mhurhangee/patent-ind-claim-en huggingface dataset:
A display system for displaying a product, the system comprising: a retainer for retaining the product, the retainer comprising: a retainer body having at least one first magnet coupled thereto; and a bracket attached to the retainer body , the bracket comprising at least two bracket arms configured to extend around opposing sides of the product; and a hollow display stem defined by a stem wall and a passage , the passage comprising a recess defined by the display stem and located at a proximal end thereof, the recess defining a top opening located at the top of the recess and configured to receive the retainer body , and a bottom opening that connects the recess to the rest of the passage located at the bottom of the recess , wherein the recess comprises an inner wall that is shaped to receive at least a portion of the retainer body ; and at least one second magnet disposed adjacent to the recess , wherein the at least one second magnet forms a portion of the inner wall or the at least one second magnet comprises a plurality of second magnets disposed below the inner wall , wherein the at least one first magnet is configured to cause rotation of the retainer body to a predefined orientation when at least a portion of the retainer body is disposed within the recess of the display stem , if the retainer body is not in the predefined orientation, and wherein the at least one first magnet is configured to cause the rotation by magnetic attraction to the at least one second magnet . a retainer for retaining the product, the retainer comprising: a retainer body having at least one first magnet coupled thereto; and a bracket attached to the retainer body , the bracket comprising at least two bracket arms configured to extend around opposing sides of the product; and a retainer body having at least one first magnet coupled thereto; and a bracket attached to the retainer body , the bracket comprising at least two bracket arms configured to extend around opposing sides of the product; and a hollow display stem defined by a stem wall and a passage , the passage comprising a recess defined by the display stem and located at a proximal end thereof, the recess defining a top opening located at the top of the recess and configured to receive the retainer body , and a bottom opening that connects the recess to the rest of the passage located at the bottom of the recess , wherein the recess comprises an inner wall that is shaped to receive at least a portion of the retainer body ; and at least one second magnet disposed adjacent to the recess , wherein the at least one second magnet forms a portion of the inner wall or the at least one second magnet comprises a plurality of second magnets disposed below the inner wall , wherein the at least one first magnet is configured to cause rotation of the retainer body to a predefined orientation when at least a portion of the retainer body is disposed within the recess of the display stem , if the retainer body is not in the predefined orientation, and wherein the at least one first magnet is configured to cause the rotation by magnetic attraction to the at least one second magnet .
Method of upgrading a knuckle-boom crane to a heave-compensating crane , the method comprising: - providing a knuckle-boom crane having a crane base , a main boom pivotably mounted to the crane base , and a knuckle-boom pivotably mounted to the main boom , the knuckle-boom being actuated by an actuator mounted between the main boom and the knuckle-boom ; - removing the knuckle-boom from the main boom ; - mounting a main boom extension to the main boom for increasing the length of the main boom , wherein the actuator is replaced with a mounting bar connecting the main boom and the main boom extension ; - mounting a heave-compensating boom at a far end of the main boom extension such that the heave-compensating boom extends in a downward vertical direction (Z) in operational use of the heave-compensating crane , wherein the heave-compensating boom is configured to be pivotable with respect to the main boom extension in both horizontal directions (X, Y) defined with respect to the downward vertical direction (Z), and - providing a heave-compensation system to the knuckle-boom crane , wherein the heave-compensation system is configured for compensating for horizontal variations by controlling the orientation of the heave-compensating boom relative to the main boom extension , and for compensating the vertical variations by means of a further vertical heave-compensation system, such as a winch-based heave-compensation system. - providing a knuckle-boom crane having a crane base , a main boom pivotably mounted to the crane base , and a knuckle-boom pivotably mounted to the main boom , the knuckle-boom being actuated by an actuator mounted between the main boom and the knuckle-boom ; - removing the knuckle-boom from the main boom ; - mounting a main boom extension to the main boom for increasing the length of the main boom , wherein the actuator is replaced with a mounting bar connecting the main boom and the main boom extension ; - mounting a heave-compensating boom at a far end of the main boom extension such that the heave-compensating boom extends in a downward vertical direction (Z) in operational use of the heave-compensating crane , wherein the heave-compensating boom is configured to be pivotable with respect to the main boom extension in both horizontal directions (X, Y) defined with respect to the downward vertical direction (Z), and - providing a heave-compensation system to the knuckle-boom crane , wherein the heave-compensation system is configured for compensating for horizontal variations by controlling the orientation of the heave-compensating boom relative to the main boom extension , and for compensating the vertical variations by means of a further vertical heave-compensation system, such as a winch-based heave-compensation system.
Method for automatically adapting at least one adaptable process parameter of a tooling machine having at least one material removing tool, the tooling machine being part of a manufacturing process for physically processing input work pieces into output work pieces , the method comprising • a coordinative measurement of at least one geometric feature of an output work piece by a coordinate measuring machine, the geometric feature being a direct or indirect result of the processing with the tool, characterized by • inputting measured coordinate data of the coordinative measurement and nominal geometric data of the geometric feature into a deterministic digital simulation of at least a part of the manufacturing process with a digital model , of the tooling machine and modelled process parameters, therein the adaptable process parameter of the tooling machine, simulating at least a deterministic behavior of the tooling machine relevant for an operation of its tool, • running the simulation with varying of at least one of the modelled process parameters with the objective to emulate the measured coordinate data , • deriving from the simulation with thus adapted modelled process parameters and based on the nominal geometric data of the geometric feature an adapted value for the adaptable process parameter which enables an adapted operation of the tooling machine with respect to its tool resulting in a reduced difference between real and nominal geometric data of the geometric feature. • a coordinative measurement of at least one geometric feature of an output work piece by a coordinate measuring machine, the geometric feature being a direct or indirect result of the processing with the tool, • inputting measured coordinate data of the coordinative measurement and nominal geometric data of the geometric feature into a deterministic digital simulation of at least a part of the manufacturing process with a digital model , of the tooling machine and modelled process parameters, therein the adaptable process parameter of the tooling machine, simulating at least a deterministic behavior of the tooling machine relevant for an operation of its tool, • running the simulation with varying of at least one of the modelled process parameters with the objective to emulate the measured coordinate data , • deriving from the simulation with thus adapted modelled process parameters and based on the nominal geometric data of the geometric feature an adapted value for the adaptable process parameter which enables an adapted operation of the tooling machine with respect to its tool resulting in a reduced difference between real and nominal geometric data of the geometric feature.
A rubber composition comprising a diene rubber containing at least one styrene-butadiene copolymer and a reinforcing filler, wherein a styrene-butadiene copolymer component including the at least one type of styrene-butadiene copolymer satisfies all of the characteristics of to : a bonded styrene content is from 5 to 50 wt.%; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total amount of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total amount of styrene of the decomposed component S1V1 is not less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer (LCMS), an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is less than 15% of an integrated intensity of all decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%. a bonded styrene content is from 5 to 50 wt.%; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total amount of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total amount of styrene of the decomposed component S1V1 is not less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer (LCMS), an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is less than 15% of an integrated intensity of all decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%.
A chimeric polynucleotide encoding a CyaA-derived protein wherein said CyaA-derived protein comprises or consists of: 1) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO : 2, the sequence of said fragment beginning with the first residue of SEQ ID NO:2 and ending with a residue located from position 183 to position 227 of SEQ ID NO:2, fused to 2) A polynucleotide encoding a heterologous polypeptide containing an E7 antigen of HPV or an antigenic fragment thereof wherein said heterologous polypeptide has a negative electrostatic charge fused to 3) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO : 2, the sequence of said fragment beginning with a residue located from position 321 to position 387 of SEQ ID NO:2 and ending with the last residue of SEQ ID NO:2. 1) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO : 2, the sequence of said fragment beginning with the first residue of SEQ ID NO:2 and ending with a residue located from position 183 to position 227 of SEQ ID NO:2, fused to 2) A polynucleotide encoding a heterologous polypeptide containing an E7 antigen of HPV or an antigenic fragment thereof wherein said heterologous polypeptide has a negative electrostatic charge fused to 3) a fragment of the Bordetella pertussis CyaA protein as set forth in SEQ ID NO : 2, the sequence of said fragment beginning with a residue located from position 321 to position 387 of SEQ ID NO:2 and ending with the last residue of SEQ ID NO:2.
An ideal diode circuit comprising: a first transistor (M1), coupled between an anode terminal and a cathode terminal of the ideal diode circuit, and including a control terminal; a second transistor (M2) having a first terminal coupled to the cathode terminal, a second terminal, and a control terminal coupled to a circuit feedback loop to cause a voltage across a capacitor (C1) to equal a clamped voltage; the capacitor being arranged between the anode terminal and the second terminal of the second transistor; and a first differential amplifier (A1) having differential input terminals and an output terminal, the differential input terminals coupled to the anode terminal and to the second terminal of the second transistor such that the second transistor is arranged between the cathode terminal and one of the differential input terminals, and the output terminal coupled to the control terminal of the first transistor to control the first transistor to be on when an anode voltage at the anode terminal is greater than a cathode voltage at the cathode terminal, and off when the anode voltage is less than the cathode voltage, wherein the first differential amplifier further includes power terminals (VSUP) coupled across the capacitor and referenced to the anode voltage at the anode terminal. a first transistor (M1), coupled between an anode terminal and a cathode terminal of the ideal diode circuit, and including a control terminal; a second transistor (M2) having a first terminal coupled to the cathode terminal, a second terminal, and a control terminal coupled to a circuit feedback loop to cause a voltage across a capacitor (C1) to equal a clamped voltage; the capacitor being arranged between the anode terminal and the second terminal of the second transistor; and a first differential amplifier (A1) having differential input terminals and an output terminal, the differential input terminals coupled to the anode terminal and to the second terminal of the second transistor such that the second transistor is arranged between the cathode terminal and one of the differential input terminals, and the output terminal coupled to the control terminal of the first transistor to control the first transistor to be on when an anode voltage at the anode terminal is greater than a cathode voltage at the cathode terminal, and off when the anode voltage is less than the cathode voltage, wherein the first differential amplifier further includes power terminals (VSUP) coupled across the capacitor and referenced to the anode voltage at the anode terminal.
A displacement detector system for detecting displacement of a surveyed object, comprising: a mounting bracket ; and a sensor assembly including: a housing , and a sensor module in the housing , wherein the sensor module comprises a time-of-flight sensor , wherein the sensor assembly can be rotated with respect to the mounting bracket to adjust an optical axis of the sensor module to ensure that a beam of light emitted by the time-of-flight sensor impinges upon the surveyed object, wherein displacement of the surveyed object is detected when a difference between a new and an average distance to the surveyed object is beyond a threshold, and wherein the sensor module is configured to generate an alarm signal in response to detecting displacement of the surveyed object. a mounting bracket ; and a sensor assembly including: a housing , and a sensor module in the housing , wherein the sensor module comprises a time-of-flight sensor , wherein the sensor assembly can be rotated with respect to the mounting bracket to adjust an optical axis of the sensor module to ensure that a beam of light emitted by the time-of-flight sensor impinges upon the surveyed object, wherein displacement of the surveyed object is detected when a difference between a new and an average distance to the surveyed object is beyond a threshold, and wherein the sensor module is configured to generate an alarm signal in response to detecting displacement of the surveyed object.
A device for determining a blood group antigen in a liquid sample, comprising a separation matrix having at least one indicator zone, characterised in that the indicator zone comprises a first antibody directed against the blood group antigen, or a fragment thereof, and a binding element directed against the first antibody, wherein the first antibody is an incomplete antibody.
A dentifrice comprising: an ionic tin source; and an antibacterial system comprising: caprylyl glycol in an amount of from 0.01% to 1.2% by weight of the composition; and 3-phenyl-1-propanol in an amount of from 0.01% to 0.2% by weight of the composition. an ionic tin source; and an antibacterial system comprising: caprylyl glycol in an amount of from 0.01% to 1.2% by weight of the composition; and 3-phenyl-1-propanol in an amount of from 0.01% to 0.2% by weight of the composition. caprylyl glycol in an amount of from 0.01% to 1.2% by weight of the composition; and 3-phenyl-1-propanol in an amount of from 0.01% to 0.2% by weight of the composition.
Sanitary fitting having a spout , an electrically controlled valve mixer having a cold water inlet , a hot water inlet and a mixed water outlet which is in fluidic communication with the spout , an operating element having a sensor arrangement , and an electronic controller which actuates the valve mixer on the basis of electrical signals of the sensor arrangement , with the result that cold water, hot water or mixed water having a desired flow rate value and/or having a desired temperature is supplied to the spout , characterised in that the operating element has a temperature slider , which is movable back and forth along a first path of movement , and a flow rate slider , which is movable back and forth along a second path of movement , and the sensor arrangement has a first sensor which, in dependence upon the location of the temperature slider , generates a corresponding electrical temperature signal, and a second sensor which, in dependence upon the location of the flow rate slider , generates a corresponding electrical flow rate signal, and the controller actuates the valve mixer on the basis of the temperature signal and the flow rate signal.
An agent for use in preventing or ameliorating an ischemic disease, stiff shoulders due to vascular endothelial malfunction, excessive sensitivity to cold due to vascular endothelial malfunction, swelling due to vascular endothelial malfunction or erectile dysfunction, comprising citrulline or a salt thereof and glutathione or a salt thereof as active ingredients.
A ventilator system comprising a ventilator , a nebulizer , and an interface comprising a controller , and the interface linking said ventilator with said nebulizer in a manner allowing control of at least some operations of the nebulizer by the ventilator controller, wherein the interface comprises a coupler to the ventilator , a cable linking said coupler to the interface controller , and a cable linking said interface controller to a coupler for fitting to the nebulizer , wherein the interface controller is configured to receive power from the ventilator and to use said power to drive the nebulizer, wherein the interface controller is configured to perform phasic delivery control of the nebulizer in response to commands from the ventilator, wherein the interface controller is configured to implement a time-out monitor in which it generates a command to cease nebulization if a start command has not been received from the ventilator controller before expiry of a time-out period, wherein the interface controller is configured to generate a nebulization re-start command each time a valid start command from the ventilator controller is received, wherein the interface controller is configured to operate as a slave device, with a dosing regime determined by the ventilator controller. and an interface comprising a controller , and the interface linking said ventilator with said nebulizer in a manner allowing control of at least some operations of the nebulizer by the ventilator controller, wherein the interface comprises a coupler to the ventilator , a cable linking said coupler to the interface controller , and a cable linking said interface controller to a coupler for fitting to the nebulizer , wherein the interface controller is configured to receive power from the ventilator and to use said power to drive the nebulizer, wherein the interface controller is configured to perform phasic delivery control of the nebulizer in response to commands from the ventilator, wherein the interface controller is configured to implement a time-out monitor in which it generates a command to cease nebulization if a start command has not been received from the ventilator controller before expiry of a time-out period, wherein the interface controller is configured to generate a nebulization re-start command each time a valid start command from the ventilator controller is received, wherein the interface controller is configured to operate as a slave device, with a dosing regime determined by the ventilator controller.
A manufacturing method of a spectacle lens (LB) provided with a hidden marking (MH), the manufacturing method comprising: setting a forming position of the hidden marking to a certain position; changing the forming position of the hidden marking based on at least one parameter selected from a parameter calculated from an interpupillary distance of the wearer and a spectacle frame center distance and a parameter calculated from an eye point of the wearer, a spectacle frame center, and a prism reference point; and forming the changed hidden marking, characterized in that the changing of the forming position of the hidden marking includes changing forming positions of a plurality of hidden markings other than the alignment reference marking to positions that are shifted in an identical direction by an identical distance. setting a forming position of the hidden marking to a certain position; changing the forming position of the hidden marking based on at least one parameter selected from a parameter calculated from an interpupillary distance of the wearer and a spectacle frame center distance and a parameter calculated from an eye point of the wearer, a spectacle frame center, and a prism reference point; and forming the changed hidden marking, characterized in that the changing of the forming position of the hidden marking includes changing forming positions of a plurality of hidden markings other than the alignment reference marking to positions that are shifted in an identical direction by an identical distance.
A packaging for a fluid filter element , preferably of the type employed in filtering oil or fuel, in particular for an automotive engine, comprising at least a first packaging part and a second packaging part , wherein said first packaging part and said second packaging part are adapted to cooperate to define a receiving chamber for receiving therein said fluid filter element , characterised in that the packaging , preferably the first packaging part , forms a funnel for filling said fluid filter element with fluid; the funnel having a first orifice serving as a funnel inlet and at least one second orifice serving as a funnel outlet, wherein the second orifice is present at a connecting pipe section of the funnel , that is adapted to be sealingly connected with an inlet of said filter element .