mhurhangee/ep-ind-claims huggingface dataset:
An electric circuit adapted for cutting off a power supply of an electrical equipment, said electric circuit receiving as input at least two discrete electrical signals (x1, x2, x3), the electric circuit comprising: - a voltage source (+Vpp); - a number N>1 cut-off units (U1, U2, U3)connected in series to each other between the voltage source (+Vpp) and the electrical equipment, a last cut-off unit is connected to the electrical equipment and each cut-off unit (U1, U2, U3) having an open or closed state depending on an electrical control signal (x1, x2, s3); the cut-off units (U1, U2) upstream of the last cut-off unit are each controlled by a distinct discrete electrical signal (x1,x2) the last cut-off unit being controlled as a function of the state (E1, E2) of the upstream cut-off units and a discrete electrical signal different from that controlling the upstream cut-off units, characterized in that, the last cut-off unit being controlled to isolate the electrical equipment when the upstream cut-off units of the last cut-off unit have a divergent state, and furthermore the last cut-off unit is adapted to generate a short circuit once said last cut-off unit is in the closed state and the upstream cut-off units of the last cut-off unit have a divergent state. - a voltage source (+Vpp); - a number N>1 cut-off units (U1, U2, U3)connected in series to each other between the voltage source (+Vpp) and the electrical equipment, a last cut-off unit is connected to the electrical equipment and each cut-off unit (U1, U2, U3) having an open or closed state depending on an electrical control signal (x1, x2, s3);
An electrostatic dissipative composite, comprising a) a crystalline continuous thermoplastic polymer phase, wherein the crystalline continuous thermoplastic polymer phase comprises polybutylene terephthalate; and b) at least one dispersed filler phase comprised of a filler composition, comprising i. a conductive carbon black; and ii. a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene; wherein the filler composition is present in a volume percentage loading in the range of from 5.0 to 6.0 relative to a total volume of the composite; and wherein the composite exhibits a surface resistivity in the range of from 10 6 ohm/sq to 10 9 ohm/sq. a) a crystalline continuous thermoplastic polymer phase, wherein the crystalline continuous thermoplastic polymer phase comprises polybutylene terephthalate; and b) at least one dispersed filler phase comprised of a filler composition, comprising i. a conductive carbon black; and ii. a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene; i. a conductive carbon black; and ii. a non-conductive polymer, wherein the non-conductive polymer is ultra-high molecular weight polyethylene; wherein the filler composition is present in a volume percentage loading in the range of from 5.0 to 6.0 relative to a total volume of the composite; and wherein the composite exhibits a surface resistivity in the range of from 10 6 ohm/sq to 10 9 ohm/sq.
A refrigeration appliance, comprising: a cabinet forming an enclosure; a dispenser that dispenses at least one of liquid and ice to an exterior of the enclosure; and a vessel detector including an infrared emitter, a first infrared detector, and a second infrared detector; wherein the infrared emitter emits radiation having an angle of dispersion resulting in a conical area of radiation; characterized in that the infrared emitter is an infrared IR LED, and wherein the IR LED emits radiation across the opening of a recess towards the direction of the first IR detector and the second IR detector, and both of the first and second infrared detectors are arranged within the conical area of radiation and receive the radiation emitted by the infrared emitter; wherein the first infrared detector is arranged closer to a front surface of the cabinet than the second infrared detector; and wherein the dispenser, the infrared emitter, and the first and second infrared detectors are arranged such that a vessel blocks the radiation from reaching both the first and second infrared detectors when said vessel is positioned to receive the at least one of liquid and ice from the dispenser. a cabinet forming an enclosure; a dispenser that dispenses at least one of liquid and ice to an exterior of the enclosure; and a vessel detector including an infrared emitter, a first infrared detector, and a second infrared detector;
Procedure to generate several consistent device-specific software components (SK1-SK7) for field devices in automation engineering from a set of parameters which is assigned to the functionality of a field device version, said procedure comprising the following steps: a) Creation of a structured data source with device-specific parameter sets wherein every parameter set is assigned to the functionality of a field device version, wherein the parameter set assigned to the particular field device version is used as the only source from which the software components (SK1-SK7) are derived and wherein the device-specific parameter set is entered using an input mask; b) Transfer of a device-specific data set assigned to the device-specific parameter set to a generator program for the software components (SK1-SK7); c) Generation of the device-specific software components (SK1-SK7) from the data set using the generator program for the software components (SK1-SK7); d) Saving of the device-specific software components (SK1-SK7) in a memory unit. a) Creation of a structured data source with device-specific parameter sets wherein every parameter set is assigned to the functionality of a field device version, wherein the parameter set assigned to the particular field device version is used as the only source from which the software components (SK1-SK7) are derived and wherein the device-specific parameter set is entered using an input mask; b) Transfer of a device-specific data set assigned to the device-specific parameter set to a generator program for the software components (SK1-SK7); c) Generation of the device-specific software components (SK1-SK7) from the data set using the generator program for the software components (SK1-SK7); d) Saving of the device-specific software components (SK1-SK7) in a memory unit.
A refrigeration cycle apparatus comprising: a refrigerant circuit through which refrigerant is circulated; a heat exchanger unit (1, 2) accommodating a heat exchanger (5, 7) of the refrigerant circuit, and a fan (5f, 7f); a temperature sensor (94a, 94b, 94c, 94d) disposed in an area of the refrigerant circuit adjacent to a brazed connection, or in an area of the refrigerant circuit adjacent to a joint (15a, 15b) between refrigerant pipes; and a controller configured to determine presence of refrigerant leakage based on a temperature detected by the temperature sensor (94a, 94b, 94c, 94d), characterized in that the temperature sensor (94a, 94b, 94c, 94d) is covered by a heat insulation material (82a, 82b, 82d) together with the brazed connection or the joint (15a, 15b), the controller is configured to activate the fan (5f, 7f) upon determining that refrigerant leakage is present, and be triggered to deactivate the fan (5f, 7f) in response to a time variation of the temperature detected by the temperature sensor (94a, 94b, 94c, 94d) becoming positive after the fan (5f, 7f) was activated upon determining the refrigerant leakage. a refrigerant circuit through which refrigerant is circulated; a heat exchanger unit (1, 2) accommodating a heat exchanger (5, 7) of the refrigerant circuit, and a fan (5f, 7f); a temperature sensor (94a, 94b, 94c, 94d) disposed in an area of the refrigerant circuit adjacent to a brazed connection, or in an area of the refrigerant circuit adjacent to a joint (15a, 15b) between refrigerant pipes; and a controller configured to determine presence of refrigerant leakage based on a temperature detected by the temperature sensor (94a, 94b, 94c, 94d), characterized in that the temperature sensor (94a, 94b, 94c, 94d) is covered by a heat insulation material (82a, 82b, 82d) together with the brazed connection or the joint (15a, 15b), the controller is configured to activate the fan (5f, 7f) upon determining that refrigerant leakage is present, and be triggered to deactivate the fan (5f, 7f) in response to a time variation of the temperature detected by the temperature sensor (94a, 94b, 94c, 94d) becoming positive after the fan (5f, 7f) was activated upon determining the refrigerant leakage.
A method of quilting a multilayered material having a front side and a back side, in a multi needle quilting machine having a plurality of needles on the front side of the material and a corresponding plurality of loopers on the backside of the material, to position needle-thread tails to the back side of the material, the method comprising: operating the machine in a first part of a stitch cycle to advance the needles from a retracted position spaced from the material on the front side thereof, and with needle-thread tails extending from the needles on the front side of the material, through the material to poke the needle threads through the material, at respective starting positions in the material, to form loops in the needle threads on the backside of the material; then advancing the loopers and therewith hooking the loops with the loopers on the back side of the material; then with tension applied to the needle threads, moving the needles 132) relative to the material, by moving the needles or material or both relative to the other, a distance along a path away from the starting positions that is sufficient to pull the needle thread tails from the front side of the material but that is insufficient to pull the needle-thread tails out of the material; then with the needle thread tails so pulled, operating the machine to sew a plurality of chain stitch sequences in the material. operating the machine in a first part of a stitch cycle to advance the needles from a retracted position spaced from the material on the front side thereof, and with needle-thread tails extending from the needles on the front side of the material, through the material to poke the needle threads through the material, at respective starting positions in the material, to form loops in the needle threads on the backside of the material; then advancing the loopers and therewith hooking the loops with the loopers on the back side of the material; then with tension applied to the needle threads, moving the needles 132) relative to the material, by moving the needles or material or both relative to the other, a distance along a path away from the starting positions that is sufficient to pull the needle thread tails from the front side of the material but that is insufficient to pull the needle-thread tails out of the material; then with the needle thread tails so pulled, operating the machine to sew a plurality of chain stitch sequences in the material.
A method for cleaning coils in a fired heater, comprising: sending a data acquisition tool through the coils to acquire data; establishing a pre-cleaning fouling baseline derived from the data, and wherein establishing the pre-cleaning fouling baseline comprises: identifying at least one fouling area, and establishing a location in the coils for the at least one fouling area; and cleaning the coils by driving at least one cleaning pig through the coils, characterised in that establishing the pre-cleaning fouling baseline further comprises: developing an optimized cleaning plan for the coils based on the pre-cleaning fouling baseline, and wherein the optimized cleaning plan comprises a focused cleaning for the at least one fouling area; and cleaning the coils based on the optimized cleaning plan with the at least one cleaning pig, and wherein the cleaning comprises: performing the focused cleaning on the at least one fouling area with the at least one cleaning pig, and monitoring the location of the at least one cleaning pig within the coils of the fired heater in real-time. sending a data acquisition tool through the coils to acquire data; establishing a pre-cleaning fouling baseline derived from the data, and wherein establishing the pre-cleaning fouling baseline comprises: identifying at least one fouling area, and establishing a location in the coils for the at least one fouling area; identifying at least one fouling area, and establishing a location in the coils for the at least one fouling area; and cleaning the coils by driving at least one cleaning pig through the coils, characterised in that establishing the pre-cleaning fouling baseline further comprises: developing an optimized cleaning plan for the coils based on the pre-cleaning fouling baseline, and wherein the optimized cleaning plan comprises a focused cleaning for the at least one fouling area; and cleaning the coils based on the optimized cleaning plan with the at least one cleaning pig, and wherein the cleaning comprises: performing the focused cleaning on the at least one fouling area with the at least one cleaning pig, and monitoring the location of the at least one cleaning pig within the coils of the fired heater in real-time. developing an optimized cleaning plan for the coils based on the pre-cleaning fouling baseline, and wherein the optimized cleaning plan comprises a focused cleaning for the at least one fouling area; and cleaning the coils based on the optimized cleaning plan with the at least one cleaning pig, and wherein the cleaning comprises: performing the focused cleaning on the at least one fouling area with the at least one cleaning pig, and monitoring the location of the at least one cleaning pig within the coils of the fired heater in real-time. performing the focused cleaning on the at least one fouling area with the at least one cleaning pig, and monitoring the location of the at least one cleaning pig within the coils of the fired heater in real-time.
A compound represented by the formula wherein X B is NR B1 wherein R B1 is a hydrogen atom or a C 1-6 alkyl group; R B2 is a carbamoyl group optionally having 1 or 2 substituents selected from a C 1-6 alkyl group optionally having substituent(s), a C 2-6 alkynyl group optionally having substituent(s), a C 3-8 cycloalkyl group optionally having substituent(s), a C 6-10 aryl group optionally having substituent(s), and a heterocyclic group optionally having substituent(s); R B3 is an optionally halogenated C 1-6 alkoxy group; R B5 is a C 1-6 alkyl group optionally having substituent(s), a C 6-10 aryl group optionally having substituent(s), or a heterocyclic group optionally having substituent(s); and R B6 is a C 1-6 alkyl group, or a salt thereof. a C 1-6 alkyl group optionally having substituent(s), a C 2-6 alkynyl group optionally having substituent(s), a C 3-8 cycloalkyl group optionally having substituent(s), a C 6-10 aryl group optionally having substituent(s), and a heterocyclic group optionally having substituent(s); a C 1-6 alkyl group optionally having substituent(s), a C 6-10 aryl group optionally having substituent(s), or a heterocyclic group optionally having substituent(s); and
Medical system with a medical device (16, 27, 28) and with a foot switch (1, 26) for use with the medical device (16, 27, 28), the foot switch (1, 26) comprising: an interface for communicative connection of the foot switch (1, 26) with a control unit of the device (16, 27, 28), at least one pedal (2, 3) for actuating the foot switch (1, 26) with a foot, an actuation sensor, which is configured to detect an actuation of the foot switch (1, 26), wherein the actuation sensor generates a signal that is transmitted via the interface to the control unit of the device (16, 27, 28) for switching a function of the medical device (16, 27, 28), a processor which is configured to receive signals from the control unit, which assigns the function that is to be switched to the at least one pedal (2, 3) via the interface, and at least one LED to display the assigned function in a certain color, wherein the LED is a multicolor LED (4, 5), which can generate light in a multiplicity of different colors to display different functions of the device (16, 27, 28). an interface for communicative connection of the foot switch (1, 26) with a control unit of the device (16, 27, 28), at least one pedal (2, 3) for actuating the foot switch (1, 26) with a foot, an actuation sensor, which is configured to detect an actuation of the foot switch (1, 26), wherein the actuation sensor generates a signal that is transmitted via the interface to the control unit of the device (16, 27, 28) for switching a function of the medical device (16, 27, 28), a processor which is configured to receive signals from the control unit, which assigns the function that is to be switched to the at least one pedal (2, 3) via the interface, and at least one LED to display the assigned function in a certain color, wherein the LED is a multicolor LED (4, 5), which can generate light in a multiplicity of different colors to display different functions of the device (16, 27, 28).
A device-managing method comprising: a first cloud-connecting device obtaining, from a server, connection status of at least one target cloud-connecting device associated with a same user account as of the first cloud-connection device, wherein the connection status includes identifying whether the at least one target cloud-connecting device is connected to the server, the first cloud-connecting device transmitting, to the server, a connection-managing message directed to the at least one target cloud-connecting device, when the at least one target cloud-connecting device is connected to the server, and the server managing the connection status of the at least one target cloud-connecting device based on the connection-managing message transmitted from the first cloud-connecting device, characterised in that the server managing the connection status of the at least one target cloud-connecting device comprises setting types of services provided to the at least one target cloud-connecting device, and the types of services comprises a first type of services in which the target cloud-connecting device is configured to only upload but not download, a second type of services in which the target cloud-connecting device is configured to only download but not upload, and a third type of services in which the target cloud-connecting device is configured to only browse online but not download or upload documents. a first cloud-connecting device obtaining, from a server, connection status of at least one target cloud-connecting device associated with a same user account as of the first cloud-connection device, wherein the connection status includes identifying whether the at least one target cloud-connecting device is connected to the server, the first cloud-connecting device transmitting, to the server, a connection-managing message directed to the at least one target cloud-connecting device, when the at least one target cloud-connecting device is connected to the server, and the server managing the connection status of the at least one target cloud-connecting device based on the connection-managing message transmitted from the first cloud-connecting device, characterised in that the server managing the connection status of the at least one target cloud-connecting device comprises setting types of services provided to the at least one target cloud-connecting device, and the types of services comprises a first type of services in which the target cloud-connecting device is configured to only upload but not download, a second type of services in which the target cloud-connecting device is configured to only download but not upload, and a third type of services in which the target cloud-connecting device is configured to only browse online but not download or upload documents.
A method for manufacturing a laminated tile, characterized by said method comprising the steps of: a) using a primer composition that comprises monomers that form part of a water polymerizable polymerization system; b) applying said primer composition to at least one of a first surface of a solid tile body and a first surface of a concrete body, c) contacting said first surfaces of said solid tile body and said concrete body; d) polymerizing said primer composition for obtaining a laminated tile with an elastic bonding between the solid tile body and the concrete body. a) using a primer composition that comprises monomers that form part of a water polymerizable polymerization system; b) applying said primer composition to at least one of a first surface of a solid tile body and a first surface of a concrete body, c) contacting said first surfaces of said solid tile body and said concrete body; d) polymerizing said primer composition for obtaining a laminated tile with an elastic bonding between the solid tile body and the concrete body.
A method for a computer-aided testing and documentation of an installation action of a user for an installation of spatially decentralized electrical components of a machine, wherein a complete establishment of an electrical and/or mechanical connection of an installation element to one of the electrical components is tested and documented, the method comprising the following steps: Receiving at least one measured value from a testing means, wherein the at least one measured value results from a detection of a measured variable which is specific to the installation action, Validating the installation action of the user with regard to the complete establishment of the electrical and/or mechanical connection of the installation element, based on a comparison of the at least one received measured value with at least one measured value specification, in order to determine whether a conformity of the at least one received measured value with the at least one measured value specification is ensured; and Documenting the validated installation action based on the validating in that a marking for the connection is provided in an installation specification, namely in a circuit diagram, wherein during documenting the validated installation action the marking is defined depending on a result of the validating, and indicates a presence and/or an extent of the establishment of the electrical and/or mechanical connection and/or a faulty and/or deviating performance of the installation action from a specification. Receiving at least one measured value from a testing means, wherein the at least one measured value results from a detection of a measured variable which is specific to the installation action, Validating the installation action of the user with regard to the complete establishment of the electrical and/or mechanical connection of the installation element, based on a comparison of the at least one received measured value with at least one measured value specification, in order to determine whether a conformity of the at least one received measured value with the at least one measured value specification is ensured; and Documenting the validated installation action based on the validating in that a marking for the connection is provided in an installation specification, namely in a circuit diagram, wherein during documenting the validated installation action the marking is defined depending on a result of the validating, and indicates a presence and/or an extent of the establishment of the electrical and/or mechanical connection and/or a faulty and/or deviating performance of the installation action from a specification.