mhurhangee/patent-ind-claim-en huggingface dataset:
A pole for supporting at least one device thereon, the pole comprising: a post to support weight of the pole and to attach the at least one device thereto; and at least one cover at least partially covering at least one side of the post , the post and the at least one cover together defining at least part of a longitudinal channel in the pole to house the at least one device attached to the post ; wherein an edge of the cover is in pivotable engagement with the post to allow access to the post in the longitudinal channel , wherein the pivotable engagement comprises at least one hinge having a first hinge portion integral with the post and a second hinge portion integral with the cover such that the cover directly and pivotably engages the post without anything in between, wherein the first hinge portion and the second hinge portion each comprise detachably mating structures that rotatably engage each other over a predetermined angle of rotation between a closed position of the cover and a widest possible open position of the cover relative to the post ; characterized in that the pivotable engagement comprises a plurality of hinges provided one above another and spaced apart from each other by intervals greater than a length of one hinge such that the cover is slidable upwards or downwards depending on a location of the cover along a length of the pole to disengage the first hinge portions on the post from the second hinge portions on the cover , thereby allowing the cover to be laterally detached from the post . a post to support weight of the pole and to attach the at least one device thereto; and at least one cover at least partially covering at least one side of the post , the post and the at least one cover together defining at least part of a longitudinal channel in the pole to house the at least one device attached to the post ; wherein an edge of the cover is in pivotable engagement with the post to allow access to the post in the longitudinal channel , wherein the pivotable engagement comprises at least one hinge having a first hinge portion integral with the post and a second hinge portion integral with the cover such that the cover directly and pivotably engages the post without anything in between, wherein the first hinge portion and the second hinge portion each comprise detachably mating structures that rotatably engage each other over a predetermined angle of rotation between a closed position of the cover and a widest possible open position of the cover relative to the post ; characterized in that the pivotable engagement comprises a plurality of hinges provided one above another and spaced apart from each other by intervals greater than a length of one hinge such that the cover is slidable upwards or downwards depending on a location of the cover along a length of the pole to disengage the first hinge portions on the post from the second hinge portions on the cover , thereby allowing the cover to be laterally detached from the post .
Cleaning device for cleaning articles to be cleaned , said cleaning device comprising at least one cleaning chamber and at least one nozzle for applying at least one cleaning fluid to the articles to be cleaned within the cleaning chamber , and said cleaning device further comprising at least one temperature sensor , wherein the temperature sensor is arranged in at least one desired jet region of the nozzle , and said cleaning device further comprising a control unit , characterized in that the control unit is configured to analyse at least one sensor signal of the temperature sensor and to evaluate a jet behaviour of the nozzle on the basis of the sensor signal.
A method of designing a probe panel for a flow cytometer, the method comprising: determining a distortion factor that quantifies spillover effect caused by fluorescence emission of a first label, intended to be measured in a first channel, into a second channel; characterized by inputting a maximum expected signal of a first probe-label combination including the first label and a first probe; calculating an increase in detection limit in the second channel, wherein calculating an increase in detection limit comprises multiplying the distortion factor by the maximum expected signal of the first probe-label combination; and selecting a probe-label combination to include in the probe panel based on the calculated increase in detection limit. determining a distortion factor that quantifies spillover effect caused by fluorescence emission of a first label, intended to be measured in a first channel, into a second channel; characterized by inputting a maximum expected signal of a first probe-label combination including the first label and a first probe; calculating an increase in detection limit in the second channel, wherein calculating an increase in detection limit comprises multiplying the distortion factor by the maximum expected signal of the first probe-label combination; and selecting a probe-label combination to include in the probe panel based on the calculated increase in detection limit.
Filling level indicator for determining a filling level in a tank, comprising a sensor having a resistor network , having a contact element and having a magnetic element, wherein the contact element is arranged spaced apart from the resistor network , and the magnetic element is movable relative to the resistor network and the contact element , wherein, depending on a position of the magnetic element relative to the resistor network , an electrically conductive connection between the contact element and the resistor network can be produced by deflecting the contact element , and an electric signal can be generated permitting a direct statement regarding the filling level in the tank, characterized in that a spacer element made from plastic is arranged between the resistor network and the contact element , the spacer element being connected to the resistor network and/or to the contact element by means of hot calking.
A cross-country mounting plate system comprising: i) a cross-country binding , ii) a mounting plate with a bottom surface configured to be placed against the top surface of a cross-country ski, the mounting plate comprising longitudinal upward directed left and right side edges along the outer sides of the mounting plate, where the edges have laterally opposed undercuts that are configured to hold a cross-country ski binding with complementary undercuts , fixing the binding to the mounting plate in the vertical direction, iii) a rail , characterized in that: iv) the rail is interchangeable , where the interchangeable rail is either configured to be held fixed or configured to be movable in the longitudinal direction of a longitudinal channel , v) the mounting plate comprises the longitudinal channel configured to hold the interchangeable rail in the lateral direction, where the channel and the interchangeable rail is located between and distinct from the longitudinal upward directed left and right side edges along the outer sides of the mounting plate, vi) the interchangeable rail comprises a binding attachment mechanism configured to lock the ski binding to the rail in the longitudinal direction. i) a cross-country binding , ii) a mounting plate with a bottom surface configured to be placed against the top surface of a cross-country ski, the mounting plate comprising longitudinal upward directed left and right side edges along the outer sides of the mounting plate, where the edges have laterally opposed undercuts that are configured to hold a cross-country ski binding with complementary undercuts , fixing the binding to the mounting plate in the vertical direction, iii) a rail , iv) the rail is interchangeable , where the interchangeable rail is either configured to be held fixed or configured to be movable in the longitudinal direction of a longitudinal channel , v) the mounting plate comprises the longitudinal channel configured to hold the interchangeable rail in the lateral direction, where the channel and the interchangeable rail is located between and distinct from the longitudinal upward directed left and right side edges along the outer sides of the mounting plate, vi) the interchangeable rail comprises a binding attachment mechanism configured to lock the ski binding to the rail in the longitudinal direction.
A fixed multi-beam helical antenna stereoscopic array, said array comprising a plurality of helical antenna units , each helical antenna unit comprising: - a helical antenna comprising a plurality of loops, - a plurality of parallel flexible support wires being uniformly distributed around the axis of the helical antenna to support said helical antenna , said flexible support device further comprising a plurality of pitch fine-adjustment devices by which the flexible support wires are connected to the plurality of loops of the helical antenna , each pitch fine-adjustment device comprising an adjustment block fixed to the helical antenna , the flexible support wire being provided through the adjustment block , and the adjustment block being axially movable along the flexible support wire to achieve fine-adjustment of pitch, the array further comprising a frustum structure , said frustum structure comprising a top surface and a plurality of side surfaces , upper ends of said side surfaces being connected to edges of the top surface , a side edge of a side surface being connected to a side edge of the adjacent side surface , wherein the helical antenna units are respectively provided on the top surface and the side surfaces , the bottom of the helical antenna of each helical antenna unit being respectively mounted on the top surface or on the side surfaces . - a helical antenna comprising a plurality of loops, - a plurality of parallel flexible support wires being uniformly distributed around the axis of the helical antenna to support said helical antenna , said flexible support device further comprising a plurality of pitch fine-adjustment devices by which the flexible support wires are connected to the plurality of loops of the helical antenna , each pitch fine-adjustment device comprising an adjustment block fixed to the helical antenna , the flexible support wire being provided through the adjustment block , and the adjustment block being axially movable along the flexible support wire to achieve fine-adjustment of pitch, the array further comprising a frustum structure , said frustum structure comprising a top surface and a plurality of side surfaces , upper ends of said side surfaces being connected to edges of the top surface , a side edge of a side surface being connected to a side edge of the adjacent side surface , wherein the helical antenna units are respectively provided on the top surface and the side surfaces , the bottom of the helical antenna of each helical antenna unit being respectively mounted on the top surface or on the side surfaces .
A micropump, comprising: a substrate ; and a membrane attached to the substrate , wherein the membrane is deformable away from the substrate to increase a volume enclosed by the substrate and the membrane , wherein a portion of the membrane is configured to be an inlet for entry into the volume, characterized in that the inlet comprises a folded-in portion of a suitably shaped section of a perimeter of the membrane . a substrate ; and a membrane attached to the substrate , wherein the membrane is deformable away from the substrate to increase a volume enclosed by the substrate and the membrane , wherein a portion of the membrane is configured to be an inlet for entry into the volume,
An information indication method, wherein the method comprises: determining (S301), by a base station, that a port used to transmit a first reference signal and a port used to transmit a second reference signal are multiplexed onto a multiplexed port, wherein, each port refers to a time-frequency location on an OFDM symbol of the corresponding reference signal; generating (S303), by the base station, information indicating multiplexing of the ports, and sending (S304) the information indicating multiplexing of the ports; and sending (S302), by the base station, the first reference signal and the second reference signal on the multiplexed port; wherein a same analog beam is used for the port used to transmit the first reference signal and the port used to transmit the second reference signal; wherein the first reference signal and the second reference signal are a DMRS signal and a CSI-RS signal respectively. determining (S301), by a base station, that a port used to transmit a first reference signal and a port used to transmit a second reference signal are multiplexed onto a multiplexed port, wherein, each port refers to a time-frequency location on an OFDM symbol of the corresponding reference signal; generating (S303), by the base station, information indicating multiplexing of the ports, and sending (S304) the information indicating multiplexing of the ports; and sending (S302), by the base station, the first reference signal and the second reference signal on the multiplexed port; wherein a same analog beam is used for the port used to transmit the first reference signal and the port used to transmit the second reference signal; wherein the first reference signal and the second reference signal are a DMRS signal and a CSI-RS signal respectively.
A method for controlling a food handling system comprising a number of food production units by using an operator carried device , the method comprising: receiving (S402) process data by a server , wherein the process data is extracted from the food handling system , wherein the process data comprises parameter values captured via sensors provided in the food production units , requesting (S404) user input data by transmitting a user input data request to the operator carried device , wherein the user input data request is dynamically determined based on the process data, receiving (S406) the user input data via the operator carried device , wherein the user input data is requested to fill any information gaps formed by the process data, determining (S408) control data based on the process data and the user input data, transmitting (S410) the control data to the food production units , and updating (S412) settings in the food production units based on the control data, comparing the user input data with reference user input data; if the user input data differs from a predetermined input range associated to the reference user input data, stopping the food handling system. receiving (S402) process data by a server , wherein the process data is extracted from the food handling system , wherein the process data comprises parameter values captured via sensors provided in the food production units , requesting (S404) user input data by transmitting a user input data request to the operator carried device , wherein the user input data request is dynamically determined based on the process data, receiving (S406) the user input data via the operator carried device , wherein the user input data is requested to fill any information gaps formed by the process data, determining (S408) control data based on the process data and the user input data, transmitting (S410) the control data to the food production units , and updating (S412) settings in the food production units based on the control data, comparing the user input data with reference user input data; if the user input data differs from a predetermined input range associated to the reference user input data, stopping the food handling system.
Method for measuring at least one optically active object having an upper side and a lower side , wherein the at least one optically active object is irradiated with a measurement radiation and the radiation resulting therefrom is measured, wherein at least one measurement radiation passing through the optically active object is used as measurement radiation and the transmission radiation is measured and/or detected as resulting radiation, wherein furthermore at least one excitation radiation for exciting luminescence radiation in the material of the optically active object and/or in the material of a coating of the optically active object is used as measurement radiation and the luminescence radiation is measured and/or detected as resulting radiation, wherein the resulting luminescence radiation is used for triangulation of the surface(s) of the irradiated upper side and/or of the irradiated lower side of the optically active object , and wherein the resulting transmission radiation is used for determining the refractive power of the optically active object and/or of characteristic variables of the optically active object . wherein at least one measurement radiation passing through the optically active object is used as measurement radiation and the transmission radiation is measured and/or detected as resulting radiation, wherein furthermore at least one excitation radiation for exciting luminescence radiation in the material of the optically active object and/or in the material of a coating of the optically active object is used as measurement radiation and the luminescence radiation is measured and/or detected as resulting radiation, wherein the resulting luminescence radiation is used for triangulation of the surface(s) of the irradiated upper side and/or of the irradiated lower side of the optically active object , and wherein the resulting transmission radiation is used for determining the refractive power of the optically active object and/or of characteristic variables of the optically active object .
Agricultural product burying unit for agricultural machine, configured so as to be mounted in a fixed manner relative to the agricultural machine, the burying unit including a reference device , a burying device , the reference device being configured to rest on the ground in the work configuration and form a depth positioning reference for the burying device, the burying device being configured to bury an agricultural product in the work configuration, characterized in that as the reference device is configured to be mounted in an articulated manner directly on a reference which is fixed relative to the agricultural machine, the reference device is configured to weigh (P) on the burying device in the work configuration, the reference device forming a first means of applying a bearing force on the burying device .
A method for culturing mesenchymal stem cells, comprising culturing mesenchymal stem cells in a medium containing calcium in a concentration of from 3.3 to 3.8 mM and magnesium in a concentration of from 1.0 to 3.0 mM under a hypoxic condition of 2 to 5 % oxygen.
A composition comprising an effective amount of an apelin peptide that is at least partially encapsulated in a liposome comprising an amount of at least one poloxamer, 1,2-distearoyl-sn-glycero-3-phosphocholine (DSPC), 1,2-Dipalmitoyl-sn-glycero-3-phosphocholine (DPPC), and a polyethylene glycol (PEG), wherein the amount of the at least one poloxamer is between about 1 wt% and about 20 wt%, wherein the amount of DSPC is between about 5 wt% and about 30 wt%, wherein the amount of DPPC is between about 5 wt% and about 30 wt%, and wherein the amount of the PEG is between about 10 wt% and about 20 wt%. wherein the amount of the at least one poloxamer is between about 1 wt% and about 20 wt%, wherein the amount of DSPC is between about 5 wt% and about 30 wt%, wherein the amount of DPPC is between about 5 wt% and about 30 wt%, and wherein the amount of the PEG is between about 10 wt% and about 20 wt%.
A computer-implemented method for determining an index representing the sympathovagal activity of an individual or of a competition animal, said method comprising the following steps: - receiving a sequence with a plurality of measurements, called R-R measurements, of the time interval between two consecutive heartbeats of the individual or of the competition animal, the method being characterised in that it further comprises: - constructing a first sub-sequence made up of the positive deviations between two consecutive values of said received sequence; - constructing a second sub-sequence made up of the absolute values of the negative deviations between two consecutive values of said received sequence; - computing an index equal to a value representing the comparison between the result of a statistical function applied to the values of the first sub-sequence and the result of said statistical function applied to the values of the second sub-sequence. - receiving a sequence with a plurality of measurements, called R-R measurements, of the time interval between two consecutive heartbeats of the individual or of the competition animal, the method being characterised in that it further comprises: - constructing a first sub-sequence made up of the positive deviations between two consecutive values of said received sequence; - constructing a second sub-sequence made up of the absolute values of the negative deviations between two consecutive values of said received sequence; - computing an index equal to a value representing the comparison between the result of a statistical function applied to the values of the first sub-sequence and the result of said statistical function applied to the values of the second sub-sequence.
Actuator subassembly (10; 20; 30; 40; 50) comprising: - a first (11; 21; 31; 41; 51; 61) and second (12; 22; 32; 42; 52; 62) stationary surface, - a first (13; 23; 33; 43; 53; 63) and second (14; 24; 34; 44; 54; 64) movable element, - a shape memory alloy wire (15; 35; 45; 65) fixed onto said first stationary surface (11; 21; 31; 41; 51; 61) and connected to said first movable element (13; 23; 33; 43; 53; 63) to move it from a rest position to an operative position, - a biasing means (16; 26; 36; 46; 56; 66) connected to one of said stationary surfaces and to one of said movable elements so as to act in opposition to the driving force exerted by said shape memory alloy wire (15; 35; 45; 65), the first (13; 23; 33; 43; 53; 63) and second (14; 24; 34; 44; 54; 64) movable elements being connected by a magnetic coupling via magnetic responsive elements (17, 17'; 27, 27'; 37, 37'; 47, 47'; 57, 57'; 67, 67') comprising one or more sets of permanent magnets on one of the movable elements and one or more corresponding magnetic responsive elements on the other movable element, so that the displacement of the first movable element (13; 23; 33; 43; 53; 63) upon actuation of the shape memory alloy wire (15; 35; 45; 65) results also in the displacement of the second movable element (14; 24; 34; 44; 54; 64) from a rest position to an operative position, said magnetic coupling also providing for the return of both movable elements to their rest positions by the biasing means (16; 26; 36; 46; 56; 66) upon de-actuation of the shape memory alloy wire (15;35; 45; 65), the second stationary surface (12; 22; 32; 42; 52; 62) being interposed between the first (13; 23; 33; 43; 53; 63) and second (14; 24; 34; 44; 54; 64) movable elements separating them, preferably in a fluid-tight manner, characterized in that both extremities of the shape memory alloy wire (15; 35; 45; 65) are fixed to the first stationary surface (11; 21; 31; 41; 51; 61) and its median portion is connected to the first movable element (13; 23; 33; 43; 53; 63) in a V-shape or U-shape configuration. - a first (11; 21; 31; 41; 51; 61) and second (12; 22; 32; 42; 52; 62) stationary surface, - a first (13; 23; 33; 43; 53; 63) and second (14; 24; 34; 44; 54; 64) movable element, - a shape memory alloy wire (15; 35; 45; 65) fixed onto said first stationary surface (11; 21; 31; 41; 51; 61) and connected to said first movable element (13; 23; 33; 43; 53; 63) to move it from a rest position to an operative position, - a biasing means (16; 26; 36; 46; 56; 66) connected to one of said stationary surfaces and to one of said movable elements so as to act in opposition to the driving force exerted by said shape memory alloy wire (15; 35; 45; 65),