mhurhangee/patent-ind-claim-en huggingface dataset:
SANDING-POLISHING MACHINE FOR PLATE-LIKE PRODUCTS MADE OF STONE MATERIAL said machine comprising a plurality of machining stations containing operating heads positioned above a supporting pallet , where a conveyor belt slides, said supporting pallet and said conveyor belt being comprised in the machine, said conveyor belt supporting a plate , the operating heads being arranged in series, and each machining station containing movable operating heads provided with spindles with abrasive tools (T), each machining station being configured to move itself specifically and solely in the only transverse direction (lag motion - arrows X 1 , X 2 , X 3 ) with respect to the longitudinal direction of the conveyor belt said sanding-polishing machine being characterized in that each machining station can also move in a mutually independent manner with respect to the transverse movement of the other machining stations and wherein said single transverse movement of the entire above mentioned machining station is realized by the action of a specific and dedicated lag mechanism , associated to said machining station , and in that the lag mechanism , applied to the machine on the corresponding machining station , comprises two mechanical transmissions of a pinion/rack type , arranged externally with respect to the two transversal sides of said machining station .
Two-wheel vehicle comprising two parallel drive wheels constituting internally hollow bodies, each having two lateral faces and a rolling surface that is extended therebetween, said wheels being driven by driving means respectively arranged within the wheels themselves and whose function is that of moving the center of gravity of the wheels , causing the rotation thereof in one sense and in the other sense, said wheels being operatively connected to each other by means of a connection means longitudinally extended along a geometric horizontal axis (X) of the wheels , wherein each wheel is rotatable around said geometric horizontal axis (X) of the wheels in a manner independent from the other wheel , characterized in that said connection means is a hub formed by two parts that are rotatable with respect to each other , each of said parts being connected to a relative structure arranged within the corresponding wheel , and each structure of each wheel able to rotate with respect to the latter, lying with its own weight and that of the hub directly on a trolley with small wheels, but not on a lateral face of the wheel , in that said trolley supports weights formed at least partly by power supply batteries of said driving means , which are formed by motors at the hub directly mounted on at least one part of the axles of said small wheels of said trolley , and in that said trolley forms part of the structure and, by means of at least some of its small wheels provided with motor at the hub , it lies against an internal surface of the respective wheel , opposite with respect to the external rolling surface of the wheel itself.
A pressure regulating system for a beverage container system, comprising a first compartment for containing a pressurized gas, in fluid communication with an outlet space through at least a gas valve for opening and closing a passage between the first compartment and the outlet space , wherein a gas valve control system is provided, comprising a deformable and/or movable wall or wall part of said outlet space , wherein said deformable and/or movable wall or wall part is operably in contact with said gas valve for opening and/or closing said gas valve , wherein a second compartment is provided at a side of the said deformable and/or movable wall or wall part opposite the outlet space , wherein the second compartment is in fluid communication with a third compartment such that gas can flow either way between the second compartment and the third compartment , which third compartment comprises at least one separating wall part and is at least liquid tight.
An antenna structure configured to transmit a WiGig band, comprising: a base having a base surface; two body portions , each of the two body portions having a pivoting end , a signal transceiving end opposite to the pivoting end , and each of the pivoting ends being disposed on the base ; characterised in that , when the base surface is arranged in a horizontal plane, each of the pivoting ends is pivotally disposed on the base at a respective first specific angle (SA1) with respect to the horizontal plane, and each of the signal transceiving ends is inclined downward by a second specific angle (SA2) with respect to the corresponding body portion and disposed away from the corresponding pivoting end ; and wherein the two body portions are configured to rotate a third specific angle (SA3) outwardly relative to the base in opposite directions to extend the antenna structure relative to the base to ensure stability during the wireless transmission of data. a base having a base surface; two body portions , each of the two body portions having a pivoting end , a signal transceiving end opposite to the pivoting end , and each of the pivoting ends being disposed on the base ; characterised in that , when the base surface is arranged in a horizontal plane, each of the pivoting ends is pivotally disposed on the base at a respective first specific angle (SA1) with respect to the horizontal plane, and each of the signal transceiving ends is inclined downward by a second specific angle (SA2) with respect to the corresponding body portion and disposed away from the corresponding pivoting end ; and wherein the two body portions are configured to rotate a third specific angle (SA3) outwardly relative to the base in opposite directions to extend the antenna structure relative to the base to ensure stability during the wireless transmission of data.
An adjustable carrier assembly for a harness for carrying a motor-driven power tool, the adjustable carrier assembly comprising a back plate and an interface plate including connections for shoulder straps , wherein the back plate comprises a coupling interface on a front face thereof arranged to be removably connected to a corresponding coupling interface on a rear face of the interface plate , wherein the coupling interface of the back plate is adapted to be connected to and disconnected from the coupling interface of the interface plate in an at least partially translational or linear movement which is substantially parallel to the back plate , characterized in that the coupling interface of the back plate comprises two parallel raised ridges extending in a substantially longitudinal direction of the back plate, each having at least one overhanging flange and presenting an L-shaped cross section with the flanges facing towards or away from each other, and the coupling interface of the interface plate comprises corresponding raised ridges , each having at least one overhanging flange and presenting an L-shaped cross section with the flanges of the interface plate facing in the opposite direction of the flanges of the back plate , wherein the raised ridges (13a, 13b; 43a, 43b) are arranged such that when the back plate and the interface plate are aligned with each other and brought together in a translational or linear movement parallel to the raised ridges (13a, 13b; 43a, 43b), the flanges (14a, 14b; 44a, 44b) are slid into locking engagement with each other to retain the interface plate on the back plate .
A reconstituted tobacco, having a mass per unit area of 100-190 g/m 2 , a thickness of 0.13-0.18 mm and a density of 700-1400 mg/cm 3 , wherein a mass percentage of an atomization agent in the reconstituted tobacco is 15-30%, and wherein a mass percentage of a tobacco matter in the reconstituted tobacco is 65-80%.
A shell-and-tube condenser, comprised of a shell , which houses a bundle of heat exchange tubes carrying grooves on their outer surfaces and fastened in place with tube plates , inlets and outlets for the tube space and shell space heat carriers, wherein the shell-and-tube condenser comprises spacers , characterized in that the outer surface of heat exchange tubes carries a coating of a hydrophobic material, and wherein the distance between the spacers decreases from the inlet of the shell space heat carrier to its outlet , grooves on the heat exchange tubes outer surfaces have a rounding with a radius of 0.04-0.1 of the outer diameter of the heat exchange tube and grooves are circular in shape and located at 0.1 - 10 times the outer diameter of the tube from one another. characterized in that the outer surface of heat exchange tubes carries a coating of a hydrophobic material, and wherein the distance between the spacers decreases from the inlet of the shell space heat carrier to its outlet , grooves on the heat exchange tubes outer surfaces have a rounding with a radius of 0.04-0.1 of the outer diameter of the heat exchange tube and grooves are circular in shape and located at 0.1 - 10 times the outer diameter of the tube from one another.
A neuromodulation system, comprising: an ultrasound probe comprising an ultrasound transducer configured to apply ultrasound energy to a region of interest in a patient's body in an amount effective to induce neuromodulation of one or more nerve pathways; and a controller configured to: control application of the ultrasound energy to the region of interest via the ultrasound probe; receive position information related to a position of the ultrasound probe; determine a position of the ultrasound probe relative to a predetermined treatment position; determine a total dose of the ultrasound energy applied to the region of interest determine that the position of the ultrasound probe aligns with the predetermined treatment position based on the position information; and permit application of the ultrasound energy via the ultrasound probe only when the ultrasound probe aligns with the predetermined treatment position. an ultrasound probe comprising an ultrasound transducer configured to apply ultrasound energy to a region of interest in a patient's body in an amount effective to induce neuromodulation of one or more nerve pathways; and a controller configured to: control application of the ultrasound energy to the region of interest via the ultrasound probe; receive position information related to a position of the ultrasound probe; determine a position of the ultrasound probe relative to a predetermined treatment position; determine a total dose of the ultrasound energy applied to the region of interest determine that the position of the ultrasound probe aligns with the predetermined treatment position based on the position information; and permit application of the ultrasound energy via the ultrasound probe only when the ultrasound probe aligns with the predetermined treatment position. control application of the ultrasound energy to the region of interest via the ultrasound probe; receive position information related to a position of the ultrasound probe; determine a position of the ultrasound probe relative to a predetermined treatment position; determine a total dose of the ultrasound energy applied to the region of interest determine that the position of the ultrasound probe aligns with the predetermined treatment position based on the position information; and permit application of the ultrasound energy via the ultrasound probe only when the ultrasound probe aligns with the predetermined treatment position.
A reversibly thermochromic ink composition comprising: a reversibly thermochromic microcapsule pigment encapsulating a reversibly thermochromic composition comprising (a) an electron-donating color-developing organic compound, (b) an electron-accepting compound, and (c) a reaction medium to determine an occurrence temperature of a coloring reaction of the component (a) and the component (b); and a vehicle comprising water and a specific gravity adjuster selected from the group consisting of an oxyacid belonging to Group 6 having an atomic weight of 90 to 185 and salt thereof, wherein when water is used as a reference material at 20°C, a specific gravity of the microcapsule pigment is 1.05 to 1.20, a specific gravity of the vehicle is 1.00 to 1.30, and the specific gravity of the vehicle is 0.90 times to 1.20 times based on the specific gravity of the microcapsule pigment. a reversibly thermochromic microcapsule pigment encapsulating a reversibly thermochromic composition comprising (a) an electron-donating color-developing organic compound, (b) an electron-accepting compound, and (c) a reaction medium to determine an occurrence temperature of a coloring reaction of the component (a) and the component (b); and a vehicle comprising water and a specific gravity adjuster selected from the group consisting of an oxyacid belonging to Group 6 having an atomic weight of 90 to 185 and salt thereof, wherein when water is used as a reference material at 20°C, a specific gravity of the microcapsule pigment is 1.05 to 1.20, a specific gravity of the vehicle is 1.00 to 1.30, and the specific gravity of the vehicle is 0.90 times to 1.20 times based on the specific gravity of the microcapsule pigment.
A method of controlling access to IP streaming content by a plurality of receivers, the method comprising: for each receiver in the plurality of receivers, providing (S101) that receiver with access to first control information unique to that receiver to enable that receiver to access an individually watermarked version of a first portion of the content; identifying (S102) a receiver from the plurality of receivers as an identified receiver, wherein identifying a receiver comprises detecting a watermark associated with the identified receiver in an unauthorised instance of the content; updating (S103) the first control information so as to provide updated control information unique to each receiver, the updated control information being associated with a second portion of the content; and configuring (S104) each receiver to fetch the updated control information for that receiver; wherein, for the identified receiver, the updated control information is invalid such that the identified receiver is unable to fully access the second portion of the content. for each receiver in the plurality of receivers, providing (S101) that receiver with access to first control information unique to that receiver to enable that receiver to access an individually watermarked version of a first portion of the content; identifying (S102) a receiver from the plurality of receivers as an identified receiver, wherein identifying a receiver comprises detecting a watermark associated with the identified receiver in an unauthorised instance of the content; updating (S103) the first control information so as to provide updated control information unique to each receiver, the updated control information being associated with a second portion of the content; and configuring (S104) each receiver to fetch the updated control information for that receiver; wherein, for the identified receiver, the updated control information is invalid such that the identified receiver is unable to fully access the second portion of the content.
Method for making a finned tube , in which a tube base body is finned on its outside , in particular helically, with a band , whereby the band is fixed to the tube base body using a laser beam , characterised by the steps: • providing a tube base body made of a first material and a band made of a second, different material, • comparison of at least one spectral property, for example the absorption coefficient (α), of the two different materials, • selecting a type of laser of a suitable wavelength (λ) taking into account the comparison made, • radiating a laser beam produced by a laser of the type selected into the contact area of the tube base body and the band , such that for welding, both the tube base body material assigned to the contact area and also the band material assigned to the contact area are irradiated and melted by the laser beam. • providing a tube base body made of a first material and a band made of a second, different material, • comparison of at least one spectral property, for example the absorption coefficient (α), of the two different materials, • selecting a type of laser of a suitable wavelength (λ) taking into account the comparison made, • radiating a laser beam produced by a laser of the type selected into the contact area of the tube base body and the band , such that for welding, both the tube base body material assigned to the contact area and also the band material assigned to the contact area are irradiated and melted by the laser beam.
A battery separator for a lithium battery comprising at least one microporous membrane, wherein the membrane has a thickness from 5 μm to 25 μm, determined as described in the description, wherein the membrane is a single or multilayer dry process microporous membrane, wherein the membrane has been machine direction stretched and transverse direction stretched either sequentially or simultaneously, and has been subsequently calendered using at least pressure, wherein the membrane has at least one outer surface or surface layer having a pore structure with a pore being an opening or space between adjacent lamellae which is bounded on one or both sides by a fibril or a bridging structure between the adjacent lamellae, wherein at least a portion of the membrane contains respective groups of pores between adjacent lamellae with the lamellae oriented substantially along a transverse direction and the fibrils or bridging structures between the adjacent lamellae oriented substantially along a machine direction and the outer surface of at least some of the lamellae being flattened or planar, wherein the pore structure has at least one of: substantially trapezoidal or rectangular pores, pores with rounded corners, condensed or heavy lamellae across the width or transverse direction, random or less ordered pores, groups of pores with areas of missing or broken fibrils, densified lamellar skeletal structure, and the at least one outer surface of surface layer having a coefficient of friction (COF) of less than 0.3 wherein the COF is measured as defined herein by the "COF" test under "TEST METHODS". at least one microporous membrane, wherein the membrane has a thickness from 5 μm to 25 μm, determined as described in the description, wherein the membrane is a single or multilayer dry process microporous membrane, wherein the membrane has been machine direction stretched and transverse direction stretched either sequentially or simultaneously, and has been subsequently calendered using at least pressure, wherein the membrane has at least one outer surface or surface layer having a pore structure with a pore being an opening or space between adjacent lamellae which is bounded on one or both sides by a fibril or a bridging structure between the adjacent lamellae, wherein at least a portion of the membrane contains respective groups of pores between adjacent lamellae with the lamellae oriented substantially along a transverse direction and the fibrils or bridging structures between the adjacent lamellae oriented substantially along a machine direction and the outer surface of at least some of the lamellae being flattened or planar, wherein the pore structure has at least one of: substantially trapezoidal or rectangular pores, pores with rounded corners, condensed or heavy lamellae across the width or transverse direction, random or less ordered pores, groups of pores with areas of missing or broken fibrils, densified lamellar skeletal structure, and the at least one outer surface of surface layer having a coefficient of friction (COF) of less than 0.3 wherein the COF is measured as defined herein by the "COF" test under "TEST METHODS".
A method for setting a display brightness comprising: obtaining current state data characterizing a current state of a user device having a display with an adjustable brightness; providing the current state data as input to a brightness prediction machine learning model , wherein the model is configured to process the current state data in accordance with current values of a set of model parameters to generate as output a proposed display brightness for the display of the user device; setting the brightness of the display to a brightness that is lower than the proposed display brightness in accordance with an exploration policy; determining whether a user of the user device manually adjusts the display brightness; and: in response to determining that the user of the user device did not manually adjust the display brightness, using the lower brightness as a target output for adjusting the current values of the set of model parameters, and otherwise in response to determining that the user of the user device manually adjusted the display brightness to a manual brightness, using the manual brightness as the target output for adjusting the current values of the set of model parameters. obtaining current state data characterizing a current state of a user device having a display with an adjustable brightness; providing the current state data as input to a brightness prediction machine learning model , wherein the model is configured to process the current state data in accordance with current values of a set of model parameters to generate as output a proposed display brightness for the display of the user device; setting the brightness of the display to a brightness that is lower than the proposed display brightness in accordance with an exploration policy; determining whether a user of the user device manually adjusts the display brightness; and: in response to determining that the user of the user device did not manually adjust the display brightness, using the lower brightness as a target output for adjusting the current values of the set of model parameters, and otherwise in response to determining that the user of the user device manually adjusted the display brightness to a manual brightness, using the manual brightness as the target output for adjusting the current values of the set of model parameters.