mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile terminal apparatus , comprising: a wireless communication device that is configured to wirelessly receive a consumables exhaustion signal that is transmitted from a wireless beacon of an image forming apparatus and that does not specify a receiver, the consumables exhaustion signal including information that indicates a paper sheet cassette of the image forming apparatus that is empty; a notification device including a vibrator that is configured to generate vibration and/or an audio device that is configured to output sound; and a notification processing unit that is configured to activate the notification device that is configured to notify of consumables exhaustion when the wireless communication device receives the consumables exhaustion signal; wherein the notification processing unit is configured to determine a notification strength corresponding to the paper sheet cassette indicated by the consumables exhaustion signal and to notify of consumables exhaustion with the determined notification strength using the notification device; the notification strength includes a vibration strength of the vibrator and/or a sound pressure of the audio device; and the notification strength corresponding to a paper sheet cassette for facsimile is set to be higher than that corresponding to a paper cassette for printing from a personal computer. a wireless communication device that is configured to wirelessly receive a consumables exhaustion signal that is transmitted from a wireless beacon of an image forming apparatus and that does not specify a receiver, the consumables exhaustion signal including information that indicates a paper sheet cassette of the image forming apparatus that is empty; a notification device including a vibrator that is configured to generate vibration and/or an audio device that is configured to output sound; and a notification processing unit that is configured to activate the notification device that is configured to notify of consumables exhaustion when the wireless communication device receives the consumables exhaustion signal; wherein the notification processing unit is configured to determine a notification strength corresponding to the paper sheet cassette indicated by the consumables exhaustion signal and to notify of consumables exhaustion with the determined notification strength using the notification device; the notification strength includes a vibration strength of the vibrator and/or a sound pressure of the audio device; and the notification strength corresponding to a paper sheet cassette for facsimile is set to be higher than that corresponding to a paper cassette for printing from a personal computer.
Method for detecting the open or closed state of an electrical protection appliance in an electrical installation for powering an energy-consuming load , said installation comprising an upstream voltage detector and a downstream voltage detector respectively disposed upstream and downstream of said protection appliance , and a current measuring device disposed downstream of said at least one protection appliance designed to detect the current (I) passing through said load , method wherein the voltage data (V, v ) provided by said voltage detectors is used to obtain information regarding the presence or absence of voltage (V) upstream and regarding the presence or absence of voltage ( v ) downstream of said protection appliance , and in order to identify whether each of the voltages (V, v) is present or absent, a voltage threshold (Vs) is set, below which the voltage (V, v ) upstream and/or downstream of said protection appliance is considered to be absent, characterised in that a current value (I) measured by said current measuring device is used to determine, by calibration, a nominal value of the voltage (V, v ) upstream and/or downstream of said protection appliance and set said voltage threshold (Vs) based on this nominal voltage value, in that a correlation is established between said voltage data (V, v ) and a truth table corresponding to the type of protection appliance concerned to determine, depending on the presence or absence of said voltages (V, v ), whether said protection appliance is in an open state, in a closed state, in an abnormal state or in an undetermined state wherein the upstream voltage (V) and the downstream voltage ( v ) are absent, and in that the current value measured by said current measuring device is also used to determine the cause of the opening of said protection appliance between a deliberate opening and an accidental opening caused by an overload or a short-circuit.
A method, performed by a display device , the method comprising: determining, at power on of the display device comprising a display , whether a flag of the display device is set to a default value, the default value indicating that the display device has not been turned on after manufacture, wherein the flag is set to the default value at time of manufacture, wherein the flag is also reset to the default value by a factory reset process of the display device , in response to determining that the flag of the display device is set to the default value, clearing, by the display device , the flag of the display device so that the flag is no longer set to the default value and displaying, by the display device , a message indicating that in a default power mode that is a current power mode of the display device , additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, and receiving input from a user indicating that a hardware component of the additional hardware is to remain powered on when the display device enters the low-power state ; and in response to receiving the input, changing the current power mode of the display device from the default power mode , in which additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, to a non-default power mode in which the hardware component remains powered on when the display device enters the low-power state . determining, at power on of the display device comprising a display , whether a flag of the display device is set to a default value, the default value indicating that the display device has not been turned on after manufacture, wherein the flag is set to the default value at time of manufacture, wherein the flag is also reset to the default value by a factory reset process of the display device , in response to determining that the flag of the display device is set to the default value, clearing, by the display device , the flag of the display device so that the flag is no longer set to the default value and displaying, by the display device , a message indicating that in a default power mode that is a current power mode of the display device , additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, and receiving input from a user indicating that a hardware component of the additional hardware is to remain powered on when the display device enters the low-power state ; and in response to receiving the input, changing the current power mode of the display device from the default power mode , in which additional hardware of the display device that is different from the display is powered off when the display device enters a low-power state in which the display is powered off, to a non-default power mode in which the hardware component remains powered on when the display device enters the low-power state .
An antenna assembly adapted for aircraft comprising: - an antenna radiating element , and - at least an antenna coupler in electrical contact with the antenna radiating element , - a portion of a vertical tail plane of the aircraft having a portion of a front spar , - a second metallic element in electrical contact with the antenna radiating element and with a first metallic element , the antenna radiating element being located parallel to the portion of the front spar ; characterized by : - the first metallic element being in electrical contact with the antenna coupler , and the first metallic element comprising said portion of the front spar , - the antenna radiating element , the first and the second metallic elements (2,12; 3,14) and the antenna coupler being configured as an electrical circuit such that in use a closed loop is described by a current path flowing through said circuit. - an antenna radiating element , and - at least an antenna coupler in electrical contact with the antenna radiating element , - a portion of a vertical tail plane of the aircraft having a portion of a front spar , - a second metallic element in electrical contact with the antenna radiating element and with a first metallic element , the antenna radiating element being located parallel to the portion of the front spar ; - the first metallic element being in electrical contact with the antenna coupler , and the first metallic element comprising said portion of the front spar , - the antenna radiating element , the first and the second metallic elements (2,12; 3,14) and the antenna coupler being configured as an electrical circuit such that in use a closed loop is described by a current path flowing through said circuit.
Group for recirculating and cooling a cooling fluid of a vehicle, comprising: - a recirculating pump , the impeller of which is mounted on a first end of a shaft supported by a fixed group comprising a pump body designed, during use, to be fixed to the base of a combustion engine of the vehicle; - a first electric motor for rotationally driving the pump ; - a fan fastened to a bell member - an assembly for rotationally driving the fan comprising a friction coupling ; wherein the impeller of the pump and the fan are arranged to rotate about a single fixed axis of rotation (X-X); characterized in that : - the bell member is mounted on the body of the pump via a bearing ; and in that : - the assembly for rotationally driving the fan is a hybrid assembly comprising said friction coupling , which is designed to be connected to the driving shaft of the vehicle in order to transmit a rotational movement from the driving shaft to the fan , and a second electric motor for imparting to the fan a number of revolutions independent of the revolutions of the said driving shaft; the fan and the pump impeller being therefore able to be operated independently of each other. - a recirculating pump , the impeller of which is mounted on a first end of a shaft supported by a fixed group comprising a pump body designed, during use, to be fixed to the base of a combustion engine of the vehicle; - a first electric motor for rotationally driving the pump ; - a fan fastened to a bell member - an assembly for rotationally driving the fan comprising a friction coupling ; - the bell member is mounted on the body of the pump via a bearing ; and in that : - the assembly for rotationally driving the fan is a hybrid assembly comprising said friction coupling , which is designed to be connected to the driving shaft of the vehicle in order to transmit a rotational movement from the driving shaft to the fan , and a second electric motor for imparting to the fan a number of revolutions independent of the revolutions of the said driving shaft;
A laser marking system comprising: a laser ; an image capture device ; a marking head including electromagnetic energy deflectors and at least one lens , a beam path of the laser and a beam path of the image capture device both passing through the at least one lens and the electromagnetic energy deflectors ; and a computer system , characterized in that the computer system is operable to perform a method comprising: adjusting the electromagnetic energy deflectors to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system ; capturing image tiles at each of the multiple different locations with the image capture device ; stitching the image tiles to produce a composite image of the marking field ; identifying a location and orientation of an image of a workpiece within the composite image of the marking field ; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field ; and applying the mark to the workpiece (X, 315) with the laser. a laser ; an image capture device ; a marking head including electromagnetic energy deflectors and at least one lens , a beam path of the laser and a beam path of the image capture device both passing through the at least one lens and the electromagnetic energy deflectors ; and a computer system , characterized in that the computer system is operable to perform a method comprising: adjusting the electromagnetic energy deflectors to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system ; capturing image tiles at each of the multiple different locations with the image capture device ; stitching the image tiles to produce a composite image of the marking field ; identifying a location and orientation of an image of a workpiece within the composite image of the marking field ; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field ; and applying the mark to the workpiece (X, 315) with the laser. adjusting the electromagnetic energy deflectors to direct the beam path of the image capture device to multiple different locations within a marking field of the laser marking system ; capturing image tiles at each of the multiple different locations with the image capture device ; stitching the image tiles to produce a composite image of the marking field ; identifying a location and orientation of an image of a workpiece within the composite image of the marking field ; determining a location and orientation of a mark to be applied to the workpiece (X, 315) based on the location and orientation of the image of the workpiece within the composite image of the marking field ; and applying the mark to the workpiece (X, 315) with the laser.
A system for orienting a tool in a wellbore and providing notification to a surface operator of the orientation and position of the tool, the system comprising: a first pipe , wherein the first pipe is a casing string , the first pipe having a wall a portion of which defines a first target, the wall defining an inner region; a second pipe , wherein the second pipe is a tubing string having a latch key , the second pipe capable of being disposed in the inner region of the first pipe , a portion of the second pipe having a second pipe wall, a portion of which defines a second target; a device , wherein the device is a latch coupling capable of receiving the latch key , the device carried by the first pipe and capable of constraining relative movement of the two pipes at least rotationally or axially; a switch coupled to said device so as to actuate upon the latch key becoming seated in or engaged with the latch coupling ; and a circuit operatively coupled between said switch and an indicator for notifying an operator of the configuration of said switch ; wherein at the first and second targets are windows and the windows define openings in the pipe walls. a first pipe , wherein the first pipe is a casing string , the first pipe having a wall a portion of which defines a first target, the wall defining an inner region; a second pipe , wherein the second pipe is a tubing string having a latch key , the second pipe capable of being disposed in the inner region of the first pipe , a portion of the second pipe having a second pipe wall, a portion of which defines a second target; a device , wherein the device is a latch coupling capable of receiving the latch key , the device carried by the first pipe and capable of constraining relative movement of the two pipes at least rotationally or axially; a switch coupled to said device so as to actuate upon the latch key becoming seated in or engaged with the latch coupling ; and a circuit operatively coupled between said switch and an indicator for notifying an operator of the configuration of said switch ; wherein at the first and second targets are windows and the windows define openings in the pipe walls.
A high voltage high current vacuum integrated circuit , comprising a common vacuum enclosure for containing a common vacuum environment, the common vacuum enclosure containing: a) vacuum-sealed electrically-insulated feedthroughs passing electrical conductors from outside the vacuum enclosure to inside the enclosure while electrically insulating the electrical conductors from the vacuum enclosure and maintaining the vacuum seal; b) internal electrical insulation for preventing internal electrical short circuits; c) at least two cold-cathode field emission electron tubes , whose respective vacuum environments are part of said common vacuum environment; said electron tubes being configured to operate at high voltage and high current and being interconnected with each other to implement a circuit function, wherein the high voltage is greater than 400 Volts AC and the high current is greater than 50 Amps; and d) one or more internal magnetic shields (260, 262, 264 and 266) made of magnetic shielding metal for preventing deleterious interference within said electron tubes from magnetic fields produced by one or more of said electron tubes ; e) at least one internal vacuum pumping means; and f) at least one exhaust tubulation for evacuating said vacuum enclosure and subsequently sealing and separating said vacuum enclosure from at least one external vacuum pump . a) vacuum-sealed electrically-insulated feedthroughs passing electrical conductors from outside the vacuum enclosure to inside the enclosure while electrically insulating the electrical conductors from the vacuum enclosure and maintaining the vacuum seal; b) internal electrical insulation for preventing internal electrical short circuits; c) at least two cold-cathode field emission electron tubes , whose respective vacuum environments are part of said common vacuum environment; said electron tubes being configured to operate at high voltage and high current and being interconnected with each other to implement a circuit function, wherein the high voltage is greater than 400 Volts AC and the high current is greater than 50 Amps; and d) one or more internal magnetic shields (260, 262, 264 and 266) made of magnetic shielding metal for preventing deleterious interference within said electron tubes from magnetic fields produced by one or more of said electron tubes ; e) at least one internal vacuum pumping means; and f) at least one exhaust tubulation for evacuating said vacuum enclosure and subsequently sealing and separating said vacuum enclosure from at least one external vacuum pump .
Spray device, comprising a first spray unit, said first spray unit comprising a spray nozzle unit in fluid communication with a first reservoir for holding a quantity of a fluid to be sprayed, wherein said first spray nozzle unit comprises a first spray nozzle body with a first spray wall that is provided with at least one first spray orifice extending through a thickness of said first spray wall, said at least one first spray orifice receiving, during operation, said first fluid under pressure from said first reservoir at an inlet side and releasing a spray jet of said fluid to an external environment at a spray side, and wherein each of said at least one orifice has a substantially identical predetermined size, lying in a predetermined range, and at least one further spray unit , said further spray unit comprising a further spray nozzle unit in fluid communication with a further reservoir for holding a quantity of a further fluid to be sprayed, characterized in that said further spray nozzle unit comprises a further spray nozzle body with a further spray wall that is provided with at least one further spray orifice extending through a thickness of said further spray wall, said at least one further spray orifice receiving, during operation, said further fluid under pressure from said further reservoir at an inlet side and releasing a spray jet of said further fluid to an external environment at said spray side, wherein each of said at least one further orifice has a substantially identical further predetermined size, lying in a further predetermined range that differs from said first predetermined range of said at least one first orifice of said first nozzle body of said first spray unit, wherein said first range and said further range have substantially no overlap, wherein said first range is a range between 2 micron and 5 micron, and wherein said further range is a range beyond 5 micron, particularly said further range being in a range between 5 micron and 10 micron.