mhurhangee/patent-ind-claim-en huggingface dataset:
A method of monitoring a conveyance apparatus within a conveyance system , wherein the conveyance system is an elevator system and the conveyance apparatus is an elevator car or wherein the conveyance system is an escalator system and the conveyance apparatus is a moving stair, the method comprising: detecting a vibratory signature at a primary location in the conveyance system during a commissioning phase using a primary sensing apparatus located at the primary location ; detecting a vibratory signature at a secondary location in the conveyance system during the commissioning phase using a secondary sensing apparatus located at the secondary location; determining a transfer algorithm in response to the vibratory signature at the primary location during the commissioning phase and the vibratory signature at the secondary location during the commissioning phase; detecting a vibratory signature at the primary location during a normal operation phase using the primary sensing apparatus located at the primary location ; and converting the vibratory signature at the primary location during the normal operation phase to a vibratory signature at the secondary location during the normal operation phase using the transfer algorithm . detecting a vibratory signature at a primary location in the conveyance system during a commissioning phase using a primary sensing apparatus located at the primary location ; detecting a vibratory signature at a secondary location in the conveyance system during the commissioning phase using a secondary sensing apparatus located at the secondary location; determining a transfer algorithm in response to the vibratory signature at the primary location during the commissioning phase and the vibratory signature at the secondary location during the commissioning phase; detecting a vibratory signature at the primary location during a normal operation phase using the primary sensing apparatus located at the primary location ; and converting the vibratory signature at the primary location during the normal operation phase to a vibratory signature at the secondary location during the normal operation phase using the transfer algorithm .
An apparatus, wherein the apparatus is a user equipment or device controlling the functioning of the user equipment , the apparatus comprising: - means for determining a beam failure detection reference signal configuration for a dormant bandwidth part based on a beam failure detection reference signal configuration of another bandwidth part when a frequency domain location and bandwidth of said another bandwidth part correspond to or comprises a frequency domain location and bandwidth of the dormant bandwidth part; and - means for performing beam failure detection on the dormant bandwidth part according to the determined beam failure detection reference signal configuration. - means for determining a beam failure detection reference signal configuration for a dormant bandwidth part based on a beam failure detection reference signal configuration of another bandwidth part when a frequency domain location and bandwidth of said another bandwidth part correspond to or comprises a frequency domain location and bandwidth of the dormant bandwidth part; and - means for performing beam failure detection on the dormant bandwidth part according to the determined beam failure detection reference signal configuration.
Stator of a dry vacuum pump , the vacuum pump having at least two rotors capable of rotating in a synchronized manner in opposite directions in a central housing of the stator to drive a gas to be pumped between a suction inlet and a delivery outlet of the stator , characterized in that the stator comprises: - an outside part of the stator made of cast iron containing less than 5% nickel, and - a stator insert wherein is arranged the central housing configured to receive the rotors of the vacuum pump , the stator insert containing at least 10% nickel, - the outside part of the stator having been cast on the stator insert . - an outside part of the stator made of cast iron containing less than 5% nickel, and - a stator insert wherein is arranged the central housing configured to receive the rotors of the vacuum pump , the stator insert containing at least 10% nickel, - the outside part of the stator having been cast on the stator insert .
A platform (110; 210; 310; 410; 510) for an airfoil in a gas turbine engine , the platform comprising: a top wall (411; 511) defining a front end (216; 316; 416) and a rear end (220; 320; 420) of the platform and configured to connect to an airfoil of the gas turbine engine; two sidewalls (432; 532) extending downward from the top wall, the two sidewalls connecting the top wall with a first connector (218; 318; 418) and a second connector (222; 322; 422; 522), wherein the top wall, the sidewalls, and the first and second connectors define an interior volume of the platform; and a single stiffener (436; 536) extending from the first and second connectors to the top wall within the interior volume between the two sidewalls, characterised in that the first connector defines a first aperture (424a; 524a) parallel to and positioned side-by-side with a second aperture (424b; 524b), the first and second apertures defined in the first connector passing through the first connector, the second connector defines a first aperture (426a; 526a) parallel to and positioned side-by-side with a second aperture (426b; 526b), the first and second apertures defined in the second connector passing through the second connector, wherein the first aperture (424a; 524a) defined in the first connector is axially aligned with the first aperture (426a; 526a) defined in the second connector, and wherein the second aperture (424b; 524b) defined in the first connector is axially aligned with the second aperture (426b; 526b) defined in the second connector. a top wall (411; 511) defining a front end (216; 316; 416) and a rear end (220; 320; 420) of the platform and configured to connect to an airfoil of the gas turbine engine; two sidewalls (432; 532) extending downward from the top wall, the two sidewalls connecting the top wall with a first connector (218; 318; 418) and a second connector (222; 322; 422; 522), wherein the top wall, the sidewalls, and the first and second connectors define an interior volume of the platform; and a single stiffener (436; 536) extending from the first and second connectors to the top wall within the interior volume between the two sidewalls, characterised in that the first connector defines a first aperture (424a; 524a) parallel to and positioned side-by-side with a second aperture (424b; 524b), the first and second apertures defined in the first connector passing through the first connector, the second connector defines a first aperture (426a; 526a) parallel to and positioned side-by-side with a second aperture (426b; 526b), the first and second apertures defined in the second connector passing through the second connector, wherein the first aperture (424a; 524a) defined in the first connector is axially aligned with the first aperture (426a; 526a) defined in the second connector, and wherein the second aperture (424b; 524b) defined in the first connector is axially aligned with the second aperture (426b; 526b) defined in the second connector.
A laminating machine , wherein the laminating machine has at least one material source for material to be laminated, and wherein the laminating machine has at least one laminating unit , and wherein the laminating machine has at least one lamination source (320; 330) for at least one web-type laminating material (321; 331), and wherein the axial direction (A) is oriented orthogonally to every transport direction of the material web , characterized in that at least two different webbing-up means (342; 343), each of which is movable along at least one respective webbing-up path (344; 346) for webbing up different laminating materials (321; 331), are and/or can be arranged at least intermittently at least within the laminating unit , and in that a first webbing-up path associated with a first webbing-up means is associated with a first lamination source and a second webbing-up path associated with a second webbing-up means is associated with a second lamination source , and in that the first webbing-up path and the second webbing-up path are associated with the same laminating unit , and in that at least parts of the respective at least one webbing-up path (344; 346) are spaced by a distance of at least 1 cm with respect to an axial direction (A) from every component of a transport path provided for the at least one laminating material (321; 331) within the laminating unit , and in that the respective webbing-up paths (344; 346) of the at least two different webbing-up means (342; 343) are arranged spaced from one another in the axial direction (A).
A pressure tank for use in a modular tank system, the pressure tank comprises a pressure vessel and a protection frame within which the pressure vessel and a tank process line are arranged, the pressure vessel comprises a vent outlet and a first inlet , wherein ∘ the vent outlet is arranged in an upper half of the pressure vessel, the first inlet is arranged in a lower half of the pressure vessel and fluidly connected to the tank process line , characterized in that the tank process line comprises a first fluid connector and a second fluid connector on opposite ends of the tank process line , and the tank process line is arranged such that the first fluid connector of the tank process line is arranged at a bottom section of the pressure tank and the second fluid connector of the tank process line is arranged at a top section of the pressure tank. characterized in that the tank process line comprises a first fluid connector and a second fluid connector on opposite ends of the tank process line , and the tank process line is arranged such that the first fluid connector of the tank process line is arranged at a bottom section of the pressure tank and the second fluid connector of the tank process line is arranged at a top section of the pressure tank.
Method for minimizing a deviation of a physical parameter of a blow-molded container from a target value, the method comprising: - determining a physical parameter of a container assigned to a machine parameter value of a blow molding machine, - based on the physical parameter and the target value, determining a change in a machine parameter , - based on an iteration process , determining an optimal machine parameter value for achieving a minimum deviation from the target value of the physical parameter of a blow-molded container, the iteration process comprising a - first iteration step for determining a deviation from the target value of the physical parameter of a blow-molded container based on the change in the machine parameter value, and a - second iteration step for determining an adjusted change in a machine parameter value based on the determined deviation of the physical parameter of a blow-molded container from the target value, - obtaining the optimal machine parameter value; the method furthermore comprising controlling the blow molding machine based on the obtained optimal machine parameter value. - determining a physical parameter of a container assigned to a machine parameter value of a blow molding machine, - based on the physical parameter and the target value, determining a change in a machine parameter , - based on an iteration process , determining an optimal machine parameter value for achieving a minimum deviation from the target value of the physical parameter of a blow-molded container, the iteration process comprising a - first iteration step for determining a deviation from the target value of the physical parameter of a blow-molded container based on the change in the machine parameter value, and a - second iteration step for determining an adjusted change in a machine parameter value based on the determined deviation of the physical parameter of a blow-molded container from the target value, - obtaining the optimal machine parameter value;
A method for presenting a physical environment in a virtual environment, the method comprising: presenting a virtual environment to a user with a near-eye display ; imaging a physical environment of the user; positioning a passthrough portal in the virtual environment; fixing a position of the passthrough portal in the virtual environment relative to the physical environment; presenting a video feed of the physical environment in the passthrough portal in the virtual environment; environment; characterized by further comprising: changing an orientation of the passthrough portal relative to the physical environment as a point of view of the user changes relative to the physical environment, so that a centerpoint of the passthrough portal remains in a fixed position relative to the physical environment while the passthrough portal is oriented normal to a ray cast from the point of view of the near-eye display; and, further comprising expanding the video feed from the passthrough portal with a full field of vision, FOV, of the near-eye display by toggling between the passthrough portal element in the virtual environment and the full FOV upon detecting an interaction with the portal, to allow a user to maintain awareness of a region of the physical environment. presenting a virtual environment to a user with a near-eye display ; imaging a physical environment of the user; positioning a passthrough portal in the virtual environment; fixing a position of the passthrough portal in the virtual environment relative to the physical environment; changing an orientation of the passthrough portal relative to the physical environment as a point of view of the user changes relative to the physical environment, so that a centerpoint of the passthrough portal remains in a fixed position relative to the physical environment while the passthrough portal is oriented normal to a ray cast from the point of view of the near-eye display; and, further comprising expanding the video feed from the passthrough portal with a full field of vision, FOV, of the near-eye display by toggling between the passthrough portal element in the virtual environment and the full FOV upon detecting an interaction with the portal, to allow a user to maintain awareness of a region of the physical environment.
A kit for making a hydrogel, the kit comprising: a first part that includes a first solution comprising an aldehyde component comprising at least one of (i) a first polymer component comprising a first polymer having one or more aldehydes, and (ii) a second polymer component having a first polymer backbone comprising at least two first alkylene portions that independently include 2 to 8 adjacent carbon atoms that are substituted with polyethylene glycol having a terminal aldehyde group, wherein the at least two first alkylene portions are separated from each other by a first spacer portion of the first polymer backbone, the first spacer portion comprising at least two carbon atoms that are not substituted with polyethylene glycol; and a second part that includes a second solution comprising an amine component having the following structure: wherein m is 3 to 600, Y is a single bond or an alkylene group, and Z is an amine. a first part that includes a first solution comprising an aldehyde component comprising at least one of (i) a first polymer component comprising a first polymer having one or more aldehydes, and (ii) a second polymer component having a first polymer backbone comprising at least two first alkylene portions that independently include 2 to 8 adjacent carbon atoms that are substituted with polyethylene glycol having a terminal aldehyde group, wherein the at least two first alkylene portions are separated from each other by a first spacer portion of the first polymer backbone, the first spacer portion comprising at least two carbon atoms that are not substituted with polyethylene glycol; and a second part that includes a second solution comprising an amine component having the following structure: wherein m is 3 to 600, Y is a single bond or an alkylene group, and Z is an amine.
System comprising a bend stiffener and an umbilical intended for the production of oil and gas from a platform, said umbilical comprising a center tube and said bend stiffener surrounding an upper part (I) of said center tube , said upper part (I) extending downwardly from an upper extremity of said center tube , characterized in that the center tube is a steel tube and the longitudinal cross section of said upper part (I) of said center tube is made corrugated, so that said center tube gets less stiff and fatigue strain on non-corrugated parts of said center tube is avoided.
An apparatus configured to mount a windshield to a vehicle, the apparatus comprising: a foam configured to be positioned between the windshield and a frame of the vehicle along at least a portion of an interior perimeter of the windshield, characterized by one or more rigid components configured to move towards a location of an impact to compress the foam when the windshield is deformed by the impact, wherein the one or more rigid components are positioned at least partially within the foam, and an attachment component configured to attach the foam to the frame of the vehicle. a foam configured to be positioned between the windshield and a frame of the vehicle along at least a portion of an interior perimeter of the windshield, characterized by one or more rigid components configured to move towards a location of an impact to compress the foam when the windshield is deformed by the impact, wherein the one or more rigid components are positioned at least partially within the foam, and an attachment component configured to attach the foam to the frame of the vehicle.
Rotor for a reluctance machine comprising a cylindrical soft-magnetic element, wherein the soft-magnetic element is constructed from rotor laminations which have cutouts for forming flux barriers , wherein one or more flux barriers is/are at least partially filled with a filler material, which filler material of these flux barriers reaches the rotor periphery and forms a portion of the rotor periphery, characterized in that the flux barriers of the rotor are at least partially filled with the filler material in such a way that a radially inner rotor region with unfilled flux barrier regions or unfilled flux barriers and a radially outer region with filled flux barrier regions or flux barriers are produced, wherein one or more flux barriers is/are divided into two or more by one or more webs , wherein at least some of these webs have a curved edge which adjoins the flux barrier , in particular an arcuate edge.
An automatic medication injection device comprising: a user grippable housing having a length extending in an axial direction between a proximal end and a distal end ; a container of medication including an outlet that is disposed proximally of said housing proximal end at least during injection, said container including a barrel and a sealing plunger , said sealing plunger in sealing engagement with said barrel; a drive mechanism within said housing which when triggered automatically advances said container of medication within said housing and advances said sealing plunger proximally within said container to force medication from the outlet, said drive mechanism including an advancing portion that inserts within said barrel; a plurality of sound elements located on said advancing portion; and a plate-shaped clip defined by a curved body including at least one actuating element extending inward from the curved body, the at least one actuating element movable axially within said housing with said container of medication, said at least one actuating element arranged to engage said plurality of sound elements to generate audible notices as said advancing portion moves past said at least one actuating element when advancing said sealing plunger for an injection. a user grippable housing having a length extending in an axial direction between a proximal end and a distal end ; a container of medication including an outlet that is disposed proximally of said housing proximal end at least during injection, said container including a barrel and a sealing plunger , said sealing plunger in sealing engagement with said barrel; a drive mechanism within said housing which when triggered automatically advances said container of medication within said housing and advances said sealing plunger proximally within said container to force medication from the outlet, said drive mechanism including an advancing portion that inserts within said barrel; a plurality of sound elements located on said advancing portion; and a plate-shaped clip defined by a curved body including at least one actuating element extending inward from the curved body, the at least one actuating element movable axially within said housing with said container of medication, said at least one actuating element arranged to engage said plurality of sound elements to generate audible notices as said advancing portion moves past said at least one actuating element when advancing said sealing plunger for an injection.
A method for operating a wireless device , comprising: establishing a radio resource control, RRC, connection with a first base station according to a first radio access technology, RAT; and providing an indication of radio frequency, RF, capability information for the wireless device to the first base station , receiving a dual connectivity cellular communication configuration for the wireless device determined by the first base station based at least in part on the indication of the RF capability information for the wireless device , wherein the indication of RF capability information for the wireless device comprises an indication that the wireless device has a single transmitter configuration for cellular communication, wherein the dual connectivity cellular communication configuration comprises dual connectivity uplink carriers in a same frequency band being configured for the wireless device . establishing a radio resource control, RRC, connection with a first base station according to a first radio access technology, RAT; and providing an indication of radio frequency, RF, capability information for the wireless device to the first base station , receiving a dual connectivity cellular communication configuration for the wireless device determined by the first base station based at least in part on the indication of the RF capability information for the wireless device , wherein the indication of RF capability information for the wireless device comprises an indication that the wireless device has a single transmitter configuration for cellular communication, wherein the dual connectivity cellular communication configuration comprises dual connectivity uplink carriers in a same frequency band being configured for the wireless device .