mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid injection device comprising: a fluid supply unit that accommodates and supplies fluid; a fluid injection unit that injects fluid supplied from the fluid supply unit ; and a driving waveform generating device including at least one adjusting device , characterised by : a one-input multiple-control parameter changing unit that simultaneously changes plural control parameters for determining a fluid injection condition of the fluid injection unit on the basis of a signal from the at least one adjusting device , and a driving waveform generator that generates and outputs a driving waveform of the fluid injection unit on the basis of the control parameters set by the one-input multiple-control parameter changing unit, wherein the one-input multiple-control parameter changing unit is equipped with an optimum control parameter setting table, wherein the optimum control parameter setting table includes a time-series driving waveform indicating value within a fixed time range which represents lapse-time-based voltage values (V) of the driving waveform which are selected by the adjusting device in accordance with the exsection hardness of an operation site, wherein the one-input multiple-control parameter changing unit is arranged to control the plurality of control parameters based on a plurality of optimum control parameter setting tables, and wherein the adjusting device selects one of the plurality of optimum control parameter setting tables. a fluid supply unit that accommodates and supplies fluid; a fluid injection unit that injects fluid supplied from the fluid supply unit ; and a driving waveform generating device including at least one adjusting device , characterised by : a one-input multiple-control parameter changing unit that simultaneously changes plural control parameters for determining a fluid injection condition of the fluid injection unit on the basis of a signal from the at least one adjusting device , and a driving waveform generator that generates and outputs a driving waveform of the fluid injection unit on the basis of the control parameters set by the one-input multiple-control parameter changing unit, wherein the one-input multiple-control parameter changing unit is equipped with an optimum control parameter setting table, wherein the optimum control parameter setting table includes a time-series driving waveform indicating value within a fixed time range which represents lapse-time-based voltage values (V) of the driving waveform which are selected by the adjusting device in accordance with the exsection hardness of an operation site, wherein the one-input multiple-control parameter changing unit is arranged to control the plurality of control parameters based on a plurality of optimum control parameter setting tables, and wherein the adjusting device selects one of the plurality of optimum control parameter setting tables.
A method for generating an image of an anomaly, the method comprising: generating a pulse wave into a structure being evaluated from each of a plurality of sensors; collecting scattered wave data caused by the pulse wave impacting an anomaly, wherein the scattered wave data is collected by the same sensor that generated the pulse wave or by a different sensor; identifying backscattered wave data from a distal edge of the anomaly relative to a location of the sensor collecting the scattered wave data; processing the backscattered wave data from each of the sensors collecting the scattered wave data to generate a two dimensional image of the anomaly; and further characterised by presenting the two dimensional image of the anomaly, wherein processing the backscattered wave data comprises generating baseline wave data for the structure, performing signal processing on only the backscattered wave data using the baseline wave data for the structure, and using at least one of mode decomposition and noise cancellation to identify the backscattered waves; wherein the method further comprises calibrating a velocity of propagation of waves in the structure by using at least one of the baseline wave data, an analytical model, and a finite element method "FEM" model. generating a pulse wave into a structure being evaluated from each of a plurality of sensors; collecting scattered wave data caused by the pulse wave impacting an anomaly, wherein the scattered wave data is collected by the same sensor that generated the pulse wave or by a different sensor; identifying backscattered wave data from a distal edge of the anomaly relative to a location of the sensor collecting the scattered wave data; processing the backscattered wave data from each of the sensors collecting the scattered wave data to generate a two dimensional image of the anomaly; and further characterised by presenting the two dimensional image of the anomaly,
A method for the production of 1,3-propanediol in a continuous fermentation process, comprising culturing a strain of Clostridium genetically modified to have its glycerol metabolism directed to 1,3-propanediol production on a culture medium, and recovering the 1,3-propanediol, characterized in that - the feed medium comprises a high concentration of industrial glycerine, said industrial glycerine being a by-product from biodiesel production and comprising of more than 70% of glycerol, said glycerol being present at a concentration comprised between 90 and 120g/l, and the dilution rate is comprised between 0.005 and 0.1h -1 - wherein the strain of Clostridium is previously adapted by a continuous culture at a dilution rate comprised between 0.005 and 0.1h -1 in the presence of a high concentration of industrial glycerine in the feed medium, said industrial glycerine comprising of more than 70% of glycerol, said glycerol being present at a concentration comprised between 90 and 120g/l - wherein said culture medium does not contain any organic nitrogen source. - the feed medium comprises a high concentration of industrial glycerine, said industrial glycerine being a by-product from biodiesel production and comprising of more than 70% of glycerol, said glycerol being present at a concentration comprised between 90 and 120g/l, and the dilution rate is comprised between 0.005 and 0.1h -1 - wherein the strain of Clostridium is previously adapted by a continuous culture at a dilution rate comprised between 0.005 and 0.1h -1 in the presence of a high concentration of industrial glycerine in the feed medium, said industrial glycerine comprising of more than 70% of glycerol, said glycerol being present at a concentration comprised between 90 and 120g/l - wherein said culture medium does not contain any organic nitrogen source.
A method of regenerating a platinum bath by flow reaction, the method comprising the successive steps of: - drawing off fluid from the platinum bath (B) by means of a draw-off flow ; - complexing platinum by mixing together the draw-off flow and a regeneration solution flow containing platinum, mixing taking place in an intensified reactor (R); and - feeding the platinum bath (B) with the mixture resulting from the platinum complexing step, by means of a regenerated bath flow ; all of these steps being performed as a continuous flow. - drawing off fluid from the platinum bath (B) by means of a draw-off flow ; - complexing platinum by mixing together the draw-off flow and a regeneration solution flow containing platinum, mixing taking place in an intensified reactor (R); and - feeding the platinum bath (B) with the mixture resulting from the platinum complexing step, by means of a regenerated bath flow ;
A rotor structure for a direct-start synchronous reluctance motor, comprising: a rotor core , wherein the rotor core is provided with a plurality of slit slots , and both ends of each slit slot are respectively provided with filling slots , an end portion of a filling slot adjacent to an edge of the rotor core has a first position adjacent to a d- axis of the rotor core and a second position away from the d- axis, and each filling slot is provided with a notch at the first position or the second position; wherein, in a same pole of the rotor core , when one of two adjacent filling slots is provided with a notch at the first position, the other filling slot is provided with a notch at the second position; wherein outer peripheral ends of the filling slots at both ends of the slit slot are partially opened, so that the notch is provided to form a half-open slot structure; and the filling slots are filed with a conductive non-magnetic material. a rotor core , wherein the rotor core is provided with a plurality of slit slots , and both ends of each slit slot are respectively provided with filling slots , an end portion of a filling slot adjacent to an edge of the rotor core has a first position adjacent to a d- axis of the rotor core and a second position away from the d- axis, and each filling slot is provided with a notch at the first position or the second position; wherein, in a same pole of the rotor core , when one of two adjacent filling slots is provided with a notch at the first position, the other filling slot is provided with a notch at the second position; wherein outer peripheral ends of the filling slots at both ends of the slit slot are partially opened, so that the notch is provided to form a half-open slot structure; and the filling slots are filed with a conductive non-magnetic material.
An amphibious unicycle , comprising an annular casing having an accommodation cavity ; the accommodation cavity is configured inside with a power system for driving the unicycle ; characterised in that two sides of the annular casing are provided with two openings respectively; the openings are communicated with the accommodation cavity ; doors are arranged at the openings for sealing the openings; the doors are rotatably connected with the annular casing; two sides of the annular casing are provided with external rotor motors annularly respectively; external rotors of the external rotor motors are provided with a plurality of drainage holes arranged around a periphery of the external rotors .
A braking device for an electric drive motor , in particular a drive motor with an armature shaft projecting over a motor housing , which has at least one braking element and an energy storage device, wherein the energy storage device applies a braking force permanently onto a friction surface of the braking element, characterized in that the energy storage device and braking element are integrally formed of the same material.
A harvester control system configured to control a harvester to load a receiving vehicle with harvested material, comprising: an optical sensor configured to generate an image of a portion of the receiving vehicle ; an automated settings control system configured to identify an optical characteristic of the receiving vehicle based on the image of the portion of the receiving vehicle and to identify fill settings corresponding to the optical characteristic of the receiving vehicle , the fill settings indicating a desired fill strategy, the automated settings control system comprising a cart type classifier configured to identify a cart type, indicative of a type of the receiving vehicle , based on the optical characteristic of the receiving vehicle , and to access the fill settings based on the identified type of the receiving vehicle , a settings output component configured to output the fill settings; and an automatic cart filling control system configured to automatically control a position of a spout on the harvester during a filling operation, during which the harvester fills the receiving vehicle with the harvested material, based on the fill settings; characterized in the cart type classifier is configured to identify the type of the receiving vehicle based on length and/or height of the receiving vehicle , position and/or number of wheels of the receiving vehicle and/or whether the receiving vehicle has a fixed or steerable drawbar. an optical sensor configured to generate an image of a portion of the receiving vehicle ; an automated settings control system configured to identify an optical characteristic of the receiving vehicle based on the image of the portion of the receiving vehicle and to identify fill settings corresponding to the optical characteristic of the receiving vehicle , the fill settings indicating a desired fill strategy, the automated settings control system comprising a cart type classifier configured to identify a cart type, indicative of a type of the receiving vehicle , based on the optical characteristic of the receiving vehicle , and to access the fill settings based on the identified type of the receiving vehicle , a settings output component configured to output the fill settings; and an automatic cart filling control system configured to automatically control a position of a spout on the harvester during a filling operation, during which the harvester fills the receiving vehicle with the harvested material, based on the fill settings; characterized in the cart type classifier is configured to identify the type of the receiving vehicle based on length and/or height of the receiving vehicle , position and/or number of wheels of the receiving vehicle and/or whether the receiving vehicle has a fixed or steerable drawbar.
An apparatus, comprising: an execution unit comprising a multiply add computation unit, a first ALU logic unit and a second ALU logic unit, the execution unit to perform: a first instruction, said first instruction being a multiply add instruction; a second instruction, said second instruction to perform parallel ALU operations with the first and second ALU logic units operating simultaneously to produce different respective output resultants of the second instruction; a third instruction, said third instruction to perform sequential ALU operations with one of the first and second ALU logic units operating from an output of the other of the first and second ALU logic units to determine an output resultant of the third instruction; a fourth instruction, said fourth instruction to perform an iterative divide operation in which the first ALU logic unit and the second ALU logic unit operate to determine first and second division resultant digit values. a first instruction, said first instruction being a multiply add instruction; a second instruction, said second instruction to perform parallel ALU operations with the first and second ALU logic units operating simultaneously to produce different respective output resultants of the second instruction; a third instruction, said third instruction to perform sequential ALU operations with one of the first and second ALU logic units operating from an output of the other of the first and second ALU logic units to determine an output resultant of the third instruction; a fourth instruction, said fourth instruction to perform an iterative divide operation in which the first ALU logic unit and the second ALU logic unit operate to determine first and second division resultant digit values.
Process for purifying biodiesel, comprising the following steps: a) operations of washing of a stream of biodiesel followed by decanting, wherein the washing operation is carried out with stirring above 700 rpm; and b) filtration of a light phase resulting from a decanting operation, wherein the filtration is carried out in the absence of filter aids. a) operations of washing of a stream of biodiesel followed by decanting, wherein the washing operation is carried out with stirring above 700 rpm; and b) filtration of a light phase resulting from a decanting operation, wherein the filtration is carried out in the absence of filter aids.
Dental treatment instrument for operating a rotary tool, wherein the treatment instrument has a head drive, which is provided for coupling to a shank of the rotary tool and which has a sleeve-like guide bushing , wherein the guide bushing has a collet chuck for fixing the rotary tool inserted into the guide bushing , and wherein the guide bushing has, in at least a first axial region , surface portions which form parts of a cylindrical form, wherein recesses are provided which face radially outwards from these surface portions and which give the inner contour of the guide bushing a form that deviates from a rotationally symmetrical form.
An image processing method, wherein the method is applied to a computer system , the computer system comprises a host operating system , a kernel mode graphics driver and a first guest operating system are installed in the host operating system , a user mode graphics driver is deployed in the first guest operating system , and the method comprises: generating (S402), by the user mode graphics driver based on a first application programming interface , API call request, a first instruction that can be identified by a graphics processing unit , and sending (S402) the first instruction to the kernel mode graphics driver , wherein the first API call request is used to request to perform an image rendering operation; and controlling (S403), by the kernel mode graphics driver based on the first instruction, the graphics processing unit to perform image rendering, characterized in that the first guest operating system further comprises an image compositor and an image capture program , and the method further comprises: determining, by the image compositor , whether the image capture program is in an enabled state or a disabled state; and skipping (S405) performing an image composition operation on the plurality of layers if the image capture program is in the disabled state. generating (S402), by the user mode graphics driver based on a first application programming interface , API call request, a first instruction that can be identified by a graphics processing unit , and sending (S402) the first instruction to the kernel mode graphics driver , wherein the first API call request is used to request to perform an image rendering operation; and controlling (S403), by the kernel mode graphics driver based on the first instruction, the graphics processing unit to perform image rendering, characterized in that the first guest operating system further comprises an image compositor and an image capture program , and the method further comprises: determining, by the image compositor , whether the image capture program is in an enabled state or a disabled state; and skipping (S405) performing an image composition operation on the plurality of layers if the image capture program is in the disabled state.
A method of producing a calcium citrate granule, comprising: stirring a hydrated lime slurry with 10 m/s or more of a circumferential velocity of a stir vane in a stirrer ; dripping (S206) a citric acid aqueous solution onto the slurry while the slurry is being stirred in the stirrer to produce calcium citrate; and spray-drying (S216) the calcium citrate, wherein the method further comprises, before the dripping (S206), adding a dispersing agent (S204) including cyclodextrin to the slurry and wherein the amount of the added dispersing agent is 5 weight parts to 20 weight parts on the basis of 100 weight parts of a calcium citrate solid content. stirring a hydrated lime slurry with 10 m/s or more of a circumferential velocity of a stir vane in a stirrer ; dripping (S206) a citric acid aqueous solution onto the slurry while the slurry is being stirred in the stirrer to produce calcium citrate; and spray-drying (S216) the calcium citrate, wherein the method further comprises, before the dripping (S206), adding a dispersing agent (S204) including cyclodextrin to the slurry and wherein the amount of the added dispersing agent is 5 weight parts to 20 weight parts on the basis of 100 weight parts of a calcium citrate solid content.
An oxide sintered body consisting of indium, hafnium, tantalum, and oxygen as constituent elements, wherein when indium, hafnium, and tantalum are designated as In, Hf, and Ta, respectively, the atomic ratio Hf/(In + Hf + Ta) is 0.2 at% to 3.0 at%, and the atomic ratio Ta/(In + Hf + Ta) is 0.02 at% to 1.3 at%, and wherein the total content of unavoidable impurities including compounds such as oxides having metal elements other than In, Hf and Ta is 1 at% or less in terms of metal element with respect to the sum of In, Hf and Ta. wherein when indium, hafnium, and tantalum are designated as In, Hf, and Ta, respectively, the atomic ratio Hf/(In + Hf + Ta) is 0.2 at% to 3.0 at%, and the atomic ratio Ta/(In + Hf + Ta) is 0.02 at% to 1.3 at%, and the atomic ratio Hf/(In + Hf + Ta) is 0.2 at% to 3.0 at%, and the atomic ratio Ta/(In + Hf + Ta) is 0.02 at% to 1.3 at%, and wherein the total content of unavoidable impurities including compounds such as oxides having metal elements other than In, Hf and Ta is 1 at% or less in terms of metal element with respect to the sum of In, Hf and Ta.
A method for operating a first device in wireless communication, the method comprising at the first device: communicating at the first device using a plurality of radios and a plurality of radio access technologies of the first device; and receiving , during a first time period, a pre-scheduling message for a downlink transmission from a second device; identifying an availability of at least one radio from the plurality of radios; transmitting , during a second time period, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one downlink transmission parameter indicating an availability of a first device for receiving the downlink transmission, wherein the at least one downlink transmission parameter comprises the identified availability of the at least one radio from the plurality of radios; and receiving , during a third time period, the downlink transmission in accordance with the at least one downlink transmission parameter. communicating at the first device using a plurality of radios and a plurality of radio access technologies of the first device; and receiving , during a first time period, a pre-scheduling message for a downlink transmission from a second device; identifying an availability of at least one radio from the plurality of radios; transmitting , during a second time period, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one downlink transmission parameter indicating an availability of a first device for receiving the downlink transmission, wherein the at least one downlink transmission parameter comprises the identified availability of the at least one radio from the plurality of radios; and receiving , during a third time period, the downlink transmission in accordance with the at least one downlink transmission parameter.