mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of dental prostheses comprising an initiator system in form of a combination of an activator and an initiator in spatially divided form, comprising the steps - mixing of A) at least one polymerizable component in liquid form and B) a powder component comprising at least one initiator in phlegmatized form, to form a material that does not demix during the injection - injection of the material into a cuvette and - polymerization of the mixture by heating, whereby the activator is in component A) and whereby the phlegmatization of the initiator in component B) is reached via encapsulation in a bead polymer, and whereby the heating of the material in the cuvette takes place in such a manner that the increase of the temperature happens in form of a temperature front, which starts at the cuvette opposite of the reservoir with the unpolymerized material and therefore starts the polymerization at the distant place within the cuvette, and the polymerization is controlled via the controlled supply of heat in the range of 20°C to 90°C, and whereby the shrinkage produced by the polymerization is compensated by forcing in of unpolymerized prosthesis mass into the cuvette. - mixing of A) at least one polymerizable component in liquid form and B) a powder component comprising at least one initiator in phlegmatized form, to form a material that does not demix during the injection A) at least one polymerizable component in liquid form and B) a powder component comprising at least one initiator in phlegmatized form, - injection of the material into a cuvette and - polymerization of the mixture by heating, whereby the activator is in component A) and
An actuation device comprising an output shaft that is rotatable about a rotational axis; a first gear train that connects a first actuator to the output shaft and transmits rotational output of the first actuator to the output shaft, the first gear train including a driver that is driven by the first actuator to rotate about the rotational axis and is configured to be fixed relative to the output shaft via a pin; and a second gear train that connects a second actuator to a release mechanism and transmits rotational output of the second actuator to the release mechanism, wherein the release mechanism is moveable between a retracted position in which the pin is engaged with the output shaft such that the output shaft is fixed relative to the driver, and an advanced position in which the pin is disengaged from the output shaft and the output shaft is permitted to rotate relative to the driver, in some actuation device operating conditions, the output shaft is driven by the first actuator to rotate via the first gear train, and in other actuation device operating conditions, the release mechanism is driven by the second actuator to move from the retracted position to the advanced position, whereby the output shaft is disengaged from the first gear train, characterized in that the second gear train includes a second drive gear supported on a drive shaft of the second actuator, and a second driven gear that rotates about the rotational axis and is engaged with the second drive gear.
A plasma ion source apparatus comprising: a vacuum chamber; a dielectric (26, 58) configured to encapsulate the vacuum chamber; a primary antenna; a secondary antenna (42, 52,84); the secondary antenna (42, 52,84) positioned external to an exterior surface of the dielectric (26, 58) and configured to couple the electromagnetic radiation into the vacuum chamber; and the primary antenna electrically isolated from the secondary antenna (42, 52,84) and configured to transmit electromagnetic radiation to the secondary antenna (42, 52,84); characterized in that the vacuum chamber, the dielectric (26, 58), and the secondary antenna (42, 52,84) are biased at a positive electric potential with respect to the primary antenna. a vacuum chamber; a dielectric (26, 58) configured to encapsulate the vacuum chamber; a primary antenna; a secondary antenna (42, 52,84); the secondary antenna (42, 52,84) positioned external to an exterior surface of the dielectric (26, 58) and configured to couple the electromagnetic radiation into the vacuum chamber; and the primary antenna electrically isolated from the secondary antenna (42, 52,84) and configured to transmit electromagnetic radiation to the secondary antenna (42, 52,84); characterized in that the vacuum chamber, the dielectric (26, 58), and the secondary antenna (42, 52,84) are biased at a positive electric potential with respect to the primary antenna.
Method for estimating the geographical distance or for estimating a range of the geographical distance between at least two user equipments by means of transmitting at least one discovery message for device to device communication from a first user equipment to at least one second user equipment, the first user equipment and the second user equipment being enabled to use a device to device communication mode, D2D mode, including proximity detection and/or discovery, wherein the method comprises the following steps: -- in a first step, the discovery message is generated by the first user equipment, wherein the discovery message comprises a transmission power information, the transmission power information being indicative of the level of the transmission power used by the first user equipment for transmitting the discovery message, -- in a second step, the discovery message is transmitted, by the first user equipment, using a common air interface of the first user equipment and the second user equipment, wherein the level of transmission power is used by the first user equipment to transmit the discovery message, -- in a third step, the discovery message, comprising the transmission power information, is received by the second user equipment, and a level of reception power is determined, wherein based on the received transmission power information and the determined level of reception power, an estimation related to -- the geographical distance, or to -- a range of the geographical distance out of a plurality of different ranges of the geographical distance between the first user equipment and the second user equipment is determined by the second user equipment, characterized in that the discovery message comprises, besides the transmission power information, an indication that the discovery message comprises a transmission power information, wherein the discovery message comprises, besides the transmission power information, a further information indicative of radio conditions within a radio cell that the first user equipment is camping on. -- in a first step, the discovery message is generated by the first user equipment, wherein the discovery message comprises a transmission power information, the transmission power information being indicative of the level of the transmission power used by the first user equipment for transmitting the discovery message, -- in a second step, the discovery message is transmitted, by the first user equipment, using a common air interface of the first user equipment and the second user equipment, wherein the level of transmission power is used by the first user equipment to transmit the discovery message, -- in a third step, the discovery message, comprising the transmission power information, is received by the second user equipment, and a level of reception power is determined, wherein based on the received transmission power information and the determined level of reception power, an estimation related to -- the geographical distance, or to -- a range of the geographical distance out of a plurality of different ranges of the geographical distance
A method for receiving a frame at a station, STA, from an access point, AP, of a wireless communication system, the method comprising: determining whether a first partial association ID, Partial AID, is included in a downlink frame, the first partial AID being calculated on the basis of a first equation which utilizes an AID allocated to the STA by the AP and a basic service set ID, BSSID, of the AP; decoding the downlink frame, if the first partial AID is included in the downlink frame; and characterized by further comprising: transmitting an uplink frame including a second partial AID calculated based on a second equation '(dec(BSSID[39:47])mod(2 9 -1))+1', where 'dec()' denotes decimal conversion, and '()mod()' denotes a modulo operation, wherein the first partial AID calculated based on the first equation is not identical to the second partial AID calculated based on the second equation. determining whether a first partial association ID, Partial AID, is included in a downlink frame, the first partial AID being calculated on the basis of a first equation which utilizes an AID allocated to the STA by the AP and a basic service set ID, BSSID, of the AP; decoding the downlink frame, if the first partial AID is included in the downlink frame; and characterized by further comprising: transmitting an uplink frame including a second partial AID calculated based on a second equation '(dec(BSSID[39:47])mod(2 9 -1))+1', where 'dec()' denotes decimal conversion, and '()mod()' denotes a modulo operation, wherein the first partial AID calculated based on the first equation is not identical to the second partial AID calculated based on the second equation. transmitting an uplink frame including a second partial AID calculated based on a second equation '(dec(BSSID[39:47])mod(2 9 -1))+1', where 'dec()' denotes decimal conversion, and '()mod()' denotes a modulo operation, wherein the first partial AID calculated based on the first equation is not identical to the second partial AID calculated based on the second equation.
A direct solvent free method for the selective synthesis of trialkoxysilanes having the formula SiH 3, wherein each R is a C 1 -C 4 alkyl, the method comprising the steps of: providing a mixture of metallic silicon and copper based catalyst in a packed bed reactor, wherein the copper based catalyst is selected from the group consisting of copper hydroxide, copper oxide, and mixtures thereof; heating the mixture at an activation temperature of 180°C ―250°C; introducing C 1 -C 4 alcohol to the reactor at a reaction temperature of 180°C ― less than 250°C; condensing the reaction products in a heat exchanger; and collecting the condensed reaction products, wherein neither the metallic silicon, the copper based catalyst, or the silicon-catalyst mixture is subjected to any washing step with any acid or other preparatory solution, including a hydrofluoric acid washing step. providing a mixture of metallic silicon and copper based catalyst in a packed bed reactor, wherein the copper based catalyst is selected from the group consisting of copper hydroxide, copper oxide, and mixtures thereof; heating the mixture at an activation temperature of 180°C ―250°C; introducing C 1 -C 4 alcohol to the reactor at a reaction temperature of 180°C ― less than 250°C; condensing the reaction products in a heat exchanger; and collecting the condensed reaction products,
Apparatus that is suitable for removing labels from containers made of plastics comprising: a tubular stator and a rotor defining an annular chamber that extends axially between an inlet and an outlet for the containers; on said rotor there being mounted dragging and thrusting members for rotationally dragging and thrusting the containers inside said annular chamber wherein: on said tubular stator there are first scraping tools provided with first tip ends, and in that said dragging and thrusting members comprise second scraping tools provided with second tip ends that are distributed along one or more helical paths, said first tip ends and said second tip ends defining respectively in said annular chamber a first punctiform scraping surface and a second punctiform scraping surface for said containers, in which the distance between said first punctiform scraping surface and said second punctiform scraping surface keeps substantially constant in a longitudinal direction and in a circumferal direction with respect to said rotor, and wherein said first scraping tools are oriented substantially in a radial direction towards said rotor and characterised in that each of said second scraping tools extends along a plane that is orthogonal to a longitudinal axis of said rotor, each of said second tools having a respective axis that is tilted by an angle (Ω) with respect to a straight line (Ro) that is orthogonal to said longitudinal axis and points in the rotation direction of said rotor. a tubular stator and a rotor defining an annular chamber that extends axially between an inlet and an outlet for the containers; on said rotor there being mounted dragging and thrusting members for rotationally dragging and thrusting the containers inside said annular chamber on said tubular stator there are first scraping tools provided with first tip ends, and in that said dragging and thrusting members comprise second scraping tools provided with second tip ends that are distributed along one or more helical paths, said first tip ends and said second tip ends defining respectively in said annular chamber a first punctiform scraping surface and a second punctiform scraping surface for said containers, in which the distance between said first punctiform scraping surface and said second punctiform scraping surface keeps substantially constant in a longitudinal direction and in a circumferal direction with respect to said rotor, and wherein said first scraping tools are oriented substantially in a radial direction towards said rotor and characterised in that each of said second scraping tools extends along a plane that is orthogonal to a longitudinal axis of said rotor, each of said second tools having a respective axis that is tilted by an angle (Ω) with respect to a straight line (Ro) that is orthogonal to said longitudinal axis and points in the rotation direction of said rotor.
A modularly constructed plug-in converter unit for a switch cabinet of a control technology power supply system of a nuclear power plant, wherein the plug-in converter unit comprises a frame, at least one busbar, a group of fuses and a group of load terminals, wherein the plug-in converter unit is configured to be inserted into the switch cabinet and to be fastened therein, and wherein the plug-in converter unit, being inserted in the switch cabinet, is arranged such that one plug-in converter or several plug-in converters are inserted into this plug-in converter unit.
A method comprising: (a) receiving a 7xxx aluminum alloy sheet, wherein the 7xxx aluminum alloy sheet comprises a surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (b) reducing the as-received thickness of the surface oxide layer to a preparation thickness, wherein the reducing comprises contacting the surface oxide layer with a preparation solution for a time sufficient to reduce the as-received thickness to the preparation thickness, wherein the reducing comprises both (i) and (iii), both (ii) and (iii), or all of (i), (ii), and (iii) of: (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (c) after the reducing step, creating a functional layer bonded to the 7xxx aluminum alloy sheet. (a) receiving a 7xxx aluminum alloy sheet, wherein the 7xxx aluminum alloy sheet comprises a surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (i) wherein the surface oxide layer comprises an as-received thickness; (ii) wherein the surface oxide layer comprises magnesium oxides and aluminum oxides; (iii) wherein the 7xxx aluminum alloy sheet comprises copper-bearing intermetallic particles at least proximal the surface oxide layer; (b) reducing the as-received thickness of the surface oxide layer to a preparation thickness, wherein the reducing comprises contacting the surface oxide layer with a preparation solution for a time sufficient to reduce the as-received thickness to the preparation thickness, wherein the reducing comprises both (i) and (iii), both (ii) and (iii), or all of (i), (ii), and (iii) of: (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (i) reducing a volume fraction of the magnesium oxides of the surface oxide layer; (ii) increasing a volume fraction of the aluminum oxides of the surface oxide layer; and (iii) maintaining a volume fraction of the copper-bearing intermetallic particles proximal the surface oxide layer; (c) after the reducing step, creating a functional layer bonded to the 7xxx aluminum alloy sheet.
Filling disc for a rod-shaped anchor (11, 12) which is anchorable in a drilled hole in an anchoring substrate, the filling disc having a through-hole for passage of the anchor (11, 12) and an introduction opening for a curing composition, which opening communicates with the through-hole, characterised in that the through-hole is not circular at a location at which it has a smallest cross-section, and the through-hole has at least one inwardly projecting spacer.
A cooking state alerting method implemented in an electric cooker, the method comprising: detecting a current cooking state of the electric cooker; generating cooking state alert information when a preset cooking state is detected; and sending the cooking state alert information to a target terminal so that the target terminal alerts a user to the current cooking state of the electric cooker, characterized in the preset cooking state including a state of reaching a target cooking stage where spice needs to be placed, or a state from which to completion of a cooking task there remains a preset time length. detecting a current cooking state of the electric cooker; generating cooking state alert information when a preset cooking state is detected; and sending the cooking state alert information to a target terminal so that the target terminal alerts a user to the current cooking state of the electric cooker, characterized in the preset cooking state including a state of reaching a target cooking stage where spice needs to be placed, or a state from which to completion of a cooking task there remains a preset time length.
An atomizer, comprising: a housing; an atomization assembly comprising a sleeve and an atomization core, wherein the sleeve is arranged in the housing, a liquid storage cavity is defined between the housing and the sleeve, the atomization core is arranged in the sleeve, and a liquid inlet hole communicating the atomization core and the liquid storage cavity is provided on the sleeve; characterized in that the atomizer comprises a vent tube sleeved between the sleeve and the atomization core, the vent tube being spaced apart from at least one of the sleeve or the atomization core to form a vent channel, wherein the vent channel is configured to be in communication with the liquid inlet hole and an outside. a housing; an atomization assembly comprising a sleeve and an atomization core, wherein the sleeve is arranged in the housing, a liquid storage cavity is defined between the housing and the sleeve, the atomization core is arranged in the sleeve, and a liquid inlet hole communicating the atomization core and the liquid storage cavity is provided on the sleeve; characterized in that the atomizer comprises a vent tube sleeved between the sleeve and the atomization core, the vent tube being spaced apart from at least one of the sleeve or the atomization core to form a vent channel, wherein the vent channel is configured to be in communication with the liquid inlet hole and an outside.
A ready-to-use product comprising a composition comprising at least 18 gram (g) (dry weight) of fermented cereal; and at least 1 x 10 11 colony forming units (cfu) of Lactobacillus plantarum cells selected from Lactobacillus plantarum 299 and Lactobacillus plantarum 299v; for use in a method for the treatment of a patient suffering from Irritable Bowel Syndrome; wherein the treatment comprises a daily administration of the composition to the patient.
A hydrogen gas cooling method using a brine that is a non-evaporative antifreeze, the method comprising: a preparation step of preparing a heat exchanger including a stacked body in which a first layer in which a plurality of first flow passages that are fine flow passages are arranged and a second layer in which a plurality of second flow passages that are fine flow passages are arranged are stacked upon one another; and a cooling step in which a hydrogen gas is allowed to flow through each of the first flow passages while a brine having a temperature lower than the hydrogen gas is allowed to flow through each of the second flow passages to perform heat exchange between the hydrogen gas flowing through the first flow passages and the brine flowing through the second flow passages, thereby cooling the hydrogen gas, wherein in the cooling step, the hydrogen gas is allowed to flow through each of the first flow passages such that the hydrogen gas flowing through each of the first flow passages moves from one side to the other side in a particular direction orthogonal to a stacking direction of the first layer and the second layer while the brine is allowed to flow through each of the second flow passages such that the brine flowing through each of the second flow passages moves from the other side to the one side in the particular direction, and a temperature and a flow rate of the brine fed into each of the second flow passages are controlled such that the temperature of the brine at a feed-out port of the second flow passages is higher than a temperature of the hydrogen gas at a feed-out port of the first flow passages. a preparation step of preparing a heat exchanger including a stacked body in which a first layer in which a plurality of first flow passages that are fine flow passages are arranged and a second layer in which a plurality of second flow passages that are fine flow passages are arranged are stacked upon one another; and a cooling step in which a hydrogen gas is allowed to flow through each of the first flow passages while a brine having a temperature lower than the hydrogen gas is allowed to flow through each of the second flow passages to perform heat exchange between the hydrogen gas flowing through the first flow passages and the brine flowing through the second flow passages, thereby cooling the hydrogen gas, wherein in the cooling step, the hydrogen gas is allowed to flow through each of the first flow passages such that the hydrogen gas flowing through each of the first flow passages moves from one side to the other side in a particular direction orthogonal to a stacking direction of the first layer and the second layer while the brine is allowed to flow through each of the second flow passages such that the brine flowing through each of the second flow passages moves from the other side to the one side in the particular direction, and a temperature and a flow rate of the brine fed into each of the second flow passages are controlled such that the temperature of the brine at a feed-out port of the second flow passages is higher than a temperature of the hydrogen gas at a feed-out port of the first flow passages.