mhurhangee/ep-ind-claims huggingface dataset:
A method for assessing an alarm event generated in a physiological monitoring system, the method comprising: validating the alarm event for a monitored physiological parameter in a processor; identifying one or more qualitative measures associated with the alarm event, wherein the qualitative measures comprise one or more of: a) a calculated trajectory of the monitored physiological parameter, wherein the calculated trajectory is calculated based upon the overall change in the physiological parameter over a predetermined period of time; b) a calculated time period between alarm events; and c) the duration of the alarm event; wherein each of the one or more qualitative measures comprises a value from a range, wherein one end of the range is for more clinically relevant alarm events and the opposite end of the range is for less clinically relevant alarm events; determining a clinical relevancy score for the alarm event based on the value of the one or more qualitative measures, wherein the clinical relevancy score indicates the priority that the clinician should give the alarm event; and displaying the clinical relevancy score and the alarm event. validating the alarm event for a monitored physiological parameter in a processor; identifying one or more qualitative measures associated with the alarm event, wherein the qualitative measures comprise one or more of: a) a calculated trajectory of the monitored physiological parameter, wherein the calculated trajectory is calculated based upon the overall change in the physiological parameter over a predetermined period of time; b) a calculated time period between alarm events; and c) the duration of the alarm event; wherein each of the one or more qualitative measures comprises a value from a range, wherein one end of the range is for more clinically relevant alarm events and the opposite end of the range is for less clinically relevant alarm events; a) a calculated trajectory of the monitored physiological parameter, wherein the calculated trajectory is calculated based upon the overall change in the physiological parameter over a predetermined period of time; b) a calculated time period between alarm events; and c) the duration of the alarm event; wherein each of the one or more qualitative measures comprises a value from a range, wherein one end of the range is for more clinically relevant alarm events and the opposite end of the range is for less clinically relevant alarm events; determining a clinical relevancy score for the alarm event based on the value of the one or more qualitative measures, wherein the clinical relevancy score indicates the priority that the clinician should give the alarm event; and displaying the clinical relevancy score and the alarm event.
A cylindrical rod for aerosol-generating articles comprising a rod component being circumscribed by a wrapper; the wrapper comprising: - laterally opposed edge portions which overlap so as to form an overlapping zone, wherein the overlapping zone comprises an inner layer of the wrapper and an outer layer of the wrapper, and wherein the outer layer of the wrapper comprises an inner surface of the outer layer of the wrapper being located adjacent to the inner layer of the wrapper: - glue being applied between the overlapping edge portions of the wrapper so as to form one or more glue zones within the overlapping zone; and - a plurality of cavities, wherein at least part of the cavities are provided in the area of the one or more glue zones; characterized in that the inner surface of the outer layer of the wrapper comprises cavities which do not penetrate completely through the wrapper so as to define recesses in the wrapper, and the inner layer of the wrapper in the overlapping zone comprises cavities which penetrate completely through the wrapper so as to define through-holes in the wrapper. - laterally opposed edge portions which overlap so as to form an overlapping zone, wherein the overlapping zone comprises an inner layer of the wrapper and an outer layer of the wrapper, and wherein the outer layer of the wrapper comprises an inner surface of the outer layer of the wrapper being located adjacent to the inner layer of the wrapper: - glue being applied between the overlapping edge portions of the wrapper so as to form one or more glue zones within the overlapping zone; and - a plurality of cavities, wherein at least part of the cavities are provided in the area of the one or more glue zones; characterized in that
A method of ultrasonic testing of a structure, the method comprising: coupling a proximal end of an elongate strip to said structure; and exciting substantially non-dispersive ultrasonic signals within said elongate strip to propagate along said elongate strip and to enter said structure, wherein said substantially non-dispersive ultrasonic signals comprise one or more of: lowest order shear mode vibrations with a polarisation perpendicular to propagation direction and parallel to a width of said elongate strip; and lowest order compression mode vibrations with polarisation parallel to the propagation direction. coupling a proximal end of an elongate strip to said structure; and exciting substantially non-dispersive ultrasonic signals within said elongate strip to propagate along said elongate strip and to enter said structure, lowest order shear mode vibrations with a polarisation perpendicular to propagation direction and parallel to a width of said elongate strip; and lowest order compression mode vibrations with polarisation parallel to the propagation direction.
An S-shaped connection for connecting a water pipe and a fitting having • a 1/2" external thread for connecting to the water pipe and • a 3/4" external thread for connecting to the fitting, wherein • a longitudinal axis of the 1/2" external thread and a longitudinal axis of the 3/4" external thread are arranged parallel to and at a distance (d) from each other, characterized in that • the 1/2" external thread has a length of at least 30 mm. • a 1/2" external thread for connecting to the water pipe and • a 3/4" external thread for connecting to the fitting, wherein • a longitudinal axis of the 1/2" external thread and a longitudinal axis of the 3/4" external thread are arranged parallel to and at a distance (d) from each other, characterized in that • the 1/2" external thread has a length of at least 30 mm.
An electrode material suitable as a constituent of an anode of a rechargeable lithium battery, said material containing a particulate comprising an amorphous M·A·X alloy with a non-stoichiometric composition; wherein M indicates at least one element selected from a group consisting of Si and Ge, A indicates at least one element selected from a group consisting of transition metal elements Cr, Mn, Fe, Co, Ni, Cu, Mo, Tc, Ru, Rh, Pd, Ag, Ir, Pt, Au, Ti, V, Y, Sc, Zr, Nb, Hf, Ta, and W, and X indicates at least one element selected from a group consisting of N, Ba, Sr, Ca, La, Ce, C, P, S, Se, Te, B, Bi, Sb, Al, In, and Zn, where the element X is not always necessary to be contained; and wherein the content of the constituent element M of the amorphous M·A·X alloy is M/(M + A + X) = 20 to 80 atomic%, and characterized in that the alloy particulate contains the elements O and/or F in an amount of 0.05 % to 5 % by weight.
A method of sending data in a wireless communication network, comprising: sending a resource request from a user equipment (120a - 120d) to a first cell (110a, 110b) serving the user equipment (120a - 120d); receiving spatial feedback information sent by a second cell (110a, 110b) to the user equipment (120a - 120d), the user equipment (120a - 120d) not being served by the second cell (110a, 110b); and sending a data transmission from the user equipment (120a - 120d) to the first cell (110a, 110b) based on the spatial feedback information to reduce interference to the second cell (110a, 110b); further comprising: sending a spatial feedback information request from the user equipment (120a - 120d) to the second cell (110a, 110b), and wherein the spatial feedback information is sent by the second cell (110a, 110b) to the user equipment (120a - 120d) in response to the spatial feedback information request. sending a resource request from a user equipment (120a - 120d) to a first cell (110a, 110b) serving the user equipment (120a - 120d); receiving spatial feedback information sent by a second cell (110a, 110b) to the user equipment (120a - 120d), the user equipment (120a - 120d) not being served by the second cell (110a, 110b); and sending a data transmission from the user equipment (120a - 120d) to the first cell (110a, 110b) based on the spatial feedback information to reduce interference to the second cell (110a, 110b); further comprising: sending a spatial feedback information request from the user equipment (120a - 120d) to the second cell (110a, 110b), and wherein the spatial feedback information is sent by the second cell (110a, 110b) to the user equipment (120a - 120d) in response to the spatial feedback information request.
Hand welding extruder for welding thermoplastic materials by means of a plasticized plastic strand comprising a mobile welding unit and a quasistationary supply unit that are disposed remotely from each other and are connected, or can be connected to each other by means of flexible connecting lines (4, 5), wherein the welding unit has a plasticization worm unit and a drive motor being connected to each other by a gearbox, and with a hot air generation device having an external air supply, that are disposed in a common housing of the welding unit, wherein the supply unit has control and/or adjustment devices for the supply of the plasticization worm unit and/or the hot air generation device and/or the drive motor, characterized in that the housing of the welding unit is bar-shaped and has a front welding segment and a grab handle connected thereto in the longitudinal direction, the plasticization worm unit and the hot air generation device are arranged together in the welding segment and the drive motor, provided as an electric drive motor, is disposed in the grab handle, connections (12, 13) for the flexible connecting lines (4, 5) are provided in the extension of the grab handle of the welding unit at the housing, and the flexible connecting lines (4, 5) are connected to the welding unit and/or the supply unit by means of a rotatable connector.
Apparatus for filling containers under pressure, comprising a revolving transport element, which comprises receiving stations with container receptacles for the containers, wherein a feed/discharge device for feeding and discharging the containers is arranged in the conveying region of the transport element, wherein the container receptacle of a receiving station is arranged beneath an associated filling element, wherein the filling element is adjustable in the vertical direction by means of a first lifting mechanism in order to adapt the filling apparatus to different container sizes, and wherein at least one shielding arrangement, adjustable relative to the filling element, is formed on the receiving station, wherein the shielding arrangement contains a partition plate, in particular a one-piece partition plate, in the form of a partially circular or circular cylinder, which at least partially surrounds the container in a protection position during the filling process, wherein the shielding arrangement and the container receptacle are adjustable relative to one another via an adjustment mechanism (20, 31), characterised in that the adjustment mechanism (20, 31) is designed to modify the relative position of the container receptacle and the shielding arrangement in the region of the feed/discharge device from a protection position into a release position, wherein the adjustment mechanism (20, 31) comprises at least one second lifting mechanism (20; 40, 42, 49; 52, 54, 49) and/or a rotation mechanism, which rotates the shielding arrangement about a vertical axis above the centre of the container receptacle.
A magnetic resonance imaging apparatus comprising, a measurement unit configured to apply an RF pulse to excite a predetermined cross section of an examination subject and gradient magnetic field pulses (211, 212; 220; 230), and to collect nuclear magnetic resonance signals generated from the predetermined cross section, and a measurement control unit configured to control the measurement unit so that the measurement unit collects the nuclear magnetic resonance signals according to a spin-echo pulse sequence comprising the RF pulse as an excitation pulse and the gradient magnetic field pulses, characterized in that the measurement control unit is configured to control at least either of the excitation pulse and a gradient magnetic field pulse of the gradient magnetic field pulses that is applied simultaneously with the excitation pulse in the spin-echo pulse sequence in such a manner that a width in a thickness direction of the predetermined cross section excited by the excitation pulse in the spin-echo pulse sequence is extended from an imaging plane of the predetermined cross section only to a downstream side of a liquid that flows into the predetermined cross section, so that the width includes the predetermined cross section and a region adjacent to the predetermined cross section on the downstream side. a measurement unit configured to apply an RF pulse to excite a predetermined cross section of an examination subject and gradient magnetic field pulses (211, 212; 220; 230), and to collect nuclear magnetic resonance signals generated from the predetermined cross section, and a measurement control unit configured to control the measurement unit so that the measurement unit collects the nuclear magnetic resonance signals according to a spin-echo pulse sequence comprising the RF pulse as an excitation pulse and the gradient magnetic field pulses, characterized in that the measurement control unit is configured to control at least either of the excitation pulse and a gradient magnetic field pulse of the gradient magnetic field pulses that is applied simultaneously with the excitation pulse in the spin-echo pulse sequence in such a manner that a width in a thickness direction of the predetermined cross section excited by the excitation pulse in the spin-echo pulse sequence is extended from an imaging plane of the predetermined cross section only to a downstream side of a liquid that flows into the predetermined cross section, so that the width includes the predetermined cross section and a region adjacent to the predetermined cross section on the downstream side.
A multi-phase ceramic composite material comprising:- a proton conducting ceramic phase having a perovskite structure, and wherein the perovskite is a doped perovskite having a formula A 1-x-α P x B 1-y Q y O 3-δ, wherein: A is a bivalent cation selected from the group consisting of barium (Ba), strontium (Sr), calcium (Ca) and magnesium (Mg) and combinations thereof; P is an A-site dopant selected from the group consisting of Pr, Sm, Er or other element in the lanthanide series of the periodic table; B is Ce; Q is a B-site dopant selected from the group consisting of an element in Group III of the period table, and an element in the lanthanide series of the periodic table other than B; α is a non-stoichiometric A-site deficiency; and δ is an oxygen deficiency; and an electron conducting ceramic phase, wherein the electron conducting ceramic phase is a doped CeO 2 having a formula Ce 1-x B x O 2-ε, wherein: B represents one of yttrium and an element belonging to the Lanthanide series in the periodic table; and ε is an oxygen deficiency. a proton conducting ceramic phase having a perovskite structure, and wherein the perovskite is a doped perovskite having a formula A 1-x-α P x B 1-y Q y O 3-δ, wherein: A is a bivalent cation selected from the group consisting of barium (Ba), strontium (Sr), calcium (Ca) and magnesium (Mg) and combinations thereof; P is an A-site dopant selected from the group consisting of Pr, Sm, Er or other element in the lanthanide series of the periodic table; B is Ce; Q is a B-site dopant selected from the group consisting of an element in Group III of the period table, and an element in the lanthanide series of the periodic table other than B; α is a non-stoichiometric A-site deficiency; and δ is an oxygen deficiency; and A is a bivalent cation selected from the group consisting of barium (Ba), strontium (Sr), calcium (Ca) and magnesium (Mg) and combinations thereof; P is an A-site dopant selected from the group consisting of Pr, Sm, Er or other element in the lanthanide series of the periodic table; B is Ce; Q is a B-site dopant selected from the group consisting of an element in Group III of the period table, and an element in the lanthanide series of the periodic table other than B; α is a non-stoichiometric A-site deficiency; and δ is an oxygen deficiency; and an electron conducting ceramic phase, wherein the electron conducting ceramic phase is a doped CeO 2 having a formula Ce 1-x B x O 2-ε, wherein: B represents one of yttrium and an element belonging to the Lanthanide series in the periodic table; and ε is an oxygen deficiency. B represents one of yttrium and an element belonging to the Lanthanide series in the periodic table; and ε is an oxygen deficiency.
Apparatus for the generation, the transmission, the distribution and/or the usage of electrical energy, being an electrical switching device, said apparatus comprising a housing enclosing an insulation space and an electrically conductive part arranged in the insulation space, wherein said insulating space contains a dielectric fluid comprising carbon dioxide and oxygen, in the apparatus an oxidation catalyst (201; 202; 203) is arranged, the ratio of the molar fraction of carbon dioxide to the molar fraction of oxygen ranges from 50:50 to 100:1 to prevent soot formation during arcing, and the oxidation catalyst is arranged inside the insulation space of the apparatus, further the apparatus being a switching device comprising at least one switching chamber, which comprises at least two arcing contacts (19; 191, 192) movable in relation to each other and defining an arcing region, in which an arc is formed during a current breaking operation, the switching chamber further comprising an exhaust volume (40; 62), which is fluidly connected to the arcing region to allow the dielectric fluid heated by the arc to flow out of the arcing region in direction towards the exhaust volume (40; 62), characterized in that the oxidation catalyst (201; 202; 203) comprises noble metal particles that are coated onto or are embedded into a carrier and are for a catalytic oxidation of carbon monoxide to carbon dioxide, and the oxidation catalyst (201; 202) is arranged in a high-temperature area of the switching device, said high-temperature area being located, in direction of the outflow of the heated dielectric fluid, between the arcing region and the exhaust volume (40; 62) and being designed to maintain a temperature of below 500°C at least over the duration of the oxidation reaction.
Supplementation comprising omega-3 fatty acids in the re-esterified triglyceride form for use in the treatment of dry eye, posterior blepharitis and meibomianitis in a mammal by improving the quality of the meibum composition of inflamed or dysfunctional meibomian glands in the mammal by oral administration of the omega-3 fatty acids in an effective amount between 600mg and 5000mg delivered on a daily dosage basis so as to facilitate an increase in levels of anti-inflammatory omega-3s in the meibum composition and a decrease in levels of inflammatory omega-6s in the meibum composition, wherein said effective amount includes eicosapentaenoic acid in an amount greater than 600 mg and/or docosahexaenoic acid in an amount greater than 500 mg.
A laminate comprising: a first layer of skived polytetrafluoroethylene (PTFE) or skived modified polytetrafluoroethylene (mPTFE); a second layer of at least one ply of a fluoropolymer fabric overlying the first layer wherein the fluoropolymer fabric comprises polytetrafluoroethylene (PTFE) or modified polytetrafluoroethylene (mPTFE); a third layer of skived polytetrafluoroethylene (PTFE) or skived modified polytetrafluoroethylene (mPTFE) overlying the second layer opposite to the first layer; wherein the laminate has a strain of not more than 50% at a stress of 15MPa as measured by DIN EN ISO 527 with a sample width of 2.54 cm (1 inch), at a clamp distance of 50 mm, and a speed of 50 mm/min. a first layer of skived polytetrafluoroethylene (PTFE) or skived modified polytetrafluoroethylene (mPTFE); a second layer of at least one ply of a fluoropolymer fabric overlying the first layer wherein the fluoropolymer fabric comprises polytetrafluoroethylene (PTFE) or modified polytetrafluoroethylene (mPTFE); a third layer of skived polytetrafluoroethylene (PTFE) or skived modified polytetrafluoroethylene (mPTFE) overlying the second layer opposite to the first layer; wherein the laminate has a strain of not more than 50% at a stress of 15MPa as measured by DIN EN ISO 527 with a sample width of 2.54 cm (1 inch), at a clamp distance of 50 mm, and a speed of 50 mm/min.
A process for desorbent recovery, comprising: passing a hydrocarbon stream to a first extract column to produce a first overhead stream, a first desorbent recycle stream, and a first bottoms stream, wherein the hydrocarbon stream comprises toluene desorbent, extracted para-xylene, and extracted C 9 -C 10; passing the first overhead stream to a first condensing and sub-cooling zone to produce a water stream and a first desorbent reflux stream that is sent back to the first extract column; passing the first desorbent recycle stream to an adsorbent chamber; passing a first portion of the first bottoms stream to a first reboiler and passing a second portion of the first bottoms stream to a second extract column to produce a second overhead stream and a second bottoms stream; passing a first portion of the second overhead stream to the first reboiler to produce a liquid return and passing a second portion of the second overhead stream to a second reboiler to produce a condensed stream; passing the liquid return and the condensed stream to a second condensing zone to produce a second desorbent reflux stream, and a second desorbent recycle stream; passing the second desorbent reflux stream to the second extract column; passing the second desorbent recycle stream to the adsorbent chamber; and passing a first portion of the second bottoms stream to a third reboiler, wherein the third reboiler receives a vapor stream from a raffinate column and produces a second liquid return, and passing a second portion of the second bottoms stream to a paraxylene column. passing a hydrocarbon stream to a first extract column to produce a first overhead stream, a first desorbent recycle stream, and a first bottoms stream, wherein the hydrocarbon stream comprises toluene desorbent, extracted para-xylene, and extracted C 9 -C 10; passing the first overhead stream to a first condensing and sub-cooling zone to produce a water stream and a first desorbent reflux stream that is sent back to the first extract column; passing the first desorbent recycle stream to an adsorbent chamber; passing a first portion of the first bottoms stream to a first reboiler and passing a second portion of the first bottoms stream to a second extract column to produce a second overhead stream and a second bottoms stream; passing a first portion of the second overhead stream to the first reboiler to produce a liquid return and passing a second portion of the second overhead stream to a second reboiler to produce a condensed stream; passing the liquid return and the condensed stream to a second condensing zone to produce a second desorbent reflux stream, and a second desorbent recycle stream; passing the second desorbent reflux stream to the second extract column; passing the second desorbent recycle stream to the adsorbent chamber; and passing a first portion of the second bottoms stream to a third reboiler, wherein the third reboiler receives a vapor stream from a raffinate column and produces a second liquid return, and passing a second portion of the second bottoms stream to a paraxylene column.