mhurhangee/patent-ind-claim-en huggingface dataset:
A side channel compressor for compressing a gas, a) with a housing , b) with at least one impeller which is arranged in the housing and which can be driven rotatably about a central axis , and c) with at least one sealing arrangement arranged in the housing , said sealing arrangement having i) at least one sealing device , which - seals at least one gap between the housing and the at least one impeller , and - presses radially outwards relative to the central axis to keep the at least one gap small, and ii) at least one sealing device holding device , which - holds the at least one sealing device in an axially fixed manner relative to the central axis , and - has at least one holding base body , characterised in that the at least one sealing device holding apparatus has at least one elastic protrusion which protrudes from the at least one holding base body radially relative to the central axis and which i) is supported against the housing , and ii) presses the at least one sealing device radially outwards relative to the central axis . a) with a housing , b) with at least one impeller which is arranged in the housing and which can be driven rotatably about a central axis , and c) with at least one sealing arrangement arranged in the housing , said sealing arrangement having i) at least one sealing device , which - seals at least one gap between the housing and the at least one impeller , and - presses radially outwards relative to the central axis to keep the at least one gap small, and ii) at least one sealing device holding device , which - holds the at least one sealing device in an axially fixed manner relative to the central axis , and - has at least one holding base body , characterised in that the at least one sealing device holding apparatus has at least one elastic protrusion which protrudes from the at least one holding base body radially relative to the central axis and which i) is supported against the housing , and ii) presses the at least one sealing device radially outwards relative to the central axis . i) at least one sealing device , which - seals at least one gap between the housing and the at least one impeller , and - presses radially outwards relative to the central axis to keep the at least one gap small, and - seals at least one gap between the housing and the at least one impeller , and - presses radially outwards relative to the central axis to keep the at least one gap small, and ii) at least one sealing device holding device , which - holds the at least one sealing device in an axially fixed manner relative to the central axis , and - has at least one holding base body , - holds the at least one sealing device in an axially fixed manner relative to the central axis , and - has at least one holding base body , i) is supported against the housing , and ii) presses the at least one sealing device radially outwards relative to the central axis .
A method of operating a wireless device in a communication network, the method comprising: receiving a scheduling message including a Downlink Control Indication, DCI, that includes a schedule identifying a plurality of transmission blocks, TBs; determining a quantity of the plurality of TBs that are identified in the DCI; determining a quantity of Hybrid Automatic Repeat Request Acknowledgement, HARQ ACKs in an ACK bundle identified in the DCI; and dynamically generating an acknowledgement timer value that corresponds to the quantity of the plurality of TBs and the quantity of HARQ ACKs in the ACK bundle, characterized in that the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + N ∗ m in which N is a Physical Uplink Control Channel, PUCCH, repetition factor, and m is the number of HARQ ACK bundles identified in the scheduling message, and wherein m is generated as ceil(l/i) in which 1 is the quantity of the plurality of TBs identified in the scheduling message and i is the quantity of HARQ ACKs per ACK bundle. receiving a scheduling message including a Downlink Control Indication, DCI, that includes a schedule identifying a plurality of transmission blocks, TBs; determining a quantity of the plurality of TBs that are identified in the DCI; determining a quantity of Hybrid Automatic Repeat Request Acknowledgement, HARQ ACKs in an ACK bundle identified in the DCI; and dynamically generating an acknowledgement timer value that corresponds to the quantity of the plurality of TBs and the quantity of HARQ ACKs in the ACK bundle, characterized in that the acknowledgement timer value comprises a Hybrid Automatic Repeat Request Round Trip Time, HARQ RTT, timer value that is generated as 7 + N ∗ m in which N is a Physical Uplink Control Channel, PUCCH, repetition factor, and m is the number of HARQ ACK bundles identified in the scheduling message, and wherein m is generated as ceil(l/i) in which 1 is the quantity of the plurality of TBs identified in the scheduling message and i is the quantity of HARQ ACKs per ACK bundle.
A video generation system, comprising: a processing device ; a generation device , wherein the processing device and generation device are computer devices configured to be operated by an operator or a commentator; a game device configured to output, to the generation device , game video that is subject of live commentary and, to the processing device , game data that comprises a position coordinate of an object in a game and information in accordance with the state and progress of the game; and a display device , wherein the processing device is configured to: continuously receive the game data in real time from the game device ; and process the game data into a predetermined format, and wherein the generation device is configured to: acquire the processed game data from the processing device ; and generate commentary content to be composited with the game video using the processed game data in response to operation input by the commentator, and composite the commentary content with the game video continuously inputted from the game device at a position synchronized with the position coordinate, the composited video outputted by the generation device being displayed by the display device . a processing device ; a generation device , wherein the processing device and generation device are computer devices configured to be operated by an operator or a commentator; a game device configured to output, to the generation device , game video that is subject of live commentary and, to the processing device , game data that comprises a position coordinate of an object in a game and information in accordance with the state and progress of the game; and a display device , wherein the processing device is configured to: continuously receive the game data in real time from the game device ; and process the game data into a predetermined format, and wherein continuously receive the game data in real time from the game device ; and process the game data into a predetermined format, and wherein the generation device is configured to: acquire the processed game data from the processing device ; and generate commentary content to be composited with the game video using the processed game data in response to operation input by the commentator, and composite the commentary content with the game video continuously inputted from the game device at a position synchronized with the position coordinate, the composited video outputted by the generation device being displayed by the display device . acquire the processed game data from the processing device ; and generate commentary content to be composited with the game video using the processed game data in response to operation input by the commentator, and composite the commentary content with the game video continuously inputted from the game device at a position synchronized with the position coordinate, the composited video outputted by the generation device being displayed by the display device .
Laser microscope for examining a sample , having a laser light source , which generates laser light pulses , an optical element , which spectrally broadens the laser light pulses , and having a compensation device , in which components of the broadband laser light pulses , said components having different wavelengths, travel along different path lengths so that the different components are incident on the sample at the same time, characterized in that the compensation device comprises a reflector , an adjustment reflector , a beam splitter and a filter , wherein the components exit from the filter and are incident on the beam splitter , which deflects a second component of the components towards the adjustment reflector and transmits a first component of the components towards the reflector , wherein the first component traverses a first path length towards the reflector and the second component traverses a second path length and an adjustment path length towards the adjustment reflector , and the adjustment reflector is adjustable along the adjustment path length in such a way that the adjustment path length is settable between zero and a value greater than zero such that the first component and the second component are incident on the sample at the same time after passing through the beam splitter once again.
Mounting device for mounting and cooling of at least one plug-in module which, for its operation, can be inserted into a corresponding mounting space of the mounting device and, during its operation, generates heat losses (Q) which are transported via one or more heat pipes attached to the plug-in module to at least one heat sink of the mounting device .
A trajectory tracking system for an obstacle warning radar, the system comprising: a set of dynamic models , one per expected obstacle type, of an expected trajectory of a point of normal incidence, PNI, per expected obstacle; a trajectory database to store trajectories for a current set of obstacles being tracked; a trajectory handler at least to associate incoming detections to existing trajectories and to update said existing trajectories, said trajectory handler comprising a matchmaker to grow, freeze, kill and start trajectories according to said incoming detections and to generate new trajectories from said dynamic models for said incoming detections not associated with an existing trajectory; a parameter extractor to periodically extract parameters from said trajectories; and a classifier to classify obstacles associated with said trajectories at least based on said parameters of said trajectories and on a dynamic model from said set of dynamic models to which said trajectory is matched. a set of dynamic models , one per expected obstacle type, of an expected trajectory of a point of normal incidence, PNI, per expected obstacle; a trajectory database to store trajectories for a current set of obstacles being tracked; a trajectory handler at least to associate incoming detections to existing trajectories and to update said existing trajectories, said trajectory handler comprising a matchmaker to grow, freeze, kill and start trajectories according to said incoming detections and to generate new trajectories from said dynamic models for said incoming detections not associated with an existing trajectory; a parameter extractor to periodically extract parameters from said trajectories; and a classifier to classify obstacles associated with said trajectories at least based on said parameters of said trajectories and on a dynamic model from said set of dynamic models to which said trajectory is matched.
A rotor assembly for an adjustable fluid flow control device, the rotor assembly comprising: a base comprising a central vertical axis; two magnets mounted in the base, each magnet comprising a planar surface; wherein each of the two magnets are embedded in the base such that the planar surface of each magnet lies in a plane substantially perpendicular to the central vertical axis; and wherein each magnet comprises an angle of polarization greater than or equal to 0° and less than 90° relative to the central vertical axis. a base comprising a central vertical axis; two magnets mounted in the base, each magnet comprising a planar surface; wherein each of the two magnets are embedded in the base such that the planar surface of each magnet lies in a plane substantially perpendicular to the central vertical axis; and wherein each magnet comprises an angle of polarization greater than or equal to 0° and less than 90° relative to the central vertical axis.
Use of a biocatalyst solvent for dissolving and storing a biocatalyst while retaining the biocatalytic activity of the biocatalyst in solution, the biocatalyst solvent consisting of an ionic liquid including an ammonium cation represented by the following Formula (I) and an anion: N + [R a ] n [R b ] 4-n (I) wherein R a each independently represents a branched hydroxyalkyl group represented by the following formula: wherein R 11 represents a hydrogen atom, a linear alkyl group having 1 to 3 carbon atoms, or a linear monohydroxyalkyl group having 1 to 3 carbon atoms; R b each independently represents a hydrogen atom; and n represents an integer from 1 to 3, wherein the anion of the ionic liquid is at least one selected from the group consisting of a carboxylate anion, a sulfur-based anion and a phosphate anion, and wherein the sulfur-based anion is selected the group consisting of sulfate anion, hydrogen sulfate anion, an alkylsulfonate anion and an alkylsulfate anion. wherein R 11 represents a hydrogen atom, a linear alkyl group having 1 to 3 carbon atoms, or a linear monohydroxyalkyl group having 1 to 3 carbon atoms; R b each independently represents a hydrogen atom; and n represents an integer from 1 to 3, wherein the anion of the ionic liquid is at least one selected from the group consisting of a carboxylate anion, a sulfur-based anion and a phosphate anion, and wherein the sulfur-based anion is selected the group consisting of sulfate anion, hydrogen sulfate anion, an alkylsulfonate anion and an alkylsulfate anion.
Flat composite material made of layers of at least one transparent crystalline inorganic material integrally bonded, by means of edge joining, to at least one layer made of at least one amorphous inorganic material, wherein the edges of the amorphous inorganic material and of the crystalline inorganic material lie against one another and the amorphous inorganic material is located between the edges of the crystalline inorganic material, wherein the at least one transparent crystalline inorganic material is selected from oxides of the compounds comprising Al and/or Mg and/or yttrium, nitrides, oxynitrides or sulfides of aluminum or silicon; oxides from zirconium and/or yttrium; aluminum oxynitride, zinc sulfide; silicon carbide, boron carbide, boron nitride, carbon, lanthanum-doped lead zirconate titanate or fluoride from Ca and/or Mg and/or aluminum with up to 5% dopants from the group of lanthanides or actinides or iron or non-ferrous metals or mixtures thereof, and the width of the at least one layer of the at least one amorphous inorganic material between two crystalline inorganic layers is > 0.1 mm and < 5 mm.
A method for producing a traffic area or road traffic area , particularly in the course of restoring or retrofitting an already existing traffic area (existing roadway), wherein at least one precast concrete slab is deposited on an installation substructure , wherein a plurality of installation elements are encased in the precast concrete slab , wherein the installation elements respectively have on the one hand at least one filling channel , which extends through the precast concrete slab and serves for filling or pressing in a grouting material , and on the other hand at least one adjusting element for the height adjustment of the precast concrete slab , wherein the height adjustment is carried out with the adjusting elements after depositing the precast concrete slab on the installation substructure by respectively adjusting the vertical distance a of the precast concrete slab from the installation substructure , and wherein grouting material is pressed into the intermediate space between the precast concrete slab and the installation substructure through the filling channels , characterized in that at least one grouting material channel and preferably at least two grouting material channels for distributing the grouting material are provided in the underside of a precast concrete slab facing the installation substructure, wherein a mixture of at least two components is used as grouting material , and wherein one component is an organic polymer and one component is an inorganic silicon compound. wherein the height adjustment is carried out with the adjusting elements after depositing the precast concrete slab on the installation substructure by respectively adjusting the vertical distance a of the precast concrete slab from the installation substructure , and wherein grouting material is pressed into the intermediate space between the precast concrete slab and the installation substructure through the filling channels , characterized in that at least one grouting material channel and preferably at least two grouting material channels for distributing the grouting material are provided in the underside of a precast concrete slab facing the installation substructure, wherein a mixture of at least two components is used as grouting material , and wherein one component is an organic polymer and one component is an inorganic silicon compound.
A method for producing a cast wheel for a straddled vehicle, comprising: a casting step (S1) of forming, by casting, an intermediate product including a ring-shaped rim , a hub located inner to the rim and a plurality of spokes coupling the rim and the hub to each other; and a cutting step (S2) of performing a cutting process on the intermediate product after the casting step (S1), wherein the intermediate product formed in the casting step (S1) further includes a plurality of plate-like connection portions each connecting two spokes adjacent to each other among the plurality of spokes , characterized in that in the casting step (S1), portions of a cavity that correspond to the plate-like connection portions are used as a molten metal passage, and wherein the plurality of plate-like connection portions are removed in the cutting step (S2). a casting step (S1) of forming, by casting, an intermediate product including a ring-shaped rim , a hub located inner to the rim and a plurality of spokes coupling the rim and the hub to each other; and a cutting step (S2) of performing a cutting process on the intermediate product after the casting step (S1), wherein the intermediate product formed in the casting step (S1) further includes a plurality of plate-like connection portions each connecting two spokes adjacent to each other among the plurality of spokes , characterized in that in the casting step (S1), portions of a cavity that correspond to the plate-like connection portions are used as a molten metal passage, and wherein the plurality of plate-like connection portions are removed in the cutting step (S2).
A method for connecting a mobile device with a vehicle-based system , wherein the vehicle based system comprises a first device and a second device that are configured to provide disparate functions to a passenger of the vehicle-based system and that are both in possession of a same system key, and wherein the first device , for an initial connection request to connect between the first device and the mobile device initiated by a user, has provided a token pair comprising a plaintext token including a timestamp and an encrypted token, the encrypted token having been generated by the first device , by providing the same system key and the plaintext token including the timestamp to a one-way algorithm, the encrypted token having been generated if the initial connection request has been accepted subject to a first user query for accepting or not accepting the request to connect with the first device, the first user query being adapted to ensure that the mobile device and the user are authorized to connect with the first device , the method comprising: receiving , for a subsequent connection request with the second device and from the mobile device, the token pair comprising the plaintext token including the timestamp and the encrypted token; checking the timestamp for expiry; verifying , by the second device , the received token pair by providing the same system key and the received plaintext token including the timestamp to the one-way algorithm thereby generating an encrypted token and subsequently comparing the generated encrypted token with the received encrypted token; and accepting the subsequent connection upon successful verification of the token pair and if the timestamp is not expired and performing the subsequent connection without generating any user query or by generating a second user query requiring less user interaction than the first user query, and further generating a new token pair having a new timestamp and transmitting the new token pair to the mobile device, if the timestamp is not expired. receiving , for a subsequent connection request with the second device and from the mobile device, the token pair comprising the plaintext token including the timestamp and the encrypted token; checking the timestamp for expiry; verifying , by the second device , the received token pair by providing the same system key and the received plaintext token including the timestamp to the one-way algorithm thereby generating an encrypted token and subsequently comparing the generated encrypted token with the received encrypted token; and accepting the subsequent connection upon successful verification of the token pair and if the timestamp is not expired and performing the subsequent connection without generating any user query or by generating a second user query requiring less user interaction than the first user query, and further generating a new token pair having a new timestamp and transmitting the new token pair to the mobile device, if the timestamp is not expired.