mhurhangee/ep-ind-claims huggingface dataset:
A powered implement (1000, 2000) having an engine comprising: a rotating member rotated by the engine, the rotating member being electrically ground; an ignition circuit that powers the engine, the ignition circuit operably coupled to a conductive member that renders the engine inoperative when electrically grounded; a brake system comprising an actuator, the conductive member normally biased into a brake position in which the conductive member contacts the rotating member and is electrically grounded as a result of the contact with the rotating member; and the actuator operably coupled to the conductive member so that actuation of the actuator moves the conductive member from the brake position to an operating position in which the conductive member is spaced-apart from the rotating member and is in an electrically non-grounded state. a rotating member rotated by the engine, the rotating member being electrically ground; an ignition circuit that powers the engine, the ignition circuit operably coupled to a conductive member that renders the engine inoperative when electrically grounded; a brake system comprising an actuator, the conductive member normally biased into a brake position in which the conductive member contacts the rotating member and is electrically grounded as a result of the contact with the rotating member; and the actuator operably coupled to the conductive member so that actuation of the actuator moves the conductive member from the brake position to an operating position in which the conductive member is spaced-apart from the rotating member and is in an electrically non-grounded state.
Process for forming a product from a food mass and packaging the product, whereas several products are formed and subsequently dropped simultaneously from a drum on an accumulation belt, characterized in, that these simultaneously formed products are placed at least partially sequentially into a multitude of packagings.
A process for controlling carbon dioxide exhaust from a combustion process, comprising: (a) performing a combustion process by combusting a mixture of a fuel and air, oxygen-enriched air, or oxygen, thereby creating an exhaust stream comprising carbon dioxide and nitrogen; (b) performing an absorption-based carbon dioxide capture step to remove a portion of carbon dioxide in concentrated form from a first portion of the exhaust stream, thereby creating a concentrated carbon dioxide product stream containing greater than 60 vol.% carbon dioxide and an off-gas stream from the capture step that is less concentrated in carbon dioxide than the exhaust stream; (c) providing a membrane having a feed side and a permeate side, and being selectively permeable to carbon dioxide over nitrogen and to carbon dioxide over oxygen; (d) passing concurrently with step (b) a second portion of the exhaust stream across the feed side; (e) passing air, oxygen-enriched air or oxygen as a sweep stream across the permeate side; (f) withdrawing from the feed side a carbon-dioxide depleted vent stream; (g) withdrawing from the permeate side a permeate stream comprising oxygen and carbon dioxide; (h) passing the permeate stream to step (a) as at least part of the air, oxygen-enriched air, or oxygen used in step (a). (a) performing a combustion process by combusting a mixture of a fuel and air, oxygen-enriched air, or oxygen, thereby creating an exhaust stream comprising carbon dioxide and nitrogen; (b) performing an absorption-based carbon dioxide capture step to remove a portion of carbon dioxide in concentrated form from a first portion of the exhaust stream, thereby creating a concentrated carbon dioxide product stream containing greater than 60 vol.% carbon dioxide and an off-gas stream from the capture step that is less concentrated in carbon dioxide than the exhaust stream; (c) providing a membrane having a feed side and a permeate side, and being selectively permeable to carbon dioxide over nitrogen and to carbon dioxide over oxygen; (d) passing concurrently with step (b) a second portion of the exhaust stream across the feed side; (e) passing air, oxygen-enriched air or oxygen as a sweep stream across the permeate side; (f) withdrawing from the feed side a carbon-dioxide depleted vent stream; (g) withdrawing from the permeate side a permeate stream comprising oxygen and carbon dioxide; (h) passing the permeate stream to step (a) as at least part of the air, oxygen-enriched air, or oxygen used in step (a).
Limiting valve of a fluid flow comprising: - a support body, which extends in a flow plane transversal to a direction of transit of a fluid in a fluid duct; - an annular regulation member, housed at least partially in the support body and which in conjunction therewith delimits one or more lumina for crossing of said fluid; wherein, under the action of the fluid, the annular regulation member is elastically deformable to narrow said lumen so as to regulate the flow of fluid downstream of said valve; and - at least a first and a second limiting element on which the annular regulation member works mechanically to determine a first and second limit deformation of said member depending on the flow speed of the fluid; the first limiting element comprising one or more containment surfaces delimited by the support body, inside which the annular regulation member is at least partially housed; said limiting valve being characterized in that the containment surface is conformed or has a depth such that, when the annular regulation member is at rest - in the absence of fluid acting thereon - less than 50% of its thickness is surrounded by the containment surface. - a support body, which extends in a flow plane transversal to a direction of transit of a fluid in a fluid duct; - an annular regulation member, housed at least partially in the support body and which in conjunction therewith delimits one or more lumina for crossing of said fluid; wherein, under the action of the fluid, the annular regulation member is elastically deformable to narrow said lumen so as to regulate the flow of fluid downstream of said valve; and - at least a first and a second limiting element on which the annular regulation member works mechanically to determine a first and second limit deformation of said member depending on the flow speed of the fluid; the first limiting element comprising one or more containment surfaces delimited by the support body, inside which the annular regulation member is at least partially housed; said limiting valve being characterized in that the containment surface is conformed or has a depth such that, when the annular regulation member is at rest - in the absence of fluid acting thereon - less than 50% of its thickness is surrounded by the containment surface.
A compound represented by the following general formula: (in the general formula, R 1 is a hydrogen atom, a hydroxy group, a carboxy group, an alkyl group having 1 to 8 carbon atoms, an alkoxy group having 1 to 8 carbon atoms, a sulfonic acid group, or a benzyloxy group, R 2 is a hydrogen atom, a hydroxy group, or an alkoxy group having 1 to 4 carbon atoms, and R 3 is represented by the following formula): (in the general formula, R 4 is a hydrogen atom or a methyl group, and R 5 is an alkylene group having 1 to 4 carbon atoms which may have a substituent or substituents.)
An information processing apparatus configured to encode image data, the apparatus comprising: analysis filtering means operable to divide the image data into frequency components and, for each frequency component, generate coefficient data of a plurality of sub-bands for a plurality of line blocks, each line block comprising a number of lines of image data necessary for generating coefficient data equivalent to one line of the sub-band of the lowest frequency components; rearranging means configured to rearrange the coefficient data generated by the analysis filtering means in order from low frequency components to high frequency components for each line block; control means (16, 57) configured to calculate a new quantization step size at the time of encoding said image data for each line block in a processing increment of said encoding using a ratio between a normalisation code amount at the time of encoding with a known quantization step size and a target code amount at the time of encoding said image data, wherein the normalisation code amount is produced by multiplying the known quantization step size with a code amount generated using the known quantization step size; and encoding means configured to encode the coefficient data rearranged by said rearranging means for each line block so as to generate encoded data using the quantization step size calculated by said control means. analysis filtering means operable to divide the image data into frequency components and, for each frequency component, generate coefficient data of a plurality of sub-bands for a plurality of line blocks, each line block comprising a number of lines of image data necessary for generating coefficient data equivalent to one line of the sub-band of the lowest frequency components; rearranging means configured to rearrange the coefficient data generated by the analysis filtering means in order from low frequency components to high frequency components for each line block; control means (16, 57) configured to calculate a new quantization step size at the time of encoding said image data for each line block in a processing increment of said encoding using a ratio between a normalisation code amount at the time of encoding with a known quantization step size and a target code amount at the time of encoding said image data, wherein the normalisation code amount is produced by multiplying the known quantization step size with a code amount generated using the known quantization step size; and encoding means configured to encode the coefficient data rearranged by said rearranging means for each line block so as to generate encoded data using the quantization step size calculated by said control means.
An ultrasound guided radiotherapy system, comprising - a radiotherapy system configured for providing a radiation treatment by means of a radiation beam to a treatment target and - an ultrasound imaging system configured for acquiring a 3D online image of the treatment target and/or an organ at risk during the radiation treatment and - detection means configured for detection, in the 3D online image, parts representing the treatment target and/or organ at risk; - selection means configured for selecting a view plane through the treatment target and/or an organ at risk represented by the detected parts in the 3D online image; - a display configured to display a 2D image of part of the treatment target and/or organ at risk along the view plane, wherein the display is further configured to display a treatment margin and/or an outline of an actual radiation beam in relation to the treatment target and/or organ at risk. - a radiotherapy system configured for providing a radiation treatment by means of a radiation beam to a treatment target and - an ultrasound imaging system configured for acquiring a 3D online image of the treatment target and/or an organ at risk during the radiation treatment and - detection means configured for detection, in the 3D online image, parts representing the treatment target and/or organ at risk; - selection means configured for selecting a view plane through the treatment target and/or an organ at risk represented by the detected parts in the 3D online image; - a display configured to display a 2D image of part of the treatment target and/or organ at risk along the view plane, wherein the display is further configured to display a treatment margin and/or an outline of an actual radiation beam in relation to the treatment target and/or organ at risk.
Method for teaching positioning of a bar code scanner, comprising moving the bar code scanner relative to a first bar code so as to sweep a light beam emitted from the bar code scanner across the first bar code, detecting an orientation of the bar code scanner relative to the first bar code and positioning the bar code scanner based on the orientation, wherein the apparatus comprises a control device, wherein positioning of the bar code scanner includes determining an offset of the bar code scanner from a target position and compensating the offset by means of the control device, wherein the bar code scanner is mounted on a moveable device of an apparatus for processing a sample or reagent.
A probe for conducting an audiologic test, the probe comprising a probe body with a first probe opening to a first probe channel in the probe body, the probe comprising a locking mechanism for connecting a component with a first component opening to a first component channel, the locking mechanism comprising: - a probe wall extending along a main axis and having an inner surface and an outer surface, the probe wall forming a seat for receiving the component, the probe wall surrounding the first probe opening; - a coupling member with a center axis and configured for having a first position and an second position in relation to the probe body, wherein the probe is configured to lock the component to the probe depending on the position of the coupling member; and - one or more engagement elements including a first engagement element for engagement with a coupling element of the component, wherein the first engagement element is movable along a first engagement axis perpendicular to the main axis when the coupling member is in the first position. - a probe wall extending along a main axis and having an inner surface and an outer surface, the probe wall forming a seat for receiving the component, the probe wall surrounding the first probe opening; - a coupling member with a center axis and configured for having a first position and an second position in relation to the probe body, wherein the probe is configured to lock the component to the probe depending on the position of the coupling member; and - one or more engagement elements including a first engagement element for engagement with a coupling element of the component, wherein the first engagement element is movable along a first engagement axis perpendicular to the main axis when the coupling member is in the first position.
A synthetic diamond material comprising one or more spin defects having a full width half maximum intrinsic inhomogeneous zero phonon line width of no more than 100 MHz, wherein the full width half maximum intrinsic inhomogeneous zero phonon line width is averaged over one or both of: at least 10 seconds; and at least 10 spectral scans, wherein the synthetic diamond material is CVD synthetic diamond material, and wherein the one or more spin defects are NV - spin defects.
Coffee machine, in particular fully automatic espresso machine, having a milk-frothing device in which an internal milk channel to a frothing chamber is provided, into which internal milk channel a bypass air inlet for a connectable air supply flows, and onto which a movable milk supply line is connected, wherein means are provided for cleaning the milk-frothing device ('1') and the milk supply line with rinsing water from a continuous-flow water heater of the coffee machine, with which means rinsing water can be supplied to the milk-frothing device via a controlled valve arrangement, and a milk suction end of the milk supply line can be connected directly or indirectly fluidically to a drip tray of the coffee machine instead of to a milk reservoir, before charging of the milk-frothing device with rinsing water, wherein downstream of a frothing chamber outlet a switchable outlet reducing valve is arranged, which has a passage way (8, 21) which can interconnect in a milk / milk froth preparation position, and a rinsing position, and wherein the bypass air inlet of the milk-frothing device (1, 1') can be closed off with respect to the internal milk channel, in the rinsing position of the controlled valve arrangement, characterised in that in the rinsing position of the outlet reducing valve, a reducing passage way can interconnect, in that the controlled valve arrangement is a beverage and rinsing function multi-way valve with a beverage and rinsing function selection controller, and in that the outlet reducing valve is coupled to the beverage and rinsing function selection controller or the beverage and rinsing function multi-way valve.
Method for actuating a hoist, in particular for a shaft hoisting system comprising a drive having an associated control device, a cable carrier, at least one hoisting cable and at least one hoist container (12, 14) arranged on the hoisting cable for the vertical transport of material to be conveyed, wherein, during loading or unloading of the at least one hoist container (12, 14), the drive remains activated and, to compensate for a change to the hoisting cable length, a rotation angle (α) of the cable carrier is continuously adjusted based on a predetermined rotation angle progression, characterised in that the rotation angle progression is determined in that, first, a brake device for the hoist is actuated and, during loading or unloading of the at least one hoist container (12, 14), a change to the hoisting cable length is measured and the rotation angle progression for the cable carrier is calculated therefrom.
Apparatus for generating focused shockwaves and ultrasound waves comprising a transducer (110, 120) connected to a power generator, the power generator comprises a combined shockwave and ultrasound generator for providing ultrasound signals and shockwave signals to the transducer (110, 120) such that the transducer (110, 120) generates ultrasound waves and shockwaves, characterized in, that the transducer comprises a cylindrical coil surrounded by a cylindrical membrane held within a concave reflector.
Measuring device for an oscilloscope, with a decimation unit and a recording unit, wherein the decimation unit has at least one input which receives a data stream with a multiplicity of sampled values from at least one data source, wherein the decimation unit is configured to calculate a mean value from the multiplicity of sampled values of the data source, wherein the decimation unit has at least one output, wherein the calculated mean value is outputted at the output as a reduced data stream and wherein the reduced data stream can be stored in the recording unit characterised in that further data sources, which each supply a multiplicity of sampled values, are connected to the decimation unit and wherein the decimation unit has a specific output for each data source (4, 14), in that the decimation unit is configured to calculate a root mean squared value in parallel from in each case at least two sampled values of the data source and each further data source, wherein the calculated root mean squared values of each data source (4, 14) are outputted at the specific output of the decimation unit as the reduced data stream and supplied to the recording unit; and in that furthermore a trigger unit is formed in the measuring device in order to compare the multiplicity of sampled values for each of the data sources (4, 14) with a threshold value set individually for each of the data sources (4, 14), wherein the trigger unit of the recording unit is configured to output a trigger signal as soon as the reduced data stream is to be stored in the recording unit.
A method, comprising: providing a substrate; co-depositing a copper (Cu) material doped with 1-5% by volume of an aluminum (Al) material to form a coating layer on an uppermost surface of the substrate; patterning the coating layer of the copper (Cu) material and the aluminum (Al) material to form a plurality of conductive traces on the substrate; masking portions of the plurality of conductive traces to provide a plurality of electrical connections in contact with a surface of the plurality of conductive traces and in electrical communication with the plurality of conductive traces; annealing the plurality of conductive traces to provide migration of the aluminum (Al) material to the surface of the plurality of conductive traces; and exposing the plurality of conductive traces to air to oxidize the migrated aluminum (Al) material and form an alumina protective layer on a surface of the remaining copper (Cu) material, wherein the substrate, the plurality of conductive traces and the plurality of electrical connections define an electronic ceramic circuit board configured to operate at a temperature greater than 200 degrees Celsius, preferably at a temperature greater than 260 degrees Celsius, and more preferably at a temperature greater than 350 degrees Celsius. providing a substrate; co-depositing a copper (Cu) material doped with 1-5% by volume of an aluminum (Al) material to form a coating layer on an uppermost surface of the substrate; patterning the coating layer of the copper (Cu) material and the aluminum (Al) material to form a plurality of conductive traces on the substrate; masking portions of the plurality of conductive traces to provide a plurality of electrical connections in contact with a surface of the plurality of conductive traces and in electrical communication with the plurality of conductive traces; annealing the plurality of conductive traces to provide migration of the aluminum (Al) material to the surface of the plurality of conductive traces; and exposing the plurality of conductive traces to air to oxidize the migrated aluminum (Al) material and form an alumina protective layer on a surface of the remaining copper (Cu) material, wherein the substrate, the plurality of conductive traces and the plurality of electrical connections define an electronic ceramic circuit board configured to operate at a temperature greater than 200 degrees Celsius, preferably at a temperature greater than 260 degrees Celsius, and more preferably at a temperature greater than 350 degrees Celsius.