mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine , comprising a washing chamber for receiving a washing liquid and textiles to be cleaned, and comprising a discoloration reservoir which has an inlet for conveying washing liquid out of the washing chamber into the discoloration reservoir and has an outlet for conveying washing liquid out of the discoloration reservoir into the washing chamber , both the inlet and the outlet being designed in such a way that textiles cannot enter the discoloration reservoir , characterized in that the discoloration reservoir further has at least one activation means which is suitable for initiating a process within the discoloration reservoir for forming free radicals in the washing liquid, it being possible for dyes contained in the washing liquid to be decomposed by the free radicals, and the activation means having an electrode arrangement comprising an anode and a cathode .
The compound (R)-1-(3-(3-N,N-dimethylaminocarbonyl)phenoxy1-4-nitrophenyl)-1-ethyl-N,N'-bis(ethylene)phosphoramidate: or anisotopic variant,solvate or hydrate thereof.
A (co)polyamide comprising at least 60 mol.% of recurring units of formula (I):
A method for shaping transmission beams (140a, 140a', 140a", 140b, 140b') in a wireless communications network , the method being performed by a network node , the method comprising: acquiring (S102) channel measurements from wireless devices , served by radio access network nodes , using current beam forming parameters and the radio access network nodes being controlled by the network node ; determining (S104), based on the channel measurements, desired beam forming parameters for shaping the transmission beams (140a, 140a', 140a", 140b, 140b') for at least one of the radio access network nodes , wherein determining (S104) the desired beam forming parameters comprises: predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; initiating (S106) network controlled handover of at least some of the wireless devices , served by the radio access network nodes (110a, 1 10b), based on the desired beam forming parameters; and initiating (S110) a change of the current beam forming parameters to the desired beam forming parameters for shaping said transmission beams (140a, 140a', 140a", 140b, 140b') for said at least one of the radio access network nodes (110a, 1 10b), only after having initiated said network controlled handover. acquiring (S102) channel measurements from wireless devices , served by radio access network nodes , using current beam forming parameters and the radio access network nodes being controlled by the network node ; determining (S104), based on the channel measurements, desired beam forming parameters for shaping the transmission beams (140a, 140a', 140a", 140b, 140b') for at least one of the radio access network nodes , wherein determining (S104) the desired beam forming parameters comprises: predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; predicting (S104c) signal strengths of the wireless devices if the desired beam forming parameters would have been used, without deploying the desired beam forming parameters; and determining (S104d) an order for handing over the wireless devices according to the signal strengths; initiating (S106) network controlled handover of at least some of the wireless devices , served by the radio access network nodes (110a, 1 10b), based on the desired beam forming parameters; and initiating (S110) a change of the current beam forming parameters to the desired beam forming parameters for shaping said transmission beams (140a, 140a', 140a", 140b, 140b') for said at least one of the radio access network nodes (110a, 1 10b), only after having initiated said network controlled handover.
A multilayer film comprising: (a) at least one starch layer comprising a modified starch and a water soluble polymer selected from polyvinyl acetate, polyvinyl alcohol or mixtures thereof; and (b) at least one other layer having a water vapour permeability coefficient less than 1 g.mm/m 2 .24hr.atm measured at 38°C and 90% relative humidity, as measured using ASTM F 1249-01 said at least one other layer comprising a polyolefin, polyethylene terephthalate, polyvinylchloride and polyvinylidene dichloride or mixtures thereof; wherein the total thickness of the at least one starch layer is greater than 30% of the total thickness of the multilayer film, wherein the multilayer film has an oxygen permeability coefficient (OPC) less than 0.3 cm 3 .mm/m 2 .24h.atm at 50% RH, as measured using ASTM F 1927-98, wherein the modified starch has a degree of substitution less than 1.5; and wherein the starch layer optionally comprises polyethylene oxide. (a) at least one starch layer comprising a modified starch and a water soluble polymer selected from polyvinyl acetate, polyvinyl alcohol or mixtures thereof; and (b) at least one other layer having a water vapour permeability coefficient less than 1 g.mm/m 2 .24hr.atm measured at 38°C and 90% relative humidity, as measured using ASTM F 1249-01 said at least one other layer comprising a polyolefin, polyethylene terephthalate, polyvinylchloride and polyvinylidene dichloride or mixtures thereof;
A method for operating a pipeline analog-to-digital converter, ADC, comprising the steps of : providing an input signal to a coarse ADC (502; 600) coupled with a digital-to analog converter, DAC, wherein the coarse ADC (502; 600) feeds a coarse digital output signal to the DAC ; subtracting an output signal of the DAC from the input signal and amplifying the difference by means of a residue amplifier to generate a residue output; feeding the residue output to a back end ADC ; amplifying an output of the back-end ADC ; feeding the amplified output of the back-end ADC , a digital output of the pipeline ADC and one or more randomized voltage sequences (Σt) to a harmonic distortion correction, HDC, circuit which provides an output signal; feeding the digital output of the pipeline ADC to a DAC noise cancellation, DNC, circuit providing an output signal; adding the coarse digital output signal, the output signal of the DNC circuit and the output of the HDC circuit to generate the digital output of the pipeline ADC; and providing threshold voltages by a dynamic element matching, DEM, circuit and modifying the threshold voltages by subtracting the one or more randomized voltage sequences (Σt) from the threshold voltages to provide a reference signal to the coarse ADC . providing an input signal to a coarse ADC (502; 600) coupled with a digital-to analog converter, DAC, wherein the coarse ADC (502; 600) feeds a coarse digital output signal to the DAC ; subtracting an output signal of the DAC from the input signal and amplifying the difference by means of a residue amplifier to generate a residue output; feeding the residue output to a back end ADC ; amplifying an output of the back-end ADC ; feeding the amplified output of the back-end ADC , a digital output of the pipeline ADC and one or more randomized voltage sequences (Σt) to a harmonic distortion correction, HDC, circuit which provides an output signal; feeding the digital output of the pipeline ADC to a DAC noise cancellation, DNC, circuit providing an output signal; adding the coarse digital output signal, the output signal of the DNC circuit and the output of the HDC circuit to generate the digital output of the pipeline ADC; and providing threshold voltages by a dynamic element matching, DEM, circuit and modifying the threshold voltages by subtracting the one or more randomized voltage sequences (Σt) from the threshold voltages to provide a reference signal to the coarse ADC .
A communication method of a transmission apparatus , the method comprising: maintaining a stream of data to each one of one or more terminals that have succeeded in obtaining a transmission opportunity, TXOP, with respect to a channel; and transmitting a TXOP setting frame in which the one or more terminals are set to receive a corresponding stream of data for a duration of the TXOP, and in which at least one other terminal that was unsuccessful in obtaining the TXOP is set to operate in a power saving mode, characterized in that the TXOP setting frame setting comprises an identifier, ID, of a basic service set, BSS, or an ID of a cell including the one or more terminals to prevent the one or more terminals from erroneously switching to the power saving mode according to an instruction from another transmission apparatus maintaining a stream of data to each one of one or more terminals that have succeeded in obtaining a transmission opportunity, TXOP, with respect to a channel; and transmitting a TXOP setting frame in which the one or more terminals are set to receive a corresponding stream of data for a duration of the TXOP, and in which at least one other terminal that was unsuccessful in obtaining the TXOP is set to operate in a power saving mode, characterized in that the TXOP setting frame setting comprises an identifier, ID, of a basic service set, BSS, or an ID of a cell including the one or more terminals to prevent the one or more terminals from erroneously switching to the power saving mode according to an instruction from another transmission apparatus
Aeroponics/hydroponics-based plant (P) production installation comprising at least one table , mobile trays on the table designed to support the plants (P) and transfer the plants (P) to different stations on the installation, the roots (PR) of the plants (P) being left to hang under the trays , the installation comprising a soaking station that has an elevator for lowering and lifting at least one tray between a high position and a low position in order to soak the roots (PR) in a soaking tank containing a liquid for a predetermined time in the low position, characterised by the fact the table comprises a cutting station , the cutting station comprising a cutting bar extending transversely and being longitudinally mobile with respect to the tray, or longitudinally and being transversely mobile, to shorten one of the parts (PR, PA) of the plants (P) without their survival being compromised.
A mobile cleaning robot comprising: a chassis that supports a drive system; a debris collection volume ; and a cleaning head formed to complete a bottom of the robot, the cleaning head comprising: a frame for affixing the cleaning head to the chassis; a monolithic housing having an interior cavity ; a suspension linkage movably suspending the monolithic housing from the frame, the suspension linkage being configured to lift the monolithic housing; a diaphragm formed of a flexible material and mated to the monolithic housing; a rigid duct mated to the frame to form a pneumatic path between the monolithic housing and the rigid duct through the diaphragm; and cleaning extractors (265; 270) disposed in the interior cavity of the monolithic housing. a chassis that supports a drive system; a debris collection volume ; and a cleaning head formed to complete a bottom of the robot, the cleaning head comprising: a frame for affixing the cleaning head to the chassis; a monolithic housing having an interior cavity ; a suspension linkage movably suspending the monolithic housing from the frame, the suspension linkage being configured to lift the monolithic housing; a diaphragm formed of a flexible material and mated to the monolithic housing; a rigid duct mated to the frame to form a pneumatic path between the monolithic housing and the rigid duct through the diaphragm; and cleaning extractors (265; 270) disposed in the interior cavity of the monolithic housing. a frame for affixing the cleaning head to the chassis; a monolithic housing having an interior cavity ; a suspension linkage movably suspending the monolithic housing from the frame, the suspension linkage being configured to lift the monolithic housing; a diaphragm formed of a flexible material and mated to the monolithic housing; a rigid duct mated to the frame to form a pneumatic path between the monolithic housing and the rigid duct through the diaphragm; and cleaning extractors (265; 270) disposed in the interior cavity of the monolithic housing.
An apparatus for redundant measurements of a magnetic field originating from or influenced by a moveable object, the apparatus comprising: at least three first magnetic field sensitive elements measuring at least one magnetic field property of the magnetic field, wherein the at least three first magnetic field sensitive elements are implemented on a first area of a semiconductor substrate; at least three second magnetic field sensitive elements measuring at least one magnetic field property of the magnetic field, wherein the at least three second magnetic field sensitive elements are implemented on a second area of said semiconductor substrate; wherein the at least three first magnetic field sensitive elements and the at least three second magnetic field sensitive elements form at least three alternating pairs pairwise opposing each other; and wherein the first and second areas are isolated from one another. at least three first magnetic field sensitive elements measuring at least one magnetic field property of the magnetic field, wherein the at least three first magnetic field sensitive elements are implemented on a first area of a semiconductor substrate; at least three second magnetic field sensitive elements measuring at least one magnetic field property of the magnetic field, wherein the at least three second magnetic field sensitive elements are implemented on a second area of said semiconductor substrate; wherein the at least three first magnetic field sensitive elements and the at least three second magnetic field sensitive elements form at least three alternating pairs pairwise opposing each other; and wherein the first and second areas are isolated from one another.
A method for detecting a neurological disease in a subject, comprising the steps of: (a) contacting a biological fluid from a subject with an anti-L1CAM antibody to form an immunocomplex, wherein the biological fluid is blood, serum, plasma, or saliva; (b) binding CNS-derived exosomes in the biological fluid to a solid phase through the immunocomplex; (c) separating the solid phase bound exosomes from the biological fluid to enrich the CNS-derived exosomes, and (d) determining the level of a biomarker from the enriched CNS-derived exosomes, wherein an elevated level of the biomarker from the CNS-derived exosomes in the subject comparing with a control level from a subject without the neurological disease indicates that the subject has the neurological disease, wherein the neurological disease is Parkinson's disease, Alzheimer's disease or prion disease. (a) contacting a biological fluid from a subject with an anti-L1CAM antibody to form an immunocomplex, wherein the biological fluid is blood, serum, plasma, or saliva; (b) binding CNS-derived exosomes in the biological fluid to a solid phase through the immunocomplex; (c) separating the solid phase bound exosomes from the biological fluid to enrich the CNS-derived exosomes, and (d) determining the level of a biomarker from the enriched CNS-derived exosomes,
A method of defining an operational status of a telephone network, the method including the steps of: a. for a telephone call within the network, compiling: 1) a call segment start time, and 2) a call segment end time, for each of at least two call segments within the telephone call; and, b. graphically displaying the call segments on a monitor, characterised in that the cell segments are displayed: 1) in succession over time, whereby each call segment within the call is displayed before any subsequent call segment within the call becomes visible, and 2) in a linear array in an order in which the call segments occurred within the telephone call. a. for a telephone call within the network, compiling: 1) a call segment start time, and 2) a call segment end time, for each of at least two call segments within the telephone call; and, 1) a call segment start time, and 2) a call segment end time, b. graphically displaying the call segments on a monitor, characterised in that the cell segments are displayed: 1) in succession over time, whereby each call segment within the call is displayed before any subsequent call segment within the call becomes visible, and 2) in a linear array in an order in which the call segments occurred within the telephone call. 1) in succession over time, whereby each call segment within the call is displayed before any subsequent call segment within the call becomes visible, and 2) in a linear array in an order in which the call segments occurred within the telephone call.
A control device for a three phase rotary electrical machine including an armature and a rotor , wherein the armature includes an armature core including: a plurality of magnetic teeth ; and an armature winding formed of a multi-phase winding group, which is wound around the teeth, and is received in a slot between the teeth, wherein the rotor includes a rotor core having a permanent magnet embedded therein, is arranged through magnetic air gap defined between the rotor and the armature, and is provided so to be rotatable about a rotation axis; the control device comprising a controller configured to drive and control the three phase rotary electrical machine; characterized in that below a number of revolutions at which field-weakening current for canceling counter-electromotive force is increased, when the energization current is below a rated maximum value, the controller is configured to drive and control the three phase rotary electrical machine at a current phase angle θ that is different from a current phase angle Θ1 at which torque is maximized in constant energization current, and at that torque ripple is reduced as compared to when the three phase rotary electrical machine is drive-controlled at the current phase angle θ1. the control device comprising a controller configured to drive and control the three phase rotary electrical machine; characterized in that below a number of revolutions at which field-weakening current for canceling counter-electromotive force is increased, when the energization current is below a rated maximum value, the controller is configured to drive and control the three phase rotary electrical machine at a current phase angle θ that is different from a current phase angle Θ1 at which torque is maximized in constant energization current, and at that torque ripple is reduced as compared to when the three phase rotary electrical machine is drive-controlled at the current phase angle θ1.
Agricultural soil cultivation unit having at least two rows of soil working tools that are fastened to a tool carrier frame that is pivotably supported about a horizontal frame pivot axis at a machine frame supported by a chassis on the ground and is liftable by a lifting apparatus , wherein the vertical positions of the soil working tool rows are adjustable relative to one another in the lowered working position and a working depth difference ( Δ t) between the soil working tool rows is thus adjustable by a setting apparatus actuable without tools in working operation and having an actuator actuable by external energy, characterized in that detection means are provided for detecting an operating parameter that is relevant to a diagonal pull and that characterizes a resulting diagonal pull of the soil working tools transversely to the direction of travel and a control apparatus for automatically actuating the setting apparatus varies the working depth difference ( Δ t) in dependence on the detected operating parameter relevant to the diagonal pull in such a way that that the lateral forces resulting on the soil working tool rows compensate one another.
An engine component , comprising: a first wall ; which is an airfoil wall; a second wall ; which is an inner wall; spaced from the first wall ; and a cooling passageway provided by a helical wall between the first wall and the second wall ; and characterised in that the second wall is substantially hollow and circumscribes the central component axis to provide a core passageway . a first wall ; which is an airfoil wall; a second wall ; which is an inner wall; spaced from the first wall ; and a cooling passageway provided by a helical wall between the first wall and the second wall ; and characterised in that the second wall is substantially hollow and circumscribes the central component axis to provide a core passageway .
A method of manufacturing a power divider circuit, the method comprising: milling a conductive material disposed upon a first substrate to form a signal trace , the signal trace including a division from a single trace to two arm traces, each of the two arm traces having a proximal end electrically connected to the single trace and a distal end electrically connected to each of two secondary traces ; depositing a resistive ink between the two distal ends to form a resistive electrical connection between the two arm traces; bonding a second substrate to the first substrate to substantially encapsulate the traces between the first substrate and the second substrate ; and milling through at least one of the first substrate or the second substrate to provide access to at least one of the traces; disposing a further conductive material on an opposite surface of the first substrate to where the signal trace is milled; and milling through both of the second substrate and the first substrate without piercing the further conductive material to form a trench , and depositing a conductive ink into the trench . milling a conductive material disposed upon a first substrate to form a signal trace , the signal trace including a division from a single trace to two arm traces, each of the two arm traces having a proximal end electrically connected to the single trace and a distal end electrically connected to each of two secondary traces ; depositing a resistive ink between the two distal ends to form a resistive electrical connection between the two arm traces; bonding a second substrate to the first substrate to substantially encapsulate the traces between the first substrate and the second substrate ; and milling through at least one of the first substrate or the second substrate to provide access to at least one of the traces; disposing a further conductive material on an opposite surface of the first substrate to where the signal trace is milled; and milling through both of the second substrate and the first substrate without piercing the further conductive material to form a trench , and depositing a conductive ink into the trench .
Device for winding a web of material into a wound roll , having at least one roller against which the wound roll bears during winding and which rotates during winding, the roller being mounted in a bearing device having a bearing at each roller end , and the bearing having a hydrostatic support with at least one bearing pocket which is fed with hydraulic fluid, characterized in that the bearing pocket extends perpendicularly to the roll axis in a curved manner around a section of the respective roller end , and the bearing device has two bearing pockets whose directions of action intersect at an angle of between 60 and 130°.