mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for atomic scale processing, comprising: a reactor having inner and outer surfaces; wherein at least a portion of the inner surfaces define an internal volume of the reactor; a fixture assembly positioned within the internal volume of the reactor and having a surface configured to hold a substrate within the internal volume of the reactor; a process gas source ; and an inductively coupled plasma source ; wherein the inductively coupled plasma source and the reactor are connected at a first connection point ; wherein the first connection point comprises a first elastomeric seal and a second elastomeric seal spaced apart from the first elastomeric seal to define a first volume therebetween; wherein the apparatus for atomic scale processing is configured such that, in use, the first volume is a vacuum, or the first volume is actively purged and/or backfilled with a process gas, wherein the process gas source and the inductively coupled plasma source are connected at a second connection point ; wherein the second connection point comprises a third elastomeric seal and a fourth elastomeric seal spaced apart from the third elastomeric seal to define a second volume therebetween; and wherein the apparatus for atomic scale processing is configured such that, in use, the second volume is a vacuum, or the second volume is actively purged and/or backfilled with a process gas. a reactor having inner and outer surfaces; wherein at least a portion of the inner surfaces define an internal volume of the reactor; a fixture assembly positioned within the internal volume of the reactor and having a surface configured to hold a substrate within the internal volume of the reactor; a process gas source ; and an inductively coupled plasma source ; wherein the inductively coupled plasma source and the reactor are connected at a first connection point ; wherein the first connection point comprises a first elastomeric seal and a second elastomeric seal spaced apart from the first elastomeric seal to define a first volume therebetween; wherein the apparatus for atomic scale processing is configured such that, in use, the first volume is a vacuum, or the first volume is actively purged and/or backfilled with a process gas, wherein the process gas source and the inductively coupled plasma source are connected at a second connection point ; wherein the second connection point comprises a third elastomeric seal and a fourth elastomeric seal spaced apart from the third elastomeric seal to define a second volume therebetween; and wherein the apparatus for atomic scale processing is configured such that, in use, the second volume is a vacuum, or the second volume is actively purged and/or backfilled with a process gas.
An apparatus for the electrochemical production of hydrogen gas from salt water, the apparatus comprising: a plurality of cathodes; at least one anode spaced apart from the plurality of cathodes by a defined distance; cathode end connectors for electrically connecting each cathode to a negative terminal of a direct current electrical power supply; an anode end connector for electrically connecting the anode to a positive terminal of a direct current electrical power supply; wherein each cathode comprises a paramagnetic material and the at least one anode comprises a diamagnetic material; wherein the diamagnetic material is Zn64, Zn66, Zn67, Zn68 or Zn70; and wherein the distance between the anode and each cathode is equal to the radius of the anode x 3 to 3.2. a plurality of cathodes; at least one anode spaced apart from the plurality of cathodes by a defined distance; cathode end connectors for electrically connecting each cathode to a negative terminal of a direct current electrical power supply; an anode end connector for electrically connecting the anode to a positive terminal of a direct current electrical power supply; wherein each cathode comprises a paramagnetic material and the at least one anode comprises a diamagnetic material; wherein the diamagnetic material is Zn64, Zn66, Zn67, Zn68 or Zn70; and wherein the distance between the anode and each cathode is equal to the radius of the anode x 3 to 3.2.
A self-driving transport vehicle for transporting people, comprising: a chassis , which extends in a driving direction with respect to its length and extends transversely to the driving direction with respect to its width , wherein at least three wheels are arranged on the chassis , which wheels ; in an unsteered state; are oriented in the driving direction ; an energy provision device , which is accommodated in the chassis ; a lifting device , which is coupled with the chassis ; a transport platform , which is displaceable, by means of the lifting device , between a lowered position and a raised position in a vertical direction relative to the chassis , wherein the transport platform is displaceable between a receiving position and a transport position in the driving direction relative to the chassis and a drive device for displacement of the transport platform in the driving direction is formed, characterized in that a cockpit for controlling the self-driving transport vehicle is arranged on the transport platform and that the transport platform , when in the receiving position , can be lowered to the ground in front of or behind the chassis when viewed in the driving direction . a chassis , which extends in a driving direction with respect to its length and extends transversely to the driving direction with respect to its width , wherein at least three wheels are arranged on the chassis , which wheels ; in an unsteered state; are oriented in the driving direction ; an energy provision device , which is accommodated in the chassis ; a lifting device , which is coupled with the chassis ; a transport platform , which is displaceable, by means of the lifting device , between a lowered position and a raised position in a vertical direction relative to the chassis , wherein the transport platform is displaceable between a receiving position and a transport position in the driving direction relative to the chassis and a drive device for displacement of the transport platform in the driving direction is formed, characterized in that a cockpit for controlling the self-driving transport vehicle is arranged on the transport platform and that the transport platform , when in the receiving position , can be lowered to the ground in front of or behind the chassis when viewed in the driving direction .
Method for producing a liner web from a fibrous material suspension, which is at least partially produced from waste paper as fibrous raw material, comprising the following steps: a. feeding waste paper into a processing plant for generation of a waste paper stream ; b. dividing the waste paper stream into a short-fibre stream and into a long-fibre stream in a fractionation operation; c. feeding the short-fibre stream into a short-fibre stacking tower and further into a mixing chest; d. feeding the long-fibre stream into a long-fibre stacking tower; e. thickening the long-fibre stream to a first consistency downstream of the long-fibre stacking tower; f. refining the long-fibre stream having the first consistency by means of a high consistency refining operation; g. feeding the long-fibre stream into the mixing chest; h. guiding the fibrous suspension from the mixing chest through the approach flow section to a paper machine for formation of a liner web in a web running direction; i. drying the liner web in a drying section, said drying promoting shrinkage and preferably being able to be profiled transversely with respect to the web running direction; j. rolling up the liner web. a. feeding waste paper into a processing plant for generation of a waste paper stream ; b. dividing the waste paper stream into a short-fibre stream and into a long-fibre stream in a fractionation operation; c. feeding the short-fibre stream into a short-fibre stacking tower and further into a mixing chest; d. feeding the long-fibre stream into a long-fibre stacking tower; e. thickening the long-fibre stream to a first consistency downstream of the long-fibre stacking tower; f. refining the long-fibre stream having the first consistency by means of a high consistency refining operation; g. feeding the long-fibre stream into the mixing chest; h. guiding the fibrous suspension from the mixing chest through the approach flow section to a paper machine for formation of a liner web in a web running direction; i. drying the liner web in a drying section, said drying promoting shrinkage and preferably being able to be profiled transversely with respect to the web running direction; j. rolling up the liner web.
A system comprising a medical implant , the implant comprising: a tether , having an end portion ; and a winch , comprising: a driver interface , engageable and drivable by a transcatheterally-advanceable driver , a mount , coupled to the driver interface such that driving of the driver interface by the driver rotates the mount about a rotation axis (d48), and a spool : defining a longitudinal spool axis (d50), coupled to the tether , the tether extending away from the winch toward the end portion , and fixedly coupled to the mount such that: rotation of the mount about the rotation axis (d48) draws the end portion of the tether toward the spool by winding the tether around the longitudinal spool axis (d50) of the spool , and the longitudinal spool axis (d50) is non-coaxial with the rotation axis (d48). a tether , having an end portion ; and a winch , comprising: a driver interface , engageable and drivable by a transcatheterally-advanceable driver , a mount , coupled to the driver interface such that driving of the driver interface by the driver rotates the mount about a rotation axis (d48), and a spool : defining a longitudinal spool axis (d50), coupled to the tether , the tether extending away from the winch toward the end portion , and fixedly coupled to the mount such that: rotation of the mount about the rotation axis (d48) draws the end portion of the tether toward the spool by winding the tether around the longitudinal spool axis (d50) of the spool , and the longitudinal spool axis (d50) is non-coaxial with the rotation axis (d48). a driver interface , engageable and drivable by a transcatheterally-advanceable driver , a mount , coupled to the driver interface such that driving of the driver interface by the driver rotates the mount about a rotation axis (d48), and a spool : defining a longitudinal spool axis (d50), coupled to the tether , the tether extending away from the winch toward the end portion , and fixedly coupled to the mount such that: rotation of the mount about the rotation axis (d48) draws the end portion of the tether toward the spool by winding the tether around the longitudinal spool axis (d50) of the spool , and the longitudinal spool axis (d50) is non-coaxial with the rotation axis (d48). defining a longitudinal spool axis (d50), coupled to the tether , the tether extending away from the winch toward the end portion , and fixedly coupled to the mount such that: rotation of the mount about the rotation axis (d48) draws the end portion of the tether toward the spool by winding the tether around the longitudinal spool axis (d50) of the spool , and the longitudinal spool axis (d50) is non-coaxial with the rotation axis (d48). rotation of the mount about the rotation axis (d48) draws the end portion of the tether toward the spool by winding the tether around the longitudinal spool axis (d50) of the spool , and the longitudinal spool axis (d50) is non-coaxial with the rotation axis (d48).
A method for increasing the content of thiol precursors in grapes comprising applying an effective amount of a glutathione-enriched yeast, an active glutathione-enriched yeast, an inactivated glutathione-enriched yeast, a glutathione-enriched yeast extract, a glutathione-enriched yeast autolysate, glutathione-enriched yeast cell walls, or a combination thereof to the grapes and foliage after fruit set thereby giving grapes an increased content of thiol precursors compared to untreated grapes, wherein the thiol precursors are: (i) selected from the group consisting of cysteine-3M (S-3-(hexan-1-ol)-L-cysteine), cysteinyl-glycine-3M (3-S-cysteinylglycinehexan-1-ol), gamma-glutamyl-cysteine-3MH (S-3-(hexan-1-ol)-gamma-glutamyl-cysteine), glutathione-3MH (S-(3-hexan-1-ol)-glutathione), Cys-4MMP (4-(4-methylpentan-2-one)-L-cysteine), CysGly-4MMP precursor (S-4-mercapto-4-methylpentan-2-one-1-cysteinyl-glycine), gamma GluCys-4MMP precursor (S-4-mercapto-4-methylpentan-2-one-N-(L-gamma-glutamyl)-L-cysteine), Glut-4MMP precursor (S-4-(4-methylpentan-2-one)-glutathione), and combinations thereof, optionally wherein the thiol precursor is glutathione-3MH (S-(3-hexan-1-ol)-glutathione) and/or Cys-4MMP (4-(4-methylpentan-2-one)-L-cysteine); and/or (ii) the precursors of volatile thiol 3-mercaptohexan-1-ol and/or volatile thiol 4-mercapto-4-methylpentan-2-one . (i) selected from the group consisting of cysteine-3M (S-3-(hexan-1-ol)-L-cysteine), cysteinyl-glycine-3M (3-S-cysteinylglycinehexan-1-ol), gamma-glutamyl-cysteine-3MH (S-3-(hexan-1-ol)-gamma-glutamyl-cysteine), glutathione-3MH (S-(3-hexan-1-ol)-glutathione), Cys-4MMP (4-(4-methylpentan-2-one)-L-cysteine), CysGly-4MMP precursor (S-4-mercapto-4-methylpentan-2-one-1-cysteinyl-glycine), gamma GluCys-4MMP precursor (S-4-mercapto-4-methylpentan-2-one-N-(L-gamma-glutamyl)-L-cysteine), Glut-4MMP precursor (S-4-(4-methylpentan-2-one)-glutathione), and combinations thereof, optionally wherein the thiol precursor is glutathione-3MH (S-(3-hexan-1-ol)-glutathione) and/or Cys-4MMP (4-(4-methylpentan-2-one)-L-cysteine); and/or (ii) the precursors of volatile thiol 3-mercaptohexan-1-ol and/or volatile thiol 4-mercapto-4-methylpentan-2-one .
A wireless communication method which is applied to a terminal device in a connected state and comprises: receiving, by the terminal device, first indication information sent by a network device, wherein the first indication information is used to indicate whether change indication information of a system broadcast exists in a paging message, and the change indication information is used to indicate a change in the system broadcast; and determining, by the terminal device, not to receive the paging message sent by the network device when the first indication information indicates that the change indication information does not exist in the paging message; wherein the receiving, by the terminal device, first indication information sent by a network device comprises: receiving, by the terminal device, a physical downlink control channel, PDCCH, sent by the network device, wherein the PDCCH comprises the first indication information and scheduling information, and the scheduling information is used to indicate a resource position of the paging message in a physical downlink shared channel, PDSCH. receiving, by the terminal device, first indication information sent by a network device, wherein the first indication information is used to indicate whether change indication information of a system broadcast exists in a paging message, and the change indication information is used to indicate a change in the system broadcast; and determining, by the terminal device, not to receive the paging message sent by the network device when the first indication information indicates that the change indication information does not exist in the paging message; wherein the receiving, by the terminal device, first indication information sent by a network device comprises: receiving, by the terminal device, a physical downlink control channel, PDCCH, sent by the network device, wherein the PDCCH comprises the first indication information and scheduling information, and the scheduling information is used to indicate a resource position of the paging message in a physical downlink shared channel, PDSCH.
A medical X-ray CT imaging apparatus (10; 110) comprising: an X-ray generator (22; 126) that generates a cone beam; an X-ray detector (24;128); a support (20;124) (20;124) that supports said X-ray generator (22;126) and said X-ray detector (24;128) while said X-ray generator (22;126) and said X-ray detector (24;128) are opposed to each other; a turning drive unit (30;130) that turns said X-ray generator (22;126) and said X-ray detector (24;128), which are supported by said support (20; 124); an imaging information receiving unit (40;152c) that receives a setting of an imaging area relating to at least one of a size of said imaging area, an imaging purpose, and an imaging region; and an X-ray output condition setting unit (60;152d) that automatically sets an output condition of said X-ray generator (22; 126) according to said setting of said imaging area which is received by said imaging information receiving unit (40;152c), characterized in that said imaging information receiving unit (40;152c) is adapted to receive settings of a first imaging area and a second imaging area as said setting relating to said size of said imaging area, said second imaging area being wider than said first imaging area, and wherein said X-ray output condition setting unit (60;152d) automatically sets at least one setting value defining a first output condition and a second output condition such that a dose based on said second output condition corresponding to said size of said second imaging area is smaller than a dose based on said first output condition corresponding to said size of said first imaging area. an X-ray generator (22; 126) that generates a cone beam; an X-ray detector (24;128); a support (20;124) (20;124) that supports said X-ray generator (22;126) and said X-ray detector (24;128) while said X-ray generator (22;126) and said X-ray detector (24;128) are opposed to each other; a turning drive unit (30;130) that turns said X-ray generator (22;126) and said X-ray detector (24;128), which are supported by said support (20; 124); an imaging information receiving unit (40;152c) that receives a setting of an imaging area relating to at least one of a size of said imaging area, an imaging purpose, and an imaging region; and an X-ray output condition setting unit (60;152d) that automatically sets an output condition of said X-ray generator (22; 126) according to said setting of said imaging area which is received by said imaging information receiving unit (40;152c), characterized in that said imaging information receiving unit (40;152c) is adapted to receive settings of a first imaging area and a second imaging area as said setting relating to said size of said imaging area, said second imaging area being wider than said first imaging area, and wherein said X-ray output condition setting unit (60;152d) automatically sets at least one setting value defining a first output condition and a second output condition such that a dose based on said second output condition corresponding to said size of said second imaging area is smaller than a dose based on said first output condition corresponding to said size of said first imaging area.
Method for controlling a filling process of a motor vehicle tank , the method comprising the following method steps: - Determine a geographic location of the motor vehicle tank; - determining, by means of the tank control device, whether the geographical position of the motor vehicle tank is within a predetermined geographical area; characterized by the method step: - Determining a shutdown fill volume dependent on the geographical position of the motor vehicle tank, if the geographical position of the motor vehicle tank is within the predetermined geographical area. - Determine a geographic location of the motor vehicle tank; - determining, by means of the tank control device, whether the geographical position of the motor vehicle tank is within a predetermined geographical area; characterized by the method step: - Determining a shutdown fill volume dependent on the geographical position of the motor vehicle tank, if the geographical position of the motor vehicle tank is within the predetermined geographical area.
A method for forming in situ a boron nitride reaction product locally on a reinforcement phase of a ceramic matrix composite material, said method comprising: providing a ceramic matrix composite material having a fiber reinforcement material; and forming in situ a layer of boron nitride on the fiber reinforcement material, wherein said forming step comprises providing a B4C material and a Si3N4 material and heating said B4C material and said Si3N4 material to a temperature above 1200 degrees Centigrade and said B4C material and said Si3N4 material providing step comprises depositing said Si3N4 material onto said fiber reinforcement material and providing said B4C material as filler particles in a ceramic composite material matrix surrounding said fiber reinforcement material and said B4C material being located immediately adjacent the fiber reinforcement material. providing a ceramic matrix composite material having a fiber reinforcement material; and forming in situ a layer of boron nitride on the fiber reinforcement material, wherein said forming step comprises providing a B4C material and a Si3N4 material and heating said B4C material and said Si3N4 material to a temperature above 1200 degrees Centigrade and said B4C material and said Si3N4 material providing step comprises depositing said Si3N4 material onto said fiber reinforcement material and providing said B4C material as filler particles in a ceramic composite material matrix surrounding said fiber reinforcement material and said B4C material being located immediately adjacent the fiber reinforcement material.
Latent heat storage material for ultra-cold applications, comprising at least one lithium salt, at least one solvent and at least one nucleating agent, wherein the at least one nucleating agent is selected from one or a combination of sodium carbonate, lithium carbonate, potassium carbonate, barium fluoride, sodium nitrate, and/or lithium hydroxide.
Trapidil, deuterated Trapidil, or a pharmaceutically acceptable salt thereof, for use in treatment or prevention of levodopa-induced dyskinesia in a subject.