mhurhangee/patent-ind-claim-en huggingface dataset:
A flight control cable sensor for detecting actuation of a flight control cable of an aircraft , the flight control cable sensor comprising: a draw wire encoder , comprising an extendable-retractable wire ; a first connector co-movably fixed to the extendable-retractable wire ; and a second connector co-movably fixable to the flight control cable and configured to removably co-movably engage the first connector up to a predetermined pull-off force. a draw wire encoder , comprising an extendable-retractable wire ; a first connector co-movably fixed to the extendable-retractable wire ; and a second connector co-movably fixable to the flight control cable and configured to removably co-movably engage the first connector up to a predetermined pull-off force.
A collapsible support frame, comprising a first support frame, a second support frame, a first horizontal rod, a second horizontal rod, and a telescopic device, wherein one end of the first support frame is pivotally connected to one end of the second support frame, another end of the first frame is pivotally connected to one end of the first horizontal rod, another end of the second support frame is pivotally connected to one end of the second horizontal rod, another end of the first horizontal rod is pivotally connected to another end of the second horizontal rod, the telescopic device is pivotally connected to the first support frame, and the telescopic device has a telescopic end which is configured to be extended or retracted from the telescopic device, and the telescopic end is pivotally connected to either the first horizontal rod or the second horizontal rod.
A method of assisting transducer placements on a subject's body for applying tumor treating fields, the method comprising: generating, based on first image data, a three-dimensional model of a portion of the subject's body, wherein the 3D model comprises a presentation of one or more recommended transducer placement positions; receiving second image data of the portion of the subject's body; determining, based on the second image data, a representation of the one or more placement positions for one or more transducers in a three-dimensional space; comparing the representation of the one or more placement positions for the one or more transducers to the presentation of the one or more recommended transducer placement positions; and determining and outputting, based on the comparison, a variance of at least one of the one or more placement positions for the one or more transducers from at least one of the one or more recommended transducer placement positions. generating, based on first image data, a three-dimensional model of a portion of the subject's body, wherein the 3D model comprises a presentation of one or more recommended transducer placement positions; receiving second image data of the portion of the subject's body; determining, based on the second image data, a representation of the one or more placement positions for one or more transducers in a three-dimensional space; comparing the representation of the one or more placement positions for the one or more transducers to the presentation of the one or more recommended transducer placement positions; and determining and outputting, based on the comparison, a variance of at least one of the one or more placement positions for the one or more transducers from at least one of the one or more recommended transducer placement positions.
A polypeptide suitable for targeting phosphatidylserine cell-surface expression both in vitro and in vivo, said polypeptide comprising: a protein S gamma-carboxyglutamic-acid (Gla) domain, an EGF domain, and a therapeutic agent; wherein the polypeptide lacks a protease domain and also lacks a hormone-binding domain. a protein S gamma-carboxyglutamic-acid (Gla) domain, an EGF domain, and a therapeutic agent; wherein the polypeptide lacks a protease domain and also lacks a hormone-binding domain.
A display , comprising: a waveguide , a convex spherical mount having a fixed position relative to the waveguide ; and a light source including a concave spherical mount that adjustably mates with the convex spherical mount , wherein an entrance grating of the waveguide is located at the center of curvature of the convex spherical mount and a center of curvature of the concave spherical mount when the convex spherical mount mates with the concave spherical mount. a waveguide , a convex spherical mount having a fixed position relative to the waveguide ; and a light source including a concave spherical mount that adjustably mates with the convex spherical mount , wherein an entrance grating of the waveguide is located at the center of curvature of the convex spherical mount and a center of curvature of the concave spherical mount when the convex spherical mount mates with the concave spherical mount.
A package substrate comprising: one or more first conductive contacts on a first surface; one or more second conductive contacts on a second surface opposite the first surface; and a thin-film capacitor assembly comprising: a dielectric layer , wherein the dielectric layer contains a first metal layer ; an embedded capacitor on the dielectric layer conductively coupled with one of the first conductive contacts , wherein the embedded capacitor comprises the first metal layer on the dielectric layer , a thin film dielectric material on a surface of the first metal layer , a second metal layer on the surface of the first metal layer , and a third metal layer on the thin film dielectric material , wherein the thin-film capacitor assembly resides on a surface of the package substrate, wherein the dielectric layer of the thin-film capacitor assembly is between the first and the second surfaces. one or more first conductive contacts on a first surface; one or more second conductive contacts on a second surface opposite the first surface; and a thin-film capacitor assembly comprising: a dielectric layer , wherein the dielectric layer contains a first metal layer ; an embedded capacitor on the dielectric layer conductively coupled with one of the first conductive contacts , wherein the embedded capacitor comprises the first metal layer on the dielectric layer , a thin film dielectric material on a surface of the first metal layer , a second metal layer on the surface of the first metal layer , and a dielectric layer , wherein the dielectric layer contains a first metal layer ; an embedded capacitor on the dielectric layer conductively coupled with one of the first conductive contacts , wherein the embedded capacitor comprises the first metal layer on the dielectric layer , a thin film dielectric material on a surface of the first metal layer , a second metal layer on the surface of the first metal layer , and a third metal layer on the thin film dielectric material ,
A highly heat-resistant, bio-based polycarbonate ester, which comprises: a repeat unit 1 represented by the following Formula 1; a repeat unit 2 represented by the following Formula 2; and a repeat unit 3 represented by the following Formula 3: wherein the highly heat-resistant, bio-based polycarbonate ester has a glass transition temperature of 160 to 240°C and a melt flow index of 5 to 150 g/10 min when measured at 260°C under a load of 2.16 kg, both parameters determined as indicated in the specification. a repeat unit 1 represented by the following Formula 1; a repeat unit 2 represented by the following Formula 2; and a repeat unit 3 represented by the following Formula 3: wherein the highly heat-resistant, bio-based polycarbonate ester has a glass transition temperature of 160 to 240°C and a melt flow index of 5 to 150 g/10 min when measured at 260°C under a load of 2.16 kg, both parameters determined as indicated in the specification.
A method of treating a heat sink for a light element, comprising: providing a heat sink having an anodized coated surface ; treating a mounting region of the anodized coated surface by laser ablation, wherein the mounting region is for placing a light element on the heat sink ; adjusting parameters of the laser ablation treating; and adjusting the parameters of the laser ablation treating to remove a predetermined amount of coating to create a predetermined roughness of the mounting region to adapt the mounting region for mechanical coupling and thermal coupling of the light element to the heat sink , wherein the predetermined roughness of the treated portion includes predetermined patterns comprising peaks and valleys to improve the adhesion of the light element to the heat sink . providing a heat sink having an anodized coated surface ; treating a mounting region of the anodized coated surface by laser ablation, wherein the mounting region is for placing a light element on the heat sink ; adjusting parameters of the laser ablation treating; and adjusting the parameters of the laser ablation treating to remove a predetermined amount of coating to create a predetermined roughness of the mounting region to adapt the mounting region for mechanical coupling and thermal coupling of the light element to the heat sink , wherein the predetermined roughness of the treated portion includes predetermined patterns comprising peaks and valleys to improve the adhesion of the light element to the heat sink .
A triblock copolymer having a polyethylene glycol-poly(D,L-lactide)-polyethylene glycol skeleton which comprises a repeating unit represented by formula I: wherein, n is 10 to 1000, and m is 1 to 100. n is 10 to 1000, and m is 1 to 100.
An ink-jet reverse printing method of overprinting a first ink and a second ink on a low-liquid absorbing transparent printing medium, in which: the first ink and the second ink are respectively in the form of a water-based ink comprising a colorant (A), a polymer (B), an organic solvent (C) and water; said ink-jet reverse printing method comprising the steps of forming characters or images using at least one ink as the first ink, and then forming a background image using the second ink such that the background image is superimposed on at least a part of the characters or images formed by the first ink; and characterized in that : a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and : T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C. the first ink and the second ink are respectively in the form of a water-based ink comprising a colorant (A), a polymer (B), an organic solvent (C) and water; said ink-jet reverse printing method comprising the steps of forming characters or images using at least one ink as the first ink, and then forming a background image using the second ink such that the background image is superimposed on at least a part of the characters or images formed by the first ink; and characterized in that : a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and : T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C. a static surface tension and a viscosity of the first ink and a static surface tension and a viscosity of the second ink satisfy a relationship represented by the following formulae and : T 2 − T 1 < 0 mN / m and V 2 − V 1 ≥ 1.0 mPa · s wherein T 2 is the static surface tension of the second ink; T 1 is the static surface tension of the first ink; V 2 is the viscosity of the second ink as measured at 32°C; and V 1 is the viscosity of the first ink as measured at 32°C.
A computer implemented method for generating a list of one or more joint treatment plans and/or surgery plans for a joint of a patient, the method comprising: - obtaining 3D static imagery data of the joint; - obtaining, from motion sensors, 3D kinematic data of the joint in movement, wherein the motion sensors monitor at least one of position, speed and acceleration of the joint relative to three distinct planes of motion of the joint in order to obtain the 3D kinematic data; - merging the 3D kinematic data and the 3D static imagery data of the joint, to produce merged 3D joint data; - processing the 3D joint data by applying a pattern recognition technique on the 3D joint data and thereby determining, from the 3D joint data, scores characterising a joint function of the patient, the scores expressed as an angular unit and being relative to one or more criteria representative of movement of the joint in at least one of flexion-extension, abduction-adduction and internal-external rotation; and - comparing the scores to data in a database which characterize a plurality of treatment plans and/or surgery plans to generate the list of one or more joint treatment plans and/or surgery plans which match the scores. - obtaining 3D static imagery data of the joint; - obtaining, from motion sensors, 3D kinematic data of the joint in movement, wherein the motion sensors monitor at least one of position, speed and acceleration of the joint relative to three distinct planes of motion of the joint in order to obtain the 3D kinematic data; - merging the 3D kinematic data and the 3D static imagery data of the joint, to produce merged 3D joint data; - processing the 3D joint data by applying a pattern recognition technique on the 3D joint data and thereby determining, from the 3D joint data, scores characterising a joint function of the patient, the scores expressed as an angular unit and being relative to one or more criteria representative of movement of the joint in at least one of flexion-extension, abduction-adduction and internal-external rotation; and - comparing the scores to data in a database which characterize a plurality of treatment plans and/or surgery plans to generate the list of one or more joint treatment plans and/or surgery plans which match the scores.
A transmitter for a magnetic flowmeter calibrated for non-conforming flow installations, the transmitter comprising: a current source for energizing the flowmeter , such that the flowmeter generates an induced electromotive force in response to a process flow (F); a memory arranged to store parameters for specifying a non-conforming flow configuration, wherein the non-conforming flow configuration describes an actual flow pipe disturbance in the process flow (F), and wherein the flow pipe disturbance is located within five pipe diameters upstream or two pipe diameters downstream of the magnetic flowmeter , as installed in the process flow (F); and a signal processor arranged to determine a flow rate as a function of the induced electromotive force and the non-conforming flow configuration; wherein the signal processor calculates the flow rate by taking into account the flow pipe disturbance such that the magnetic flowmeter achieves a rated accuracy of one fifth percent to less than one half percent in the non-conforming flow configuration. a current source for energizing the flowmeter , such that the flowmeter generates an induced electromotive force in response to a process flow (F); a memory arranged to store parameters for specifying a non-conforming flow configuration, wherein the non-conforming flow configuration describes an actual flow pipe disturbance in the process flow (F), and wherein the flow pipe disturbance is located within five pipe diameters upstream or two pipe diameters downstream of the magnetic flowmeter , as installed in the process flow (F); and a signal processor arranged to determine a flow rate as a function of the induced electromotive force and the non-conforming flow configuration; wherein the signal processor calculates the flow rate by taking into account the flow pipe disturbance such that the magnetic flowmeter achieves a rated accuracy of one fifth percent to less than one half percent in the non-conforming flow configuration.
A method of making an anti-reflection coating, the method comprising: forming a first layer having a first porosity on a glass substrate, wherein the first layer is formed from a first coating solution comprising first nanoparticles of a first shape and/or size; and forming a second layer over and contacting the first layer, the second layer having a second porosity, wherein the second layer is formed from a second coating solution comprising second nanoparticles of a second shape and/or size; wherein the second porosity is greater than the first porosity, wherein the first silica-based nanoparticles have one of a substantially spherical shape or an elongated and/or asymmetrical shape, and wherein the second silica-based nanoparticles have the other of the substantially spherical shape or the elongated and/or asymmetrical shape. forming a first layer having a first porosity on a glass substrate, wherein the first layer is formed from a first coating solution comprising first nanoparticles of a first shape and/or size; and forming a second layer over and contacting the first layer, the second layer having a second porosity, wherein the second layer is formed from a second coating solution comprising second nanoparticles of a second shape and/or size; wherein the second porosity is greater than the first porosity, wherein the first silica-based nanoparticles have one of a substantially spherical shape or an elongated and/or asymmetrical shape, and wherein the second silica-based nanoparticles have the other of the substantially spherical shape or the elongated and/or asymmetrical shape.
A method comprising: receiving, by a Software Defined Networking, SDN, controller of a data center , a request to initialize an instance of an application, and in response to receiving the request: requesting, by the SDN controller and from a firewall component , positioned between an SDN gateway device of the data center and a network external to the data center, an application signature corresponding to the instance of the application; retrieving, by the SDN controller and from an application firewall policy library of the SDN controller , an application firewall policy corresponding to the application signature, the application firewall policy to be applied to network traffic for the instance of the application; transmitting, by the SDN controller and to the firewall component a message comprising: the application signature corresponding to the instance of the application; and the application firewall policy corresponding to the application signature, wherein the message instructs the firewall component to install the application firewall policy for application to network traffic for the instance of the application. requesting, by the SDN controller and from a firewall component , positioned between an SDN gateway device of the data center and a network external to the data center, an application signature corresponding to the instance of the application; retrieving, by the SDN controller and from an application firewall policy library of the SDN controller , an application firewall policy corresponding to the application signature, the application firewall policy to be applied to network traffic for the instance of the application; transmitting, by the SDN controller and to the firewall component a message comprising: the application signature corresponding to the instance of the application; and the application firewall policy corresponding to the application signature, the application signature corresponding to the instance of the application; and the application firewall policy corresponding to the application signature, wherein the message instructs the firewall component to install the application firewall policy for application to network traffic for the instance of the application.
An authentication processing method under an Authentication and Key Agreement, AKA, authentication mechanism, comprising: receiving (S202), by a terminal, an authentication request message from an authentication function; and in cases where authentication on the authentication request message fails, feeding back (S204), by the terminal, an authentication failure message to the authentication function, wherein in cases where a cause of authentication failure is a Message Authentication Code, MAC, failure and in cases where a cause of authentication failure is a Synchronization, Sync, failure, the terminal feeds back authentication failure messages of the same type to the authentication function; wherein in cases where the cause of the authentication failure is the MAC failure and in cases where the cause of the authentication failure is the Sync failure, the terminal feeds back the authentication failure messages of the same type to the authentication function, comprising: in cases where the cause of the authentication failure is the MAC failure and in cases where the cause of the authentication failure is the Sync failure, the authentication failure messages carry the same failure cause parameter. receiving (S202), by a terminal, an authentication request message from an authentication function; and in cases where authentication on the authentication request message fails, feeding back (S204), by the terminal, an authentication failure message to the authentication function, wherein in cases where a cause of authentication failure is a Message Authentication Code, MAC, failure and in cases where a cause of authentication failure is a Synchronization, Sync, failure, the terminal feeds back authentication failure messages of the same type to the authentication function; wherein in cases where the cause of the authentication failure is the MAC failure and in cases where the cause of the authentication failure is the Sync failure, the terminal feeds back the authentication failure messages of the same type to the authentication function, comprising: in cases where the cause of the authentication failure is the MAC failure and in cases where the cause of the authentication failure is the Sync failure, the authentication failure messages carry the same failure cause parameter.