mhurhangee/ep-ind-claims huggingface dataset:
A dental treatment apparatus that is configured to energize a dental treatment site with a high-frequency current, 300 kHz to 1000 kHz and a current value of 20 mA to 200 mA, the dental treatment apparatus comprising a holder configured to hold an electrode placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; a root canal length measurement unit configured to electrically measure a position of a distal end of the electrode in a root canal; and a controller configured to cause, in accordance with information on the position of the distal end of the electrode measured by the root canal length measurement unit, the power supply to control a current value of the high-frequency current with which the electrode is energized. a holder configured to hold an electrode placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; a root canal length measurement unit configured to electrically measure a position of a distal end of the electrode in a root canal; and a controller configured to cause, in accordance with information on the position of the distal end of the electrode measured by the root canal length measurement unit, the power supply to control a current value of the high-frequency current with which the electrode is energized.
An electrosurgical forceps, comprising: first and second shafts (110, 120) each having a jaw member (210, 220) disposed at a distal end thereof, the shafts configured to rotate about a pivot to move the jaw members between an open position and a closed position; a knife deployment mechanism disposed on one of the first or second shafts; a knife operably coupled to the knife deployment mechanism, the knife deployment mechanism configured to move the knife between a retracted position and an extended position; and a knife lockout configured to move between a first position and a second position: wherein in the first position wherein the jaw members are in the open position and movement of the knife from the retracted position to the extended position is prevented; and wherein in the second position wherein the jaw members are in an approximated position and movement of the knife from the retracted position to the extended position is permitted; and, characterised in that the knife lockout is further configured to move to a third position wherein the jaw members are in a position being further approximated and movement of the knife from the retracted position to the extended position is prevented. first and second shafts (110, 120) each having a jaw member (210, 220) disposed at a distal end thereof, the shafts configured to rotate about a pivot to move the jaw members between an open position and a closed position; a knife deployment mechanism disposed on one of the first or second shafts; a knife operably coupled to the knife deployment mechanism, the knife deployment mechanism configured to move the knife between a retracted position and an extended position; and a knife lockout configured to move between a first position and a second position: wherein in the first position wherein the jaw members are in the open position and movement of the knife from the retracted position to the extended position is prevented; and wherein in the second position wherein the jaw members are in an approximated position and movement of the knife from the retracted position to the extended position is permitted; and, characterised in that the knife lockout is further configured to move to a third position wherein the jaw members are in a position being further approximated and movement of the knife from the retracted position to the extended position is prevented. wherein in the first position wherein the jaw members are in the open position and movement of the knife from the retracted position to the extended position is prevented; and wherein in the second position wherein the jaw members are in an approximated position and movement of the knife from the retracted position to the extended position is permitted; and, characterised in that the knife lockout is further configured to move to a third position wherein the jaw members are in a position being further approximated and movement of the knife from the retracted position to the extended position is prevented.
Method of production of a basalt based knitted textile structure comprising a basalt fibre based yarn knitting stage using a warp-knit or warp-stitch type technology, characterized in that the said basalt fibre-based yarns are fed positively, almost at overspeed, into the knitting devices.
A solvent-based inkjet negative, characterised in that a polymeric film compatible with solvent-based ink and having inked areas is provided, the polymeric film being thin in one dimension, broad in the two other dimensions, a surface in the two other dimensions to be illuminated by a light having an initial intensity, a first combination of light filtering substances uniformly spread in the other two dimensions, the ink comprising a second combination of light filtering substances_and being printed on the surface, the first and second combinations of light filtering substances preventing polymerization of photopolymers opposite to the surface to be illuminated when light is shone on the surface to be illuminated, the first combination of light filtering substances is taken from the list of: a. none; b. at least one layer of fluorescent substance; c. at least one layer of light-reflecting substance; d. at least one layer of light absorbing substance; e. at least one fluorescent substance dispersed within the film; f. at least one light-reflecting substance dispersed within the film; g. at least one light absorbing substance dispersed within the film; and h. any combination of b. through g. above; and said second combination of light filtering substances is taken from the list of: i. a fluorescent substance; j. a light-reflecting substance; k. a light absorbing substance; and l. any combination of i. through k. above.
A light emitting device package, comprising: a housing having a cavity formed therein; a fight emitting device provided within the cavity; a filler filled in the cavity and covering the light emitting device; a fluorescent layer coupled to a surface of the filler; and an optical filter positioned between the light emitting device and the fluorescent layer, wherein the optical filter transmits light having a predetermined wavelength, characterized in that the optical filter is embedded within the filler such that filler is provided between the optical filter and the light emitting device, and between the optical filter and the fluorescent layer, and the fluorescent layer is directly positioned on a top surface of the filler a housing having a cavity formed therein; a fight emitting device provided within the cavity; a filler filled in the cavity and covering the light emitting device; a fluorescent layer coupled to a surface of the filler; and an optical filter positioned between the light emitting device and the fluorescent layer, wherein the optical filter transmits light having a predetermined wavelength,
Vane diffuser (5, 20) for separating a gas/liquid/particulate-mixture flow in essentially a gas phase fraction and a liquid/particulate phase fraction, comprising: - a distribution chamber holding a plurality of curved vanes; - an inlet (6, 22) for the gas/liquid/particulate-mixture connecting to the distribution chamber; and - a cyclone pre-separator located between the inlet (6, 22) for the gas/liquid/particulate-mixture and the distribution chamber, which cyclone pre-separator comprises: - a cyclone housing upstream connecting to the inlet (6, 22) for the gas/liquid/particulate-mixture; - a swirl element for rotation of the gas/liquid/particulate-mixture flow being located in the cyclone housing downstream of the inlet (6, 22) for the gas/liquid/particulate-mixture; - a gas phase outlet opened to the distribution chamber downstream of the swirl element; and - a liquid phase outlet connecting to the outer zone of the cyclone housing downstream of the swirl element, characterised in that the plurality of curved vanes lances the side walls of the distribution chamber, and the side walls of the distribution chamber are provided with passages between the curved vanes connecting the interior of the distribution chamber with the outside of the distribution chamber. - a distribution chamber holding a plurality of curved vanes; - an inlet (6, 22) for the gas/liquid/particulate-mixture connecting to the distribution chamber; and - a cyclone pre-separator located between the inlet (6, 22) for the gas/liquid/particulate-mixture and the distribution chamber, which cyclone pre-separator comprises: - a cyclone housing upstream connecting to the inlet (6, 22) for the gas/liquid/particulate-mixture; - a swirl element for rotation of the gas/liquid/particulate-mixture flow being located in the cyclone housing downstream of the inlet (6, 22) for the gas/liquid/particulate-mixture; - a gas phase outlet opened to the distribution chamber downstream of the swirl element; and - a liquid phase outlet connecting to the outer zone of the cyclone housing downstream of the swirl element, - a cyclone housing upstream connecting to the inlet (6, 22) for the gas/liquid/particulate-mixture; - a swirl element for rotation of the gas/liquid/particulate-mixture flow being located in the cyclone housing downstream of the inlet (6, 22) for the gas/liquid/particulate-mixture; - a gas phase outlet opened to the distribution chamber downstream of the swirl element; and - a liquid phase outlet connecting to the outer zone of the cyclone housing downstream of the swirl element,
A protection sleeve configured to reinforce a fusion spliced portion of an optical fiber, the protection sleeve including: - a heat shrinkable tube; - an adhesive tube disposed inside the heat shrinkable tube; and - a reinforcing rod also housed inside the heat shrinkable tube, characterized in that the heat shrinkable tube, the adhesive tube, and the reinforcing rod are adhered together in a lengthwise section of the protection sleeve by means of a melted portion of the adhesive tube, while the adhesive tube still retains an opening sufficient for the optical fiber to pass through. - a heat shrinkable tube; - an adhesive tube disposed inside the heat shrinkable tube; and - a reinforcing rod also housed inside the heat shrinkable tube, characterized in that the heat shrinkable tube, the adhesive tube, and the reinforcing rod are adhered together in a lengthwise section of the protection sleeve by means of a melted portion of the adhesive tube, while the adhesive tube still retains an opening sufficient for the optical fiber to pass through.
A method for making an isolated chymosin polypeptide variant comprising the steps: (a): making an alteration at one or more positions in a parent polypeptide having chymosin activity, wherein the alteration is comprising a substitution, a deletion or an insertion in at least one amino acid position corresponding to position 117; and (b): producing and isolating the altered polypeptide of step (a) and thereby obtaining the isolated chymosin polypeptide variant, wherein the variant has chymosin activity; and wherein: (i): the amino acid position of the parent polypeptide is determined by an alignment of the parent polypeptide with the polypeptide of SEQ ID NO: 1 (bovine chymosin) - i.e. the polypeptide of SEQ ID NO: 1 is used to determine the corresponding amino acid sequence in the parent polypeptide; and (ii): the parent polypeptide has at least 90% sequence identity with the mature polypeptide of SEQ ID NO: 2 (Camel chymosin), which is from amino acid position 59 to amino acid position 381 of SEQ ID NO: 2; and wherein the isolated chymosin polypeptide variant has: - a chymosin activity giving a higher C/P ratio as compared to the C/P ratio of camel chymosin comprising the mature polypeptide of SEQ ID NO: 2. (a): making an alteration at one or more positions in a parent polypeptide having chymosin activity, wherein the alteration is comprising a substitution, a deletion or an insertion in at least one amino acid position corresponding to position 117; and (b): producing and isolating the altered polypeptide of step (a) and thereby obtaining the isolated chymosin polypeptide variant, wherein the variant has chymosin activity; (i): the amino acid position of the parent polypeptide is determined by an alignment of the parent polypeptide with the polypeptide of SEQ ID NO: 1 (bovine chymosin) - i.e. the polypeptide of SEQ ID NO: 1 is used to determine the corresponding amino acid sequence in the parent polypeptide; and (ii): the parent polypeptide has at least 90% sequence identity with the mature polypeptide of SEQ ID NO: 2 (Camel chymosin), which is from amino acid position 59 to amino acid position 381 of SEQ ID NO: 2; and wherein the isolated chymosin polypeptide variant has: - a chymosin activity giving a higher C/P ratio as compared to the C/P ratio of camel chymosin comprising the mature polypeptide of SEQ ID NO: 2. - a chymosin activity giving a higher C/P ratio as compared to the C/P ratio of camel chymosin comprising the mature polypeptide of SEQ ID NO: 2.
A crystalline form of the compound -(2-(6-chloro-7-methyl-1H-benzo[d]imidazol-2-yl)-2-methylpyrrolidin-1-yl)(5-methoxy-2-(2H-1,2,3-triazol-2-yl)phenyl)methanone; characterized by: • the presence of peaks in the X-ray powder diffraction diagram at the following angles of refraction 2θ: 8.6°, 15.2°, and 21.3°; or • the presence of peaks in the X-ray powder diffraction diagram at the following angles of refraction 2θ: 13.4°, 18.3°, and 24.0°. • the presence of peaks in the X-ray powder diffraction diagram at the following angles of refraction 2θ: 8.6°, 15.2°, and 21.3°; or • the presence of peaks in the X-ray powder diffraction diagram at the following angles of refraction 2θ: 13.4°, 18.3°, and 24.0°.
A method of managing a meeting session between one or more participant devices (102, 102a, 102b, 102c, 104) and a presenter device (102, 102a, 102b, 102c, 104), the method performed by a first device providing server functions (102, 102a, 102b, 102c, 104, 110) that manages the meeting session, the method comprising: receiving one or more break request messages (302, 590) from the one or more participant devices (102, 102a, 102b, 102c, 104); and automatically sending a break message to the one or more participant devices in response to at least a threshold number of break request messages being received by the first device, the break message causing a break notification to be displayed on a display of the one or more participant devices, wherein at least one of the one or more break request messages includes a time parameter providing an indicator of a desired time (468, 800, 920, 1020) of the break; and wherein the time parameter includes one of an indicator to break immediately, an indicator to break at the next topic (466, 534), an indicator to break at a specific time, or an indicator to break within a specified duration of time. receiving one or more break request messages (302, 590) from the one or more participant devices (102, 102a, 102b, 102c, 104); and automatically sending a break message to the one or more participant devices in response to at least a threshold number of break request messages being received by the first device, the break message causing a break notification to be displayed on a display of the one or more participant devices, wherein at least one of the one or more break request messages includes a time parameter providing an indicator of a desired time (468, 800, 920, 1020) of the break; and wherein the time parameter includes one of an indicator to break immediately, an indicator to break at the next topic (466, 534), an indicator to break at a specific time, or an indicator to break within a specified duration of time.
A method performed by a session managing system of managing a communication session involving multiple user terminals (210, 220, 230, 240, 260) present in a first cell served by a base station of a cellular communication system and connected to said base station through a common downlink channel carrying user data, said method comprising instructing a selected user terminal (220, 230, 240) of said multiple user terminals (210, 220, 230, 240, 260) to transmit an uplink request message, if any, to a selected base station (20, 30, 40) serving a second cell (25, 35, 45), while keeping the connection through the common downlink channel with said base station serving the first cell.
A data transmission method, comprising: sending, by a base station, a first downlink control channel in a first sub-band, wherein the first downlink control channel is configured to schedule data in a first time-domain range, and a frequency-domain range of the scheduled data in the first time-domain range occupies a second sub-band; if a bandwidth of the second sub-band is larger than a bandwidth of the first sub-band, transmitting, by the base station, data based on the first sub-band before a first moment in the first time-domain range and transmitting, by the base station, data based on the second sub-band after a second moment in the first time-domain range; wherein a time interval between the first moment and the second moment is configured for a terminal to adjust a receiving bandwidth, and no data transmission is performed during the time interval. sending, by a base station, a first downlink control channel in a first sub-band, wherein the first downlink control channel is configured to schedule data in a first time-domain range, and a frequency-domain range of the scheduled data in the first time-domain range occupies a second sub-band; if a bandwidth of the second sub-band is larger than a bandwidth of the first sub-band, transmitting, by the base station, data based on the first sub-band before a first moment in the first time-domain range and transmitting, by the base station, data based on the second sub-band after a second moment in the first time-domain range; wherein a time interval between the first moment and the second moment is configured for a terminal to adjust a receiving bandwidth, and no data transmission is performed during the time interval.
A computer-implemented method comprising: identifying a potential roundabout location from a plurality of probe data points, wherein each of the plurality of probe data points is represented by a vector comprising a location, a heading angle and a length; selecting a subset of the plurality of probe data points for the potential roundabout location; normalizing the vector lengths of the selected subset of the plurality of probe data points; performing a vector field fit for the subset of the plurality of probe data points; and determining a roundabout location from the vector field fit. identifying a potential roundabout location from a plurality of probe data points, wherein each of the plurality of probe data points is represented by a vector comprising a location, a heading angle and a length; selecting a subset of the plurality of probe data points for the potential roundabout location; normalizing the vector lengths of the selected subset of the plurality of probe data points; performing a vector field fit for the subset of the plurality of probe data points; and determining a roundabout location from the vector field fit.
Floating module for producing electricity, comprising: - at least one photovoltaic panel, and - a floating framework on which the panel is mounted, characterized in that the photovoltaic panel comprises an upper face and a lower face which are capable of generating electricity by photovoltaic effect, and in that the floating module further comprises a reflective device capable of reflecting light rays towards the lower face of the panel, the reflective device comprising a plurality of floating reflective balls and/or a tarpaulin which is attached to the framework. - at least one photovoltaic panel, and - a floating framework on which the panel is mounted,
Monitoring and/or respiratory assistance apparatus that can be used during a cardiopulmonary resuscitation with successive chest compressions of duration (dt) performed on the patient and with relaxations, said apparatus comprising: - means for measuring the CO 2 content in order to perform measurements of the concentration of CO 2 produced by the patient during the cardiopulmonary resuscitation, and to supply CO 2 content measurement signals to signal-processing means, - signal-processing means configured to process the CO 2 content measurement signals originating from the CO 2 content measurement means, and - at least one graphical user interface, characterized in that the signal-processing means are configured to: a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression, and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - a mean index AOI mean on the basis of several successive opening indices AOI obtained during the durations (dt) of n successive chest compressions (with n>1), and c) transmit to said graphical user interface at least one index value AOI or at least one mean index value AOI mean, and - the graphical user interface is configured to display said at least one index value AOI or mean index value AOI mean, or a graphical representation of said at least one index value AOI or mean index value AOI mean. - means for measuring the CO 2 content in order to perform measurements of the concentration of CO 2 produced by the patient during the cardiopulmonary resuscitation, and to supply CO 2 content measurement signals to signal-processing means, - signal-processing means configured to process the CO 2 content measurement signals originating from the CO 2 content measurement means, and - at least one graphical user interface, characterized in that the signal-processing means are configured to: a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression, and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or a) determine at least one maximum CO 2 content value (Vmax) and at least one minimum CO 2 content value (Vmin), during at least one duration (dt) of at least one chest compression, and b) calculate at least: - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - one airway opening index AOI such that: AOI = Vmax − Vmin / Vmax or - a mean index AOI mean on the basis of several successive opening indices AOI obtained during the durations (dt) of n successive chest compressions (with n>1), and c) transmit to said graphical user interface at least one index value AOI or at least one mean index value AOI mean, and - the graphical user interface is configured to display said at least one index value AOI or mean index value AOI mean, or a graphical representation of said at least one index value AOI or mean index value AOI mean.