mhurhangee/patent-ind-claim-en huggingface dataset:
A needle winding machine, particularly for winding poles arranged inside a cylindrical surface, comprising a main supporting structure that supports at least one spindle that is extended around an axis and is provided, at an axial end thereof, with a head that supports a wire guiding tube , wherein that said spindle can move on command parallel to its own axis and can rotate on command about its own axis with respect to said main supporting structure , and wherein said wire guiding tube can rotate on command, with respect to the remaining part of the spindle , about a rotation axis that is substantially perpendicular to the axis of said wire guiding tube and can move on command, with respect to the remaining part of the spindle , along a direction that is oriented radially with respect to the axis of the spindle , characterized in that said head comprises a body of the head that is fixed to the remaining part of the spindle and a block that supports said wire guiding tube , said block being articulated to said body of the head by means of an articulated quadrilateral transmission composed of three linkages with pivoting axes (A, B, C, D) that are parallel to each other and are perpendicular to the axis of said spindle : respectively, a first linkage that is pivoted to said body of the head and to said block , a second linkage constituted by said block , and a third linkage that is pivoted to said block and to said body of the head .
Authentication method of a security feature consisting of a series of security features respectively having a machine-readable first element having a first code which is unique in the series of security features, and an optically variable second element having a second code readable for a user, in which a mobile terminal having a camera , a screen and a computing unit is used, the machine-readable first element is recorded with the camera of the mobile terminal , the computing unit determines the first code from the machine-readable first element and the first code is assigned to a second code, on the screen , an animation of the assigned second code is represented in an Augmented Reality of the security feature and the assigned second code is compared to the readable second code and thereby the authenticity of the security feature is determined. the machine-readable first element is recorded with the camera of the mobile terminal , the computing unit determines the first code from the machine-readable first element and the first code is assigned to a second code, on the screen , an animation of the assigned second code is represented in an Augmented Reality of the security feature and the assigned second code is compared to the readable second code and thereby the authenticity of the security feature is determined.
Device (1; 101) for production of an at least substantially plate-like foamed moulded plastic product (75; 79; 203), comprising a frame , a mould having a first mould body (8; 108) and a second mould body (9; 109); first positioning means for moving the first mould body and/or the second mould body to and fro, parallel to a displacement direction and relative to the frame, between a closed state of the mould in which at least the first mould body and the second mould body form a mould cavity for production of the plastic product therein, and an open state of the mould in which the mould cavity is opened to in order to release the product formed in the mould cavity; first supply means for supplying plastic material to be foamed to the mould cavity, and second supply means for supplying, in the closed state of the mould, steam under high pressure to the mould cavity filled with the plastic material; the first mould body comprising a box-shaped first mould wall (11; 111), of which at least part helps form the mould cavity, a second mould wall (12; 112) which is provided on the inside of the box form of the first mould wall and which connects to the first mould wall, which second mould wall also helps form the mould cavity and via which second mould wall, by means of the second supply means, steam under high pressure and distributed over the surface of the second mould wall can be supplied to the mould cavity; a sealing body which is provided on the inside of the box form of the first mould wall on the side of the second mould wall facing away from the mould cavity and connecting to the first mould wall; first sealing means for sealing against high pressure the seam between the first mould wall and the sealing body; wherein a first steam cavity is formed between the first mould wall, the second mould wall and the sealing body, and the second supply means are configured for supplying steam from the first steam cavity via the second mould wall to the mould cavity; the device furthermore comprising second positioning means for jointly moving, in a movement direction which extends parallel to the displacement direction, the second mould wall and the sealing body relative to the first mould wall in order to change the mould cavity, the second mould body (9; 109) comprising a box-shaped further first mould wall , of which at least part helps form the mould cavity , and a further second mould wall which is provided on the inside of the box form of the further first mould wall and which adjoins the further first mould wall , which further second mould wall also helps form the mould cavity and via which further second mould wall , by means of the second supply means, steam distributed over the surface of the second mould wall under high pressure can be supplied to the mould cavity , characterized in that the box form of the first mould wall is displaceable in a further displacement direction relative to the box form of the further first mould wall so that the mould cavity has a stepped form.
A method of manufacturing an electrode for secondary batteries, wherein an electrode mix layer comprising an electrode active material is coated on an electrode collector and a coating layer comprising aluminum (Al) and alumina (Al 2 O 3 ) is formed on the electrode mix layer, and the coating layer is formed to a thickness of 0.5 nm to 100 nm, wherein the electrode active material comprises a lithium transition metal oxide represented by Formula 1 or 2 below: Li x M y Mn 2-y O 4-z A z , wherein M is at least one element selected from the group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti and Bi; A is at least one monovalent or divalent anion; and 0.9≤x≤1.2, 0<y<2, and 0≤z<0.2, (1-x)LiM'O 2-y A y -xLi 2 MnO 3-y' A y' , wherein M' is MnaMb; M b is at least one selected from the group consisting of Ni, Ti, Co, Al, Cu, Fe, Mg, B, Cr, Zr, Zn and Period II transition metals; A is at least one selected from the group consisting of anions of PO 4 , BO 3 , CO 3 , F and NO 3 ; and 0<x<1, 0<y≤0.02, 0<y'≤0.02, 0.3≤a≤.0, 0≤b≤0.7, and a + b = 1, the method comprising: coating an electrode mix comprising the electrode active material on a collector; preparing a solution comprising an aluminum precursor; and coating aluminum on the electrode mix layer of the coating through electrolytic deposition using the prepared solution. wherein M is at least one element selected from the group consisting of Al, Mg, Ni, Co, Fe, Cr, V, Ti, Cu, B, Ca, Zn, Zr, Nb, Mo, Sr, Sb, W, Ti and Bi; A is at least one monovalent or divalent anion; and 0.9≤x≤1.2, 0<y<2, and 0≤z<0.2, wherein M' is MnaMb; M b is at least one selected from the group consisting of Ni, Ti, Co, Al, Cu, Fe, Mg, B, Cr, Zr, Zn and Period II transition metals; A is at least one selected from the group consisting of anions of PO 4 , BO 3 , CO 3 , F and NO 3 ; and 0<x<1, 0<y≤0.02, 0<y'≤0.02, 0.3≤a≤.0, 0≤b≤0.7, and a + b = 1, coating an electrode mix comprising the electrode active material on a collector; preparing a solution comprising an aluminum precursor; and coating aluminum on the electrode mix layer of the coating through electrolytic deposition using the prepared solution.
Method for recovering abrasive grains from residues containing abrasive grains, comprising the following steps: (A) provision of residues containing abrasive grains; (B) mechanical preconditioning of the residues containing abrasive grains from (A); (C) thermal material breakdown of the preconditioned residues containing abrasive grains from (B); (D) deagglomeration of the thermally broken-down residues containing abrasive grains from (C); (E) separation of the deagglomerated abrasive grains from (D) from other residues, characterised in that the thermal material breakdown according to step (C) takes place in at least two steps, wherein step 1 comprises pyrolysis at temperatures of between 400 °C and 600 °C and step 2 comprises gasification by the supply of oxygen to the pyrolysis. (A) provision of residues containing abrasive grains; (B) mechanical preconditioning of the residues containing abrasive grains from (A); (C) thermal material breakdown of the preconditioned residues containing abrasive grains from (B); (D) deagglomeration of the thermally broken-down residues containing abrasive grains from (C); (E) separation of the deagglomerated abrasive grains from (D) from other residues, step 1 comprises pyrolysis at temperatures of between 400 °C and 600 °C and step 2 comprises gasification by the supply of oxygen to the pyrolysis.
A unit for a balloon catheter comprising: a balloon catheter duct , which in turn includes a urethral catheter tube provided with a first urethral catheterization passage , and a branch tube provided with a first passage adapted to allow passage of a fluid used to inflate or deflate a balloon ; and a connecting tube configured to be connected at one end to the first urethral catheterization passage or the first passage ; characterized in that the unit includes a joint , which in turn includes an insertion port used to insert the balloon catheter and a second urethral catheterization passage and a second passage communicated with the insertion port , wherein the connecting tube is connected at another end to the second urethral catheterization passage or the second passage . a balloon catheter duct , which in turn includes a urethral catheter tube provided with a first urethral catheterization passage , and a branch tube provided with a first passage adapted to allow passage of a fluid used to inflate or deflate a balloon ; and a connecting tube configured to be connected at one end to the first urethral catheterization passage or the first passage ; characterized in that the unit includes a joint , which in turn includes an insertion port used to insert the balloon catheter and a second urethral catheterization passage and a second passage communicated with the insertion port , wherein the connecting tube is connected at another end to the second urethral catheterization passage or the second passage .
A rolling walker comprising: a seat assembly ; a first hub and a second hub disposed on opposing sides of the seat assembly, each of the first and second hubs comprising at least three sub-hubs wherein a second and a third one of the three sub-hubs are configured to selectively rotate with respect to a first one of the three sub-hubs; a first wheel-bearing rear leg that is secured to the first one of the three sub-hubs of the first hub ; a second wheel-bearing rear leg that is secured to the first one of the three sub-hubs of the second hub; a first handle arm that is secured to the second one of the three sub-hubs of the first hub ; a second handle arm that is secured to the second one of the three sub-hubs of the second hub ; a first wheel-bearing front leg that is secured to the third one of the three sub-hubs of the first hub ; a second wheel-bearing front leg that is secured to the third one of the three sub-hubs of the second hub ; such that the wheel-bearing front legs , the wheel-bearing rear legs , and the handle arms can be selectively rotated with respect to one another between a fully-collapsed state and a fully-deployed state; wherein the seat assembly includes a latch trigger that controls a first and second latch mechanism disposed respectively and at least partially within the first and second hubs to thereby control when the wheel-bearing front legs and the handle arms can rotate with respect to the wheel-bearing rear legs . a seat assembly ; a first hub and a second hub disposed on opposing sides of the seat assembly, each of the first and second hubs comprising at least three sub-hubs wherein a second and a third one of the three sub-hubs are configured to selectively rotate with respect to a first one of the three sub-hubs; a first wheel-bearing rear leg that is secured to the first one of the three sub-hubs of the first hub ; a second wheel-bearing rear leg that is secured to the first one of the three sub-hubs of the second hub; a first handle arm that is secured to the second one of the three sub-hubs of the first hub ; a second handle arm that is secured to the second one of the three sub-hubs of the second hub ; a first wheel-bearing front leg that is secured to the third one of the three sub-hubs of the first hub ; a second wheel-bearing front leg that is secured to the third one of the three sub-hubs of the second hub ; such that the wheel-bearing front legs , the wheel-bearing rear legs , and the handle arms can be selectively rotated with respect to one another between a fully-collapsed state and a fully-deployed state; wherein the seat assembly includes a latch trigger that controls a first and second latch mechanism disposed respectively and at least partially within the first and second hubs to thereby control when the wheel-bearing front legs and the handle arms can rotate with respect to the wheel-bearing rear legs .
A coffee tamper essentially consisting of circular punch unit and a top , said punch unit comprising a blind hole with an internal thread arranged in the center of the punch unit thereby forming a stay and a tamping surface on the opposite side of the blind hole and said top comprising a circular recess corresponding to the stay of the punch unit and a post comprising an external thread corresponding to the internal thread of the punch unit , or wherein said top comprising a blind hole with an internal thread arranged in the center of the top thereby forming a stay and said punch unit comprising a circular recess corresponding to the stay of the top and a post comprising an external thread corresponding to the internal thread of the top , said punch unit and top can be screwed together by the corresponding threads , wherein the outer diameter of the punch unit corresponds to the inner diameter of a basket or portafilter to receive coffee grounds and wherein the outer diameter of the top is larger than the outer diameter of the punch unit forming a rim when the top and the punch unit are screwed together, characterized in that the essentially flat handling surface of the top is circular having a diameter greater than the height of the coffee tamper when the top and the punch unit are screwed together, and wherein the top has an essentially flat hand pressable surface that is configured to be pressed with the heel of a user's hand, and wherein the tamper contacts the rim of the basket or portafilter to signify the completion of the process of the user compressing the ground coffee.
A method for validating the quality of preparation of a dry compressed gas cylinder comprising: a) internally passivating the compressed gas cylinder, b) filling the passivated compressed gas cylinder with gaseous carbon dioxide to a normal working pressure, wherein the gaseous carbon dioxide has a known δ 18 O isotope ratio, c) maintaining the pressurized gas cylinder at a first temperature for a first predetermined period of time, d) gradually emptying the pressurized gas cylinder, while simultaneously measuring the δ 18 O isotopic ratio, wherein if the measured isotopic ratio of δ 18 O shows a variation compared to said known δ 18 O isotope ratio, and said variation reveals a standard deviation less than 0.5‰ it is considered that the cylinder is properly prepared. a) internally passivating the compressed gas cylinder, b) filling the passivated compressed gas cylinder with gaseous carbon dioxide to a normal working pressure, wherein the gaseous carbon dioxide has a known δ 18 O isotope ratio, c) maintaining the pressurized gas cylinder at a first temperature for a first predetermined period of time, d) gradually emptying the pressurized gas cylinder, while simultaneously measuring the δ 18 O isotopic ratio,
A composition, comprising fatty acids, egg yolk and an acidic aqueous medium, wherein the composition comprises 30-80 percent docosahexaenoic acid (DHA) by weight (30-80 wt%).
System for cooling objects characterised in that it comprises: - a fixed scaffolding ; - a moveable structure slidably associated to said fixed scaffolding and comprising a lower base abutting against said fixed scaffolding , an upper base spaced from said lower base and a lateral surface which perimetrically delimits said lower base and said upper base to define a ventilation chamber ; - a plurality of ventilation nozzles present in said upper base and communicating with said ventilation chamber ; - a plurality of baskets each one of which has a mouth for introducing said objects to be cooled and a bottom provided with a plurality of through holes configured to communicate with said ventilation nozzles when said baskets are rested against said upper base ; - ventilation means connected to said ventilation chamber for conveying the cooling air from said ventilation chamber into said baskets through said ventilation nozzles and said through holes . - a fixed scaffolding ; - a moveable structure slidably associated to said fixed scaffolding and comprising a lower base abutting against said fixed scaffolding , an upper base spaced from said lower base and a lateral surface which perimetrically delimits said lower base and said upper base to define a ventilation chamber ; - a plurality of ventilation nozzles present in said upper base and communicating with said ventilation chamber ; - a plurality of baskets each one of which has a mouth for introducing said objects to be cooled and a bottom provided with a plurality of through holes configured to communicate with said ventilation nozzles when said baskets are rested against said upper base ; - ventilation means connected to said ventilation chamber for conveying the cooling air from said ventilation chamber into said baskets through said ventilation nozzles and said through holes .
A method of operating a mixed reality system that maintains virtual content, the method comprising, with at least one processor: selecting virtual content in the environment; storing in non-volatile computer storage medium saved scene data, characterised in that the saved scene data comprises: data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in a location where it was saved or in a different location from the location where it was saved. selecting virtual content in the environment; storing in non-volatile computer storage medium saved scene data, characterised in that the saved scene data comprises: data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in data representing the selected virtual content; and position information indicating position of the selected virtual content relative to a saved scene anchor node, and in that the method further comprises causing the mixed reality system to load the saved scene data in a location where it was saved or in a different location from the location where it was saved.
A method of purifying a self-healing fluid (SHF) comprising a drying oil and dielectric fluid, the method comprising: a) filtering the SHF through an absorbent material; and b) subsequently filtering the SHF through a micropore filter system. a) filtering the SHF through an absorbent material; and b) subsequently filtering the SHF through a micropore filter system.
A composition which is attractive for female rats of the species Rattus norvegicus comprising: a pheromone blend including 2-methyl-butyric acid, 3-methyl-butyric acid, heptanal, hexanoic acid, benzaldehyde, benzyl alcohol, 2-phenylacetaldehyde, nonanal, and decanal.
Method for producing a porous monolithic material , this method comprising at least the following steps: (a) Supplying at least one mineral or organic powder (S), (b) Preparing a mixture comprising at least the powder of step (a) and at least one solvent, preferably water, (c) Packing the mixture of step (b) in sealed packaging made from an elastically deformable material in order to form a sample , (d) Applying to the sample of step (c) a pressure (P) greater than or equal to 50 MPa at a temperature at which the solvent is in solid form, (e) Returning to atmospheric pressure, (f) Opening the packaging and recovering the material, (g) Removing the solvent at a temperature at which the solvent is in solid form. (a) Supplying at least one mineral or organic powder (S), (b) Preparing a mixture comprising at least the powder of step (a) and at least one solvent, preferably water, (c) Packing the mixture of step (b) in sealed packaging made from an elastically deformable material in order to form a sample , (d) Applying to the sample of step (c) a pressure (P) greater than or equal to 50 MPa at a temperature at which the solvent is in solid form, (e) Returning to atmospheric pressure, (f) Opening the packaging and recovering the material, (g) Removing the solvent at a temperature at which the solvent is in solid form.
A method for rotating an air guide plate to a preset position, comprising: acquiring a first angle between a preset position and a first limiting position and a second angle between a second limiting position and the preset position, wherein the first limiting position and the second limiting position are two limiting positions of the air guide plate rotating upward and downward; judging whether the first angle is less than the second angle; when the first angle is less than the second angle, controlling the air guide plate rotates to the first limiting position; controlling the air guide plate to rotate in an opposite direction to the preset position; when the first angle is greater than the second angle, controlling the air guide plate to rotate to the second limiting position. acquiring a first angle between a preset position and a first limiting position and a second angle between a second limiting position and the preset position, wherein the first limiting position and the second limiting position are two limiting positions of the air guide plate rotating upward and downward; judging whether the first angle is less than the second angle; when the first angle is less than the second angle, controlling the air guide plate rotates to the first limiting position; controlling the air guide plate to rotate in an opposite direction to the preset position; when the first angle is greater than the second angle, controlling the air guide plate to rotate to the second limiting position.