mhurhangee/ep-ind-claims huggingface dataset:
Attachment device for assembly onto a tubular element, wherein the attachment device comprises two attachment elements which each comprises an upper assembly sheet metal which comprises in its outer end a transversal, upward directed mounting flange in relation to the assembly sheet metal which comprises a cut out geometry, a lower sheet metal, a spacer element which link the upper assembly sheet metal together with the lower sheet metal in its interior ends characterized in that the spacer element comprises oval through holes provided on both sides of an abutting section of the tubular element, and two galvanized barrel nuts (8,8'), wherein each galvanized barrel nut (8, 8') comprising a head (80, 80') and one from the head (80, 80') extending barrel (81, 81') wherein a distally located section (85, 85') of said barrel (81, 81') has a first interior diameter (d) which is smaller than a second interior diameter at a remaining barrel section (83, 83') and where the distally located section (85, 85') comprises internal threads (86, 86'), the barrel further comprises two external opposite chamfered planes which extend from the interior end of the barrel along the whole or substantially whole barrel, wherein the chamfered planes match into the longer sides of the oval through holes, where the attachment elements are provided to be mirror-inverted on both sides of the tubular element and be fixed by means of said barrel nuts (8, 8') provided by the oval through holes of the attachment elements and associated screws provided opposite the oval through holes of the attachment elements.
An electrical machine (20, 48) comprising:- a first stator, a second stator spaced from the first stator, each of the first stator and the second stator including a respective first and second guide arrangement (26, 50); a plurality of rotor elements (30, 46) located between the first stator and the second stator and cooperating with the guide arrangements (26, 50) for movement relative to the first stator and the second stator, adjacent rotor elements (30, 46) cooperating with each other so that the rotor elements (30, 46) form a rotor and at least one of the rotor elements (30, 46) including a coupling element to transfer force to or from the rotor; each rotor element (30, 46) including: a first support surface facing towards the first stator and defining a first air gap with the first stator; a second support surface facing towards the second stator and defining a second air gap with the second stator; and one or more magnets mounted on each of the first and second support surfaces (30a, 30b) in the first and second air gaps; wherein each rotor element includes a first rotor section that cooperates with the first guide arrangement and a second rotor section that cooperates with the second guide arrangement, wherein the first and second rotor sections (54, 56) are movable relative to each other. a first support surface facing towards the first stator and defining a first air gap with the first stator; a second support surface facing towards the second stator and defining a second air gap with the second stator; and one or more magnets mounted on each of the first and second support surfaces (30a, 30b) in the first and second air gaps;
A medical device, comprising a surface-modified metal, the surface-modified metal having a surface at least partially treated by polymerizing a monomer in the presence of a hydrogen abstraction type photopolymerization initiator, wherein the surface is treated with a silane coupling agent prior to polymerizing the monomer in the presence of the hydrogen abstraction type photopolymerization initiator, wherein the silane coupling agent is a vinyl group-containing compound.
A compound for use in a method for the treatment and prevention of herpesvirus diseases by inhibiting a herpesvirus nucleic acid metabolism enzyme, wherein the said herpesvirus metabolism enzyme is a viral enzyme of the nucleotidyl transferase superfamily, comprising contacting said enzyme with a compound having the formula: or a compound of the formula: wherein: R 4 is alkyl C≤12, aryl C≤12, aralkyl C≤12, heteroaryl C≤12, or a substituted version of any of these groups; R 5 and R 8 are each independently hydrogen, alkyl C≤8, or substituted alkyl C≤8; R 6 is hydrogen, hydroxy, alkyl C≤8, or substituted alkyl C≤8; and R 7 is arylc≤ 12, aralkylc≤ 12, heteroarylc≤ 12, or a substituted version of any of these groups; or a compound of the formula: wherein: R 9 is alkyl C≤12, arylc≤ 12, aralkylc≤ 12, heteroarylc≤ 12, or a substituted version of any of these groups; R 10 is hydrogen, alkyl C≤8, or substituted alkyl C≤8; and R 11 is Y 1 -O-X 1 -OR 12; wherein: Y 1 is alkanediyl C≤8 or substituted alkanediyl C≤8; X 1 is arenediyl C≤12, heteroarenediyl C≤12, or a substituted version of either of these groups; R 12 is aryl C≤12, aralkyl C≤12, heteroaryl C≤12, or a substituted version of any of these groups; wherein the term "substituted" when used with any chemical group refers to a group wherein one or more hydrogen atom has been independently replaced by -OH, -F, -Cl, -Br, -I, -NH 2, -NO 2, -CO 2 H, -CO 2 CH 3, -CN, -SH, -OCH 3, -OCH 2 CH 3, -C CH 3, -NHCH 3, -NHCH 2 CH 3, -N(CH 3) 2, -C NH 2, -C NHCH 3, -C N(CH 3) 2, -OC CH 3, -NHC CH 3, -S 2 OH, or -S 2 NH 2; or a pharmaceutically acceptable salt or tautomer thereof. R 4 is alkyl C≤12, aryl C≤12, aralkyl C≤12, heteroaryl C≤12, or a substituted version of any of these groups; R 5 and R 8 are each independently hydrogen, alkyl C≤8, or substituted alkyl C≤8; R 6 is hydrogen, hydroxy, alkyl C≤8, or substituted alkyl C≤8; and R 7 is arylc≤ 12, aralkylc≤ 12, heteroarylc≤ 12, or a substituted version of any of these groups; or R 9 is alkyl C≤12, arylc≤ 12, aralkylc≤ 12, heteroarylc≤ 12, or a substituted version of any of these groups; R 10 is hydrogen, alkyl C≤8, or substituted alkyl C≤8; and R 11 is Y 1 -O-X 1 -OR 12; wherein: Y 1 is alkanediyl C≤8 or substituted alkanediyl C≤8; X 1 is arenediyl C≤12, heteroarenediyl C≤12, or a substituted version of either of these groups; R 12 is aryl C≤12, aralkyl C≤12, heteroaryl C≤12, or a substituted version of any of these groups; Y 1 is alkanediyl C≤8 or substituted alkanediyl C≤8; X 1 is arenediyl C≤12, heteroarenediyl C≤12, or a substituted version of either of these groups; R 12 is aryl C≤12, aralkyl C≤12, heteroaryl C≤12, or a substituted version of any of these groups; wherein the term "substituted" when used with any chemical group refers to a group wherein one or more hydrogen atom has been independently replaced by -OH, -F, -Cl, -Br, -I, -NH 2, -NO 2, -CO 2 H, -CO 2 CH 3, -CN, -SH, -OCH 3, -OCH 2 CH 3, -C CH 3, -NHCH 3, -NHCH 2 CH 3, -N(CH 3) 2, -C NH 2, -C NHCH 3, -C N(CH 3) 2, -OC CH 3, -NHC CH 3, -S 2 OH, or -S 2 NH 2; or a pharmaceutically acceptable salt or tautomer thereof.
A method of treating tobacco material with superheated steam having temperature of from 100°C to 300°C at a pressure of from 0.05 bar(g) to 10 bar(g) for a period of from 1 minute to 30 minutes, wherein the tobacco material has a moisture content before the treatment of at least 15% OV and wherein the nicotine content of the tobacco material after the treatment is reduced compared to the nicotine content of the tobacco material before the treatment.
A method of preparing a resin for a urethane-based optical material by polymerizing a resin composition comprising a polythiol compound and a polyisocyanate compound, wherein the resin composition has a moisture content of 300 to 3,000 ppm measured using a Karl Fischer reagent, the polythiol compound has a moisture content of 600 to 3,000 ppm measured using a Karl Fischer reagent, and the polyisocyanate compound comprises at least one compound selected from the group consisting of isophorone diisocyanate and hexamethylene diisocyanate. wherein the resin composition has a moisture content of 300 to 3,000 ppm measured using a Karl Fischer reagent, the polythiol compound has a moisture content of 600 to 3,000 ppm measured using a Karl Fischer reagent, and the polyisocyanate compound comprises at least one compound selected from the group consisting of isophorone diisocyanate and hexamethylene diisocyanate.
A method of a policy and charging rules function server, hereinafter PCRF server, of a telecommunications network having a traffic detection function device, hereinafter TDF device, the method comprising the steps of: receiving (S-2) a user identifier at a network interface unit of the PCRF server for a user session; and characterized in that the method comprises: obtaining (S-4) through the network interface unit remaining quota and subscriber habits for the user identifier on user session and services sessions basis, wherein the subscriber habits indicate a level of data consumption by the subscriber; submitting (S-6) through the network interface unit of the PCRF server the remaining quota and subscriber habits on user session and services sessions basis for the user identifier to the TDF device; receiving (S-13) at the network interface unit of the PCRF server usage monitoring information for the user session and for a particular service session from the TDF device; using (S-14) the usage monitoring information to re-calculate with a processing unit of the PCRF server a new remaining quota and new subscriber habits for the user identifier; sending (S-15) from the network interface unit the new remaining quota and new subscriber habits for the user identifier to the TDF device; and upon receiving (S-22) an indication of session termination, updating (S-23, S-24) values of remaining quota and subscriber habits for the user identifier to be used for a subsequent user session for the user identifier. receiving (S-2) a user identifier at a network interface unit of the PCRF server for a user session; obtaining (S-4) through the network interface unit remaining quota and subscriber habits for the user identifier on user session and services sessions basis, wherein the subscriber habits indicate a level of data consumption by the subscriber; submitting (S-6) through the network interface unit of the PCRF server the remaining quota and subscriber habits on user session and services sessions basis for the user identifier to the TDF device; receiving (S-13) at the network interface unit of the PCRF server usage monitoring information for the user session and for a particular service session from the TDF device; using (S-14) the usage monitoring information to re-calculate with a processing unit of the PCRF server a new remaining quota and new subscriber habits for the user identifier; sending (S-15) from the network interface unit the new remaining quota and new subscriber habits for the user identifier to the TDF device; and upon receiving (S-22) an indication of session termination, updating (S-23, S-24) values of remaining quota and subscriber habits for the user identifier to be used for a subsequent user session for the user identifier.
A method for regulated air conditioning in a ventilation system, in which a predetermined target air state, which is characterized at least by air temperature and air humidity, is set for air with an initial air state, in that the air with the initial air state is conditioned with the aid of an air cooler, for which, during air conditioning, both a coolant mass flow and a coolant inlet temperature of a coolant supplied to the air cooler are regulated: - the coolant being supplied to the air cooler by means of a temperature control device, using which the coolant inlet temperature is set, and a mass flow adjustment device, using which the coolant mass flow is set, and - a regulating device, which couples to the mass flow adjustment device and the temperature control device, regulating the mass flow adjustment device and the temperature control device for setting the predetermined target air state characterized in that - a temperature of the coolant is regulated in a supply manifold, by means of which the coolant is supplied to the temperature control device and the mass flow adjustment device, wherein the regulation of the temperature of the coolant takes place in the supply manifold as a function of - a position of the temperature control device, - a temperature of the temperature control device, - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device. - the coolant being supplied to the air cooler by means of a temperature control device, using which the coolant inlet temperature is set, and a mass flow adjustment device, using which the coolant mass flow is set, and - a regulating device, which couples to the mass flow adjustment device and the temperature control device, regulating the mass flow adjustment device and the temperature control device for setting the predetermined target air state characterized in that - a temperature of the coolant is regulated in a supply manifold, by means of which the coolant is supplied to the temperature control device and the mass flow adjustment device, wherein the regulation of the temperature of the coolant takes place in the supply manifold as a function of - a position of the temperature control device, - a temperature of the temperature control device, - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device. - a position of the temperature control device, - a temperature of the temperature control device, - a manipulated variable of the regulating device for the regulation of the temperature control device or - a temperature in a supplier circuit comprising the temperature control device and the mass flow adjustment device.
A method for communication, comprising: Accepting, in an Access Point, AP,, downlink data items; for transmission over a wireless downlink channel to multiple terminals served by the AP; characterised by assessing aggregate airtimes for the respective terminals by summing, for each terminal, an aggregate downlink airtime that was previously allocated to the terminal on the wireless downlink channel and an aggregate uplink airtime that was previously allocated by the terminal on a wireless uplink channel from the terminal to the AP; and scheduling transmission of the downlink data items on the wireless downlink channel, depending on the aggregate airtimes assessed for the terminals. Accepting, in an Access Point, AP,, downlink data items; for transmission over a wireless downlink channel to multiple terminals served by the AP; characterised by assessing aggregate airtimes for the respective terminals by summing, for each terminal, an aggregate downlink airtime that was previously allocated to the terminal on the wireless downlink channel and an aggregate uplink airtime that was previously allocated by the terminal on a wireless uplink channel from the terminal to the AP; and scheduling transmission of the downlink data items on the wireless downlink channel, depending on the aggregate airtimes assessed for the terminals.
A vacuum interrupter in a vacuum circuit breaker, the vacuum interrupter comprising: a sealed insulated container; a stationary electrode installed at an inner portion of the insulated container; a movable electrode disposed to face the stationary electrode and provided to slide against the insulated container to generate a magnetic field between a facing surface of the stationary electrode and a facing surface thereof, and an attraction member located adjacent to the facing surfaces of the stationary electrode and movable electrode is provided to attract a radial magnetic field generated between the stationary electrode and movable electrode in a radial direction, characterized in that a support groove (111a, 112a) is formed in a stepped manner on an outer circumferential surface of the insulated container in order to support the attraction member inserted thereto in an axial direction, wherein the axial direction is a moving direction of the movable electrode, the height of the attraction member in an axial direction is formed not less than a maximum distance between the stationary electrode and movable electrode, and the attraction member is made of a ferromagnetic body. a sealed insulated container; a stationary electrode installed at an inner portion of the insulated container; a movable electrode disposed to face the stationary electrode and provided to slide against the insulated container to generate a magnetic field between a facing surface of the stationary electrode and a facing surface thereof, and an attraction member located adjacent to the facing surfaces of the stationary electrode and movable electrode is provided to attract a radial magnetic field generated between the stationary electrode and movable electrode in a radial direction, characterized in that a support groove (111a, 112a) is formed in a stepped manner on an outer circumferential surface of the insulated container in order to support the attraction member inserted thereto in an axial direction, wherein the axial direction is a moving direction of the movable electrode, the height of the attraction member in an axial direction is formed not less than a maximum distance between the stationary electrode and movable electrode, and the attraction member is made of a ferromagnetic body.
A screen printing device for printing a flexible substrate band material in the endless format for producing a flexible band with printed electronics, wherein the screen printing device forms a processing station of a reel-to-reel system and comprises at least one screen printing unit, wherein the screen printing device is designed for a clocked printing in the endless format, wherein the screen printing unit includes at least one printing module and at least one printing table, wherein the screen printing device comprises at least one first and second band buffer unit (5.1, 5.2), wherein the first band buffer unit (5.1) is arranged in the feed direction upstream of the screen printing unit and wherein the second band buffer unit (5.2) is arranged in the feed direction downstream of the screen printing unit and wherein the band buffer units (5.1, 5.2) are configured to compensate a band length (L1, L2) of a band portion of the substrate band material situated between the band buffer units (5.1, 5.2), characterised in that the screen printing device further comprises at least one feed unit, wherein the feed unit is designed for the clocked moving of the substrate band material in at least one feed direction and for pre-positioning a respective print portion (2.1) of the substrate band material relative to the screen printing unit, and in that the at least one printing table is designed as vacuum printing table, wherein the vacuum printing table of the screen printing unit is designed so as to be adjustable in height and equipped in such a manner that the vacuum printing table, by moving in the vertical direction (z), can be moved out of a rest position into at least one working position, wherein a top side (7.1) of the vacuum printing table provided for supporting the substrate band material is arranged in the rest position in a horizontally oriented first lower plane and in the working position in a horizontally oriented second upper plane.
A system for post-extrusion processing of extruded granular absorbent comprising: an extruder for extruding pellets of granular absorbent; a granular absorbent cooling and drying subsystem for cooling and drying the pellets after extrusion without raising the temperature of the extruded pellets; and a granular absorbent processing subsystem for processing the pellets after extrusion, cooling and drying of the pellets has been performed, the granular absorbent processing subsystem comprised of a rotating roll type pellet comminuting mill that reduces the size of the cooled and dried extruded pellets to form processed extruded pellets, characterized in that the rotating roll type pellet comminuting mill having a pair of generally horizontal side-by-side elongate pellet comminuting corrugated rolls (80, 82) which are generally parallel to one another and rotate toward one another wherein a spacing of a gap between the rolls (80, 82) and a differential in rotational speeds of the counter-rotating rolls (80, 82) determines a maximum pellet size to which the extruded pellets are particle size reduced thereby. an extruder for extruding pellets of granular absorbent; a granular absorbent cooling and drying subsystem for cooling and drying the pellets after extrusion without raising the temperature of the extruded pellets; and a granular absorbent processing subsystem for processing the pellets after extrusion, cooling and drying of the pellets has been performed, the granular absorbent processing subsystem comprised of a rotating roll type pellet comminuting mill that reduces the size of the cooled and dried extruded pellets to form processed extruded pellets,
A solar cell having a flexible substrate, preferably made of a polymer plastic, and having at least one photovoltaic layer applied to the substrate for converting solar energy into electrical energy, the solar cell having adhesive fastener elements by means of which the solar cell can be affixed onto a carrier means without tools, characterised in that the adhesive fastener elements are made in one piece with the substrate onto which the photovoltaic layer is attached using thin or thick film technology.
A flexible passive electronic component, that is a sensor, comprising - a substrate, which comprises an insulating layer and an inorganic layer with an upper side and a lower side, whereby the insulating layer at least partially covering the upper side of the inorganic layer, and - an electrical structure, the electrical structure at least partially covering the insulating layer, whereby the insulating layer is made of metal oxides and/or metal nitrides and the inorganic layer is made of an inorganic crystalline material or an inorganic amorphous material or from a silicon-on-insulator wafer, whereby the flexible passive electronic component is not an integrated circuit or does not contain an integrated circuit, whereby the electrical structure is designed as a sensor element, characterized in that the substrate has a thickness which is at most 50 μm and the flexible passive electronic component has a height which is at most 150 μm. - a substrate, which comprises an insulating layer and an inorganic layer with an upper side and a lower side, whereby the insulating layer at least partially covering the upper side of the inorganic layer, and - an electrical structure, the electrical structure at least partially covering the insulating layer, the insulating layer is made of metal oxides and/or metal nitrides and the inorganic layer is made of an inorganic crystalline material or an inorganic amorphous material or from a silicon-on-insulator wafer, whereby the flexible passive electronic component is not an integrated circuit or does not contain an integrated circuit, whereby the electrical structure is designed as a sensor element, characterized in that the substrate has a thickness which is at most 50 μm and the flexible passive electronic component has a height which is at most 150 μm.
Method for operating an electrical machine, in particular a turbocharger, wherein the electrical machine has a multi-phase drive winding which, depending on an angular position of a rotor of the electrical machine, is energized by sinusoidal commutation in at least one first rotational speed range to generate a torque, wherein the angular position of the rotor is determined as a function of phase currents induced in the drive winding by the rotor, characterized in that the drive winding is energized by block commutation in a second rotational speed range which lies below the first rotational speed range.