mhurhangee/ep-ind-claims huggingface dataset:
A system (1,21) for obtaining images of a plant, said system (1,21) comprising: at least one input interface (3,23); at least one output interface (9, 19); and at least one processor (5,25) configured to: - use said at least one input interface (3,23) to obtain multiple images of a plant, each of said images being associated with a different capture moment, - store a plurality of said multiple images of said plant with a grow protocol for growing said plant to augment said grow protocol with images of said plant at different growth stages in said grow protocol, said different growth stages corresponding to said different capture moments of said respective images, - select said grow protocol separately from said plant, and - use said at least one output interface (9, 19) to render said plurality of images upon selection of said grow protocol, each of said plurality of images being rendered along with one or more desired and/or measured conditions of said growth stage, said one or more desired and/or measured conditions being included in said grow protocol. at least one input interface (3,23); at least one output interface (9, 19); and at least one processor (5,25) configured to: - use said at least one input interface (3,23) to obtain multiple images of a plant, each of said images being associated with a different capture moment, - store a plurality of said multiple images of said plant with a grow protocol for growing said plant to augment said grow protocol with images of said plant at different growth stages in said grow protocol, said different growth stages corresponding to said different capture moments of said respective images, - select said grow protocol separately from said plant, and - use said at least one output interface (9, 19) to render said plurality of images upon selection of said grow protocol, each of said plurality of images being rendered along with one or more desired and/or measured conditions of said growth stage, said one or more desired and/or measured conditions being included in said grow protocol. - use said at least one input interface (3,23) to obtain multiple images of a plant, each of said images being associated with a different capture moment, - store a plurality of said multiple images of said plant with a grow protocol for growing said plant to augment said grow protocol with images of said plant at different growth stages in said grow protocol, said different growth stages corresponding to said different capture moments of said respective images, - select said grow protocol separately from said plant, and - use said at least one output interface (9, 19) to render said plurality of images upon selection of said grow protocol, each of said plurality of images being rendered along with one or more desired and/or measured conditions of said growth stage, said one or more desired and/or measured conditions being included in said grow protocol.
A method for manufacturing a fibre composite component, comprising an injection of a matrix material into a semi-finished textile product and a subsequent curing of the infiltrated semi-finished product, characterised in that the semi-finished textile product to be cured is formed by stacking semi-finished product layers, wherein at least one semi-finished product layer is formed by a film of a thermoplastic having particles dispersed therein, wherein, at the latest when curing the infiltrated semi-finished product, the thermoplastic is replaced at least in part by the matrix material or is dissolved at least for the most part.
A laminated electronic component having a laminated portion formed by alternately laminating an internal electrode layer and a dielectric layer comprising a dielectric composition wherein the dielectric composition has a main component represented by (Bi a Na b Sr c Ln d) TiO 3, characterized in that Ln is at least one selected from among: La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho and Yb; and a, b, c and d satisfy the following: 0<a<0.50, 0<b<0.50, 0<c≤0.80, 0<d≤0.20, and 0.90≤a+b+c+d≤1.05.
Cutting head for a pile tube, which can be introduced into the ground in order to form a foundation element, with - a ring-shaped removal device for removing ground material, - a connection area for connecting a tubular base body of the pile tube and - a mixing section located between the removal device and the connection area for mixing a supplied, hardenable medium with removed ground material, wherein on the mixing section lateral openings are designed, through which the hardenable medium mixed with the removed ground material can be led from an interior space of the cutting head in a radial direction towards the outside of the cutting head. - a ring-shaped removal device for removing ground material, - a connection area for connecting a tubular base body of the pile tube and - a mixing section located between the removal device and the connection area for mixing a supplied, hardenable medium with removed ground material, wherein on the mixing section lateral openings are designed, through which the hardenable medium mixed with the removed ground material can be led from an interior space of the cutting head in a radial direction towards the outside of the cutting head.
A wireless communication system, comprising one or more base stations according to claim 12, and one or more user equipments, UEs, according to claim 13.
A method of body fat measurement comprising: a measuring step of measuring a distribution of skin surface temperature of a subject; a first operation step evaluating temperature gradient on the skin surface based on the measured skin temperature; a second operation step calculating a skin temperature distribution by conducting numerical heat conduction analysis on a prearranged sample body composition with the temperature gradient imposed as a boundary condition; a comparing step comparing the skin temperature distributions obtained in the measuring and second operation steps; a modification step modifying the body composition of the sample in a case where the two skin temperature distributions disagree in the comparing step; and repeating the second operation step and the modification step to make the two skin temperature distributions sufficiently close. a measuring step of measuring a distribution of skin surface temperature of a subject; a first operation step evaluating temperature gradient on the skin surface based on the measured skin temperature; a second operation step calculating a skin temperature distribution by conducting numerical heat conduction analysis on a prearranged sample body composition with the temperature gradient imposed as a boundary condition; a comparing step comparing the skin temperature distributions obtained in the measuring and second operation steps; a modification step modifying the body composition of the sample in a case where the two skin temperature distributions disagree in the comparing step; and repeating the second operation step and the modification step to make the two skin temperature distributions sufficiently close.
A method for detecting a direct current arc, comprising: for each of N photovoltaic strings (PV1, PV2,..., PVn) connected to an input end of a maximum power point tracking, MPPT, circuit in a string inverter, acquiring a current detection result of the photovoltaic string; removing a background noise signal from the N current detection results corresponding to the MPPT circuit; characterized in that the method further comprises: performing data processing and harmonic characteristics analysis on a result corresponding to the MPPT circuit comprising no background noise signal, to obtain a direct current arc detection result for the N photovoltaic strings (PV1, PV2,..., PVn) corresponding to the MPPT circuit. for each of N photovoltaic strings (PV1, PV2,..., PVn) connected to an input end of a maximum power point tracking, MPPT, circuit in a string inverter, acquiring a current detection result of the photovoltaic string; removing a background noise signal from the N current detection results corresponding to the MPPT circuit; characterized in that the method further comprises: performing data processing and harmonic characteristics analysis on a result corresponding to the MPPT circuit comprising no background noise signal, to obtain a direct current arc detection result for the N photovoltaic strings (PV1, PV2,..., PVn) corresponding to the MPPT circuit.
A method for providing a fluid supply device, which is especially designed for use in a machining zone of a machine tool, in order to discharge a fluid in the direction of an interaction region between a tool and a workpiece, comprising the following steps: a. computer-assisted definition (Sa) of the 3-dimensional configuration of the machining zone in consideration of the workpiece and the tool which is to be used for machining the workpiece in the machining zone of the machine tool, b. computer-assisted definition (Sb) of the 3-dimensional shape and the position of at least one specifically adapted outlet nozzle of the fluid supply device with incorporation of information which was defined in step a., c. provision (Sc) of a dataset (DS;), which describes the 3-dimensional shape of this outlet nozzle, d. use (Sd) of the dataset (DS;), to produce this outlet nozzle by means of a numerically controlled manufacturing method (200, 300). a. computer-assisted definition (Sa) of the 3-dimensional configuration of the machining zone in consideration of the workpiece and the tool which is to be used for machining the workpiece in the machining zone of the machine tool, b. computer-assisted definition (Sb) of the 3-dimensional shape and the position of at least one specifically adapted outlet nozzle of the fluid supply device with incorporation of information which was defined in step a., c. provision (Sc) of a dataset (DS;), which describes the 3-dimensional shape of this outlet nozzle, d. use (Sd) of the dataset (DS;), to produce this outlet nozzle by means of a numerically controlled manufacturing method (200, 300).
A containing casing for a stator of an electric machine, which casing extends around an axis coincident with an axis of the stator, and defines, around said axis, a compartment to house the stator itself, characterised in that it comprises a first radially inner part and a second radially outer part, which are coupled to one another in a fluid-tight manner and define together, inside the volume defined by their coupling, at least one duct surrounding the axis for the passage of a cooling fluid, said duct comprising, in turn, a plurality of first sections and a plurality of second sections, which are distributed around the axis alternated with one another, the first sections being arranged around the axis with an arrangement that supports the motion of the fluid around the axis itself, the second sections being transverse to the first sections and at least partially obtained inside respective protuberances of the first radially inner part, said protuberances projecting towards the inside of the compartment and a space for the insertion of radially projecting portions of electric windings of the stator being defined between two consecutive protuberances around the axis.
Method for joining at least one component to a second component without pre-formed hole(s) comprising the steps of: a. Providing a first and a second component (1, 2), the first and the second components (1, 2) being at least partly positioned one on top of the other, the first component being made in a high-strength material; b. Providing a joining device and an auxiliary joining element; c. Joining the first and second component together by means of the auxiliary joining element, wherein the auxiliary joining element is driven by the joining device toward the first component along a joining axis, the auxiliary joining element firstly passing through the first component in the region of a joining area without pre-formed hole and then reaching the second component in the region of a joining area without pre-formed hole, wherein prior to the joining, the first component in the region of the joining area is heat-treated, in such a way that a heat-affected zone is formed on the joining area of the first component, and wherein the first component is heated in such a way that a strength of the first component in the heat-affected zone is reduced, characterized in that the first component in the region of the joining area is heat-treated via an electric arc, which is formed between the first component on the one hand and an electrode provided on the joining device on the other hand. a. Providing a first and a second component (1, 2), the first and the second components (1, 2) being at least partly positioned one on top of the other, the first component being made in a high-strength material; b. Providing a joining device and an auxiliary joining element; c. Joining the first and second component together by means of the auxiliary joining element, wherein the auxiliary joining element is driven by the joining device toward the first component along a joining axis, the auxiliary joining element firstly passing through the first component in the region of a joining area without pre-formed hole and then reaching the second component in the region of a joining area without pre-formed hole,
Control module comprising a fixed control member (20, 22) which is provided with a touch-sensitive surface so as to supply a control signal representative of the position or of the movement of a finger on the sensitive surface, the sensitive surface of the control member (20, 22) comprising an overall toric portion, around a main axis, and the control module comprising a control unit which is provided to detect the so-called axial component (Ca) and the so-called circumferential component (Cc) of a tactile movement on the sensitive surface so as to produce an elaborate control signal which is the function of these two components (Ca, Cc), the control module comprising a display screen of which at least one function is controlled by the control member (20, 22), characterized in that the function comprises a list in which the scrolling is controlled by the circumferential component (Cc) of the tactile movement and in which the confirmation is controlled by the axial component (Ca) of the tactile movement.
A control system of an internal combustion engine comprising a fuel injector arranged in a combustion chamber and configured to inject fuel comprised of gasoline, a spark plug arranged in the combustion chamber and configured to ignite fuel injected from the fuel injector, and an electronic control unit configured to control an action of injection of fuel from the fuel injector and an action of ignition by the spark plug, main fuel injected from the fuel injector into the combustion chamber being caused to be auto-ignited, wherein a first auxiliary fuel and a second auxiliary fuel are successively injected from the fuel injector during a compression stroke after injection of said main fuel and before auto-ignition of said main fuel occurs, and said electronic control unit is configured to control an injection timing of said first auxiliary fuel, an ignition timing of the spark plug, and an injection timing of said second auxiliary fuel so that said first auxiliary fuel is made to burn by flame propagation combustion by the action of ignition by the spark plug, said second auxiliary fuel is made to be injected in a flame propagation combustion region, and said second auxiliary fuel is made to burn by diffusive combustion before the auto-ignition of the main fuel occurs; the control system being characterized in that, when fuel injection of said main fuel, fuel injection of said first auxiliary fuel, and fuel injection of said second auxiliary fuel are successively performed, an injection amount of said second auxiliary fuel is increased and the injection timing of said second auxiliary fuel and the injection timing and ignition timing of said first auxiliary fuel are advanced as the torque (Tr) generated by the engine becomes higher, in such a manner that the injection end timing of said second auxiliary fuel is held at a constant value, at a constant crank angle value before the compression top-dead center.
An optical microscopy system for stimulated emission depletion (STED) of an associated object, the system comprising: radiation generating means capable of emitting a first and a second beam, the first beam being an excitation beam, the second beam being a depletion beam relative to the first beam, an optical element for focusing the first and the second beam on the object, the optical element being arranged relative to the radiation generating means for defining a common optical path for both the first and the second beam, and a phase modifying member inserted in said common optical path, wherein the phase modifying member is optically arranged for leaving the phase of the first beam substantially unchanged, and for changing the phase of the second beam so as to create an undepleted region of interest in the object, wherein the phase modifying member is capable of modifying the phase of the second beam by having a surface with a plurality of regions comprising a first and a second region (31, 32, 33), the first region having a protruded height which is above the height of the second region, the phase modifying member capable of modifying the phase of the second beam, wherein the phase modifying member has an azimuthal configuration (31, 32, 33), wherein each region, from said plurality of regions, is positioned within an azimuthal angle interval, and wherein the second beam spot amplitude, U, at the focal plane of the focusing optical element, is approximately rotationally symmetric around the common optical path by requiring that the phase modifying member approximately fulfills the equations: | ∑ k e i Φ k cos Φ k sin w k 2 ∑ k e i Φ k sin Φ k sin w k 2 | 2 − 1 = 0 Re ∑ k e i Φ k cos Φ k sin w k 2 ∑ k e i Φ k sin Φ k sin w k 2 = 0, where k denotes the segment number, Φk the segment phase, wk the segment size which equals the ending angle minus the starting angle of segment k. radiation generating means capable of emitting a first and a second beam, the first beam being an excitation beam, the second beam being a depletion beam relative to the first beam, an optical element for focusing the first and the second beam on the object, the optical element being arranged relative to the radiation generating means for defining a common optical path for both the first and the second beam, and a phase modifying member inserted in said common optical path,
A communication system including at least one controller for enabling a plurality of radio systems to communicate over a packet network, each radio system communicating one of at least two different radio signals transmitted using different radio protocols, the communication system comprising: a plurality of gateways (230; 20) adapted to communicate over an internet protocol link using a generic internet protocol data packet protocol having a component for storing audio signals and a component for storing radio control signals; for each radio signal of the at least two radio signals: at least one gateway of the plurality of gateways converting audio and control signals in the radio protocols to and from audio and radio control signal components of the generic internet protocol data packet protocol for at least one radio system that communicates using the radio signal; and wherein the component of the generic internet protocol data packet for storing the radio control signals is configured to store at least one event selected from a group consisting of: enabling coded squelch in a radio station; disabling coded squelch in a radio station; and selecting a specific coded squelch frequency in a radio station. a plurality of gateways (230; 20) adapted to communicate over an internet protocol link using a generic internet protocol data packet protocol having a component for storing audio signals and a component for storing radio control signals; for each radio signal of the at least two radio signals: at least one gateway of the plurality of gateways converting audio and control signals in the radio protocols to and from audio and radio control signal components of the generic internet protocol data packet protocol for at least one radio system that communicates using the radio signal; and at least one gateway of the plurality of gateways converting audio and control signals in the radio protocols to and from audio and radio control signal components of the generic internet protocol data packet protocol for at least one radio system that communicates using the radio signal; and wherein the component of the generic internet protocol data packet for storing the radio control signals is configured to store at least one event selected from a group consisting of: enabling coded squelch in a radio station; disabling coded squelch in a radio station; and selecting a specific coded squelch frequency in a radio station. enabling coded squelch in a radio station; disabling coded squelch in a radio station; and selecting a specific coded squelch frequency in a radio station.
A series of control solutions for use with an electrochemical system configured to measure the amount of an analyte in a sample, each control solution comprising: (a) a predetermined amount of said analyte; and (b) a predetermined amount of an internal reference compound, said internal reference compound being adapted to be oxidized at a potential higher than the potential required to oxidize said analyte such that the presence of said internal reference compound is detectable, characterized in that said amounts of said internal reference compound in different control solutions are varied in proportion to the amounts of analyte to maintain an approximately constant Differential Index value, the DI being defined as DI = i high volt / i low volt where: i high volt is an electrical current resulting from the application of a first potential sufficient to oxidize said internal reference compound and said analyte, and i low volt is an electrical current resulting from the application of a second potential sufficient to oxidize said analyte and insufficient to oxidize said internal reference compound. (a) a predetermined amount of said analyte; and (b) a predetermined amount of an internal reference compound, said internal reference compound being adapted to be oxidized at a potential higher than the potential required to oxidize said analyte such that the presence of said internal reference compound is detectable, characterized in that said amounts of said internal reference compound in different control solutions are varied in proportion to the amounts of analyte to maintain an approximately constant Differential Index value, the DI being defined as DI = i high volt / i low volt where: i high volt is an electrical current resulting from the application of a first potential sufficient to oxidize said internal reference compound and said analyte, and i low volt is an electrical current resulting from the application of a second potential sufficient to oxidize said analyte and insufficient to oxidize said internal reference compound.