mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising: a valve actuator , comprising; an actuation element ; a first travel stop , wherein a first axial position of the first travel stop is configured to limit movement of the actuation element ; a second travel stop , wherein a second axial position of the second travel stop is configured to limit movement of the actuation element , wherein the first axial position of the first travel stop and the second axial position of the second travel stop are separately and independently adjustable; characterized by : a travel stop bushing configured to block adjustment of the first travel stop and allow adjustment of the second travel stop when the travel stop bushing is in a first axial orientation within the valve actuator and configured to enable adjustment of the first travel stop when the travel stop bushing is in a second axial orientation within the valve actuator . an actuation element ; a first travel stop , wherein a first axial position of the first travel stop is configured to limit movement of the actuation element ; a second travel stop , wherein a second axial position of the second travel stop is configured to limit movement of the actuation element , wherein the first axial position of the first travel stop and the second axial position of the second travel stop are separately and independently adjustable; characterized by : a travel stop bushing configured to block adjustment of the first travel stop and allow adjustment of the second travel stop when the travel stop bushing is in a first axial orientation within the valve actuator and configured to enable adjustment of the first travel stop when the travel stop bushing is in a second axial orientation within the valve actuator .
Workshop trolley with a carcass , which has an upper side , a lower side , a front and a rear side , as well as two opposing side surfaces , wherein at least one section of the upper side forms a work surface , and on the lower side are arranged wheels for the movement of the carcass , and at least one drawer is moveably arranged in the carcass , and/or at least one shelf compartment is formed in the carcass for the storage of tools, and the like, wherein the at least one drawer , and/or the at least one shelf compartment, are accessible from the front side , characterised in each case by, a bracket mounting , on the rear side , and/or on the at least one side surface , to which is attached at least one bracket , wherein the at least one bracket has a mounting end for connection to the bracket mounting , and an opposite holding end for holding items of work equipment , wherein the bracket mounting comprises a bracket rail on the rear side of the carcass, which rail runs parallel to the lower side and at a distance of 1 - 30 cm, in particular 10 - 20 cm, from the upper side , in particular it runs over the entire width of the rear side, that is to say, from one side surface to the other.
A printed decorative wall or floor covering comprising a polyvinyl chloride substrate coated with a primer layer, the polyvinyl chloride substrate coated with a primer carrying an aqueous print applied directly thereon, characterized in that said primer layer comprises from 40 to 80% by weight of one or more acrylic copolymers and from 15 to 35% by weight of silica.
Method for controlling a voltage (U L ) present at an electric fan during a startup of the fan , wherein the fan serves to generate a flow of air for cooling a device , comprising the following steps: - Application of an output voltage (U s ) of a power supply , which serves as the power supply of the device , to the fan ; and - Switching on and switching off of the output voltage (U s ) of the power supply applied to the fan by a switch pulse-width-modulated-controlled by means of a control unit , characterised by the following steps: - Acquisition of a fan voltage (U L ) present at the fan ; and - Calculation of the switch-on (t ON ) and switch-off times (T OFF ) of the output voltage (U s ) of the power supply applied to the fan as a function of the acquired fan voltage (U L ), so that the RMS value of the current flowing through the fan is lower than or equal to a rated current (I n ) of the fan. - Application of an output voltage (U s ) of a power supply , which serves as the power supply of the device , to the fan ; and - Switching on and switching off of the output voltage (U s ) of the power supply applied to the fan by a switch pulse-width-modulated-controlled by means of a control unit , - Acquisition of a fan voltage (U L ) present at the fan ; and - Calculation of the switch-on (t ON ) and switch-off times (T OFF ) of the output voltage (U s ) of the power supply applied to the fan as a function of the acquired fan voltage (U L ), so that the RMS value of the current flowing through the fan is lower than or equal to a rated current (I n ) of the fan.
Method for processing image data, comprising: providing high dynamic range image data (HDR); providing low dynamic range image data (LDR) of the high dynamic range image data (HDR); encoding (E7-E18) the low dynamic range image data (LDR) in a first code stream; processing the low dynamic range image data (LDR) so as to obtain a processed image (LDR*), this processing step comprising converting the low dynamic range image data into data having values in the range and floating point representation, selecting a component of the high dynamic image data (HDR) and a corresponding component of the processed low dynamic range image data (LDR*); calculating residual data of the selected component by dividing each pixel value of the selected component of the processed low dynamic range image data (LDR*) by a corresponding value of the corresponding component of the high dynamic range image data (HDR); scaling (E12) the residual data of the selected component into the range of values comprised between 0 and 1; gamma correcting (E13) the scaled residual data, wherein the step of gamma correcting the residual data comprises raising each component of the input scaled residual data to the power of 1/hdr_gamma, wherein hdr_gamma is calculated according to the following formula hdr_gamma = log min_ value log 0,5 wherein min _ value = 1 max _ HDR wherein max_HDR is the maximum pixel value of the input high dynamic range image data, encoding (E15-E17) the scaled residual data of the selected component in a residual code stream. providing high dynamic range image data (HDR); providing low dynamic range image data (LDR) of the high dynamic range image data (HDR); encoding (E7-E18) the low dynamic range image data (LDR) in a first code stream; processing the low dynamic range image data (LDR) so as to obtain a processed image (LDR*), this processing step comprising converting the low dynamic range image data into data having values in the range and floating point representation, selecting a component of the high dynamic image data (HDR) and a corresponding component of the processed low dynamic range image data (LDR*); calculating residual data of the selected component by dividing each pixel value of the selected component of the processed low dynamic range image data (LDR*) by a corresponding value of the corresponding component of the high dynamic range image data (HDR); scaling (E12) the residual data of the selected component into the range of values comprised between 0 and 1; gamma correcting (E13) the scaled residual data, wherein the step of gamma correcting the residual data comprises raising each component of the input scaled residual data to the power of 1/hdr_gamma, wherein hdr_gamma is calculated according to the following formula hdr_gamma = log min_ value log 0,5 wherein min _ value = 1 max _ HDR wherein max_HDR is the maximum pixel value of the input high dynamic range image data, encoding (E15-E17) the scaled residual data of the selected component in a residual code stream.
A system comprising: a controller for actuating a plurality of actuators of a molding machine in an actuation sequence, each distinct actuation of one of the actuators during the actuation sequence constituting a respective machine component actuation of an associated machine component; and a human-machine interface 'HMI' operable to: present a graphical user interface 'GUI' specific to a chosen machine component actuation; and for each of a plurality of other machine component actuations, define within the GUI, based on operator input, a rule specifying a temporal relationship between a state of the chosen machine component actuation relative to a state of the other machine component actuation for preventing interference between the two machine component actuations, wherein the temporal relationship is expressed using a BEFORE or AFTER operator; wherein the controller is configured, based on the rules defined within the GUI, to trigger an action, upon violation of any one of the rules, for reducing a risk of interference between the chosen machine component actuation and a respective one of the other machine component actuations. a controller for actuating a plurality of actuators of a molding machine in an actuation sequence, each distinct actuation of one of the actuators during the actuation sequence constituting a respective machine component actuation of an associated machine component; and a human-machine interface 'HMI' operable to: present a graphical user interface 'GUI' specific to a chosen machine component actuation; and for each of a plurality of other machine component actuations, define within the GUI, based on operator input, a rule specifying a temporal relationship between a state of the chosen machine component actuation relative to a state of the other machine component actuation for preventing interference between the two machine component actuations, wherein the temporal relationship is expressed using a BEFORE or AFTER operator; present a graphical user interface 'GUI' specific to a chosen machine component actuation; and for each of a plurality of other machine component actuations, define within the GUI, based on operator input, a rule specifying a temporal relationship between a state of the chosen machine component actuation relative to a state of the other machine component actuation for preventing interference between the two machine component actuations, wherein the temporal relationship is expressed using a BEFORE or AFTER operator; wherein the controller is configured, based on the rules defined within the GUI, to trigger an action, upon violation of any one of the rules, for reducing a risk of interference between the chosen machine component actuation and a respective one of the other machine component actuations.
A retractable thruster assembly for a marine vessel comprising: a propeller unit , a motor , a drive shaft linking the motor with the propeller unit to drive the propeller unit , a housing for locating the propeller unit in a storage configuration, the motor being fixed with respect to the housing , the housing being adapted to be fixed with respect to an opening in a hull of the marine vessel, an actuator operable to move the propeller unit from the storage configuration to a deployment configuration in a direction from inboard to outboard, the propeller unit being extended from the hull for use in the deployment configuration, wherein the drive shaft comprises a motor-side universal joint for attachment to the motor and a propeller-side universal joint for attachment to the propeller unit , the motor-side universal joint and the propeller-side universal joint permitting folding of the drive shaft at least in the storage configuration, the drive shaft further comprising: a motor-side telescopic section disposed adjacent the motor-side universal joint; a propeller-side telescopic section disposed adjacent the propeller-side universal joint; at least one intermediate telescopic section disposed between the motor-side telescopic section and the propeller-side telescopic section, wherein the motor-side telescopic section, the intermediate telescopic section and the propeller-side telescopic section are substantially coaxial and slidable relative to each other to accommodate an increase in distance between the propeller unit and the motor when the propeller unit is moved from the storage configuration to the deployment configuration, the drive shaft being capable of transmitting torque from the motor to the propeller unit via the motor-side telescopic section, the intermediate telescopic section and the propeller-side telescopic section at least when the propeller unit is in the deployment configuration.
An antibody-based molecule capable of binding to a phosphorylated {p} Ser404 epitope of Tau, wherein said molecule comprises a Variable Light (VL) polypeptide chain having the amino acid sequence of SEQ ID NO:9 and a Variable Heavy (VH) polypeptide chain having the amino acid sequence of SEQ ID NO:13; and wherein said epitope is within the sequence: TDHGAEIVYK {P} SPVVSGDT {P} SPRHL (SEQ ID NO:8) which consists of amino acids 386-408 of Tau wherein the residues at position 11 and 19 of SEQ ID NO:8, which correspond to positions 396 and 404 of Tau are phosphoserines.
A manufacturing device for a circular screen, comprising a feed unit for a sheet-metal strip ; at least one pair of counter-rotating gear wheels which are arranged and formed above and below the sheet-metal strip to be passed therethrough in such a manner that the sheet-metal strip upon passage therethrough is converted into a wave shape with wave crests and wave troughs ; and at least two rounding rollers which are designed and arranged beside the sheet-metal strip passing therethrough in such a manner that the sheet-metal strip is wound into a plurality of sheet-metal strip windings which describe a wavy line having wave crests and wave troughs and oscillating about a reference plane; and that adjacent sheet-metal strip windings abut one another such that screen openings are formed in radial direction; characterized in that the at least one pair of counter-rotating gear wheels has a gear wheel geometry which changes the cross-section of the sheet-metal strip such that, after passage of the sheet-metal strip through the at least two rounding rollers , the height of the wave crests and the wave troughs and thus the amplitude of the sheet-metal strip windings , in relation to the reference plane, increases radially outwards, so that the size of the screen openings increases radially outwards in the direction of flow therethrough; or the height of the wave crests and the wave troughs and thus the amplitude of the sheet-metal strip windings , in relation to the reference plane, increases radially inwards, so that the size of the screen openings increases radially inwards in the direction of flow therethrough.
A lifting unit for a probe used in a rotary ultrasonic testing apparatus , comprising: a lifting unit base ; a counterweight mechanism ; a hydraulic lifting mechanism for maneuvering the probe ; and a gear wheel positioned between the counterweight mechanism and the hydraulic lifting mechanism , wherein the counterweight mechanism comprises a first rack , wherein the hydraulic lifting mechanism comprises a second rack , and wherein the gear wheel is positioned between the first rack and the second rack . a lifting unit base ; a counterweight mechanism ; a hydraulic lifting mechanism for maneuvering the probe ; and a gear wheel positioned between the counterweight mechanism and the hydraulic lifting mechanism ,
Hoist drum for a fiber rope drive, having a drum jacket body for winding up the fiber rope , having guide plates encompassing the drum jacket body , and having a rope end fastening apparatus for fastening a rope end to the hoist drum, wherein the rope end fastening apparatus comprises two strand guiding passages that are disposed next to one another and that lead to a rope turning element at which the rope end can be turned around and back so that a respective rope strand comes to lie in the rope guiding passages , and furthermore comprises a clamping apparatus associated with the strand guiding passages for clamping at least the turned back rope strand in the strand guiding passage associated therewith, characterized in that the clamping apparatus is configured such, that the two rope strands can be acted on by different clamping forces, wherein the strand guiding passages and/or clamping jaws of the clamping apparatus are individually contoured in a manner differing from one another for each of the rope strands such that a rope leadthrough passage for one of the rope strands that is defined between the associated rope guiding passage and the clamping jaws has a larger height and/or a greater width and/or a larger cross-section than a rope guiding passage for the other rope strand that is defined between the associated rope guiding passage and the clamping jaws .
Device for controlling the tightness of a glue joint arranged between a part of a bodywork box and a body skin , the bodywork skin or part of the box being provided with at least one through orifice , known as a skin orifice or, respectively, box orifice , characterized in that it comprises at least one vacuum cover intended to cover said at least one skin orifice or, respectively, said at least one box orifice , delimited by two opposite free surfaces, known as the inner lid surface and the outer lid surface , the inner surface of the lid being fitted with two closed-contour gaskets, known as inner and outer lid gaskets respectively, the contour of the inner cover gasket being contained in that of the outer cover gasket , at least one suction duct of the lid opening, on the one hand, between the two lid gaskets on the side of the inner surface of the lid and, on the other hand, on the side of the external surface of lid going through the cover .
A method for power balancing a power grid having multiple phases and a common ground, the power grid being connected to at least one load causing a non-uniform power consumption between the multiple phases of the power grid, and the power grid is connectable to an external power grid, wherein the method comprises: - monitoring (S10) power provided to the power grid in a controller and monitoring (S11) power flow between the power grid and the external power grid, - storing (S30) available energy in the power grid in an energy storage using multiple inverters, each inverter being connected between the energy storage and each phase of the power grid, and determining a charge status of the energy storage, and - redistributing (S40) power between phases based on the charge status of the energy storage by controlling power flow through the inverters by the controller based on the non-uniform power consumption, characterized in that the at least one load comprises at least one controllable load, and the method further comprising: - adapting (S41) the power consumption of the at least one controllable load based on the power provided to the power grid and the charge status of the energy storage, and - limiting (S42) the power flow between the external power grid and the power grid when redistributing power between phases in the power grid. - monitoring (S10) power provided to the power grid in a controller and monitoring (S11) power flow between the power grid and the external power grid, - storing (S30) available energy in the power grid in an energy storage using multiple inverters, each inverter being connected between the energy storage and each phase of the power grid, and determining a charge status of the energy storage, and - redistributing (S40) power between phases based on the charge status of the energy storage by controlling power flow through the inverters by the controller based on the non-uniform power consumption, - adapting (S41) the power consumption of the at least one controllable load based on the power provided to the power grid and the charge status of the energy storage, and - limiting (S42) the power flow between the external power grid and the power grid when redistributing power between phases in the power grid.
A refrigeration apparatus comprising: a compressor including a compression mechanism that sucks and compresses a fluid, an electric motor , a drive shaft coupled to the electric motor to drive the compression mechanism , and a plain bearing that supports a journal portion of the drive shaft , wherein the journal portion of the drive shaft has a surface roughness Ra greater than or equal to 0.05 μm; and a refrigerant circuit to which the compressor is connected and which circulates a refrigerant to perform a refrigeration cycle; characterized in that it further comprises a bearing monitor configured to perform an abnormal-state operation to cope with poor lubrication on the plain bearing if an abnormal state condition indicating that a rate of change of current exceeds a first reference value is satisfied, the rate of change of current being an amount of change in a driving current for driving the compressor per unit time, the driving current of the compressor that is normally operating is defined as a rated current, and in that the bearing monitor is configured to calculate the rated current in an operating state of the compressor at a time of determination regarding whether the abnormal state condition is satisfied or not, and use, as the abnormal state condition, a condition that a value obtained by dividing the rate of change of current by the rated current calculated exceeds a second reference value. a refrigerant circuit to which the compressor is connected and which circulates a refrigerant to perform a refrigeration cycle; characterized in that it further comprises a bearing monitor configured to perform an abnormal-state operation to cope with poor lubrication on the plain bearing if an abnormal state condition indicating that a rate of change of current exceeds a first reference value is satisfied, the rate of change of current being an amount of change in a driving current for driving the compressor per unit time, the driving current of the compressor that is normally operating is defined as a rated current, and in that the bearing monitor is configured to calculate the rated current in an operating state of the compressor at a time of determination regarding whether the abnormal state condition is satisfied or not, and use, as the abnormal state condition, a condition that a value obtained by dividing the rate of change of current by the rated current calculated exceeds a second reference value.
Container for storing objects in the container interior , said container having side walls , at least one of said side walls having at least one metallically formed side wall section, said container having at least one UHF RFID antenna for emitting electromagnetic radiation of wavelength λ inside said container , said UHF RFID antenna being connectible to an RFID reading device , said container having at least one planar, electrically conductive structure, said electrically conductive structure being arranged at a distance from the metallically formed side wall section in the direction of the container interior , and wherein said planar, electrically conductive structure cyclically changes its position relative to the metallically formed side wall section and/or said planar electrically conductive structure cyclically changes its electrical properties, characterised in that the distance (d) between said electrically conductive structure and the metallically formed side wall section has a value not equal to λ/2 or not equal to a multiple of λ/2 and in that , in a plane parallel to the metallically formed side wall section, the electrical conductivity of the electrically conductive structure changes and/or a position of the electrically conductive structure varies and/or the electrically conductive structure is formed with a frequency-dependent reflection coefficient.