mhurhangee/ep-ind-claims huggingface dataset:
A frame assembly (11, 11a) for a picture frame comprising: a plurality (10, 30) of connected profile members (12, 32), each profile member (12, 32) being formed from a substantially planar sheet of material folded to form a rebate at a rear surface of the profile member (12, 32), wherein each planar sheet has at least two grooves formed in a surface to facilitate folding; and a backing member mounted to the plurality of connected profile members (12, 32) to be supported within a recess formed at a rear surface of the connected profile members (12, 32), said recess being defined by the rebates of the profile members (12, 32); wherein the planar sheet of each profile member (12, 32) is folded to define a front portion (10a, 30a, 44), an outer side portion (24, 42) and an inner side portion (22, 46) of the plurality (10, 30) of connected profile members (12, 32), wherein the rebate is formed by a difference in length between the outer side portion (24, 42) and the inner side portion (22, 46) of each folded profile member (12, 32), the inner side portion (22, 46) comprising an end forming the rebate. a plurality (10, 30) of connected profile members (12, 32), each profile member (12, 32) being formed from a substantially planar sheet of material folded to form a rebate at a rear surface of the profile member (12, 32), wherein each planar sheet has at least two grooves formed in a surface to facilitate folding; and a backing member mounted to the plurality of connected profile members (12, 32) to be supported within a recess formed at a rear surface of the connected profile members (12, 32), said recess being defined by the rebates of the profile members (12, 32); wherein the planar sheet of each profile member (12, 32) is folded to define a front portion (10a, 30a, 44), an outer side portion (24, 42) and an inner side portion (22, 46) of the plurality (10, 30) of connected profile members (12, 32), wherein the rebate is formed by a difference in length between the outer side portion (24, 42) and the inner side portion (22, 46) of each folded profile member (12, 32), the inner side portion (22, 46) comprising an end forming the rebate.
A toy comprising a central unit and at least one peripheral unit which is operatively coupled to said central unit, wherein the central unit is arranged to establish Near Field Communication, NFC, with the peripheral unit, and wherein the central unit is further arranged to control one or more functions of the peripheral unit in dependence on control data received, via NFC, from said peripheral unit, characterised in that the toy also comprises at least one further peripheral unit, wherein the central unit is further arranged to control one or more functions of the further peripheral unit in dependence on control data received, via NFC, from said further peripheral unit, wherein the peripheral unit and the further peripheral unit comprise a functional component (212,222) which is arranged to perform or support said functions and an NFC tag (210,220) that contains said control data, and wherein the central unit is arranged to control the operation of the functional component of the peripheral unit and the functional component of the further peripheral unit using the control data received from said peripheral unit, respectively the control data received from said further peripheral unit.
Method of high-resolution imaging of a structure marked with luminescence markers (56, 57) in a sample, - wherein light, which has an effect on the emission of luminescence light by the luminescence markers (56, 57), is directed onto the sample with an intensity distribution having a zero point neighboured by intensity maxima, - wherein partial areas to be scanned of the sample are scanned with the zero point, and - wherein luminescence light emitted out of the area of the zero point is registered and assigned to the location of the zero point in the sample, characterised in - that several copies of an object of interest are each arranged overlapping with one of the partial areas to be scanned of the sample, - that the several copies of the object of interest are subjected to varied surrounding conditions to monitor reactions of the object of interest resulting therefrom, wherein the individual partial areas of the sample are scanned during, and/or prior to and after the varied surrounding conditions with the respective zero point, and - that dimensions of the partial areas to be scanned of the sample are delimited in at least one direction, in which the intensity maxima are neighbouring the zero point in the sample, such that they are not larger than 75 % of a distance (D 0) of the intensity maxima in this direction. - wherein light, which has an effect on the emission of luminescence light by the luminescence markers (56, 57), is directed onto the sample with an intensity distribution having a zero point neighboured by intensity maxima, - wherein partial areas to be scanned of the sample are scanned with the zero point, and - wherein luminescence light emitted out of the area of the zero point is registered and assigned to the location of the zero point in the sample, characterised in - that several copies of an object of interest are each arranged overlapping with one of the partial areas to be scanned of the sample, - that the several copies of the object of interest are subjected to varied surrounding conditions to monitor reactions of the object of interest resulting therefrom, wherein the individual partial areas of the sample are scanned during, and/or prior to and after the varied surrounding conditions with the respective zero point, and - that dimensions of the partial areas to be scanned of the sample are delimited in at least one direction, in which the intensity maxima are neighbouring the zero point in the sample, such that they are not larger than 75 % of a distance (D 0) of the intensity maxima in this direction.
A Transcription Activator- Like Effector (TALE) domain, wherein (i) the TALE domain comprises an N-terminal TALE domain according to SEQ ID NO: 1, wherein at least one of K110, K113, and R114 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH; or (ii) the TALE domain comprises a C-terminal TALE domain according to SEQ ID NO: 22, wherein at least one of R8, R30, K37, K38, K48, R49, R52, R53, R57, and R61 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH (i) the TALE domain comprises an N-terminal TALE domain according to SEQ ID NO: 1, wherein at least one of K110, K113, and R114 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH; or (ii) the TALE domain comprises a C-terminal TALE domain according to SEQ ID NO: 22, wherein at least one of R8, R30, K37, K38, K48, R49, R52, R53, R57, and R61 is replaced with an amino acid residue that does not have a cationic charge, has no charge, or has an anionic charge at physiological pH
A wind turbine system, comprising: a tower; a plurality of blades; a rotor supported by the tower and rotatably coupled to the plurality of blades; a control unit programmed to: predict a net energy of the tower at one or more future points in time, wherein said net energy of the tower includes a net potential energy of the tower, a net kinetic energy of the tower or a total of the net potential energy of the tower and the net kinetic energy of the tower; and characterized in that: if the predicted net energy is within a design limit, then continue with baseline operating control models for normal operation of the wind turbine system; if the predicted net energy exceeds the design limit, then use a non-linear tower damping model to generate tower damping commands to control tower damping of the wind turbine system; and wherein the nonlinear tower damping model is configured to generate the tower damping commands based at least in part on a non-linear variable damping coefficient, a mass of the tower, a direction of movement of the tower, an aerodynamic sensitivity, and a natural frequency of the tower. a tower; a plurality of blades; a rotor supported by the tower and rotatably coupled to the plurality of blades; a control unit programmed to: predict a net energy of the tower at one or more future points in time, wherein said net energy of the tower includes a net potential energy of the tower, a net kinetic energy of the tower or a total of the net potential energy of the tower and the net kinetic energy of the tower; and characterized in that: if the predicted net energy is within a design limit, then continue with baseline operating control models for normal operation of the wind turbine system; if the predicted net energy exceeds the design limit, then use a non-linear tower damping model to generate tower damping commands to control tower damping of the wind turbine system; and predict a net energy of the tower at one or more future points in time, wherein said net energy of the tower includes a net potential energy of the tower, a net kinetic energy of the tower or a total of the net potential energy of the tower and the net kinetic energy of the tower; and characterized in that: if the predicted net energy is within a design limit, then continue with baseline operating control models for normal operation of the wind turbine system; if the predicted net energy exceeds the design limit, then use a non-linear tower damping model to generate tower damping commands to control tower damping of the wind turbine system; and if the predicted net energy is within a design limit, then continue with baseline operating control models for normal operation of the wind turbine system; if the predicted net energy exceeds the design limit, then use a non-linear tower damping model to generate tower damping commands to control tower damping of the wind turbine system; and
A method for increasing glutamic acid production in a yeast, comprising the steps of a. liquid-culturing a yeast in a logarithmic growth phase at a pH in the range of 3.5 to 7.5 and a temperature in the range of 20°C to 40°C, and b. after said cultured yeast enters the stationary phase subjecting said yeast to liquid-culturing under conditions wherein the pH of the liquid medium is shifted to an alkali range of 7.5 or higher and lower than 11 and the temperature is in the range of 20°C to 40°C, wherein, the yeast is selected from the group of strains consisting of: Saccharomyces cerevisiae AB1, Saccharomyces cerevisiae AB4 and Saccharomyces cerevisiae AB5, and in the step of liquid-culturing, a portion of the cultured yeast is recovered after the pH shift and the content of free glutamic acid in the yeast is intermittently measured. a. liquid-culturing a yeast in a logarithmic growth phase at a pH in the range of 3.5 to 7.5 and a temperature in the range of 20°C to 40°C, and b. after said cultured yeast enters the stationary phase subjecting said yeast to liquid-culturing under conditions wherein the pH of the liquid medium is shifted to an alkali range of 7.5 or higher and lower than 11 and the temperature is in the range of 20°C to 40°C,
A first and second composition for use in a method for inducing in an individual immune tolerance to a therapeutic protein comprising the steps of: a) administering one or more times to the individual the first composition comprising the protein complexed to liposomes comprising i) phosphatidylserine and phosphatidylcholine, or ii) phosphatidylserine, phosphatidylinositol, phosphatidylcholine and cholesterol; b) allowing immune tolerance to the protein to be developed in the individual; c) administering to the individual the second composition comprising the protein, wherein the protein in the second composition is not complexed to the liposomes of step a). a) administering one or more times to the individual the first composition comprising the protein complexed to liposomes comprising i) phosphatidylserine and phosphatidylcholine, or ii) phosphatidylserine, phosphatidylinositol, phosphatidylcholine and cholesterol; b) allowing immune tolerance to the protein to be developed in the individual; c) administering to the individual the second composition comprising the protein, wherein the protein in the second composition is not complexed to the liposomes of step a).
A rock cutting device including a disc cutter, having a rock engaging periphery characterised in that the disc cutter is not driven in a rotary manner but rather in an oscillating manner and also driven or free to nutate causing the rock engaged by the periphery to fail in tension, and wherein a housing of the device comprises a large mass for impact absorption, said mass being sufficient to react to forces from the disc cutter engaging the rock and ensure that the periphery of the disc cutter does not move away from the rock during cutting.
Method of automatically creating a digital map of an animal barn, wherein the animal barn comprises a plurality of types of barn elements (4a, 4b, 4c, 5, 6, 7, 8, 17, 18, 20, 22), a plurality of animals in said barn, and an animal locating system that is configured to determine a position of at least one of said animals in said barn, the method comprising the steps of - automatically collecting position data with the animal locating system about the position of said at least one animal in said barn as a function of time - providing, for at least a plurality of types of barn elements, a first set of criteria for correlating said position data to said type of barn element and a second set of criteria for determining the position of said type of barn element - automatically applying the sets of criteria to the position data, to thereby derive the type and position of at least a first barn element of a first type, - automatically creating the map with at least said first barn element and the type and position thereof. - automatically collecting position data with the animal locating system about the position of said at least one animal in said barn as a function of time - providing, for at least a plurality of types of barn elements, a first set of criteria for correlating said position data to said type of barn element and a second set of criteria for determining the position of said type of barn element - automatically applying the sets of criteria to the position data, to thereby derive the type and position of at least a first barn element of a first type, - automatically creating the map with at least said first barn element and the type and position thereof.
A node arranged for tracking a device, wherein the node is adapted to communicate through wireless communication in a frequency range between 300 and 1000 MHz, and configured to transmit a position request to the device, receive a position response from the device, and calculate the distance to the device, the node is configured to determine a first maximum distance between the node and the device based on a predetermined signal strength threshold for distance calculations and transmit an alert to the device if the distance between the node and the device exceeds the first maximum distance, characterized in that the node is further configured to determine a second maximum distance between the node and the device based on a predetermined signal strength threshold for data communication, wherein the second maximum distance is longer than the first maximum distance and the node is further configured to use the first and second maximum distances to create a first geographic area and a second geographic area surrounding the node, wherein the second geographic area is a part of the area between the first and second maximum distances, wherein the position response is transmitted from the device to the node when the device is in the second geographic area.
Elevator system comprising: an elevator shaft; and a protective roof arranged inside the elevator shaft, wherein the protective roof has a central roof structure and a peripheral flank structure, wherein the flank structure has flank walls which are fixed to the roof structure and which are arranged to project outward from the central roof structure at an angle with respect to the horizontal. an elevator shaft; and a protective roof arranged inside the elevator shaft, wherein the protective roof has a central roof structure and a peripheral flank structure, wherein the flank structure has flank walls which are fixed to the roof structure and which are arranged to project outward from the central roof structure at an angle with respect to the horizontal.
A power detector (400, 500, 600), comprising: a logarithmic RMS detector (402, 606) configured to: receive an RF input signal (RFin); and detect the average power level of the RF input signal; and a linear envelope detector (404, 602), configured to: detect the voltage envelope of the RF input signal; wherein the linear envelope detector comprises: a plurality of bipolar triple-tail cells, each triple-tail cell including two differential transistors (Q1 and Q3, Q4 and Q6) and a center transistor (Q2, Q5), and wherein in each triple-tail cell, each of the transistors has a common emitter node coupled to a current source configured to generate a tail-current (Idc1, Idc2), each triple-tail cell being configured to receive a differential input voltage between the bases of the differential transistors with a DC voltage component, and either a) an input voltage with a DC voltage component, or b) a parasitic RF component, on the base of the center transistor, wherein the collectors of the differential transistors of the triple-tail cells are all coupled together to an output terminal of the linear envelope detector; and wherein the logarithmic RMS detector and the envelope detector are integrated in a single package. a logarithmic RMS detector (402, 606) configured to: receive an RF input signal (RFin); and detect the average power level of the RF input signal; and receive an RF input signal (RFin); and detect the average power level of the RF input signal; and a linear envelope detector (404, 602), configured to: detect the voltage envelope of the RF input signal; wherein the linear envelope detector comprises: a plurality of bipolar triple-tail cells, each triple-tail cell including two differential transistors (Q1 and Q3, Q4 and Q6) and a center transistor (Q2, Q5), and wherein in each triple-tail cell, each of the transistors has a common emitter node coupled to a current source configured to generate a tail-current (Idc1, Idc2), each triple-tail cell being configured to receive a differential input voltage between the bases of the differential transistors with a DC voltage component, and either a) an input voltage with a DC voltage component, or b) a parasitic RF component, on the base of the center transistor, wherein the collectors of the differential transistors of the triple-tail cells are all coupled together to an output terminal of the linear envelope detector; and wherein the logarithmic RMS detector and the envelope detector are integrated in a single package.
A container for delivering a nutritive substance comprising: a. a container body having a base, at least one sidewall, and a top wall, wherein an aperture is formed in the top wall; b. an outer releasable seal releasably bonded to the exterior of the top wall, surrounding the aperture; and c. an inner sealing layer permanently bonded to the interior of the top wall, surrounding the aperture, wherein the inner sealing layer and the outer releasable seal are permanently bonded to one another within the aperture; and characterized in that the container further comprises: d. a nutritive substance disposed between the inner sealing layer and the outer releasable seal such that removal of the outer releasable seal and inner sealing layer exposes the nutritive substance to the contents of the container. a. a container body having a base, at least one sidewall, and a top wall, wherein an aperture is formed in the top wall; b. an outer releasable seal releasably bonded to the exterior of the top wall, surrounding the aperture; and c. an inner sealing layer permanently bonded to the interior of the top wall, surrounding the aperture, wherein the inner sealing layer and the outer releasable seal are permanently bonded to one another within the aperture; and characterized in that the container further comprises: d. a nutritive substance disposed between the inner sealing layer and the outer releasable seal such that removal of the outer releasable seal and inner sealing layer exposes the nutritive substance to the contents of the container.
An engine start control device for a hybrid vehicle, the hybrid vehicle including an engine, a first clutch, a motor/generator, a second clutch, and driving wheels (2FL, 2FR) arranged in order of a transmission path and being capable to select electric travel only with the motor/generator from among the engine and the motor/generator or hybrid travel with cooperation of the engine and the motor/generator, through engaging and disengaging control of the first and second clutches (7, 9), the engine start control device comprising: - a first engine start system that is configured to engage the first clutch and to start the engine with the motor/generator; - a second engine start system that is configured to start the engine with a starter motor for starting the engine; and - an engine start system selecting unit (S11, S12) that is configured to select, based on rotation speed information relating to the electric travel, (i) engine start control using the first engine start system if the rotation speed information is lower than a predetermined speed and (ii) engine start control using the second engine start system if the rotation speed information is the predetermined speed or higher, wherein - the rotation speed information is a vehicle speed and - the predetermined vehicle speed (VSP_s) is a vehicle speed when an electric travel driving force generated by an electric travel torque part obtained by subtracting an engine start torque part required for starting the engine from a rated torque of the motor/generator is smaller than the sum of a running resistance and a predetermined acceleration margin part of the vehicle. - a first engine start system that is configured to engage the first clutch and to start the engine with the motor/generator; - a second engine start system that is configured to start the engine with a starter motor for starting the engine; and - an engine start system selecting unit (S11, S12) that is configured to select, based on rotation speed information relating to the electric travel, (i) engine start control using the first engine start system if the rotation speed information is lower than a predetermined speed and (ii) engine start control using the second engine start system if the rotation speed information is the predetermined speed or higher, wherein - the rotation speed information is a vehicle speed and - the predetermined vehicle speed (VSP_s) is a vehicle speed when an electric travel driving force generated by an electric travel torque part obtained by subtracting an engine start torque part required for starting the engine from a rated torque of the motor/generator is smaller than the sum of a running resistance and a predetermined acceleration margin part of the vehicle.
Drill drive device for an earth drilling apparatus with a spindle arrangement which has an inner spindle unit and an outer spindle unit that is supported in an axially displaceable manner on the inner spindle unit and floating between two spring means (50, 60), characterized in that - a first front spring means which is arranged on a drilling tool side comprises a combination of at least a compression coil spring and a first disk spring arrangement and - in that a second rear spring means which faces away from the drilling tool side has a second disk spring arrangement. - a first front spring means which is arranged on a drilling tool side comprises a combination of at least a compression coil spring and a first disk spring arrangement and - in that a second rear spring means which faces away from the drilling tool side has a second disk spring arrangement.