mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a microgrid arrangement comprising a microgrid, a plurality of Distributed Generators, DGs, connected to the microgrid, and a switch for, in a closed position, connecting the microgrid to a power grid, and for, in an open position, disconnecting the microgrid from said power grid, the method comprising: detecting instability in the microgrid, comprising detecting that the switch is in the open position, islanding the microgrid arrangement; and in response to the detection (Si), switching operating mode of a first DG of the plurality of DGs from a grid following mode to a grid forming support mode and of a second DG of the plurality of DGs to a grid forming mode, keeping the first DG in the grid forming support mode and the second DG in the grid forming mode as long as the microgrid arrangement is islanded; characterised in when the microgrid arrangement is islanded, controlling (S 3) output to the microgrid from the first DG based on a first voltage reference during a transient state of the microgrid directly after the islanding, aiding the second DG in controlling the voltage and frequency of the microgrid, and to a predetermined fixed power output based on a power reference while disregarding the first voltage reference when the microgrid has stabilized enough for the second DG to be able to hold the microgrid at a steady state without the aid of the first DG, and controlling output to the microgrid from the second DG based on a second voltage reference during both the transient state and the steady state. detecting instability in the microgrid, comprising detecting that the switch is in the open position, islanding the microgrid arrangement; and in response to the detection (Si), switching operating mode of a first DG of the plurality of DGs from a grid following mode to a grid forming support mode and of a second DG of the plurality of DGs to a grid forming mode, keeping the first DG in the grid forming support mode and the second DG in the grid forming mode as long as the microgrid arrangement is islanded; characterised in when the microgrid arrangement is islanded, controlling (S 3) output to the microgrid from the first DG based on a first voltage reference during a transient state of the microgrid directly after the islanding, aiding the second DG in controlling the voltage and frequency of the microgrid, and to a predetermined fixed power output based on a power reference while disregarding the first voltage reference when the microgrid has stabilized enough for the second DG to be able to hold the microgrid at a steady state without the aid of the first DG, and controlling output to the microgrid from the second DG based on a second voltage reference during both the transient state and the steady state.
A method for flash testing a photovoltaic panel connected to an electronic module, using a flash test module, the electronic module including an input attached to the photovoltaic panel and a power output, comprising the step of: measuring circuit parameter of the electronic module; providing a low impedance path between the input of the electronic module and the power output of the electronic module by activating a bypass between the input of the electronic module and the power output of the electronic module; performing a flash test of the photovoltaic panel using the flash test module (17,20); and characterized in that: the method further comprises injecting a current into the electronic module, during the testing, wherein the current is previously determined based on the measured circuit parameter thereby compensating for the presence of the electronic module during the testing. measuring circuit parameter of the electronic module; providing a low impedance path between the input of the electronic module and the power output of the electronic module by activating a bypass between the input of the electronic module and the power output of the electronic module; performing a flash test of the photovoltaic panel using the flash test module (17,20); and
A bicycle component operating device comprising: a base member including a first end with a bicycle mounting structure, a second end spaced from the first end, a top surface extending between the first end and the second end, a bottom surface being opposite to the top surface, a pair of oppositely facing lateral surfaces (27e, 27f) extending between the top and bottom surfaces, an insertion opening being provided on one of the top and bottom surfaces to provide access to an interior space within the base member; an operating lever pivotally mounted on the base member about a first pivot axis extending transverse to the lateral surfaces; an operating unit disposed in the interior space of the base member, the operating unit having a dimension relative to the insertion opening such that the operating unit is insertable into the interior space of the base member through the insertion opening, the base member being configured such that the insertion opening continuously extends from the first pivot axis toward the first end and the second end with respect to the first pivot axis, characterized in that the operating unit includes a shift axle having a first axle end that is supported to the base member and a second axle end that is supported by a hanger that is attached to the base member the operating unit is not supported by the base member between a rear interior surface of the first end of the base member that defines the interior space of the base member and the hanger in a direction toward the insertion opening. a base member including a first end with a bicycle mounting structure, a second end spaced from the first end, a top surface extending between the first end and the second end, a bottom surface being opposite to the top surface, a pair of oppositely facing lateral surfaces (27e, 27f) extending between the top and bottom surfaces, an insertion opening being provided on one of the top and bottom surfaces to provide access to an interior space within the base member; an operating lever pivotally mounted on the base member about a first pivot axis extending transverse to the lateral surfaces; an operating unit disposed in the interior space of the base member, the operating unit having a dimension relative to the insertion opening such that the operating unit is insertable into the interior space of the base member through the insertion opening, the base member being configured such that the insertion opening continuously extends from the first pivot axis toward the first end and the second end with respect to the first pivot axis, characterized in that the operating unit includes a shift axle having a first axle end that is supported to the base member and a second axle end that is supported by a hanger that is attached to the base member the operating unit is not supported by the base member between a rear interior surface of the first end of the base member that defines the interior space of the base member and the hanger in a direction toward the insertion opening.
A combination of a circuit wafer and a connector, the circuit wafer including an electrical contact pad, the electrical contact pad comprising a first region having a first length in a longitudinal direction; the electrical contact pad includes a second region having a second length in the longitudinal direction that is greater than the first length; and the connector including a first contact arm and a second contact arm, the first region contacts the first contact arm of the connector and the second region contacts the second contact arm of the connector, characterized in that the electrical contact pad is a signal or ground pad; the first length facilitates contact with two points (310a, 310b) of the first contact arm, which are separated by a first distance wherein the first length of the first region is greater than the first distance, and the second length facilitates contact with two points (310a, 310b) of the second contact arm, which are separated by a second distance that is greater than the first distance wherein the second length of the second region is greater than the second distance; and the first region and the second region are joined by a chamfered region. the circuit wafer including an electrical contact pad, the electrical contact pad comprising a first region having a first length in a longitudinal direction; the electrical contact pad includes a second region having a second length in the longitudinal direction that is greater than the first length; and the connector including a first contact arm and a second contact arm, the first region contacts the first contact arm of the connector and the second region contacts the second contact arm of the connector, characterized in that the electrical contact pad is a signal or ground pad; the first length facilitates contact with two points (310a, 310b) of the first contact arm, which are separated by a first distance wherein the first length of the first region is greater than the first distance, and the second length facilitates contact with two points (310a, 310b) of the second contact arm, which are separated by a second distance that is greater than the first distance wherein the second length of the second region is greater than the second distance; and the first region and the second region are joined by a chamfered region.
An orthopedic device (1100, 2100) comprising: a first member (1118, 1160, 1190, 1234, 1290, 2120) contoured to generally correspond to an anatomical limb; a second member (1102, 1194, 1232, 1310, 2102) contoured to generally correspond to an anatomical limb and corresponding to the first member (1118, 1160, 1190, 1234, 1290, 2120); and at least one expansion mechanism (1136, 1184, 1294, 2126) positioned on the first member (1118, 1160, 1190, 1234, 1290, 2120) and configured to accommodate changes in anatomical limb size due to an increase or decrease in swelling and/or to accommodate different sized anatomical limbs of various users; characterized in that the at least one expansion mechanism (1136, 1184, 1294, 2126) is formed between first and second wing portions (1134, 1174, 1292, 2122) of the first member (1118, 1160, 1190, 1234, 1290, 2120) to allow the first and second wing portions to move relative to each other, the at least one expansion mechanism (1136, 1184, 1294, 2126) comprising a frangible or cuttable bridge portion spanning across the expansion mechanism characterised by a flexible overmolded portion formed within the expansion mechanism and along the bridge portion. a first member (1118, 1160, 1190, 1234, 1290, 2120) contoured to generally correspond to an anatomical limb; a second member (1102, 1194, 1232, 1310, 2102) contoured to generally correspond to an anatomical limb and corresponding to the first member (1118, 1160, 1190, 1234, 1290, 2120); and at least one expansion mechanism (1136, 1184, 1294, 2126) positioned on the first member (1118, 1160, 1190, 1234, 1290, 2120) and configured to accommodate changes in anatomical limb size due to an increase or decrease in swelling and/or to accommodate different sized anatomical limbs of various users; characterized in that the at least one expansion mechanism (1136, 1184, 1294, 2126) is formed between first and second wing portions (1134, 1174, 1292, 2122) of the first member (1118, 1160, 1190, 1234, 1290, 2120) to allow the first and second wing portions to move relative to each other, the at least one expansion mechanism (1136, 1184, 1294, 2126) comprising a frangible or cuttable bridge portion spanning across the expansion mechanism characterised by a flexible overmolded portion formed within the expansion mechanism and along the bridge portion.
An integrated circuit, IC, (402, 600) for tunneling I2C transactions between a master and slaves, the IC comprising: a first low-speed interface configured to be coupled to a low-speed link, wherein the first low-speed interface comprises an I2C interface; a translation circuit associated with the first low-speed interface, the translation circuit comprising a slave address table lookup, SATL, circuit; a second low-speed interface (418, 642) configured to be coupled to a sideband link in a multichannel bus, the sideband link comprising sideband use, SBU, pins of Universal Serial Bus, USB, standard, wherein the second low-speed interface comprises a sideband interface in a USB interface; and a control circuit configured to: receive a first signal from the first low-speed interface from the master; use the translation circuit to generate a command having an address embedded therein, wherein the address is an address of a slave translated using the SATL; and send the command through the second low-speed interface across the multichannel bus to a remote IC, the remote IC comprising the slave. a first low-speed interface configured to be coupled to a low-speed link, wherein the first low-speed interface comprises an I2C interface; a translation circuit associated with the first low-speed interface, the translation circuit comprising a slave address table lookup, SATL, circuit; a second low-speed interface (418, 642) configured to be coupled to a sideband link in a multichannel bus, the sideband link comprising sideband use, SBU, pins of Universal Serial Bus, USB, standard, wherein the second low-speed interface comprises a sideband interface in a USB interface; and a control circuit configured to: receive a first signal from the first low-speed interface from the master; use the translation circuit to generate a command having an address embedded therein, wherein the address is an address of a slave translated using the SATL; and send the command through the second low-speed interface across the multichannel bus to a remote IC, the remote IC comprising the slave. receive a first signal from the first low-speed interface from the master; use the translation circuit to generate a command having an address embedded therein, wherein the address is an address of a slave translated using the SATL; and send the command through the second low-speed interface across the multichannel bus to a remote IC, the remote IC comprising the slave.
A granular activated carbon having the following properties to: an ignition residue of 2 mass fraction% or less; a hardness of 80 mass fraction% or more; and a pore volume of 0.55 to 0.75 mL/g, wherein a ratio of a mesopore volume to the pore volume satisfies a relationship represented by formula: V × 0.73 × 0.80 ≤ Vmeso V ≤ V × 0.73 × 1.20 V: pore volume (mL/g) Vmeso: volume (mL/g) of pores with a diameter of 2 to 30 nm; wherein the granular activated carbon is produced by the following steps to of: carbonizing an activated carbon raw material, followed by pulverization; mixing the activated carbon obtained in step with a calcium component, followed by molding; carbonizing and activating the activated carbon obtained in step by steam; and washing the activated carbon obtained in step with mineral acid, wherein in step, the activated carbon raw material is a coconut shell, and the carbonization temperature is 300 to 900°C, and in step, the carbonization temperature is 500 to 900°C, and the activation temperature is 800 to 1000°C. an ignition residue of 2 mass fraction% or less; a hardness of 80 mass fraction% or more; and a pore volume of 0.55 to 0.75 mL/g, wherein a ratio of a mesopore volume to the pore volume satisfies a relationship represented by formula: V: pore volume (mL/g) Vmeso: volume (mL/g) of pores with a diameter of 2 to 30 nm; carbonizing an activated carbon raw material, followed by pulverization; mixing the activated carbon obtained in step with a calcium component, followed by molding; carbonizing and activating the activated carbon obtained in step by steam; and washing the activated carbon obtained in step with mineral acid,
A device for removing powdery particles of a machine for filling a bag with a product comprising at least powdery particles, said device comprising: [a] a supply duct extending along a longitudinal direction between an inlet end and an outlet end and defining an inner volume (Vi), said supply duct being configured for receiving a filling mouth of said bag at said outlet end in a fitted manner, wherein [b] said supply duct further comprises between said first and second ends (6, 8) at least [bi] a first bellows section and [bii] an elastically deformable second section, said device further comprising: [c] closing means, arranged with respect to said second section such that they are movable between: [ci] an open position, and [cii] at least a first closing position, in which said closing means compress said second section to reduce the inner cross section of said second section, [d] at least one first linear actuator arranged to deform said first bellows section in length along said longitudinal direction and to functionally cooperate with said closing means, such that at least a variation in length in the longitudinal direction of said second section can be compensated, when said closing means move between said open and said first closing positions and [e] suction means arranged in fluid communication with said inner volume (Vi) of said supply duct, operable for removing said powdery particles contained in said inner volume (Vi) at least when said closing means are in said first closing position. [a] a supply duct extending along a longitudinal direction between an inlet end and an outlet end and defining an inner volume (Vi), said supply duct being configured for receiving a filling mouth of said bag at said outlet end in a fitted manner, wherein [b] said supply duct further comprises between said first and second ends (6, 8) at least [bi] a first bellows section and [bii] an elastically deformable second section, [bi] a first bellows section and [bii] an elastically deformable second section, [c] closing means, arranged with respect to said second section such that they are movable between: [ci] an open position, and [cii] at least a first closing position, in which said closing means compress said second section to reduce the inner cross section of said second section, [ci] an open position, and [cii] at least a first closing position, in which said closing means compress said second section to reduce the inner cross section of said second section, [d] at least one first linear actuator arranged to deform said first bellows section in length along said longitudinal direction and to functionally cooperate with said closing means, such that at least a variation in length in the longitudinal direction of said second section can be compensated, when said closing means move between said open and said first closing positions and [e] suction means arranged in fluid communication with said inner volume (Vi) of said supply duct, operable for removing said powdery particles contained in said inner volume (Vi) at least when said closing means are in said first closing position.
A strain transmitter for detecting a strain of a structure, comprising a strain body having a strain axis along which the strain body can be strained during a measurement, and having fastening means for fastening the strain body on a structure, as well as a measuring element placed at an equal distance between said fastening means along the strain axis on the strain body on the structure, characterized in that said measuring element comprises a metal sheet on which is applied a piezo-resistive silicon chip over the entire surface area of the chip wherein said silicon chip conducts static measurements and is connected to a full bridge; said metal sheet is mounted on the strain body; said piezo-resistive silicon chip in its strained state generates a voltage output proportional to the amount of strain; and in that said measuring element further comprises a circuit board where electric contacts are led from the silicon chip across the circuit board in the form of insulated conducting paths attached to the metal sheet.
A Physical Layer Transceiver, PHY, for providing link layer security comprising: analog circuitry configured to transmit to, and receive data from, a data transmission medium; digital circuitry coupled to said analog circuitry, said digital circuitry configured to transmit to, and receive from, a Media Access Controller, MAC,; and characterised by a crypto engine coupled to said digital circuitry for encrypting data from the MAC, producing encrypted data, and passing the encrypted data to the analog circuitry for transmitting on the transmission medium, and for decrypting encrypted data from the analog circuitry received over the transmission medium and passing the decrypted data to the MAC, wherein said crypto engine and said digital and analog circuitry are disposed on the same physical chip, and wherein said produced encrypted data is stored on the chip and said stored encrypted data is re-transmitted if a packet collision is determined to have occurred. analog circuitry configured to transmit to, and receive data from, a data transmission medium; digital circuitry coupled to said analog circuitry, said digital circuitry configured to transmit to, and receive from, a Media Access Controller, MAC,; and characterised by a crypto engine coupled to said digital circuitry for encrypting data from the MAC, producing encrypted data, and passing the encrypted data to the analog circuitry for transmitting on the transmission medium, and for decrypting encrypted data from the analog circuitry received over the transmission medium and passing the decrypted data to the MAC, wherein said crypto engine and said digital and analog circuitry are disposed on the same physical chip, and wherein said produced encrypted data is stored on the chip and said stored encrypted data is re-transmitted if a packet collision is determined to have occurred.
Container for packaging foods inside it comprising a tray associated with a lid, made substantially with the same perimeter shape and made with the same material of the tray suitable for closing the tray when the food is positioned inside it, such a lid being fixedly connected to the upper edge of the tray through a connection portion, such a food is positioned in the tray, in particular in a base of the tray and is coated by an adherent film so as to place the package under vacuum conditions, characterised in that the lid is made together with the tray and the upper edge of the tray and the perimeter edge of the lid are shaped so as to fixedly connected to one another, for example by interlocking, to keep the lid itself in closed position.
An operation data management device, comprising: a setting unit (51, 61, 81, 91) configured for setting operation data to be recorded out of operation data from a plurality of medical devices including a gas insufflator; and an operation data recording unit (S22, S23) configured for recording the operation data set by the setting unit (51, 61, 81, 91) in a recording device in association with a predetermine time, characterized in that the operation data recording unit (S22, S23) is configured to: change the operation data set to be recorded of another predetermined medical device based on the performance of the gas insufflator which is received from the gas insufflator, and record the operation data of the another predetermined medical device which is different from the gas insufflator based on the performance data of the gas insufflator. a setting unit (51, 61, 81, 91) configured for setting operation data to be recorded out of operation data from a plurality of medical devices including a gas insufflator; and an operation data recording unit (S22, S23) configured for recording the operation data set by the setting unit (51, 61, 81, 91) in a recording device in association with a predetermine time, change the operation data set to be recorded of another predetermined medical device based on the performance of the gas insufflator which is received from the gas insufflator, and record the operation data of the another predetermined medical device which is different from the gas insufflator based on the performance data of the gas insufflator.