mhurhangee/ep-ind-claims huggingface dataset:
An assembly for coupling a drug delivery device to a cartridge (322, 422, 922) sealed by a septum (420, 920, 1020) having a leak threshold force, the assembly comprising: a transaxially moving cannula (416, 916, 1016) having a tip region (418, 1018) configured to penetrate the septum (420, 920, 1020),_said tip region (418, 1018) having a width; and a frame including: an axially extending guide (324, 424) sized and shaped to secure the cartridge (322, 422, 922) to said frame 410); and a mount (314, 414, 614, 914, 1014) supported by said frame, the cannula being supported by said mount such that said tip region (418, 1018) of said cannula (416, 916, 1016) protrudes through the septum (420, 920, 1020) of the cartridge (322, 422, 922) when said cartridge (322, 422, 922) is secured to said frame by said guide (324, 424); characterized in that: said mount (314, 414, 614, 914, 1014) is supported by a pivoting connection to said frame, and said mount (314, 414, 614, 914, 1014) is provided with a compliance, enabling that a force of less than a leak threshold force of said septum (420, 920, 1020) moves said tip region (418, 1018) of said cannula (416, 916, 1016) transaxially at least a distance equal to said width, and in that the mount (314, 414, 614, 914, 1014) is designed to compensate for movement of the cannula (416, 916, 1016) at a stress level less than a bending stress of the cannula (416, 916, 1016). a transaxially moving cannula (416, 916, 1016) having a tip region (418, 1018) configured to penetrate the septum (420, 920, 1020),_said tip region (418, 1018) having a width; and a frame including: an axially extending guide (324, 424) sized and shaped to secure the cartridge (322, 422, 922) to said frame 410); and a mount (314, 414, 614, 914, 1014) supported by said frame, the cannula being supported by said mount such that said tip region (418, 1018) of said cannula (416, 916, 1016) protrudes through the septum (420, 920, 1020) of the cartridge (322, 422, 922) when said cartridge (322, 422, 922) is secured to said frame by said guide (324, 424); characterized in that: an axially extending guide (324, 424) sized and shaped to secure the cartridge (322, 422, 922) to said frame 410); and a mount (314, 414, 614, 914, 1014) supported by said frame, the cannula being supported by said mount such that said tip region (418, 1018) of said cannula (416, 916, 1016) protrudes through the septum (420, 920, 1020) of the cartridge (322, 422, 922) when said cartridge (322, 422, 922) is secured to said frame by said guide (324, 424); characterized in that: said mount (314, 414, 614, 914, 1014) is supported by a pivoting connection to said frame, and said mount (314, 414, 614, 914, 1014) is provided with a compliance, enabling that a force of less than a leak threshold force of said septum (420, 920, 1020) moves said tip region (418, 1018) of said cannula (416, 916, 1016) transaxially at least a distance equal to said width, and in that the mount (314, 414, 614, 914, 1014) is designed to compensate for movement of the cannula (416, 916, 1016) at a stress level less than a bending stress of the cannula (416, 916, 1016).
A wireless power transfer system for transferring power at more than one frequency, comprising: a transmitter capable of transmitting power wirelessly at more than one frequency; a first targeted receiver for receiving power at a first frequency from the transmitter; a second non-targeted receiver adapted to resonate at a second frequency and to transfer the power received from the transmitter at the second frequency to a load of the second non-targeted receiver; and an auxiliary circuit in said second non-targeted receiver, so as to ensure proper frequency-selective wireless power flow from said second non-targeted receiver to the first targeted receiver, wherein the second non-targeted receiver is designed to act as a resonator for the first frequency so as to transmit power from the transmitter to the first targeted receiver at the first frequency; and characterized by the auxiliary circuit being configured to act as one of a bandpass filter to shunt power at the first frequency to ground before the load of the second receiver or a bandstop filter to prevent the flow of the power at the first frequency to the load of the second non-targeted receiver. a transmitter capable of transmitting power wirelessly at more than one frequency; a first targeted receiver for receiving power at a first frequency from the transmitter; a second non-targeted receiver adapted to resonate at a second frequency and to transfer the power received from the transmitter at the second frequency to a load of the second non-targeted receiver; and an auxiliary circuit in said second non-targeted receiver, so as to ensure proper frequency-selective wireless power flow from said second non-targeted receiver to the first targeted receiver, wherein the second non-targeted receiver is designed to act as a resonator for the first frequency so as to transmit power from the transmitter to the first targeted receiver at the first frequency; and characterized by the auxiliary circuit being configured to act as one of a bandpass filter to shunt power at the first frequency to ground before the load of the second receiver or a bandstop filter to prevent the flow of the power at the first frequency to the load of the second non-targeted receiver.
A polymerizable compound represented by the following Formula A-1 or Formula A-2: wherein, in Formula A-1 or Formula A-2, R 1 represents an electron-donating group; n represents an integer from 1 to 5; R 2 represents a hydrogen atom, a halogen atom, or -OR O, wherein R O represents a hydrogen atom, an alkyl group, or a protecting group of a hydroxy group; R 3 represents a hydrogen atom or a protecting group of a hydroxy group; and X represents a structure represented by any one of Formula B-1 to Formula B-5, and wherein, in Formula B-1 to Formula B-5, R T represents a hydrogen atom, an alkyl group, an alkenyl group, or an alkynyl group; each of R pC, R pA, and R pG represents a protecting group that is removed under an acidic condition; R pC2 represents a hydrogen atom; R pG2 represents a protecting group; R pG3 represents a protecting group that is removed under an acidic condition, or a hydrogen atom; and represents a binding site to another structure.
MEMS or NEMS accelerometer (1, 11) adapted to measure an acceleration along a sensing axis comprising: - a substrate (2, 12) featuring a plane; - a mass (3, 13) having a central zone and suspended relative to the substrate (2, 12); - a single lever arm (4, 14) forming a mass force amplification structure, comprising: • a first end (41, 141) connected to the substrate (2, 12) by means of a first connection (5, 15) adapted to allow rotation of the lever arm about a rotation axis perpendicular to the sensing axis, and • a second end (42, 142) connected to the mass (3, 13) by means of a second connection (6, 16) adapted to transmit the translation movement of the mass (3, 13) to the lever arm (4, 14) whilst allowing rotation of said lever arm about the rotation axis; the second end (42, 142) of the lever arm (4, 14) being disposed at the level of the central zone of the mass (3, 13); - at least one strain gauge (7, 7', 17, 17'), said gauge being connected to the lever arm, each gauge comprising: • a first end (71, 71', 171, 171') connected to the substrate (2, 12), and • a second end (72, 72', 172, 172') connected to the lever arm (4, 14), the second connection (6, 16) comprising a main coupling blade (61, 161) rigid along the sensing axis and flexible along the rotation axis of the lever arm (4, 14). - a substrate (2, 12) featuring a plane; - a mass (3, 13) having a central zone and suspended relative to the substrate (2, 12); - a single lever arm (4, 14) forming a mass force amplification structure, comprising: • a first end (41, 141) connected to the substrate (2, 12) by means of a first connection (5, 15) adapted to allow rotation of the lever arm about a rotation axis perpendicular to the sensing axis, and • a second end (42, 142) connected to the mass (3, 13) by means of a second connection (6, 16) adapted to transmit the translation movement of the mass (3, 13) to the lever arm (4, 14) whilst allowing rotation of said lever arm about the rotation axis; the second end (42, 142) of the lever arm (4, 14) being disposed at the level of the central zone of the mass (3, 13); • a first end (41, 141) connected to the substrate (2, 12) by means of a first connection (5, 15) adapted to allow rotation of the lever arm about a rotation axis perpendicular to the sensing axis, and • a second end (42, 142) connected to the mass (3, 13) by means of a second connection (6, 16) adapted to transmit the translation movement of the mass (3, 13) to the lever arm (4, 14) whilst allowing rotation of said lever arm about the rotation axis; - at least one strain gauge (7, 7', 17, 17'), said gauge being connected to the lever arm, each gauge comprising: • a first end (71, 71', 171, 171') connected to the substrate (2, 12), and • a second end (72, 72', 172, 172') connected to the lever arm (4, 14), • a first end (71, 71', 171, 171') connected to the substrate (2, 12), and • a second end (72, 72', 172, 172') connected to the lever arm (4, 14),
A fluid handling device, comprising: a first body portion (110; 210) defining a first lumen extending between a first port (112; 212) and a first aperture (128; 228); and a second body portion (140; 240; 240') defining a second lumen extending between a second port (142; 242; 242') and a second aperture (147; 247; 247'), wherein the first and second body portions are: i) coupleable with each other and ii) separable from each other, wherein, while the first and second body portions are separated from each other, the first and second apertures are each occluded, and wherein, while the first and second body portions are coupled with each other, the fluid handling device is configurable in: a) a first coupled configuration in which an open flow path is defined between the first and second ports and b) a second coupled configuration in which the first and second apertures are each occluded, wherein the first body portion (110; 210) is pivotable in relation to the second portion (140; 240; 240') about a central axis (102; 202) that is perpendicular to the open flow path to reconfigure the fluid handling device between the first and second coupled configurations, and wherein, while the fluid handling device is in the second coupled configuration, the first and second body portions are separable from each other by moving the first body portion and the second body portion apart from each other along the central axis. a first body portion (110; 210) defining a first lumen extending between a first port (112; 212) and a first aperture (128; 228); and a second body portion (140; 240; 240') defining a second lumen extending between a second port (142; 242; 242') and a second aperture (147; 247; 247'), wherein the first and second body portions are: i) coupleable with each other and ii) separable from each other, wherein, while the first and second body portions are separated from each other, the first and second apertures are each occluded, and wherein, while the first and second body portions are coupled with each other, the fluid handling device is configurable in: a) a first coupled configuration in which an open flow path is defined between the first and second ports and b) a second coupled configuration in which the first and second apertures are each occluded, wherein the first body portion (110; 210) is pivotable in relation to the second portion (140; 240; 240') about a central axis (102; 202) that is perpendicular to the open flow path to reconfigure the fluid handling device between the first and second coupled configurations, and wherein, while the fluid handling device is in the second coupled configuration, the first and second body portions are separable from each other by moving the first body portion and the second body portion apart from each other along the central axis.
Catching locking mechanism for pieces of furniture, comprising an adjustment wheel which has a catch structure at least in some regions, and a mating catch which cooperates with the catch structure of the adjustment wheel, wherein the mating catch essentially consists of a sheet-metal part, wherein the mating catch is formed inherently resilient, preferably as a flexible tongue, characterized in that the adjustment wheel is arranged in the plane of the sheet-metal part forming the mating catch.
A power system stabilizing device for stabilizing a power system installed with a plurality of power generators (4-1 to 4-3) and a plurality of renewable energy power generators (6-1; 6-2), the device comprising: a control unit; characterized in that the control unit is configured to shut down the renewable energy power generator in response to an occurrence of an accident in the power system; and characterized by an arithmetic unit configured to construct a system model by collecting various kinds of system information, calculate a transient stability under conditions of accidents assumed to occur, and select for each accident assumed to occur, a target renewable energy power generator to be shutdown and a target power generator to be disconnected from the power system, wherein the control unit is configured to shut down the target renewable energy power generator selected by the arithmetic unit and disconnect the target power generator from the power system selected by the arithmetic unit in response to the occurrence of the accident in the power system. a control unit; characterized in that the control unit is configured to shut down the renewable energy power generator in response to an occurrence of an accident in the power system; and characterized by an arithmetic unit configured to construct a system model by collecting various kinds of system information, calculate a transient stability under conditions of accidents assumed to occur, and select for each accident assumed to occur, a target renewable energy power generator to be shutdown and a target power generator to be disconnected from the power system, wherein the control unit is configured to shut down the target renewable energy power generator selected by the arithmetic unit and disconnect the target power generator from the power system selected by the arithmetic unit in response to the occurrence of the accident in the power system.
Encapsulation process of an organic optoelectronic device characterised in that it includes the following successive steps: a) an internal inorganic layer with a thickness of less than 200 nm is deposited on at least one external layer of the device, by atomic layer deposition, by plasma-enhanced chemical vapour deposition (PECVD), by chemical vapour deposition or by physical vapour deposition, b) the internal inorganic layer is coated with an organic adhesive layer based on an electromagnetic-radiation-curable or heat-curable adhesive, the organic layer thereby obtained having a thickness ranging from 500 nm to 1 μm, c) the organic layer thus obtained undergoes a vacuum treatment to transform it into an adhesive film (21b to 25b) with an even thickness of less than 200 nm, thereby providing a first unit stack of two inorganic and organic layers, d) in succession, at least one other unit stack (22 to 25) of two inorganic (22a to 25a) and organic layers (22b to 25b) is deposited, again implementing the steps a) to c), by deposition of an inorganic intermediate layer (22a to 25a) replacing the internal inorganic layer of the step a) and analogous to said inorganic layer, then e) a final external inorganic layer analogous to the inorganic intermediate layer is deposited on top of the adhesive film of the last unit stack, it being mentioned that the adhesive film (21b to 25b) is cured by said electromagnetic radiation of by thermal means separately for each unit stack, or for all the adhesive films following the creation of said unit stacks. a) an internal inorganic layer with a thickness of less than 200 nm is deposited on at least one external layer of the device, by atomic layer deposition, by plasma-enhanced chemical vapour deposition (PECVD), by chemical vapour deposition or by physical vapour deposition, b) the internal inorganic layer is coated with an organic adhesive layer based on an electromagnetic-radiation-curable or heat-curable adhesive, the organic layer thereby obtained having a thickness ranging from 500 nm to 1 μm, c) the organic layer thus obtained undergoes a vacuum treatment to transform it into an adhesive film (21b to 25b) with an even thickness of less than 200 nm, thereby providing a first unit stack of two inorganic and organic layers, d) in succession, at least one other unit stack (22 to 25) of two inorganic (22a to 25a) and organic layers (22b to 25b) is deposited, again implementing the steps a) to c), by deposition of an inorganic intermediate layer (22a to 25a) replacing the internal inorganic layer of the step a) and analogous to said inorganic layer, then e) a final external inorganic layer analogous to the inorganic intermediate layer is deposited on top of the adhesive film of the last unit stack,
A method for determining a concentration (c) of a fluorescent substance in a medium, wherein an excitation radiation having an excitation wavelength λ ex is radiated through the medium having the fluorescent substance so that the fluorescent substance is excited in such a way that the fluorescent substance emits a fluorescence radiation having a fluorescence wavelength λ em, wherein the intensity of the fluorescence radiation I fluor is measured, wherein additionally the intensity of a transmitted portion of the excitation radiation I trans,ex is measured; wherein a fluorescence absorption radiation having the fluorescence wavelength λ em is radiated through the medium having the fluorescent substance and the intensity of a transmitted portion of the fluorescence absorption radiation I trans,em is measured, wherein the concentration (c) of the fluorescent substance is determined from the intensity of the transmitted portion of the excitation radiation I trans,ex, the intensity of the fluorescence radiation I fluor and the intensity of the transmitted portion of the fluorescence absorption radiation I trans,em, characterised in that the intensity of the fluorescence radiation I fluor and the intensity of the transmitted portion of the excitation radiation I trans,ex are measured simultaneously at the same volume element of the medium having the fluorescent substance and that the intensity of the fluorescence radiation I fluor and the intensity of a transmitted portion of the fluorescence absorption radiation I trans,em are measured on the same first sensor.
A method for scaling an application, the method comprising: monitoring a workload associated with an application, the application comprising a plurality of components of different types and at least one deployed instance (502, 504) of each of the components, the application combining functionalities of the components to provide a service; determining that a component of a first type of the application requires an increased number of instances; obtaining a first logical distance metric defining a maximum allowable network delay between instances of the component of the first type and a second logical distance metric defining a maximum allowable network delay between an instance of said component of the first type requiring an increased number of instances and an instance of a component of a second type, wherein obtaining the first and second logical distance metrics includes receiving the distance metrics from another network entity or retrieving the distance metrics from memory; selecting a server hosting the new instance of said component in accordance with at least the first logical distance metric and the second logical distance metric; and instantiating a new instance of the component of the first type on the selected server. monitoring a workload associated with an application, the application comprising a plurality of components of different types and at least one deployed instance (502, 504) of each of the components, the application combining functionalities of the components to provide a service; determining that a component of a first type of the application requires an increased number of instances; obtaining a first logical distance metric defining a maximum allowable network delay between instances of the component of the first type and a second logical distance metric defining a maximum allowable network delay between an instance of said component of the first type requiring an increased number of instances and an instance of a component of a second type, wherein obtaining the first and second logical distance metrics includes receiving the distance metrics from another network entity or retrieving the distance metrics from memory; selecting a server hosting the new instance of said component in accordance with at least the first logical distance metric and the second logical distance metric; and instantiating a new instance of the component of the first type on the selected server.
A method for a first entity and a second entity to establish a shared secret, wherein the first entity and the second entity each have a respective asymmetric key pair that comprises a public key and a corresponding private key, wherein the method comprises: the first entity generating a protected item of software that comprises a representation of the public key of the first entity and a message generator that is configured to use an authentication key; the first entity providing the protected item of software to the second entity; the second entity executing the protected item of software, said executing comprising the message generator generating a message that represents the public key of the second entity and that comprises authentication data generated using the authentication key so that integrity of the message is verifiable using a verification key corresponding to the authentication key; the first entity obtaining the message from the second entity; in response to a set of one or more conditions being satisfied, the first entity and the second entity together performing shared secret establishment to establish the secret wherein performing the shared secret establishment comprises the first entity using the public key of the second entity as represented in the message and the second entity using the public key of the first entity as represented in the protected item of software, wherein one of the conditions is performance by the first entity of a successful verification of the integrity of the message using the verification key. the first entity generating a protected item of software that comprises a representation of the public key of the first entity and a message generator that is configured to use an authentication key; the first entity providing the protected item of software to the second entity; the second entity executing the protected item of software, said executing comprising the message generator generating a message that represents the public key of the second entity and that comprises authentication data generated using the authentication key so that integrity of the message is verifiable using a verification key corresponding to the authentication key; the first entity obtaining the message from the second entity; in response to a set of one or more conditions being satisfied, the first entity and the second entity together performing shared secret establishment to establish the secret