mhurhangee/ep-ind-claims huggingface dataset:
A method for determining uniformity of the density of a round bale across the axial length of the bale during formation of the bale by a baler, wherein the baler comprises a first part and a second part comprising a pressing means defining a bale chamber and for rotating and pressing the bale therein, the second part being moveable relative to the first part between a closed state with the pressing means operable to rotate and press a bale, and an open state for discharging the formed bale from the bale chamber, two retaining devices for releasably retaining the second part in the closed state, the retaining devices being spaced apart from each other in a direction parallel to the axial direction of the bale chamber, the method comprising monitoring a characteristic indicative of the force induced in each of the retaining devices retaining the second part in the closed state, and determining the uniformity of the density of the bale across the axial length thereof as a function of the monitored characteristics indicative of the forces induced in the respective retaining devices, characterised in that each retaining device comprises a latch coupled to one of the first and second parts (8, 10) of the baler, and a receiver coupled to the other one of the first and second parts (8,10) thereof, the latch of each retaining device being releasably engageable with the corresponding receiver for releasably retaining the second part in the closed state, and the characteristic of the force induced in each one of the retaining devices is monitored by monitoring a characteristic indicative of the force induced in one of the latch and the receiver of the corresponding retaining device when the latch is engaged with the receiver.
A functional member-attached glass window (10, 50, 60, 110, 120) comprising: a glass window configured to be erected on a floor surface and having a glass plate; a functional member having a surface area smaller than that of the glass plate and configured to be arranged at a position apart from and higher than the floor surface; and a spacer; wherein the functional member is pasted to the glass plate via the spacer, wherein the spacer includes a first end surface pasted to the glass plate with an adhesive agent, and a second end surface pasted to a vertical edge portion (16G, 16H) of the functional member with an adhesive agent; and comprising (i) a fastening part, wherein the functional member is joined to the spacer via the fastening part; or (ii) a linear member, wherein one end of the linear member is fixed to the functional member or the spacer, and another end of the linear member is configured to be fixed to a sash or a building to which the glass window is to be attached. a glass window configured to be erected on a floor surface and having a glass plate; a functional member having a surface area smaller than that of the glass plate and configured to be arranged at a position apart from and higher than the floor surface; and a spacer; (i) a fastening part, wherein the functional member is joined to the spacer via the fastening part; or (ii) a linear member, wherein one end of the linear member is fixed to the functional member or the spacer, and another end of the linear member is configured to be fixed to a sash or a building to which the glass window is to be attached.
A control method of a battery apparatus, comprising: acquiring a state parameter of a first battery module in the battery apparatus; controlling the first battery module and a charging device to form a first charging loop when the state parameter of the first battery module is less than a preset threshold; and controlling the first battery module, a second battery module in the battery apparatus and the charging device to be connected in series to form a second charging loop when the state parameter of the first battery module is greater than or equal to the preset threshold; wherein a charging rate of the first charging loop is higher than a charging rate of the second charging loop; characterised in that the state parameter comprises a state of charge or a voltage. acquiring a state parameter of a first battery module in the battery apparatus; controlling the first battery module and a charging device to form a first charging loop when the state parameter of the first battery module is less than a preset threshold; and controlling the first battery module, a second battery module in the battery apparatus and the charging device to be connected in series to form a second charging loop when the state parameter of the first battery module is greater than or equal to the preset threshold; wherein a charging rate of the first charging loop is higher than a charging rate of the second charging loop; characterised in that the state parameter comprises a state of charge or a voltage.
A 3D printer for producing a three-dimensional component by a selective laser melting process, comprising a laser source adapted to generate a laser beam; a working plane adapted to apply a layer of a material to be processed in powder form; an electronically controllable forming module which is located in the beam path of the 3D printer and is designed to apply a spatial modulation to the laser beam so that the beam shape of the laser beam impinging on the working plane can be adjusted; wherein the electronically controllable forming module is a Spatial Light Modulator; wherein the electronically controllable forming module is adapted to generate the beam shape of the laser beam impinging on the working plane in the form of three laser spots (301, 302, 303), with one main spot and two secondary spots (302, 303), which are located laterally behind the main spot, for reducing a temperature gradient in the material to be processed and for counteracting hot crack formation. a laser source adapted to generate a laser beam; a working plane adapted to apply a layer of a material to be processed in powder form; an electronically controllable forming module which is located in the beam path of the 3D printer and is designed to apply a spatial modulation to the laser beam so that the beam shape of the laser beam impinging on the working plane can be adjusted; wherein the electronically controllable forming module is a Spatial Light Modulator; wherein the electronically controllable forming module is adapted to generate the beam shape of the laser beam impinging on the working plane in the form of three laser spots (301, 302, 303), with one main spot and two secondary spots (302, 303), which are located laterally behind the main spot, for reducing a temperature gradient in the material to be processed and for counteracting hot crack formation.
A nonintrusive inspection system comprising: a scanning unit installed on a vehicle chassis 1, a remote controlled tugging device 8 for aircraft towing, a superstructure 2 mounted on said chassis 1, said superstructure provided with a telescopic boom 3 mounted in a two degree joint 4 which holds on its superior extremity a penetrating radiation source 5, a modular detector line 7 placed under the scanned aircraft in a fixed position, wherein the penetrating radiation source and the modular detector line thereby provide a portal in the shape of a triangle, the nonintrusive inspection system further comprising an exclusion area protection subsystem 9 bounding an exclusion area a, a mobile control center 11 placed outside said exclusion area a, and an acquisition, processing, storage and image display system 12.
Housing connecting device for connecting two housing sections or housing modules of a ventilation or air-conditioning system to each other, wherein there is provided - at least in each case two first connecting elements which can be fastened to the operating side and rear side of a first housing section or of a first housing module and each have at least one detent, and - at least in each case two second connecting elements which can be fastened to the operating side and rear side of an adjacent second housing section or of an adjacent second housing module and each have a latching tooth or two latching teeth for a preliminary latching position and a final latching position of the detent, - wherein the connecting elements can be attached either on the outer side or inner side of the housing sections or housing modules, characterized in that - one connecting element has one projection and two recesses and the other connecting element has two projections and one recess for an interlocking connection. - at least in each case two first connecting elements which can be fastened to the operating side and rear side of a first housing section or of a first housing module and each have at least one detent, and - at least in each case two second connecting elements which can be fastened to the operating side and rear side of an adjacent second housing section or of an adjacent second housing module and each have a latching tooth or two latching teeth for a preliminary latching position and a final latching position of the detent, - wherein the connecting elements can be attached either on the outer side or inner side of the housing sections or housing modules, characterized in that - one connecting element has one projection and two recesses and the other connecting element has two projections and one recess for an interlocking connection.
An optical sensor arrangement, comprising - a photodiode and - an analog-to-digital converter comprising - an integrator having an integrator input coupled to the photodiode, and - a comparator having a first input coupled to an output of the integrator and a second input coupled to a reference voltage terminal, characterized in that the optical sensor arrangement comprises a digital-to-analog converter coupled to a control terminal of the comparator, wherein the digital-to-analog converter provides an analog input signal to the control terminal of the comparator and an offset of the comparator is controlled by the analog input signal. - a photodiode and - an analog-to-digital converter comprising - an integrator having an integrator input coupled to the photodiode, and - a comparator having a first input coupled to an output of the integrator and a second input coupled to a reference voltage terminal, - an integrator having an integrator input coupled to the photodiode, and - a comparator having a first input coupled to an output of the integrator and a second input coupled to a reference voltage terminal,
A process of making a thermoplastic polyurethane by the reaction of: a hydroxyl terminated polyester intermediate, wherein the hydroxyl terminated polyester intermediate is comprised of repeat units that are derived from adipic acid and a glycol component comprising 1,3-propylene glycol, and said hydroxyl terminated intermediate has a number average molecular weight which is within the range of 500 to 10,000 Daltons, a diisocyanate; and a glycol chain extender. a hydroxyl terminated polyester intermediate, wherein the hydroxyl terminated polyester intermediate is comprised of repeat units that are derived from adipic acid and a glycol component comprising 1,3-propylene glycol, and said hydroxyl terminated intermediate has a number average molecular weight which is within the range of 500 to 10,000 Daltons, a diisocyanate; and a glycol chain extender.
A measurement system for measuring a property in a body, the measurement system comprising: a measurement circuit for measuring a property in a body, the measurement circuit comprising: a resonant circuit comprising a first element and a second element, wherein at least one of the first element and the second element is configured such that a property thereof is dependent on the property in the body; and a non-linear element arranged to generate intermodulation products when the circuit is driven by an input signal comprising a first component at a first frequency and a second component at a second frequency; a driving circuit for providing a driving signal to the measurement circuit, wherein the driving signal comprises a first component at a first frequency and a second component at a second frequency; and an analyzer circuit for analyzing a response of the measurement circuit in order to obtain a measurement of the property, wherein the analyzer circuit is configured to measure a ratio of the amplitudes of odd order intermodulation products resulting from the first and second components of the driving signal. a measurement circuit for measuring a property in a body, the measurement circuit comprising: a resonant circuit comprising a first element and a second element, wherein at least one of the first element and the second element is configured such that a property thereof is dependent on the property in the body; and a non-linear element arranged to generate intermodulation products when the circuit is driven by an input signal comprising a first component at a first frequency and a second component at a second frequency; a resonant circuit comprising a first element and a second element, wherein at least one of the first element and the second element is configured such that a property thereof is dependent on the property in the body; and a non-linear element arranged to generate intermodulation products when the circuit is driven by an input signal comprising a first component at a first frequency and a second component at a second frequency; a driving circuit for providing a driving signal to the measurement circuit, wherein the driving signal comprises a first component at a first frequency and a second component at a second frequency; and an analyzer circuit for analyzing a response of the measurement circuit in order to obtain a measurement of the property, wherein the analyzer circuit is configured to measure a ratio of the amplitudes of odd order intermodulation products resulting from the first and second components of the driving signal.
A method, comprising: receiving at a second node a handover request from a first node identifying a communication device and a target cell for handover of the communication device from the first node, wherein the target cell is associated with said second node; and characterised by: determining at the second node, based on deployment configuration changes of the second node, a most preferred re-establishment cell for the handover of the communication device from the first node, wherein the most-preferred re-establishment cell is not identified in the handover request; sending from the second node to the first node a handover request rejection message identifying the most preferred re-establishment cell; and receiving at the second node from the first node a new handover request identifying the most preferred re-establishment cell; wherein the most-preferred re-establishment cell is a cell via which the communication device attempts first the connection reestablishment in the event that the handover of the communication device fails, or in the event of a connection failure after the handover of the communication device.
An amplifier circuit, comprising: a first power amplifier configured to drive a load; a second power amplifier configured to drive the load through an impedance step-up network; and the impedance step-up network, wherein the impedance step-up network is connected to an output of the second power amplifier, the impedance step-up network being configured to: i) switch into a first mode to present an increased impedance to the first power amplifier; and ii) switch into a second mode in which the impedance step-up network steps up an impedance seen by the second power amplifier looking into the impedance step-up network, characterized in that the second power amplifier is a differential amplifier having differential outputs and the impedance step-up network is a differential impedance step-up network connected to receive the differential outputs at respective inputs of the differential impedance step-up network. a first power amplifier configured to drive a load; a second power amplifier configured to drive the load through an impedance step-up network; and the impedance step-up network, wherein the impedance step-up network is connected to an output of the second power amplifier, the impedance step-up network being configured to: i) switch into a first mode to present an increased impedance to the first power amplifier; and ii) switch into a second mode in which the impedance step-up network steps up an impedance seen by the second power amplifier looking into the impedance step-up network, characterized in that the second power amplifier is a differential amplifier having differential outputs and the impedance step-up network is a differential impedance step-up network connected to receive the differential outputs at respective inputs of the differential impedance step-up network. i) switch into a first mode to present an increased impedance to the first power amplifier; and ii) switch into a second mode in which the impedance step-up network steps up an impedance seen by the second power amplifier looking into the impedance step-up network, characterized in that the second power amplifier is a differential amplifier having differential outputs and the impedance step-up network is a differential impedance step-up network connected to receive the differential outputs at respective inputs of the differential impedance step-up network.
A milking parlour for animals comprising: at least one milking stall arranged to receive an animal in a predetermined milking position, teat cups arranged to be used in the milking stall, a teat cup carrier arranged to store the teat cups in the milking stall when they are not used, and at least one robot arm, provided with at least one gripping member arranged to grip a teat cup in the teat cup carrier and attach it on the teat of an animal in the milking stall, wherein the teat cup carrier stores the teat cups in a storing area (A 1) located at least partly in front of the front legs of the animal with respect to the direction of the animal when it stands in the predetermined milking position in the milking stall, said storing area being located substantially at a center vertical longitudinal plane of the milking stall. at least one milking stall arranged to receive an animal in a predetermined milking position, teat cups arranged to be used in the milking stall, a teat cup carrier arranged to store the teat cups in the milking stall when they are not used, and at least one robot arm, provided with at least one gripping member arranged to grip a teat cup in the teat cup carrier and attach it on the teat of an animal in the milking stall, wherein the teat cup carrier stores the teat cups in a storing area (A 1) located at least partly in front of the front legs of the animal with respect to the direction of the animal when it stands in the predetermined milking position in the milking stall, said storing area being located substantially at a center vertical longitudinal plane of the milking stall.
A rubber composition comprising a first compounding ingredient which is one or more kinds selected from the group consisting of calcium carbonate, magnesium oxide, aluminum oxide and barium sulfate in an amount of 50 to 200 parts by mass based on 100 parts by mass of a rubber component, wherein the composition does neither comprise carbon black nor a silica, and wherein the rubber component is acrylic rubber.
An aqueous viscoelastic fluid which a) comprises hyaluronic acid at a concentration of 0.01-30%; b) has a pH value ranging from 6 to 8.5; and c) has an osmolarity ranging from 200 to 400 mosmol/l; for use as medicinal product for the surgical treatment of the eye, which fluid after application onto the surface of the eye from a single-dose receptacle produces an optical magnifying effect of the lens and the pupil. a) comprises hyaluronic acid at a concentration of 0.01-30%; b) has a pH value ranging from 6 to 8.5; and c) has an osmolarity ranging from 200 to 400 mosmol/l; for use as medicinal product for the surgical treatment of the eye, which fluid after application onto the surface of the eye from a single-dose receptacle produces an optical magnifying effect of the lens and the pupil.
A method of operation of a device, the method comprising: receiving a first set of samples and a second set of samples, wherein the first set of samples corresponds to a portion of a first audio frame and the second set of samples corresponds to a second audio frame; generating a first energy parameter associated with a windowed target set of samples based on the first set of samples and a first subset of the second set of samples; generating a second energy parameter associated with a windowed reference set of samples that includes a second subset of the second set of samples; performing a square root operation on a ratio of the second energy parameter and the first energy parameter to generate a scale factor; scaling the target set of samples based on the scale factor, to generate a scaled target set of samples; and generating a third set of samples based on the scaled target set of samples and one or more samples of the second set of samples. receiving a first set of samples and a second set of samples, wherein the first set of samples corresponds to a portion of a first audio frame and the second set of samples corresponds to a second audio frame; generating a first energy parameter associated with a windowed target set of samples based on the first set of samples and a first subset of the second set of samples; generating a second energy parameter associated with a windowed reference set of samples that includes a second subset of the second set of samples; performing a square root operation on a ratio of the second energy parameter and the first energy parameter to generate a scale factor; scaling the target set of samples based on the scale factor, to generate a scaled target set of samples; and generating a third set of samples based on the scaled target set of samples and one or more samples of the second set of samples.
A method of producing a fibre-reinforced polymer composite structure, such as an airframe or fuselage structure of an aircraft, comprising the steps of: arranging a first component within a cavity of a mould; arranging a second component adjacent or next to the cavity of the mould containing the first component; wherein at least one of the first component and the second component comprises fibre-reinforced polymer material; injecting a polymer or resin into the cavity of the mould to infuse and/or pervade gaps or spaces between the first component and the second component; and curing or setting the polymer or resin within the mould to bond the first component with the second component and thereby form the structure characterized in sealing the cavity against the second component. arranging a first component within a cavity of a mould; arranging a second component adjacent or next to the cavity of the mould containing the first component; wherein at least one of the first component and the second component comprises fibre-reinforced polymer material; injecting a polymer or resin into the cavity of the mould to infuse and/or pervade gaps or spaces between the first component and the second component; and curing or setting the polymer or resin within the mould to bond the first component with the second component and thereby form the structure characterized in sealing the cavity against the second component.
A negative active material of a non-aqueous electrolyte battery, the negative active material comprising a compound represented by formula 1: Li x M y V z O 2+d where 0.1 ≤ x ≤ 2.5, 0 < y ≤ 0.5, 0.5 ≤ z ≤ 1.5, 0 ≤ d ≤ 0.5, and M is at least one element selected from the group consisting of Mo, Ti, and W characterized in that the negative active material has an average oxidation state of vanadium of +1 to +4.