mhurhangee/ep-ind-claims huggingface dataset:
Roller-shutter box having wall elements (11, 12, 13, 14) which form an elongate hollow body with an inner opening cross section A 0, wherein the roller-shutter box is closed off at each end by a headpiece, and wherein a headpiece-insulating element made of a thermally insulating material is arranged in front of at least one headpiece, said insulating element being placed in front of, or on, the headpiece and covering over at least one sub-region of the inner opening cross section A 0 located inside the building, characterized in that the headpiece-insulating element is formed from an elastically compressible plastic foam and has its largest circumferential surface area A 1 at least over part of its height, said surface area being larger than that sub-region of the inner opening cross section A 0 of the roller-shutter box which is covered over by the headpiece-insulating element and covering over the butt joints located at least inside the building, and at which the wall elements (11, 12, 13, 14) butt against the headpiece-insulating element, or sealing the surface-area regions adjacent thereto.
A pharmaceutical Interleukin-12 (IL-12) composition comprising: (a) 0.01 to 250 ng/ml IL-12; (b) 0.1 mM to 250 mM at least one stabilizer, wherein the stabilizer is a salt; (c) 0.001% to 20% surfactant, wherein the surfactant is a poloxamer; and (d) water, wherein the IL-12 is solubilized and the composition has a pH of 3.0 up to 9.0. (a) 0.01 to 250 ng/ml IL-12; (b) 0.1 mM to 250 mM at least one stabilizer, wherein the stabilizer is a salt; (c) 0.001% to 20% surfactant, wherein the surfactant is a poloxamer; and (d) water,
Process for removing H 2 S from a H 2 S contaminated energy production gas stream containing methane, using an aqueous biofilter system comprising a biofilter having biofilter support material constituting a biofilter bed supporting a humidified biofilm having microorganisms that are capable of oxidizing H 2 S, wherein the process comprises the steps of - contacting the H 2 S contaminated energy production gas stream with the microorganisms of the humidified biofilm; and - oxidation of at least part of the H 2 S in the H 2 S contaminated energy production gas stream by the microorganisms, resulting in a H 2 S depleted energy production gas stream, CHARACTERIZED IN THAT the process further comprises the step of humidifying the biofilm by means of the energy production gas stream which has been pre-humidified prior to contacting the biofilm, adding an aqueous nitrate solution to the H 2 S contaminated energy production gas stream by means of an atomizer nozzle adapted to atomize the nutrient and/or nitrate solution into the energy production gas stream, prior to being contacted with the microorganisms, enabling the microorganisms to oxidize the H 2 S under anoxic conditions, whereby a part of the H 2 S depleted energy production gas stream is recirculated, wherein the nutrient and/or the nitrate solution is injected to the biofilter together with the recirculated part of the H 2 S depleted energy production gas stream by using the atomizer nozzle. - contacting the H 2 S contaminated energy production gas stream with the microorganisms of the humidified biofilm; and - oxidation of at least part of the H 2 S in the H 2 S contaminated energy production gas stream by the microorganisms, resulting in a H 2 S depleted energy production gas stream,
A device for printing hollow bodies, having a rubber blanket cylinder, wherein a feed mechanism for advancing the hollow bodies to the rubber blanket cylinder is provided, wherein the feed mechanism is equipped with a clamping mandrel driven rotationally by a drive, wherein one of the hollow bodies to be printed is arranged coaxially on the clamping mandrel, wherein an axial distance between the clamping mandrel and the rubber blanket cylinder can be varied by way of an adjusting movement of the feed mechanism, wherein the feed mechanism is configured as a system for radially feeding the hollow bodies, one at a time in succession, to the rubber blanket cylinder, wherein the feed mechanism has along its travel path a plurality of different positions (A; B; C) each for the positioning of said hollow body to be printed, wherein each of these positions (A; B; C) is located at a different radial distance from the rubber blanket cylinder, characterized in that the feed mechanism is configured as a linear system for feeding the hollow bodies radially to the rubber blanket cylinder, wherein the adjusting movement of this feed mechanism is a linear adjusting movement, wherein the rubber blanket cylinder has a cam disk having at least two curved sections (22; 23), wherein the printing region of the rubber blanket cylinder is defined by a first curved section of the cam disk and the non-printing region of the rubber blanket cylinder is defined by a second curved section of the cam disk.
Reactor for enzymatic hydrolysis of a material comprising in sequence: - a first heat exchanger adapted to heat the raw material to be supplied to the reactor to a temperature within a range favouring enzymatic hydrolysis, - a reactor comprising plural serially connected reactor chambers (R1-R6) separated by closable valves (V1-V5) - a second heat exchanger adapted to heat the reaction mixture to a temperature higher than the temperature range favouring enzymatic hydrolysis, characterized in that the reactor is designed with reactor chambers at different vertical levels, the first reactor chamber being the uppermost one and the last reactor chamber being the lowermost one, while at least one reactor chamber is adapted to be stirred with a through-flowing inert gas. - a first heat exchanger adapted to heat the raw material to be supplied to the reactor to a temperature within a range favouring enzymatic hydrolysis, - a reactor comprising plural serially connected reactor chambers (R1-R6) separated by closable valves (V1-V5) - a second heat exchanger adapted to heat the reaction mixture to a temperature higher than the temperature range favouring enzymatic hydrolysis,
Terminal comprising a frame, a touchscreen, a glass panel protecting the touchscreen, an outer shell, wherein the following are successively gripped between the frame and the shell: - a first seal, - a peripheral region of the glass panel, and - a second seal; and wherein the touchscreen is arranged between a central portion of the glass panel and the frame, the touchscreen being secured to only one from among the frame and the glass panel; and wherein the frame comprises several hooks which extend from the frame, pass past the first seal and the glass panel, and are curved between the glass panel and the shell at the level of the second seal, the frame is secured to the shell such that the frame/seals/glass panel assembly is blocked by pressure. - a first seal, - a peripheral region of the glass panel, and - a second seal;
A high voltage durability III-nitride semiconductor device comprising: a support substrate including a first silicon body comprising <100> silicon, an insulator body over said first silicon body, and a second silicon body over said insulator body; one or more silicon semiconductor devices formed on said first silicon body; a III-nitride semiconductor body formed over said second silicon body, said III-nitride semiconductor body having a majority charge carrier conductivity type; said second silicon body having a conductivity type opposite said majority charge carrier conductivity type; said one or more silicon semiconductor devices being vertically integrated on said first silicon body below said III-nitride semiconductor body, and electrically insulated from said second silicon body by said insulator body. a support substrate including a first silicon body comprising <100> silicon, an insulator body over said first silicon body, and a second silicon body over said insulator body; one or more silicon semiconductor devices formed on said first silicon body; a III-nitride semiconductor body formed over said second silicon body, said III-nitride semiconductor body having a majority charge carrier conductivity type; said second silicon body having a conductivity type opposite said majority charge carrier conductivity type; said one or more silicon semiconductor devices being vertically integrated on said first silicon body below said III-nitride semiconductor body, and electrically insulated from said second silicon body by said insulator body.
A liquid composition for an electronic cigarette comprising 1,3-propanediol as well as at least one compound selected from: nicotine, a nicotine substitute and an aroma, characterized in that it contains no water.
Optical smoke detector comprising: - an optical detection chamber; - at least one light source configured to emit a beam of light into said optical chamber; - a first detection unit comprising at least one photoelectric detector - hereinafter "first photodetector" - free from all direct illumination by the light source or sources; - a second detection unit comprising at least one photoelectric detector - hereinafter "second photodetector" -, wherein said second unit is configured such that the second photodetector directly receives the light emitted by at least one of said light sources, hereinafter referred to as "first light source"; - a control unit for monitoring the aging of the optical smoke detector, configured for controlling/managing the first light source such that it temporarily emits a beam of light, wherein said control unit is also configured to receive, in response to the emission of said beam of light emitted by the first light source, a first signal issued by the second photodetector, and to detect on the basis of said first signal and at least one second signal generated by one of the photodetectors of the optical detector a presence of dust particles in the optical chamber and/or an aging of the first light source; wherein the optical detector according to the invention is characterised in that the control unit is configured to calculate a first difference and a second difference, wherein the first difference is the difference between a value obtained for said first signal on the basis of a measurement of the latter by the control unit and a first reference value, and the second difference is the difference between a value obtained for said second signal on the basis of a measurement of the latter by the control unit and a second reference value, and to detect said presence of dust particles in the optical chamber and/or said aging of the first light source on the basis of said differences. - an optical detection chamber; - at least one light source configured to emit a beam of light into said optical chamber; - a first detection unit comprising at least one photoelectric detector - hereinafter "first photodetector" - free from all direct illumination by the light source or sources; - a second detection unit comprising at least one photoelectric detector - hereinafter "second photodetector" -, wherein said second unit is configured such that the second photodetector directly receives the light emitted by at least one of said light sources, hereinafter referred to as "first light source"; - a control unit for monitoring the aging of the optical smoke detector, configured for controlling/managing the first light source such that it temporarily emits a beam of light, wherein said control unit is also configured to receive, in response to the emission of said beam of light emitted by the first light source, a first signal issued by the second photodetector, and to detect on the basis of said first signal and at least one second signal generated by one of the photodetectors of the optical detector a presence of dust particles in the optical chamber and/or an aging of the first light source;
A fluid machine comprising a rotary shaft (3, 4), a housing supporting the rotary shaft (3, 4) through a bearing (30, 31; 32, 33), and a rotor (40, 41,..., 49) rotatable integrally with the rotary shaft (3, 4), the fluid machine transporting fluid through rotation of the rotor (40, 41,..., 49) together with the rotary shaft (3, 4), the housing is configured by joining a lower housing member and an upper housing member, wherein the lower housing member includes a lower accommodating portion that has an upward opening so as to receive a lower portion of the bearing (30, 31; 32, 33), the upper housing member includes an upper accommodating portion that has a downward opening so as to accommodate an upper portion of the bearing (30, 31; 32, 33), wherein, with the upper and lower housing members joined together, the upper and lower accommodating portions form a bearing accommodating portion (81, 82) that accommodates the entire bearing (30, 31; 32, 33), characterised in that the fluid machine includes a positioning member (26, 76) that is attached to the bearing (30, 31; 32, 33) and fixed to the lower housing member for fixing the position of the bearing (30, 31; 32, 33) relative to the lower accommodating portion, wherein the upper housing member is separably joined to the lower housing member, to which the bearing (30, 31; 32, 33) is fixed, so that the positioning of the bearing (30, 31; 32, 33) using the positioning member (26, 76) is carried out without involving the upper housing member.
A GLP-1 analog of formula II: wherein Xaa 7 is L-histidine; Xaa 8 is Aib; Xaa 16 is Val; Xaa 18 is Ser; Xaa 19 is Tyr; Xaa 20 is Leu; Xaa 22 is Gly or Aib; Xaa 23 is Gln; Xaa 25 is Ala; Xaa 27 is Glu; Xaa 30 is Ala; Xaa 33 is Val; Xaa 34 is Arg; Xaa 35 is Gly; Xaa 36 is Arg; Xaa 37 is Gly; Xaa 38 is absent; and where U is a spacer selected from where n is 12, 13, 14, 15, 16, 17, or 18, l is 12, 13, 14, 15, 16, 17, or 18, m is 0, 1, 2, 3, 4, 5, or 6, s is 0, 1, 2, or 3, pis 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17,18, 19, 20, 21, 22, or 23; and where B is an acidic group selected from
A method of controlling one or more amplifiers in an antenna array of a network node, wherein the network node is adapted to communicate with a plurality of user equipment devices within a cell of a wireless communication network, the method comprising: evaluating criteria relating to at least one of: a signal quality parameter between the network node and the plurality of user equipment devices and the position of the plurality of user equipment devices within the cell; and selectively controlling the one or more amplifiers to operate in one of a reduced power mode and a predistortion mode based on the evaluation, wherein, in the reduced power mode, power of an amplifier is reduced such that the amplifier operates in a linear mode of operation, and wherein, in the predistortion mode, an input signal to each of the one or more amplifiers is predistorted before amplification, based on the evaluation, wherein the method further comprising: determining a path loss between the network node and each of the plurality of user equipment devices; determining what percentage of user equipment devices have a path loss below a predetermined path loss value; and controlling one or more amplifiers to operate in the reduced power mode instead of the predistortion mode if the determined percentage is above a threshold value. evaluating criteria relating to at least one of: a signal quality parameter between the network node and the plurality of user equipment devices and the position of the plurality of user equipment devices within the cell; and selectively controlling the one or more amplifiers to operate in one of a reduced power mode and a predistortion mode based on the evaluation, wherein, in the reduced power mode, power of an amplifier is reduced such that the amplifier operates in a linear mode of operation, and wherein, in the predistortion mode, an input signal to each of the one or more amplifiers is predistorted before amplification, based on the evaluation, determining a path loss between the network node and each of the plurality of user equipment devices; determining what percentage of user equipment devices have a path loss below a predetermined path loss value; and controlling one or more amplifiers to operate in the reduced power mode instead of the predistortion mode if the determined percentage is above a threshold value.
An oral hygiene implement having a longitudinal axis; a carrier element mounted for driven movement; a motion transmitter that has a first end for transferring a drive force to the carrier element, which first end is provided at a position being offset from the longitudinal axis, and the motion transmitter has a second end positioned essentially on the longitudinal axis or is arranged for being positioned essentially on the longitudinal axis during operation; wherein the motion transmitter has a first coupling part comprising the first end, which first coupling part essentially extends along a centre axis arranged at an angle with respect to the longitudinal axis, and a second coupling part comprising the second end, which first coupling part is fixedly connected with a first connecting portion of an elastic pivot element that allows that the first coupling part and the second coupling part can pivot with respect to each other at least in a first pivoting plane spanned by the longitudinal axis and by the centre axis; and wherein the first coupling part is made from a plastics material, including reinforced plastics materials, having a Young's modulus of at least 5000 MPa or from a metal material, and at least the first connecting portion, in particular the whole elastic pivot element, is made from a plastics material having a Young's modulus of not more than 3000 MPa, optionally of not more than 1000 MPa, further optionally of not more than 500 MPa. a longitudinal axis; a carrier element mounted for driven movement; a motion transmitter that has a first end for transferring a drive force to the carrier element, which first end is provided at a position being offset from the longitudinal axis, and the motion transmitter has a second end positioned essentially on the longitudinal axis or is arranged for being positioned essentially on the longitudinal axis during operation; wherein the motion transmitter has a first coupling part comprising the first end, which first coupling part essentially extends along a centre axis arranged at an angle with respect to the longitudinal axis, and a second coupling part comprising the second end, which first coupling part is fixedly connected with a first connecting portion of an elastic pivot element that allows that the first coupling part and the second coupling part can pivot with respect to each other at least in a first pivoting plane spanned by the longitudinal axis and by the centre axis; and wherein the first coupling part is made from a plastics material, including reinforced plastics materials, having a Young's modulus of at least 5000 MPa or from a metal material, and at least the first connecting portion, in particular the whole elastic pivot element, is made from a plastics material having a Young's modulus of not more than 3000 MPa, optionally of not more than 1000 MPa, further optionally of not more than 500 MPa.
A variable-geometry exhaust turbocharger, comprising: a nozzle mount fixed to a housing, the nozzle mount having a first face and a second face; a nozzle support having a first end coupled to the first face of the nozzle mount, the nozzle support being a cylindrical member; a nozzle plate coupled to the second end of the nozzle support and supported to be separated from the first face of the nozzle mount, the nozzle plate having a first face coupled to the nozzle support and a second face which is opposite to the first face; a plurality of nozzle vanes rotatably supported between the first face of the nozzle mount and the first face of the nozzle plate; and a variable nozzle mechanism configured to change vane angles of the nozzle vanes to control a flow of exhaust gas flowing between the first face of the nozzle mount and the first face of the nozzle plate, characterized in that the nozzle mount is exposed to the exhaust gas only at the first face, and wherein the nozzle plate is exposed to the exhaust gas at both the first face and the second face and is formed of a material having a smaller linear expansion coefficient than that of a material forming the nozzle mount. a nozzle mount fixed to a housing, the nozzle mount having a first face and a second face; a nozzle support having a first end coupled to the first face of the nozzle mount, the nozzle support being a cylindrical member; a nozzle plate coupled to the second end of the nozzle support and supported to be separated from the first face of the nozzle mount, the nozzle plate having a first face coupled to the nozzle support and a second face which is opposite to the first face; a plurality of nozzle vanes rotatably supported between the first face of the nozzle mount and the first face of the nozzle plate; and a variable nozzle mechanism configured to change vane angles of the nozzle vanes to control a flow of exhaust gas flowing between the first face of the nozzle mount and the first face of the nozzle plate, characterized in that the nozzle mount is exposed to the exhaust gas only at the first face, and wherein the nozzle plate is exposed to the exhaust gas at both the first face and the second face and is formed of a material having a smaller linear expansion coefficient than that of a material forming the nozzle mount.
A method for checking toll transactions, produced from position notifications of a mobile phone connected via a mobile network to a transaction server, with the aid of a network of distributed toll beacons, which can communicate via short-range radio with on-board units of passing vehicles and are connected to the transaction server, comprising: carrying a mobile phone and an on-board unit on a vehicle; generating a session identifier, exchanging the session identifier between mobile phone and on-board unit and transmitting the session identifier to the transaction server; producing position notifications (pos i) in the mobile phone and sending the position notifications (pos i) under the session identifier to the transaction server in order to produce toll transactions; when the on-board unit passes a toll beacon, logging the pass in a beacon log (45, 47) under the session identifier; and in the transaction server, double-checking the toll transactions produced for the session identifier with the beacon log (45, 47) created for the session identifier. carrying a mobile phone and an on-board unit on a vehicle; generating a session identifier, exchanging the session identifier between mobile phone and on-board unit and transmitting the session identifier to the transaction server; producing position notifications (pos i) in the mobile phone and sending the position notifications (pos i) under the session identifier to the transaction server in order to produce toll transactions; when the on-board unit passes a toll beacon, logging the pass in a beacon log (45, 47) under the session identifier; and in the transaction server, double-checking the toll transactions produced for the session identifier with the beacon log (45, 47) created for the session identifier.