mhurhangee/patent-ind-claim-en huggingface dataset:
Method for grinding spring ends of helical compression springs using a numerically controlled spring end grinding machine , which has a grinding unit , a loading unit and a control unit for controlling the loading unit and the grinding unit, wherein the grinding unit has a pair of grinding wheels comprising two rotatable grinding wheels , between which there is formed a grinding space , and the loading unit has at least one loading plate , which is rotatable substantially axially parallel to the grinding wheels and has a plurality of out-of-axis spring receptacles , each for receiving a helical compression spring (F), wherein, during a grinding operation, helical compression springs that have been received in spring receptacles are successively transported through the grinding space between the rotating grinding wheels by rotation of the loading plate and, as this happens, both spring ends of the helical compression springs located in the grinding space are in each case simultaneously machined by grinding, characterized in that a temperature signal representing the temperature is determined by a temperature measurement on at least one of the helical compression springs during the grinding operation and the spring end grinding machine is controlled in dependence on the temperature signal, wherein one of the grinding wheels is infed in the direction of the other grinding wheel during the grinding operation at an infeed rate that can be predetermined by the control unit and wherein the infeed rate is controlled in dependence on the temperature signal.
- Application system for applying a sealing agent to the inner surface of a pneumatic tyre ; the application system comprises: a support device suitable for rotating the pneumatic tyre around an axis of rotation; a dispensing head that is suitable for being arranged inside the pneumatic tyre in order to apply a layer of sealing agent to the inner surface of the pneumatic tyre itself; and a main extrusion device , which is connected to the dispensing head and that is suitable for supplying the dispensing head itself with a first throughput of sealing agent ; wherein the application system comprises an additional extrusion device , which is connected to the dispensing head , is separate and independent from the main extrusion device , and is suitable for supplying the dispensing head itself with a second throughput of sealing agent that merges with the first throughput of sealing agent . a support device suitable for rotating the pneumatic tyre around an axis of rotation; a dispensing head that is suitable for being arranged inside the pneumatic tyre in order to apply a layer of sealing agent to the inner surface of the pneumatic tyre itself; and a main extrusion device , which is connected to the dispensing head and that is suitable for supplying the dispensing head itself with a first throughput of sealing agent ; wherein the application system comprises an additional extrusion device , which is connected to the dispensing head , is separate and independent from the main extrusion device , and is suitable for supplying the dispensing head itself with a second throughput of sealing agent that merges with the first throughput of sealing agent .
A method of performing device-to-device, D2D, communication by a user equipment, UE, in a wireless communication system, the method comprising: detecting (A120, A125) a D2D synchronization signal from at least one synchronization source; measuring (A125) a D2D demodulation reference signal, DMRS, for a D2D channel, wherein the D2D DMRS and the D2D channel are received through a same subframe in which the D2D synchronization signal is detected; and selecting (A130) a synchronization reference UE from the at least one synchronization source depending on whether a predetermined condition is satisfied, wherein the predetermined condition is satisfied when a result of measuring the D2D DMRS satisfies a threshold and is valid, and wherein the result of measuring the D2D DMRS is determined to be valid when the UE succeeds in obtaining an information element of the D2D channel, and the result of measuring the D2D DMRS is determined to be invalid when the UE fails to obtain the information element of the D2D channel. detecting (A120, A125) a D2D synchronization signal from at least one synchronization source; measuring (A125) a D2D demodulation reference signal, DMRS, for a D2D channel, wherein the D2D DMRS and the D2D channel are received through a same subframe in which the D2D synchronization signal is detected; and selecting (A130) a synchronization reference UE from the at least one synchronization source depending on whether a predetermined condition is satisfied, wherein the predetermined condition is satisfied when a result of measuring the D2D DMRS satisfies a threshold and is valid, and wherein the result of measuring the D2D DMRS is determined to be valid when the UE succeeds in obtaining an information element of the D2D channel, and the result of measuring the D2D DMRS is determined to be invalid when the UE fails to obtain the information element of the D2D channel.
A method for purification of immunoglobulin containing proteins or parts thereof, from larger contaminants, comprising: a) contacting an immunoglobulin containing sample with chromatography beads comprising a thin lid with a defined pore size and an inner core of defined pore size provided with an proteinaceous affinity ligand; b) adsorbing the immunoglobulin containing proteins to the ligands; c) washing the beads to remove any contaminants; and d) eluting the beads to release the captured immunoglobulin containing proteins or parts thereof.
A dispenser comprising: a base having at least one rail ; a cover slidable along at least one rail of the base between a closed position and an open position; and a refill unit that is removable from the dispenser , the refill unit comprising: a container ; a pump ; and an outlet; wherein when the cover is in the open position the refill unit may be inserted into the dispenser along a horizontal axis; wherein when the cover is in the closed position the cover at least partially encloses the pump of the refill unit and prevents the refill unit from being removed; and wherein at least a portion of the refill unit is exposed when the cover is in a closed position and the refill unit is installed in the dispenser . a base having at least one rail ; a cover slidable along at least one rail of the base between a closed position and an open position; and a refill unit that is removable from the dispenser , the refill unit comprising: a container ; a pump ; and an outlet; wherein when the cover is in the open position the refill unit may be inserted into the dispenser along a horizontal axis; wherein when the cover is in the closed position the cover at least partially encloses the pump of the refill unit and prevents the refill unit from being removed; and wherein at least a portion of the refill unit is exposed when the cover is in a closed position and the refill unit is installed in the dispenser .
A motor vehicle locking device comprising a locking mechanism having a catch and at least one pawl, an operating lever mechanism acting on the pawl and a child safety device having an adjustment mechanism , wherein the adjustment mechanism is latchable in at least two latching positions (R1, R2), and a spring element on the adjustment mechanism , wherein the spring element interacts with a control cam in such a way that the adjustment mechanism can be adjusted in a spring-loaded manner into the latching positions (R1, R2), wherein the spring element is designed as a spring lip , characterized in that a support means is provided, wherein the support means can be brought into engagement with the adjustment mechanism at least during an adjustment of the adjustment mechanism .
A finishing suspension for finishing an object made from an additive manufacturing technique ("AMT Object") such that a portion of the AMT Object and/or support material is removed from the AMT Object, the finishing suspension comprising: a finishing medium comprising: 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles. a finishing medium comprising: 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles. 1-20% by weight a polyol; optionally, 1-20% by weight an anti-corrosion agent; 0.001-10% by weight a hydrotrope; and water and media particles.
Method for removal of tubing from a hydrocarbon well , which tubing is at its upper end provided with a tubing hanger , which tubing hanger is mounted in a central passage of a wellhead , the method comprising the step: - lowering a machining device into a central passage of the tubing hanger ; characterized in that the method further comprises the steps: - engaging a top portion of the tubing at its inside and below the tubing hanger using a clamping device ; - machining away part of the tubing hanger , thus disconnecting the tubing from the tubing hanger and enlarging the central passage of the tubing hanger to a diameter wide enough for lifting the tubing through the central passage of the tubing hanger out of the hydrocarbon well ; - holding, optionally supporting, the tubing while the machining device is machining at least part of the tubing hanger ; and - lifting the disconnected tubing through the central passage of the tubing hanger out of the hydrocarbon well . - lowering a machining device into a central passage of the tubing hanger ; characterized in that the method further comprises the steps: - engaging a top portion of the tubing at its inside and below the tubing hanger using a clamping device ; - machining away part of the tubing hanger , thus disconnecting the tubing from the tubing hanger and enlarging the central passage of the tubing hanger to a diameter wide enough for lifting the tubing through the central passage of the tubing hanger out of the hydrocarbon well ; - holding, optionally supporting, the tubing while the machining device is machining at least part of the tubing hanger ; and - lifting the disconnected tubing through the central passage of the tubing hanger out of the hydrocarbon well .
A method for adjusting timing advance values on a mobile communication device, comprising: determining whether a timing advance adjustment value received by a mobile communication device after a tune-away from a base station is received after a predetermined number of sub-frames after the tune-away is completed; determining whether the timing advance adjustment value received in the mobile communication device exceeds an adjustment threshold; ignoring the timing advance adjustment value in response to determining that the timing advance adjustment value is received before a predetermined number of sub-frames after the tune-away is completed and that the timing advance adjustment value exceeds the adjustment threshold; and adjusting a timing advance value stored on the mobile communication device by the timing advance adjustment value in response to determining that the timing advance adjustment value is received after a predetermined number of sub-frames after the tune-away is completed. determining whether a timing advance adjustment value received by a mobile communication device after a tune-away from a base station is received after a predetermined number of sub-frames after the tune-away is completed; determining whether the timing advance adjustment value received in the mobile communication device exceeds an adjustment threshold; ignoring the timing advance adjustment value in response to determining that the timing advance adjustment value is received before a predetermined number of sub-frames after the tune-away is completed and that the timing advance adjustment value exceeds the adjustment threshold; and adjusting a timing advance value stored on the mobile communication device by the timing advance adjustment value in response to determining that the timing advance adjustment value is received after a predetermined number of sub-frames after the tune-away is completed.
A rail wheel , comprising 1.1 a wheel hub revolving on a fixed shaft , and 1.2 an intermediate element which is detachably connected to the wheel hub in a torsion-proof manner, wherein 1.3 a hollow shaft is pressed in a torsion-proof manner onto the intermediate element ; 1.4 the hollow shaft pressed onto the intermediate element forms an oil press fit with the intermediate element ; 1.5 the hollow shaft is connected in a torsion-proof manner to a transmission element for transmitting a torque to the wheel hub , characterized in that 1.6 the hollow shaft is at least indirectly connected in a torsion-proof manner to at least one further component for transmitting a torque to the wheel hub , wherein the at least one further component is screwed via a further hollow shaft to the hollow shaft , and 1.7 the further hollow shaft is formed in a concave manner in its cross-section. 1.1 a wheel hub revolving on a fixed shaft , and 1.2 an intermediate element which is detachably connected to the wheel hub in a torsion-proof manner, wherein 1.3 a hollow shaft is pressed in a torsion-proof manner onto the intermediate element ; 1.4 the hollow shaft pressed onto the intermediate element forms an oil press fit with the intermediate element ; 1.5 the hollow shaft is connected in a torsion-proof manner to a transmission element for transmitting a torque to the wheel hub , characterized in that 1.6 the hollow shaft is at least indirectly connected in a torsion-proof manner to at least one further component for transmitting a torque to the wheel hub , wherein the at least one further component is screwed via a further hollow shaft to the hollow shaft , and 1.7 the further hollow shaft is formed in a concave manner in its cross-section.
A device for continuously detecting and adjusting the printing parameters in a flexographic printing machine, the latter comprising a set of mutually tangent and counter-rotating rollers for transferring an ink film to a print medium , said device comprising: - means for detecting on said print medium the values of printing parameters such as at least the print density and colorimetric parameters; - control means for receiving said values detected by said detection means and comparing said detected values with predefined values of said printing parameters; characterised in that the device comprises at least one infrared radiation emission means (6-10), comprising an infrared lamp, configured to emit infrared radiation onto said ink film over the entire width of said ink film so as to favour its transmission onto said print medium wherein the control means are configured to activate said infrared radiation emission means (6-10) and to manage the intensity of said infrared radiation emission means in the case where said values detected differ from said predefined values, and wherein said control means comprise a PID controller, i.e. a proportional-integral-derivative controller. - means for detecting on said print medium the values of printing parameters such as at least the print density and colorimetric parameters; - control means for receiving said values detected by said detection means and comparing said detected values with predefined values of said printing parameters; characterised in that the device comprises at least one infrared radiation emission means (6-10), comprising an infrared lamp, configured to emit infrared radiation onto said ink film over the entire width of said ink film so as to favour its transmission onto said print medium wherein the control means are configured to activate said infrared radiation emission means (6-10) and to manage the intensity of said infrared radiation emission means in the case where said values detected differ from said predefined values, and wherein said control means comprise a PID controller, i.e. a proportional-integral-derivative controller.
A particulate laundry detergent composition comprising: i) one or more anionic and /or non-ionic surfactants; ii) a sulphated ethoxylated C 10 Guerbet alcohol surfactant with a number average degree of ethoxylation in the range of 2.5 to 6, wherein the weight ratio of total anionic and/or non-ionic surfactants to sulphated ethoxylated C 10 Guerbet alcohol surfactant is from 100:1 to 25:1. i) one or more anionic and /or non-ionic surfactants; ii) a sulphated ethoxylated C 10 Guerbet alcohol surfactant with a number average degree of ethoxylation in the range of 2.5 to 6, wherein the weight ratio of total anionic and/or non-ionic surfactants to sulphated ethoxylated C 10 Guerbet alcohol surfactant is from 100:1 to 25:1.
Rotary unit for an automobile seat, consisting of a first flange element lying at the bottom in the installation position and a second flange element arranged rotatably on the underlying flange element , wherein between the first and the second flange elements a first and second circular rolling body arrangement is provided with rolling element tracks having different track diameters, in order to mount the flange elements rotatably relative to one another, characterised in that a first radial outer rolling element track is defined in that one flange element encompasses and overlaps the other flange element around its outer edge, so that a rolling element track is formed in an overlapping area (b), wherein securing elements are provided for attachment to an vehicle seat frame lying radially inside with respect to the outer rolling element track on the flange elements .
A system for quality control during acquisition of a medical image, the system comprising: a processor configured to: evaluate noise sources which can adversely affect the quality of the medical image, the noise sources comprising at least two of: a device noise source induced by a medical imaging device during the acquisition of the medical image of a subject ; an operator noise source induced by an operator during the acquisition of the medical image; and a subject noise source induced by the subject during the acquisition of the medical image; determine and output a quality control indicator to the operator based on the evaluated noise sources; and characterized in that the processor is further configured to: identify one or more possible causes of noise which may result in artefacts in the medical image based on the evaluated noise sources. evaluate noise sources which can adversely affect the quality of the medical image, the noise sources comprising at least two of: a device noise source induced by a medical imaging device during the acquisition of the medical image of a subject ; an operator noise source induced by an operator during the acquisition of the medical image; and a subject noise source induced by the subject during the acquisition of the medical image; a device noise source induced by a medical imaging device during the acquisition of the medical image of a subject ; an operator noise source induced by an operator during the acquisition of the medical image; and a subject noise source induced by the subject during the acquisition of the medical image; determine and output a quality control indicator to the operator based on the evaluated noise sources; and characterized in that the processor is further configured to: identify one or more possible causes of noise which may result in artefacts in the medical image based on the evaluated noise sources.
Method for the micelle-mediated in situ extraction of hydrophobic compounds from cells, comprising (a) culturing cells in an aqueous medium such that hydrophobic compounds are produced; (b) adding to the cell-containing medium a surfactant in a concentration of 1-200-fold of the surfactant's critical micelle forming concentration (cmc) to form micelles that contain hydrophobic compounds; (c) conducting the cell-containing medium into a counter current extraction device to provide a medium flow; (d) contacting the medium flow in said extraction device with a flow of a liquid surfactant which comprises a concentration of more than 200-fold of the surfactant's cmc and which is conducted into said extraction device in counter current direction relative to the medium flow; (e) increasing the temperature in the said extraction device to a temperature which is higher than the surfactant's cloud point temperature (cpt) to separate an aqueous phase containing the cells from a surfactant-rich phase containing the micelles; (f) circulating the surfactant-rich phase which has passed through said extraction device back into the extraction device. (a) culturing cells in an aqueous medium such that hydrophobic compounds are produced; (b) adding to the cell-containing medium a surfactant in a concentration of 1-200-fold of the surfactant's critical micelle forming concentration (cmc) to form micelles that contain hydrophobic compounds; (c) conducting the cell-containing medium into a counter current extraction device to provide a medium flow; (d) contacting the medium flow in said extraction device with a flow of a liquid surfactant which comprises a concentration of more than 200-fold of the surfactant's cmc and which is conducted into said extraction device in counter current direction relative to the medium flow; (e) increasing the temperature in the said extraction device to a temperature which is higher than the surfactant's cloud point temperature (cpt) to separate an aqueous phase containing the cells from a surfactant-rich phase containing the micelles; (f) circulating the surfactant-rich phase which has passed through said extraction device back into the extraction device.
A fine particle comprising an identification information group including multiple types of identification information identifiable by magnification, wherein the identification information group includes first identification information and second identification information which cannot be identified at any magnifying power capable of identifying the first identification information , characterized in that the size of the first identification information and the size of the second identification information is 300 μm or less and the size of the second identification information is 0.4μm or more, the size of the second identification information is 1/10 or less relative to the size of the first identification information , and the particle diameter of the fine particle is 50 μm or more and 300 μm or less.