mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine having electrical equipment, wherein the wind turbine comprises a tower including a tower body, an accommodation space defined by the tower body, and a support device for the wind turbine arranged in the accommodation space; wherein the support device comprises: a support frame, and a support platform, wherein the support frame is of a hollow frame structure and comprises a plurality of beam members, adjacent beam members are connected to each other, and a relative position of at least one group of two beam members connected to each other is adjustable; the support platform is arranged on a surface of the support frame in a height direction of the support frame and connected with the plurality of beam members, and the support platform is configured to support the electrical equipment; the support platform comprises a body portion and a surrounding plate arranged around the body portion, the surrounding plate is movably connected with the body portion, and a dimension of an outer edge of the support platform is adjustable; the body portion comprises a support plate and an enclosing part wrapping an outer periphery of the support plate; and the enclosing part has a horizontal extension portion and a vertical installation portion stacked above the horizontal extension portion in the height direction, the vertical installation portion defines an adjustment groove, the surrounding plate is inserted into the adjustment groove and is in clearance fit with the adjustment groove, and in the height direction, at least part of the surrounding plate overlaps with and is detachably connected with the body portion. a support frame, and a support platform, wherein the support frame is of a hollow frame structure and comprises a plurality of beam members, adjacent beam members are connected to each other, and a relative position of at least one group of two beam members connected to each other is adjustable; the support platform is arranged on a surface of the support frame in a height direction of the support frame and connected with the plurality of beam members, and the support platform is configured to support the electrical equipment; the support platform comprises a body portion and a surrounding plate arranged around the body portion, the surrounding plate is movably connected with the body portion, and a dimension of an outer edge of the support platform is adjustable; the body portion comprises a support plate and an enclosing part wrapping an outer periphery of the support plate; and the enclosing part has a horizontal extension portion and a vertical installation portion stacked above the horizontal extension portion in the height direction, the vertical installation portion defines an adjustment groove, the surrounding plate is inserted into the adjustment groove and is in clearance fit with the adjustment groove, and in the height direction, at least part of the surrounding plate overlaps with and is detachably connected with the body portion.
A filter device, comprising: - a substrate; - two or more surface acoustic wave resonators formed on a surface of the substrate; - one or more non-serrated signal conductors formed on the surface of the substrate, wherein the one or more non-serrated signal conductors interconnect the surface acoustic wave resonators; and - at least one ground conductor formed on the surface of the substrate, wherein at least a portion of an edge of the ground conductor is shaped as a plurality of serrations, characterized in that at least some of the serrations face the one or more non-serrated signal conductors. - a substrate; - two or more surface acoustic wave resonators formed on a surface of the substrate; - one or more non-serrated signal conductors formed on the surface of the substrate, wherein the one or more non-serrated signal conductors interconnect the surface acoustic wave resonators; and - at least one ground conductor formed on the surface of the substrate, wherein at least a portion of an edge of the ground conductor is shaped as a plurality of serrations, characterized in that at least some of the serrations face the one or more non-serrated signal conductors.
A targeted type liposome for drug delivery system comprising an aggregatable molecule and a target sequence presented part, wherein said targeted sequence presented part is composed of a protein or peptide having a targeted recognition part, thereby being delivered to a targeted tissue; and said targeted type liposome includes any molecule selected from the group consisting of a protein having molecular weight of 200,000 or less, a nucleic acid and a hydrophobic molecule, wherein the aggregatable molecule has been obtained by reacting the molecule shown in formula:. wherein said targeted sequence presented part is composed of a protein or peptide having a targeted recognition part, thereby being delivered to a targeted tissue; and said targeted type liposome includes any molecule selected from the group consisting of a protein having molecular weight of 200,000 or less, a nucleic acid and a hydrophobic molecule,
A system for creating a prescribed vibration profile within a mechanical device comprising: a mechanical device; at least one circular force generator affixed to the mechanical device, the CFG capable of producing a rotating force vector, wherein the rotating force vector includes a magnitude, a phase, and a frequency; at least one sensor positioned on the mechanical device; at least one vibration profile in the mechanical device created by the CFG, wherein the sensor measures the at least one vibration profile; a controller in electronic communication with the sensor and with the CFG, characterized in that the controller operably controls the rotating force vector based upon the measurement of the vibration profile, wherein the magnitude, phase and frequency are independently controllable by the controller, wherein the controller changes the rotating force vector such that a difference between the measured vibration profile and a prescribed vibration profile is reduced. a mechanical device; at least one circular force generator affixed to the mechanical device, the CFG capable of producing a rotating force vector, wherein the rotating force vector includes a magnitude, a phase, and a frequency; at least one sensor positioned on the mechanical device; at least one vibration profile in the mechanical device created by the CFG, wherein the sensor measures the at least one vibration profile; a controller in electronic communication with the sensor and with the CFG, characterized in that the controller operably controls the rotating force vector based upon the measurement of the vibration profile, wherein the magnitude, phase and frequency are independently controllable by the controller, wherein the controller changes the rotating force vector such that a difference between the measured vibration profile and a prescribed vibration profile is reduced.
A production system for producing several motor vehicle number plate blanks from a metal strip (21; 22) fed continuously through the production system, comprising at least one laminator, at least one pressing device and at least one drive device, wherein the laminator is configured for applying a film onto the metal strip, while the pressing device is configured for compressively shaping the metal strip provided with the film and for dividing the metal strip provided with the film into individual motor vehicle number plate blanks, and the at least one drive device is configured for moving the metal strip (21; 22) through the production system at least section by section, characterized in that the at least one drive device is a contactless feeding device disposed directly in front of the pressing device, wherein the contactless feeding device is configured for inductively heating the metal strip (21; 22) during the movement of the metal strip (21; 22).
An auxiliary power unit enclosure for an aircraft comprising: a space frame configured to carry a load and defining an auxiliary power unit compartment, wherein the space frame comprises a plurality of frame elements coupled together at a plurality of nodes; and a fairing coupled to and surrounding the space frame, wherein the fairing does not serve as a primary structural component of a fuselage of the aircraft, wherein: the space frame is formed of a first material having a first critical temperature; the fairing is formed of a second material having a second critical temperature; and the second critical temperature is less than the first critical temperature, wherein the critical temperature refers to a temperature at which a material exceeds its ultimate strength and ceases to provide sufficient load carrying capacity, and wherein the critical temperature and ultimate strength differential enables the space frame to withstand a thermal event and maintain its load-carrying capacity in response to extreme temperatures within the auxiliary power unit enclosure resulting from a fault in the APU, while the fairing is permitted to structurally degrade in response to such temperatures. a space frame configured to carry a load and defining an auxiliary power unit compartment, wherein the space frame comprises a plurality of frame elements coupled together at a plurality of nodes; and a fairing coupled to and surrounding the space frame, wherein the fairing does not serve as a primary structural component of a fuselage of the aircraft, the space frame is formed of a first material having a first critical temperature; the fairing is formed of a second material having a second critical temperature; and the second critical temperature is less than the first critical temperature, wherein the critical temperature refers to a temperature at which a material exceeds its ultimate strength and ceases to provide sufficient load carrying capacity, and wherein the critical temperature and ultimate strength differential enables the space frame to withstand a thermal event and maintain its load-carrying capacity in response to extreme temperatures within the auxiliary power unit enclosure resulting from a fault in the APU, while the fairing is permitted to structurally degrade in response to such temperatures.
Method of securing a terminal equipped with at least one communication interface, the method comprising, - a step of analysing the links established with the terminal with a view to detecting either an establishment of a link between a peripheral and said terminal by means of a said communication interface, or an interruption of such a link, - a step of implementing means of authentication of a user of the terminal, - a step for allotting a user not authenticated by said means of authentication a first set of rights defined in relation to the physical and logical resources of the terminal, - a step of toggling, following a detection of an establishment of a first link between a peripheral and said terminal, from a first mode of operation in which the user benefits from the first set of rights to a second mode of operation in which the current user of said terminal benefits from a second set of rights that is more restricted than the first set of rights, - a step of toggling, following an authentication of said user by said means of authentication, from the second mode of operation in which the user benefits from the second set of rights to a third mode of operation in which the current user of said terminal benefits from the first set of rights. - a step of analysing the links established with the terminal with a view to detecting either an establishment of a link between a peripheral and said terminal by means of a said communication interface, or an interruption of such a link, - a step of implementing means of authentication of a user of the terminal, - a step for allotting a user not authenticated by said means of authentication a first set of rights defined in relation to the physical and logical resources of the terminal, - a step of toggling, following a detection of an establishment of a first link between a peripheral and said terminal, from a first mode of operation in which the user benefits from the first set of rights to a second mode of operation in which the current user of said terminal benefits from a second set of rights that is more restricted than the first set of rights, - a step of toggling, following an authentication of said user by said means of authentication, from the second mode of operation in which the user benefits from the second set of rights to a third mode of operation in which the current user of said terminal benefits from the first set of rights.
Polyethylene glycol substituted acyl borate of the general formula wherein PEG denotes a polyethylene glycol-based substituent; linker denotes an optionally present linker group, which is an organic or hetero-organic moiety, preferably a C1-C20 hydrocarbon optionally containing 1 or 2 aromatic rings; a is an integer from 1 to 12; X 1, X 2, and X 3 are independently of one another selected from the group consisting of F, OR, N + R 3, N + R 2 OR, N + R 2 SR, and N + R 2 NR 2, and are optionally forming a cyclic or a bicyclic structure; and R is an organic substituent or H. PEG denotes a polyethylene glycol-based substituent; linker denotes an optionally present linker group, which is an organic or hetero-organic moiety, preferably a C1-C20 hydrocarbon optionally containing 1 or 2 aromatic rings; a is an integer from 1 to 12; X 1, X 2, and X 3 are independently of one another selected from the group consisting of F, OR, N + R 3, N + R 2 OR, N + R 2 SR, and N + R 2 NR 2, and are optionally forming a cyclic or a bicyclic structure; and R is an organic substituent or H.
Dual-fuel fuel injector having: - a first nozzle needle, the axial stroke of which can be controlled, for the delivery of liquid fuel via a first nozzle arrangement of the dual-fuel fuel injector; - a plurality of second nozzle needles, the axial stroke of which can be controlled and which are arranged around the first nozzle needle for the delivery of gaseous fuel via a second nozzle arrangement of the dual-fuel fuel injector; - wherein for each of the second nozzle needles, for controlling their stroke, a respective control chamber is provided on the injector which can be charged and relieved via a control fluid; characterized in that - the dual-fuel fuel injector furthermore has a ring channel which can be charged and relieved via the control fluid; - the dual-fuel fuel injector is configured to charge and relieve the control chambers for the second nozzle needles via the control fluid, for controlling the stroke of the second nozzle needles, starting from the ring channel. - a first nozzle needle, the axial stroke of which can be controlled, for the delivery of liquid fuel via a first nozzle arrangement of the dual-fuel fuel injector; - a plurality of second nozzle needles, the axial stroke of which can be controlled and which are arranged around the first nozzle needle for the delivery of gaseous fuel via a second nozzle arrangement of the dual-fuel fuel injector; - wherein for each of the second nozzle needles, for controlling their stroke, a respective control chamber is provided on the injector which can be charged and relieved via a control fluid; - the dual-fuel fuel injector furthermore has a ring channel which can be charged and relieved via the control fluid; - the dual-fuel fuel injector is configured to charge and relieve the control chambers for the second nozzle needles via the control fluid, for controlling the stroke of the second nozzle needles, starting from the ring channel.
An implantable medical device capacitor comprising: a first electrode including: a first slot extending from a perimeter of the first electrode to an interior of the first electrode; a first interconnection area and a second electrode separated from the first electrode by a first distance, the second electrode including: a second slot extending from a perimeter of the second electrode to an interior of the second electrode; and a second interconnection area wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes, characterised in that the first interconnection area is substantially centrally located along an edge of the first electrode and substantially proximate an area of reduced cross section of the first electrode between the edge of the first electrode and an end of the first slot, the end being disposed in the interior of the first electrode; the second interconnection area is substantially centrally located along an edge of the second electrode and substantially proximate an area of reduced cross section of the second electrode between the edge of the second electrode and an end of the second slot, the end being disposed in the interior of the second electrode; and in that the first interconnection area of the first electrode is offset from the second interconnection area of the second electrode with the first and second electrodes in a stacked configuration. a first electrode including: a first slot extending from a perimeter of the first electrode to an interior of the first electrode; a first interconnection area and a second electrode separated from the first electrode by a first distance, the second electrode including: a second slot extending from a perimeter of the second electrode to an interior of the second electrode; and a second interconnection area wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes, a first slot extending from a perimeter of the first electrode to an interior of the first electrode; a first interconnection area and a second electrode separated from the first electrode by a first distance, the second electrode including: a second slot extending from a perimeter of the second electrode to an interior of the second electrode; and a second interconnection area wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes, a second slot extending from a perimeter of the second electrode to an interior of the second electrode; and a second interconnection area wherein the first and second slots are configured to at least partially segment surface areas of the first and second electrodes, respectively, to reduce a radial current loop size in each of the first and second electrodes,
A method of providing power for an electrosurgical instrument comprising: generating, with a power provider, a non-sinusoidal driving voltage having a driving frequency; receiving the non-sinusoidal driving voltage at a series LC circuit, the series LC circuit having a resonant frequency twice the driving frequency, whereby the series LC circuit presents an impedance to limit current and stores energy during each resonant cycle of the series LC circuit; and converting the non-sinusoidal driving voltage, with the series LC circuit, to a quasi-sinusoidal current for powering an electrosurgical instrument, wherein the step of converting comprises: during each resonant cycle of the series LC circuit, discharging substantially all of the energy stored in the series LC circuit. generating, with a power provider, a non-sinusoidal driving voltage having a driving frequency; receiving the non-sinusoidal driving voltage at a series LC circuit, the series LC circuit having a resonant frequency twice the driving frequency, whereby the series LC circuit presents an impedance to limit current and stores energy during each resonant cycle of the series LC circuit; and converting the non-sinusoidal driving voltage, with the series LC circuit, to a quasi-sinusoidal current for powering an electrosurgical instrument, wherein the step of converting comprises: during each resonant cycle of the series LC circuit, discharging substantially all of the energy stored in the series LC circuit.
A method of preparing a hydrophobic metal oxide-silica composite aerogel, the method comprising steps of: adding a metal ion solution to a water glass solution and mixing together to prepare a metal oxide-silica composite gel agglomerate; primarily drying the agglomerate to prepare a powdery metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and secondarily drying the hydrophobic metal oxide-silica composite wet gel, wherein the primary drying of step is performed by atmospheric pressure drying at a temperature of 100°C to 150°C for 1 hour to 2 hours. adding a metal ion solution to a water glass solution and mixing together to prepare a metal oxide-silica composite gel agglomerate; primarily drying the agglomerate to prepare a powdery metal oxide-silica composite gel; surface-modifying the metal oxide-silica composite gel to prepare a hydrophobic metal oxide-silica composite wet gel; and secondarily drying the hydrophobic metal oxide-silica composite wet gel,
A printed circuit board comprising: a first electrode layer; a first insulation layer disposed on one surface of the first electrode layer; a cavity passing through the first insulation layer; and a second electrode layer disposed on the first insulation layer,wherein at least a portion of the one surface of the first electrode layer is exposed to the outside via the cavity, characterized by further comprising: a second insulation layer provided on a region of the other surface opposite to the one surface of the first electrode layer, a first protective layer provided so as to cover at least a portion of the first insulation layer, at least a portion of a side surface of the first electrode layer and at least a portion of a side surface of the second electrode layer, and a second protective layer provided on at least a portion region of the second insulation layer. a first electrode layer; a first insulation layer disposed on one surface of the first electrode layer; a cavity passing through the first insulation layer; and a second electrode layer disposed on the first insulation layer,wherein at least a portion of the one surface of the first electrode layer is exposed to the outside via the cavity, characterized by further comprising: a second insulation layer provided on a region of the other surface opposite to the one surface of the first electrode layer, a first protective layer provided so as to cover at least a portion of the first insulation layer, at least a portion of a side surface of the first electrode layer and at least a portion of a side surface of the second electrode layer, and a second protective layer provided on at least a portion region of the second insulation layer. a second insulation layer provided on a region of the other surface opposite to the one surface of the first electrode layer, a first protective layer provided so as to cover at least a portion of the first insulation layer, at least a portion of a side surface of the first electrode layer and at least a portion of a side surface of the second electrode layer, and a second protective layer provided on at least a portion region of the second insulation layer.