mhurhangee/patent-ind-claim-en huggingface dataset:
A cyclic pitch angle adjustment apparatus for a rotor with a rotor head and rotor blades that rotate around a rotor axis in a rotor plane , comprising: a base point ; a bearing that is located in a central point outside the rotor plane ; a first lever that is connected to a first rotor blade of the rotor blades and rotates the first rotor blade around a first pitch axis ; a second lever that is connected to a second rotor blade of the rotor blades and rotates the second rotor blade around a second pitch axis ; first and second rods that mechanically link the first and second levers with the bearing in the central point such that the first and second rods are movable relative to the central point , wherein the first and second rods are integrally formed as a single rod ; a connection that connects the first lever , the second lever , and the single rod with each other in a first location ; and a central rod that connects the bearing with the base point , wherein the central rod is movable from a first position in which the central rod forms a fixed angle with the rotor axis to a second position in which the central rod forms the same fixed angle with the rotor axis , wherein the first and second positions differ, and wherein the central rod is adapted for adjusting the cyclic pitch angle of the first and second rotor blades in the first position to a first pitch angle and in the second position to a second pitch angle that is different than the first pitch angle. a base point ; a bearing that is located in a central point outside the rotor plane ; a first lever that is connected to a first rotor blade of the rotor blades and rotates the first rotor blade around a first pitch axis ; a second lever that is connected to a second rotor blade of the rotor blades and rotates the second rotor blade around a second pitch axis ; first and second rods that mechanically link the first and second levers with the bearing in the central point such that the first and second rods are movable relative to the central point , wherein the first and second rods are integrally formed as a single rod ; a connection that connects the first lever , the second lever , and the single rod with each other in a first location ; and a central rod that connects the bearing with the base point , wherein the central rod is movable from a first position in which the central rod forms a fixed angle with the rotor axis to a second position in which the central rod forms the same fixed angle with the rotor axis , wherein the first and second positions differ, and wherein the central rod is adapted for adjusting the cyclic pitch angle of the first and second rotor blades in the first position to a first pitch angle and in the second position to a second pitch angle that is different than the first pitch angle.
Fastening device for anchoring an object on a fixed wall in structural engineering, civil engineering, hydraulic engineering and tunnel construction, comprising a fastening anchor which is fastened in a bore in the wall , wherein a continuous sealing sheet is arranged between the object to be anchored and the wall and can be connected to a sheet part which is connected to the fastening device, characterized in that the fastening anchor comprises, starting from a wall-side end , at least over a partial length of the fastening anchor , a jacket composed of a plastics material which is injection-moulded onto the fastening anchor during production, in that the jacket comprises, opposite to the wall-side end , a disc-shaped abutment , and in that the fastening anchor comprises a bolt , a bearing ring and a holding part.
A lift truck comprising: a frame defining a main structural component of the lift truck; a mast assembly secured to the frame; first and second lower forks secured to the frame for supporting a lower load (LL) carried by the lift truck; first and second upper forks located above the lower forks for supporting an upper load (UL) carried by the lift truck, the first and second upper forks being movable with respect to the lower forks along the mast assembly; first and second pallet stops that position the lower load on the lower forks, wherein each of the pallet stops includes a surface for contacting the lower load on the lower forks and for maintaining the lower load at a desired axial position; wherein the first and second pallet stops are secured in place between the mast assembly and the frame at laterally spaced apart locations; and characterised in that the pallet stops are removable from the lift truck. a frame defining a main structural component of the lift truck; a mast assembly secured to the frame; first and second lower forks secured to the frame for supporting a lower load (LL) carried by the lift truck; first and second upper forks located above the lower forks for supporting an upper load (UL) carried by the lift truck, the first and second upper forks being movable with respect to the lower forks along the mast assembly; first and second pallet stops that position the lower load on the lower forks, wherein each of the pallet stops includes a surface for contacting the lower load on the lower forks and for maintaining the lower load at a desired axial position; wherein the first and second pallet stops are secured in place between the mast assembly and the frame at laterally spaced apart locations; and characterised in that the pallet stops are removable from the lift truck.
A clock source determining method, comprising: receiving , by a session management network element, a session request from a mobility management network element, wherein the session request comprises information about a network slice and a data network name DNN, and the session request is used to request to create a session, wherein the information about the network slice is information about a network slice that is allowed to be accessed by the terminal device, and the DNN is a DNN supported by the network slice that is allowed to be accessed by a terminal device; determining , by the session management network element, clock source information corresponding to both the information about the network slice and the DNN; and sending , by the session management network element, the clock source information to an access network device, wherein the clock source information is used by the access network device to perform clock synchronization with the terminal device. receiving , by a session management network element, a session request from a mobility management network element, wherein the session request comprises information about a network slice and a data network name DNN, and the session request is used to request to create a session, wherein the information about the network slice is information about a network slice that is allowed to be accessed by the terminal device, and the DNN is a DNN supported by the network slice that is allowed to be accessed by a terminal device; determining , by the session management network element, clock source information corresponding to both the information about the network slice and the DNN; and sending , by the session management network element, the clock source information to an access network device, wherein the clock source information is used by the access network device to perform clock synchronization with the terminal device.
Parenchymal cellulose composition comprising a particulate cellulose material containing, by dry weight of the particulate cellulose material, at least 70% cellulose, at least 0.5% and less than 10% of pectin, and at least 5% hemicellulose, and wherein said particulate cellulose material is characterized by a reported volume-weighted median major dimension within the range of 25-75 μm when measured with a Malvern Mastersizer particle size analyzer.
A drum unit (U1) comprising: a photosensitive drum ; a flange provided at an end portion of said photosensitive drum to transmit a driving force to said photosensitive drum ; and a coupling member provided on said flange , said coupling member including a movable member provided with a driving force receiving portion configured to receive the driving force, said movable member being movable relative to said flange between an advanced position advanced away from said photosensitive member and a retracted position retracted toward an inside of said photosensitive drum , and a connecting member connected with said flange so as to transmit the driving force from said movable member to said flange , wherein said connecting member includes a shaft portion extending along a moving direction of said movable member , and a restricting portion configured to restrict said movable member so as to suppress disengagement, from said flange , of said movable member placed in the advanced position, wherein said restricting portion is not engaged with said movable member when said coupling member is in the retracted position, and said restricting portion receives the driving force from said movable member by engagement with said movable member when said coupling member is in the advanced position. a photosensitive drum ; a flange provided at an end portion of said photosensitive drum to transmit a driving force to said photosensitive drum ; and a coupling member provided on said flange , said coupling member including a movable member provided with a driving force receiving portion configured to receive the driving force, said movable member being movable relative to said flange between an advanced position advanced away from said photosensitive member and a retracted position retracted toward an inside of said photosensitive drum , and a connecting member connected with said flange so as to transmit the driving force from said movable member to said flange , wherein said connecting member includes a shaft portion extending along a moving direction of said movable member , and a restricting portion configured to restrict said movable member so as to suppress disengagement, from said flange , of said movable member placed in the advanced position, wherein said restricting portion is not engaged with said movable member when said coupling member is in the retracted position, and said restricting portion receives the driving force from said movable member by engagement with said movable member when said coupling member is in the advanced position.
A mass spectrometer comprising: an ion mobility separation device for separating ions according to their ion mobility; and a first quadrupole mass filter arranged downstream of said ion mobility separation device ; a control system arranged and adapted to scan and/or step the set mass of said first quadrupole mass filter a plurality of times over a first mass to charge ratio range of < ± 2 amu during the elution time of an ion mobility peak from said ion mobility separation device ; and an analyser or ion detector arranged downstream of said first quadrupole mass filter , wherein said analyser or ion detector is arranged and adapted to analyse or detect ions so as to acquire multi-dimensional ion mobility-mass to charge ratio data. an ion mobility separation device for separating ions according to their ion mobility; and a first quadrupole mass filter arranged downstream of said ion mobility separation device ; a control system arranged and adapted to scan and/or step the set mass of said first quadrupole mass filter a plurality of times over a first mass to charge ratio range of < ± 2 amu during the elution time of an ion mobility peak from said ion mobility separation device ; and an analyser or ion detector arranged downstream of said first quadrupole mass filter , wherein said analyser or ion detector is arranged and adapted to analyse or detect ions so as to acquire multi-dimensional ion mobility-mass to charge ratio data.
A self-propelled harvesting machine with a front attachment for picking up harvest material (EG) and which is pivotably disposed about a horizontal axis on a pickup device disposed on the harvesting machine , wherein the position of the front attachment relative to the ground (FB) can be adjusted by means of actuators which can be controlled by a control device of the harvesting machine which is configured to control the position of the front attachment , wherein at least one first sensor assembly is disposed on the front attachment which serves to determine a distance (A) between the front attachment and the ground (FB), wherein at least one second sensor assembly is provided which detects the profile of the crop height (B) of the harvest material (EG) at a specified distance in front of the front attachment as a position controlling parameter, characterized in that independently of a distance (A) detected by the first sensor assembly , the control device is configured so as to determine, with the aid of the profile of the crop height (B) detected by means of the at least one second sensor assembly , a nominal height for the height guidance and a nominal inclination for the transverse guidance for the front attachment , and then to set a height and a transverse inclination for the front attachment having regard to a prescribed cutting depth (S) below the crop height (B).
An aerosol provision (AP) system , comprising: one or more receptacles each forming a respective central space ; a base (200', 200", 500) adapted to support the or each receptacle, the or each receptacle being removable from the base; and at least a first airflow generator , operable to draw air through at least a first aerosol generator; wherein the base comprises one or more outlets through which, in operation, aerosolised payload is directed to flow from the base into the central space of a respective receptacle; and the or each receptacle comprises first opening through which the user can inhale the aerosolised payload when the receptacle is removed from the base. one or more receptacles each forming a respective central space ; a base (200', 200", 500) adapted to support the or each receptacle, the or each receptacle being removable from the base; and at least a first airflow generator , operable to draw air through at least a first aerosol generator; wherein the base comprises one or more outlets through which, in operation, aerosolised payload is directed to flow from the base into the central space of a respective receptacle; and the or each receptacle comprises first opening through which the user can inhale the aerosolised payload when the receptacle is removed from the base.
An increment/decrement apparatus comprising: an input block configured to receive an N-bit unsigned number, wherein the input block comprises N propagate and generate cells; a plurality of calculation cells arranged in rows (210-212) and columns, wherein the number of the columns is equal to N and the number of the rows (210-212) is equal to log 2 (N) , wherein each row (210-212) has an index ri, and wherein a variable d is equal to 2 ri , and wherein each calculation cell has two groups of inputs connected to two cells in a preceding row, and wherein: the first group of inputs are connected to outputs of a first calculation cell in the preceding row (210-212) and vertically aligned with the calculation cell; and the second group of inputs are connected to outputs of a second calculation cell that is d cells away from the first calculation cell; and an output block comprising a plurality of XOR gates, wherein the propagate and generate cells of the input block are connected to a row of said calculation cells, and wherein the XOR gates of the output block are connected to a last row of said calculation cells. an input block configured to receive an N-bit unsigned number, wherein the input block comprises N propagate and generate cells; a plurality of calculation cells arranged in rows (210-212) and columns, wherein the number of the columns is equal to N and the number of the rows (210-212) is equal to log 2 (N) , wherein each row (210-212) has an index ri, and wherein a variable d is equal to 2 ri , and wherein each calculation cell has two groups of inputs connected to two cells in a preceding row, and wherein: the first group of inputs are connected to outputs of a first calculation cell in the preceding row (210-212) and vertically aligned with the calculation cell; and the second group of inputs are connected to outputs of a second calculation cell that is d cells away from the first calculation cell; and the first group of inputs are connected to outputs of a first calculation cell in the preceding row (210-212) and vertically aligned with the calculation cell; and the second group of inputs are connected to outputs of a second calculation cell that is d cells away from the first calculation cell; and an output block comprising a plurality of XOR gates, wherein the propagate and generate cells of the input block are connected to a row of said calculation cells, and wherein the XOR gates of the output block are connected to a last row of said calculation cells.
Injection-moulded plastic object having - at least one 2-D barcode element on the outside of the plastic object, and - at least one chip which can be written to and read out in a wireless fashion, wherein further writing to the chip can be disabled by wireless signal after the chip is first written to but can continue to be read out, characterized in that the injection-moulded plastic object has a closure cap for containers, which has a screw thread, and wherein the chip is fitted onto the inside of the closure cap . - at least one 2-D barcode element on the outside of the plastic object, and - at least one chip which can be written to and read out in a wireless fashion, wherein further writing to the chip can be disabled by wireless signal after the chip is first written to but can continue to be read out, characterized in that the injection-moulded plastic object has a closure cap for containers, which has a screw thread, and wherein the chip is fitted onto the inside of the closure cap .
A method for producing a high solubility Stevia sweetener comprising the steps of: A) providing a first Stevia sweetener, wherein the first Stevia sweetener is Rebaudioside D; B) providing a second Stevia sweetener, wherein the second Stevia sweetener is Rebaudioside B; C) providing water; D) mixing the water and first and second Stevia sweeteners to make a mixture; E) increasing the temperature of the mixture by a gradient method to make a solution, wherein the water and Stevia sweetener mixture is heated at a gradient of about 1°C per minute; F) holding the solution at an elevated temperature of about 118-125°C for a period of about 50-70 minutes; G) decreasing the temperature of the solution by a gradient method to obtain a high stability and high concentration Stevia sweetener solution; and H) spray drying the high stability and high concentration Stevia sweetener solution, to provide the high solubility Stevia sweetener. A) providing a first Stevia sweetener, wherein the first Stevia sweetener is Rebaudioside D; B) providing a second Stevia sweetener, wherein the second Stevia sweetener is Rebaudioside B; C) providing water; D) mixing the water and first and second Stevia sweeteners to make a mixture; E) increasing the temperature of the mixture by a gradient method to make a solution, wherein the water and Stevia sweetener mixture is heated at a gradient of about 1°C per minute; F) holding the solution at an elevated temperature of about 118-125°C for a period of about 50-70 minutes; G) decreasing the temperature of the solution by a gradient method to obtain a high stability and high concentration Stevia sweetener solution; and H) spray drying the high stability and high concentration Stevia sweetener solution, to provide the high solubility Stevia sweetener.
A process for preparing whitened fly ash, wherein the process comprises the steps of: (a) subjecting fly ash to a size classification step to obtain size classified fly ash having a particle size such that at least 90wt% has a particle size of from 44μm to 250μm; (b) optionally, contacting the size classified fly ash from step (a) with water so as to form a slurry, wherein the slurry has a solid content of less than 40wt%; (c) subjecting the size classified fly ash obtained in step (a) or the slurry obtained in step (b) to an exhaustive magnetic separation step to form magnetically treated fly ash, wherein the exhaustive magnetic separation step comprises a first magnetic extraction step and a second magnetic extraction step, wherein the second magnetic extraction step is carried out at a higher magnetic field strength than the first magnetic extraction step; and (d) subjecting the magnetically treated fly ash obtained in step (c) to a milling step to form whitened fly ash. (a) subjecting fly ash to a size classification step to obtain size classified fly ash having a particle size such that at least 90wt% has a particle size of from 44μm to 250μm; (b) optionally, contacting the size classified fly ash from step (a) with water so as to form a slurry, wherein the slurry has a solid content of less than 40wt%; (c) subjecting the size classified fly ash obtained in step (a) or the slurry obtained in step (b) to an exhaustive magnetic separation step to form magnetically treated fly ash, wherein the exhaustive magnetic separation step comprises a first magnetic extraction step and a second magnetic extraction step, wherein the second magnetic extraction step is carried out at a higher magnetic field strength than the first magnetic extraction step; and (d) subjecting the magnetically treated fly ash obtained in step (c) to a milling step to form whitened fly ash.