mhurhangee/patent-ind-claim-en huggingface dataset:
A method of converting an energy consumption node, comprising: providing a guided surface wave receive structure (R) configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, the obtained electrical energy comprising alternating current (AC) at an operating frequency and a first voltage, the receive structure (R) comprising: a charge terminal (T 1 ) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1 ) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure (R); disconnecting a preexisting source of electrical energy from a distribution system ; and coupling the distribution system to an output of the guided surface wave receive structure (R), the distribution system configured to distribute the obtained electrical energy to an electrical load via an AC voltage converter configured to convert the first voltage to a different voltage compatible with the electrical load and to maintain the different voltage within a particular voltage range at the operating frequency. providing a guided surface wave receive structure (R) configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, the obtained electrical energy comprising alternating current (AC) at an operating frequency and a first voltage, the receive structure (R) comprising: a charge terminal (T 1 ) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1 ) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure (R); a charge terminal (T 1 ) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1 ) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure (R); disconnecting a preexisting source of electrical energy from a distribution system ; and coupling the distribution system to an output of the guided surface wave receive structure (R), the distribution system configured to distribute the obtained electrical energy to an electrical load via an AC voltage converter configured to convert the first voltage to a different voltage compatible with the electrical load and to maintain the different voltage within a particular voltage range at the operating frequency.
A fluidic system configured to allow re-use of one or more reagents, the system comprising: a. a reagent reservoir ; b. a flow cell; c. a manifold body made of a solid material and having one or more lines formed therein, configured such that the reagent reservoir is in fluid communication with the flow cell through one or more lines, wherein the one or more lines of the manifold body includes a fluidic track through the solid material; the fluidic system characterized in that a portion of the line comprises a cache reservoir configured to receive liquid reagent from the reagent reservoir, the cache reservoir having an increased volume compared to the other portions of the line , and configured to provide a volume of the liquid reagent into a line of the flow cell, and configured to receive at least a portion of the liquid reagent back from the flow cell for re-use in the flow cell and maintain a gradient of the portion of the liquid reagent back from the flow cell and fresh liquid reagent within the cache reservoir; and wherein the cache reservoir is in fluid communication with a pump configured to move liquid reagent from the cache reservoir to the flow cell and from the flow cell back to the cache reservoir . a. a reagent reservoir ; b. a flow cell; c. a manifold body made of a solid material and having one or more lines formed therein, configured such that the reagent reservoir is in fluid communication with the flow cell through one or more lines, wherein the one or more lines of the manifold body includes a fluidic track through the solid material; the fluidic system characterized in that a portion of the line comprises a cache reservoir configured to receive liquid reagent from the reagent reservoir, the cache reservoir having an increased volume compared to the other portions of the line , and configured to provide a volume of the liquid reagent into a line of the flow cell, and configured to receive at least a portion of the liquid reagent back from the flow cell for re-use in the flow cell and maintain a gradient of the portion of the liquid reagent back from the flow cell and fresh liquid reagent within the cache reservoir; and wherein the cache reservoir is in fluid communication with a pump configured to move liquid reagent from the cache reservoir to the flow cell and from the flow cell back to the cache reservoir .
A kitchen showerhead, comprising: a pressing valve provided with a valve body and a pressing rod , wherein a water passing cavity is arranged in the valve body , a water inlet and a water outlet which are communicated with the water passing cavity are respectively arranged on both ends of the valve body , a water stop opening is arranged in the water passing cavity , the pressing rod is inserted into the water stop opening , one end of the pressing rod is provided with a pressing end penetrating through the valve body , and the other end of the pressing rod is provided with a water stop piston for closing the water stop opening ; a piston cylinder arranged on the valve body , wherein the water stop piston is inserted into the piston cylinder , one end of the water stop piston facing away from the water stop opening and the piston cylinder form a hydraulic cavity , the water stop piston is provided with a water passing hole communicated with the hydraulic cavity , and the hydraulic cavity is communicated with the water inlet through the water passing hole ; a first compression spring located in the hydraulic cavity , wherein one end of the first compression spring abuts against the water stop piston , and the other end of the first compression spring abuts against the piston cylinder ; and a showerhead body arranged at the water outlet . a pressing valve provided with a valve body and a pressing rod , wherein a water passing cavity is arranged in the valve body , a water inlet and a water outlet which are communicated with the water passing cavity are respectively arranged on both ends of the valve body , a water stop opening is arranged in the water passing cavity , the pressing rod is inserted into the water stop opening , one end of the pressing rod is provided with a pressing end penetrating through the valve body , and the other end of the pressing rod is provided with a water stop piston for closing the water stop opening ; a piston cylinder arranged on the valve body , wherein the water stop piston is inserted into the piston cylinder , one end of the water stop piston facing away from the water stop opening and the piston cylinder form a hydraulic cavity , the water stop piston is provided with a water passing hole communicated with the hydraulic cavity , and the hydraulic cavity is communicated with the water inlet through the water passing hole ; a first compression spring located in the hydraulic cavity , wherein one end of the first compression spring abuts against the water stop piston , and the other end of the first compression spring abuts against the piston cylinder ; and a showerhead body arranged at the water outlet .
A current transformer support device, comprising: - three conductors , each of which has a first connection portion at one end and a second connection portion at the other end, and which are aligned linearly side by side while being spaced apart from one another; and - a current transformer case which integrally insulates and supports the three conductors between the one end and the other end, the current transformer case having current transformer attachment portions provided at positions corresponding to at least two of the three conductors , to which ring-like current transformer coils formed so as to insert the conductors are attached; and wherein the current transformer case and the current transformer coils attached to the current transformer attachment portions are formed into one unit with a hardening insulating material, the current transformer support device being characterized in that : - a bushing attachment portion (A) having a recess shaped like a long hole is provided to a front end face of the current transformer case ; - a bushing in which the conductors are inserted and which insulates and supports the conductors is attached to the bushing attachment portion (A) in a re-attachable manner; the bushing includes conductor surrounding portions to surround the three conductors in a one-to-one correspondence, and a through-hole provided to a bottom portion of each conductor surrounding portion so as to insert the corresponding conductor when the bushing is attached to the bushing attachment portion (A); and a clearance is provided between an outer peripheral surface of each conductor and an inner peripheral surface of the corresponding through-hole provided to the bushing . - three conductors , each of which has a first connection portion at one end and a second connection portion at the other end, and which are aligned linearly side by side while being spaced apart from one another; and - a current transformer case which integrally insulates and supports the three conductors between the one end and the other end, - a bushing attachment portion (A) having a recess shaped like a long hole is provided to a front end face of the current transformer case ; - a bushing in which the conductors are inserted and which insulates and supports the conductors is attached to the bushing attachment portion (A) in a re-attachable manner;
An oxygen vacancy electrolyte material comprising bismuth calcium ferrites (Bi 1-x Ca x FeO 3-δ ) , wherein an oxygen vacancy diffusivity of the bismuth calcium ferrites is included in a range of 10 -10 to 10 -6 cm 2 /sec at a temperature of 250°C to 400°C, as measured according to the method of the description, characterized in that a calcium ion concentration x is in a range of 0.4 to 0.5. wherein an oxygen vacancy diffusivity of the bismuth calcium ferrites is included in a range of 10 -10 to 10 -6 cm 2 /sec at a temperature of 250°C to 400°C, as measured according to the method of the description, characterized in that a calcium ion concentration x is in a range of 0.4 to 0.5.
A computer-implemented method , comprising: accessing a clinical goal for radiation treatment of a patient; selecting a first dose prediction model from a plurality of dose prediction models according to the clinical goal , wherein each dose prediction model in the plurality of dose prediction models is indexed by one or more clinical goals used to train the respective dose prediction model; and generating a radiation treatment plan for the patient, said generating comprising executing the first dose prediction model selected according to the clinical goal . accessing a clinical goal for radiation treatment of a patient; selecting a first dose prediction model from a plurality of dose prediction models according to the clinical goal , wherein each dose prediction model in the plurality of dose prediction models is indexed by one or more clinical goals used to train the respective dose prediction model; and generating a radiation treatment plan for the patient, said generating comprising executing the first dose prediction model selected according to the clinical goal .
A composite material made of a textile fibrous product having a coating comprising from 5% by weight to 100% by weight of applied material, based on the raw composition of the fibrous product, wherein the material comprises from 20 to 100% by weight of polymers based on ethylenically polymerizable monomers having a glass transition temperature of at least 60 °C, from 0 to 80% by weight of cross-linking components; and from 0 to 20% by weight of other additives; in a mineral matrix. from 20 to 100% by weight of polymers based on ethylenically polymerizable monomers having a glass transition temperature of at least 60 °C, from 0 to 80% by weight of cross-linking components; and from 0 to 20% by weight of other additives; in a mineral matrix.
A method to communicate within a communication network comprising a master device and a slave device , the method comprising: creating a master CRC array from master configuration structures at the master device ; creating a main master CRC value from the master CRC array at the master device ; receiving at the master device a main slave CRC value with a data measurement packet from the slave device , the main slave CRC value , created from slave configuration structures used by the slave device to measure data for the data measurement packet; if the main master CRC value and the main slave CRC value are different at the master device replacing one or more of the master configuration structures at the master device with one or more of the slave configuration structures from the slave device depending on the differences between the main master CRC value and the main slave CRC value . creating a master CRC array from master configuration structures at the master device ; creating a main master CRC value from the master CRC array at the master device ; receiving at the master device a main slave CRC value with a data measurement packet from the slave device , the main slave CRC value , created from slave configuration structures used by the slave device to measure data for the data measurement packet; if the main master CRC value and the main slave CRC value are different at the master device replacing one or more of the master configuration structures at the master device with one or more of the slave configuration structures from the slave device depending on the differences between the main master CRC value and the main slave CRC value .
Warhead for engaging a target with reactive armour and/or a distance-active protection system, with a plurality of charges, the plurality comprising at least a first charge and a second charge, the charges each comprising a liner and a sensitive explosive (4a, b), and the charges each being configured as projectile-forming charges, each of the charges being configured to emit a respective projectile (7a,b) upon detection thereof, characterized in that the plurality of charges are arranged to form a sandwich arrangement, an explosive layer being arranged in each case between two liners . with a plurality of charges, the plurality comprising at least a first charge and a second charge, the charges each comprising a liner and a sensitive explosive (4a, b), and the charges each being configured as projectile-forming charges, each of the charges being configured to emit a respective projectile (7a,b) upon detection thereof, characterized in that the plurality of charges are arranged to form a sandwich arrangement, an explosive layer being arranged in each case between two liners .
Method of measuring the depth of penetration (d) of a laser beam into a workpiece , comprising the following steps: a) focusing the laser beam in a focal spot by aid of a focusing optics arranged in a machining head , whereby the focal spot generates a vapor capillary in the workpiece; b) generating a first measuring beam and a second measuring beam with an optical coherence tomograph ; c) directing the first measuring beam at a stationary first measuring point (MPa) in the vapor capillary in order to thereby measure a first distance (a1) between a reference point and the first measuring point; d) concurrently with step c), directing the second measuring beam at a second measuring point (MPb) on a surface of the workpiece facing the machining head outside of the vapor capillary in order to thereby measure a second distance (a2) between the reference point and the second measuring point; e) determining the depth of penetration (d) of the laser beam from the first distance (a1) and the second distance (a2); characterized in that in step d), the second measuring beam is directed successively at different second measuring points (MPb) on the surface of the workpiece with a scanning device , and in that the first measuring beam is, upon impinging the workpiece , separated from the second measuring beam by a space free of measuring light. a) focusing the laser beam in a focal spot by aid of a focusing optics arranged in a machining head , whereby the focal spot generates a vapor capillary in the workpiece; b) generating a first measuring beam and a second measuring beam with an optical coherence tomograph ; c) directing the first measuring beam at a stationary first measuring point (MPa) in the vapor capillary in order to thereby measure a first distance (a1) between a reference point and the first measuring point; d) concurrently with step c), directing the second measuring beam at a second measuring point (MPb) on a surface of the workpiece facing the machining head outside of the vapor capillary in order to thereby measure a second distance (a2) between the reference point and the second measuring point; e) determining the depth of penetration (d) of the laser beam from the first distance (a1) and the second distance (a2);
Process for producing phosphate glass fiber, characterized in that it comprises the following steps a) Preparation of a mixture comprising at least one fertilizer of the triple superphosphate or phosphorus/potassium type, phosphoric acid and doping additives containing oligo-nutrients, the doping additives being chosen from red clay, green clay, kaolin, ghassoul or fly ash, b) the resulting mixture is placed in an oven for pre-treatment at a temperature of between 100 and 200°C for a period of approximately one hour to eliminate H 2 O and CO 2 , c) then baking the mixture from (b) at a temperature of between 950 and 1100°C for approximately 2 hours, d) the molten mixture from step c) is quenched in a holder at 300°C, e) preparation of fibers from the glass block obtained in step d) by a melt-drawing spinning process at temperatures of between 550 and 750°C. a) Preparation of a mixture comprising at least one fertilizer of the triple superphosphate or phosphorus/potassium type, phosphoric acid and doping additives containing oligo-nutrients, the doping additives being chosen from red clay, green clay, kaolin, ghassoul or fly ash, b) the resulting mixture is placed in an oven for pre-treatment at a temperature of between 100 and 200°C for a period of approximately one hour to eliminate H 2 O and CO 2 , c) then baking the mixture from (b) at a temperature of between 950 and 1100°C for approximately 2 hours, d) the molten mixture from step c) is quenched in a holder at 300°C, e) preparation of fibers from the glass block obtained in step d) by a melt-drawing spinning process at temperatures of between 550 and 750°C.
A blind rivet nut-setting tool comprising: an output shaft defining a longitudinal axis , the output shaft moveable along the longitudinal axis between a first output shaft position and a second output shaft position; a carrier moveable along the longitudinal axis between a first carrier position and a second carrier position; a first motor configured to rotate the output shaft about the longitudinal axis in response to an external force moving the output shaft in a rearward direction from the first output shaft position to the second output shaft position; and a second motor configured to translate the carrier along the longitudinal axis between the first carrier position and the second carrier position; characterised in that a cam member rotated by the second motor and including a pin arranged in a lobe of the carrier , wherein in response to the cam member being rotated in a first direction by the second motor , the carrier is translated along the longitudinal axis from the first carrier position to the second carrier position, and wherein the output shaft is translated along the longitudinal axis in the rearward direction when the second motor moves the carrier from the first carrier position to the second carrier position. an output shaft defining a longitudinal axis , the output shaft moveable along the longitudinal axis between a first output shaft position and a second output shaft position; a carrier moveable along the longitudinal axis between a first carrier position and a second carrier position; a first motor configured to rotate the output shaft about the longitudinal axis in response to an external force moving the output shaft in a rearward direction from the first output shaft position to the second output shaft position; and a second motor configured to translate the carrier along the longitudinal axis between the first carrier position and the second carrier position; characterised in that a cam member rotated by the second motor and including a pin arranged in a lobe of the carrier , wherein in response to the cam member being rotated in a first direction by the second motor , the carrier is translated along the longitudinal axis from the first carrier position to the second carrier position, and wherein the output shaft is translated along the longitudinal axis in the rearward direction when the second motor moves the carrier from the first carrier position to the second carrier position.