mhurhangee/patent-ind-claim-en huggingface dataset:
A securing device for securing a panel of a drawer on a frame , having - at least one panel support arranged on the panel , - at least one adapter arranged in the frame , on which the panel support can be secured, - wherein the adapter has at least two catching devices having a respective first and at least one second wedge slide , using which a respective connecting element arranged on the panel support can be fixed in an installation position on the adapter , - an unlocking device for the catching devices, using which the wedge slides are movable between a fixing position and a release position, characterized in that - the wedge slides are held linearly displaceably, in particular essentially vertically to the release direction (L) of the panel, on the adapter , - wherein the at least one second wedge slide is indirectly or directly supported in a spring-loaded manner in the release position on the first wedge slide. - at least one panel support arranged on the panel , - at least one adapter arranged in the frame , on which the panel support can be secured, - wherein the adapter has at least two catching devices having a respective first and at least one second wedge slide , using which a respective connecting element arranged on the panel support can be fixed in an installation position on the adapter , - an unlocking device for the catching devices, using which the wedge slides are movable between a fixing position and a release position, - the wedge slides are held linearly displaceably, in particular essentially vertically to the release direction (L) of the panel, on the adapter , - wherein the at least one second wedge slide is indirectly or directly supported in a spring-loaded manner in the release position on the first wedge slide.
A transport apparatus for transporting a preform for blow molding, comprising: transport means which is equipped with transport jigs for each holding the preforms in an inverted state with a neck of each of the preforms facing downwards for continuously transporting a plurality of the preforms on a transport line with a transport speed while allowing the preforms to rotate on axes thereof in a horizontal direction along with the transport jigs; and engaging means provided so as to be movable along the transport line in conformity with the transport speed of each preform by the transport means, and engaging a convexity or a concavity provided in an outer periphery of the preform, with the preform moving while rotating on the axis thereof together with the transport jigs, so as to stop a rotation of each of the preforms on the axis thereof, thereby setting an orientation of the preform to a predetermined orientation, wherein the transport line is provided with a curved transport portion which is curved with a predetermined radius, characterized in that the engaging means is provided rotatably along the curved transport portion. transport means which is equipped with transport jigs for each holding the preforms in an inverted state with a neck of each of the preforms facing downwards for continuously transporting a plurality of the preforms on a transport line with a transport speed while allowing the preforms to rotate on axes thereof in a horizontal direction along with the transport jigs; and engaging means provided so as to be movable along the transport line in conformity with the transport speed of each preform by the transport means, and engaging a convexity or a concavity provided in an outer periphery of the preform, with the preform moving while rotating on the axis thereof together with the transport jigs, so as to stop a rotation of each of the preforms on the axis thereof, thereby setting an orientation of the preform to a predetermined orientation, wherein the transport line is provided with a curved transport portion which is curved with a predetermined radius, characterized in that the engaging means is provided rotatably along the curved transport portion.
A resistor comprising: a chip resistive element which includes a resistive element and metal electrodes (13a and 13b) and which is formed on first surface of a ceramic substrate ; metal terminals (14a and 14b) electrically joined to the metal electrodes (13a and 13b); and an Al member formed on second surface side of the ceramic substrate , wherein the ceramic substrate and the Al member are joined to each other using an Al-Si-based brazing filler metal, the metal electrodes (13a and 13b) and the metal terminals (14a and 14b) are joined to each other using a solder, and a degree of bending of an opposite surface of the Al member opposite to a surface on the ceramic substrate side is in a range of -30 μm/50 mm to 700 μm/50 mm, wherein a thickness of the ceramic substrate is in a range of 0.3 mm to 1.0 mm, wherein a thickness of the Al member is in a range of 3.0 mm to 10.0 mm, and wherein a thickness of the metal electrodes (13a and 13b) is in a range of 2 μm or more and 3 μm or less. a chip resistive element which includes a resistive element and metal electrodes (13a and 13b) and which is formed on first surface of a ceramic substrate ; metal terminals (14a and 14b) electrically joined to the metal electrodes (13a and 13b); and an Al member formed on second surface side of the ceramic substrate , wherein the ceramic substrate and the Al member are joined to each other using an Al-Si-based brazing filler metal, the metal electrodes (13a and 13b) and the metal terminals (14a and 14b) are joined to each other using a solder, and a degree of bending of an opposite surface of the Al member opposite to a surface on the ceramic substrate side is in a range of -30 μm/50 mm to 700 μm/50 mm, wherein a thickness of the ceramic substrate is in a range of 0.3 mm to 1.0 mm, wherein a thickness of the Al member is in a range of 3.0 mm to 10.0 mm, and wherein a thickness of the metal electrodes (13a and 13b) is in a range of 2 μm or more and 3 μm or less.
A dialyser connector comprising: a main body and a sliding clip , the main body has a tube end and a dialyser end , the main body defines a cavity, at least one aperture and a pair of ramps , and the sliding clip has a tube end and a dialyser end , the sliding clip defines a spine connecting the tube end and a dialyser end , the sliding clip has a pair of flexible wings extending in an arc from the spine and a pair of arms extending in an arc from the spine, the pair of arms have at least one projection extending radially inward, wherein the dialyser connector has a locked condition in which the at least one projection extends into the cavity of the main body and an unlocked conditions in which the at least one projection is withdrawn from the cavity of the main body , and wherein the at least one projection is biased to the locked condition by resilient abutment of pair of flexible wings on the pair of ramps . a main body and a sliding clip , the main body has a tube end and a dialyser end , the main body defines a cavity, at least one aperture and a pair of ramps , and the sliding clip has a tube end and a dialyser end , the sliding clip defines a spine connecting the tube end and a dialyser end , the sliding clip has a pair of flexible wings extending in an arc from the spine and a pair of arms extending in an arc from the spine, the pair of arms have at least one projection extending radially inward, wherein the dialyser connector has a locked condition in which the at least one projection extends into the cavity of the main body and an unlocked conditions in which the at least one projection is withdrawn from the cavity of the main body , and wherein the at least one projection is biased to the locked condition by resilient abutment of pair of flexible wings on the pair of ramps .
An in vitro method of modulating the activity of a neomorphic mutant SF3B1 protein in a target cell, comprising applying an SF3B1-modulating compound to the target cell, wherein the target cell has been determined to express an aberrant splice variant of SEQ ID NO: 95 at a level that is increased or decreased relative to the level in a cell not having the neomorphic mutant SF3B1 protein.
An elementary, stable, compressed, six-node 3D bar and tie SDT (self-deployable tensegrity) support structure with a compressed 1D transport and deployed 3D operational configuration, wherein it consists of three rigid bars and six non-deformable ties and three deformable elastic ties , where the non-deformable ties form two parallel triangular bases of the support structure, which are connected to each other in such a way that each node of one base is connected to two nodes of the other base by one deformable elastic tie and one bar , wherein said structure is combined with a shell allowing the transformation of structure adapted to air transport in the 1D form into the operational 3D form wherein said shell is bound to the support structure by the nodes and wherein said shell is made up of a cylindrical form and its closing forms at both ends , and wherein the deformable elastic ties enable easy transformation of the support structure from the deployed 3D configuration to the folded 1D configuration and from the folded 1D configuration to the deployed 3D configuration by increase/decrease in elastic potential energy in the deformable elastic ties .
A photonic mixer device for multiplying an impinging optical signal with a reference electrical signal, the photonic mixer device comprising: - a semiconductor substrate of a first conductivity type, - two detector regions of a second conductivity type different from the first conductivity type, - two biasing regions of the first conductivity type with a higher dopant concentration than the dopant concentration of the semiconductor substrate , each biasing region positioned near one of the respective detector regions, wherein an electrical field can be formed in the semiconductor substrate by applying a voltage bias between the biasing regions, - two bias electrodes , which are isolated from the substrate and the biasing regions, wherein each bias electrode is only locally, partially or completely, covering an outer edge of one of the respective biasing regions , characterized in that the bias electrodes are covering charge pockets which are present in an electrostatic potential between the biasing regions underneath the outer edges of the biasing regions. - a semiconductor substrate of a first conductivity type, - two detector regions of a second conductivity type different from the first conductivity type, - two biasing regions of the first conductivity type with a higher dopant concentration than the dopant concentration of the semiconductor substrate , each biasing region positioned near one of the respective detector regions, wherein an electrical field can be formed in the semiconductor substrate by applying a voltage bias between the biasing regions, - two bias electrodes , which are isolated from the substrate and the biasing regions, wherein each bias electrode is only locally, partially or completely, covering an outer edge of one of the respective biasing regions ,
A respiratory mask for use with a patient, the respiratory mask comprising: a flexible cushion arranged to interface with and deliver air to the patient's nose, the flexible cushion being configured to seal around the patient's nose; a more rigid support structure adjacent the flexible cushion ; an air inlet on a left side and/or a right side of the respiratory mask, wherein the flexible cushion is pivotably supported by the support structure ; and characterized in that the cushion is overmolded onto the support structure or the support structure is formed as a part of the cushion . a flexible cushion arranged to interface with and deliver air to the patient's nose, the flexible cushion being configured to seal around the patient's nose; a more rigid support structure adjacent the flexible cushion ; an air inlet on a left side and/or a right side of the respiratory mask, wherein the flexible cushion is pivotably supported by the support structure ; and characterized in that the cushion is overmolded onto the support structure or the support structure is formed as a part of the cushion .
A method of operating a wind park comprising a plurality of wind turbines (WT), which method comprises - determining a grid condition indicator (GCI) indicative of the condition of a grid (N1, N2) into which the wind park feeds; - determining a first maximum power value (P_WP) of the wind park on the basis of the grid condition indicator (GCI), wherein the first maximum power (P_WP) is the maximum active power (P_WP) that is allowed to be transferred by all the wind turbines (WT) to the grid (N1, N2); - determining a reactive current margin (I margin ) of a wind turbine (WT) on the basis of the grid condition indicator (GCI); - determining a second maximum power value (P_WT_n) on the basis of the reactive current margin (I margin ), wherein the second maximum power value (P_WT_n) is the power limit for a wind turbine (WT); and, - when the grid condition indicator (GCI) is indicative of a weak grid, curtailing the active power output of the wind turbines (WT) of the wind park , wherein a wind turbine (WT) is curtailed according to the first maximum power value (P_WP) when it can maintain the reactive current margin (I margin ), or to the second maximum power value (P_WT_n) when the reactive current margin (I margin ) exceeds a current reserve of that wind turbine (WT), such that the active power output of the wind park is curtailed to the lowest maximum power value associated with stable operation of the wind park . - determining a grid condition indicator (GCI) indicative of the condition of a grid (N1, N2) into which the wind park feeds; - determining a first maximum power value (P_WP) of the wind park on the basis of the grid condition indicator (GCI), wherein the first maximum power (P_WP) is the maximum active power (P_WP) that is allowed to be transferred by all the wind turbines (WT) to the grid (N1, N2); - determining a reactive current margin (I margin ) of a wind turbine (WT) on the basis of the grid condition indicator (GCI); - determining a second maximum power value (P_WT_n) on the basis of the reactive current margin (I margin ), wherein the second maximum power value (P_WT_n) is the power limit for a wind turbine (WT); and, - when the grid condition indicator (GCI) is indicative of a weak grid, curtailing the active power output of the wind turbines (WT) of the wind park , wherein a wind turbine (WT) is curtailed according to the first maximum power value (P_WP) when it can maintain the reactive current margin (I margin ), or to the second maximum power value (P_WT_n) when the reactive current margin (I margin ) exceeds a current reserve of that wind turbine (WT), such that the active power output of the wind park is curtailed to the lowest maximum power value associated with stable operation of the wind park .
An arrangement with a pneumatic or hydraulic piston rod cylinder , wherein the pneumatic or hydraulic piston rod cylinder comprises a cylinder and a piston which is adjustable therein in the longitudinal direction thereof and which is coupled to a piston rod projecting from the cylinder and divides a volume received in the cylinder into a first pressure chamber , through which the piston rod extends, and a second pressure chamber , wherein the pressure chambers being fluidically connected to one another via a bypass and each having a pressure port which can be formed in a cylinder wall of the cylinder and via which the pressure chambers can be pressurized by a fluid, and a first side of the piston delimiting the first pressure chamber and a second side , which is arranged opposite the first side and has a larger surface area than the first side , delimiting the second pressure chamber , wherein the first and the second pressure chambers are fluidically connected to each other via a bypass line of the bypass connected to the pressure ports of the pressure chambers , wherein the piston has a lower stop position in which the piston rod projects out of the cylinder by a maximum length, and a sealing circumference of the piston , via which the piston bears in a sealing manner against the inner circumference of the cylinder , closes off a pressure port of the first pressure chamber or passes over it, so that the bypass line is connected to the first pressure chamber , wherein in the stop position the first pressure chamber has a minimum volume into which a further pressure port opens into the first pressure chamber , characterized in that the bypass line has a unidirectionally permeable valve , preferably a non-return valve, which is permeable in the fluid flow direction from the second pressure chamber to the first pressure chamber .
An electroluminescent device , comprising: a pair of electroluminescent stacks ; each of the pair of electroluminescent stacks comprising a first electrode layer (103; 104), a second electrode layer (105; 106) and an electroluminescent layer (107; 108) being located between the first and second electrode layers (103-105; 104-106); and an electrical connection between the pair of electroluminescent stacks ; wherein the electrical connection is made by electrically connecting the first electrode of the one stack to the second electrode of the other stack , and by electrically connecting the first electrode of the other stack to the second electrode of the one stack , wherein each of the second electrode layers comprises a conductive plate, the two conductive plates forming a pair of receiver electrodes for capacitive power transfer, characterized in that the electrical connection between the pair of electroluminescent stacks comprises an inductor element, forming with the pair of electroluminescent stacks an RLC circuit, for changing a resonance frequency of the device, such that a degree of power transfer is optimized. a pair of electroluminescent stacks ; each of the pair of electroluminescent stacks comprising a first electrode layer (103; 104), a second electrode layer (105; 106) and an electroluminescent layer (107; 108) being located between the first and second electrode layers (103-105; 104-106); and an electrical connection between the pair of electroluminescent stacks ; wherein the electrical connection is made by electrically connecting the first electrode of the one stack to the second electrode of the other stack , and by electrically connecting the first electrode of the other stack to the second electrode of the one stack , wherein each of the second electrode layers comprises a conductive plate, the two conductive plates forming a pair of receiver electrodes for capacitive power transfer, characterized in that the electrical connection between the pair of electroluminescent stacks comprises an inductor element, forming with the pair of electroluminescent stacks an RLC circuit, for changing a resonance frequency of the device, such that a degree of power transfer is optimized.
A method for location tracking of a user equipment, UE, comprising: obtaining , by a domain connectivity management, CM, component of a wireless communications network, WCN, location information of the UE, wherein the WCN comprises domains, and a domain is managed by a single network operator and includes a plurality of network nodes, NNs, which provide connectivity to UEs; allocating a first virtualized CM component for connecting the UE based on the location information; the allocating the first virtualized CM component for connecting the UE is performed by the domain CM component; the method further comprising: if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating , by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to. obtaining , by a domain connectivity management, CM, component of a wireless communications network, WCN, location information of the UE, wherein the WCN comprises domains, and a domain is managed by a single network operator and includes a plurality of network nodes, NNs, which provide connectivity to UEs; allocating a first virtualized CM component for connecting the UE based on the location information; the allocating the first virtualized CM component for connecting the UE is performed by the domain CM component; the method further comprising: if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating , by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to. if the location information indicates the UE is moving from a first tracking area, TA, to a second TA in a first coverage of an anchor point, CAP, wherein an anchor point is a virtual service-specific serving gateway, v-s-SGW, or a virtual user-specific serving gateway, v-u-SGW, then migrating , by the domain CM component, the first virtualized CM component to the second TA; and updating, by the domain CM component, a CM database with the identity of the second TA that the UE has moved to.
A device comprising: a tank circuit including a parallel tank circuit and a series tank circuit , wherein the parallel tank circuit and the series tank circuit share a capacitive component C r and an inductive component Lr; electronics including medical device stimulation electronics and a rechargeable battery ; and circuitry configured to selectively couple the electronics to the parallel tank circuit for a first application and to couple the electronics to the series tank circuit for a second application, wherein the first application is for providing power to the stimulation electronics and the second application is for charging a rechargeable battery . a tank circuit including a parallel tank circuit and a series tank circuit , wherein the parallel tank circuit and the series tank circuit share a capacitive component C r and an inductive component Lr; electronics including medical device stimulation electronics and a rechargeable battery ; and circuitry configured to selectively couple the electronics to the parallel tank circuit for a first application and to couple the electronics to the series tank circuit for a second application, wherein the first application is for providing power to the stimulation electronics and the second application is for charging a rechargeable battery .