mhurhangee/ep-ind-claims huggingface dataset:
Power tool system having at least one power-tool parting device which comprises at least one cutting strand and at least one guide unit, which forms a closed system at least together with the cutting strand, and having at least one power tool, in particular a portable power tool, having at least one coupling device for coupling the power-tool parting device, comprising at least the cutting strand and at least the guide unit, to at least one gear unit and to at least one motor unit for driving the power-tool parting device in a state arranged on the coupling device, wherein the gear unit is configured as a multistage angular gear which comprises at least one output shaft which has an output axis that is arranged at 90° relative to a motor-unit longitudinal axis of the motor unit, wherein, in a mounted state, the motor-unit longitudinal axis of the motor unit extends at least substantially perpendicularly to a longitudinal axis of the guide unit, wherein the output axis of the output shaft, as seen along the longitudinal axis of the guide unit, is arranged in an offset manner relative to the motor-unit longitudinal axis of the motor unit.
A method for the production of graphene and graphite nanoplatelet structures having a thickness of less than 100 nm in an electrochemical cell, wherein the cell comprises: (a) a negative electrode which is graphitic; (b) a positive electrode which may be graphitic or another material; and (c) an electrolyte which is ions in a solvent where the cations are alkylammonium ions; and wherein the method comprises the step of passing a current through the cell. (a) a negative electrode which is graphitic; (b) a positive electrode which may be graphitic or another material; and (c) an electrolyte which is ions in a solvent where the cations are alkylammonium ions; and wherein the method comprises the step of passing a current through the cell.
Cutting machine for cutting rolls of sheet material from logs (22, 22a, 24) advancing in parallel channels (20, 20a) in a horizontal direction, comprising at least one cutting blade driven by actuating means able to impart to said cutting blade a path defining a cutting area contained in a plane perpendicular to the direction of forward movement of the logs, the axes X, Y and Z forming a Cartesian coordinate system, with the X as horizontal axis, characterised in that said parallel channels (20, 20a) are of different dimensions and are mounted movable in said direction so to cause the diameter of the logs to fall within said cutting path.
A focus adjustment apparatus for an image detection system which comprises an objective having at least one lens, wherein the focus adjustment apparatus comprises a movable lens holder, that is provided for receiving the lens, and a motor device for a positional adjustment of the objective, characterized in that the movable lens holder is connected to a threaded unit of the motor device via a support unit arranged in the movable lens holder such that the support unit can be rolled with the lens holder along a main axis of the threaded unit in accordance with a rotation of the threaded unit and such that an axis of rotation of the support unit is directed perpendicular to the main axis of the threaded unit, wherein the support unit comprises a cylindrical pin, wherein the cylindrical pin is provided in an inner ring of the support unit coaxial with the axis of rotation of the support unit and projects into a thread turn of the threaded unit, and wherein the threaded unit has a defined thread pitch corresponding to a predefined adjustment of the focus and has a support surface of the thread on which the cylindrical pin lies or rolls off, said support surface having a defined thickness, and wherein two springs press the support unit along the main axis in the direction of the threaded unit.
A particle control method characterized in that in a clean zone through which unidirectional air flow flows from an upper side toward a lower side in a work chamber, an oscillation board, the surface thereof is disposed on one plane alone which is substantially in parallel with a flow direction of the unidirectional air flow is subjected to ultrasonic vibration so as to generate an acoustic flow by the ultrasonic wave in the perpendicular direction from the board surface and in a direction crossing the flow direction of the unidirectional air flow; and particles made to flow by the air in the unidirectional air flow and descending from the upper side toward the lower side are subjected to a pressing force by an acoustic radiation pressure so that its descent position is controlled in a direction away from the board surface of the oscillation board. in a clean zone through which unidirectional air flow flows from an upper side toward a lower side in a work chamber, an oscillation board, the surface thereof is disposed on one plane alone which is substantially in parallel with a flow direction of the unidirectional air flow is subjected to ultrasonic vibration so as to generate an acoustic flow by the ultrasonic wave in the perpendicular direction from the board surface and in a direction crossing the flow direction of the unidirectional air flow; and particles made to flow by the air in the unidirectional air flow and descending from the upper side toward the lower side are subjected to a pressing force by an acoustic radiation pressure so that its descent position is controlled in a direction away from the board surface of the oscillation board.
A method for the directed transmission of electromagnetic radiation (1, 4, 10) in the frequency range between 0.1 and 10 terahertz in the form of a terahertz beam in a wireless communication system from a transmitter to a receiver, wherein the terahertz beam is directed toward the receiver and is dynamically tracked, characterised in that the transmitter and receiver are provided with means by which the optimal direction of the radiated terahertz wave, respectively the optimal deflection of an incident terahertz wave, may be determined, wherein the means communicate by means of radio transmission and provide information to one another about the respective relative position, in that the radiation is directed by a planar modulator (2, 5, 8) from the transmitter to the receiver and dynamically tracked, wherein the modulator has a matrix of at least 10 x 10 individual active planar elements, wherein each planar element has a diameter of greater than 5 μm and less than 100 μm, in particular of approximately 10 μm, wherein each planar element is individually controlled by a central control device and adopts one of at least two states in accordance with the control, wherein the radiation (1, 4, 10) passes through the planar elements of the modulator (2, 5, 8), wherein the refractive index and/or the transmission of the planar elements are electronically controlled, or wherein the radiation (1, 4, 10) is reflected on the planar elements of the modulator (2, 5, 8), wherein the position and/or the reflectivity of the planar elements are controlled.
Method for controlling a hydraulic function of an industrial truck which is influenced by a load pressure of a load that is picked up and/or by a temperature of a hydraulic fluid, wherein a reference variable (w(t)) is predefined, from which a manipulated variable (u(t)) which determines a control variable (y(t)) of the hydraulic function over a control path (G(s)) is calculated in a control unit (C(s)), characterized in that basic characteristic curves (Gk) for various operating points of the hydraulic function, which produce an arithmetic model relationship between the manipulated variable (u(t)) and the control variable (y(t)), are stored in the control unit (C(s)), and the basic characteristic curves (Gk) are adjusted in the control unit (C(s)) via an amplification factor, which depends on the load pressure (p) and/or on the temperature of the hydraulic fluid.
A method for the production of a mixture comprising sulfated glycan molecules wherein said molecules comprise: one or more linear 1-4 conjugated beta-D-xylose units; and at least one 4-O-methyl-β-D-glucuronic acid unit attached to carbon-2 of every eight to ten (on average) xylose units, the method comprising: (a) performing sulfation of xylan, by reaction with: (i) pyridine chlorosulfonic acid complex in DMF; (ii) pyridine SO3 complex in DMF; or (iii) a mixture of (i) and (ii) above, to produce pyridinium xylan sulfate; (b) replacing pyridinium with a counter ion to form a non-pyridinium xylan sulfate salt, followed by removal of pyridine and DMF: (c) performing acid hydrolysis of the non-pyridinium xylan sulfate salt to adjust its final relative molecular weight; (d) performing ultrafiltration of the non-pyridinium xylan sulfate salt to remove inorganic impurities and degradation products; and (e) performing at least one resulfation/hydrolysis cycle of the non-pyridinium xylan sulfate salt, followed by conversion to a sodium salt and removal of said pyridine and DMF to form an unfractionated precipitate. one or more linear 1-4 conjugated beta-D-xylose units; and at least one 4-O-methyl-β-D-glucuronic acid unit attached to carbon-2 of every eight to ten (on average) xylose units, (a) performing sulfation of xylan, by reaction with: (i) pyridine chlorosulfonic acid complex in DMF; (ii) pyridine SO3 complex in DMF; or (iii) a mixture of (i) and (ii) above, to produce pyridinium xylan sulfate; (i) pyridine chlorosulfonic acid complex in DMF; (ii) pyridine SO3 complex in DMF; or (iii) a mixture of (i) and (ii) above, to produce pyridinium xylan sulfate; (b) replacing pyridinium with a counter ion to form a non-pyridinium xylan sulfate salt, followed by removal of pyridine and DMF: (c) performing acid hydrolysis of the non-pyridinium xylan sulfate salt to adjust its final relative molecular weight; (d) performing ultrafiltration of the non-pyridinium xylan sulfate salt to remove inorganic impurities and degradation products; and (e) performing at least one resulfation/hydrolysis cycle of the non-pyridinium xylan sulfate salt, followed by conversion to a sodium salt and removal of said pyridine and DMF to form an unfractionated precipitate.
A water treatment system for delivering water to at least one of a hot treated point of use, a high water quality point of use, and a low water quality point of use comprising: at least one flow-through tank configured for receiving raw water; a treatment device in fluid communication with said at least one flow-through tank and configured for treating water in said at least one flow-through tank to produce separate flows of high quality treated water and low quality treated water, wherein said high quality treated water from said treatment device can selectively be delivered to said flow-through tank via a line and/or to said high quality treated water tank via a line, wherein said flow-through tank is configured for delivering mixed water to the hot treated point of use via a line and wherein in said flow-through tank incoming high quality treated water is mixed with raw water; a high quality treated water tank in fluid communication with said treatment device and configured for delivering said high quality treated water to the high water quality point of use via a line; and at least one fluid control device (162, 176) in fluid communication with said treatment device and configured for delivering said low quality treated water to one of a low quality water tank, a drain, and a low water quality point of use via the line. at least one flow-through tank configured for receiving raw water; a treatment device in fluid communication with said at least one flow-through tank and configured for treating water in said at least one flow-through tank to produce separate flows of high quality treated water and low quality treated water, wherein said high quality treated water from said treatment device can selectively be delivered to said flow-through tank via a line and/or to said high quality treated water tank via a line, wherein said flow-through tank is configured for delivering mixed water to the hot treated point of use via a line and wherein in said flow-through tank incoming high quality treated water is mixed with raw water; a high quality treated water tank in fluid communication with said treatment device and configured for delivering said high quality treated water to the high water quality point of use via a line; and at least one fluid control device (162, 176) in fluid communication with said treatment device and configured for delivering said low quality treated water to one of a low quality water tank, a drain, and a low water quality point of use via the line.
A device for a torque meter for determining properties such as viscosity, shearing force or concentration in liquids or suspensions, and comprising two elastically connected concentric axles in the form of one external hollow axle through which an inner meter axle extends, on which latter an element responsive to the measured medium is located, characterized in that the axles (6, 5) are individually propelled by an electrical motor (9, 10) each, said motors (9, 10) are at least on average continuously propelled at equal rotational speed at the same time as the phase between the two are controlled irrespective of applied speed and torque, wherein the torque is possible to measure through the degree of load of the motor propelling the inner axle, which is transformable to a suitable out signal.
An integrated industrial system comprising: a safety instrumented system which is installed in a first zone; a manufacturing system which is connected to the safety instrumented system through a network, the manufacturing system being installed in a second zone which is different from the first zone, the manufacturing system being a system established for manufacturing products in the plant efficiently; a first detector which is installed in the first zone, the first detector being configured to detect a cyber-attack from outside to the first zone; a second detector which is installed in the second zone, the second detector being configured to detect a cyber-attack from outside to the second zone; and a defender configured to perform a countermeasure of restricting a communication between the first zone and the second zone or of restricting a communication in the first zone or the second zone, based on a detection result of the first detector and a detection result of the second detector; wherein, if the first detector has detected a cyber-attack from outside to the first zone, the defender performs a countermeasure of blocking the network. a safety instrumented system which is installed in a first zone; a manufacturing system which is connected to the safety instrumented system through a network, the manufacturing system being installed in a second zone which is different from the first zone, the manufacturing system being a system established for manufacturing products in the plant efficiently; a first detector which is installed in the first zone, the first detector being configured to detect a cyber-attack from outside to the first zone; a second detector which is installed in the second zone, the second detector being configured to detect a cyber-attack from outside to the second zone; and a defender configured to perform a countermeasure of restricting a communication between the first zone and the second zone or of restricting a communication in the first zone or the second zone, based on a detection result of the first detector and a detection result of the second detector; wherein, if the first detector has detected a cyber-attack from outside to the first zone, the defender performs a countermeasure of blocking the network.
A method of controlling a fluid working machine having: a plurality of working chambers of cyclically varying volume, said volume varying at a first frequency; a piston in each working chamber; an inlet valve for each working chamber; an outlet valve for each working chamber a rotating common crankshaft driven by or driving a load one or more sensors (38, 90) for sensing first and second changeable parameters; and a controller for receiving data on a first changeable parameter and controlling the opening and closing sequence of said valves (12, 24) to selectively enable said working chambers separately on each of the expansion and contraction strokes of said chambers, so as to supply or accept fluid in accordance with said first changeable parameter, the method being characterised by the steps of: monitoring a second changeable parameter requiring control at a frequency higher than said first frequency or having a latency lower than the latency of said first changeable parameter; and modifying said at least one of the opening and closing sequences of at least one of said valves to supply or accept fluid to or from each working chamber in accordance with a combination of said first and said second changeable parameter, wherein said at least one of said opening and closing sequences is altered during said cycle. a plurality of working chambers of cyclically varying volume, said volume varying at a first frequency; a piston in each working chamber; an inlet valve for each working chamber; an outlet valve for each working chamber a rotating common crankshaft driven by or driving a load one or more sensors (38, 90) for sensing first and second changeable parameters; and a controller for receiving data on a first changeable parameter and controlling the opening and closing sequence of said valves (12, 24) to selectively enable said working chambers separately on each of the expansion and contraction strokes of said chambers, so as to supply or accept fluid in accordance with said first changeable parameter, the method being characterised by the steps of: monitoring a second changeable parameter requiring control at a frequency higher than said first frequency or having a latency lower than the latency of said first changeable parameter; and modifying said at least one of the opening and closing sequences of at least one of said valves to supply or accept fluid to or from each working chamber in accordance with a combination of said first and said second changeable parameter, wherein said at least one of said opening and closing sequences is altered during said cycle. monitoring a second changeable parameter requiring control at a frequency higher than said first frequency or having a latency lower than the latency of said first changeable parameter; and modifying said at least one of the opening and closing sequences of at least one of said valves to supply or accept fluid to or from each working chamber in accordance with a combination of said first and said second changeable parameter, wherein said at least one of said opening and closing sequences is altered during said cycle.
A process for preparing homoallyl alcohols by catalyzed reaction of straight-chain or branched C 3 -C 6 alkenes with aldehydes or ketones, wherein the reaction is carried out in the gas phase in the presence of noncovalently supported ionic liquid phase catalysts, where the noncovalently supported ionic liquid phase catalysts are hydrophobic ionic liquids selected from among imidazolium salts which are noncovalently bound to a support and comprise at least one Lewis acid and the water solubility of the hydrophobic ionic liquid at 20°C and 1 bar is less than 100g of water in 1000g of ionic liquid.
A packaging material for a power storage device, comprising: a base material layer having a first surface and a second surface, and including at least a first adhesive layer, a metal foil layer, a corrosion prevention-treated layer, a second adhesive layer, and a sealant layer, which are sequentially laminated on the first surface; and a base material protective layer formed from at least one selected from the group consisting of polyester polyols and (meth)acrylic polyols, each of which contains a group having a hydroxyl group in a side chain thereof, and an aliphatic isocyanate curing agent, the base material protective layer being laminated on the second surface of the base material layer. a base material layer having a first surface and a second surface, and including at least a first adhesive layer, a metal foil layer, a corrosion prevention-treated layer, a second adhesive layer, and a sealant layer, which are sequentially laminated on the first surface; and a base material protective layer formed from at least one selected from the group consisting of polyester polyols and (meth)acrylic polyols, each of which contains a group having a hydroxyl group in a side chain thereof, and an aliphatic isocyanate curing agent, the base material protective layer being laminated on the second surface of the base material layer.
Command and alert device having an actuator, having a seal with a sealing region and with a clamping region and with a front plate, wherein the command and alert device has an actuator with a tubular body, wherein the tubular body is guided through the front plate and the seal is arranged between the tubular body and front plate, wherein the seal comprises a sealing region, which rests on the front plate, and having a clamping region, which is arranged between the outer wall of the tubular body and the front plate, characterized in that the seal is a sealing element formed from a plurality of components, wherein the clamping region of the sealing element has at least one soft component and at least one hard component, wherein the hard component has at least one defined expansion element (13, 15), wherein the expansion elements (13, 15) make it possible to increase the diameter in the hard component, and therefore, for installation purposes, it is possible to expand beyond the customary diameter, although the diameter adapts itself again, in the installed state, to the smaller diameter.
A method of screening for the onset of a large intestine neoplasm or monitoring an individual for the presence of a large intestine neoplasm, said method comprising: (i) measuring the level of expression of hCG_1815491 in a biological sample from said individual wherein a higher level of expression of hCG_1815491 relative to control levels is indicative of a neoplastic large intestine cell or a cell predisposed to the onset of a neoplastic state; or (ii) measuring the level of expression of a gene comprising a sequence of nucleotides as set forth in SEQ ID NO:1 or a sequence having at least 90% similarity to SEQ ID NO:1 across the length of the gene in a biological sample from said individual wherein a higher level of expression of said gene or variant thereof relative to control levels is indicative of a neoplastic large intestine cell, and wherein the biological sample is a faecal sample, enema wash, surgical resection of the large intestine, tissue biopsy of the large intestine or blood sample. (i) measuring the level of expression of hCG_1815491 in a biological sample from said individual wherein a higher level of expression of hCG_1815491 relative to control levels is indicative of a neoplastic large intestine cell or a cell predisposed to the onset of a neoplastic state; or (ii) measuring the level of expression of a gene comprising a sequence of nucleotides as set forth in SEQ ID NO:1 or a sequence having at least 90% similarity to SEQ ID NO:1 across the length of the gene in a biological sample from said individual
A chromium-free surface-treated copper foil comprising a rust-proofing treatment layer and a silane coupling agent layer on a bonding surface of an electro-deposited copper foil to an insulating resin substrate, characterized in that the rust-proofing treatment layer is formed by stacking a nickel alloy layer composed of at least one selected from nickel-molybdenum, nickel-zinc, and nickel-molybdenum-cobalt having a thickness by weight of 5 mg/m 2 to 50 mg/m 2 and a tin layer having a thickness by weight of 5 mg/m 2 to 40 mg/m 2 in this order on the copper foil, the rust-proofing treatment layer has a total thickness by weight of a nickel alloy and tin of 10 mg/m 2 to 70 mg/m 2, the rust-proofing treatment layer has a ratio [nickel amount in the nickel alloy]/[tin amount] of 0.25 to 10, and the silane coupling agent layer is provided on a surface of the rust-proofing treatment layer.