mhurhangee/ep-ind-claims huggingface dataset:
A main and standby switchover method for a network device, characterized by comprising: receiving an interrupt signal indicating that a switchover needs to be performed for main and standby Gigabit Ethernet, GE, ports (1,401); performing a switching operation of the main and standby GE ports, setting the main GE port in a blocked state, and in the blocked state, the main GE port only forwarding a bridge protocol data unit, BPDU, message, and stopping learning a MAC address;; and enabling the standby GE port, setting the standby GE port in a forwarding state, and in the forwarding state, the standby GE port forwarding messages of all types, and learning the MAC address. receiving an interrupt signal indicating that a switchover needs to be performed for main and standby Gigabit Ethernet, GE, ports (1,401); performing a switching operation of the main and standby GE ports, setting the main GE port in a blocked state, and in the blocked state, the main GE port only forwarding a bridge protocol data unit, BPDU, message, and stopping learning a MAC address;; and enabling the standby GE port, setting the standby GE port in a forwarding state, and in the forwarding state, the standby GE port forwarding messages of all types, and learning the MAC address.
Damper, in particular vibration damper, which has two force introduction elements (1, 2) which, when acted on by external, oppositely directed forces (3, 4, 5, 6), move towards one another or move away from one another, wherein the damper has a first and a second chamber (7, 8), whose filling volume is able to be changed and which are both filled, in particular completely, with a flowable medium and which are both arranged on a common intermediate element having a passage device by means of which the chambers (7, 8) are connected to one another, wherein the medium can flow from one chamber into the other chamber, wherein each of the chambers (7, 8) has a flexible sleeve part (13, 15) and one of the force introduction elements (1, 2), and wherein in each case an approach of the force introduction element (1, 2) to the intermediate element and the accompanying change in length of the respective chamber (7, 8) brings about a change in the internal volume of the respective chamber (7, 8), characterized in that the ratio of change in length to change in internal volume is different for the two chambers (7, 8).
A processor comprising: decode circuitry to decode an instruction, wherein the instruction comprises fields for an opcode, an identifier for a first source matrix operand, an identifier of a second source matrix operand, and an identifier for a source/destination matrix operand; and execution circuitry (1411, 2405) to execute the decoded instruction to multiply the identified first source matrix operand by the identified second source matrix operand, add a result of the multiplication to the identified source/destination matrix operand (2409, 2411), and store a result of the addition in the identified source/destination matrix operand, wherein the multiplication is per row of the identified first source matrix operand and per column of the identified second source matrix operand, and characterized in that: the instruction further comprises a field for an identifier of a counter register, wherein a counter in the counter register is updated as each row of the identified source/destination matrix operand is stored, the counter indicating progress of executing the decoded instruction. decode circuitry to decode an instruction, wherein the instruction comprises fields for an opcode, an identifier for a first source matrix operand, an identifier of a second source matrix operand, and an identifier for a source/destination matrix operand; and execution circuitry (1411, 2405) to execute the decoded instruction to multiply the identified first source matrix operand by the identified second source matrix operand, add a result of the multiplication to the identified source/destination matrix operand (2409, 2411), and store a result of the addition in the identified source/destination matrix operand, wherein the multiplication is per row of the identified first source matrix operand and per column of the identified second source matrix operand, and characterized in that: the instruction further comprises a field for an identifier of a counter register, wherein a counter in the counter register is updated as each row of the identified source/destination matrix operand is stored, the counter indicating progress of executing the decoded instruction. the instruction further comprises a field for an identifier of a counter register, wherein a counter in the counter register is updated as each row of the identified source/destination matrix operand is stored, the counter indicating progress of executing the decoded instruction.
A method for producing an undiluted microbial cell dispersion comprising: a primary disintegrating step of disintegrating aggregates of dead microbial cells or thermoduric microbial cells (thermoduric spores) into individual microbial cells in an aqueous medium by a mechanical disintegrating force; a dissolution step of heating and stirring a polysaccharide-microbial cell dispersion that is obtained by dispersing an aqueous gelling or thickening polysaccharide in the microbial cell dispersion to a temperature equal to or higher than a dissolution temperature of the polysaccharide; a cooling step of cooling the polysaccharide-microbial cell dispersion to a temperature equal to or lower than an aqueous gelling or thickening temperature; a secondary disintegrating step of re-disintegrating the cooled polysaccharide-microbial cell dispersion by a mechanical disintegrating force; and a filling step of reheating the secondarily disintegrated polysaccharide-microbial cell dispersion to a temperature before the aqueous gelling or thickening polysaccharide is redissolved and filling the polysaccharide-microbial cell dispersion to a container, wherein the gelling or thickening polysaccharide is selected from the group consisting of agar, carrageenan, gellan gum, pectin, xanthan gum and guar gum. a primary disintegrating step of disintegrating aggregates of dead microbial cells or thermoduric microbial cells (thermoduric spores) into individual microbial cells in an aqueous medium by a mechanical disintegrating force; a dissolution step of heating and stirring a polysaccharide-microbial cell dispersion that is obtained by dispersing an aqueous gelling or thickening polysaccharide in the microbial cell dispersion to a temperature equal to or higher than a dissolution temperature of the polysaccharide; a cooling step of cooling the polysaccharide-microbial cell dispersion to a temperature equal to or lower than an aqueous gelling or thickening temperature; a secondary disintegrating step of re-disintegrating the cooled polysaccharide-microbial cell dispersion by a mechanical disintegrating force; and a filling step of reheating the secondarily disintegrated polysaccharide-microbial cell dispersion to a temperature before the aqueous gelling or thickening polysaccharide is redissolved and filling the polysaccharide-microbial cell dispersion to a container,
A lighting device configured to generate lighting device light, wherein the lighting device comprises (i) a first laser light source configured to generate a beam of first laser light source light, (ii) a speckle control element, and (iii) a control system, wherein in one or more control modes of the control system the speckle control element is configured in an optical path of the first laser light source light for providing the lighting device light comprising a speckle distribution of the first laser light source light, wherein at a predetermined distance L from the lighting device the speckle distribution has a first speckle contrast value C1 selected from the range of 3%<C1<100%, wherein the predetermined distance L is selected from the range of 0.5-50 m, and wherein the control system is further configured to dynamically control with the speckle control element the first speckle contrast value C1 in one or more of the one or more control modes, characterised in that the lighting device further comprises an optical sensor configured to sense an area at the predetermined distance from the lighting device illuminated by the lighting device light and to generate a corresponding sensor signal, wherein the control system is configured to control the speckle distribution as a function of the sensor signal, and wherein the control system is configured to estimate a roughness-related parameter of the area on the basis of the sensor signal, and wherein the control system is configured to control the first speckle contrast value C1 as function of the roughness-related parameter. the lighting device further comprises an optical sensor configured to sense an area at the predetermined distance from the lighting device illuminated by the lighting device light and to generate a corresponding sensor signal, wherein the control system is configured to control the speckle distribution as a function of the sensor signal, and wherein the control system is configured to estimate a roughness-related parameter of the area on the basis of the sensor signal, and wherein the control system is configured to control the first speckle contrast value C1 as function of the roughness-related parameter.
A robot cell, in particular for demonstration purposes, of the type comprising: - a robot; - a base, which carries a unit for control of said robot and defines a working surface where said robot operates; and - a protective screen configured for separating from outside said working surface and said robot that operates on said working surface; said robot cell being characterized in that: - said robot is carried by a vertical-movement system (34, 32) and is vertically mobile between a raised position, in which said robot can operate on said working surface, and a lowered position, in which said robot is set underneath said working surface and is contained within said base; and - said protective screen is carried by a vertical-movement system (64, 82) and is vertically mobile between a raised position, in which it separates from outside said working surface and said robot that operates on said working surface, and a lowered position, in which it extends prevalently underneath said working surface. - a robot; - a base, which carries a unit for control of said robot and defines a working surface where said robot operates; and - a protective screen configured for separating from outside said working surface and said robot that operates on said working surface; - said robot is carried by a vertical-movement system (34, 32) and is vertically mobile between a raised position, in which said robot can operate on said working surface, and a lowered position, in which said robot is set underneath said working surface and is contained within said base; and - said protective screen is carried by a vertical-movement system (64, 82) and is vertically mobile between a raised position, in which it separates from outside said working surface and said robot that operates on said working surface, and a lowered position, in which it extends prevalently underneath said working surface.
An apparatus for determining a pilot pattern in a wireless communication system, comprising: an orthogonal frequency division multiplexing, OFDM, demodulator configured to generate frequency-domain data by fast-Fourier-transform, FFT,-processing a received signal; and a pilot pattern decider configured to calculate a coherence bandwidth and a coherence time using subcarrier values received from the OFDM demodulator and the subcarrier values channel compensated by an equalizer, and to select one of a plurality of pilot patterns according to a ratio of the coherence bandwidth to the coherence time, wherein the pilot pattern decider comprises: a mean square error, MSE, calculator configured to calculate the MSE of each of the subcarrier values channel compensated by the equalizer; a first calculator configured to calculate the coherence bandwidth by accumulation of the MSEs along a frequency axis; a second calculator configured to calculate the coherence time by accumulation of the MSEs along a time axis; and a pattern selector configured to select the pilot pattern according to the ratio of coherence bandwidth to the coherence time. an orthogonal frequency division multiplexing, OFDM, demodulator configured to generate frequency-domain data by fast-Fourier-transform, FFT,-processing a received signal; and a pilot pattern decider configured to calculate a coherence bandwidth and a coherence time using subcarrier values received from the OFDM demodulator and the subcarrier values channel compensated by an equalizer, and to select one of a plurality of pilot patterns according to a ratio of the coherence bandwidth to the coherence time, a mean square error, MSE, calculator configured to calculate the MSE of each of the subcarrier values channel compensated by the equalizer; a first calculator configured to calculate the coherence bandwidth by accumulation of the MSEs along a frequency axis; a second calculator configured to calculate the coherence time by accumulation of the MSEs along a time axis; and a pattern selector configured to select the pilot pattern according to the ratio of coherence bandwidth to the coherence time.
A network interface device (432, 632) comprising: a network interface (120, 634) configured to provide an interface to a network (104, 604); a primary functional component interface configured to provide an interface to a functional component, wherein the functional component interface comprises a receive data, RXD, interface and a transmit data, TXD, interface; and distributed test logic (430, 630) located in a path between the network interface and a secondary functional component interface and configured to manage test information related to testing of the functional component and to communicate test information between the network interface and the distributed test logic and between the secondary functional component interface and the distributed test logic; wherein the distributed test logic includes a network protocol controller (114, 440, 640) to decode signals received on the network interface into digital data according to a network protocol; and wherein the RXD interface and the TXD interface are data interfaces, and wherein the distributed test logic is configured to generate a test vector and communicate the test vector to the functional component via the secondary functional component interface. a network interface (120, 634) configured to provide an interface to a network (104, 604); a primary functional component interface configured to provide an interface to a functional component, wherein the functional component interface comprises a receive data, RXD, interface and a transmit data, TXD, interface; and distributed test logic (430, 630) located in a path between the network interface and a secondary functional component interface and configured to manage test information related to testing of the functional component and to communicate test information between the network interface and the distributed test logic and between the secondary functional component interface and the distributed test logic; wherein the distributed test logic includes a network protocol controller (114, 440, 640) to decode signals received on the network interface into digital data according to a network protocol; and wherein the RXD interface and the TXD interface are data interfaces, and wherein the distributed test logic is configured to generate a test vector and communicate the test vector to the functional component via the secondary functional component interface.
A method for the recovery of particles by means of a microfluidic system, which comprises at least one collecting chamber, at least one outlet, at least one inlet and a moving assembly, which is adapted to move at least one given particle at least at the collecting chamber; the collecting chamber, the outlet and the inlet are connected to one another in a fluidic manner; the method comprises a feeding step, during which a fluid is fed from the inlet to the outlet so as to generate a flow of the fluid; the method being characterized in that it comprises a moving step, which takes place during, in particular, at least partially simultaneously with the feeding step and during which a force is exerted upon at least one given particle of a group of particles arranged in the collecting chamber so as to move at least the given particle until it selectively reaches, relative to other particles of the group, a release area in which a dragging force created by the fluid flow is such as to move the given particle towards the outlet; the collecting chamber comprises a standing area, where the group of particles is arranged and the dragging force is not sufficient to substantially move the particles of the group of particles towards the outlet. the method comprises a feeding step, during which a fluid is fed from the inlet to the outlet so as to generate a flow of the fluid; the method being characterized in that it comprises a moving step, which takes place during, in particular, at least partially simultaneously with the feeding step and during which a force is exerted upon at least one given particle of a group of particles arranged in the collecting chamber so as to move at least the given particle until it selectively reaches, relative to other particles of the group, a release area in which a dragging force created by the fluid flow is such as to move the given particle towards the outlet; the collecting chamber comprises a standing area, where the group of particles is arranged and the dragging force is not sufficient to substantially move the particles of the group of particles towards the outlet.
An LaNiO 3 thin-film-forming composition, comprising an LaNiO 3 precursor, an organic solvent and a stabilizer, wherein the mixture ratio of the LaNiO 3 precursor relative to a total of 100% by mass of the LaNiO 3 precursor, the organic solvent, and the stabilizer is 1 to 20% by mass on an oxide basis, the mixture ratio of the stabilizer relative to a total amount of the LaNiO 3 precursor (1 mole) is over 0 mole and 10 moles or less, and the remainder is the organic solvent, characterized in that, the organic solvent is one type of single solvent selected from the group consisting of ethylene glycol monopropyl ether, ethylene glycol monoisopropyl ether, 3-methoxy-1-butanol, hexamethylene tetramine, isoamyl acetate, glycerol 1,2-carbonate, diethyl carbonate, and lactic acid or a mixed solvent composed of ethylene glycol monoisopropylether and ethanol, and the dispersion component dD, the polarization component dP, and the hydrogen bond component dH of the HSP value of the organic solvent fulfill the relations 14<dD<20, 3<dP<26, and 3<dH<30, respectively.
A furred animal grooming appliance comprising a body forming a handle and able to be connected to a vacuum cleaner, the distal end of the body part forming a head part providing a working opening which supports pivotally at its forward edge a comb which is movable between a deployed position to enable grooming of the coats of furred animals and a retracted position in which it is retracted into said head part to remove accumulated hair from said comb and swept by an airflow passing through said appliance generated by a vacuum cleaner to which the proximal end of said handle can be connected, and characterised by further comprising a stop arm fixed to said comb and having a weighted free end which enables the displacement of said comb between said positions by flicking said appliance, sharply downwards in a short arc so that centrifugal force throws said stop arm outwardly thereby displacing the comb to its retracted position.
A method of calculating a drop delay in a stream of a flow cytometer, comprising: (a) identifying a laser position relative to a frame of reference; (b) determining break-off point; and (c) calculating drop delay by 1) setting a strobe phase, 2) imaging the stream, 3) determining a widths plot by measuring the widths of the stream based on the image of the stream, 4. determining the peaks in the widths plot; 5) calculating phase of laser intercept, and 6) calculating drop delay in response to the peaks in the widths plot, a phase of the laser intercept relative to a droplet generation wave and a charge phase. (a) identifying a laser position relative to a frame of reference; (b) determining break-off point; and (c) calculating drop delay by 1) setting a strobe phase, 2) imaging the stream, 3) determining a widths plot by measuring the widths of the stream based on the image of the stream, 4. determining the peaks in the widths plot; 5) calculating phase of laser intercept, and 6) calculating drop delay in response to the peaks in the widths plot, a phase of the laser intercept relative to a droplet generation wave and a charge phase. 1) setting a strobe phase, 2) imaging the stream, 3) determining a widths plot by measuring the widths of the stream based on the image of the stream, 4. determining the peaks in the widths plot; 5) calculating phase of laser intercept, and 6) calculating drop delay in response to the peaks in the widths plot, a phase of the laser intercept relative to a droplet generation wave and a charge phase.
Method for manufacturing at least one component region of a component, in particular a component of a turbomachine, comprising at least the following steps: a) layered application of at least one metal material onto at least one construction platform; b) layered and local fusion and/or sintering of the material by supplying energy by means of at least one high-energy beam in the region of a build-up and joining zone in order to form at least one subregion of at least one component layer of the component region and/or the component; c) layered reduction of the construction platform by a predefined layer thickness; and d) repetition of steps a) to c) until completion of the component region and/or the component, characterized in that, before, during and/or after the layered and local fusion and/or sintering according to method step b), at least one further subregion of the component layer is formed by local fusion and/or sintering of the material by means of inductive heating at a temperature or in a temperature range that is above the solidus temperature of the metal material used. a) layered application of at least one metal material onto at least one construction platform; b) layered and local fusion and/or sintering of the material by supplying energy by means of at least one high-energy beam in the region of a build-up and joining zone in order to form at least one subregion of at least one component layer of the component region and/or the component; c) layered reduction of the construction platform by a predefined layer thickness; and d) repetition of steps a) to c) until completion of the component region and/or the component, characterized in that, before, during and/or after the layered and local fusion and/or sintering according to method step b), at least one further subregion of the component layer is formed by local fusion and/or sintering of the material by means of inductive heating at a temperature or in a temperature range that is above the solidus temperature of the metal material used.