mhurhangee/ep-ind-claims huggingface dataset:
A MEMS device comprising a fixed membrane and a movable membrane separated by a gap, wherein the fixed membrane and the movable membrane are circular, wherein the movement of the movable membrane is sensed or controlled to provide the operation of the device, wherein the fixed membrane comprises an array of holes across the membrane area, wherein at least a set of holes which are provided adjacent the outer periphery of the fixed membrane comprise a plurality of rows of elongate holes, the rows at different distances from the periphery, characterised in that each row of holes of the set comprises a circle at a fixed radius, in that the holes in one row are staggered with respect to the holes in another row and the elongate direction of each hole extends generally along the direction of the outer periphery, in that within said set of holes, each row has longer holes than the adjacent row on the radial inner side, such that the hole length is proportional to the radial distance from the centre.
Drain fitting, in particular in the form of a floor drain or for a bathtub or shower tray, having a drain housing having an inlet opening and an outlet, an annular and/or flange-shaped fastening element associated with the inlet opening, and an odor trap formed between the inlet opening and the outlet, wherein the outlet is formed as a pipe socket (4.1) for connecting a pipeline, wherein the pipe socket (4.1) has an outer pipe section (4.11) and an inner pipe section (4.12) arranged inside the outer pipe section (4.11), wherein the pipe sections (4.11, 4.12) are radially spaced from each other, wherein the drain housing has a pot-shaped section (4.2) from the base of which the pipe sections (4.11, 4.12) extend vertically downwards, and wherein in the pot-shaped section (4.2) a pipe section (4. 5) is formed or arranged which extends upwardly therein, characterized in that an inner pipe (4.7) is arranged in the pipe section (4.5) extending upwardly into the pot-shaped section (4.2), which inner pipe extends downwardly into the inner pipe section (4.12) of the pipe socket (4.1). a drain housing having an inlet opening and an outlet, an annular and/or flange-shaped fastening element associated with the inlet opening, and an odor trap formed between the inlet opening and the outlet, wherein the outlet is formed as a pipe socket (4.1) for connecting a pipeline, wherein the pipe socket (4.1) has an outer pipe section (4.11) and an inner pipe section (4.12) arranged inside the outer pipe section (4.11), wherein the pipe sections (4.11, 4.12) are radially spaced from each other, wherein the drain housing has a pot-shaped section (4.2) from the base of which the pipe sections (4.11, 4.12) extend vertically downwards, and wherein in the pot-shaped section (4.2) a pipe section (4. 5) is formed or arranged which extends upwardly therein, characterized in that an inner pipe (4.7) is arranged in the pipe section (4.5) extending upwardly into the pot-shaped section (4.2), which inner pipe extends downwardly into the inner pipe section (4.12) of the pipe socket (4.1).
A method for watermarking a three-dimensional object, wherein said three-dimensional object is represented by a plurality of vertices, the method being characterized in that it comprises: - Computing a signature of a local neighborhood of a current vertex among the plurality of vertices by fitting a parametric model to said local neighborhood of said current vertex, wherein said local neighborhood comprises said current vertex and at least one other vertex and wherein said signature belongs to a signature space; - Obtaining a target signature by identifying, among a set of quantization points belonging to a subspace of said signature space in which each quantization point is associated with a watermark payload, a quantization point that encodes a desired watermark payload and that matches with said signature; - Modifying a position of at least one vertex of said local neighborhood while leaving said current vertex untouched such that a signature obtained by fitting said parametric model to said modified local neighborhood matches said target signature. - Computing a signature of a local neighborhood of a current vertex among the plurality of vertices by fitting a parametric model to said local neighborhood of said current vertex, wherein said local neighborhood comprises said current vertex and at least one other vertex and wherein said signature belongs to a signature space; - Obtaining a target signature by identifying, among a set of quantization points belonging to a subspace of said signature space in which each quantization point is associated with a watermark payload, a quantization point that encodes a desired watermark payload and that matches with said signature; - Modifying a position of at least one vertex of said local neighborhood while leaving said current vertex untouched such that a signature obtained by fitting said parametric model to said modified local neighborhood matches said target signature.
Electric installation arrangement for the operation of an electric consumer network and for demand-oriented control of a safety level in the electric consumer network, comprising at least a first switch for disconnecting at least a first consumer and/or a partial network from the consumer network, at least a first sensor for detecting at least a first physical variable which is induced or can be influenced by the consumer network, and at least a first tripping unit which switches off the first switch within a first tripping time when a first tripping threshold value that can be pre-selected is exceeded by a first measured variable proportional to the first variable, and thereby disconnects the consumer and/or the partial network from the consumer network, wherein the electric installation arrangement comprises at least a first control and monitoring unit for the pre-selectable and automatic adjustment of the first tripping threshold value and/or the first tripping time as a function of at least one control parameter, characterised in that the first control and monitoring unit comprises at least one clock, especially a timer, for adjusting the first tripping threshold and/or first tripping time in a pre-selectable, automatic and time-controlled manner.
Flow device, in particular an axial compressor for a gas turbine, comprising a housing that supports a plurality of guide vanes (6a, 6b) and in which a rotor comprising a plurality of rotor blades (10a, 10b,...) is rotatably mounted, wherein the guide vanes (6a, 6b) comprise sealing elements (14a, 14b) that, together with sealing fins (16a, 16b,...) arranged opposite thereto on the rotor side, define cavities (20, 24), wherein a cooling air flow (34a, 34b) can be introduced into at least one of the cavities (20, 24), wherein at least one radial channel for introducing the cooling air flow (34a, 34b) is formed in at least one guide vane (6a, 6b), which radial channel extends radially between a housing channel and an annular cavity (24a, 24b) that is formed between the sealing fins (16a, 16b,...), and which channel leads into said cavity, wherein the radial collar-like sealing fins (16a, 16b,...) on the rotor side taper towards the sealing elements (14a, 14b).
An assembly for use in a hand held airless fluid dispensing device, the assembly comprising: a spray tip including: a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; and a valve including: a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; wherein the valve includes a cylinder defining an axial flow passage, characterized by a cap at an outlet end of the cylinder having a tip bore extending transversely to the axial flow passage, and wherein the barrel of the spray tip is positioned in the transverse tip bore of the cap. a spray tip including: a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; and a spray orifice; a sealing seat; and a tip barrel, wherein the spray orifice and the sealing seat are mounted to the tip barrel; and a valve including: a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; a needle configured to mate with the sealing seat to close the spray orifice; and a spring to bias the needle against the sealing seat; wherein the valve includes a cylinder defining an axial flow passage, characterized by a cap at an outlet end of the cylinder having a tip bore extending transversely to the axial flow passage, and wherein the barrel of the spray tip is positioned in the transverse tip bore of the cap.
A method of dynamically controlling power within a multicore central processing unit, the method comprising: executing, on a physical processor, a plurality of virtual cores (446, 448) in a wireless device, wherein the virtual cores (446, 448) simulate physical cores (410, 412, 414) of the multicore central processing unit operating in the wireless device; virtually executing one or more tasks, one or more threads, or a combination thereof at the virtual cores (446, 448) in the wireless device; physically executing one or more tasks, one or more threads, or a combination thereof at a zeroth physical core of the multicore central processing unit in the wireless device; monitoring a workload on the virtual cores (446, 448) for parallelism; and powering up or powering down at least one physical core (410, 412, 414) of the multicore central processing unit based on the monitoring. executing, on a physical processor, a plurality of virtual cores (446, 448) in a wireless device, wherein the virtual cores (446, 448) simulate physical cores (410, 412, 414) of the multicore central processing unit operating in the wireless device; virtually executing one or more tasks, one or more threads, or a combination thereof at the virtual cores (446, 448) in the wireless device; physically executing one or more tasks, one or more threads, or a combination thereof at a zeroth physical core of the multicore central processing unit in the wireless device; monitoring a workload on the virtual cores (446, 448) for parallelism; and powering up or powering down at least one physical core (410, 412, 414) of the multicore central processing unit based on the monitoring.
A method of depositing a reagent onto a sample in a system, wherein the system has a base for supporting a sample and a liquid dispenser for aliquoting a liquid onto the sample on the base, said method comprising: a. placing a sample onto the base of the system; and b. depositing a solid composition onto the sample on the base, wherein the composition comprises a water-soluble polymer and a reagent embedded therein, the water-soluble polymer being polyvinyl alcohol and the reagent being an antibody, and wherein the composition dissolves onto the sample and thereby depositing the reagent on the sample. a. placing a sample onto the base of the system; and b. depositing a solid composition onto the sample on the base, wherein the composition comprises a water-soluble polymer and a reagent embedded therein, the water-soluble polymer being polyvinyl alcohol and the reagent being an antibody, and wherein the composition dissolves onto the sample and thereby depositing the reagent on the sample.
A organic electroluminescence device, comprising on a substrate: a pair of electrodes (3, 9), and at least one organic layer including a light emitting layer disposed between the electrodes (3, 9) on a substrate, wherein a phosphorescent emitting material represented by the following Formula (C-1) is contained in the light emitting layer: wherein in Formula (C-1), each of Q 1, Q 2, Q 3 and Q 4 independently represents a ligand which is coordinated to Pt, and each of L 1, L 2 and L 3 independently represents a single bond or a divalent linking group, wherein a maximum light emission wavelength is 350 nm to 600 nm, characterized in that a compound represented by the following Formula is contained in the light emitting layer: (Cz) p -L- q wherein in Formula, Cz is a substituted or unsubstituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or a substituted or unsubstituted arylene group, a substituted or unsubstituted cycloalkylene group, or a substituted or unsubstituted aromatic heterocyclic ring, A is a substituted or unsubstituted nitrogen-containing six-membered aromatic heterocyclic ring, and each of p and q is independently an integer of 1-6. a pair of electrodes (3, 9), and at least one organic layer including a light emitting layer disposed between the electrodes (3, 9) on a substrate, wherein a phosphorescent emitting material represented by the following Formula (C-1) is contained in the light emitting layer: wherein in Formula (C-1), each of Q 1, Q 2, Q 3 and Q 4 independently represents a ligand which is coordinated to Pt, and each of L 1, L 2 and L 3 independently represents a single bond or a divalent linking group, wherein a maximum light emission wavelength is 350 nm to 600 nm, characterized in that a compound represented by the following Formula is contained in the light emitting layer: (Cz) p -L- q wherein in Formula, Cz is a substituted or unsubstituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or a substituted or unsubstituted arylene group, a substituted or unsubstituted cycloalkylene group, or a substituted or unsubstituted aromatic heterocyclic ring, A is a substituted or unsubstituted nitrogen-containing six-membered aromatic heterocyclic ring, and each of p and q is independently an integer of 1-6. wherein in Formula (C-1), each of Q 1, Q 2, Q 3 and Q 4 independently represents a ligand which is coordinated to Pt, and each of L 1, L 2 and L 3 independently represents a single bond or a divalent linking group, wherein a maximum light emission wavelength is 350 nm to 600 nm, characterized in that a compound represented by the following Formula is contained in the light emitting layer: (Cz) p -L- q wherein in Formula, Cz is a substituted or unsubstituted arylcarbazolyl group or a carbazolylaryl group, L is a single bond or a substituted or unsubstituted arylene group, a substituted or unsubstituted cycloalkylene group, or a substituted or unsubstituted aromatic heterocyclic ring, A is a substituted or unsubstituted nitrogen-containing six-membered aromatic heterocyclic ring, and each of p and q is independently an integer of 1-6.
A toughened film forming agent for use in a fiber sizing, a finish coating or a binder composition, the toughened film forming agent comprising a combination of a film forming polymer and a toughening agent, where the combination is dispersed in water, wherein the toughening agent is selected from the group consisting of core shell polymer comprises a styrene butadiene rubber, a polybutadiene rubber or a siloxane rubber, rubber materials,nanotubes, nanofibers and combinations thereof, and wherein the film forming polymer is selected from the group consisting of epoxy resins, polyurethane resins, epoxy-polyurethane resins, polyester resins, epoxy-polyester resins, polyvinylacetate resins, polypropylene resins, and combinations thereof. wherein the toughening agent is selected from the group consisting of core shell polymer comprises a styrene butadiene rubber, a polybutadiene rubber or a siloxane rubber, rubber materials,nanotubes, nanofibers and combinations thereof, and wherein the film forming polymer is selected from the group consisting of epoxy resins, polyurethane resins, epoxy-polyurethane resins, polyester resins, epoxy-polyester resins, polyvinylacetate resins, polypropylene resins, and combinations thereof.
A system comprising: a shunt including a shunt element (112, 404); a first conductor (510,804) attached to the shunt at a first connection point (114, 402, 402) via a first connecting member (402,located on a first side of the shunt element the first connecting member (402) comprising a half-shear button; a second conductor (804) attached to the shunt at a second connection point (116, 402, 402) located on a second side of the shunt element; a third conductor (804) attached to the shunt at the first connection point via the first connecting member, the third conductor being composed of a different material than the first conductor; and one or more hardware components configured to: determine a temperature of the shunt element based at least in part on a signal from the first conductor and a signal from the third conductor; and determine an amount of current passing through the shunt element based at least in part on the signal from the first conductor, a signal from the second conductor, and the temperature of the shunt element. a shunt including a shunt element (112, 404); a first conductor (510,804) attached to the shunt at a first connection point (114, 402, 402) via a first connecting member (402,located on a first side of the shunt element the first connecting member (402) comprising a half-shear button; a second conductor (804) attached to the shunt at a second connection point (116, 402, 402) located on a second side of the shunt element; a third conductor (804) attached to the shunt at the first connection point via the first connecting member, the third conductor being composed of a different material than the first conductor; and one or more hardware components configured to: determine a temperature of the shunt element based at least in part on a signal from the first conductor and a signal from the third conductor; and determine an amount of current passing through the shunt element based at least in part on the signal from the first conductor, a signal from the second conductor, and the temperature of the shunt element. determine a temperature of the shunt element based at least in part on a signal from the first conductor and a signal from the third conductor; and determine an amount of current passing through the shunt element based at least in part on the signal from the first conductor, a signal from the second conductor, and the temperature of the shunt element.
A method for logging into a computing device, wherein - a computing device is logged into by entering a combination of a valid user name and a password at a login prompt being provided by the computing device; - the computing device is logged into by entering a combination of at least one valid user name and a device-dependent password referred to as a backlock access password and being associated with and determined by the computing device at the login prompt, characterized in that - the computing device generates the backlock access password when the user name having been entered at the login prompt is a valid user name and the password having been entered at the login prompt is not a user password being associated with the valid user name. - a computing device is logged into by entering a combination of a valid user name and a password at a login prompt being provided by the computing device; - the computing device is logged into by entering a combination of at least one valid user name and a device-dependent password referred to as a backlock access password and being associated with and determined by the computing device at the login prompt, characterized in that - the computing device generates the backlock access password when the user name having been entered at the login prompt is a valid user name and the password having been entered at the login prompt is not a user password being associated with the valid user name.
Field device for determining and/or monitoring at least one process variable of a medium in a vessel with at least one unit capable of vibrating mechanically, wherein the unit capable of vibrating mechanically can be connected to the vessel via a process connection, and with at least one drive/reception unit, wherein the drive/reception unit causes the unit capable of vibrating mechanically to vibrate, or wherein the drive/reception unit detects the vibrations of the unit capable of vibrating mechanically, characterized in that the unit capable of vibrating mechanically has at least three vibration bodies (10, 11, 12), in that the vibration bodies have a rod-like or tubular design, in that the three vibration bodies (10, 11, 12) perform vibrations which the drive/reception unit generates or detects, in that the vibrations of the mechanical unit capable of vibrating mechanically are flexural vibrations, in that the three vibration bodies (10, 11, 12) comprise a long rod with a length, a mass and a rigidity; a first short rod with a length, a mass and a rigidity; and a second short rod with a length, a mass and a rigidity, in that the first short rod is connected, with an end section (11.1) facing towards the process, to the long rod at an end section of the long rod (10.1) facing towards the process, in that the second short rod is connected, with an end section (12.1) facing away from the process, to the long rod at an end section of the long rod (10.2) facing away from the process, in that the short rods (11, 12) have an end that is not connected to the long rod, and is therefore a freely vibrating end, in that the long rod coaxially surrounds at least the first short rod, in that the long rod is connected to the process connection at least at a clamping area (10.3), wherein at least the designs of the three vibration bodies (10, 11, 12), their interconnections and the clamping area (10.3) are arranged by way of specifications and/or calculations in such a way that the vibrations of the unit capable of vibrating mechanically have a vibration node in the clamping area and in that the reactive forces and reaction moments acting on the process connection as a result of the vibrations of the unit capable of vibrating mechanically are as close to zero as possible.
A method for producing chemicals through continuous fermentation, the method comprising: (a) generating chemicals by fermentation with a culture medium containing a fermentation feedstock and microbes or cultured cells at a temperature of 15 °C to 65 °C in a fermenter; (b) filtering the culture medium through a separation membrane; (c) collecting the chemical from the filtrate; (d) retaining or refluxing unfiltered remains in the fermenter, (e) adding a fermentation feedstock to the culture medium in the fermenter, and (f) washing the separation membrane with a washing liquid supplied from the permeate side of the separation membrane during step (a) in a state where the fermentation with the microbes or the cultured cells proceeds in the culture medium in the fermenter; wherein the washing liquid is water which has a temperature at least 5 °C higher than the temperature of the culture medium in the fermenter of step (a) up to a maximum temperature of the washing water of 100 °C, and the concentration of the microbes in the fermenter is controlled by supplying the washing liquid. (a) generating chemicals by fermentation with a culture medium containing a fermentation feedstock and microbes or cultured cells at a temperature of 15 °C to 65 °C in a fermenter; (b) filtering the culture medium through a separation membrane; (c) collecting the chemical from the filtrate; (d) retaining or refluxing unfiltered remains in the fermenter, (e) adding a fermentation feedstock to the culture medium in the fermenter, and (f) washing the separation membrane with a washing liquid supplied from the permeate side of the separation membrane during step (a) in a state where the fermentation with the microbes or the cultured cells proceeds in the culture medium in the fermenter;