mhurhangee/patent-ind-claim-en huggingface dataset:
A method of classifying a plurality of state types for a device , the method comprising: accessing sensor information of the device , wherein at least some of the sensor information is used in a first set of sensor information and at least some of the sensor information is used in a second set of sensor information, the sensor information comprising information about both the motion state of a user of the device and the device position with respect to the user; processing the first set of sensor information using a first classification algorithm, wherein the first classification algorithm is configured to determine a first proposed state of a first state type and a first proposed state of a second state type; processing the second set of sensor information using a second classification algorithm, wherein the second classification algorithm is configured to determine a second proposed state of the first state type and a second proposed state of the second state type; and determining a proposed state of the device as the first proposed state of the first state type and the second proposed state of the second state type based on the results of the processing of the first set of sensor information and the processing of the second set of sensor information while discarding the first proposed state of the second state type and the second proposed state of the first state type. wherein the first state type is a motion state and the second state type is a position state of the device relative to the user of the device. accessing sensor information of the device , wherein at least some of the sensor information is used in a first set of sensor information and at least some of the sensor information is used in a second set of sensor information, the sensor information comprising information about both the motion state of a user of the device and the device position with respect to the user; processing the first set of sensor information using a first classification algorithm, wherein the first classification algorithm is configured to determine a first proposed state of a first state type and a first proposed state of a second state type; processing the second set of sensor information using a second classification algorithm, wherein the second classification algorithm is configured to determine a second proposed state of the first state type and a second proposed state of the second state type; and determining a proposed state of the device as the first proposed state of the first state type and the second proposed state of the second state type based on the results of the processing of the first set of sensor information and the processing of the second set of sensor information while discarding the first proposed state of the second state type and the second proposed state of the first state type. wherein the first state type is a motion state and the second state type is a position state of the device relative to the user of the device.
An agricultural vehicle , comprising: an internal combustion engine ; a fluid cooling system for cooling at least one component onboard the agricultural vehicle , the fluid cooling system being positioned in association with the internal combustion engine , and including a housing , and at least one cooling unit arranged within the housing , the fluid cooling system further including at least one fan, each said fan being associated with a respective said cooling unit and operable to effect air movement in a first direction and a second direction, a door which is pivotally mounted relative to the housing ; an actuator connected with the door for moving the door between a closed position against the housing and an open position allowing cleaning of an interior of the housing ; and an activator coupled with the actuator , for selectively activating the actuator , the activator further affecting selective operation of at least one said fan to effect the air movement in the first direction or the second direction, dependent upon whether the door is in the open position or the closed position, characterized in that the agricultural vehicle further includes a combustion air duct fluidly interconnecting between the interior of the fluid cooling system and the internal combustion engine, the combustion air duct including at least one baffle which is selectively operable to allow combustion air to enter the combustion air duct either from the interior or an exterior of the fluid cooling system. an internal combustion engine ; a fluid cooling system for cooling at least one component onboard the agricultural vehicle , the fluid cooling system being positioned in association with the internal combustion engine , and including a housing , and at least one cooling unit arranged within the housing , the fluid cooling system further including at least one fan, each said fan being associated with a respective said cooling unit and operable to effect air movement in a first direction and a second direction, a door which is pivotally mounted relative to the housing ; an actuator connected with the door for moving the door between a closed position against the housing and an open position allowing cleaning of an interior of the housing ; and an activator coupled with the actuator , for selectively activating the actuator , the activator further affecting selective operation of at least one said fan to effect the air movement in the first direction or the second direction, dependent upon whether the door is in the open position or the closed position, characterized in that the agricultural vehicle further includes a combustion air duct fluidly interconnecting between the interior of the fluid cooling system and the internal combustion engine, the combustion air duct including at least one baffle which is selectively operable to allow combustion air to enter the combustion air duct either from the interior or an exterior of the fluid cooling system.
Input device for vouchers of a self-service device, in particular a paying-in machine, wherein the input device is provided with at least one mechanically acting alignment element for aligning the vouchers inserted into the input device , wherein the alignment element is provided on the input side with two run-on surfaces at an angle to each other, wherein the angle of inclination of the first run-on surface enclosed relative to the longitudinal mid-axis of the input device is greater than the angle of the adjacent run-on surface enclosed relative to the longitudinal mid-axis of the input device , characterized in that the input device is equipped with two alignment elements arranged at a distance from each other, in that each alignment element is provided on the input side with two run-on surfaces at an angle to each other, and in that each alignment element is provided on the side opposite to the input side with an inclined surface , which is inclined in the direction opposite to the input-side run-on surface relative to the longitudinal mid-axis of the input device .
Syringe assembly for facilitating treatment of a fluid containing a sample for analysis, comprising: a syringe comprising a barrel and a needle ; and a flow control apparatus comprising a body having spaced ends , which body defines therein a fluid flow passage arrangement extending between said ends ; wherein the fluid flow passage arrangement includes two flow paths that are configured in parallel in part and merge within said body , and a one-way check valve and a medium selected to treat or modify sample-containing fluid flowing therethrough; said flow control apparatus being mounted within the barrel of the syringe, wherein said merged paths form a single 2. bore communicable with the needle of for the syringe, and said flow paths open separately into the interior chamber of said barrel characterised in that each of the two flow paths comprises a first duct portion and a second duct portion and an enlarged chamber portion , wherein the first duct portions extend parallel to the axis of the barrel and the needle , and wherein the second duct portions extend radially to link the first duct portions to the bore and whereby one of the enlarged chamber portions contains the one-way check valve and the other of the enlarged chamber portions contains the medium . a syringe comprising a barrel and a needle ; and a flow control apparatus comprising a body having spaced ends , which body defines therein a fluid flow passage arrangement extending between said ends ; wherein the fluid flow passage arrangement includes two flow paths that are configured in parallel in part and merge within said body , and a one-way check valve and a medium selected to treat or modify sample-containing fluid flowing therethrough; said flow control apparatus being mounted within the barrel of the syringe, wherein said merged paths form a single 2. bore communicable with the needle of for the syringe, and said flow paths open separately into the interior chamber of said barrel characterised in that each of the two flow paths comprises a first duct portion and a second duct portion and an enlarged chamber portion , wherein the first duct portions extend parallel to the axis of the barrel and the needle , and wherein the second duct portions extend radially to link the first duct portions to the bore and whereby one of the enlarged chamber portions contains the one-way check valve and the other of the enlarged chamber portions contains the medium .
An electronic device, comprising: a housing defining an interior and an exterior of the electronic device; a plurality of electronic components exposed to the interior of the electronic device; and a coating for imparting electronic components with moisture resistance covering at least portions of at least some electronic components of the plurality of electronic components, said coating comprising: a base portion comprising a moisture-impermeable barrier providing a first type of moisture resistance, the base portion comprising parylene C, all the precursors for the base portion comprising precursors to parylene C; and an outer portion providing another type of protection, the outer portion comprising a fluorinated parylene, all the precursors for the outer portion comprising precursors to the fluorinated parylene; and a transition between the base portion and the outer portion, the transition comprising parylene C and the fluorinated parylene, the transition being a gradient between parylene C and the fluorinated parylene. a housing defining an interior and an exterior of the electronic device; a plurality of electronic components exposed to the interior of the electronic device; and a coating for imparting electronic components with moisture resistance covering at least portions of at least some electronic components of the plurality of electronic components, said coating comprising: a base portion comprising a moisture-impermeable barrier providing a first type of moisture resistance, the base portion comprising parylene C, all the precursors for the base portion comprising precursors to parylene C; and an outer portion providing another type of protection, the outer portion comprising a fluorinated parylene, all the precursors for the outer portion comprising precursors to the fluorinated parylene; and a transition between the base portion and the outer portion, the transition comprising parylene C and the fluorinated parylene, the transition being a gradient between parylene C and the fluorinated parylene. a base portion comprising a moisture-impermeable barrier providing a first type of moisture resistance, the base portion comprising parylene C, all the precursors for the base portion comprising precursors to parylene C; and an outer portion providing another type of protection, the outer portion comprising a fluorinated parylene, all the precursors for the outer portion comprising precursors to the fluorinated parylene; and a transition between the base portion and the outer portion, the transition comprising parylene C and the fluorinated parylene, the transition being a gradient between parylene C and the fluorinated parylene.
An electrostatic charge image developing carrier comprising: a magnetic particle; and a coating resin layer that covers the magnetic particle, wherein an amount of the coating resin layer that is peeled off from the magnetic particle when the carrier dispersed in water is irradiated with ultrasonic waves, relative to a coating amount of the coating resin layer before ultrasonic irradiation, is 800 mass ppm or more and 2,000 mass ppm or less and is measured in accordance with the description, and a difference between an initial coating amount of the coating resin layer of a carrier having no travel history and a coating amount of the coating resin layer of a carrier having a travel history and being taken out from an electrostatic charge image developer, relative to the initial coating amount of the coating resin layer, is 0 mass ppm or more and 3,000 mass ppm or less and is measured in accordance with the description, wherein the coating resin layer contains an inorganic particle and a ratio of an average particle diameter of the inorganic particle to an average thickness of the coating resin layer (average particle diameter of inorganic particle/average thickness of coating resin layer) is 0.005 or more and 0.1500 or less, and wherein an average thickness of the coating resin layer is 0.6 μm or more and 1.4 μm or less and is measured in accordance with the description. a magnetic particle; and a coating resin layer that covers the magnetic particle, wherein an amount of the coating resin layer that is peeled off from the magnetic particle when the carrier dispersed in water is irradiated with ultrasonic waves, relative to a coating amount of the coating resin layer before ultrasonic irradiation, is 800 mass ppm or more and 2,000 mass ppm or less and is measured in accordance with the description, and a difference between an initial coating amount of the coating resin layer of a carrier having no travel history and a coating amount of the coating resin layer of a carrier having a travel history and being taken out from an electrostatic charge image developer, relative to the initial coating amount of the coating resin layer, is 0 mass ppm or more and 3,000 mass ppm or less and is measured in accordance with the description, wherein the coating resin layer contains an inorganic particle and a ratio of an average particle diameter of the inorganic particle to an average thickness of the coating resin layer (average particle diameter of inorganic particle/average thickness of coating resin layer) is 0.005 or more and 0.1500 or less, and wherein an average thickness of the coating resin layer is 0.6 μm or more and 1.4 μm or less and is measured in accordance with the description.
A Serial Peripheral Interface, SPI, based method of controlling the backlight of a Head-Up Display HUD mounted in a vehicle, the HUD comprising: a LED device configured to provide backlight, a LED controller coupled to a controller of the motor vehicle via a SPI bus, the motor vehicle controller being configured to transmit a backlight setting command to the LED controller in order to perform backlight control, a display and a display controller, the method comprising the steps of: calculating at the frequency of a video source signal of the HUD, by the motor vehicle controller, a backlight value; placing, by the motor vehicle controller, multiple backlight values obtained by said calculating into a backlight setting command, and transmitting the backlight setting command to the LED controller via the SPI bus; after obtaining the backlight setting command, sequentially applying one backlight value in the backlight setting command to the LED device each time a frame synchronization signal is obtained, by the LED controller. a LED device configured to provide backlight, a LED controller coupled to a controller of the motor vehicle via a SPI bus, the motor vehicle controller being configured to transmit a backlight setting command to the LED controller in order to perform backlight control, a display and a display controller, the method comprising the steps of: calculating at the frequency of a video source signal of the HUD, by the motor vehicle controller, a backlight value; placing, by the motor vehicle controller, multiple backlight values obtained by said calculating into a backlight setting command, and transmitting the backlight setting command to the LED controller via the SPI bus; after obtaining the backlight setting command, sequentially applying one backlight value in the backlight setting command to the LED device each time a frame synchronization signal is obtained, by the LED controller. calculating at the frequency of a video source signal of the HUD, by the motor vehicle controller, a backlight value; placing, by the motor vehicle controller, multiple backlight values obtained by said calculating into a backlight setting command, and transmitting the backlight setting command to the LED controller via the SPI bus; after obtaining the backlight setting command, sequentially applying one backlight value in the backlight setting command to the LED device each time a frame synchronization signal is obtained, by the LED controller.
A method of fabricating a multi-layer source target for X-ray generation, characterized by comprising: interleaving tungsten foils with a layer of CVD diamond to form an interleaved stack ; and performing one thermal cycle operation on the interleaved stack while the interleaved stack is under compression between tungsten disks to fabricate the multi-layer source target . interleaving tungsten foils with a layer of CVD diamond to form an interleaved stack ; and performing one thermal cycle operation on the interleaved stack while the interleaved stack is under compression between tungsten disks to fabricate the multi-layer source target .
An electric luminaire (L) with a housing arrangement in which at least one electric lamp circuit board equipped with at least one lamp is accommodated and in which several optical and electric/electronic components necessary for operation are accommodated, wherein the electric luminaire (L) is provided for coupling to an electric installation device (I) which consists of an insert (E) connected to an electric installation system of a building and of an attachment (A) forming the wall-side closure, and wherein the housing arrangement in a modular manner consists of a housing base provided with a hat-shaped coupling part , a housing cover which can be fixed to the housing base and serves as a carrier for the lamp circuit board , and a design cover which can be fixed to the housing base , and wherein an electrical printed circuit board is held in the interior of the housing base , characterized by the fact that the electrical printed circuit board held in the interior of the housing base is electrically connected, on the one hand, to a plurality of sliding contacts lead out of the hat-shaped coupling part and, on the other hand, to the lamp circuit board .
A method of visualisation between an electronic vapour provision system and a visualisation device , comprising the steps of: obtaining from the electronic vapour provision system notification that an inhalation on the electronic vapour provision system by a user has occurred; estimating a time of exhalation by the user responsive to the time of notification; and initiating a display of a computer graphic by the visualisation device responsive to the estimated time of exhalation. obtaining from the electronic vapour provision system notification that an inhalation on the electronic vapour provision system by a user has occurred; estimating a time of exhalation by the user responsive to the time of notification; and initiating a display of a computer graphic by the visualisation device responsive to the estimated time of exhalation.
A cathode active material comprising: a layer-structured material having a composition of xLi 2 MO 3 -(1-x)LiMeO 2 , wherein 0 < x < 1, and M and Me are each a metal ion; characterised in that the cathode active material further comprises a metal oxide having a perovskite structure. a layer-structured material having a composition of xLi 2 MO 3 -(1-x)LiMeO 2 , wherein 0 < x < 1, and M and Me are each a metal ion; characterised in that the cathode active material further comprises a metal oxide having a perovskite structure.
A method for detecting damage in a support means comprising at least one tension member for an elevator system, comprising the following steps: - generating at least one digital input signal by means of a pulse generator , wherein the digital input signal represents at least one first binary number , - feeding the digital input signal to the at least one tension member , - detecting a digital output signal after the digital input signal has passed through the at least one tension member , wherein the digital output signal represents at least one second binary number , - comparing, in particular comparing digit by digit, the second binary number with a binary setpoint binary number and/or directly with the first binary number , - reporting a fault state, when the second binary number differs from the setpoint binary number and/or from the first binary number. - generating at least one digital input signal by means of a pulse generator , wherein the digital input signal represents at least one first binary number , - feeding the digital input signal to the at least one tension member , - detecting a digital output signal after the digital input signal has passed through the at least one tension member , wherein the digital output signal represents at least one second binary number , - comparing, in particular comparing digit by digit, the second binary number with a binary setpoint binary number and/or directly with the first binary number , - reporting a fault state, when the second binary number differs from the setpoint binary number and/or from the first binary number.