mhurhangee/patent-ind-claim-en huggingface dataset:
A stable and lyophilized pharmaceutical agent containing nocathiacin, prepared by lyophilizing a liquid formulation of nocathiacin, a stabilizer, an excipient, a pH regulator and injectable water, wherein the stabilizer is selected from polyethylene glycol, polysorbate or a mixture thereof, and the pH value of the liquid formulation ranges from 1.0 to 6.0, wherein the percentage of weight against volume of the nocathiacin to the liquid formulation is 0.005%-2%, and wherein the percentage of weight against volume of the stabilizer to the liquid formulation is 6%-30%.
A locomotive controller comprising: an input device, a display and a processor for driving the display and receiving inputs from the input device, wherein the processor is adapted to determine a location of a train on a track and to drive the display to show the location of the train on the track, characterised in that the processor is further adapted to determine stopping distances relative to the present location of the train on the track and to drive the display to show simultaneously indicia (E, F, S) of the location on the track of stopping distances relative to the present location of the train on the track for an emergency brake application (ES), a full service brake application (FS) and a controlled stop brake application (STOP). an input device, a display and a processor for driving the display and receiving inputs from the input device, wherein the processor is adapted to determine a location of a train on a track and to drive the display to show the location of the train on the track, characterised in that the processor is further adapted to determine stopping distances relative to the present location of the train on the track and to drive the display to show simultaneously indicia (E, F, S) of the location on the track of stopping distances relative to the present location of the train on the track for an emergency brake application (ES), a full service brake application (FS) and a controlled stop brake application (STOP).
An electronic vaporizer device body , configured to be used in combination with an electronic vaporizer , wherein the electronic vaporizer device body comprises: a power supply, configured to supply power; an airflow sensor ; and a main control circuit , configured to activate the airflow sensor after detecting first level information, wherein the first level information is generated when the electronic vaporizer device body being in combination with the electronic vaporizer , characterized in that , the electronic vaporizer device body further comprising: an acceleration sensor , electrically connected to the main control circuit , wherein the main control circuit is further configured to activate the acceleration sensor after detecting the first level information. a power supply, configured to supply power; an airflow sensor ; and a main control circuit , configured to activate the airflow sensor after detecting first level information, wherein the first level information is generated when the electronic vaporizer device body being in combination with the electronic vaporizer , characterized in that , the electronic vaporizer device body further comprising: an acceleration sensor , electrically connected to the main control circuit , wherein the main control circuit is further configured to activate the acceleration sensor after detecting the first level information.
A selective laser melting additive manufacturing apparatus comprising a build chamber , a build platform lowerable in the build chamber such that layers of powder can be successively formed across the build platform , a laser for generating a laser beam , a scanning unit for directing the laser beam onto each layer to selectively solidify the powder and a processor for controlling the scanning unit , the processor arranged to control the scanning unit to direct the laser beam to solidify a selected area of a layer of powder by:- irradiating sections of the selected area with the laser beam such that each irradiated section is allowed to solidify before an adjacent section is irradiated with the or another laser beam , and solidifying the sections non-continuously and in an order such that consecutively solidified sections (201a;201b, 210;211) are spaced apart, wherein each section is sub-millimetre sized such that irradiation of the section with the laser beam results in a melt pool extending across the entire section and the powder is a metal.
Sprinkler for a fire-extinguishing system, having a sprinkler body , in which an extinguishing-agent channel is formed, having a spray plate , having a first web and a second web , which extend between the sprinkler body and the spray plate , having a plug , which in a standby state of the sprinkler closes off an outlet of the extinguishing-agent channel , wherein the plug defines a plane which includes a right angle with the extinguishing-agent channel , and having an expulsion element , wherein the expulsion element engages at a first end with the plug and at a second end with a counterbearing , which is formed on the sprinkler body , so as to direct the expulsion movement of the plug by way of a pivoting action, wherein the expulsion element is in the form of a spring element which, in a standby state of the sprinkler, is subjected to load and which is formed from a bent spring wire, wherein the second end of the expulsion element abuts against the counterbearing and has a bent portion which is guided over the counterbearing , wherein the counterbearing is separate from the webs and defines a pivot axis for the pivoting action, wherein the pivot axis includes an angle with the plane of the plug , wherein the counterbearing is arranged on the sprinkler body adjacent to the second web , wherein, between the counterbearing and the first web , there is kept free a region which is available for the expulsion movement of the plug , and wherein, in relation to the axis of the extinguishing-agent channel , the angular position of the second web in the plane of the plug differs by less than 60° from the angular position of the pivot axis in the plane of the plug .
Process for producing a coating source for physical vapour deposition, where the coating source comprises at least - a target layer consisting of an at least two-phase composite which contains a metallic phase (M) and at least one further phase (P), - a mechanical stabilizing layer which is joined to the target layer on one side of the target layer , characterized in that a first powder mixture which corresponds in terms of its composition to the at least two-phase composite and a second powder mixture which corresponds in terms of its composition to the mechanical stabilizing layer are hot pressed in superposed layers by axially compressing the powders in a pressing tool at temperatures which are such that sintering of the powder to form a solid body occurs. - a target layer consisting of an at least two-phase composite which contains a metallic phase (M) and at least one further phase (P), - a mechanical stabilizing layer which is joined to the target layer on one side of the target layer ,
A bathtub, comprising: a bathtub body and a cover body provided at an inner bottom face of the bathtub body , wherein a water passing gap is provided between the cover body and the inner bottom face of the bathtub body ; and the bathtub further comprises: a drainage component , wherein the drainage component has a water outlet port covered by the cover body , and water in the bathtub body flows to the water outlet port through the water passing gap for drainage; and/or a water inlet component , wherein the water inlet component has a water inlet port covered by the cover body , and water flows from the water inlet port into the bathtub body through the water passing gap , wherein the entire cover body is located within a range of the inner bottom face of the bathtub body , characterised in that the cover body is located at a center of the inner bottom face of the bathtub body , and the water passing gap is formed at an outer circumference of the cover body . a drainage component , wherein the drainage component has a water outlet port covered by the cover body , and water in the bathtub body flows to the water outlet port through the water passing gap for drainage; and/or a water inlet component , wherein the water inlet component has a water inlet port covered by the cover body , and water flows from the water inlet port into the bathtub body through the water passing gap , wherein the entire cover body is located within a range of the inner bottom face of the bathtub body , characterised in that the cover body is located at a center of the inner bottom face of the bathtub body , and the water passing gap is formed at an outer circumference of the cover body .
A multi-slot gas wiping device for controlling the thickness of a molten metallic coating on a moving metal strip, comprising • a nozzle system with a primary nozzle with a first elongated opening and two auxiliary nozzles each with an auxiliary elongated opening, wherein the primary nozzle and auxiliary nozzles are parallelly arranged, and • wherein the nozzle system comprises two nozzle components that are mirror images of each other and are attached together with a shim , thereby defining the first elongated opening with a gap width d, and • wherein each nozzle component comprises an inner part and an outer part , defining the auxiliary elongated openings with a gap width d a , and • wherein each inner part comprises an inner nozzle lip and two outer ends at the inner nozzle lip thereby forming an envelope and • wherein each outer part comprises an outer nozzle lip , two outer ends at the outer nozzle lip and a plurality of supports , wherein the plurality of supports are integrated in the outer nozzle lips with a perpendicular orientation to the outer nozzle lip and to a nozzle opening. • a nozzle system with a primary nozzle with a first elongated opening and two auxiliary nozzles each with an auxiliary elongated opening, wherein the primary nozzle and auxiliary nozzles are parallelly arranged, and • wherein the nozzle system comprises two nozzle components that are mirror images of each other and are attached together with a shim , thereby defining the first elongated opening with a gap width d, and • wherein each nozzle component comprises an inner part and an outer part , defining the auxiliary elongated openings with a gap width d a , and • wherein each inner part comprises an inner nozzle lip and two outer ends at the inner nozzle lip thereby forming an envelope and • wherein each outer part comprises an outer nozzle lip , two outer ends at the outer nozzle lip and a plurality of supports , wherein the plurality of supports are integrated in the outer nozzle lips with a perpendicular orientation to the outer nozzle lip and to a nozzle opening. • wherein each inner part comprises an inner nozzle lip and two outer ends at the inner nozzle lip thereby forming an envelope and • wherein each outer part comprises an outer nozzle lip , two outer ends at the outer nozzle lip and a plurality of supports , wherein the plurality of supports are integrated in the outer nozzle lips with a perpendicular orientation to the outer nozzle lip and to a nozzle opening.
A valve assembly for a braking system, comprising: - a valve body , which at least partially delimits a master cylinder side opening , at least one caliper side opening , and at least one valve pipe , which puts said master cylinder side opening and said caliper side opening into fluid communication; - a shutter element housed in said valve pipe ; wherein said caliper side opening is fluidically opposite to said master cylinder side opening with respect to said shutter element ; and wherein said shutter element comprises a shutter body which is movable with respect to the valve body between: - a valve closing position, wherein said shutter body abuts against a first abutment portion of the valve body , - and at least one valve opening position, wherein said shutter body , moved away from said first abutment portion of the valve body , delimits with said valve body at least one main fluid passage which laps on said shutter body ; and wherein, when said shutter body is in the valve closing position, it interrupts said at least one main fluid passage and defines a master cylinder side pipe stretch facing said master cylinder side opening and a caliper side pipe stretch facing said caliper side opening in said valve pipe ; and wherein said shutter body at least partially delimits at least one secondary fluid passage , so that, when said shutter body is in valve closing position, said caliper side pipe stretch is in fluid communication with said master cylinder side pipe stretch only through said secondary fluid passage ; and wherein said at least one secondary fluid passage is a through hole made in said shutter body . - a valve body , which at least partially delimits a master cylinder side opening , at least one caliper side opening , and at least one valve pipe , which puts said master cylinder side opening and said caliper side opening into fluid communication; - a shutter element housed in said valve pipe ; - a valve closing position, wherein said shutter body abuts against a first abutment portion of the valve body , - and at least one valve opening position, wherein said shutter body , moved away from said first abutment portion of the valve body , delimits with said valve body at least one main fluid passage which laps on said shutter body ;
An information processing device comprising: an acquisition unit configured to acquire a series of images captured by an imaging unit in accordance with a predetermined operation mode on the basis of a first instruction from an external device connected via a network (n11); and a transmission control unit configured to transmit a series of thumbnail images corresponding to the series of images to the external device via the network, wherein the transmission control unit transmits at least some of the series of images to the external device via the network in accordance with a second instruction from the external device to which the series of thumbnail images has been transmitted, wherein the predetermined operation mode is a mode in which a moving image is captured as the series of images, the acquisition unit acquires the moving image captured by the imaging unit, and characterised in that the transmission control unit transmits the thumbnail images of at least some image frames in the moving image as the series of thumbnail images to the external device via the network, wherein the transmission control unit receives designation of at least some of the thumbnail images among the series of thumbnail images from the external device to which the series of thumbnail images has been transmitted, extracts a part of the moving image including the image frames corresponding to the at least some of the thumbnail images from the moving image, and transmits the extracted part of the moving image to the external device via the network. an acquisition unit configured to acquire a series of images captured by an imaging unit in accordance with a predetermined operation mode on the basis of a first instruction from an external device connected via a network (n11); and a transmission control unit configured to transmit a series of thumbnail images corresponding to the series of images to the external device via the network, wherein the transmission control unit transmits at least some of the series of images to the external device via the network in accordance with a second instruction from the external device to which the series of thumbnail images has been transmitted, wherein the predetermined operation mode is a mode in which a moving image is captured as the series of images, the acquisition unit acquires the moving image captured by the imaging unit, and characterised in that the transmission control unit transmits the thumbnail images of at least some image frames in the moving image as the series of thumbnail images to the external device via the network, wherein the transmission control unit receives designation of at least some of the thumbnail images among the series of thumbnail images from the external device to which the series of thumbnail images has been transmitted, extracts a part of the moving image including the image frames corresponding to the at least some of the thumbnail images from the moving image, and transmits the extracted part of the moving image to the external device via the network.
A window mounting assembly having a foam bezel defining an inner opening and including a radially inner wall and a radially outer wall comprising: a channel defined in the radially inner wall ; and an electrochromic element disposed in the inner opening and configured for reception in the channel of the radially inner wall ; characterized in that an electrically conductive member formed from a foam material is operably coupled with the foam bezel , the electrically conductive member extending from the inner wall to the outer wall . a channel defined in the radially inner wall ; and an electrochromic element disposed in the inner opening and configured for reception in the channel of the radially inner wall ; characterized in that an electrically conductive member formed from a foam material is operably coupled with the foam bezel , the electrically conductive member extending from the inner wall to the outer wall .
Method for producing a motor vehicle, wherein the motor vehicle as a body shell comprises a platform made of metal and a body made of metal which is fitted on the platform , characterized in that a main floor module , comprising a main floor of the body shell and at least one drive-specific component , is produced separately from the rest of the body shell , i.e. separately from the platform and separately from the body , and is then fastened to the already dip coated platform and/or to the already dip coated body .
A compound for use in the prevention or the treatment of multiple system atrophy (MSA), wherein the compound is represented by the following formula (I) wherein R 1 is selected from the group consisting of -H and halo, a is 0, 1, 2, or 3, and preferably 0 or 1 R 2 is selected from the group consisting of-H and -(C 1 -C 6 )alkyl, R 3 and R 4 are independently selected from the group consisting of -H, -OH, - (C 1 -C 6 )alkyl, and -(C 1 -C 6 )-hydroxyalkyl, or R 3 and R 4 taken together are =O, or R 2 and R 3 together with the nitrogen atom and carbon atom they are attached to form a 6-membered heterocyclic ring which is optionally substituted, R 5 and R 6 are independently selected from the group consisting of-H and -(C 1 -C 6 )alkyl, or R 5 and R 6 taken together form a carbon-carbon bond, or a pharmaceutically acceptable salt thereof, wherein the alkyl and hydroxyalkyl groups are optionally substituted and wherein the compound is not vinpocetine. R 1 is selected from the group consisting of -H and halo, a is 0, 1, 2, or 3, and preferably 0 or 1 R 2 is selected from the group consisting of-H and -(C 1 -C 6 )alkyl, R 3 and R 4 are independently selected from the group consisting of -H, -OH, - (C 1 -C 6 )alkyl, and -(C 1 -C 6 )-hydroxyalkyl, or R 3 and R 4 taken together are =O, or R 2 and R 3 together with the nitrogen atom and carbon atom they are attached to form a 6-membered heterocyclic ring which is optionally substituted, R 5 and R 6 are independently selected from the group consisting of-H and -(C 1 -C 6 )alkyl, or R 5 and R 6 taken together form a carbon-carbon bond, or a pharmaceutically acceptable salt thereof, wherein the alkyl and hydroxyalkyl groups are optionally substituted and wherein the compound is not vinpocetine.
A filter cable, comprising a core wire; wherein the core wire comprises an insulating substrate and a first conductor layer surrounding the insulating substrate ; the first conductor layer has a first etching pattern distributed along the axial direction of the filter cable; and the first etching pattern is used to make the filter cable equivalent to a first filter circuit to realize the filtering function, characterized in that the insulating substrate is arranged at the radial center of the core wire.
Dimming apparatus for controlling the output of an alternating current-operated lighting apparatus with - a control facility (6 to 9 and 13) for operating the lighting apparatus by means of phase angle control, wherein - the control facility (6 to 9 and 13) possesses a bidirectional switch, which has two switching facilities , for applying a supply alternating voltage to the lighting apparatus , wherein - the control facility (6 to 9 and 13) is embodied to switch on the two switching facilities together on every half-wave of the supply alternating voltage, characterised in that - the control facility (6 to 9 and 13) is embodied to switch off one of the two switching facilities before an anticipated current zero crossing, wherein the control facility (6 to 9 and 13) is designed to trigger the switching off of the one switching facility as a function of a most recently determined current zero crossing or as a function of a voltage zero crossing of the supply voltage, - a measurement facility (10 to 12) is connected to the control facility (6 to 9 and 13) to measure a voltage at the switched-off switching facility, and - the control facility (6 to 9 and 13) is embodied to determine a current zero crossing for the phase angle control on the basis of the measured voltage. - a control facility (6 to 9 and 13) for operating the lighting apparatus by means of phase angle control, wherein - the control facility (6 to 9 and 13) possesses a bidirectional switch, which has two switching facilities , for applying a supply alternating voltage to the lighting apparatus , wherein - the control facility (6 to 9 and 13) is embodied to switch on the two switching facilities together on every half-wave of the supply alternating voltage, - the control facility (6 to 9 and 13) is embodied to switch off one of the two switching facilities before an anticipated current zero crossing, wherein the control facility (6 to 9 and 13) is designed to trigger the switching off of the one switching facility as a function of a most recently determined current zero crossing or as a function of a voltage zero crossing of the supply voltage, - a measurement facility (10 to 12) is connected to the control facility (6 to 9 and 13) to measure a voltage at the switched-off switching facility, and - the control facility (6 to 9 and 13) is embodied to determine a current zero crossing for the phase angle control on the basis of the measured voltage.
Apparatus for mixing two or more components (A, B), in particular of a plastics mixture, comprising a mixing chamber , which is received in a frame-fixed manner in a housing and has at least two feed channels via which the components to be mixed are able to be fed into the mixing chamber , a mixing element , which is arranged in the mixing chamber and is rotatable by way of a first motor via a drive shaft , and a stroke device , by means of which the mixing element within the mixing chamber is movable in an axial direction relative to the mixing chamber from a release position into a closed position for the purpose of closing off an outlet opening arranged in the movement path of the mixing element , characterized in that the drive shaft has a first, motor-side shaft portion and a second, mixing-head-side shaft portion , which are coupled to one another in a rotationally conjoint manner via a compensation element , said compensation element comprising resiliently elastic means which push the first, motor-side shaft portion away from the second, mixing-head-side shaft portion .