mhurhangee/ep-ind-claims huggingface dataset:
An assembly comprising a metalloporphyrin of Formula I or salts or tautomers thereof, wherein: FI 1, FI 2, FI 3 and FI 4 are each independently selected from boron dipyrrin, fluorescein, and merocyanine-based dyes; R is selected from H, optionally substituted alkyl, optionally substituted aryl, optionally-substituted heteroalkyl, and optionally substituted heteroaryl; or one or more R groups may be connected to form a cycloalkyl or benzannulated ring system; and M is a metal optionally bound to one or more additional neutral or anionic ligands wherein M is selected from Y, La, Zr, Hf, Nb, Ta, Mo, W, Tc, Re, Ru, Os, Rh, Ir, Pd, Pt, Ag, Au, Cd, Hg, Ga, Ge, In, Sn, Sb, Ti, Pb, and Bi, or wherein M is selected from Ga, Ge, In, Sn, Sb, Ti, Pb, and Bi, or wherein M is Ti. FI 1, FI 2, FI 3 and FI 4 are each independently selected from boron dipyrrin, fluorescein, and merocyanine-based dyes; R is selected from H, optionally substituted alkyl, optionally substituted aryl, optionally-substituted heteroalkyl, and optionally substituted heteroaryl; or one or more R groups may be connected to form a cycloalkyl or benzannulated ring system; and M is a metal optionally bound to one or more additional neutral or anionic ligands wherein M is selected from Y, La, Zr, Hf, Nb, Ta, Mo, W, Tc, Re, Ru, Os, Rh, Ir, Pd, Pt, Ag, Au, Cd, Hg, Ga, Ge, In, Sn, Sb, Ti, Pb, and Bi, or wherein M is selected from Ga, Ge, In, Sn, Sb, Ti, Pb, and Bi, or wherein M is Ti.
Switch cabinet, comprising in its interior a first chamber for mounting electrical components and a second chamber for mounting batteries or other temperature-sensitive components, the first and second chamber (2, 3) being separated by a partition wall and the air inside the second chamber being cooled by a thermoelectric cooling element, the first chamber comprising a fan, so that ambient air is transported into the first chamber via an air inlet and warm air is transported out of the first chamber via an air outlet and wherein waste heat of the thermoelectric cooling element is transferred to the air flowing though the first chamber, characterized in that the switch cabinet comprises a frame and the separation wall is fixed at its corners at a respective vertical profile of the frame and abuts along its edge a wall element of the switch cabinet indirectly via a sealing element.
A forceps, comprising: an end effector assembly including first and second jaw members (110, 120), at least one of the jaw members movable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members configured to conduct energy between the jaw members and through tissue grasped therebetween to treat tissue; and a monopolar member; characterised by: an insulative tubular member movable relative to the end effector assembly between a retracted position, wherein the insulative tubular member is positioned proximally of the end effector assembly, and an extended position, wherein the insulative tubular member is disposed about the end effector assembly; the monopolar member being configured to apply energy to tissue to treat tissue when the insulative tubular member is disposed in the extended position. an end effector assembly including first and second jaw members (110, 120), at least one of the jaw members movable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween, at least one of the jaw members configured to conduct energy between the jaw members and through tissue grasped therebetween to treat tissue; and a monopolar member; characterised by: an insulative tubular member movable relative to the end effector assembly between a retracted position, wherein the insulative tubular member is positioned proximally of the end effector assembly, and an extended position, wherein the insulative tubular member is disposed about the end effector assembly; the monopolar member being configured to apply energy to tissue to treat tissue when the insulative tubular member is disposed in the extended position.
A method between a transponder unit and a reading device, comprising the steps of: - causing the transponder unit to carry out a predetermined computation by the reading device; - carrying out the predetermined computation by the transponder unit, wherein energy according to a first value is available to the transponder unit for carrying out the predetermined computation; - determining (T4, T5, T6) a first processing time by the transponder unit, said time having been needed by the transponder unit to carry out the predetermined computation; - characterized by the transponder unit carrying out the predetermined computation again, wherein energy according to a second value, which is different from the first value, is available to the transponder unit for carrying out the predetermined computation again; - determining (T4, T5, T6) a second processing time, said time having been needed by the transponder unit to carry out the predetermined computation again; and - evaluating the first processing time and the second processing time, in particular evaluating a difference between the first processing time and the second processing time with reference to at least one predetermined reference value (tref), wherein the value of the energy which is available to the transponder unit for carrying out the predetermined computation in each case is determined by the field strength (H1; H2) of a reading field, which is supplied on the part of the reading device. - causing the transponder unit to carry out a predetermined computation by the reading device; - carrying out the predetermined computation by the transponder unit, wherein energy according to a first value is available to the transponder unit for carrying out the predetermined computation; - determining (T4, T5, T6) a first processing time by the transponder unit, said time having been needed by the transponder unit to carry out the predetermined computation; - characterized by the transponder unit carrying out the predetermined computation again, wherein energy according to a second value, which is different from the first value, is available to the transponder unit for carrying out the predetermined computation again; - determining (T4, T5, T6) a second processing time, said time having been needed by the transponder unit to carry out the predetermined computation again; and - evaluating the first processing time and the second processing time, in particular evaluating a difference between the first processing time and the second processing time with reference to at least one predetermined reference value (tref), wherein the value of the energy which is available to the transponder unit for carrying out the predetermined computation in each case is determined by the field strength (H1; H2) of a reading field, which is supplied on the part of the reading device.
Cooling device with a refrigeration compartment, in particular a built-in refrigerator, comprising at least one refrigerating unit with main components compressor, throttle element, evaporator and condenser, wherein all the main components are located in a base part, wherein the evaporator of the refrigeration unit is located in an evaporator duct which is closed off from the residual volume of the base part and forms part of a cooling air circuit (15, 16) for cooling the refrigeration compartment or for cooling the refrigeration compartment and a freezing compartment, and comprising a controller characterized in that the controller is adapted for activating one or more fans for circulating cooling air in the cooling air circuit (15, 16) for the cooling compartment and in the evaporator duct and to operate the evaporator in an operating mode with a temperature above 0°C in a defrosting mode, wherein the controller is adapted for further opening a throttle element of the refrigeration unit in the defrosting mode in comparison with a refrigeration mode, such that while the compressor remains activated, the pressure drop above the throttle element is reduced due to the opening of the throttle element, whereby heat is supplied to the evaporator and the defrosting process is thereby additionally accelerated.
An intragastric device having a top and a bottom comprising: a structure having a pre-deployment shape with a first volume and a post-deployment shape with a second volume, wherein said first volume is less than said second volume; wherein, in said post-deployment shape, said device comprises a plurality of first openings, each of said plurality of first openings defined by an area where a sum of the areas of the plurality of first openings is equal to a first area; wherein, in said post-deployment shape, said device comprises a plurality of second openings, each of said plurality of second openings defined by an area where a sum of the areas of the plurality of second openings is equal to a second area; wherein said first area is equal to or larger than said second area; wherein said first area is closer to the top of said device relative to the second area; wherein said structure is enveloped by a membrane that does not cover said first area or said second area; and wherein the structure is a non-inflatable wire mesh structure or spiral structure made of shape memory metal or shape memory polymer which is adapted to change from a pre-deployment compressed cylindrical shape to a post-deployment sphere, kidney bean or any predefined shape of significant volume. a structure having a pre-deployment shape with a first volume and a post-deployment shape with a second volume, wherein said first volume is less than said second volume; wherein, in said post-deployment shape, said device comprises a plurality of first openings, each of said plurality of first openings defined by an area where a sum of the areas of the plurality of first openings is equal to a first area; wherein, in said post-deployment shape, said device comprises a plurality of second openings, each of said plurality of second openings defined by an area where a sum of the areas of the plurality of second openings is equal to a second area; wherein said first area is equal to or larger than said second area; wherein said first area is closer to the top of said device relative to the second area; wherein said structure is enveloped by a membrane that does not cover said first area or said second area; and wherein the structure is a non-inflatable wire mesh structure or spiral structure made of shape memory metal or shape memory polymer which is adapted to change from a pre-deployment compressed cylindrical shape to a post-deployment sphere, kidney bean or any predefined shape of significant volume.
A heat exchanger comprising a casing, said casing including a top inlet part for receiving hot solid particles and a bottom outlet part for discharging the solid particles after cooling; and a plurality of spaced apart adjacent heat transfer tubes disposed in the casing between the top inlet part and the bottom outlet part, assembled in at least one tube bundle and intended for the circulation of a coolant fluid, for cooling the solid particles that flow downwards by gravity from the inlet, between the spaced apart adjacent heat transfer tubes, to the outlet, wherein the spaced apart adjacent heat transfer tubes are arranged in rows substantially transverse to the flow direction of the solid particles, wherein the tube bundle is supported in the casing by at least two tubesheets disposed vertically and laterally near each of both ends of the tubes and characterised in that each tubesheet is composed of independent plates corresponding to the individual tube rows, adjacent plates being stacked on top of each other thanks to insulated sliding pieces.
Use of a lubricant composition comprising a base oil of lubricating viscosity and a metal overbased detergent for reducing low speed pre-ignition events in a spark-ignited direct injection internal combustion engine, comprising supplying to the engine the lubricant composition, wherein the overbased detergent is present in an amount to deliver at least 200 ppm by weight of magnesium to the lubricating composition.
Closure arrangement for a sliding door or a sliding window or the like, having a bearing element which can be secured to a sliding leaf, a fixed surround or a fixed field of the sliding door or the sliding window or the like, and having a transverse sliding member which is arranged on the bearing element so as to be movable relative thereto, the transverse sliding member having a control element which, in the assembled state of the closure arrangement, cooperates with an actuation device of the sliding door or the sliding window, and a first closure element, and the closure arrangement comprising a second closure element, the first closure element cooperating with the second closure element in order to close the sliding door or the sliding window, the first or the second closure element (11, 12) being constructed as a locking pin and the other closure element (11, 12) in each case being constructed as a closure piece, characterised in that the closure piece has a receiving member for a mushroom head in which a mushroom head of the locking pin can be introduced by movement of the locking pin parallel with the longitudinal direction thereof in a positive-locking manner and partially surrounds the mushroom head in a peripheral manner in order both to displace the sliding leaf perpendicularly to the plane thereof and to lock it in the sliding direction.
A nickel-zinc battery cell comprising: (a) a can having a bottom and a cylindrical side, said can comprising a first anticorrosive material selected from the group consisting of tin, copper/tin alloy, zinc, silver, brass and combinations thereof; (b) a negative current collector disk disposed at the bottom of the can and in electrical contact with the can; (c) a jelly roll comprising a positive electrode, a negative electrode, and one or more separators in between, wherein said jelly roll is disposed above the negative current collector disk and wherein said negative electrode is in electrical contact with the negative current collector disk; (d) a positive current collector disk disposed above of the jelly roll and in electrical contact with the positive electrode; (e) a vent assembly disposed on top of the positive current collector disk, wherein said vent assembly is electrically connected with the positive current collector disk and is electrically insulated from the can. (a) a can having a bottom and a cylindrical side, said can comprising a first anticorrosive material selected from the group consisting of tin, copper/tin alloy, zinc, silver, brass and combinations thereof; (b) a negative current collector disk disposed at the bottom of the can and in electrical contact with the can; (c) a jelly roll comprising a positive electrode, a negative electrode, and one or more separators in between, wherein said jelly roll is disposed above the negative current collector disk and wherein said negative electrode is in electrical contact with the negative current collector disk; (d) a positive current collector disk disposed above of the jelly roll and in electrical contact with the positive electrode; (e) a vent assembly disposed on top of the positive current collector disk, wherein said vent assembly is electrically connected with the positive current collector disk and is electrically insulated from the can.
An anti-skid braking system for a wheeled vehicle, comprising: a first wheel having a first slip indicator; a second wheel having a second slip indicator; an anti-skid control circuit (38, 40) receiving signals from the first slip indicator and the second slip indicator and configured to calculate an optimum anti-skid braking response for the first wheel and an optimum anti-skid braking response for the second wheel; and a logic circuit in communication with the anti-skid control circuit (38, 40) and configured to determine the optimum braking response of the vehicle by alternatively filtering or transmitting the optimum braking response of the first and second wheels to the first and second wheels. a first wheel having a first slip indicator; a second wheel having a second slip indicator; an anti-skid control circuit (38, 40) receiving signals from the first slip indicator and the second slip indicator and configured to calculate an optimum anti-skid braking response for the first wheel and an optimum anti-skid braking response for the second wheel; and a logic circuit in communication with the anti-skid control circuit (38, 40) and configured to determine the optimum braking response of the vehicle by alternatively filtering or transmitting the optimum braking response of the first and second wheels to the first and second wheels.
Method for operating a handheld medical device, in particular a handheld dental device, which has an elongate gripping sleeve in which elements belonging to a drive arrangement, in particular rotatably mounted elements, are arranged, wherein a gaseous medium, driven by an overpressure, is conveyed through a force transmission region (10") surrounding the elements of the drive arrangement, wherein the medium is in addition also conveyed through further cavity regions of the handheld device which are connected to the exterior of the handheld device via at least one joining gap, characterized in that the gaseous medium is sterile in order to prevent entry of microorganisms into the handheld device.
A spacecraft comprising a hybrid assembly of at least one solar panel, said assembly comprising at least one solar cell provided with light energy concentration means (Conc), characterised in that said assembly further comprises at least one solar cell without light energy concentration means.
A method for producing a hot coiler drum working at 900-1200°C including following steps: (i) welding a drum body into a cylinder having a desired diameter, and then fitting the welded drum body onto a supporting piece of a tooling piece that has a same diameter as that of an inner wall of the drum body; (ii) reserving space for a window in an axial direction of the drum body, except a zone of the window on the drum body, uniformly welding several radial rib plates on the inner wall of the drum body along the axial direction of the drum body and welding several axial rib plates on the inner wall of the drum body along the radial direction of the drum body; (iii) welding two flanges respectively on two ends of the drum body; (iv) opening a window at the reserved space in the axial direction of the drum body, and welding guiding rib plates on the radial rib plates and the axial rib plates arranged near the window; (v) eliminating the supporting piece on the tooling piece and withdrawing the tooling piece from the flange on either end of the drum body to finish producing the hot coiler drum. (i) welding a drum body into a cylinder having a desired diameter, and then fitting the welded drum body onto a supporting piece of a tooling piece that has a same diameter as that of an inner wall of the drum body; (ii) reserving space for a window in an axial direction of the drum body, except a zone of the window on the drum body, uniformly welding several radial rib plates on the inner wall of the drum body along the axial direction of the drum body and welding several axial rib plates on the inner wall of the drum body along the radial direction of the drum body; (iii) welding two flanges respectively on two ends of the drum body; (iv) opening a window at the reserved space in the axial direction of the drum body, and welding guiding rib plates on the radial rib plates and the axial rib plates arranged near the window; (v) eliminating the supporting piece on the tooling piece and withdrawing the tooling piece from the flange on either end of the drum body to finish producing the hot coiler drum.
Sheet processing machine comprising a shaping device for processing sheets, the shaping device including at least one shaping point, the sheet processing machine comprising at least one separation device, the at least one separation device being configured to remove at least one offcut piece from at least one sheet of the sheets, the at least one separation device being arranged downstream from the at least one shaping point along a transport path provided for the transport of sheets, at least one inspection device being configured to ascertain an actual state of the at least one sheet of the sheets downstream from the separation device in the transport direction of the sheets, characterized in that the at least one inspection device comprises an evaluation means or being connected to an evaluation means, that the evaluation means is configured to compare the actual state of the at least one sheet to a desired state of the at least one sheet, that the at least one inspection device is arranged upstream from at least one delivery unit and downstream from the at least one separation device in the transport direction, that the at least one inspection device is arranged immediately following the separation device in the transport direction, that the at least one inspection device is configured to at least partially detect at least one sheet opening of the at least one sheet and/or at least one inner contour of the at least one sheet, defined by at least one sheet opening, and/or at least one outer contour of the at least one sheet, defined by at least one outer edge of the at least one sheet.
A dental glass powder comprising zinc, silicon, and fluorine and does not substantially comprising aluminum, wherein a content of zinc in the dental glass powder in terms of zinc oxide (ZnO) is in a range of 20% to 55% by mass, wherein a content of silicon in the dental glass powder in terms of silicon oxide (SiO 2) is in a range of 20% to 40% by mass, wherein a content of fluorine in the dental glass powder is in a range of 3% to 20% by mass, and wherein a content of aluminum in the dental glass powder in terms of aluminum oxide (Al 2 O 3) is less than or equal to 1% by mass.