mhurhangee/ep-ind-claims huggingface dataset:
A bucked-type rivet assembly comprising: a formable member made from an amorphous metal alloy, the formable member having a channel; and an anvil at least partially disposed in the channel, the anvil comprising: an interface shaft; and an anvil head disposed on a first end of the interface shaft; wherein: the formable member is configured to secure a first member in position relative to a second member; the anvil head is configured to plastically deform the formable member proximate to the second member; and the anvil head is configured to separate from the interface shaft upon application of a predetermined tensile force to the interface shaft. a formable member made from an amorphous metal alloy, the formable member having a channel; and an anvil at least partially disposed in the channel, the anvil comprising: an interface shaft; and an anvil head disposed on a first end of the interface shaft; wherein: the formable member is configured to secure a first member in position relative to a second member; the anvil head is configured to plastically deform the formable member proximate to the second member; and the anvil head is configured to separate from the interface shaft upon application of a predetermined tensile force to the interface shaft. an interface shaft; and an anvil head disposed on a first end of the interface shaft; wherein: the formable member is configured to secure a first member in position relative to a second member; the anvil head is configured to plastically deform the formable member proximate to the second member; and the anvil head is configured to separate from the interface shaft upon application of a predetermined tensile force to the interface shaft. the formable member is configured to secure a first member in position relative to a second member; the anvil head is configured to plastically deform the formable member proximate to the second member; and the anvil head is configured to separate from the interface shaft upon application of a predetermined tensile force to the interface shaft.
An elevator maintenance space projection system comprising: a projector located within an elevator shaft and arranged to project a display space within the elevator shaft, characterized in that the display space includes one or more projected images identifying at least one of a safety volume, a refuge space, and a maintenance location. a projector located within an elevator shaft and arranged to project a display space within the elevator shaft, characterized in that the display space includes one or more projected images identifying at least one of a safety volume, a refuge space, and a maintenance location.
Computer-implemented method for computing a transition parameter of a liquefied gas storage medium, the storage medium comprising at least one sealed and unrefrigerated tank (2, 4, 5, 6, 7 or 11) equipped with a safety valve, the transition parameter characterizing an evolution of a two-phase mixture contained in the sealed and unrefrigerated tank between an initial state and a final state, the two-phase mixture including a liquid phase and a vapour phase, wherein said transition parameter is selected in a group consisting of a duration of the transition τ, a liquid bleeding rate ṁ l or a vapour bleeding rate ṁ v, the method comprising the steps of: - determining, for the liquid phase and the vapour phase in the initial state, initial mass densities ρ l,i and ρ v,j, and initial internal mass energies U l,i and U v,i on the basis of an initial liquid phase temperature T l,i, an initial vapour phase temperature T v,i, an initial vapour phase pressure P i, an initial liquid phase volume V l,i and an initial liquid phase composition x l,i; - determining, for the liquid phase and the vapour phase in the final state, final mass densities ρ l,f and ρ v,f, final internal mass energies U l,f and U v,f, and final mass enthalpies H l,f and H v,f on the basis of an equation of state and a final vapour phase pressure P f, the final pressure of the vapour phase P f being less than or equal to the setting pressure of the safety valve and greater than or equal to the initial pressure of the vapour phase P i; - computing the transition parameter using the following equation: τ Q ̇ + m ̇ v H v, f − U ̅ + m ̇ l H l, f − U ̅ = ρ l, i V l, i U ̅ − U l, i + ρ v, i V t − V l, i U ̅ − U v, i + ρ v, f V t U v, f − U ̅ in which Q̇ corresponds to an energy contribution by heat ingress through the walls of a tank per unit of time, V t corresponds to a total volume of the tank and with U ̅ = ρ l, f U l, f − ρ v, f U v, f ρ l, f − ρ v, f. - determining, for the liquid phase and the vapour phase in the initial state, initial mass densities ρ l,i and ρ v,j, and initial internal mass energies U l,i and U v,i on the basis of an initial liquid phase temperature T l,i, an initial vapour phase temperature T v,i, an initial vapour phase pressure P i, an initial liquid phase volume V l,i and an initial liquid phase composition x l,i; - determining, for the liquid phase and the vapour phase in the final state, final mass densities ρ l,f and ρ v,f, final internal mass energies U l,f and U v,f, and final mass enthalpies H l,f and H v,f on the basis of an equation of state and a final vapour phase pressure P f, the final pressure of the vapour phase P f being less than or equal to the setting pressure of the safety valve and greater than or equal to the initial pressure of the vapour phase P i; - computing the transition parameter using the following equation: τ Q ̇ + m ̇ v H v, f − U ̅ + m ̇ l H l, f − U ̅ = ρ l, i V l, i U ̅ − U l, i + ρ v, i V t − V l, i U ̅ − U v, i + ρ v, f V t U v, f − U ̅
Exhaust-gas aftertreatment system of an internal combustion engine, having a reservoir vessel for storing a liquid, having a pressurized-gas source which is operatively connected to the reservoir vessel, and having a dosing valve for dosing the liquid into an exhaust-gas duct of the internal combustion engine, characterized in that, within the reservoir vessel, there is arranged a pressure tank which can be subjected, by the pressurized-gas source, to a pressure which is increased in relation to a pressure in the reservoir vessel.
Shelf stacker having a load receiving means which can be raised and lowered on a lifting frame, wherein the shelf stacker has a three-wheeled chassis and is supported on a driving surface by a steerable drive wheel, which is driven by means of a traction drive, and two non-steered load wheels, wherein the load wheels are spaced apart from the drive wheel in the vehicle longitudinal direction and are arranged laterally spaced apart in the vehicle transverse direction, wherein the shelf stacker is provided with two lateral supporting means which are spaced apart from the load wheels in the vehicle longitudinal direction and are arranged laterally spaced apart from the drive wheel in the vehicle transverse direction, wherein the supporting means are each arranged on the shelf stacker so as to be adjustable between a position in which they are raised from the driving surface and in which the supporting means have a ground clearance from the driving surface, and a position in which they are lowered onto the driving surface and in which the supporting means are in contact with the driving surface, wherein in each case an actuating drive is provided to adjust the supporting means between the raised position and the lowered position, and the actuating drives of the supporting means are activated by an electronic control device, wherein the load receiving means is movable in the vehicle transverse direction by means of a push drive, characterized in that the electronic control device is designed in such a way that, at a vehicle standstill and/or during a push-out movement of the load receiving means, wherein the vehicle standstill and/or a push-out movement of the load receiving means are/is detected by the electronic control device as a triggering signal or triggering criterion for activating the actuating drives, the actuating drives are activated in such a way that the supporting means are actuated from the raised position into the lowered position.
Computer-implemented method for determining a depth information image for an input image, in order in particular to drive vehicle functions depending on the depth information image, wherein the input image is processed by way of a convolutional neural network, wherein the convolutional neural network has multiple layers that process the input image sequentially and each convert an input feature map into an output feature map, wherein at least one of the layers is formed as a depth map layer, wherein the depth information image is determined depending on a depth map layer, wherein, in the depth map layer, - an input feature map of the depth map layer is convolved with multiple scaling filters (23, 23a, 23b, 23c) in order to obtain respective scaling maps (24a, 24b, 24c), wherein the scaling filters were generated, depending on a predefined filter, by predefined scalings of this predefined filter; - the multiple scaling maps (24a, 24b, 24c) are compared pixel-by-pixel in order to generate a respective output feature map in which each pixel corresponds to a corresponding pixel from a selected one of the scaling maps (24a, 24b, 24c), - a scaling feature map is generated by assigning each pixel of the scaling feature map to an indication indicating the scaling map (24a, 24b, 24c) from which the pixel of the output feature map is selected; wherein the depth information image corresponds to the scaling feature map or is determined depending on the scaling feature map. - an input feature map of the depth map layer is convolved with multiple scaling filters (23, 23a, 23b, 23c) in order to obtain respective scaling maps (24a, 24b, 24c), wherein the scaling filters were generated, depending on a predefined filter, by predefined scalings of this predefined filter; - the multiple scaling maps (24a, 24b, 24c) are compared pixel-by-pixel in order to generate a respective output feature map in which each pixel corresponds to a corresponding pixel from a selected one of the scaling maps (24a, 24b, 24c), - a scaling feature map is generated by assigning each pixel of the scaling feature map to an indication indicating the scaling map (24a, 24b, 24c) from which the pixel of the output feature map is selected;
A load transporting apparatus including: a main body having a front end, which supports a lifting device which is movable upwardly/downwardly in a generally vertical plane, and a rear end; a ground engaging wheel positioned at or towards the front end of the main body and supported for rotation about a generally horizontal axis; a support member having a handle which is pivotally connected at its lower end to the support member, which support member is connected to the main body at its rear end, and which supports a pair of wheel assemblies, each assembly including a wheel (24a,b) which is supported for rotation about a generally horizontal wheel axis, wherein each wheel assembly permits the wheel (24a,b) to swivel about a swivel axis which is substantially perpendicular to the wheel axis and off-set therefrom; wherein the support member is connected to the main body by connection means which is configured to permit rotation of the support member relative to the main body about an axis which extends generally in a fore-aft direction of the apparatus. a main body having a front end, which supports a lifting device which is movable upwardly/downwardly in a generally vertical plane, and a rear end; a ground engaging wheel positioned at or towards the front end of the main body and supported for rotation about a generally horizontal axis; a support member having a handle which is pivotally connected at its lower end to the support member, which support member is connected to the main body at its rear end, and which supports a pair of wheel assemblies, each assembly including a wheel (24a,b) which is supported for rotation about a generally horizontal wheel axis, wherein each wheel assembly permits the wheel (24a,b) to swivel about a swivel axis which is substantially perpendicular to the wheel axis and off-set therefrom; wherein the support member is connected to the main body by connection means which is configured to permit rotation of the support member relative to the main body about an axis which extends generally in a fore-aft direction of the apparatus.
Method for steering a seismic vessel associated with a sail line and a preplot line, said seismic vessel towing at least one acoustic linear antenna comprising receivers, said receivers receiving signals generated by at least one source and reflected by subsurface's layers at reflexion points, characterized in that it comprises: a) computing, according to a regression method, a shifted preplot line which has a shape substantially identical to the shape of the preplot line and which is the best fit line associated with at least some of the reflexion points; b) computing a distance D between the preplot line and the shifted preplot line; and c) providing steering information comprising or based on the distance D to a navigation system or to an operator of a navigation system, to alter the course of the seismic vessel to make the vessel be in a position wherein the reflexion points are spread around the preplot line. a) computing, according to a regression method, a shifted preplot line which has a shape substantially identical to the shape of the preplot line and which is the best fit line associated with at least some of the reflexion points; b) computing a distance D between the preplot line and the shifted preplot line; and c) providing steering information comprising or based on the distance D to a navigation system or to an operator of a navigation system, to alter the course of the seismic vessel to make the vessel be in a position wherein the reflexion points are spread around the preplot line.
Glass particles comprising Li, P and S, wherein when a Raman spectrum of the glass particles is measured five times or more and a peak at 330 to 450 cm -1 in the Raman spectrum is separated into peaks of components by waveform separation, the standard deviation of the area ratio of each of the peaks of the components is 3.0 or less, the area of the peak of PS 4 3- component obtained by the waveform separation is 10 to 95% of the total area, and the area of P 2 S 7 4- component obtained by the waveform separation is 5 to 45% of the total area, and the area of the peak of PS 4 3- component is larger than the area of the peak of P 2 S 7 4- component.
A bicycle wheel having: a wheel frame being a hollow and annular frame and having multiple equally sized wheel bars disassembled by a modular concept, and each one of the equally sized wheel bars having two halves connected to each other to form the wheel bar, and each one of the two halves being made by laminating, heating and forming a prepreg according to the mechanical properties, dimensions, and thickness requirements of the bicycle wheel by determining the number of laminated layers of the prepreg and the orientation of fiber angles of each layer of the prepreg and the design of the modular molds; wherein the equally sized wheel bars are connected to each other to form the bicycle wheel, characterised in that the prepreg is a thermoplastic prepreg. a wheel frame being a hollow and annular frame and having multiple equally sized wheel bars disassembled by a modular concept, and each one of the equally sized wheel bars having two halves connected to each other to form the wheel bar, and each one of the two halves being made by laminating, heating and forming a prepreg according to the mechanical properties, dimensions, and thickness requirements of the bicycle wheel by determining the number of laminated layers of the prepreg and the orientation of fiber angles of each layer of the prepreg and the design of the modular molds; wherein the equally sized wheel bars are connected to each other to form the bicycle wheel, characterised in that the prepreg is a thermoplastic prepreg.
A ceramic vaporization core, comprising: a porous body; and a heating body disposed on the porous body, wherein the porous body comprises at least one porous ceramic layer doped with hydroxyl group-containing matrix; characterized in that the at least one porous ceramic layer doped with hydroxyl group-containing matrix comprises components in parts by weight as follows: 35 to 55 parts by the weight of ceramic powder doped with hydroxyl group compound; and 25 to 45 parts by the weight of pore-forming agent; and wherein the ceramic powder doped with hydroxyl group compound comprises components in parts by weight as follows: 70 to 80 parts by the weight of main blank material; 10 to 15 parts by the weight of albite; 10 to 15 parts by the weight of fat clay; and 1 to 5 parts by the weight of hydroxyapatite. a porous body; and a heating body disposed on the porous body, wherein the porous body comprises at least one porous ceramic layer doped with hydroxyl group-containing matrix; characterized in that the at least one porous ceramic layer doped with hydroxyl group-containing matrix comprises components in parts by weight as follows: 35 to 55 parts by the weight of ceramic powder doped with hydroxyl group compound; and 25 to 45 parts by the weight of pore-forming agent; and wherein the ceramic powder doped with hydroxyl group compound comprises components in parts by weight as follows: 70 to 80 parts by the weight of main blank material; 10 to 15 parts by the weight of albite; 10 to 15 parts by the weight of fat clay; and 1 to 5 parts by the weight of hydroxyapatite. 35 to 55 parts by the weight of ceramic powder doped with hydroxyl group compound; and 25 to 45 parts by the weight of pore-forming agent; and wherein the ceramic powder doped with hydroxyl group compound comprises components in parts by weight as follows: 70 to 80 parts by the weight of main blank material; 10 to 15 parts by the weight of albite; 10 to 15 parts by the weight of fat clay; and 1 to 5 parts by the weight of hydroxyapatite. 70 to 80 parts by the weight of main blank material; 10 to 15 parts by the weight of albite; 10 to 15 parts by the weight of fat clay; and 1 to 5 parts by the weight of hydroxyapatite.
Shank for a flexible endoscope or for a flexible endoscopic instrument, comprising a first shank portion and, arranged in the distal direction from the first shank portion, a second shank portion, wherein the second shank portion can be angled relative to a distal end region of the first shank portion by a longitudinal adjustment of at least one tensioning means which is guided in a longitudinally displaceable manner inside the second shank portion and connected to a distal end region of the second shank portion, wherein, for the longitudinal adjustment of the at least one tensioning means, provision is made for at least one threaded drive, which can be driven by at least one torsion shaft (10, 30, 31) extending inside the first shank portion, characterized in that the torsion shaft is elongate and continuous from the proximal to the distal end region of the first shank portion and has a flexible design, at least in portions thereof.
Composition containing precursors, said precursors being suitable for the release of alkali or alkali-earth metals, said composition containing at least a compound of alkali or alkali-earth metal and at least a reducing agent, said compound and said reducing agent being dispersed in the form of powders within a hybrid organic-inorganic binder, said binder comprising at least an organic thickener component and at least an inorganic stabilizer component, characterized in that said compound of alkali or alkali-earth metal is selected among zirconates, silicates, tantalates, niobates, tungstates, molybdates and titanates of alkali or alkali-earth metals.
Method for controlling a cooling circuit of the pistons of an internal combustion engine, said circuit comprising a circulation pump and means for emitting cooling oil connected to the delivery of said circulation pump and suitable to generate a cooling jet intended to hit said pistons, said method comprising the step of generating said jet only during the upward stroke of said pistons from the bottom dead center to the top dead center.
A baseplate supporting pin, comprising a pin body, wherein the baseplate supporting pin further comprises a heating device built in the pin body, a first control unit electrically connected to the heating device for controlling the heating device; a temperature sensing device arranged within the pin body for sensing a temperature of a region around the baseplate supporting pin; and a second control unit signalingly coupled to the first control unit and the temperature sensing device respectively, for sending control signals to the first control unit based on temperature signals received from the temperature sensing device so as to control the heating device; wherein the temperature sensing device is arranged to be adjacent to the top end of the pin body to be contacted, in use, by the baseplate and located at a periphery of the top end.
A method of constructing a wind turbine, the method comprising: selecting a proposed wind turbine site at which the wind turbine is to be located; using one or more wind speed sensors, measuring wind speeds at the proposed wind turbine site during a measurement period; calculating a wind speed associated with a return period for the proposed wind turbine site by: providing wind speed measurements associated with the proposed wind turbine site, the wind speed measurements measured during a measurement period; transforming the wind speed measurements into a frequency domain to generate a measured wind speed spectrum; providing modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period, the extended period longer than the measurement period; transforming the modelled wind speeds into the frequency domain to generate a modelled wind speed spectrum; combining the measured wind speed spectrum and the modelled wind speed spectrum to generate a hybrid spectrum; transforming the hybrid spectrum from the frequency domain into a time domain to provide hybrid wind speed measurements; and calculating the return period wind speed using the hybrid wind speed measurements; altering a design parameter of the wind turbine based on the wind speed associated with the return period, the design parameter being at least one of a construction material, a tower strength, a tower thickness, a blade strength and a foundation depth; and constructing a wind turbine based on the design parameter. selecting a proposed wind turbine site at which the wind turbine is to be located; using one or more wind speed sensors, measuring wind speeds at the proposed wind turbine site during a measurement period; calculating a wind speed associated with a return period for the proposed wind turbine site by: providing wind speed measurements associated with the proposed wind turbine site, the wind speed measurements measured during a measurement period; transforming the wind speed measurements into a frequency domain to generate a measured wind speed spectrum; providing modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period, the extended period longer than the measurement period; transforming the modelled wind speeds into the frequency domain to generate a modelled wind speed spectrum; combining the measured wind speed spectrum and the modelled wind speed spectrum to generate a hybrid spectrum; transforming the hybrid spectrum from the frequency domain into a time domain to provide hybrid wind speed measurements; and calculating the return period wind speed using the hybrid wind speed measurements; altering a design parameter of the wind turbine based on the wind speed associated with the return period, the design parameter being at least one of a construction material, a tower strength, a tower thickness, a blade strength and a foundation depth; and constructing a wind turbine based on the design parameter.