mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for the heat treatment of solid combustible fuel comprising a hollow tubular structure having at least two substantially vertically extending hollow conduits comprising a first conduit adapted to have particulate material pass downward there through and a second conduit adapted to have particulate material pass upward there through, with each of the first and second conduits having a lower end, with each lower end attached to opposite ends of a bottom hollow third conduit that is adapted to have particulate material pass there through from the lower end of the first conduit to lower end of the second conduit, characterized in that said tubular structure further comprising a means to direct a pulsed gas upward from beneath the third conduit into the interior of at least one of the vertically extending conduits for a duration ranging from 10 to 200 ms, an amplitude ranging from 0.2 to 5 bar and a frequency ranging from 0.1 to 10 hz.
A cosmetic comprising a silicone oil in an amount of 50 mass % or more relative to the total mass of the cosmetic and having a viscosity of 10000 mPa·s or less (measured with a BL-type viscometer with a #3 rotor under measurement conditions of: 12 rpm, 1 minute, at 30°C), the cosmetic comprising: (a) a volatile linear silicone oil in an amount of 60 mass % or more relative to the total mass of the silicone oil; and (b) an elastic powder having a linear silicone oil absorption of not less than 40 g/100 g and not more than 125 g/100 g and a rheometer hardness (measured using SUN rheometer (CMPAC-II, available from SUN SCIENTIFIC CO., LTD)) of not less than 40 and not more than 300 in an amount of 1 to 10 mass % relative to the total mass of the cosmetic, and wherein the cosmetic contains an elastic powder having a linear silicone oil absorption higher than 125 g/100 g in an amount of not more than 3 mass % relative to the total mass of the cosmetic. (a) a volatile linear silicone oil in an amount of 60 mass % or more relative to the total mass of the silicone oil; and (b) an elastic powder having a linear silicone oil absorption of not less than 40 g/100 g and not more than 125 g/100 g and a rheometer hardness (measured using SUN rheometer (CMPAC-II, available from SUN SCIENTIFIC CO., LTD)) of not less than 40 and not more than 300 in an amount of 1 to 10 mass % relative to the total mass of the cosmetic, and wherein the cosmetic contains an elastic powder having a linear silicone oil absorption higher than 125 g/100 g in an amount of not more than 3 mass % relative to the total mass of the cosmetic.
An electromechanical actuator system, comprising: an actuator ; and a load cell coupled to the actuator and comprising a circuit board , a strain gage , a microcontroller , a bridge , and output drive circuits in communication with the microcontroller , wherein the output drive circuits provide a signal to an electric brake actuator controller ; the output drive circuits comprising an analog drive circuit configured to provide an analog signal to the electric brake actuator controller, and a digital drive circuit configured to provide a digital signal to the electric brake actuator controller . an actuator ; and a load cell coupled to the actuator and comprising a circuit board , a strain gage , a microcontroller , a bridge , and output drive circuits in communication with the microcontroller , wherein the output drive circuits provide a signal to an electric brake actuator controller ; the output drive circuits comprising an analog drive circuit configured to provide an analog signal to the electric brake actuator controller, and a digital drive circuit configured to provide a digital signal to the electric brake actuator controller .
An active material comprising a composite oxide having a tetragonal crystal structure and represented by a general formula Li a Ti b Nb 2-2d M c+2d O 2b+5+3c , where M is one selected from the group consisting of W and Mo, 0 < b < 2, 0 < c < 2, 0 ≤ d < 0.5, 0 ≤ a ≤ b+4+3c, 0 < b < 2-2d, and 0 < c < 2-4d.
Sensor apparatus comprising: - a sensor capsule which complies with a predetermined type of protection according to the known IP codes, - inside which one or more sensors are arranged, and - a holder , - wherein the holder is fastened to a traffic infrastructure , and - wherein the sensor capsule is releasably fastened in the holder , characterized in that the holder also has one or more further electrical or electronic functionalities in addition to the fastening functionality. - a sensor capsule which complies with a predetermined type of protection according to the known IP codes, - inside which one or more sensors are arranged, and - a holder , - wherein the holder is fastened to a traffic infrastructure , and - wherein the sensor capsule is releasably fastened in the holder , characterized in that the holder also has one or more further electrical or electronic functionalities in addition to the fastening functionality.
Orthopaedic shoe insert blank having a base body which is formed from PU foam plastic by the RIM process and has a first partial section and a second partial section , whereby the two partial sections are connected by means of a flexible layer which is configured in a planar manner and extends over at least one central section of the shoe insert blank , whereby - the first partial section is foamed from a first PU foam plastic and is foamed in the section of the flexible layer on the lower side thereof, whereby the flexible layer forms the upper side of the shoe insert blank in this section of the shoe insert blank ; - the second partial section is foamed from a second PU foam plastic and is foamed in the section of the flexible layer on the upper side thereof, the flexible layer forming the lower side of the shoe insert blank in this section of the shoe insert blank ; and - the first and/or second PU foam plastic in sections without a flexible layer forms both the upper side and the lower side of the shoe insert blank . - the first partial section is foamed from a first PU foam plastic and is foamed in the section of the flexible layer on the lower side thereof, whereby the flexible layer forms the upper side of the shoe insert blank in this section of the shoe insert blank ; - the second partial section is foamed from a second PU foam plastic and is foamed in the section of the flexible layer on the upper side thereof, the flexible layer forming the lower side of the shoe insert blank in this section of the shoe insert blank ; and - the first and/or second PU foam plastic in sections without a flexible layer forms both the upper side and the lower side of the shoe insert blank .
A bracket assembly, adjustable to the thickness of the wing of a lift guide; of the type that has a bracket for each wing (G1) of the lift guide (G), said guide (G) resting on a support (S) that has orifices (S1) in which the assembly is fastened; wherein the bracket assembly has: a) a fastening assembly and an adjuster assembly arranged to be fastened to each other and the support (S) to the wing (G1) of the guide (G); the adjuster assembly being subject to guided linear movement with respect to the fastening assembly to adapt to wings (G1) of different thicknesses; the fastening assembly and the wing (G1) being stopped against each other, with frontal friction; b) a non-turning screw that mounts on the fastening assembly or on the support (S) to fasten them to each other; and c) a fastening element that joined to the screw , is accommodated in a long orifice of the adjuster assembly allowing the guided movement of the adjuster assembly in the fastening assembly ; and then to fasten between them the adjuster assembly and the fastening assembly . a) a fastening assembly and an adjuster assembly arranged to be fastened to each other and the support (S) to the wing (G1) of the guide (G); the adjuster assembly being subject to guided linear movement with respect to the fastening assembly to adapt to wings (G1) of different thicknesses; the fastening assembly and the wing (G1) being stopped against each other, with frontal friction; b) a non-turning screw that mounts on the fastening assembly or on the support (S) to fasten them to each other; and c) a fastening element that joined to the screw , is accommodated in a long orifice of the adjuster assembly allowing the guided movement of the adjuster assembly in the fastening assembly ; and then to fasten between them the adjuster assembly and the fastening assembly .
An optical connector module comprising: an optical transmission line comprising a plurality of cores and a cladding layered on a substrate ; an optical connector comprising a first side surface (A1) facing an end face of said optical transmission line and an end face of said substrate , and configured to couple optically to said optical transmission line ; and a refractive index adjustment material configured to be located between said end face of said optical transmission line and said first side surface (A1), and between said end face of said substrate and said first side surface (A1), and configured to adjust a refractive index of a space between said plurality of cores and said first side surface (A1), wherein a first lens portion that is curved is provided on said first side surface (A1) at a position opposite said plurality of cores , wherein said first lens portion is formed as a concave shape at said first side surface (A1), and wherein said refractive index adjustment material fills said concave shape at said first side surface (A1) and fixes said end face of said optical transmission line , said end face of said substrate , and said first side surface (A1). an optical transmission line comprising a plurality of cores and a cladding layered on a substrate ; an optical connector comprising a first side surface (A1) facing an end face of said optical transmission line and an end face of said substrate , and configured to couple optically to said optical transmission line ; and a refractive index adjustment material configured to be located between said end face of said optical transmission line and said first side surface (A1), and between said end face of said substrate and said first side surface (A1), and configured to adjust a refractive index of a space between said plurality of cores and said first side surface (A1), wherein a first lens portion that is curved is provided on said first side surface (A1) at a position opposite said plurality of cores , wherein said first lens portion is formed as a concave shape at said first side surface (A1), and wherein said refractive index adjustment material fills said concave shape at said first side surface (A1) and fixes said end face of said optical transmission line , said end face of said substrate , and said first side surface (A1).
Transmission with a transmission housing , a drive shaft , a radial fan which is attached on the drive shaft , and an air guiding hood which is attached on the transmission housing and encloses the radial fan , the air guiding hood comprising a section, with which it encloses the transmission housing at least partially, and a cylindrical section which adjoins the said section, and a conical section which in turn adjoins the latter, the cylindrical section being intended to receive an attachment part which can be attached on the drive shaft , characterized in that the radial fan blades are inclined at the same angle as the conical section , which results in a maximum possible length of the radial fan blades and therefore as great an air output of the radial fan as possible.
A terminal, wherein the terminal comprises a first sliding cover and a second sliding cover disposed opposite to each other, and a sliding structure disposed between the first sliding cover and the second sliding cover; the sliding structure comprises a first substrate and a second substrate adapted to slide relative to each other in a sliding direction, characterized in that a first groove is provided on a first side of the first substrate , a second groove is provided on a second side opposite to the first side , the first side and the second side are parallel to the sliding direction, a first spring is disposed at an opening of the first groove , and a second spring is disposed at an opening of the second groove ; and the second substrate is fastened to a housing of the second sliding cover, the housing comprises a first surface opposite to the first side and a second surface opposite to the second side , two first limiting grooves are disposed on the first surface in the sliding direction, two second limiting grooves are disposed on the second surface in the sliding direction, and the two first limiting grooves are in a one-to-one correspondence with the two second limiting grooves ; wherein the first spring comprises a first elastic component, the first elastic component generates elastic deformation when receiving an action force directed at the second side , the second spring comprises a second elastic component, and the second elastic component generates elastic deformation when receiving an action force directed at the first side ; and wherein the first elastic component is V-shaped or arc-shaped, and the second elastic component is arc-shaped. the sliding structure comprises a first substrate and a second substrate adapted to slide relative to each other in a sliding direction, characterized in that a first groove is provided on a first side of the first substrate , a second groove is provided on a second side opposite to the first side , the first side and the second side are parallel to the sliding direction, a first spring is disposed at an opening of the first groove , and a second spring is disposed at an opening of the second groove ; and the second substrate is fastened to a housing of the second sliding cover, the housing comprises a first surface opposite to the first side and a second surface opposite to the second side , two first limiting grooves are disposed on the first surface in the sliding direction, two second limiting grooves are disposed on the second surface in the sliding direction, and the two first limiting grooves are in a one-to-one correspondence with the two second limiting grooves ; wherein the first spring comprises a first elastic component, the first elastic component generates elastic deformation when receiving an action force directed at the second side , the second spring comprises a second elastic component, and the second elastic component generates elastic deformation when receiving an action force directed at the first side ; and wherein the first elastic component is V-shaped or arc-shaped, and the second elastic component is arc-shaped.
An apparatus for calculating a bank angle value of a banking vehicle , the apparatus comprising: an inertial measurement unit , the inertial measurement unit including a processor and at least one motion sensor operatively coupled to the processor ; the processor programmed to: sample yaw rate data at a predetermined rate, the yaw rate data provided by the at least one motion sensor ; characterized in that the processor is further programmed to: compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate , and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate , set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate , calculate the bank angle value based on roll rate data provided by the at least one motion sensor . an inertial measurement unit , the inertial measurement unit including a processor and at least one motion sensor operatively coupled to the processor ; the processor programmed to: sample yaw rate data at a predetermined rate, the yaw rate data provided by the at least one motion sensor ; characterized in that the processor is further programmed to: compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate , and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate , set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate , calculate the bank angle value based on roll rate data provided by the at least one motion sensor . compare the yaw rate data to a predefined minimum yaw rate and a predefined maximum yaw rate , and when the yaw rate data is between the predefined minimum yaw rate and the predefined maximum yaw rate , set a bank angle value to zero; and when the yaw rate data is not between the predefined minimum yaw rate and the predefined maximum yaw rate , calculate the bank angle value based on roll rate data provided by the at least one motion sensor .
Method for forming pairs of packs , comprising: - providing a supply of individual packs ; - arranging a first pack in a vertical transport device ; - arranging a second pack in the vertical transport device , thereby arranging the second pack vertically spaced from the first pack in the vertical transport device ; - vertically transporting the first pack and the second pack in the vertical transport device; then - simultaneously pushing the first pack and the second packs as a pair of packs out of the vertical transport device and into a receiving device being a horizontal transport device horizontally transporting the pair of packs , wherein the first and second packs are transferred in a vertically spaced manner as the pair of packs to the receiving device and are arranged in a vertically spaced manner in the receiving device. - providing a supply of individual packs ; - arranging a first pack in a vertical transport device ; - arranging a second pack in the vertical transport device , thereby arranging the second pack vertically spaced from the first pack in the vertical transport device ; - vertically transporting the first pack and the second pack in the vertical transport device; then - simultaneously pushing the first pack and the second packs as a pair of packs out of the vertical transport device and into a receiving device being a horizontal transport device horizontally transporting the pair of packs , wherein the first and second packs are transferred in a vertically spaced manner as the pair of packs to the receiving device and are arranged in a vertically spaced manner in the receiving device.
A pump assembly comprising - a pump unit capable of providing a desired head H 0 at zero flow rate, - a brushless speed-controlled permanent-magnet AC drive motor for driving the pump unit , and - a control unit for controlling the drive motor , wherein the control unit comprises a frequency converter configured to receive an input voltage (U in ), wherein the drive motor is operable in a field-weakening mode and a non-field-weakening mode, characterized in that the drive motor is undersized by comprising a stator with a number of stator windings and/or a wire cross-section of the stator windings as a chosen design parameter of the drive motor for driving the pump unit at a design input voltage (U 0 ) to provide a lower head H than the desired head H 0 at zero flow rate in the non-field-weakening mode and for driving the pump unit to provide the desired head H 0 at zero flow rate in the field-weakening mode. - a pump unit capable of providing a desired head H 0 at zero flow rate, - a brushless speed-controlled permanent-magnet AC drive motor for driving the pump unit , and - a control unit for controlling the drive motor ,
An exhaust aftertreatment system for an internal combustion engine , the exhaust aftertreatment system comprising: - an outer casing having an exhaust gas inlet and an exhaust gas outlet between which a fluid flow path for exhaust gases from the internal combustion engine is provided, - a selective catalytic reduction unit provided in the fluid flow path for reducing nitrogen oxides, - a reductant dosing device for adding reductant to the exhaust flow upstream of the selective catalytic reduction unit , and - a rotatable mixer device for mixing the reductant with exhaust gases upstream of the selective catalytic reduction unit , - an air inlet valve provided upstream of the mixer device for introducing air into the fluid flow path , and - an electric motor arranged for rotating the mixer device to create a suction of air into the fluid flow path via the air inlet valve , characterized in that the exhaust aftertreatment system further comprises a heating element configured to heat gaseous medium flowing in the fluid flow path . - an outer casing having an exhaust gas inlet and an exhaust gas outlet between which a fluid flow path for exhaust gases from the internal combustion engine is provided, - a selective catalytic reduction unit provided in the fluid flow path for reducing nitrogen oxides, - a reductant dosing device for adding reductant to the exhaust flow upstream of the selective catalytic reduction unit , and - a rotatable mixer device for mixing the reductant with exhaust gases upstream of the selective catalytic reduction unit , - an air inlet valve provided upstream of the mixer device for introducing air into the fluid flow path , and - an electric motor arranged for rotating the mixer device to create a suction of air into the fluid flow path via the air inlet valve ,