mhurhangee/ep-ind-claims huggingface dataset:
A system for illuminating a surgical field or facilitating treatment in the surgical field, said system comprising: an electrosurgical generator configured to provide radiofrequency power at an output voltage; a secondary power source with contacts (2016, 2018); an output plug operably coupled with the electrosurgical generator, wherein the output plug comprises a compartment disposed in the output plug and receiving the secondary power source, contacts configured to electrically engage with the contacts (2016, 2018) of the secondary power source, and plug pins; an electrosurgery instrument having an illumination element for illuminating the surgical field or other electrically activated device requiring power for operation and configured to facilitate treatment in the surgical field; and a power conductor, which is either connected to the pins within the output plug and configured to carry power from the output plug to the illumination element or the other device, or disposed within the output plug and exiting said plug to be configured to carry power from the output plug to the illumination element or the other device; wherein the secondary power source is replaceable while power is still being supplied by the electrosurgical generator to the electrosurgery instrument to avoid interrupting a surgical procedure. an electrosurgical generator configured to provide radiofrequency power at an output voltage; a secondary power source with contacts (2016, 2018); an output plug operably coupled with the electrosurgical generator, wherein the output plug comprises a compartment disposed in the output plug and receiving the secondary power source, contacts configured to electrically engage with the contacts (2016, 2018) of the secondary power source, and plug pins; a compartment disposed in the output plug and receiving the secondary power source, contacts configured to electrically engage with the contacts (2016, 2018) of the secondary power source, and plug pins; an electrosurgery instrument having an illumination element for illuminating the surgical field or other electrically activated device requiring power for operation and configured to facilitate treatment in the surgical field; and a power conductor, which is either connected to the pins within the output plug and configured to carry power from the output plug to the illumination element or the other device, or disposed within the output plug and exiting said plug to be configured to carry power from the output plug to the illumination element or the other device; wherein the secondary power source is replaceable while power is still being supplied by the electrosurgical generator to the electrosurgery instrument to avoid interrupting a surgical procedure.
An apparatus of a user equipment, UE, for long term evolution, LTE, Multefire, MF, communications on one or more unlicensed channels, the apparatus comprising: a memory configured to store a first MF identifier, MF-ID; and processing circuitry coupled to the memory and configured to: initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels (180, 185); identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request. a memory configured to store a first MF identifier, MF-ID; and processing circuitry coupled to the memory and configured to: initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels (180, 185); identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request. initiate establishment of a first radio resource control, RRC, connection with a first MF evolved node B, eNB, associated with the first MF-ID using the one or more unlicensed channels (180, 185); identify a radio link failure associated with the first RRC connection using the one or more unlicensed channels; perform a cell selection in response to the radio link failure to select a second MF eNB; and initiate transmission of an RRC communication to the second MF eNB in response to the radio link failure using the one or more unlicensed channels, wherein the RRC communication includes an RRC connection reestablishment request, wherein the RRC connection reestablishment request includes the first MF-ID; and receive an RRC connection reestablishment rejection message from the second MF eNB, wherein the RRC connection reestablishment rejection message is based on the first MF-ID from the RRC reestablishment request.
A papermaking felt comprising at least one base fabric and at least one batt layer integrated with the base fabric, wherein the base fabric comprises a first base fabric, a second base fabric, and a third base fabric, the first base fabric, the second base fabric, and the third base fabric are laminated together in an arbitrary order, the first base fabric is a base fabric formed by spirally winding, in a right-handed manner, a band-shaped body having a width (W S1) smaller than a width (Wf) of the papermaking felt and having a plurality of ground warp yarns, a plurality of ground weft yarns, a first side edge parallel to a ground warp direction, and a second side edge parallel to the ground warp direction in such a manner that the first side edge and the second side edge are adjacent and thereby joining the side edges (11, 12) together, the second base fabric is a base fabric formed by spirally winding, in a left-handed manner, a band-shaped body having a width (W S2) smaller than the width (Wf) of the papermaking felt and having a plurality of ground warp yarns, a plurality of ground weft yarns, a first side edge parallel to a ground warp direction, and a second side edge parallel to the ground warp direction in such a manner that the first side edge and the second side edge are adjacent and thereby joining the side edges (21, 22) together, the third base fabric is a base fabric having at least a plurality of ground warp yarns parallel to a machine direction of the papermaking felt, the breaking strength in a warp direction of the third base fabric is 30% or more of the breaking strength in a warp direction of the first base fabric or the breaking strength in a warp direction of the second base fabric, the third base fabric has a plurality of ground weft yarns, and is formed such that a length of the ground weft yarn determines a width dimension (Wf) of the papermaking felt, or is a base fabric formed by arranging, in a cross-machine direction, two or more annular band-shaped bodies, each of which is obtained by joining together end edges of a band-shaped body having a width (W S3) smaller than the width (Wf) of the papermaking felt and having a plurality of ground warp yarns, a plurality of ground weft yarns, a first end edge parallel to a ground weft direction, a second end edge parallel to the ground weft direction, a first side edge parallel to a ground warp direction, and a second side edge parallel to the ground warp direction, in such a manner that the first end edge and the second end edge are adjacent, and joining together the second side edge of an N-1-th annular band-shaped body and the first side edge of an N-th annular band-shaped body in such a manner that both side edges (31, 32) are adjacent, in which N is 2 or more, and the papermaking felt does not comprise any seam loop.
A polyamide composition comprising: 50 to 99 parts by mass of an aliphatic polyamide formed from a diamine and a dicarboxylic acid, and 1 to 50 parts by mass of a semi-aromatic polyamide containing a dicarboxylic acid unit that includes at least 75 mol% of isophthalic acid, and a diamine unit that includes at least 50 mol% of a diamine of 4 to 10 carbon atoms, wherein the tan δ peak temperature of the polyamide composition is at least 90°C, the weight average molecular weight Mw of the polyamide composition satisfies 15,000 ≤ Mw ≤ 35,000, wherein the weight average molecular weight Mw of the polyamide composition is measured by gel permeation chromatography, using hexafluoroisopropanol solvent and calculated against polymethyl methacrylate standard samples, and the molecular weight distribution Mw/Mn of the semi-aromatic polyamide is not more than 2.6, wherein the weight average molecular weight Mw of the semi-aromatic polyamide and the number average molecular weight Mn of the semi-aromatic polyamide are measured by gel permeation chromatography, using hexafluoroisopropanol solvent and calculated against polymethyl methacrylate standard samples. 50 to 99 parts by mass of an aliphatic polyamide formed from a diamine and a dicarboxylic acid, and 1 to 50 parts by mass of a semi-aromatic polyamide containing a dicarboxylic acid unit that includes at least 75 mol% of isophthalic acid, and a diamine unit that includes at least 50 mol% of a diamine of 4 to 10 carbon atoms, wherein the tan δ peak temperature of the polyamide composition is at least 90°C, the weight average molecular weight Mw of the polyamide composition satisfies 15,000 ≤ Mw ≤ 35,000, wherein the weight average molecular weight Mw of the polyamide composition is measured by gel permeation chromatography, using hexafluoroisopropanol solvent and calculated against polymethyl methacrylate standard samples, and the molecular weight distribution Mw/Mn of the semi-aromatic polyamide is not more than 2.6, wherein the weight average molecular weight Mw of the semi-aromatic polyamide and the number average molecular weight Mn of the semi-aromatic polyamide are measured by gel permeation chromatography, using hexafluoroisopropanol solvent and calculated against polymethyl methacrylate standard samples.
Method for operating an alarm control centre of a vehicle tracking system, wherein, when an alarm message from a VTS device inside the motor vehicle is received in the alarm control centre outside the motor vehicle, processing of the alarm message is automatically initiated, characterized in that, when an alarm message from a VTS device is received in the alarm control centre, time monitoring is automatically started, which time monitoring checks whether and in what period of time after initiating the processing of the alarm message the processing is actually started, wherein, when it is determined in this case that a defined first period of time is exceeded, an escalation function is automatically initiated, wherein, upon initiating an escalation function, a message for a superior of the relevant processor is automatically initiated, wherein monitoring is carried out in order to determine whether and in what period of time after initiating this message the pending action is carried out, wherein, when it is determined in this case that a defined fourth period of time is exceeded, a message for a control centre superordinate to the alarm control centre is automatically initiated.
Battery module, comprising a housing, at least two battery cells arranged in the housing, and comprising at least one battery cooling element arranged in the housing, the battery cooling element comprising an outer surface for resting at least in regions against a battery cell and/or for resting at least in regions against a battery module comprising at least two battery cells, an inner chamber for receiving a cooling medium, which inner chamber is surrounded at least in regions by the outer surface, and a cooling medium inlet connected to the inner chamber and a cooling medium outlet connected to the inner chamber, the outer surface being made, at least in regions, of a thermally conductive, flexible film which can be shaped by a fluid pressure of the cooling medium, wherein at least two battery cooling elements are arranged in the housing, which battery cooling elements are arranged so as to be aligned vertically with respect to the underside of the housing, characterized in that, the outer surface of the at least two battery cooling elements, which are arranged vertically with respect to the underside of the housing is wedge-shaped. the battery cooling element comprising an outer surface for resting at least in regions against a battery cell and/or for resting at least in regions against a battery module comprising at least two battery cells, an inner chamber for receiving a cooling medium, which inner chamber is surrounded at least in regions by the outer surface, and a cooling medium inlet connected to the inner chamber and a cooling medium outlet connected to the inner chamber, the outer surface being made, at least in regions, of a thermally conductive, flexible film which can be shaped by a fluid pressure of the cooling medium, wherein at least two battery cooling elements are arranged in the housing, which battery cooling elements are arranged so as to be aligned vertically with respect to the underside of the housing, characterized in that, the outer surface of the at least two battery cooling elements, which are arranged vertically with respect to the underside of the housing is wedge-shaped.
Method for allocating transmission resources, implemented by a cellular access network comprising a base station, to at least one terminal of a set of N pairs of terminals indexed n, N ≥ 2, which are candidates for a direct communication, called D2D terminals, the channel between two D2D terminals in direct communication being called a D2D channel, the base station knowing a statistic on the state of the D2D channels, characterized in that it comprises, for a transmission interval: - the base station determining a subset from among various subsets of D2D terminals of the set that statistically minimizes a utility function v n (t), - a request from the base station to the D2D terminals of the subset, asking them to simultaneously feed back a minimum power and a maximum data rate that minimize their utility metric, - each D2D terminal of the subset determining a minimum power and a maximum data rate that minimize its utility metric, - the D2D terminals of the subset feeding back their determined minimum power and their determined maximum data rate to the base station, - the base station determining a D2D terminal, from among the D2D terminals of the subset, whose utility function applied to its fed-back power and its fed-back data rate is minimum, in order to allocate thereto spectral resources to transmit during the transmission interval. - the base station determining a subset from among various subsets of D2D terminals of the set that statistically minimizes a utility function v n (t), - a request from the base station to the D2D terminals of the subset, asking them to simultaneously feed back a minimum power and a maximum data rate that minimize their utility metric, - each D2D terminal of the subset determining a minimum power and a maximum data rate that minimize its utility metric, - the D2D terminals of the subset feeding back their determined minimum power and their determined maximum data rate to the base station, - the base station determining a D2D terminal, from among the D2D terminals of the subset, whose utility function applied to its fed-back power and its fed-back data rate is minimum, in order to allocate thereto spectral resources to transmit during the transmission interval.
Method for producing ohmic contacts, comprising a metal, a semiconductor and tin, including: a) forming a first layer, of an alloy of the semiconductor and of tin; b) then, on the first layer, forming a second layer, of said metal; c) laser annealing at least the first layer at an energy density between 0.1 and 2 J/cm 2 a) forming a first layer, of an alloy of the semiconductor and of tin; b) then, on the first layer, forming a second layer, of said metal; c) laser annealing at least the first layer at an energy density between 0.1 and 2 J/cm 2
A continuous glucose monitoring system for continuously monitoring glucose levels of a user, the system comprising: a mounting assembly including a first, non-sealed, non-sterilized compartment and a second sealed, sterilized compartment; a sensing device comprising a sensor and a sensor probe, and an introducer configured to insert the sensor probe into subcutaneous tissue of the user, wherein: at least a first portion of the sensing device is housed within the first, non-sealed, non-sterilized compartment, and at least a second portion of the sensing device is housed within the second, sealed, sterilized compartment prior to mounting the sensing device on the user, and the first, non-sealed, non-sterilized compartment includes an insertion means comprising a spring-loaded driving mechanism configured to mount the sensing device onto the user. a mounting assembly including a first, non-sealed, non-sterilized compartment and a second sealed, sterilized compartment; a sensing device comprising a sensor and a sensor probe, and an introducer configured to insert the sensor probe into subcutaneous tissue of the user, wherein: at least a first portion of the sensing device is housed within the first, non-sealed, non-sterilized compartment, and at least a second portion of the sensing device is housed within the second, sealed, sterilized compartment prior to mounting the sensing device on the user, and the first, non-sealed, non-sterilized compartment includes an insertion means comprising a spring-loaded driving mechanism configured to mount the sensing device onto the user. at least a first portion of the sensing device is housed within the first, non-sealed, non-sterilized compartment, and at least a second portion of the sensing device is housed within the second, sealed, sterilized compartment prior to mounting the sensing device on the user, and the first, non-sealed, non-sterilized compartment includes an insertion means comprising a spring-loaded driving mechanism configured to mount the sensing device onto the user.
Holding assembly for a cabinet with a body and a folding lid, pivotably movable thereon, wherein the folding lid has an upper lid element and a lower lid element, connected pivotably to each other, wherein the holding assembly has the following: a setting unit with a force drive, wherein the setting unit is attachable on the body, an arm, which can be coupled pivotably on the body by means of the setting unit and on the lower lid element, and an adjustment device with an attachment element, wherein the attachment element is part of the setting unit, and is fixable to the body or to the lower lid element, characterised in that the adjustment device has an eccentric, that the eccentric is attached rotatably around an eccentric axis on the attachment element, wherein the arm is connected pivotably to the eccentric around a pivot axis, arranged parallel to the eccentric axis, and that the eccentric has a circular outer circumferential face, on which the arm with an accommodation bore is pivotably supported around the pivot axis. a setting unit with a force drive, wherein the setting unit is attachable on the body, an arm, which can be coupled pivotably on the body by means of the setting unit and on the lower lid element, and an adjustment device with an attachment element, wherein the attachment element is part of the setting unit, and is fixable to the body or to the lower lid element, characterised in that the adjustment device has an eccentric, that the eccentric is attached rotatably around an eccentric axis on the attachment element, wherein the arm is connected pivotably to the eccentric around a pivot axis, arranged parallel to the eccentric axis, and that the eccentric has a circular outer circumferential face, on which the arm with an accommodation bore is pivotably supported around the pivot axis.
A tailings processor for use in an agricultural harvester having a threshing and separating system, a grain cleaning system, a tailings auger and a return auger, a clean grain auger, a grain elevator having an outlet, and a grain tank, the tailings processor comprising: a housing having a rotating threshing device for re-threshing tailings, the threshing device being configured for receiving the tailings from the tailings auger and for providing the re-threshed tailings to the return auger; characterized by an arrangement to automatically adjust the aggressiveness of the tailings processor; and a system for controlling the aggressiveness of the tailings processor, the system comprising: at least one imaging device oriented to image a grain sample, at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement, the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement, based on information provided by the at least one imaging device. a housing having a rotating threshing device for re-threshing tailings, the threshing device being configured for receiving the tailings from the tailings auger and for providing the re-threshed tailings to the return auger; characterized by an arrangement to automatically adjust the aggressiveness of the tailings processor; and a system for controlling the aggressiveness of the tailings processor, the system comprising: at least one imaging device oriented to image a grain sample, at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement, the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement, based on information provided by the at least one imaging device. at least one imaging device oriented to image a grain sample, at least a portion of the grain sample having passed through the tailings processor at least once; and a controller connected to the at least one imaging device and to the arrangement, the controller configured to automatically adjust the aggressiveness of the tailings processor using the arrangement, based on information provided by the at least one imaging device.