mhurhangee/ep-ind-claims huggingface dataset:
Hydraulically damping mount (10, 10') with a mount core and an outer tube, the mount core being supported on the outer tube via a suspension spring made of an elastomeric material, the suspension spring dividing a space between the mount core and the outer tube into at least two chambers (20, 22) filled with a fluid, which are connected to one another in a fluid-conducting manner via at least one damping channel and at least one decoupling channel, at least one warp resistant platelet-shaped decoupling device being provided in the decoupling channel which can be moved back and forth by fluid flows, and the decoupling device being designed in such a way that, during a fluid-induced movement of the decoupling device, its inflow sides always face the fluid flows, characterised in that the decoupling device has a height (H E) and a length (L E) perpendicular to the direction of the fluid flows and has a width (B E) in the direction of the fluid flows, wherein the length (L E) and width (B E) of the decoupling means is greater than the height (H E) of the decoupling means.
A thermal sensor device for determining a fluid parameter associated with a fluid in thermal contact with the thermal sensor device based on a heat transfer behavior of the fluid, the thermal sensor device comprising: one or more heaters; means for determining a response of the sensor device to heater power being supplied to the one or more heaters; and processing circuitry for supplying the heater power and for processing the response of the sensor device to determine at least one value of the fluid parameter based on said response, wherein the processing circuitry is configured to carry out a method for detecting faults of the thermal sensor device comprising the steps of: a) operating the thermal sensor device in a first mode of operation to determine a first value ( c static) of the fluid parameter; b) operating the thermal sensor device in a second mode of operation to determine a second value ( c dynamic) of the fluid parameter; characterised in that said method further comprises the step of: c) deriving a fault indicator value based on a comparison of the first and second values ( c static, c dynamic) of the fluid parameter. one or more heaters; means for determining a response of the sensor device to heater power being supplied to the one or more heaters; and processing circuitry for supplying the heater power and for processing the response of the sensor device to determine at least one value of the fluid parameter based on said response, wherein the processing circuitry is configured to carry out a method for detecting faults of the thermal sensor device comprising the steps of: a) operating the thermal sensor device in a first mode of operation to determine a first value ( c static) of the fluid parameter; b) operating the thermal sensor device in a second mode of operation to determine a second value ( c dynamic) of the fluid parameter; characterised in that said method further comprises the step of: c) deriving a fault indicator value based on a comparison of the first and second values ( c static, c dynamic) of the fluid parameter. a) operating the thermal sensor device in a first mode of operation to determine a first value ( c static) of the fluid parameter; b) operating the thermal sensor device in a second mode of operation to determine a second value ( c dynamic) of the fluid parameter;
A limiting amplifier circuit (800, 910), comprising: an input port (IN+, IN-, 705, 710, IN, 810); an output port (OUT+, OUT-, 785, 790, OUT, 860); and n, n>1, cascaded gain stages (700, 820, 830, 840, 850, 920, 930, 940, G 1, G 2, G n-1, G n), having an input of a first gain stage connected to the input port, an output of a last gain stage connected to the output port, and an output of each gain stage connected to an input of an adjacent gain stage, wherein each gain stage i of the n gain stages includes a bandwidth selector configured to have at least one selectable lowpass filter corner frequency ω p i, for reducing the phase noise of the gain stage through the broadband noise reduction for frequencies greater than ω p i, and ω p i is selected from a plurality of lowpass filter corner frequency values (ω 1 0, ω 1 1, ω 1 k1, ω 2 0, ω 2 1, ω 2 k2, ω n-1 1, ω n-1 kn-1) associated with the gain stage so that the broadband noise of the gain stage is reduced. an input port (IN+, IN-, 705, 710, IN, 810); an output port (OUT+, OUT-, 785, 790, OUT, 860); and n, n>1, cascaded gain stages (700, 820, 830, 840, 850, 920, 930, 940, G 1, G 2, G n-1, G n), having an input of a first gain stage connected to the input port, an output of a last gain stage connected to the output port, and an output of each gain stage connected to an input of an adjacent gain stage, wherein each gain stage i of the n gain stages includes a bandwidth selector configured to have at least one selectable lowpass filter corner frequency ω p i, for reducing the phase noise of the gain stage through the broadband noise reduction for frequencies greater than ω p i, and ω p i is selected from a plurality of lowpass filter corner frequency values (ω 1 0, ω 1 1, ω 1 k1, ω 2 0, ω 2 1, ω 2 k2, ω n-1 1, ω n-1 kn-1) associated with the gain stage so that the broadband noise of the gain stage is reduced.
A clothes treating apparatus comprising: a case including a treatment chamber configured to hold clothes; a steam unit configured to supply steam to the treatment chamber; a blowing unit configured to intake air from the inside of the treatment chamber; a heat pump unit configured to heat air intaken by the blowing unit and to discharge heated air to the inside of the treatment camber; and a control unit configured to control the steam unit, the blowing unit, and the heat pump unit; the control unit is configured to supply water to the steam unit after driving of the heat pump unit terminates when the heat pump unit is driven after the steam unit is driven; characterized in that: the control unit is configured to determine that the amount of water remaining in the steam unit was erroneously sensed when after driving of the steam unit and driving of the heat pump unit sequentially terminate, an amount of water remaining in the steam unit is determined to be equal to or greater than a predetermined value,, wherein, after driving of the steam unit and driving of the heat pump unit sequentially terminate, the control unit is configured to sense an amount of water remaining in the steam unit and to supply water to the steam unit on the basis of a sensing result. a case including a treatment chamber configured to hold clothes; a steam unit configured to supply steam to the treatment chamber; a blowing unit configured to intake air from the inside of the treatment chamber; a heat pump unit configured to heat air intaken by the blowing unit and to discharge heated air to the inside of the treatment camber; and a control unit configured to control the steam unit, the blowing unit, and the heat pump unit; the control unit is configured to supply water to the steam unit after driving of the heat pump unit terminates when the heat pump unit is driven after the steam unit is driven; characterized in that: the control unit is configured to determine that the amount of water remaining in the steam unit was erroneously sensed when after driving of the steam unit and driving of the heat pump unit sequentially terminate, an amount of water remaining in the steam unit is determined to be equal to or greater than a predetermined value,, wherein, after driving of the steam unit and driving of the heat pump unit sequentially terminate, the control unit is configured to sense an amount of water remaining in the steam unit and to supply water to the steam unit on the basis of a sensing result.
Articulated vehicle, comprising vehicle section bodies (2, 3) and at least one transition vehicle section which is arranged between vehicle section bodies (2, 3), characterized in that the transition vehicle section is constructed from three portions (6, 7, 8), two end portions (6, 7) being arranged at opposite ends of a centre portion and being connected to the centre portion in each case via a pivoting joint (9, 10) which permits a pivoting capability of the end portions (6, 7) about a vertical axis of the articulated vehicle with respect to the centre portion, and the end portions (6, 7) being connected in each case to adjoining vehicle section bodies (2, 3) via joints which permit a pivoting capability about a transverse axis of the articulated vehicle or a longitudinal axis of the articulated vehicle, and at least one passenger cabin door being arranged in the centre portion.
A method of reducing emissions at a processing plant, comprising: providing a model predictive control model for a flaring process run at said processing plant including an assist gas comprising a plurality of identified one-to-one models between controlled variables (CVs) including (i) at least one of a smoke count and a flare count and (ii) a noise level, and a flow of said assist gas as a manipulated variable and at least one other process gas flow as a disturbance variable; said MPC model implemented by a processor receiving sensed flare-related parameters from a sensor for sensing at least one of the smoke count and the flare count and from a sensor for sensing the noise level emitted from a flare stack during operation of said flaring process including a measure of said CV1 (CV1*) and said CV2 (CV2*), and provided said CV1* is above a predetermined minimum setpoint for said CV1 (CV1 setpoint) and said CV2* is above a predetermined setpoint for said CV2 (CV2 setpoint), automatically controlling said flaring process using said MPC model implemented by said processor which automatically determines an updated flow setpoint for said MV based on (i) said CV1* and said CV2*, (ii) a difference between said CV1 setpoint and said CV1* and a difference between said CV2 setpoint and said CV2*, and (iii) said identified one-to-one models. providing a model predictive control model for a flaring process run at said processing plant including an assist gas comprising a plurality of identified one-to-one models between controlled variables (CVs) including (i) at least one of a smoke count and a flare count and (ii) a noise level, and a flow of said assist gas as a manipulated variable and at least one other process gas flow as a disturbance variable; said MPC model implemented by a processor receiving sensed flare-related parameters from a sensor for sensing at least one of the smoke count and the flare count and from a sensor for sensing the noise level emitted from a flare stack during operation of said flaring process including a measure of said CV1 (CV1*) and said CV2 (CV2*), and provided said CV1* is above a predetermined minimum setpoint for said CV1 (CV1 setpoint) and said CV2* is above a predetermined setpoint for said CV2 (CV2 setpoint), automatically controlling said flaring process using said MPC model implemented by said processor which automatically determines an updated flow setpoint for said MV based on (i) said CV1* and said CV2*, (ii) a difference between said CV1 setpoint and said CV1* and a difference between said CV2 setpoint and said CV2*, and (iii) said identified one-to-one models.
A composition to be used for the manufacture of fibers, filaments, melt blown or spun bond non-wovens or cast or blown films, comprising at least 50 wt% of a styrenic block copolymer, having a molecular structure according to the general formulae S-EB-S or (S-EB) n X, wherein each S independently is a polymer block of predominantly styrene and EB is a hydrogenated polymer block of predominantly butadiene, n is an integer equal to or greater than 2, and X is the residue of a coupling agent, having a poly(styrene) content in the range of from 10 to 29% by weight (wt%), having poly(styrene) blocks of an apparent molecular weight in the range of from 6,000 to 9,000, having an apparent molecular weight of the complete block copolymer in the range of from 80,000 to 150,000, having an 1,2-addition degree (vinyl content) in the precursor of the poly(butadiene) block in the range of from 60 to 80% (mole/mole), wherein the block EB has a hydrogenation degree of at least 80%, and wherein diblock S-EB optionally occurs in a content of at most 20 mole%; a poly(propylene) having a melt flow rate greater than 400 gr/10 min according to ASTM D1238-95 in an amount of from 10 to 30 wt%; a resin which is compatible with the poly(styrene) blocks in an amount of at least 5 wt%, and a resin which is compatible with the hydrogenated poly(butadiene) blocks in an amount of at least 3 wt%, wherein all weight percentages are relative to the weight of the complete composition, and wherein the apparent molecular weight is determined by Gel Permeation Chromatography and expressed in terms of polystyrene, using the method described by J. R. Runyon et al in J. Polym. Sci., 13, 2359.
A work machine control device comprising: a measurement-data acquisition unit configured to acquire measurement data of a three-dimensional measurement device configured to measure a three-dimensional shape including a ridgeline of natural ground formed of earth and sand on a ground which is a work target on which work equipment performs work, the three-dimensional measurement device being mounted on a work machine including the working equipment; characterized by a target calculation unit configured to calculate and output, based on the measurement data regarding the ridgeline of the natural ground, a distance from the work machine to the natural ground and an angle of repose of the work target. a measurement-data acquisition unit configured to acquire measurement data of a three-dimensional measurement device configured to measure a three-dimensional shape including a ridgeline of natural ground formed of earth and sand on a ground which is a work target on which work equipment performs work, the three-dimensional measurement device being mounted on a work machine including the working equipment; characterized by a target calculation unit configured to calculate and output, based on the measurement data regarding the ridgeline of the natural ground, a distance from the work machine to the natural ground and an angle of repose of the work target.
Circuit arrangement for controlling an alternating current, AC, drive system of an electric vehicle, said vehicle comprising - at least one asynchronous drive motor associated with at least one wheel of the vehicle, - at least one frequency converter unit having at least one AC heavy-current input and at least one AC heavy-current output (U/T1, V/T2, W/T3), the at least one AC heavy-current output (U/T1, V/T2, W/T3) is in connection with the at least one asynchronous drive motor, - a battery unit supplying current consumers of the vehicle, including the at least one frequency converter unit, - a control unit connected to the at least one frequency converter unit, characterised in that - a direct current output of the battery unit is connected through a switching unit to terminals (+, -) dedicated for an external DC choke of the at least one frequency converter unit (3, 4). - the at least one frequency converter unit (3, 4) comprises a frequency converter of type ATV71HU55M3, - shut-down relays (13, 14) are associated with the battery packs (8, 11), each shut-down relay (13, 14) is connected between one of the electric output terminals of the battery pack (8, 11) and the terminal of a battery cell included therein, and - the actuating coil of the relay (13, 14) is connected to an auxiliary battery through an emergency switch. - at least one asynchronous drive motor associated with at least one wheel of the vehicle, - at least one frequency converter unit having at least one AC heavy-current input and at least one AC heavy-current output (U/T1, V/T2, W/T3), the at least one AC heavy-current output (U/T1, V/T2, W/T3) is in connection with the at least one asynchronous drive motor, - a battery unit supplying current consumers of the vehicle, including the at least one frequency converter unit, - a control unit connected to the at least one frequency converter unit, characterised in that - a direct current output of the battery unit is connected through a switching unit to terminals (+, -) dedicated for an external DC choke of the at least one frequency converter unit (3, 4). - the at least one frequency converter unit (3, 4) comprises a frequency converter of type ATV71HU55M3, - shut-down relays (13, 14) are associated with the battery packs (8, 11), each shut-down relay (13, 14) is connected between one of the electric output terminals of the battery pack (8, 11) and the terminal of a battery cell included therein, and - the actuating coil of the relay (13, 14) is connected to an auxiliary battery through an emergency switch.
NC machining center for machining long and flexible workpieces, comprising a bearing structure-frame supporting the various other parts and an electric spindle mounted on moving arms (4.1) suited to support said electric spindle on said structure-frame in addition to translating and rotating it on the main axes, characterized in that it comprises: - a lower plane or support hinged to the lower part or base of the bearing structure-frame, rotating on the vertical axis, provided with elements or mechanisms (2.1) suited to hold the lower end of the workpiece, said lower plane or support being provided with one or more mechanisms suited at least to rotate it around the vertical axis, - an upper support, rotating on the vertical axis coaxially with the rotation axis of the lower plane or support, provided with elements or mechanisms (3.1) suited to hold the upper end of the workpiece, said upper plane or support being provided with one or more mechanisms suited to rotate it around the vertical axis, and wherein said machining center also comprises a programmable electronic circuit suited to detect the position of all moving members in addition to controlling the movement and/or the rotation of each moving member, and wherein said lower plane or support and said upper support are rotatable at the same time and in a synchronous manner, rotating in use the workpiece that is fixed to them according to a vertical axis, so that the workpiece is mounted and held vertically between the lower plane or support and said upper support, without causing any flexure of the workpiece itself, that is not subjected to twisting. - a lower plane or support hinged to the lower part or base of the bearing structure-frame, rotating on the vertical axis, provided with elements or mechanisms (2.1) suited to hold the lower end of the workpiece, said lower plane or support being provided with one or more mechanisms suited at least to rotate it around the vertical axis, - an upper support, rotating on the vertical axis coaxially with the rotation axis of the lower plane or support, provided with elements or mechanisms (3.1) suited to hold the upper end of the workpiece, said upper plane or support being provided with one or more mechanisms suited to rotate it around the vertical axis, and wherein said machining center also comprises a programmable electronic circuit suited to detect the position of all moving members in addition to
A process for the production of oxidized wood products, which are selected from softwood, hardwood and lignin, or a mixture thereof, comprising step a) reacting chips of the one or more wood products, wherein the chips have an average diameter between 0.1 and 10 cm, in a basic solution at a pH between 8 and 14 under an oxygen atmosphere using substantially pure oxygen, at a pressure between 0.5 and 10 MPa and wherein the temperature is below 160°C and, wherein a use of a metal catalyst is disclaimed.
An ultrasound imaging system (10, 200, 300), comprising: a movable base (210, 310); and a control panel (230, 330) supported by the movable base, the control panel including: a plurality of manual controls (242, 342) provided on a support surface, the support surface being generally horizontal or slightly downwardly inclined with respect to the ground; and a touch control panel (250, 350) movably coupled to the support surface, the touch control panel comprising a touch display (252; 352, 354) configured to provide a touch-sensitive user interface, the touch control panel being movable between a plurality of positions at each of which the touch display is at a different angle relative to the support surface, characterized in that the touch control panel (250, 350) is movable between a first position in which the touch display (252; 352, 354) is angled with respect to the support surface, so that one or more of the plurality of manual controls (242, 342) are accessible to a user, and a second position in which the touch display (252; 352, 354) is generally parallel with the support surface, so that one or more of the plurality of manual controls (242, 342) below the touch display are not accessible to the user, and wherein the touch display (252; 352, 354) is configured to automatically change a user interface provided on the touch display responsive to movement of the touch display to any of the plurality of positions. a movable base (210, 310); and a control panel (230, 330) supported by the movable base, the control panel including: a plurality of manual controls (242, 342) provided on a support surface, the support surface being generally horizontal or slightly downwardly inclined with respect to the ground; and a touch control panel (250, 350) movably coupled to the support surface, the touch control panel comprising a touch display (252; 352, 354) configured to provide a touch-sensitive user interface, the touch control panel being movable between a plurality of positions at each of which the touch display is at a different angle relative to the support surface, a plurality of manual controls (242, 342) provided on a support surface, the support surface being generally horizontal or slightly downwardly inclined with respect to the ground; and a touch control panel (250, 350) movably coupled to the support surface, the touch control panel comprising a touch display (252; 352, 354) configured to provide a touch-sensitive user interface, the touch control panel being movable between a plurality of positions at each of which the touch display is at a different angle relative to the support surface,
A sensing sealant liquid container for repairing an inflatable article, preferably a tyre, comprising a first portion produced by injection moulding and a second portion produced by injection moulding, the first and the second portion being connected to each other to delimit a volume inside which a sealant liquid is retained, an outlet tube for the sealant liquid when the container is pressurized and a sensor for verifying the functional connection of the tube to the inflatable article, and at least one track (10, 11) electrically connected to the sensor and co-moulded on one of the first and second portion (12, 13), the track defining (10, 11) a contact releasable electrical connection.