mhurhangee/ep-ind-claims huggingface dataset:
A transmission device in which a plurality of transmitting units (100, 100a, 100b, 100c, 100d, 100e, 100f, 100g, 100h) are adjacently disposed, the transmitting units (100, 100a, 100b, 100c, 100d, 100e, 100f, 100g, 100h) having first and second rectangular printed circuit boards (351, 352) disposed so that surfaces thereof are mutually parallel and surfaces on one side of each of the first and second printed circuit boards (351, 352) are in mutual opposition, and a plurality of columnar connecting conductors furnished between the first printed circuit board and the second printed circuit board, the columnar connecting conductors being adapted for affixing one of the printed circuit boards to the other of the printed circuit boards with a predetermined interval therebetween, and conductively connecting a printed wiring of one of the printed circuit boards and a printed wiring of the other of the printed circuit boards; so as to form a coil shaped antenne that has a center axis extending in a width direction of the first and second printed circuit boards (351, 352) an electronic component (410, 420, 430, 440) forming a transmission circuit being mounted at one end portions of the first and second printed circuit boards (351, 352) in a lengthwise direction; the transmitting units (100, 100a, 100b, 100c, 100d, 100e, 100f, 100g, 100h) having the coil-shaped antenna at the other end portions of the first and second printed circuit boards (351, 352) in the lengthwise direction, and a planar conductor plate affixed to the first printed circuit board, parallel to the other surface of the first printed circuit board at the other end portion thereof; in an xyz orthogonal coordinate system, only two of the transmitting units (100a, 100c; 100b, 100d; 100e, 100g; 100f, 100h) being disposed so as to be adjacent in a z axis direction, and so that the planar conductor plates are opposed to each other; two of the transmitting units (100a, 100e; 100b, 100f; 100c, 100g; 100d, 100h) that are adjacent in an x axis direction being disposed so that the one end portion of one of the transmitting units (100a; 100b; 100c; 100d) and the other end portion of the other of the transmitting units (100e; 100f; 100g; 100h) are adjacent; and two of the transmitting units (100a, 100b; 100c, 100d; 100e, 100f; 100g, 100h) that are adjacent in a y axis direction being disposed so that the one end portion of one of the transmitting units (100a; 100c; 100e; 100g) and the other end portion of the other of the transmitting units (100b 100d; 100f; 100h) are adjacent.
A beverage preparation machine comprising: - a beverage ingredient powder storing container, - a mixing chamber, said mixing chamber being movable between: a dosing position, where the outlet of the storing container emerges in the mixing chamber inlet, and a mixing position, where the outlet of the storing container does not emerge in the mixing chamber inlet, the dosing position being placed at a lower vertical position than the mixing position, and wherein the machine comprises an auger at the bottom of the beverage ingredient powder storing container configured for guiding a dose of powder to the outlet of the storing container, characterized in that the machine comprises a door at the outlet. of the storing container, said door being configured so that when the mixing chamber moves to the dosing position the movement of the mixing chamber activates the opening of said door and when the mixing chamber moves to the mixing position the movement of the mixing chamber induces the closure of the door. - a beverage ingredient powder storing container, - a mixing chamber, said mixing chamber being movable between: a dosing position, where the outlet of the storing container emerges in the mixing chamber inlet, and a mixing position, where the outlet of the storing container does not emerge in the mixing chamber inlet, the dosing position being placed at a lower vertical position than the mixing position, and wherein the machine comprises an auger at the bottom of the beverage ingredient powder storing container configured for guiding a dose of powder to the outlet of the storing container, characterized in that the machine comprises a door at the outlet. of the storing container, said door being configured so that when the mixing chamber moves to the dosing position the movement of the mixing chamber activates the opening of said door and when the mixing chamber moves to the mixing position the movement of the mixing chamber induces the closure of the door. a dosing position, where the outlet of the storing container emerges in the mixing chamber inlet, and a mixing position, where the outlet of the storing container does not emerge in the mixing chamber inlet,
A process for making a frozen confection having a total solids content of from 5 to 15% by weight of the frozen confection and an overrun of less than 20%, the process comprising: a) preparing a dispersion comprising: 25% to 75% by weight of frozen particles having a mean size of from 1 to 10mm and a mean aspect ratio of 1.5 or less; and 75% to 25% by weight of a mix; b) subsequently cooling the dispersion to below -10°C. a) preparing a dispersion comprising: 25% to 75% by weight of frozen particles having a mean size of from 1 to 10mm and a mean aspect ratio of 1.5 or less; and 75% to 25% by weight of a mix; b) subsequently cooling the dispersion to below -10°C.
Power equipment, comprising: a vehicle body; a first axle rigidly supported by the vehicle body and rotatably supporting a pair of driven wheels; a power source for individually driving the driven wheels; a second axle supported by the vehicle body via a center pivot and rotatably supporting a pair of non-driven wheels; a steering device for steering the non-driven wheels and/or the driven wheels; a steering sensor for detecting a steering input of the steering device; an axle sensor for detecting a roll angle of the second axle relative to the vehicle body; and a control unit for controlling rotational speeds of the driven wheels; wherein the control unit is configured, when substantially no steering input of the steering device is detected by the steering sensor, to accelerate the left driven wheel when a right end up roll angle of the second axle is detected by the axle sensor, and to accelerate the right driven wheel when a left end up roll angle of the second axle is detected by the axle sensor. a vehicle body; a first axle rigidly supported by the vehicle body and rotatably supporting a pair of driven wheels; a power source for individually driving the driven wheels; a second axle supported by the vehicle body via a center pivot and rotatably supporting a pair of non-driven wheels; a steering device for steering the non-driven wheels and/or the driven wheels; a steering sensor for detecting a steering input of the steering device; an axle sensor for detecting a roll angle of the second axle relative to the vehicle body; and a control unit for controlling rotational speeds of the driven wheels; wherein the control unit is configured, when substantially no steering input of the steering device is detected by the steering sensor, to accelerate the left driven wheel when a right end up roll angle of the second axle is detected by the axle sensor, and to accelerate the right driven wheel when a left end up roll angle of the second axle is detected by the axle sensor.
A pickup assembly for an agricultural harvester, the pickup assembly comprising: - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger, and - a wind guard assembly comprising: a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame, the front section extending downwards from the top section, a wind guard shield, carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly, and a wind guard shield return surface, extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit. - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a feeding auger, and - a wind guard assembly comprising: a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame, the front section extending downwards from the top section, a wind guard shield, carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly, and a wind guard shield return surface, extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit. a wind guard frame with a top section and a front section, the top section being pivotably coupled to the pickup assembly frame, the front section extending downwards from the top section, a wind guard shield, carried by the wind guard frame to cover at least a portion of a top and a front of the pickup assembly, and a wind guard shield return surface, extending downward and rearward from the front section of the wind guard frame and configured to guide crop falling of the feeding auger back to the pickup unit.
A method for producing low molecular weight polytetrafluoroethylene (PTFE), comprising: feeding into an airtight container: - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and irradiating the PTFE to provide low molecular weight PTFE having a complex viscosity of 1×10 2 to 7×10 5 Pa·s at 380°C, wherein the complex viscosity is determined as set out in the Examples. feeding into an airtight container: - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and - PTFE, - at least one additive selected from hydrocarbons, chlorinated hydrocarbons, alcohols, and carboxylic acids other than C 8-14 -perfluorocarboxylic acids, and - at least one selected from inert gases other than the above additive and oxygen adsorbents; and irradiating the PTFE to provide low molecular weight PTFE having a complex viscosity of 1×10 2 to 7×10 5 Pa·s at 380°C, wherein the complex viscosity is determined as set out in the Examples.
A valve, in particular a throttle valve, for adjusting a cooling fluid flow from a fluid source to multiple injection nozzles for cooling multiple pistons of an internal combustion engine, having a fluid channel for connecting the fluid source to the multiple injection nozzles; and a valve element which is arranged so as to be movable, in particular so as to be displaceable, for changing a flow cross section of the fluid channel, wherein the valve element can be moved into a first position, in which the flow cross section is not influenced by the valve element; wherein: the valve element has a control surface, which preferably extends perpendicularly to a displacement axis of the valve element; the cooling fluid acts on the control surface for displacing the valve element, so that the valve element is displaced in a manner dependent on the fluid pressure of the cooling fluid; the valve is a straight-way valve; the control surface is arranged in a control fluid chamber which is arranged outside the fluid channel, and a feed channel guides cooling fluid into the control fluid chamber from upstream of the valve element, the fluid channel has a valve element opening through which the valve element can be moved, in particular can be displaced; the valve element can be moved, in particular can be displaced, between the first position and a second position, in which the flow cross section is minimal or zero; and the second position is limited by a stop for the valve element, characterized in that the stop is a part of the valve element opening. a fluid channel for connecting the fluid source to the multiple injection nozzles; and a valve element which is arranged so as to be movable, in particular so as to be displaceable, for changing a flow cross section of the fluid channel, wherein the valve element can be moved into a first position, in which the flow cross section is not influenced by the valve element; wherein: the valve element has a control surface, which preferably extends perpendicularly to a displacement axis of the valve element; the cooling fluid acts on the control surface for displacing the valve element, so that the valve element is displaced in a manner dependent on the fluid pressure of the cooling fluid; the valve is a straight-way valve; the control surface is arranged in a control fluid chamber which is arranged outside the fluid channel, and a feed channel guides cooling fluid into the control fluid chamber from upstream of the valve element, the fluid channel has a valve element opening through which the valve element can be moved, in particular can be displaced; the valve element can be moved, in particular can be displaced, between the first position and a second position, in which the flow cross section is minimal or zero; and the second position is limited by a stop for the valve element,
A sulfur-modified chloroprene rubber comprising a functional group A represented by General Formula below and positioned at a molecular terminal and a functional group B represented by General Formula below and positioned at a molecular terminal, wherein a mass ratio B/A of a content of the functional group B with respect to a content of the functional group A is 0.10 to 12.00, and a total amount of the functional group A and the functional group B is 0.15 to 1.00% by mass (In the formula, R a represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.) a mass ratio B/A of a content of the functional group B with respect to a content of the functional group A is 0.10 to 12.00, and a total amount of the functional group A and the functional group B is 0.15 to 1.00% by mass (In the formula, R a represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms which may have a substituent.) (In the formula, R b1 and R b2 each independently represent an alkyl group which may have a substituent or an aryl group which may have a substituent.)
A system for supplying power from an AC voltage source to an electrical device, the system comprising: a plurality of AC/DC voltage converters (122, 130) having inputs connected to the AC voltage source and outputs connected to an electrical conductor (68, 186); a plurality of DC voltage converters, each having an input side connected to the electrical conductor and an output side connected to the electrical device whereby a converted DC or AC voltage is supplied to the electrical device; a data coupling device coupled to the electrical conductor, wherein the data coupling device allows communication with the electrical device via the electrical conductor using signals associated with a first frequency range while power is supplied to the electrical device via the electrical conductor; wherein clocking frequencies associated with one or more of the AC/DC converters are phase shifted with respect to each other to shift clocking noise from the first frequency range to a second frequency range; and wherein clocking frequencies associated with one or more of the DC voltage converters are phase shifted with respect to each other to shift clocking noise from the first frequency range to the second frequency range. a plurality of AC/DC voltage converters (122, 130) having inputs connected to the AC voltage source and outputs connected to an electrical conductor (68, 186); a plurality of DC voltage converters, each having an input side connected to the electrical conductor and an output side connected to the electrical device whereby a converted DC or AC voltage is supplied to the electrical device; a data coupling device coupled to the electrical conductor, wherein the data coupling device allows communication with the electrical device via the electrical conductor using signals associated with a first frequency range while power is supplied to the electrical device via the electrical conductor; wherein clocking frequencies associated with one or more of the AC/DC converters are phase shifted with respect to each other to shift clocking noise from the first frequency range to a second frequency range; and wherein clocking frequencies associated with one or more of the DC voltage converters are phase shifted with respect to each other to shift clocking noise from the first frequency range to the second frequency range.
A hydraulic damper, comprising a rotor, a stator and a drive shaft for driving the rotor, the rotor and the stator being mutually forming a working chamber in which liquid medium is accommodated, wherein the stator is provided in turn with an outlet, a nozzle, an exhaust channel, an ejector channel and an inlet; the outlet, the exhaust channel and the inlet are communicated with the working chamber respectively; the ejector channel is in communication with the outlet,the exhaust channel and the inlet respectively; the nozzle is arranged at the junction where the outlet is connected with the exhaust channel and the ejector channel; the nozzle is extended along the lead-out direction of the outlet to the junction where the exhaust channel is connected with the ejector channel, and the channel width of the nozzle at the extension is smaller than that of the outlet and that of the ejector channel respectively.
A method for producing a semiconductor device, comprising: etching a silicon layer of silicon on insulator, SOI, by using a patterned template as a mask, wherein the SOI comprises a silicon substrate, a dielectric layer on the silicon substrate, and the silicon layer on the dielectric layer; and when the dielectric layer is exposed, stopping the etching and removing the patterned template, so that the silicon layer has a window, wherein a top horizontal size of the window is greater than a bottom horizontal size of the window; etching the dielectric layer by using the silicon layer having the window as a template, and when the silicon substrate is exposed, stopping the etching and removing the silicon layer having the window, so that the dielectric layer has a window, wherein a bottom horizontal size of the window of the dielectric layer is less than a size of a window of the patterned template and the bottom horizontal size of the window of the dielectric layer is not greater than 20 nm; and growing a semiconductor material in the window of the dielectric layer to form a buffer layer, and continuing to grow the semiconductor material on the buffer layer to obtain a semiconductor layer. etching a silicon layer of silicon on insulator, SOI, by using a patterned template as a mask, wherein the SOI comprises a silicon substrate, a dielectric layer on the silicon substrate, and the silicon layer on the dielectric layer; and when the dielectric layer is exposed, stopping the etching and removing the patterned template, so that the silicon layer has a window, wherein a top horizontal size of the window is greater than a bottom horizontal size of the window; etching the dielectric layer by using the silicon layer having the window as a template, and when the silicon substrate is exposed, stopping the etching and removing the silicon layer having the window, so that the dielectric layer has a window, wherein a bottom horizontal size of the window of the dielectric layer is less than a size of a window of the patterned template and the bottom horizontal size of the window of the dielectric layer is not greater than 20 nm; and growing a semiconductor material in the window of the dielectric layer to form a buffer layer, and continuing to grow the semiconductor material on the buffer layer to obtain a semiconductor layer.
A toner comprising: toner particles each comprising a toner base particle and an external additive attached thereon, where the toner base particle comprises a binder resin and a colorant, wherein the toner base particle has protrusions on a surface thereof, wherein an average of lengths of long sides of the protrusions is 0.10 μm or more but less than 0.50 μm, as measured according to the description, wherein a standard deviation of the lengths of the long sides of the protrusions is 0.2 or less, as measured according to the description, wherein a coverage rate of the protrusions on the surface of the toner base particle is 10% to 90%, as measured according to the description, and wherein the external additive comprises fine inorganic particles whose surfaces have been treated with an amino group-containing silane coupling agent. toner particles each comprising a toner base particle and an external additive attached thereon, where the toner base particle comprises a binder resin and a colorant, wherein the toner base particle has protrusions on a surface thereof, wherein an average of lengths of long sides of the protrusions is 0.10 μm or more but less than 0.50 μm, as measured according to the description, wherein a standard deviation of the lengths of the long sides of the protrusions is 0.2 or less, as measured according to the description, wherein a coverage rate of the protrusions on the surface of the toner base particle is 10% to 90%, as measured according to the description, and wherein the external additive comprises fine inorganic particles whose surfaces have been treated with an amino group-containing silane coupling agent.
A process for molding surfaces with closed undercuts, comprising the steps of: - providing a surface having closed undercuts; - contacting said surface with a casting composition that is gel-forming; - separating the surface from the casting composition during or after the gel formation to obtain a mold. - providing a surface having closed undercuts; - contacting said surface with a casting composition that is gel-forming; - separating the surface from the casting composition during or after the gel formation to obtain a mold.
A method for purifying bee venom on a mass scale, comprising: dissolving crude bee venom in a solvent to form a bee venom solution; applying an adsorbent to the bee venom solution to form a mixture, wherein the adsorbent removes water soluble foreign substances by adsorption; and removing the adsorbent through filtration to afford a pure bee venom solution, wherein the adsorbent is primary secondary amine and wherein the adsorbent is added in an amount of from 0.1 to 10 g per liter of the bee venom solution. dissolving crude bee venom in a solvent to form a bee venom solution; applying an adsorbent to the bee venom solution to form a mixture, wherein the adsorbent removes water soluble foreign substances by adsorption; and removing the adsorbent through filtration to afford a pure bee venom solution, wherein the adsorbent is primary secondary amine and wherein the adsorbent is added in an amount of from 0.1 to 10 g per liter of the bee venom solution.