mhurhangee/ep-ind-claims huggingface dataset:
A device for elastic pivoting about two orthogonal axes, comprising an inner frame and an outer frame, the inner frame concentrically arranged with the outer frame, a first and a second flexible spring element (12, 14), the first and second flexible spring elements (12, 14) each having proximal and distal ends (11, 13, 21, 22), the proximal end of the first flexible spring element being integrally formed with the inner frame and extending away from the inner frame, and the distal end of the first flexible spring element being integrally formed with the outer frame and extending away from the outer frame, and being located diagonally opposite to the second flexible spring element, the proximal end of the second flexible spring element being integrally formed with the inner frame and extending away from the inner frame, and the distal end of the second flexible spring element being integrally formed with the outer frame and extending away from the outer frame, a third and a fourth flexible spring element (24, 27), the third and fourth flexible spring elements (24, 27) each having proximal and distal ends (23, 26), the proximal end of the third flexible spring element being integrally formed with the outer frame and extending away from the outer frame, and being located diagonally opposite to the fourth flexible spring element, the proximal end of the fourth flexible spring element being integrally formed with the outer frame and extending away from the outer frame, the first to fourth flexible spring elements (12, 14, 24, 27) being placed so that the first and second flexible spring elements (12, 14) provide elastic rotation of the inner frame with respect to the outer frame about a first axis and the third and fourth flexible spring elements (24, 27) provide elastic rotation of the outer frame about a second axis orthogonal with the first axis, characterized by the proximal end of the first flexible spring element extending out of a plane in which the inner frame lies, the distal end of the first flexible spring element extending out of a plane in which the outer frame lies, the proximal end of the second flexible spring element extending out of the plane in which the inner frame lies, the distal end of the second flexible spring element extending out of the plane in which the outer frame lies, the proximal end of the third flexible spring element extending out of the plane in which the outer frame lies, the proximal end of the fourth flexible spring element extending out of the plane in which the outer frame lies.
A method for detecting a methicillin-resistant Staphylococcus aureus ("MRSA") in a sample containing nucleic acids, comprising: amplifying the nucleic acids in the sample; and detecting nucleic acids in the sample comprising amplified mecA and ldh1 genes, wherein the presence of amplified mecA and ldh1 genes in approximately 1:1 ratio indicates the presence of methicillin-resistant Staphylococcus aureus. amplifying the nucleic acids in the sample; and detecting nucleic acids in the sample comprising amplified mecA and ldh1 genes, wherein the presence of amplified mecA and ldh1 genes in approximately 1:1 ratio indicates the presence of methicillin-resistant Staphylococcus aureus.
A computer-implemented method for managing features in hybrid software deployments, wherein the hybrid software deployment comprises edge deployment (128, 136) and cloud deployment, the method being executed by one or more processors and comprising: receiving, by a customer cockpit, a toggle notification indicating that an edge feature of an edge component of a hybrid software deployment is to be activated, the toggle notification being received during execution of a process by the edge component, wherein the customer cockpit comprises a user interface; determining, by the customer cockpit, that the process has ended and, in response, triggering an edge controller to toggle the edge feature to an activated state within the edge component; receiving, by a vendor cockpit, an edge confirmation of the edge component that confirms that the edge feature is in the activated state, wherein the vendor cockpit comprises a user interface; and in response to receiving the edge confirmation, triggering, by the vendor cockpit, a tenant controller to toggle a tenant feature to an activated state for a corresponding tenant component of the cloud deployment. receiving, by a customer cockpit, a toggle notification indicating that an edge feature of an edge component of a hybrid software deployment is to be activated, the toggle notification being received during execution of a process by the edge component, wherein the customer cockpit comprises a user interface; determining, by the customer cockpit, that the process has ended and, in response, triggering an edge controller to toggle the edge feature to an activated state within the edge component; receiving, by a vendor cockpit, an edge confirmation of the edge component that confirms that the edge feature is in the activated state, wherein the vendor cockpit comprises a user interface; and in response to receiving the edge confirmation, triggering, by the vendor cockpit, a tenant controller to toggle a tenant feature to an activated state for a corresponding tenant component of the cloud deployment.
A method comprising, by a computing device: receiving a first connection from a client; assigning the client a first communication pathway; launching a transcoding remote desktop client; receiving a second connection from the client, wherein the second connection comprises a reference identifier; characterized by determining whether the reference identifier is associated with the transcoding remote desktop client; in response to a positive determination: accepting the second connection; assigning the second connection to a second communication pathway; and relating the second communication pathway to the transcoding remote desktop client; and in response to a negative determination, refusing the second connection. receiving a first connection from a client; assigning the client a first communication pathway; launching a transcoding remote desktop client; receiving a second connection from the client, wherein the second connection comprises a reference identifier; characterized by determining whether the reference identifier is associated with the transcoding remote desktop client; in response to a positive determination: accepting the second connection; assigning the second connection to a second communication pathway; and relating the second communication pathway to the transcoding remote desktop client; and accepting the second connection; assigning the second connection to a second communication pathway; and relating the second communication pathway to the transcoding remote desktop client; and in response to a negative determination, refusing the second connection.
A method for detecting cell-free DNA (cfDNA) having an unstable double-helix structure from a sample without amplification, the method comprising: a) mixing a sample containing cfDNA with a positively charged substance; b) isolating the positively charged substance to which the cfDNA is bound; c) mixing the mixture with a probe and a marker; d) removing the probe and the marker which are not bound to the cfDNA; and e) detecting the marker, and wherein cfDNA having an unstable double-helix structure is thermodynamically unstable as compared with cfDNA having a stable double-helix structure. a) mixing a sample containing cfDNA with a positively charged substance; b) isolating the positively charged substance to which the cfDNA is bound; c) mixing the mixture with a probe and a marker; d) removing the probe and the marker which are not bound to the cfDNA; and e) detecting the marker, and
A multilayer assembly comprising: - a metal substrate, said metal substrate having an inner surface and an outer surface, - a layer [layer] consisting of a composition [composition] comprising at least one fluoropolymer [polymer], at least one benzoxazine compound [compound] and at least one aromatic polymer [polymer], said layer having a first surface and a second surface, wherein the first surface of said layer is at least partially adhered to at least one of the inner surface and the outer surface of said metal substrate, and - a layer [layer] consisting of a composition [composition] comprising at least one functional fluoropolymer comprising one or more polar functional groups [functional polymer], said layer having a first surface and a second surface, wherein the first surface of said layer is at least partially adhered to the second surface of said layer. - a metal substrate, said metal substrate having an inner surface and an outer surface, - a layer [layer] consisting of a composition [composition] comprising at least one fluoropolymer [polymer], at least one benzoxazine compound [compound] and at least one aromatic polymer [polymer], said layer having a first surface and a second surface, wherein the first surface of said layer is at least partially adhered to at least one of the inner surface and the outer surface of said metal substrate, and - a layer [layer] consisting of a composition [composition] comprising at least one functional fluoropolymer comprising one or more polar functional groups [functional polymer],
Method for controlling a braking assistance system of a vehicle, in which: - sensor signals for at least a first sensor are converted into at least one control signal, and the control signal is transmitted to a brake closed-loop/open-loop control device via a first connection, wherein the control signal indicates whether an accident has occurred, - the control signal or a further control signal which indicates whether an accident has occurred is transmitted to the brake closed-loop/open-loop control device via a second connection (29a, 32) which is physically independent of the first connection, and - the brake closed-loop/open-loop control device generates a brake closed-loop control signal as a function of the control signals received via the two connections (31; 29a, 32), characterized in that - sensor signals of a second sensor which is independent of the first sensor are converted into a switching signal, wherein the switching signal indicates whether an accident has occurred, and - the control signal is transmitted to the brake closed-loop/open-loop control device via the second connection (29a, 32) when the switching signal indicates that an accident has occurred. - sensor signals for at least a first sensor are converted into at least one control signal, and the control signal is transmitted to a brake closed-loop/open-loop control device via a first connection, wherein the control signal indicates whether an accident has occurred, - the control signal or a further control signal which indicates whether an accident has occurred is transmitted to the brake closed-loop/open-loop control device via a second connection (29a, 32) which is physically independent of the first connection, and - the brake closed-loop/open-loop control device generates a brake closed-loop control signal as a function of the control signals received via the two connections (31; 29a, 32), - sensor signals of a second sensor which is independent of the first sensor are converted into a switching signal, wherein the switching signal indicates whether an accident has occurred, and - the control signal is transmitted to the brake closed-loop/open-loop control device via the second connection (29a, 32) when the switching signal indicates that an accident has occurred.
A method of applying a coloured coating to a decorative element comprising glass or a glass ceramic, the method comprising: providing an ink mixture comprising an ink and an organic carrier, the carrier comprising a polymerisable silane- or silyl-acrylate and the ink comprising a colour-imparting organic compound in solution, wherein a volumetric ratio of the ink to the carrier is between 1:1 and 1:100; arranging the ink mixture and the decorative element in a plasma; and allowing the ink mixture to polymerise on a surface of the decorative element to form a polymerised colour coating. providing an ink mixture comprising an ink and an organic carrier, the carrier comprising a polymerisable silane- or silyl-acrylate and the ink comprising a colour-imparting organic compound in solution, wherein a volumetric ratio of the ink to the carrier is between 1:1 and 1:100; arranging the ink mixture and the decorative element in a plasma; and allowing the ink mixture to polymerise on a surface of the decorative element to form a polymerised colour coating.
A method for layer-by-layer forming of an object, the method comprising the steps of: distributing a layer of bulk material; applying a binding agent the method further comprises the steps of; applying at least one reinforcing element onto the layer of bulk material or binding agent, wherein the reinforcing element is adapted to structurally reinforce the object; wherein the reinforcing element is applied through at least one nozzle (39, 53); wherein the steps of distributing a layer of bulk material, applying a binding agent and applying at least one reinforcing element are alternately repeated a desired number of times to form the object, and wherein adjacent layers of bulk material are bonded together by means of the binding agent, characterized in that said step of applying at least one reinforcing element comprises extruding at least one string shaped reinforcing element by means of the at least one nozzle or wherein the step of applying at least one reinforcing element comprises feeding of a prefabricated reinforcing element in the form of a continuous string of nylon or carbon fiber based materials, glass fiber based material, thermoplastic materials, and metal based materials, by means of a rotatable nozzle. distributing a layer of bulk material; applying a binding agent the method further comprises the steps of; applying at least one reinforcing element onto the layer of bulk material or binding agent, wherein the reinforcing element is adapted to structurally reinforce the object; wherein the reinforcing element is applied through at least one nozzle (39, 53); wherein the steps of distributing a layer of bulk material, applying a binding agent and applying at least one reinforcing element are alternately repeated a desired number of times to form the object, and wherein adjacent layers of bulk material are bonded together by means of the binding agent, characterized in that said step of applying at least one reinforcing element comprises extruding at least one string shaped reinforcing element by means of the at least one nozzle or wherein the step of applying at least one reinforcing element comprises feeding of a prefabricated reinforcing element in the form of a continuous string of nylon or carbon fiber based materials, glass fiber based material, thermoplastic materials, and metal based materials, by means of a rotatable nozzle.
A manufacturing method of a light emitting diode, comprising the steps of: preparing a substrate; mounting light emitting chips on the substrate; forming first molding portions for respectively covering the light emitting chips, the first molding portions being transparent; forming second molding portions for respectively covering side surfaces of the first molding portions, the second molding portions being opaque; and performing separation into individual light emitting diodes characterized in that the step of forming the second molding portions comprises the steps of: performing molding out of an opaque molding material to cover the first molding portions; and removing the opaque molding material until upper surfaces of the first molding portions are exposed. preparing a substrate; mounting light emitting chips on the substrate; forming first molding portions for respectively covering the light emitting chips, the first molding portions being transparent; forming second molding portions for respectively covering side surfaces of the first molding portions, the second molding portions being opaque; and performing separation into individual light emitting diodes performing molding out of an opaque molding material to cover the first molding portions; and removing the opaque molding material until upper surfaces of the first molding portions are exposed.
A method for identifying an essential gene which serves as an antibiotic target in a bacterium, the method comprising the steps of: (a) generating a pool of mutant bacteria by transposon mutagenesis with two or more different activating transposons (Tn A s), wherein each Tn A comprises a promoter such that transposon insertion into bacterial DNA disrupts the function or increases the transcription of a gene at or near the insertion site in a position-dependent manner, and wherein the transposon mutagenesis yields an insertion rate of at least one transposon per 10 base pairs of bacterial DNA; (b) growing bacteria from the mutant pool in the presence of antibiotic at a concentration of about 0.5, about 1 and about 2 x MIC to produce at least three test cultures; and (c) comparing the distribution of Tn A insertions between test cultures to identify: (i) Tn A insertion sites which disrupt essential gene function; and (ii) Tn A insertion sites which are positioned such that essential gene transcription is enhanced such that the essential gene product is overexpressed to a level where it functions as a sink for said antibiotic and so alters the effect of the antibiotic on said bacterium, thereby identifying a putative essential gene which is necessary for viability under all conditions of growth used in step (b) and which serves as a target of said antibiotic in said bacterium. (a) generating a pool of mutant bacteria by transposon mutagenesis with two or more different activating transposons (Tn A s), wherein each Tn A comprises a promoter such that transposon insertion into bacterial DNA disrupts the function or increases the transcription of a gene at or near the insertion site in a position-dependent manner, and wherein the transposon mutagenesis yields an insertion rate of at least one transposon per 10 base pairs of bacterial DNA; (b) growing bacteria from the mutant pool in the presence of antibiotic at a concentration of about 0.5, about 1 and about 2 x MIC to produce at least three test cultures; and (c) comparing the distribution of Tn A insertions between test cultures to identify: (i) Tn A insertion sites which disrupt essential gene function; and (ii) Tn A insertion sites which are positioned such that essential gene transcription is enhanced such that the essential gene product is overexpressed to a level where it functions as a sink for said antibiotic and so alters the effect of the antibiotic on said bacterium, thereby identifying a putative essential gene which is necessary for viability under all conditions of growth used in step (b) and which serves as a target of said antibiotic in said bacterium.
A glass repair tool, comprising: a mount having a body, said body having a first side opposite a second side; a removably engageable connector engaged with said body of said mount, said removably engageable connector configured to engage to a glass surface and hold said mount in a fixed position; said body having an opening; a resin injector having a housing, said housing having a first end opposite a second end, said housing having an exterior surface; said first end of said resin injector positionable to a contact with said glass and while said connector is removably engaged with said glass, said housing prevented from movement in a second direction opposite said first direction; and whereby resin from said injector is injectable into defects in said glass by said first end of said resin injector in said contact with said glass; characterized in that said exterior surface of said housing is in a sliding ratcheted engagement with said opening; and said resin injector is positionable to a contact with said glass by a sliding of said housing engaged in said sliding ratcheted engagement in a first direction toward said glass. a mount having a body, said body having a first side opposite a second side; a removably engageable connector engaged with said body of said mount, said removably engageable connector configured to engage to a glass surface and hold said mount in a fixed position; said body having an opening; a resin injector having a housing, said housing having a first end opposite a second end, said housing having an exterior surface; said first end of said resin injector positionable to a contact with said glass and while said connector is removably engaged with said glass, said housing prevented from movement in a second direction opposite said first direction; and whereby resin from said injector is injectable into defects in said glass by said first end of said resin injector in said contact with said glass; characterized in that said exterior surface of said housing is in a sliding ratcheted engagement with said opening; and
Device for testing of the insulation of capacitive electric components having a metallic core and an outer insulation comprising a power supply and an inductor in series with the power supply, whereas the capacitance of the capacitive electric component is to be electrically connected in series with the inductor for providing an LC circuit, wherein the power supply being provided for charging the LC circuit, and a solid state switch provided for short-circuiting the power supply and the inductor to ground, such that the LC circuit is resonant after closing the switch, characterized in that, the solid-state switch being formed of semiconductors selected from a group comprising a thyristor element connected with an antiparallel thyristor element and an insulated gate bipolar transistor connected with an antiparallel insulated gate bipolar transitor, such that the solid-state switch is additionally designed for opening when the LC circuit is in the resonant phase and charged by electrical energy.
An EPG electronic programming guide providing apparatus comprising: an EPG screen configuring unit configuring an EPG screen such that broadcasting program information is displayed on at least three faces of a 3D (three-dimensional) polyhedron; and a control unit controlling the EPG screen configuring unit to configure the EPG screen such that broadcasting program information corresponding to a first broadcasting channel of a first time zone and information of the first time zone is displayed on the front face of the 3D polyhedron, broadcasting program information corresponding to a second time zone of the first broadcasting channel is displayed on a first adjacent face positioned in a first direction with respect to the front face of the 3D polyhedron and broadcasting program information corresponding to a second broadcasting channel of the first time zone and information of the first time zone is displayed on a second adjacent face positioned in a second direction with respect to the front face of the 3D polyhedron.