mhurhangee/patent-ind-claim-en huggingface dataset:
Method for generatively producing a dental moulding for dental restoration and/or as a dental prosthesis, having the following steps: a) providing at least one layer of a dispersion, in particular an aqueous dispersion, wherein the dispersion has at least one binder, and wherein the dispersion has ceramic particles and/or glass ceramic particles and/or powder metal particles; b) applying hardeners to the layer of the dispersion in places in order to activate the at least one binder in order to harden the layer of the dispersion in places, whereby a rough blank is obtained, in particular a green body, wherein at least two hardeners having a different material composition from each other are used, wherein at least one of the hardeners contains ions of at least a first type; c) sintering the rough blank to form the dental moulding, characterised in that the dispersion comprises at least one hydrocolloid in the form of an alginate, in particular an ammonium alginate, for adjusting the rheological and gel-forming properties and/or in that the dispersion comprises at least one polyacrylate. a) providing at least one layer of a dispersion, in particular an aqueous dispersion, wherein the dispersion has at least one binder, and wherein the dispersion has ceramic particles and/or glass ceramic particles and/or powder metal particles; b) applying hardeners to the layer of the dispersion in places in order to activate the at least one binder in order to harden the layer of the dispersion in places, whereby a rough blank is obtained, in particular a green body, wherein at least two hardeners having a different material composition from each other are used, wherein at least one of the hardeners contains ions of at least a first type; c) sintering the rough blank to form the dental moulding, characterised in that the dispersion comprises at least one hydrocolloid in the form of an alginate, in particular an ammonium alginate, for adjusting the rheological and gel-forming properties and/or in that the dispersion comprises at least one polyacrylate.
A forming device having a ram which is movable back and forth in at least one predefined direction, comprising at least: - a main drive unit for driving the ram , which has an engageable non-position-controlled drive motor with a flywheel mass and a drive shaft with an eccentric guide unit , - a gear which is connected to the eccentric guide unit and the ram , and - a position-controlled intermediate drive having a separate intermediate drive shaft , which is connected to the ram and is configured to produce a positioning movement of the ram , wherein a movement of the ram produced by the intermediate drive leads along a section of the movement path made possible by the main drive. - a main drive unit for driving the ram , which has an engageable non-position-controlled drive motor with a flywheel mass and a drive shaft with an eccentric guide unit , - a gear which is connected to the eccentric guide unit and the ram , and - a position-controlled intermediate drive having a separate intermediate drive shaft , which is connected to the ram and is configured to produce a positioning movement of the ram , wherein a movement of the ram produced by the intermediate drive leads along a section of the movement path made possible by the main drive.
Motorised trimming device for trimming the edges of coating tiles, comprising a hand-held support frame, on which a motor assembly driving a shaft carrying an abrasive disc is mounted, said frame comprising a support plate with a lower planar side, and an upper side on which holding means of said motor assembly are provided, further comprising a drive shaft which is rotatingly mounted according to a rotation axis X-X and crosses perpendicularly said support plate , the lower end of said shaft projecting from the lower side of said support plate with an engaging head for an abrasive disc , characterised in that it comprises a rectilinear guiding bar , provided with an abutment edge on which said tile edge (M') to be trimmed is meant to slide, said bar being mounted, on the lower side of said support plate , adjustable in position with respect to said rotation axis X-X, -wherein said bar has a constant section except in a central recessed area with a flared out shape obtained in a portion close to said rotation axis X-X resulting in a the recessed thickness of the bar in the flaring area which defines a desired spacing between a working surface of said grinding wheel and a noble surface of a tile on which the plate is apt to be moved.
Method for the correction of a printing position of a printing unit of a printing press which has at least one sensor unit , with the steps of: - detecting by means of the sensor unit of an actual position of at least one printing mark which is printed onto a printing material by means of a printing unit ; - determining of a deviation of the detected actual position from a setpoint position; - determining of at least one differential value which characterizes the deviation; - determining of a correction value, - correction of the printing position on the basis of the determined correction value, characterized by the following steps: - determining of a buffer value from a number of basic values which have previously been stored in a memory ; - determining of the correction value, by the buffer value being subtracted from the differential value; - storing of the determined correction value as one of the basic values in the memory . - detecting by means of the sensor unit of an actual position of at least one printing mark which is printed onto a printing material by means of a printing unit ; - determining of a deviation of the detected actual position from a setpoint position; - determining of at least one differential value which characterizes the deviation; - determining of a correction value, - correction of the printing position on the basis of the determined correction value, - determining of a buffer value from a number of basic values which have previously been stored in a memory ; - determining of the correction value, by the buffer value being subtracted from the differential value; - storing of the determined correction value as one of the basic values in the memory .
A regenerative combustion plant adapted to burn low-calorific-value fuels in a furnace or combustion chamber for high-temperature thermal processes at around 1200-1300°C, said plant comprising at least one air-regeneration unit and at least one regeneration unit of low-calorific-value fuel for preheating air and low-calorific-value fuel before entering a control area of the furnace , wherein each of said regeneration units is positioned on a respective exhaust fume duct at the outlet of the furnace and on an air-feeding duct and a feeding duct of low-calorific-value fuel at the inlet of the furnace, wherein each regeneration unit is periodically and selectively run in two different consecutive regeneration and combustion states, valves being envisaged on said ducts, downstream of said regeneration units in an open and/or closed arrangement depending on one of the two regeneration and combustion states selected and active, characterized in that a post-combustion unit is connected to a duct , at the outlet of the fuel regeneration unit , which is fed by at least a part of regenerated fumes coming from a fume-regeneration valve at the outlet of said fuel-regeneration unit , said post-combustion unit being further fed by a certain quantity of air coming from a valve positioned on an air-feeding line and by a certain quantity of fuel fed by a valve of a feeding line of low-calorific-value fuel to complete the oxidation of the regenerated fumes coming from the fume-regeneration valve inside the post-combustion unit , said post-combustion unit being connected at the outlet to at least one heat exchanger , wherein said control area comprises consecutive control areas (11a, 11b, 11c, 11d, etc.), each of said control areas comprising at least one air-regeneration unit and at least one regeneration unit of low-calorific-value fuel , wherein each of said fuel regeneration units is connected to said post-combustion unit .
A sorting system comprising: a first number of insertion points configured to provide sorting goods ; a second number of terminal points configured to receive the sorting goods ; a third number of driverless sorting vehicles configured to transport the sorting goods between the first number of insertion points and the second number of terminal points ; and a control device configured to control the driverless sorting vehicles between the first number of insertion points and the second number of terminal points ; wherein at least one driverless sorting vehicle is configured to discharge the sorting good using kinetic energy of the sorting good provided by a travel motion of the driverless sorting vehicle, based on a change of a speed vector of the driverless sorting vehicle. a first number of insertion points configured to provide sorting goods ; a second number of terminal points configured to receive the sorting goods ; a third number of driverless sorting vehicles configured to transport the sorting goods between the first number of insertion points and the second number of terminal points ; and a control device configured to control the driverless sorting vehicles between the first number of insertion points and the second number of terminal points ; wherein at least one driverless sorting vehicle is configured to discharge the sorting good using kinetic energy of the sorting good provided by a travel motion of the driverless sorting vehicle, based on a change of a speed vector of the driverless sorting vehicle.
A computer-implemented method for determining fluid flow and acoustics through a three-dimensional porous material , the method comprising: obtaining measured geometrical and physical characteristics of the three-dimensional porous material; modeling, using the measured geometrical and physical characteristics, the three-dimensional porous material as a two-dimensional interface having a length, a width, and an insignificant thickness in a simulation space , in which fluid flows and sound waves travel through the porous material and experience pressure and acoustic losses; simulating, using the measured geometrical and physical characteristics, in the simulation space , fluid flow and propagation of sound waves, the activity of the fluid being simulated so as to simulate movement of elements within the simulation space and across the two-dimensional interface, where the simulation of the movement of the elements across the two-dimensional interface is governed by the model; and determining acoustic damping characteristics of the three-dimensional porous material based on the simulation. obtaining measured geometrical and physical characteristics of the three-dimensional porous material; modeling, using the measured geometrical and physical characteristics, the three-dimensional porous material as a two-dimensional interface having a length, a width, and an insignificant thickness in a simulation space , in which fluid flows and sound waves travel through the porous material and experience pressure and acoustic losses; simulating, using the measured geometrical and physical characteristics, in the simulation space , fluid flow and propagation of sound waves, the activity of the fluid being simulated so as to simulate movement of elements within the simulation space and across the two-dimensional interface, where the simulation of the movement of the elements across the two-dimensional interface is governed by the model; and determining acoustic damping characteristics of the three-dimensional porous material based on the simulation.
Use of hybrid True Potato Seed (TPS) wherein a representative sample of said seed is deposited under NCIBM 42469 for the production of seed potato tubers.
A method for setting up a system for deicing a skin of an aircraft element, including the deposition over the skin of several independent layers of solid and/or fluid materials which are successively set, comprising at least one layer of a material with a controlled electric resistivity , receiving electrodes conducting an electric current originating from an external source , which is surrounded on each side by layers of an electrically-insulating material , this method being characterized in that said layer with a controlled electric resistivity is a layer of a polyurethane paint charged with carbon particles.
Method for applying a layer to a component , wherein the layer comprises chromium oxide, characterized in that the layer is applied to the at least one surface of the component by laser deposition welding of chromium oxide with a degree of purity of at least 95% or 99%.
Foliage-processing device (1; 101; 201; 301; 401) which can be moved across agricultural land in a direction of travel for foliage of tuberous plants growing in rows on agricultural land, wherein the foliage-processing device is provided with: - a foliage puller (7; 107; 207; 307; 407) which is provided with at least two mutually oppositely rotating rollers (9a, 9b; 109a, 109b; 209a, 209b; 309a, 309b; 409a, 409b) between which foliage can be clamped and pulled off - a foliage-processing mechanism (17; 117; 217a, 217b; 317; 417) by means of which the foliage pulled off by means of the foliage puller can be removed next to a row or between the rows of tuberous plants growing on the agricultural land, characterized in that the foliage-processing mechanism comprises a haulm topper (135; 315; 335; 415), guide baffles (136; 336; 436) and a conveyor belt (50; 150; 250; 350; 450), .
A container for receiving vessels for use in an automated analyzer, the container comprising: a wall assembly including a first wall and a second wall ; wherein the wall assembly forms a receptacle for receiving a vessel having one or more covers or lids (101a; 101b; 101c); wherein at least one of the first and second walls is moveable to provide a first open configuration for receiving the vessel and a second closed configuration; the container further comprising: an actuator , characterized in that the actuator is configured to translate the vessel from a first position after being received in the container to a second position, and wherein the wall assembly in the second closed configuration is positioned so that at least one engaging element (5a; 5b) attached to the wall assembly engages with the covers or lids of the vessel to open the covers or lids while the vessel is being translated by the actuator from the first position to the second position. a wall assembly including a first wall and a second wall ; wherein the wall assembly forms a receptacle for receiving a vessel having one or more covers or lids (101a; 101b; 101c); wherein at least one of the first and second walls is moveable to provide a first open configuration for receiving the vessel and a second closed configuration; the container further comprising: an actuator , characterized in that the actuator is configured to translate the vessel from a first position after being received in the container to a second position, and wherein the wall assembly in the second closed configuration is positioned so that at least one engaging element (5a; 5b) attached to the wall assembly engages with the covers or lids of the vessel to open the covers or lids while the vessel is being translated by the actuator from the first position to the second position. an actuator , characterized in that the actuator is configured to translate the vessel from a first position after being received in the container to a second position, and wherein the wall assembly in the second closed configuration is positioned so that at least one engaging element (5a; 5b) attached to the wall assembly engages with the covers or lids of the vessel to open the covers or lids while the vessel is being translated by the actuator from the first position to the second position.
A shovel comprising: a lower travelling body ; an upper swiveling body that is mounted on the lower travelling body so as to freely swivel relative to the lower travelling body ; a driver's seat and an operator cab mounted on the upper swiveling body ; a first display device disposed at a single position on a right front side of the driver's seat; a second display device , other than the first display device, the second display device being enabled to be disposed at a plurality of positions; and a monitor attaching base that includes a plurality of attaching units, to which the second display device is attachable, at a plurality of different positions along right and left directions relative to the driver's seat on a front side of the operator cab. a lower travelling body ; an upper swiveling body that is mounted on the lower travelling body so as to freely swivel relative to the lower travelling body ; a driver's seat and an operator cab mounted on the upper swiveling body ; a first display device disposed at a single position on a right front side of the driver's seat; a second display device , other than the first display device, the second display device being enabled to be disposed at a plurality of positions; and a monitor attaching base that includes a plurality of attaching units, to which the second display device is attachable, at a plurality of different positions along right and left directions relative to the driver's seat on a front side of the operator cab.
A double-sided light-concentrating solar apparatus, comprising: a front-side light-concentrating groove , a back-side light-concentrating groove , and photovoltaic panels arranged at bottom of each light-concentrating groove , each light-concentrating groove comprising two groove walls extending along the bottom thereof, surfaces of the two groove walls facing each other being reflecting surfaces, sides of the two groove walls opened forming as opening of the light-concentrating groove , lateral dimension of the opening being larger than that of the bottom, and opening direction of the front-side light-concentrating groove being opposite to opening direction of the back-side light-concentrating groove , wherein the opening of the front-side light-concentrating groove and the bottom of the back-side light-concentrating groove are arranged on a same layer, the two light-concentrating grooves are arranged alternately, adjacent front-side light-concentrating groove and back-side light-concentrating groove share a same groove wall, forming a wavy concave-convex structure as a whole. a front-side light-concentrating groove , a back-side light-concentrating groove , and photovoltaic panels arranged at bottom of each light-concentrating groove , each light-concentrating groove comprising two groove walls extending along the bottom thereof, surfaces of the two groove walls facing each other being reflecting surfaces, sides of the two groove walls opened forming as opening of the light-concentrating groove , lateral dimension of the opening being larger than that of the bottom, and opening direction of the front-side light-concentrating groove being opposite to opening direction of the back-side light-concentrating groove , wherein the opening of the front-side light-concentrating groove and the bottom of the back-side light-concentrating groove are arranged on a same layer, the two light-concentrating grooves are arranged alternately, adjacent front-side light-concentrating groove and back-side light-concentrating groove share a same groove wall, forming a wavy concave-convex structure as a whole.
A method of enhanced numerical control (NC) plasma cutting of parts from a workpiece, comprising: generating, within a computer, a nest that optimally positions the parts to minimize waste of the workpiece ; and generating, based upon the nest, an NC program to control an NC plasma cutting machine to cut the parts from the workpiece using one or both of edge starts and gap starts ; wherein the NC program is capable of controlling a plasma cutting torch of the NC plasma cutting machine to cut the parts from the workpiece, wherein the parts are cut from the workpiece using a plasma cutting torch of the NC plasma cutting machine controlled by the NC program , characterized in that the ignition of the plasma arc of the plasma cutting torch takes place during lateral movement of the plasma cutting torch. generating, within a computer, a nest that optimally positions the parts to minimize waste of the workpiece ; and generating, based upon the nest, an NC program to control an NC plasma cutting machine to cut the parts from the workpiece using one or both of edge starts and gap starts ; wherein the NC program is capable of controlling a plasma cutting torch of the NC plasma cutting machine to cut the parts from the workpiece, wherein the parts are cut from the workpiece using a plasma cutting torch of the NC plasma cutting machine controlled by the NC program , characterized in that the ignition of the plasma arc of the plasma cutting torch takes place during lateral movement of the plasma cutting torch.
A multifunctional device for remote monitoring of a patient's condition, in particular the patient's heart electrical activity and the level of hydration of the patient's chest cavity, having a form of a harness adapted to be worn on the patient's body at the patient's torso area, comprising electrocardiograph (ECG) electrodes , bioimpedance electrodes , a central unit processing signals originating from said electrodes and a communication module for a wireless transmission of the signals processed by said central unit to a remote monitoring system , characterized in that , said bioimpedance electrodes (223, 241; 233, 242) comprise front electrodes disposed at the front of the patient's body and rear electrodes corresponding to the front electrodes and disposed at the back of the patient's body, arranged in pairs, wherein it comprises many pairs of said bioimpedance electrodes defining lines crossing through the left part of the patient's chest and many pairs of said bioimpedance electrodes defining lines crossing through the right part of the patient's chest, wherein said harness comprises a horizontal belt , embracing the patient's torso in the epigastric region and above the pelvis, connected in the breastbone area and the back of the patient with a first vertical belt and a second vertical belt , that extend over the patient's right and left shoulder girdles, wherein said horizontal belt is connected at the area of the patient's back with said first and said second vertical belt by means of a coupler and said right and left front bioimpedance electrodes are disposed at the front section of said first and second vertical belt and at the front section of said horizontal belt , while right and left rear bioimpedance electrodes are disposed in the coupler .