency characteristic of the reflected microwave power, the temporal change in the frequency characteristic of the reflected microwave power being based on the frequency of the microwave, a level of the reflected microwave power, and a time passed from a start of heating; and a heater configured to heat the heating target by radiation heating, characterized in that the controller is configured to recognize a progress of cooking according to a temporal change in a frequency of at least one of a local minimum point, a local maximum point, a maximum point, and a minimum point contained in the frequency characteristic of the reflected microwave power to control the microwave generator and the heater.
A method for targeted integration of an artificial Immunoglobulin (Ig) locus in a recipient non-human germ cell, fertilised oocyte or embryo comprising: introducing into a recipient non-human germ cell, fertilised oocyte or embryo a site-specific meganuclease targeting an endogenous Ig locus and a transgenic vector comprising an artificial Ig locus such that the artificial Ig locus integrates into the genome of the recipient non-human germ cell, fertilised oocyte or embryo by targeted integration and replaces the endogenous Ig locus, or parts thereof, by homologous recombination; wherein the meganuclease increases the frequency of homologous recombination through double-strand DNA cleavage.
Process for making seats comprising at least one shell, at least one covering sheet or sheet and at least one additional padding element made of gel, characterized in that it comprises the following steps: • preparing at least one covering sheet or covering; • cutting to size at least one intermediate adhesion sheet made of a material provided with micro holes or a woven fabric; • applying said at least one adhesion sheet onto a surface of said covering in a stable manner, in the position in which said at least one additional padding element must be made; • positioning said covering, together with said adhesion sheets applied thereon, into a first mould shaped so that it is provided with one or more concave portions for the creation of said one or more additional padding elements; • casting a given quantity of gel onto said at least one adhesion sheet, wherein the gel penetrates into said micro holes or holes present in the woven fabric of said at least one adhesion sheet so as to form said at least one additional gel padding element having predetermined shape and size, wherein said padding element remains adherent to said at least one adhesion sheet. • preparing at least one covering sheet or covering; • cutting to size at least one intermediate adhesion sheet made of a material provided with micro holes or a woven fabric; • applying said at least one adhesion sheet onto a surface of said covering in a stable manner, in the position in which said at least one additional padding element must be made; • positioning said covering, together with said adhesion sheets applied thereon, into a first mould shaped so that it is provided with one or more concave portions for the creation of said one or more additional padding elements; • casting a given quantity of gel onto said at least one adhesion sheet, wherein the gel penetrates into said micro holes or holes present in the woven fabric of said at least one adhesion sheet so as to form said at least one additional gel padding element having predetermined shape and size, wherein said padding element remains adherent to said at least one adhesion sheet.
A large scale process for the in vitro production of a cell line callus culture of grape berry cells, the process comprising: growing grape berry cells in a flask; inoculating the grape berry cells from the flask into a first bioreactor; inoculating the grape berry cells from the first bioreactor into another bioreactor, wherein the another bioreactor is a last bioreactor or an intermediate bioreactor and wherein at least one of the first and the another bioreactor is disposable; and harvesting the grape berry cells from the last bioreactor; wherein the grape berry cells harvested from the last bioreactor are dried; wherein the size of each bioreactor used in the process is larger than the one in which the grape berry cells were previously grown; and wherein the grape berry cells are grown in an enriched Gamborg B5 medium, and wherein the enriched Gamborg B5 medium is enriched with magnesium, phosphate or nitrate salts or a combination thereof. growing grape berry cells in a flask; inoculating the grape berry cells from the flask into a first bioreactor; inoculating the grape berry cells from the first bioreactor into another bioreactor, wherein the another bioreactor is a last bioreactor or an intermediate bioreactor and wherein at least one of the first and the another bioreactor is disposable; and harvesting the grape berry cells from the last bioreactor;
A working vehicle, comprising: - an operator's seat on which an operator can sit; and - a vehicle body configured to travel selectively using either manual steering or automatic steering, the manual steering being performed manually by the operator, and the automatic steering being performed on the basis of a position of the vehicle body detected by a positioning device without manual operation by the operator; characterized by comprising: - a first operation member disposed on a lateral side of the operator's seat operably to perform an operation relating to the automatic steering, the first operation member being configured to be operated to selectively start or terminate the automatic steering during rearward traveling of the vehicle body or to correct the position of the vehicle body during rearward traveling of the vehicle body. - an operator's seat on which an operator can sit; and - a vehicle body configured to travel selectively using either manual steering or automatic steering, the manual steering being performed manually by the operator, and the automatic steering being performed on the basis of a position of the vehicle body detected by a positioning device without manual operation by the operator; - a first operation member disposed on a lateral side of the operator's seat operably to perform an operation relating to the automatic steering, the first operation member being configured to be operated to selectively start or terminate the automatic steering during rearward traveling of the vehicle body or to correct the position of the vehicle body during rearward traveling of the vehicle body.
An exercise device, including: i. an elongate support element; ii. a pivot adjustably positioned at an intermediate point along the length of the elongate support element, wherein the position of the pivot along the length of the elongate support element is adjustable in order to adjust a level of assistance or resistance provided by the device; iii. one or more lower body supports mounted on the elongate support element on a first side of the pivot; and iv. one or more upper body supports mounted on the elongate support on a second side of the pivot. i. an elongate support element; ii. a pivot adjustably positioned at an intermediate point along the length of the elongate support element, wherein the position of the pivot along the length of the elongate support element is adjustable in order to adjust a level of assistance or resistance provided by the device; iii. one or more lower body supports mounted on the elongate support element on a first side of the pivot; and iv. one or more upper body supports mounted on the elongate support on a second side of the pivot.
Method for evaluating an occupancy state of a hair salon chair, wherein the method comprises at least the following method steps: - qualitative and/or quantitative detection of a first physical measurand indicating an occupancy of the hair salon chair by a person by means of at least one first sensor, - processing a signal generated by the first sensor, - receiving and further processing of the processed signal by a transmitter unit of the hair salon chair, - wirelessly transmitting the further processed signal by means of the transmitter unit to a receiver unit outside the hair salon chair, - further processing of the transmitted signal, - determining an occupancy state of the hair salon chair on the basis of the further processed signal by means of a data processing unit, which is connected to the receiver unit, outside the hair salon chair and - evaluating the determined occupancy state. - qualitative and/or quantitative detection of a first physical measurand indicating an occupancy of the hair salon chair by a person by means of at least one first sensor, - processing a signal generated by the first sensor, - receiving and further processing of the processed signal by a transmitter unit of the hair salon chair, - wirelessly transmitting the further processed signal by means of the transmitter unit to a receiver unit outside the hair salon chair, - further processing of the transmitted signal, - determining an occupancy state of the hair salon chair on the basis of the further processed signal by means of a data processing unit, which is connected to the receiver unit, outside the hair salon chair and - evaluating the determined occupancy state.
An introducer for introducing a prosthetic device into the vasculature of a patient comprising: an elongated body having distal and proximal ends (14, 16) and defining a generally cylindrical shape, and a central passageway extending through the body from the distal end to the proximal end, characterized in that the elongated body has on a side two opposing longitudinal edges that are not connected so as to define a slit therebetween extending from the proximal end to the distal end, wherein the introducer is adapted to be assembled around implant sutures, which are used to secure the prosthetic device in place at the implantation site, by passing the implant sutures through the slit from the outside into the central passageway, and wherein the introducer is adapted to allow the elongated body to radially expand to accommodate a prosthetic device having a larger diameter than that of the introducer as the prosthetic device is advanced through the introducer. an elongated body having distal and proximal ends (14, 16) and defining a generally cylindrical shape, and a central passageway extending through the body from the distal end to the proximal end, characterized in that the elongated body has on a side two opposing longitudinal edges that are not connected so as to define a slit therebetween extending from the proximal end to the distal end, wherein the introducer is adapted to be assembled around implant sutures, which are used to secure the prosthetic device in place at the implantation site, by passing the implant sutures through the slit from the outside into the central passageway, and wherein the introducer is adapted to allow the elongated body to radially expand to accommodate a prosthetic device having a larger diameter than that of the introducer as the prosthetic device is advanced through the introducer.
A clock oscillator comprising: an oscillator which generates a clock signal and comprises a digital trimming function; a counter receiving said clock signal at a clock input; a time base having a low drift and controlling said counter through a time reference signal (Tref) defining a reference window, wherein the counter is configured to generate a difference value based on the difference between a count number of pulses from the clock signal occurring during the reference window and a calibration number (no) fed to the counter; and a digital integrator receiving said difference value comprising n bits and providing trimming data for said oscillator, characterized in that only Most Significant Bits, MSB, of the n-bit difference value are shifted at the integrator input in order to reduce a tuning time while remaining bits of the n-bit integer difference value remain un-shifted. an oscillator which generates a clock signal and comprises a digital trimming function; a counter receiving said clock signal at a clock input; a time base having a low drift and controlling said counter through a time reference signal (Tref) defining a reference window, wherein the counter is configured to generate a difference value based on the difference between a count number of pulses from the clock signal occurring during the reference window and a calibration number (no) fed to the counter; and a digital integrator receiving said difference value comprising n bits and providing trimming data for said oscillator, characterized in that only Most Significant Bits, MSB, of the n-bit difference value are shifted at the integrator input in order to reduce a tuning time while remaining bits of the n-bit integer difference value remain un-shifted.
A process, comprising: (a) introducing at least a portion of an aqueous solution into a first chamber, the first chamber at least partially defined by a cathode and a membrane, the membrane comprising ripstop nylon; (b) introducing at least a portion of the aqueous solution into a second chamber, the second chamber at least partially defined by an anode and a membrane, the membrane comprising ripstop nylon, the anode positioned such that the membrane is at least partially interposed between the cathode and the anode; (c) applying a DC electrical potential between the cathode and the anode; (d) withdrawing hydrogen from the cathodic chamber; and (e) withdrawing oxygen from the anodic chamber. (a) introducing at least a portion of an aqueous solution into a first chamber, the first chamber at least partially defined by a cathode and a membrane, the membrane comprising ripstop nylon; (b) introducing at least a portion of the aqueous solution into a second chamber, the second chamber at least partially defined by an anode and a membrane, the membrane comprising ripstop nylon, the anode positioned such that the membrane is at least partially interposed between the cathode and the anode; (c) applying a DC electrical potential between the cathode and the anode; (d) withdrawing hydrogen from the cathodic chamber; and (e) withdrawing oxygen from the anodic chamber.
An automotive power electronics assembly comprising a cover plate of metal, a cooling pipe received in a groove extending along a first surface of the cover plate, a plurality of metallic heat sink bodies (20, 21) provided on a second, opposite surface of the cover plate and being with first end faces in heat conducting contact therewith, each heat sink body (20, 21) carrying on a side surface at least one semiconductor component to be cooled, and a printed circuit board disposed at a distance to the second surface of the cover plate and providing electronic contacts to the semiconductor components, which printed circuit board is in contact with second end faces of the heat sink bodies opposite to the first end faces in contact with the second surface of the cover plate, characterized in that each heat sink body tapers from the first end face in contact with the cover plate to the second end face in contact with the printed circuit board such that the contact area with the cover plate is larger than the contact area with the printed circuit board, wherein the tapering shape of each heat sink body includes opposite side walls which converge towards each other with increasing distance from the cover plate and which carry the semiconductor components.