mhurhangee/patent-ind-claim-en huggingface dataset:
A procedure for loading a borehole with a bulk water-based suspension or watergel type explosive comprising: (i) transportation of a non-explosive or low sensitivity water-based matrix suspension to the location for loading, said suspension comprising at least an oxidant salt, a fuel, and a thickener, and (ii) sensitization of the explosive during the delivery into the borehole, characterized in that said procedure comprises: a) dosing the suspension into the borehole through a delivery hose, b) injecting gas at the end part of the delivery hose, c) dispersing the gas into the suspension by means of a mixer located at the end of the hose, and d) fixing the explosive density by the regulation of the flow rates of matrix and gas. (i) transportation of a non-explosive or low sensitivity water-based matrix suspension to the location for loading, said suspension comprising at least an oxidant salt, a fuel, and a thickener, and (ii) sensitization of the explosive during the delivery into the borehole, characterized in that said procedure comprises: a) dosing the suspension into the borehole through a delivery hose, b) injecting gas at the end part of the delivery hose, c) dispersing the gas into the suspension by means of a mixer located at the end of the hose, and d) fixing the explosive density by the regulation of the flow rates of matrix and gas. a) dosing the suspension into the borehole through a delivery hose, b) injecting gas at the end part of the delivery hose, c) dispersing the gas into the suspension by means of a mixer located at the end of the hose, and d) fixing the explosive density by the regulation of the flow rates of matrix and gas.
A method for manufacturing a lightweight cowl crossbar , the method comprising: producing an inner pipe ; laminating a winding layer comprising a plurality of composite material layers (112a-d) wound around the inner pipe ; performing drawing after each composite material layer of the plurality of composite material layers (112a-d) is laminated; and extruding an outer pipe on the winding layer , wherein at least two composite material layers (112a-d) of the plurality of composite material layers (112a-d) are adjacent to each other and are wound in different directions. producing an inner pipe ; laminating a winding layer comprising a plurality of composite material layers (112a-d) wound around the inner pipe ; performing drawing after each composite material layer of the plurality of composite material layers (112a-d) is laminated; and extruding an outer pipe on the winding layer , wherein at least two composite material layers (112a-d) of the plurality of composite material layers (112a-d) are adjacent to each other and are wound in different directions.
A system , comprising: an electrostatic tool comprising: a handle ; and a first trigger configured to move between a first trigger position and a second trigger position, wherein the electrostatic tool is configured to block a fluid flow in the first trigger position, and the electrostatic tool is configured to enable the fluid flow in the second trigger position to apply a coating material; and an electrostatic activation system comprising a second trigger (120; 164) configured to selectively activate and deactivate electrical charging of the coating material, the system characterised in that the second trigger (120; 164) is configured to extend through a trigger aperture of the first trigger ; wherein the first trigger and the second trigger (120; 164) are rotatably coupled together, or the first trigger and the second trigger (120; 164) are disposed in a nested arrangement, or the first trigger and the second trigger (120; 164) have separate user contact surfaces, and wherein the first trigger and the electrostatics activation system may be separately and simultaneously engaged with a single hand. a handle ; and a first trigger configured to move between a first trigger position and a second trigger position, wherein the electrostatic tool is configured to block a fluid flow in the first trigger position, and the electrostatic tool is configured to enable the fluid flow in the second trigger position to apply a coating material; and an electrostatic activation system comprising a second trigger (120; 164) configured to selectively activate and deactivate electrical charging of the coating material, the system characterised in that the second trigger (120; 164) is configured to extend through a trigger aperture of the first trigger ; wherein the first trigger and the second trigger (120; 164) are rotatably coupled together, or the first trigger and the second trigger (120; 164) are disposed in a nested arrangement, or the first trigger and the second trigger (120; 164) have separate user contact surfaces, and wherein the first trigger and the electrostatics activation system may be separately and simultaneously engaged with a single hand.
A method for forming a light emitting diode, comprising: providing a semiconductor substrate , wherein the semiconductor substrate is an n-doped silicon substrate; forming a first bonding layer on the semiconductor substrate , wherein the first bonding layer comprises palladium; providing a sapphire substrate ; forming a sacrificial layer , a light emitting diode die , a contact electrode layer and a second bonding layer successively on the sapphire substrate , and the light emitting diode die comprising a cap layer , an active layer and a second buffer layer which are formed successively on the sacrificial layer , the cap layer comprising p-doped gallium nitride, the second buffer layer comprising n-doped gallium nitride, the contact electrode layer comprising titanium, and the second bonding layer comprising palladium, silver or indium; bonding the first bonding layer and the second bonding layer ; and removing the sacrificial layer and peeling the sapphire substrate . providing a semiconductor substrate , wherein the semiconductor substrate is an n-doped silicon substrate; forming a first bonding layer on the semiconductor substrate , wherein the first bonding layer comprises palladium; providing a sapphire substrate ; forming a sacrificial layer , a light emitting diode die , a contact electrode layer and a second bonding layer successively on the sapphire substrate , and the light emitting diode die comprising a cap layer , an active layer and a second buffer layer which are formed successively on the sacrificial layer , the cap layer comprising p-doped gallium nitride, the second buffer layer comprising n-doped gallium nitride, the contact electrode layer comprising titanium, and the second bonding layer comprising palladium, silver or indium; bonding the first bonding layer and the second bonding layer ; and removing the sacrificial layer and peeling the sapphire substrate .
Silicon carbide substrate, wherein the substrate has a thickness of less than 1000 μm and more than 200 μm and has a diameter of at least 100 mm, the substrate comprising: a doped inner region which constitutes at least 30 % of a total surface area of said substrate , a doped ring shaped peripheral region radially surrounding the inner region , wherein a mean concentration of a dopant in the inner region differs by at least 1.10 18 cm -3 from the mean concentration of this dopant in the peripheral region , and wherein a bow of the substrate is less than 25 μm and/or a warp of the substrate is less than 40 μm. a doped inner region which constitutes at least 30 % of a total surface area of said substrate , a doped ring shaped peripheral region radially surrounding the inner region , wherein a mean concentration of a dopant in the inner region differs by at least 1.10 18 cm -3 from the mean concentration of this dopant in the peripheral region , and wherein a bow of the substrate is less than 25 μm and/or a warp of the substrate is less than 40 μm.
Electronic eyewear viewing device comprising - a frame arranged to be wearable on a user's head, - a display module comprising a display for viewing images, - a carrier for carrying said display module, said carrier being connected to said frame, characterised in that said electronic eyewear viewing device comprises - a primary pivoting hinge system arranged for interconnecting said carrier and said display module and comprising a first at least partially spherical joint rotatably mounted around a first axis passing through said first at least partially spherical joint via a first cut-out and rotatably mounted around a second axis connected with said first at least partially spherical joint via a second cut-out and passing through a hole in said first axis, whereby said second axis crosses said first axis through said hole in a centre point of said first at least partially spherical joint. - a frame arranged to be wearable on a user's head, - a display module comprising a display for viewing images, - a carrier for carrying said display module, said carrier being connected to said frame, characterised in that said electronic eyewear viewing device comprises - a primary pivoting hinge system arranged for interconnecting said carrier and said display module and comprising a first at least partially spherical joint rotatably mounted around a first axis passing through said first at least partially spherical joint via a first cut-out and rotatably mounted around a second axis connected with said first at least partially spherical joint via a second cut-out and passing through a hole in said first axis, whereby said second axis crosses said first axis through said hole in a centre point of said first at least partially spherical joint.
A compound which is 2-methylsulfanyl-6-nitro-7-oxo-1,2,4-triazolo[5,1-c] triazinid L-arginine dihydrate, the compound having the formula:
Additive manufacturing method for producing a three-dimensional component (10; 14) from a plurality of component layers by way of multiple incremental addition, in particular layer-by-layer addition, of powdery, wire-shaped or tape-shaped component initial material and shaping solidification, in particular incremental solidification, by respective selective melting and/or sintering of the component initial material by means of an amount of heat introduced from at least one energy source in accordance with a scanning strategy, wherein the scanning strategy comprises a scanning pattern comprising hatching, wherein the direction of the scanning vectors of the hatching is chosen in a component geometry-specific fashion for a respective component layer, characterized in that the hatching for a component layer to be newly applied is chosen in such a way that the scanning vectors , with a deviation of no more than ±45°, extend perpendicular to the principal stress direction present in the component layer after application of the same, wherein the principal stress direction is chosen on the basis of the numerical simulation, wherein isotropic strain is used for ascertaining the principal stress direction so as to have no influence of the hatching not yet defined at this time, wherein the situation arising within a layer following the effect of an isotropic negative volume strain on this layer is observed.
A method of a user equipment, UE, in a communication system, the method comprising: acquiring a first key for a group to which the UE belongs and an algorithm identifier, ID, indicating an algorithm used for protecting data; acquiring an ID associated with a first entity; generating a second key based on the first key; generating a third key based on the second key; and protecting the data based on the algorithm, and at least one of the third key and the ID associated with the first entity, wherein at least one other entity generated for the group uses the second key. acquiring a first key for a group to which the UE belongs and an algorithm identifier, ID, indicating an algorithm used for protecting data; acquiring an ID associated with a first entity; generating a second key based on the first key; generating a third key based on the second key; and protecting the data based on the algorithm, and at least one of the third key and the ID associated with the first entity, wherein at least one other entity generated for the group uses the second key.
Fully automatic filling device for filling battery cells, in particular lead-acid accumulator cells, with an electrolyte solution, in particular a sulfuric electrolyte solution, the device comprising a. a mixing unit, in particular a mixing cylinder, for preparing an electrolyte solution from several components at temperatures between -25°C and 0°C; b. a dosing unit for introducing the electrolyte solution into the battery cell, wherein the dosing unit is fluidically connected to the mixing unit and arranged downstream thereof in the direction of flow of the electrolyte solution; c. a controlling/regulating unit for fully automatic control and regulation of at least the mixing unit and the dosing unit, the controlling/regulating unit comprising a digital data processing means, a digital data storage as well as sensors and actuators connected to the mixing unit and/or dosing unit in data transmitting manner, characterized by a vibration unit for generating high-frequency vibrations within the electrolyte solution. a. a mixing unit, in particular a mixing cylinder, for preparing an electrolyte solution from several components at temperatures between -25°C and 0°C; b. a dosing unit for introducing the electrolyte solution into the battery cell, wherein the dosing unit is fluidically connected to the mixing unit and arranged downstream thereof in the direction of flow of the electrolyte solution; c. a controlling/regulating unit for fully automatic control and regulation of at least the mixing unit and the dosing unit, the controlling/regulating unit comprising a digital data processing means, a digital data storage as well as sensors and actuators connected to the mixing unit and/or dosing unit in data transmitting manner,
A pet food composition for treating or preventing inflammation or an inflammatory disorder in a companion animal comprising: at least one of caprylic acid and capric acid present in an amount ranging from 1% to 7%; and at least one of DHA and EPA present in an amount ranging from 0.2% to 3% by weight based on the total weight of the pet food composition; wherein the at least one of caprylic acid and capric acid and the at least one of DHA and EPA provide a synergistic decrease in the amount of circulating cytokines in the companion animal after the companion animal consumes the pet food composition; and wherein said cytokines are at least one of Fas, GM-CSF, IL-2, IL-13, IL-8, SDF-1, and TNF-α. at least one of caprylic acid and capric acid present in an amount ranging from 1% to 7%; and at least one of DHA and EPA present in an amount ranging from 0.2% to 3% by weight based on the total weight of the pet food composition; wherein the at least one of caprylic acid and capric acid and the at least one of DHA and EPA provide a synergistic decrease in the amount of circulating cytokines in the companion animal after the companion animal consumes the pet food composition; and wherein said cytokines are at least one of Fas, GM-CSF, IL-2, IL-13, IL-8, SDF-1, and TNF-α.
A computer-implemented method of locally verifying an attribute associated with a user, the method comprising performing, by a computing device , steps including: capturing biometric verification data using the computing device; determining whether the biometric verification data corresponds to the user by comparing the biometric verification data with authenticated biometric data of the user previously obtained from an identity document, ID, and stored locally on the computing device; in response to determining that the biometric verification data corresponds to the user, verifying the attribute associated with the user based on attribute information associated with the user previously obtained from the ID and stored locally on the computing device; and presenting , on a display of the computing device, a machine-readable confirmation of the verified attribute associated with the user. capturing biometric verification data using the computing device; determining whether the biometric verification data corresponds to the user by comparing the biometric verification data with authenticated biometric data of the user previously obtained from an identity document, ID, and stored locally on the computing device; in response to determining that the biometric verification data corresponds to the user, verifying the attribute associated with the user based on attribute information associated with the user previously obtained from the ID and stored locally on the computing device; and presenting , on a display of the computing device, a machine-readable confirmation of the verified attribute associated with the user.
An acoustic sensor comprising: - a component having an input and an output, the component being able to conduct light waves in a plurality of propagation modes between the input and the output, the component being further adapted to convert an acoustic signal to be measured into a phase shift proportional to an intermodal interference between at least two propagation modes, and - a detector of a physical quantity dependent on the phase shift of the signal coming from the component , the acoustic sensor being characterized in that the component comprises a multimode optical fiber , positioned between two reflectors , to form a cavity. - a component having an input and an output, the component being able to conduct light waves in a plurality of propagation modes between the input and the output, the component being further adapted to convert an acoustic signal to be measured into a phase shift proportional to an intermodal interference between at least two propagation modes, and - a detector of a physical quantity dependent on the phase shift of the signal coming from the component ,
Method for controlling a core drilling system including a core drilling machine with a drilling tool for generating a borehole in a material and an advancing device for driving the core drilling machine along a machine-holding device , comprising the method step of - driving the drilling tool forwards in a direction (C) along the machine-holding device ; - characterized by the following method steps - detecting an advancing speed and at least one predetermined drilling parameter; - detecting a predetermined drilling situation on the basis of the reaching of a predetermined threshold value for the at least one predetermined drilling parameter; - on reaching the threshold value: detecting whether the advancing speed is greatly reduced and - if so: ending the core drilling operation by selecting a reverse-travel mode for removing the drilling tool from the borehole , and - if not: detecting further driving forward of the advancing device along the machine-holding device and ending the core drilling operation by selecting a reverse-travel mode for removing the drilling tool from the borehole if the advancing device reaches a predetermined threshold value for a predetermined distance value in the direction (C) and the core drilling machine does not reach a predetermined threshold value for the at least one predetermined drilling parameter; and - continuing the core drilling operation by selecting a predetermined operating mode if the advancing device does not reach the predetermined threshold value for the predetermined distance value in the direction (C) and the core drilling machine reaches the further predetermined threshold value for the at least one predetermined drilling parameter. - driving the drilling tool forwards in a direction (C) along the machine-holding device ; - characterized by the following method steps - detecting an advancing speed and at least one predetermined drilling parameter; - detecting a predetermined drilling situation on the basis of the reaching of a predetermined threshold value for the at least one predetermined drilling parameter; - on reaching the threshold value: detecting whether the advancing speed is greatly reduced and - if so: ending the core drilling operation by selecting a reverse-travel mode for removing the drilling tool from the borehole , and - if not: detecting further driving forward of the advancing device along the machine-holding device and ending the core drilling operation by selecting a reverse-travel mode for removing the drilling tool from the borehole if the advancing device reaches a predetermined threshold value for a predetermined distance value in the direction (C) and the core drilling machine does not reach a predetermined threshold value for the at least one predetermined drilling parameter; and - continuing the core drilling operation by selecting a predetermined operating mode if the advancing device does not reach the predetermined threshold value for the predetermined distance value in the direction (C) and the core drilling machine reaches the further predetermined threshold value for the at least one predetermined drilling parameter.
Rotational moulding machine , the machine comprising: - a fixed frame ; - a support arm comprising a first and a second portion rigidly joined together, said support arm being rotationally fixed to said fixed frame only at said first portion to rotate about a first axis of rotation substantially horizontal, wherein said second portion develops protruding from the first portion substantially parallelly to said first axis of rotation ; - a movable frame rotationally fixed to said support arm at said second portion to rotate about a second axis of rotation substantially perpendicular to said first axis of rotation , said movable frame comprising a supporting portion which lies in a plane substantially perpendicular to said second axis of rotation ; - an actuation system rigidly fixed to said movable frame at said supporting portion , characterized in that said actuation system is structured to secure a mould and rotate said mould about a third axis of rotation substantially perpendicular to said second axis of rotation . - a fixed frame ; - a support arm comprising a first and a second portion rigidly joined together, said support arm being rotationally fixed to said fixed frame only at said first portion to rotate about a first axis of rotation substantially horizontal, wherein said second portion develops protruding from the first portion substantially parallelly to said first axis of rotation ; - a movable frame rotationally fixed to said support arm at said second portion to rotate about a second axis of rotation substantially perpendicular to said first axis of rotation , said movable frame comprising a supporting portion which lies in a plane substantially perpendicular to said second axis of rotation ; - an actuation system rigidly fixed to said movable frame at said supporting portion ,