mhurhangee/patent-ind-claim-en huggingface dataset:
A tire buffing machine, comprising: a tire hub assembly configured to selectively rotate a tire casing mounted thereon; a buffer configured to buff the tire casing mounted on the tire hub assembly; a belt detection apparatus having two or more sensors configured to detect a first belt depth of one or more belts at a first lateral position within a tire casing and a second belt depth of the one or more belts at a second lateral position within the tire casing , wherein the two or more sensors are slidable along a slide ; and an electronic controller communicatively coupled to the buffer and the belt detection apparatus , the electronic controller being programmed to: determine the first belt depth and the second belt depth based on the two or more sensors of the belt detection apparatus ; and adjust the operation of the buffer based on the first belt depth or the second belt depth. a tire hub assembly configured to selectively rotate a tire casing mounted thereon; a buffer configured to buff the tire casing mounted on the tire hub assembly; a belt detection apparatus having two or more sensors configured to detect a first belt depth of one or more belts at a first lateral position within a tire casing and a second belt depth of the one or more belts at a second lateral position within the tire casing , wherein the two or more sensors are slidable along a slide ; and an electronic controller communicatively coupled to the buffer and the belt detection apparatus , the electronic controller being programmed to: determine the first belt depth and the second belt depth based on the two or more sensors of the belt detection apparatus ; and adjust the operation of the buffer based on the first belt depth or the second belt depth. determine the first belt depth and the second belt depth based on the two or more sensors of the belt detection apparatus ; and adjust the operation of the buffer based on the first belt depth or the second belt depth.
Rail vehicle having at least one longitudinal ventilation duct , which extends in the longitudinal direction of the rail vehicle, - wherein the longitudinal ventilation duct , when viewed in vertical cross section, extends from a region between an interior ceiling panelling of the rail vehicle and a carbody shell of the rail vehicle above a luggage rack as far as into the region of the luggage rack , - wherein the ventilation duct runs in part through base supports of the luggage rack which are spaced apart from one another in the longitudinal direction of the rail vehicle and are fastened on the carbody shell . - wherein the longitudinal ventilation duct , when viewed in vertical cross section, extends from a region between an interior ceiling panelling of the rail vehicle and a carbody shell of the rail vehicle above a luggage rack as far as into the region of the luggage rack , - wherein the ventilation duct runs in part through base supports of the luggage rack which are spaced apart from one another in the longitudinal direction of the rail vehicle and are fastened on the carbody shell .
Device for admitting cooling air to a motor vehicle interior, formed of one or several mobile flaps , each orientable in rotation about an axis (YY') by a control mechanism, each flap comprising on its external periphery a pressing surface intended, when the mobile flap is in the closed position, to come into contact with a bearing surface , characterised in that the pressing surface comprises a point of first contact (P1) and a point of last contact (P2) with the said bearing surface , these points being defined in such a way that when the control mechanism actuates closure of the mobile flaps and the point of first contact (P1) comes into contact with the said bearing surface , the point of last contact (P2) is distant from the said bearing surface by a predefined and non-zero distance (d).
Airborne device comprising a wind turbine having an axis of rotation (14, A212), an airborne structure configured to support the wind turbine , a lifting system configured to keep aloft the airborne structure , at least one belt to transmit a movement of rotation of the wind turbine to a ground station, said belt being guided by at least one return-to-ground pulley , each return-to-ground pulley being secured to a pivoting shaft (44, A232, A240), positioned in a guiding plane perpendicular to the pivoting shaft (44, A232, A240) and configured to guide the belt , said device being characterized in that the axis of rotation (14, A212) of the wind turbine and the guiding plane of each return-to-ground pulley form an angle of less than 60°.
A method of controlling an operation of a communication network, comprising: transmitting (S602), by at least one first processor of a central node, request messages to at least one first network node, the request messages each including at least a sampling time-window and a network slice identifier, the sampling time-window defining a duration of time, the network slice identifier identifying a designated network slice within the communication network; receiving (S604), at the at least one first processor, packet reports from the at least one first network node, the packet reports including latency information for packets that are processed by the at least one first network node during the sampling time-window for the designated network slice; and controlling (S610), by the at least one first processor, the operation of the communication network based on the latency information. transmitting (S602), by at least one first processor of a central node, request messages to at least one first network node, the request messages each including at least a sampling time-window and a network slice identifier, the sampling time-window defining a duration of time, the network slice identifier identifying a designated network slice within the communication network; receiving (S604), at the at least one first processor, packet reports from the at least one first network node, the packet reports including latency information for packets that are processed by the at least one first network node during the sampling time-window for the designated network slice; and controlling (S610), by the at least one first processor, the operation of the communication network based on the latency information.
A method for processing of technological waste from the processing of copper ores and concentrates containing iron comprising the following steps: Step 1: preliminary leaching of the starting raw material with a solution of ammonium hydroxide at the boiling temperature of the ammonium hydroxide; and separation of the solid raw material from the liquid by filtration and concentration to obtain residual pulp; Step 2: leaching of the residual pulp with an oversaturated solution of ammonium hydrogen oxalate with pH 2.1 to 2.5 with added hydrogen oxalate salt of an alkali metal in the ratio of 95:5 of ammonium hydrogen oxalate: alkali metal hydrogen oxalate, at a continuous bubbling of an oxygen containing gas at a temperature of 50 to 80°C for the duration of 1.5 to 3 hours; Step 3: filtering of the suspension of Step 2 and precipitating the filtrate with an ammonium hydroxide solution up-to pH 5.2-6.0 and then removing the obtained precipitated hydrogel by filtration; Step 4: precipitating the filtrate of Step 3 with an ammonium hydroxide solution with pH 9.5-10.0 at a temperature of 55-65°C and filtration; Step 5: washing the precipitate of Step 4 with a thinned solution of ammonium hydroxide and washing again with water; Step 6: drying at temperature of 120 to 160°C. Step 1: preliminary leaching of the starting raw material with a solution of ammonium hydroxide at the boiling temperature of the ammonium hydroxide; and separation of the solid raw material from the liquid by filtration and concentration to obtain residual pulp; Step 2: leaching of the residual pulp with an oversaturated solution of ammonium hydrogen oxalate with pH 2.1 to 2.5 with added hydrogen oxalate salt of an alkali metal in the ratio of 95:5 of ammonium hydrogen oxalate: alkali metal hydrogen oxalate, at a continuous bubbling of an oxygen containing gas at a temperature of 50 to 80°C for the duration of 1.5 to 3 hours; Step 3: filtering of the suspension of Step 2 and precipitating the filtrate with an ammonium hydroxide solution up-to pH 5.2-6.0 and then removing the obtained precipitated hydrogel by filtration; Step 4: precipitating the filtrate of Step 3 with an ammonium hydroxide solution with pH 9.5-10.0 at a temperature of 55-65°C and filtration; Step 5: washing the precipitate of Step 4 with a thinned solution of ammonium hydroxide and washing again with water; Step 6: drying at temperature of 120 to 160°C.
A surgical bending instrument for bending surgical staples, comprising: a body supporting a distal force applicator and a proximal handle fixedly coupled to a proximal end of a shaft ; a first grip and a second grip of the distal force applicator configured to retain the surgical staple, wherein the first and second grips are configured to engage the surgical staple on opposite sides; and a driver of the distal force applicator configured to be able to contact a crown of the surgical staple in order to exert a distally-directed force so as to bend the surgical staple, characterised in that the shaft is threadably engaged within a longitudinally extending hole within the body , and a distal extension of the shaft comprises the driver . a body supporting a distal force applicator and a proximal handle fixedly coupled to a proximal end of a shaft ; a first grip and a second grip of the distal force applicator configured to retain the surgical staple, wherein the first and second grips are configured to engage the surgical staple on opposite sides; and a driver of the distal force applicator configured to be able to contact a crown of the surgical staple in order to exert a distally-directed force so as to bend the surgical staple, characterised in that the shaft is threadably engaged within a longitudinally extending hole within the body , and a distal extension of the shaft comprises the driver .
A liquid ejecting apparatus including a moving unit configured to make a relative movement between at least one liquid ejecting unit , having an ejection port for ejecting liquid, and a print medium (P), the print medium (P) being placed at a predetermined interval with respect to the liquid ejecting unit , the liquid ejecting apparatus comprising: at least one mist removing unit provided downstream of the at least one liquid ejecting unit in a movement direction (E) in which the print medium (P) is moved in the case of relative movement, the mist removing unit comprising: at least one suction hole configured to suck air existing in a region (S) defined by the liquid ejecting unit and the print medium (P) together with mist ; and at least one blowing hole that is formed downstream of the suction hole in the movement direction (E), the blowing hole configured to blow air toward the print medium (P), wherein the suction hole sucks air existing in the region (S) and at the same time the blowing hole blows air toward the print medium (P), so that a vortex (V) of gas is generated downstream of the suction hole between the suction hole and the blowing hole , a relationship expressed by the following expression is satisfied: γ ≥ h / 3 where γ represents a maximum vortex core radius (mm) of the vortex (V) in a direction perpendicular to the print medium (P), and h represents a distance (mm) between the mist removing unit and the print medium (P), and a relationship expressed by the following expression is satisfied: v ≤ − 1.82 ⁢ L + 28.2 where L represents a distance (mm) between the suction hole and the blowing hole , v represents a rate (m/s) of an airflow produced by blowing air through the blowing hole , and the constant values of -1.82 and 28.2 in the relationship have units of (m/(s·mm)) and (m/s), respectively. at least one suction hole configured to suck air existing in a region (S) defined by the liquid ejecting unit and the print medium (P) together with mist ; and at least one blowing hole that is formed downstream of the suction hole in the movement direction (E), the blowing hole configured to blow air toward the print medium (P), wherein the suction hole sucks air existing in the region (S) and at the same time the blowing hole blows air toward the print medium (P), so that a vortex (V) of gas is generated downstream of the suction hole between the suction hole and the blowing hole , a relationship expressed by the following expression is satisfied: γ ≥ h / 3 where γ represents a maximum vortex core radius (mm) of the vortex (V) in a direction perpendicular to the print medium (P), and h represents a distance (mm) between the mist removing unit and the print medium (P), and a relationship expressed by the following expression is satisfied: v ≤ − 1.82 ⁢ L + 28.2 where L represents a distance (mm) between the suction hole and the blowing hole , v represents a rate (m/s) of an airflow produced by blowing air through the blowing hole , and the constant values of -1.82 and 28.2 in the relationship have units of (m/(s·mm)) and (m/s), respectively.
A crystalline salt comprising 5-methyl- -tetrahydrofolic acid and L-valine ethyl ester wherein the molar ratio of 5-methyl- -tetrahydrofolic acid to L-valine ethyl ester is from 1:0.3 to 1:3.0 (in mol/mol) and/or hydrates and/or solvates thereof.
A method for authenticating a user of a printer to prevent unauthorized use of the printer, the method comprising the following steps: a) obtaining, by processing circuitry, a user profile corresponding to a user and including a stored multi-digit number; b) obtaining, via a touch screen interface of the printer, input of a personal identification number (PIN); c) comparing, by the processing circuitry, the input PIN to the multi-digit number of the obtained user profile; and d) executing, by the processing circuitry, an algorithm according to which use of the printer is prevented if the PIN does not match the stored multi-digit number, and the user is authenticated if the PIN does match the stored multi-digit number; wherein e) the user profile further includes an answer to at least one verification question, and the authentication of the user if the PIN matches the stored multi-digit number includes: e1) prompting the user to input a response to the at least one verification question; e2) if the response matches the answer to the at least one verification question, enabling the user to operate the printer; and e3) if the response does not match the answer to the at least one verification question, preventing use of the printer. a) obtaining, by processing circuitry, a user profile corresponding to a user and including a stored multi-digit number; b) obtaining, via a touch screen interface of the printer, input of a personal identification number (PIN); c) comparing, by the processing circuitry, the input PIN to the multi-digit number of the obtained user profile; and d) executing, by the processing circuitry, an algorithm according to which use of the printer is prevented if the PIN does not match the stored multi-digit number, and the user is authenticated if the PIN does match the stored multi-digit number; wherein e) the user profile further includes an answer to at least one verification question, and the authentication of the user if the PIN matches the stored multi-digit number includes: e1) prompting the user to input a response to the at least one verification question; e2) if the response matches the answer to the at least one verification question, enabling the user to operate the printer; and e3) if the response does not match the answer to the at least one verification question, preventing use of the printer. e1) prompting the user to input a response to the at least one verification question; e2) if the response matches the answer to the at least one verification question, enabling the user to operate the printer; and e3) if the response does not match the answer to the at least one verification question, preventing use of the printer.
A substantially tubular prosthesis (110; 210) comprising a plurality of stent members (116, 116a, 116b; 216a, 216b; 316a) positioned longitudinally along the prosthesis, each stent member comprising a plurality of strut elements connected by apexes (122, 124; 224a, 224b, 226a; 324a), the prosthesis being arranged such that proximal apexes (122; 226a) of a first stent member (116a; 216a) engage distal apexes (124; 224b) of a longitudinally adjacent second stent member (116b; 216b) when the prosthesis is subjected to longitudinal compression forces, each of the proximal apexes of the first stent member and the distal apexes of the second stent member having a shaped portion which is flat or concave and having a width, so as to present a line of engagement surfaces to the distal apexes of the second stent member and the proximal apexes of the first stent member respectively, wherein gaps between circumferentially adjacent engagement surfaces are narrower than the widths of the shaped portions when the prosthesis is in a compressed configuration; wherein each of the plurality of stent members is spaced apart from an adjacent stent member by a spacing (d) of the order of between zero and 20% of a longitudinal length of the stent members in a compressed configuration of the prosthesis; wherein the adjacent stent members are in a staggered arrangement in which proximal apexes of one stent member are laterally offset from distal apexes of the adjacent stent member. wherein each of the plurality of stent members is spaced apart from an adjacent stent member by a spacing (d) of the order of between zero and 20% of a longitudinal length of the stent members in a compressed configuration of the prosthesis; wherein the adjacent stent members are in a staggered arrangement in which proximal apexes of one stent member are laterally offset from distal apexes of the adjacent stent member.
Composite sheath for a vehicle steering wheel , the steering wheel comprising a rim and at least one first electrical device , such as a switch or a light strip, the composite sheath being arranged to sheathe the rim , the composite sheath comprising at least one second electrical device , such as a resistive heating wire or a metal frame for a capacitive sensor, characterized in that the composite sheath further comprises an electrical conductor arranged so as to be connected to at least one first electrical device which is separate from the composite sheath and from the second electrical device . the composite sheath being arranged to sheathe the rim , the composite sheath comprising at least one second electrical device , such as a resistive heating wire or a metal frame for a capacitive sensor, characterized in that the composite sheath further comprises an electrical conductor arranged so as to be connected to at least one first electrical device which is separate from the composite sheath and from the second electrical device .
A tag housing assembly for attaching an electronic tag to an extending neck of a bottle , wherein the neck has a perimetrical undercut thereabout, the tag housing assembly comprising: a tag housing comprising an upper housing portion and a lower housing portion , the upper housing portion having a top surface and a perimetrical exterior side wall extending downwardly from edges of the top surface, the lower housing portion having a base wherein the top surface of the upper housing portion and the base of the lower housing portion define an interior and wherein the upper housing portion is configured to be engaged with the lower housing portion and secured thereon; at least one electronic tag disposed in the interior; and characterized in that the top surface of the upper housing portion and the base of the lower housing portion define an opening extending through the top surface and the base for receiving the extending neck of the bottle, and further characterised by a fixed retaining device fixedly attached to the base of the lower housing portion and extending upwardly therefrom, the top surface of the upper housing portion and a movable retaining device configured to be seated in the lower housing portion , wherein, when the movable retaining device is seated in the lower housing portion , the movable retaining device is adjusted to move forward towards the fixed retaining device to clamp the tag housing assembly to the neck of the bottle beneath the undercut ,. a tag housing comprising an upper housing portion and a lower housing portion , the upper housing portion having a top surface and a perimetrical exterior side wall extending downwardly from edges of the top surface, the lower housing portion having a base wherein the top surface of the upper housing portion and the base of the lower housing portion define an interior and wherein the upper housing portion is configured to be engaged with the lower housing portion and secured thereon; at least one electronic tag disposed in the interior; and characterized in that the top surface of the upper housing portion and the base of the lower housing portion define an opening extending through the top surface and the base for receiving the extending neck of the bottle, and further characterised by a fixed retaining device fixedly attached to the base of the lower housing portion and extending upwardly therefrom, the top surface of the upper housing portion and a movable retaining device configured to be seated in the lower housing portion , wherein, when the movable retaining device is seated in the lower housing portion , the movable retaining device is adjusted to move forward towards the fixed retaining device to clamp the tag housing assembly to the neck of the bottle beneath the undercut ,.
A method of isolating stem cells from adipose tissue, comprising: providing an adipose tissue sample from a subject; placing the tissue sample into a processing container or cartridge ; subjecting the tissue sample to force from mechanical impacts to release the stem cells; and separating a stem cell fraction from the adipose tissue; wherein: the source of the force of the mechanical impacts is an impact arm that is powered by a motor , the motor comprising gearing capable of reducing the speed of the impact arm when the motor is operating at full speed; and the impact arm does not physically contact the adipose tissue. providing an adipose tissue sample from a subject; placing the tissue sample into a processing container or cartridge ; subjecting the tissue sample to force from mechanical impacts to release the stem cells; and separating a stem cell fraction from the adipose tissue; the source of the force of the mechanical impacts is an impact arm that is powered by a motor , the motor comprising gearing capable of reducing the speed of the impact arm when the motor is operating at full speed; and the impact arm does not physically contact the adipose tissue.
A pharmaceutical composition comprising adipose tissue-derived stromal stem cells, for use in treating a fistula in a subject, wherein the treatment comprises delivering at least 30 x 10 6 adipose tissue-derived stromal stem cells to the subject.