mhurhangee/ep-ind-claims huggingface dataset:
A circuit comprising at least one MOSFET protected by a module for blocking said MOSFET, the module being placed between the gate of the MOSFET and an electrical conductor, the module comprising switched connection means having at least two states: ▪ a first state which connects the gate of the MOSFET to the conductor, which is maintained at an electrical potential suitable for blocking the MOSFET, this first state being activated in the presence of an alarm signal, ▪ a second state which disconnects the gate of the MOSFET, this second state being activated in the absence of the alarm signal, wherein the switching means comprise at least one diode PIN and a field-effect switching transistor, the anode of the diode being connected to the gate of the MOSFET, the cathode of the diode being connected to the drain of the switching transistor, the source of the switching transistor being connected to the electrical conductor, and the gate of the switching transistor being controlled by the alarm signal, the MOSFET operating at radiofrequencies, wherein the alarm signal is generated by a control module comprising a plurality of comparators (402, 404, 406), among which at least one comparator compares a reference signal with a second signal representing a physical quantity to be monitored in order to generate an alert signal when the second signal exceeds a threshold defined by the reference signal, the alarm signal being produced by combining the alert signals obtained from the comparators. ▪ a first state which connects the gate of the MOSFET to the conductor, which is maintained at an electrical potential suitable for blocking the MOSFET, this first state being activated in the presence of an alarm signal, ▪ a second state which disconnects the gate of the MOSFET, this second state being activated in the absence of the alarm signal,
A transponder (20; 30; 40; 50; 60; 70; 80) comprising an antenna structure configured to receive an incoming signal with RF power of a first frequency f 1 and to retransmit the incoming signal as a transparent output signal with RF power of a second frequency f 2, different from said first frequency f 1, when hit by the incoming signal, wherein said transponder further comprises: - an amplifier (29; 39; 49; 59) configured to provide an amplified transparent output signal based on the incoming signal, - a frequency converter (25; 35; 45; 55) configured to frequency convert the incoming signal into the transparent output signal, and - at least a first frequency filter (23; 33; 43) connected to said antenna structure, said first frequency filter is tuned to said first frequency f 1 to avoid amplifying incoming signals with RF power of frequencies other than said first frequency f 1; - a sensor (S; 61) configured to respond to physical stimulus for generating a control signal as output response; and - an activator for selectively activating or deactivating the possibility to retransmit based on the control signal of the sensor, wherein said sensor (S; 61) includes a motion sensor, and said activator for selectively activating or deactivating the possibility to retransmit the incoming signal as the output signal is configured for deactivating the possibility to retransmit the incoming signal as the output signal if the motion sensor detects that the transponder is moving, and for activating the possibility to retransmit the incoming signal as the output signal if the motion sensor detects that the transponder is stationary. - an amplifier (29; 39; 49; 59) configured to provide an amplified transparent output signal based on the incoming signal, - a frequency converter (25; 35; 45; 55) configured to frequency convert the incoming signal into the transparent output signal, and - at least a first frequency filter (23; 33; 43) connected to said antenna structure, said first frequency filter is tuned to said first frequency f 1 to avoid amplifying incoming signals with RF power of frequencies other than said first frequency f 1; - a sensor (S; 61) configured to respond to physical stimulus for generating a control signal as output response; and - an activator for selectively activating or deactivating the possibility to retransmit based on the control signal of the sensor,
A sensor apparatus, comprising at least one or more plug contacts (5, 5') for connecting the sensor apparatus to a socket, e.g. of a plug connector or a measuring device, and an RFID chip for storing information about the sensor apparatus, characterized in that the RFID chip is disposed at the outside of the sensor apparatus on a front side comprising the plug contact or plug contacts (5, 5').
Method for connecting a public distribution manhole with a nonpublic domestic private junction, having the following features: a. all feeding pipes leading into and all offtakes (12, 14, 16, 18, 20) leading out of said distribution manhole which are provided for sewage (12, 14), for water supply or district heating and for electric power supply and telecommunications are placed near only one border between the public area and the nonpublic area (G, H) to be connected therewith, advantageously under a pavement, trough prefabricated distribution and inspection manholes accessible from the upper end, the distance between them being such that each of said manholes may be used for disposal and supply of up to four buildings, b. all feeding pipes and offtakes (12, 14, 16, 18, 20) are prepared in the nonpublic area as empty tubes, c. on the side of the road opposite to the series of distribution manholes and at the border between the public area and the nonpublic area an angular domestic junction plate is arranged trough which all feeding pipes and offtakes (12, 14, 16, 18, 20) are led, characterized in that d. all offtake pipes for rainwater, sewage water or mixed liquor flowing from the buildings trough opposed feeding pipes (22, 24) are fed into a main conduit (12, 14) such that above a central inlet in a junction part (50, 52) a lock-up lid (13, 15) is arranged and that from the underneath lying opening both the main conduits (12, 14) as well as the feeding pipes (22, 24) may be inspected without the need of providing further inspection manholes, in particular in the nonpublic area. a. all feeding pipes leading into and all offtakes (12, 14, 16, 18, 20) leading out of said distribution manhole which are provided for sewage (12, 14), for water supply or district heating and for electric power supply and telecommunications are placed near only one border between the public area and the nonpublic area (G, H) to be connected therewith, advantageously under a pavement, trough prefabricated distribution and inspection manholes accessible from the upper end, the distance between them being such that each of said manholes may be used for disposal and supply of up to four buildings, b. all feeding pipes and offtakes (12, 14, 16, 18, 20) are prepared in the nonpublic area as empty tubes, c. on the side of the road opposite to the series of distribution manholes and at the border between the public area and the nonpublic area an angular domestic junction plate is arranged trough which all feeding pipes and offtakes (12, 14, 16, 18, 20) are led, characterized in that d. all offtake pipes for rainwater, sewage water or mixed liquor flowing from the buildings trough opposed feeding pipes (22, 24) are fed into a main conduit (12, 14) such that above a central inlet in a junction part (50, 52) a lock-up lid (13, 15) is arranged and that from the underneath lying opening both the main conduits (12, 14) as well as the feeding pipes (22, 24) may be inspected without the need of providing further inspection manholes, in particular in the nonpublic area.
A method for controlling a steerable invasive probe having a handle, wherein the method is performed outside a living subject's body and thus not a method of treatment of the human or animal body by surgery, the method comprising: inserting the handle into a jig, which is mounted on a platform capable of translating relative to a base and which comprises at least a first gear that is positioned and shaped to rotate the handle about an axis of the probe and a second gear (70, 72) that is positioned and shaped to operate a control on the handle for deflecting a tip of the probe; and coupling a transmission to a drive module, mounted on the base and comprising one or more motors, and to the jig so as to controllably rotate at least the first and second (70, 72) gears and to translate the platform along a direction parallel to the axis in order to advance and retract the probe, characterised in that the transmission comprises at least first and second telescopic drive modules, which are respectively coupled to controllably rotate the first and second (70, 72) gears over a range of locations of the platform relative to the base. inserting the handle into a jig, which is mounted on a platform capable of translating relative to a base and which comprises at least a first gear that is positioned and shaped to rotate the handle about an axis of the probe and a second gear (70, 72) that is positioned and shaped to operate a control on the handle for deflecting a tip of the probe; and coupling a transmission to a drive module, mounted on the base and comprising one or more motors, and to the jig so as to controllably rotate at least the first and second (70, 72) gears and to translate the platform along a direction parallel to the axis in order to advance and retract the probe, characterised in that the transmission comprises at least first and second telescopic drive modules, which are respectively coupled to controllably rotate the first and second (70, 72) gears over a range of locations of the platform relative to the base.
Apparatus for automatic focusing for the microscopic examination of a plurality of spatially distributed samples, comprising a microscope and an object stage which is movable along the z-axis relative to the microscope, wherein the apparatus is configured for automatic focusing by computer-aided analysis of the definition of digital microscope images in a plurality of vertical positions of the object stage, wherein the object stage comprises a carriage in the form of a frame and a sample stage mounted on the carriage, wherein the sample stage is translatable along the z-axis relative to the carriage, wherein the translation of the sample stage along the z-axis is effected by a mechanical actuator, wherein the mechanical actuator comprises a motor and drive means, and wherein motor and drive means are configured for translating the sample stage along the z-axis and wherein the carriage is translatable along the x/y-axes relative to the microscope. wherein the object stage comprises a carriage in the form of a frame and a sample stage mounted on the carriage, wherein the sample stage is translatable along the z-axis relative to the carriage, wherein the translation of the sample stage along the z-axis is effected by a mechanical actuator, wherein the mechanical actuator comprises a motor and drive means, and wherein motor and drive means are configured for translating the sample stage along the z-axis and wherein the carriage is translatable along the x/y-axes relative to the microscope.
A decorative panel in which at least a surface coating layer and a partially provided surface printing layer are laminated in this order on a heat-resistant substrate, wherein the surface coating layer is formed from a resin composition containing a fluororesin and a delustering agent, and has a thickness of 5 μm or more, and the surface of the surface coating layer has a gloss value of 10 or less (at a light incidence angle of 60°), and the surface of the surface printing layer has a gloss value (at a light incidence angle of 60°) higher by 10 or more than the gloss value of the surface of the surface coating layer (at a light incidence angle of 60°), and the surface printing layer contains a lustrous pigment.
A method for producing logs of web material, comprising the following steps: - sequentially winding a plurality of logs of web material; - feeding the logs along a feed path through a plurality of stations (5, 7, 9, 10, 12) arranged along the feed path; - randomly taking single logs from the feed path and transferring each log taken from the feed path to a measurement station associated with the feed path by automatically deviating the logs from the feed path to a measurement path; said measurement station being arranged outside the feed path; - measuring at least one parameter of the log transferred to the measurement station; - after having performed the measurement, transferring the log from the measurement station to the feed path. - sequentially winding a plurality of logs of web material; - feeding the logs along a feed path through a plurality of stations (5, 7, 9, 10, 12) arranged along the feed path; - randomly taking single logs from the feed path and transferring each log taken from the feed path to a measurement station associated with the feed path by automatically deviating the logs from the feed path to a measurement path; said measurement station being arranged outside the feed path; - measuring at least one parameter of the log transferred to the measurement station; - feeding the logs along a feed path through a plurality of stations (5, 7, 9, 10, 12) arranged along the feed path; - randomly taking single logs from the feed path and transferring each log taken from the feed path to a measurement station associated with the feed path by automatically deviating the logs from the feed path to a measurement path; said measurement station being arranged outside the feed path; - measuring at least one parameter of the log transferred to the measurement station; - after having performed the measurement, transferring the log from the measurement station to the feed path.
An apparatus comprising: a plurality of gas detectors (12, 14) at different locations within a predetermined geographical area, wherein each gas detector of the plurality of gas detectors (12, 14) periodically measures a current gas level at a respective location of the gas detector; a gas monitoring processor (22, 24) that monitors gas readings within the predetermined geographic area from the plurality of gas detectors (12, 14); and a wireless transceiver of the gas monitoring processor (22, 24) that receives the gas readings from the plurality of gas detectors (12, 14), wherein for each gas reading of a first gas detector of the plurality of gas detectors (12, 14), a processor of the first gas detector compares the current gas level with a previously measured gas level, wherein the first gas detector wirelessly transmits a message including the current gas level to the wireless transceiver of the gas monitoring processor (22, 24) when the current gas level is different than the previous gas level, and wherein the first gas detector transmits a beacon message to the wireless transceiver of the gas monitoring processor (22, 24) when the current gas level is unchanged from the previous gas level, wherein the beacon message is an indication that the current gas level is unchanged from the previous gas level, and wherein the beacon message is a smaller data packet than a data packet associated with the current gas level. a plurality of gas detectors (12, 14) at different locations within a predetermined geographical area, wherein each gas detector of the plurality of gas detectors (12, 14) periodically measures a current gas level at a respective location of the gas detector; a gas monitoring processor (22, 24) that monitors gas readings within the predetermined geographic area from the plurality of gas detectors (12, 14); and a wireless transceiver of the gas monitoring processor (22, 24) that receives the gas readings from the plurality of gas detectors (12, 14), wherein for each gas reading of a first gas detector of the plurality of gas detectors (12, 14), a processor of the first gas detector compares the current gas level with a previously measured gas level, wherein the first gas detector wirelessly transmits a message including the current gas level to the wireless transceiver of the gas monitoring processor (22, 24) when the current gas level is different than the previous gas level, and wherein the first gas detector transmits a beacon message to the wireless transceiver of the gas monitoring processor (22, 24) when the current gas level is unchanged from the previous gas level, wherein the beacon message is an indication that the current gas level is unchanged from the previous gas level, and wherein the beacon message is a smaller data packet than a data packet associated with the current gas level.
An atomiser for a vapour provision system comprising: a vaporisation chamber having a volume; a vapour generating element disposed in the vaporisation chamber for providing vapour into the vaporisation chamber volume; at least one plenum chamber (122, 124) separated from the vaporisation chamber; one or more separating walls (126, 132) to separate the or each plenum chamber from the vaporisation chamber; and an air flow path through the atomiser comprising: a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion (42, 44) through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; in which the or each separating wall includes one or more apertures, each communicating with the or a vapour collection portion of the airflow path. a vaporisation chamber having a volume; a vapour generating element disposed in the vaporisation chamber for providing vapour into the vaporisation chamber volume; at least one plenum chamber (122, 124) separated from the vaporisation chamber; one or more separating walls (126, 132) to separate the or each plenum chamber from the vaporisation chamber; and an air flow path through the atomiser comprising: a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion (42, 44) through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; a vapour collecting portion through the vaporisation chamber smaller than said volume, along which air travels to collect vapour provided by the vapour generating element; and at least one transport portion (42, 44) through a plenum chamber, the or each transport portion delivering air to or collecting air from the vapour collection portion; in which the or each separating wall includes one or more apertures, each communicating with the or a vapour collection portion of the airflow path.
A parenteral veterinary composition comprising a non-steroidal anti-inflammatory drug, an antibiotic which is florfenicol, at least 35% expressed in g:100ml of dimethylsulphoxide, and at least one polar aprotic solvent which is glycerol formal.
An observation apparatus comprising: an acquisition unit configured to acquire positional information indicating a position of a bottom surface of a support for supporting an observation target; an imaging optical system configured to form an optical image showing the observation target supported by the support on an image plane, the imaging optical system including a ray deflection optical system configured to deflect a ray; a focus adjustment unit configured to adjust a focal position of the imaging optical system based on the positional information acquired by the acquisition unit; and a control unit configured to perform control for matching an inclination of the image plane on which the optical image is formed to an inclination of an imaging surface of an imaging element based on the positional information acquired by the acquisition unit; wherein the ray deflection optical system is disposed between the bottom surface and the imaging surface; and wherein the control unit is configured to control the ray deflection optical system to deflect the ray such that the inclination of the image plane matches the inclination of the imaging surface. an acquisition unit configured to acquire positional information indicating a position of a bottom surface of a support for supporting an observation target; an imaging optical system configured to form an optical image showing the observation target supported by the support on an image plane, the imaging optical system including a ray deflection optical system configured to deflect a ray; a focus adjustment unit configured to adjust a focal position of the imaging optical system based on the positional information acquired by the acquisition unit; and a control unit configured to perform control for matching an inclination of the image plane on which the optical image is formed to an inclination of an imaging surface of an imaging element based on the positional information acquired by the acquisition unit; wherein the ray deflection optical system is disposed between the bottom surface and the imaging surface; and wherein the control unit is configured to control the ray deflection optical system to deflect the ray such that the inclination of the image plane matches the inclination of the imaging surface.
A heat tube assembly, for control of layer formation in an aluminium electrolysis cell and exploitation of heat, said electrolysis cell comprising a side lining and a shell; characterized in that the assembly comprises a plurality of evaporation tubes for absorbing heat by evaporation of a working fluid from a liquid phase to a gas phase; a collector in fluid communication with the upper end of the evaporation tubes, a distribution manifold in fluid communication with the lower end of the evaporation tubes, wherein the collector and distribution manifold are also connected by a plurality of return lines (160, 162, 164), wherein a first return line is provided connecting a first end of the collector with the distribution manifold, and a second return line is provided connecting a second end of the collector at an opposite side of the first end of the collector with the distribution manifold. a plurality of evaporation tubes for absorbing heat by evaporation of a working fluid from a liquid phase to a gas phase; a collector in fluid communication with the upper end of the evaporation tubes, a distribution manifold in fluid communication with the lower end of the evaporation tubes, wherein the collector and distribution manifold are also connected by a plurality of return lines (160, 162, 164), wherein a first return line is provided connecting a first end of the collector with the distribution manifold, and a second return line is provided connecting a second end of the collector at an opposite side of the first end of the collector with the distribution manifold. a first return line is provided connecting a first end of the collector with the distribution manifold, and a second return line is provided connecting a second end of the collector at an opposite side of the first end of the collector with the distribution manifold.