mhurhangee/patent-ind-claim-en huggingface dataset:
Device for machining of, in particular elongated, workpieces for forming grooves or groove-like surface structurings in the surface of the workpiece, comprising: - a machining unit for machining of, in particular elongated, workpieces and - a feed device, which can be or is coupled to the machining unit and is adapted to realise a feed of the machining unit along the surface of a workpiece to be machined, wherein the machining unit comprises -- a housing part , on or in which functional components of the machining unit are arranged or formed, -- a machining tool , wherein the machining tool is movable in a movement plane (E) in at least two different, combined movement paths, wherein the machining tool is movable in trochoidal or cycloid movements in the movement plane (E), wherein the machining tool is arranged in the housing part ; -- at least one drive unit , which is adapted for combined movement of the machining tool in a first movement path and in a second movement path different from the first movement path, wherein the at least one drive unit (4a - 4c) is arranged on or in the housing part , wherein the machining tool is movable relative to the housing part in the at least two different, combined movement paths, so that movements of the machining tool relative to a workpiece to be machined can take place independently or decoupled from movements of the overall machining unit relative to the workpiece to be machined; -- a control device , which is adapted to control the at least one drive unit to realise combined movements of the machining tool in the movement plane (E), wherein the combined movements are the trochoidal or cycloid movements of the machining tool in the movement plane (E). - a machining unit for machining of, in particular elongated, workpieces and - a feed device, which can be or is coupled to the machining unit and is adapted to realise a feed of the machining unit along the surface of a workpiece to be machined, wherein -- a housing part , on or in which functional components of the machining unit are arranged or formed, -- a machining tool , wherein the machining tool is movable in a movement plane (E) in at least two different, combined movement paths, wherein the machining tool is movable in trochoidal or cycloid movements in the movement plane (E), wherein -- at least one drive unit , which is adapted for combined movement of the machining tool in a first movement path and in a second movement path different from the first movement path, wherein -- a control device , which is adapted to control the at least one drive unit to realise combined movements of the machining tool in the movement plane (E), wherein the combined movements are the trochoidal or cycloid movements of the machining tool in the movement plane (E).
A dispense system comprising: a pipette-fillable fluid cartridge having one or more fluid chambers (54a~54f) therein and having an ejection head attached thereto, the ejection head containing a plurality of fluid ejectors thereon, wherein the fluid ejectors are in fluid flow communication with the one or more fluid chambers of the pipette-fillable fluid cartridge; a fluid detection circuit disposed on the ejection head and associated with at least one of the plurality of fluid ejectors for signaling the presence or absence of fluid in the one or more fluid chambers; and a processor disposed, configured with a fluid detect algorithm, wherein the processor is in electrical communication with the fluid detection circuit for activating an error signal in the absence of fluid, the dispense system being characterized in that the fluid detect algorithm is programmed to use (a) fluid conductivity data, (b) ejector thermal data, or a combination of (a) and (b) to determine if a fluid is present in the at least one fluid chamber (54a~54f), the fluid detect algorithm is programmed to (i) use fluid conductivity data initially and to (ii) use ejector thermal data if fluid is not found by (i). a pipette-fillable fluid cartridge having one or more fluid chambers (54a~54f) therein and having an ejection head attached thereto, the ejection head containing a plurality of fluid ejectors thereon, wherein the fluid ejectors are in fluid flow communication with the one or more fluid chambers of the pipette-fillable fluid cartridge; a fluid detection circuit disposed on the ejection head and associated with at least one of the plurality of fluid ejectors for signaling the presence or absence of fluid in the one or more fluid chambers; and a processor disposed, configured with a fluid detect algorithm, wherein the processor is in electrical communication with the fluid detection circuit for activating an error signal in the absence of fluid, the dispense system being characterized in that the fluid detect algorithm is programmed to use (a) fluid conductivity data, (b) ejector thermal data, or a combination of (a) and (b) to determine if a fluid is present in the at least one fluid chamber (54a~54f), the fluid detect algorithm is programmed to (i) use fluid conductivity data initially and to (ii) use ejector thermal data if fluid is not found by (i).
A method of introducing a donor nucleic acid into an isolated cell, the method comprising: administering to the cell at least one adeno-associated viral (AAV) vector comprising the donor nucleic acid in the presence of at least one inhibitor of Platelet-derived growth factor receptor, wherein the AAV vector comprises an AAV6 capsid. administering to the cell at least one adeno-associated viral (AAV) vector comprising the donor nucleic acid in the presence of at least one inhibitor of Platelet-derived growth factor receptor, wherein the AAV vector comprises an AAV6 capsid.
An adapter unit adapted to be mounted to a diagnostic instrument, the diagnostic instrument being configured to emit illumination light from an illumination output along a free-air illumination output path towards a target area for ophthalmic treatment, to receive light from the target area along a free-air viewing path and to provide a magnified view of the target area; wherein the adapter unit comprises: - a housing detachably mountable to the diagnostic instrument; - at least one treatment direct diode laser positioned within the housing , the direct diode laser comprising a treatment laser diode configured to emit light at a wavelength suitable for ophthalmic treatment in the wavelength range between 480 nm and 632 nm, - one or more optical elements configured to direct the emitted light as a treatment light beam along at least a portion of said free-air illumination output path and/or free-air viewing path when the housing is mounted to said diagnostic instrument ; wherein the one or more optical elements comprise a dichroic mirror operable to reflect the treatment light beam towards the target but to allow other visible wavelengths to pass; and wherein at least one of the optical elements is configured to extend into at least one of the free-air viewing path and the free-air illumination output path of the diagnostic instrument when the housing is mounted to said diagnostic instrument in an operational position; characterized in that the adapter unit further comprises: - a pilot laser diode , accommodated in the housing , wherein the pilot laser diode has a lower power than the treatment direct diode laser and is configured to emit a pilot light beam at a wavelength different from the wavelength of the treatment light beam. - a housing detachably mountable to the diagnostic instrument; - at least one treatment direct diode laser positioned within the housing , the direct diode laser comprising a treatment laser diode configured to emit light at a wavelength suitable for ophthalmic treatment in the wavelength range between 480 nm and 632 nm, - one or more optical elements configured to direct the emitted light as a treatment light beam along at least a portion of said free-air illumination output path and/or free-air viewing path when the housing is mounted to said diagnostic instrument ; wherein the one or more optical elements comprise a dichroic mirror operable to reflect the treatment light beam towards the target but to allow other visible wavelengths to pass; and wherein at least one of the optical elements is configured to extend into at least one of the free-air viewing path and the free-air illumination output path of the diagnostic instrument when the housing is mounted to said diagnostic instrument in an operational position; - a pilot laser diode , accommodated in the housing , wherein the pilot laser diode has a lower power than the treatment direct diode laser and is configured to emit a pilot light beam at a wavelength different from the wavelength of the treatment light beam.
A data processor (110/200) comprising: a memory accessing agent (210/220); and a memory controller (292/300/400/500) coupled to said memory accessing agent (210/220) and adapted to couple to a memory system comprising a first plurality of ranks characterised in that said memory controller (292/300/400/500) in response to detection of a first predetermined event selects an active rank of said first plurality of ranks while placing other ranks of said first plurality of ranks (134/136/138) besides said active rank in a low power state, wherein said other ranks include at least one rank with a pending request in a command queue of the memory controller at a time of said detection of said first predetermined event, and wherein said memory controller (292/300/400/500) subsequently processes at least one memory access request to said active rank. a memory accessing agent (210/220); and a memory controller (292/300/400/500) coupled to said memory accessing agent (210/220) and adapted to couple to a memory system comprising a first plurality of ranks characterised in that said memory controller (292/300/400/500) in response to detection of a first predetermined event selects an active rank of said first plurality of ranks while placing other ranks of said first plurality of ranks (134/136/138) besides said active rank in a low power state, wherein said other ranks include at least one rank with a pending request in a command queue of the memory controller at a time of said detection of said first predetermined event, and wherein said memory controller (292/300/400/500) subsequently processes at least one memory access request to said active rank.
A control plate (1800-1) for a high-conductance valve comprising: a control plate body formed as a circular disk having a flat side and an opposed side opposite the flat side, the control plate configured to be moved within a valve by an actuator, the flat side having a continuous uninterrupted flat portion configured to shut-off fluid flow in the valve; a plurality of radial fluid flow paths in the control plate body ; and a plurality of axial fluid flow paths in the control plate body ; wherein the axial fluid flow paths are configured for fluid communication with an intermediate valve chamber portion, characterized in that the control plate further comprises a counterbore in the control plate body , the counterbore being configured for fluid communication with a fluid conduit, wherein the plurality of radial fluid flow paths terminate in the counterbore and provide fluid communication from the counterbore to a circumferential perimeter of the control plate body . a control plate body formed as a circular disk having a flat side and an opposed side opposite the flat side, the control plate configured to be moved within a valve by an actuator, the flat side having a continuous uninterrupted flat portion configured to shut-off fluid flow in the valve; a plurality of radial fluid flow paths in the control plate body ; and a plurality of axial fluid flow paths in the control plate body ; wherein the axial fluid flow paths are configured for fluid communication with an intermediate valve chamber portion,
A removable cartridge cleaner assembly for conveyor belts , the removable cartridge cleaner assembly comprising: an elongate support assembly having a longitudinal axis ; an upper surface of the support assembly ; an elongate cartridge assembly having a longitudinal axis; an elongate rail member of the cartridge assembly including legs depending therefrom having a space therebetween; securing portions of one of the support assembly and cartridge assembly which extend transversely to the longitudinal axes of the support assembly and the cartridge assembly ; openings of the other of the support assembly and cartridge assembly receiving the securing portions , a biasing surface of at least one of the openings extending obliquely to the longitudinal axes ; and a belt cleaner assembly secured to the cartridge assembly , characterized in that the biasing surface is arranged and configured to urge the rail member legs into tight engagement with the support assembly upper surface as an incident of sliding the legs of the rail member on the upper surface of the support assembly along the longitudinal axis thereof to shift the cartridge assembly to an operative supported position on the support assembly , to minimize the accumulation of debris in the space between the legs and between the legs and the support assembly upper surface .
An anode comprising a current collector and a film of a material of an anode , characterized in that it comprises further a first protective film and a second protective film , wherein the first protective film is deposited on the current collector , the film of the material of the anode is deposited on the first protective film , and the second protective film is deposited on the film of the material of the anode ; and the anode material is a mixture comprising an active material , at least one electronic conduction agent and a binder ; wherein the active material is an alloy of silicon and lithium or an alloy of oxide of silicon and lithium; and wherein the protective film comprises a protective material comprising at least one electronic conduction agent and a binder .
An RFID device comprising: a case including a rotation mechanism ; an antenna disposed in the case; and a cylindrical power receiving coil disposed in the case away from the antenna and extending in an axial direction of the rotation mechanism , and connected to a power receiver configured to charge a battery ; wherein the case includes a third housing having a shaft portion as the rotation mechanism and a first housing having a tubular shape disposed coaxially with the shaft portion, the antenna and the cylindrical power receiving coil being disposed in the first housing . a case including a rotation mechanism ; an antenna disposed in the case; and a cylindrical power receiving coil disposed in the case away from the antenna and extending in an axial direction of the rotation mechanism , and connected to a power receiver configured to charge a battery ; wherein the case includes a third housing having a shaft portion as the rotation mechanism and a first housing having a tubular shape disposed coaxially with the shaft portion, the antenna and the cylindrical power receiving coil being disposed in the first housing .
Fuel cell apparatus, in particular tubular fuel cell apparatus, comprising a fuel cell unit (12a, 50a; 12b, 50b) which delimits at least one gas chamber (14a, 52a; 14b, 52b), which is provided for receiving at least one reactant in at least one operating state, at least substantially on all sides, wherein the fuel cell unit (12a, 50a; 12b, 50b) comprises at least one mounting foot (28a, 54a; 28b, 54b) which, at least in a mounted state, is provided for at least partially forming at least one duct (30a; 30b) which is provided at least for carrying gas, characterized in that the mounting foot has at least one open duct section (76a, 78a; 76b, 78b) which, in a mounted state, is supplemented by at least one further mounting foot of at least one further fuel cell unit and/or by at least one mounting plate to form a duct which is closed in the circumferential direction.
Wearable breathing protection device for protecting a wearer from contact with contaminated ambient air, wherein fresh breathing air can be supplied to the breathing protection device via an air line that is connected to an air supply system having an overpressure, wherein the breathing air flows out of a body (1 - 1d) connected to the air line , which body has at least one defined outflow surface for the breathing air, the body (1 - 1d) is made of air-permeable sintered material in the region of the outflow surface , and the body (1 - 1d) is penetrated by an air duct which extends from the first end of the body (1 - 1d) to a second end which is situated at least approximately opposite the first end , characterized in that the body (1 - 1d) performs a filtration function, and that the air duct runs near a surface of the body (1 - 1d) that is far away from the outflow surface of the body (1 - 1d).
A communication apparatus comprising: a sending unit configured to send, in order to cause a plurality of communication apparatuses (101-107) other than the communication apparatus to send data in one or more communication channels (300-1, 300-2, 300-3, 300-4), a trigger frame including information of a plurality of resource units splitting the one or more communication channels in a frequency domain; and a receiving unit configured to receive data from the plurality of communication apparatuses having responded to the trigger frame sent by the sending unit, wherein the trigger frame includes, for each of the plurality of resource units , information indicating an access category specified in the IE E E 802.11 series standard, and wherein the trigger frame is a trigger frame compliant with the IEEE802.11ax standard. a sending unit configured to send, in order to cause a plurality of communication apparatuses (101-107) other than the communication apparatus to send data in one or more communication channels (300-1, 300-2, 300-3, 300-4), a trigger frame including information of a plurality of resource units splitting the one or more communication channels in a frequency domain; and a receiving unit configured to receive data from the plurality of communication apparatuses having responded to the trigger frame sent by the sending unit, wherein the trigger frame includes, for each of the plurality of resource units , information indicating an access category specified in the IE E E 802.11 series standard, and wherein the trigger frame is a trigger frame compliant with the IEEE802.11ax standard.
A computer-implemented method to construct extended image gathers from surface seismic reflection data, the method comprising: retrieving from the surface seismic reflection data up-going and down-going fields at a first target depth level and at a second target depth level by redatuming, wherein the redatuming is accomplished by Marchenko redatuming, the up-going and down-going fields are reflection and transmission responses at the first and second target depth levels and the first and second target depth levels enclose the subsurface volume of interest; using the up-going and down-going fields as input fields to construct a Target-Enclosing Extended Image (TEEI) system comprising TEEI gathers, wherein the TEEI gathers correspond to virtual sources and receivers for retrieving local reflection and local transmission responses at the first and second target depth levels; and performing multidimensional deconvolution to retrieve the TEEI gathers from the input fields. retrieving from the surface seismic reflection data up-going and down-going fields at a first target depth level and at a second target depth level by redatuming, wherein the redatuming is accomplished by Marchenko redatuming, the up-going and down-going fields are reflection and transmission responses at the first and second target depth levels and the first and second target depth levels enclose the subsurface volume of interest; using the up-going and down-going fields as input fields to construct a Target-Enclosing Extended Image (TEEI) system comprising TEEI gathers, wherein the TEEI gathers correspond to virtual sources and receivers for retrieving local reflection and local transmission responses at the first and second target depth levels; and performing multidimensional deconvolution to retrieve the TEEI gathers from the input fields.
Method for managing the transmission of geographical locations from a geolocation beacon during the movement thereof, the method being carried out by said beacon and being characterized in that it comprises the following steps: - a prior step of defining a first reference communication network (ZR) associated with a first value representative of a cost linked to the transmission of a location over the first network (RES1) and with a reference frequency used for the transmission of the locations over the first network; - a step of locating the beacon in a second network (RES2) during the movement thereof; - a step of obtaining a second value representative of a cost linked to the transmission of a location over the second network (RES2); - a step of comparing the first and the second value, and when the values differ, the method comprises a step of modifying the reference frequency for the transmission of the locations over the second network, the calculation of the new frequency being based on said second value. - a prior step of defining a first reference communication network (ZR) associated with a first value representative of a cost linked to the transmission of a location over the first network (RES1) and with a reference frequency used for the transmission of the locations over the first network; - a step of locating the beacon in a second network (RES2) during the movement thereof; - a step of obtaining a second value representative of a cost linked to the transmission of a location over the second network (RES2); - a step of comparing the first and the second value, and when the values differ, the method comprises a step of modifying the reference frequency for the transmission of the locations over the second network, the calculation of the new frequency being based on said second value.
A method for producing 3D mouldings , wherein particulate construction material is applied onto a construction field in a defined layer by means of a recoater , one or more liquids or particulate material of one or more absorbers is/are selectively applied, energy is input by suitable means, resulting in selective solidification of the areas printed with absorber at a solidification temperature or sintering temperature above the melting temperature of the powder, the construction field Is lowered by one layer thickness, or the recoater is raised by one layer thickness, and these steps are repeated until the desired 3D moulding is produced, characterized in that the energy input of printed areas is effected by a sintering radiator by means of LED within a narrow wavelength spectrum having a width of 0.2 μm to 0,1 μm.
A computer-implemented method comprising: receiving, at a controller , node analytics from a service assurance point, SAP,, the node analytics comprising performance information of a node within an access network, wherein the controller includes a software defined operations, administration, and maintenance, SD-OAM, process , the SD-OAM process communicating with the SAP; triggering, by the controller and based on the node analytics, an intent specific workflow at a workflow application, wherein the SD-OAM process initiates the intent specific workflow; and monitoring, by the controller, the node by receiving additional node analytics. receiving, at a controller , node analytics from a service assurance point, SAP,, the node analytics comprising performance information of a node within an access network, wherein the controller includes a software defined operations, administration, and maintenance, SD-OAM, process , the SD-OAM process communicating with the SAP; triggering, by the controller and based on the node analytics, an intent specific workflow at a workflow application, wherein the SD-OAM process initiates the intent specific workflow; and monitoring, by the controller, the node by receiving additional node analytics.