mhurhangee/patent-ind-claim-en huggingface dataset:
Forming apparatus for forming a deformable thin glass , comprising - a forming unit with a cavity for forming the thin glass , - a membrane unit with a deformable membrane , which has a first membrane side facing the cavity and a second membrane side facing away from the cavity , - a fluid adjusting device for adjusting at least one fluid property of a fluid to be provided to the membrane unit , - wherein the thin glass can be arranged between the first membrane side and the cavity , - wherein the membrane unit is arranged and configured to apply a pressure to the second membrane side of the membrane by means of the fluid, so that the thin glass can be molded into the cavity by means of the membrane , - characterized by a control device which is adapted to control and/or loop-control the fluid adjustment device such that a pressure curve of the pressure with a pressure build-up section, a forming pressure section, a holding pressure section and a pressure reduction section is controlled and/or loop-controlled in this order in succession in time, the fluid property being a pressure curve of the pressure, and/or - characterized in that the fluid property is a temperature profile of the temperature. - a forming unit with a cavity for forming the thin glass , - a membrane unit with a deformable membrane , which has a first membrane side facing the cavity and a second membrane side facing away from the cavity , - a fluid adjusting device for adjusting at least one fluid property of a fluid to be provided to the membrane unit , - wherein the thin glass can be arranged between the first membrane side and the cavity , - wherein the membrane unit is arranged and configured to apply a pressure to the second membrane side of the membrane by means of the fluid, so that the thin glass can be molded into the cavity by means of the membrane , - characterized by a control device which is adapted to control and/or loop-control the fluid adjustment device such that a pressure curve of the pressure with a pressure build-up section, a forming pressure section, a holding pressure section and a pressure reduction section is controlled and/or loop-controlled in this order in succession in time, the fluid property being a pressure curve of the pressure, and/or - characterized in that the fluid property is a temperature profile of the temperature.
Timber-framed building, comprising 1.1 a foundation; 1.2 the walls of the timber-framed building are formed of blocks which contain insulating material or are made of such material; the walls constructed from the blocks are free of mortar or other jointing compound; 1.3 wall-height wooden supports which support the roof of the timber-framed building; 1.4 the blocks are rectangular and are made of straw or of peat or of plastic or of composite material or of wood; 1.5 at least some of the blocks have vertical cutouts on both wall sides; 1.6 the cutouts are open-edged; 1.7 the cutouts of blocks located on top of each other are aligned with one another; 1.8 the supports are inserted in the cutouts ; 1.9 the opposite cutouts of the individual block are offset with respect to each other such that the block forms an S in plan view; 1.10 the cutouts , as seen in a horizontal plane, are offset with respect to each other perpendicularly to the wall. 1.1 a foundation; 1.2 the walls of the timber-framed building are formed of blocks which contain insulating material or are made of such material; the walls constructed from the blocks are free of mortar or other jointing compound; 1.3 wall-height wooden supports which support the roof of the timber-framed building; 1.4 the blocks are rectangular and are made of straw or of peat or of plastic or of composite material or of wood; 1.5 at least some of the blocks have vertical cutouts on both wall sides; 1.6 the cutouts are open-edged; 1.7 the cutouts of blocks located on top of each other are aligned with one another; 1.8 the supports are inserted in the cutouts ; 1.9 the opposite cutouts of the individual block are offset with respect to each other such that the block forms an S in plan view; 1.10 the cutouts , as seen in a horizontal plane, are offset with respect to each other perpendicularly to the wall.
An inspection support method for supporting inspection of a mounting state performed on an electronic component mounted on a circuit board as the target, the inspection support method being applied to a component mounter provided with a transfer device that picks up an electronic component supplied to a supply position (Sp) and transfers the electronic component to a mounting position (Mp) on a circuit board , the transfer device including a transfer body supported to be relatively movable with respect to a base , and a mounting head provided on a moving body , the mounting head supporting multiple suction nozzles that hold the electronic component, inspection support method comprising: when mounting operation is defined as an operation performed in order based on a control program, the operation being of the transfer device to mount the inspection component held by the suction nozzle at the mounting position (Mp) by moving the suction nozzle from its current position to a position above the mounting position (Mp) and lowering the suction nozzle , and imaging operation is defined as operation of the transfer device to move a camera , which is provided on the moving body to be capable of imaging the circuit board , from its current position to a position above the mounting position (Mp) such that the camera is capable of imaging of the inspection component mounted at the mounting position (Mp), controlling imaging processing of the camera to acquire image data of the inspection component , which is a component that is a target for inspection among the electronic components mounted by the component mounter , when the inspection component is mounted on the circuit board , characterized by: optimizing the performance sequence of multiple of the mounting operations and multiple of the imaging operations based on a moving distance of the moving body during the performance sequence or based on a time required for the mounting operation and the imaging operation during the performance sequence. when mounting operation is defined as an operation performed in order based on a control program, the operation being of the transfer device to mount the inspection component held by the suction nozzle at the mounting position (Mp) by moving the suction nozzle from its current position to a position above the mounting position (Mp) and lowering the suction nozzle , and imaging operation is defined as operation of the transfer device to move a camera , which is provided on the moving body to be capable of imaging the circuit board , from its current position to a position above the mounting position (Mp) such that the camera is capable of imaging of the inspection component mounted at the mounting position (Mp), controlling imaging processing of the camera to acquire image data of the inspection component , which is a component that is a target for inspection among the electronic components mounted by the component mounter , when the inspection component is mounted on the circuit board ,
A magnesium oxide powder, comprising (i) an Fe element the valence of which is a trivalence, wherein a content of the Fe element is from 0.03 to 0.20% by weight, and at least a part of the Fe element has a cluster structure, and (ii) a B element in an amount of from 0.05 to 0.50% by weight; wherein he magnesium oxide powder is having a BET specific surface area of 10 to 40 m 2 /g.
A solar powered, vehicle mounted display unit (VMDU) for a vehicle , said VMDU comprising: an electronic display ; a housing for said electronic display, wherein said housing is is mounted to a first and second cross bar installed to said vehicle such that said first and second crossbars extend laterally across a roof of said vehicle and said housing extends longitudinally along the roof of said vehicle when installed to said first and second crossbars; a solar energy harvesting device located above, and spaced apart from, said housing, wherein said solar energy harvesting device is electrically connected to said electronic display; support members extending between said housing and said solar energy harvesting device to support said solar energy harvesting device in an elevated position above, and spaced apart from, said housing to create a void between at least part of said solar energy harvesting device and said housing and cause said solar energy harvesting device to at least periodically cast shade on said electronic display; and stiffeners extending along a lowermost surface of the solar energy harvesting device; wherein said housing defines a first footprint, said solar energy harvesting device defines a second footprint, said second footprint is larger than, and directly and completely overlies, said first footprint such that; an outer perimeter of said second footprint extends beyond an outer perimeter of said first footprint in both a lateral and a longitudinal direction. an electronic display ; a housing for said electronic display, wherein said housing is is mounted to a first and second cross bar installed to said vehicle such that said first and second crossbars extend laterally across a roof of said vehicle and said housing extends longitudinally along the roof of said vehicle when installed to said first and second crossbars; a solar energy harvesting device located above, and spaced apart from, said housing, wherein said solar energy harvesting device is electrically connected to said electronic display; support members extending between said housing and said solar energy harvesting device to support said solar energy harvesting device in an elevated position above, and spaced apart from, said housing to create a void between at least part of said solar energy harvesting device and said housing and cause said solar energy harvesting device to at least periodically cast shade on said electronic display; and stiffeners extending along a lowermost surface of the solar energy harvesting device; wherein said housing defines a first footprint, said solar energy harvesting device defines a second footprint, said second footprint is larger than, and directly and completely overlies, said first footprint such that; an outer perimeter of said second footprint extends beyond an outer perimeter of said first footprint in both a lateral and a longitudinal direction.
A trimmer head arranged to be driven around a rotational axis (ax), via an interface , to rotate a trimmer line , wherein the trimmer head comprises: - a housing , - the interface , - a trimmer line spool , and - an automatic feed mechanism , wherein the automatic feed mechanism is configured to release a trimmer line spooled around the trimmer line spool when the trimmer head is subjected to a change in rotational speed, via the interface , at a higher rate than a threshold rate of change in rotational speed, wherein the trimmer head comprises an inner body operably connected to the trimmer line spool , wherein the inner body is configured to move relative the housing when the trimmer head is subjected to said change in rotational speed, via the interface , and wherein the automatic feed mechanism is configured to release the trimmer line spooled around the trimmer line spool when the inner body moves relative the housing , wherein the automatic feed mechanism comprises a mechanism body (7', 7") operably connected to the housing and to the inner body , characterized in that the trimmer head further comprises an actuator connected to the automatic feed mechanism such that a manual actuation of the actuator releases the trimmer line spooled around the trimmer line spool . - a housing , - the interface , - a trimmer line spool , and - an automatic feed mechanism , wherein the automatic feed mechanism is configured to release a trimmer line spooled around the trimmer line spool when the trimmer head is subjected to a change in rotational speed, via the interface , at a higher rate than a threshold rate of change in rotational speed, wherein the trimmer head comprises an inner body operably connected to the trimmer line spool , wherein the inner body is configured to move relative the housing when the trimmer head is subjected to said change in rotational speed, via the interface , and wherein the automatic feed mechanism is configured to release the trimmer line spooled around the trimmer line spool when the inner body moves relative the housing , wherein the automatic feed mechanism comprises a mechanism body (7', 7") operably connected to the housing and to the inner body , characterized in that the trimmer head further comprises an actuator connected to the automatic feed mechanism such that a manual actuation of the actuator releases the trimmer line spooled around the trimmer line spool .
A method (500; 600) of transmitting information, the method comprising: identifying, by the mobile device, a device type of other device based on one or more images captured by a camera of the mobile device; identifying, by the mobile device, a reception location on the other device based on the identified device type; determining , by a mobile device, a distance between the mobile device and the reception location on the other device in response to a request for the mobile device to transmit the information, wherein the determining of the distance comprises calculating , by the mobile device, the distance between the mobile device and the reception location on the other device based on one or more images captured by a camera of the mobile device for a first period of time and calculating, by the mobile device, the distance between the mobile device and the reception location on the other device using one or more sensors of the mobile device for a second period of time after the first period of time when the camera is too close to the other device for the mobile device to accurately calculate the distance using the camera; determining , by the mobile device, whether the distance between the mobile device and the reception location on the other device is within a threshold distance; transmitting, by the mobile device, the information to the other device after determining that the calculated distance between the mobile device and the reception location on the other device is within the threshold distance. identifying, by the mobile device, a device type of other device based on one or more images captured by a camera of the mobile device; identifying, by the mobile device, a reception location on the other device based on the identified device type; determining , by a mobile device, a distance between the mobile device and the reception location on the other device in response to a request for the mobile device to transmit the information, wherein the determining of the distance comprises calculating , by the mobile device, the distance between the mobile device and the reception location on the other device based on one or more images captured by a camera of the mobile device for a first period of time and calculating, by the mobile device, the distance between the mobile device and the reception location on the other device using one or more sensors of the mobile device for a second period of time after the first period of time when the camera is too close to the other device for the mobile device to accurately calculate the distance using the camera; determining , by the mobile device, whether the distance between the mobile device and the reception location on the other device is within a threshold distance; transmitting, by the mobile device, the information to the other device after determining that the calculated distance between the mobile device and the reception location on the other device is within the threshold distance.
A gas turbine comprising compressor , a first combustion chamber , a second combustion chamber , a turbine and a mixer between the first combustion chamber and the second combustion chamber , wherein the mixer is configured to dilute with compressed air hot gas (G) coming from the first combustion chamber and directed into the second combustion chamber , the mixer comprising a housing , a duct within the housing , at least a first injector and a second injector for injecting compressed air coming from the compressor and having a fluctuating mass flow into hot gas (G) coming from the first combustion chamber and passing through the duct , wherein the first injector and the second injector are at a distance (D) such that the fluid mass flow injected through the first injector reaches the second injector in phase opposition with the fluid mass flow injected through the second injector , wherein the first and the second injectors are configured and arranged for injecting a mass flow of compressed air having substantially the same fluctuation amplitude, wherein the first injector comprises a plenum with at least an inlet and at least a nozzle for injecting the fluid into the duct and the second injector comprises a plenum with at least an inlet and at least a nozzle for injecting the fluid into the duct , wherein the inlet of the first injector and the inlet of the second injector have different features in order to cause a different pressure drop for the fluid moving from the housing into the plenum of the first injector and plenum of the second injector .
A power control system comprising: a plurality of point-of-load (POL) regulators each comprising at least one power switch adapted to convey power to a load and a digital controller adapted to control operation of said at least one power switch responsive to a feedback measurement (V o ), said digital controller further comprising an infinite impulse response filter having a transfer function defined by plural filter coefficients (C o -C n , B 1 -B n ); a serial data bus operatively connecting said plurality of POL regulators ; and a system controller connected to said serial data bus and adapted to communicate digital data to said plurality of POL regulators via said serial data bus, said digital data including programming data for programming said plural filter coefficients (C o -C n , B 1 -B n ); wherein said system controller further comprises a user interface adapted to receive said programming data from a user system, said user system comprising at least a user computer, wherein said infinite impulse response filter provides the following transfer function G(z): G z = PWM z VEd z = C 0 + C 1 ⋅ z − 1 + C 2 ⋅ z − 2 + ... + C n ⋅ z − n 1 − B 1 ⋅ z − 1 − B 2 ⋅ z − 2 − ... − B n ⋅ z − n wherein PWM(z) is a digital control output, VEd(z) is an error signal, and said plural filter coefficients include Co... Cn as input side filter coefficients and B 1 ... B n as output side filter coefficients. a plurality of point-of-load (POL) regulators each comprising at least one power switch adapted to convey power to a load and a digital controller adapted to control operation of said at least one power switch responsive to a feedback measurement (V o ), said digital controller further comprising an infinite impulse response filter having a transfer function defined by plural filter coefficients (C o -C n , B 1 -B n ); a serial data bus operatively connecting said plurality of POL regulators ; and a system controller connected to said serial data bus and adapted to communicate digital data to said plurality of POL regulators via said serial data bus, said digital data including programming data for programming said plural filter coefficients (C o -C n , B 1 -B n ); wherein said system controller further comprises a user interface adapted to receive said programming data from a user system, said user system comprising at least a user computer, wherein said infinite impulse response filter provides the following transfer function G(z): G z = PWM z VEd z = C 0 + C 1 ⋅ z − 1 + C 2 ⋅ z − 2 + ... + C n ⋅ z − n 1 − B 1 ⋅ z − 1 − B 2 ⋅ z − 2 − ... − B n ⋅ z − n wherein PWM(z) is a digital control output, VEd(z) is an error signal, and said plural filter coefficients include Co... Cn as input side filter coefficients and B 1 ... B n as output side filter coefficients.
An air conditioning duct for a railway train, comprising: a passenger compartment air duct ; and a driver compartment main air duct , characterized in that , the passenger compartment air duct comprises a cold air chamber , two warm air chambers , a first fresh air chamber and a distribution valve, and the cold air chamber is provided for delivering cold air, the two warm air chambers are located at two sides of the cold air chamber for delivering warm air, the first fresh air chamber is located at a side of the cold air chamber , the distribution valve is provided for adjusting and controlling a ratio of delivered cold air to delivered warm air, wherein the driver compartment main air duct comprises an intermediate air chamber and two side air chambers , and the intermediate air chamber is communicated with the cold air chamber , the two side air chambers are located at two sides of the intermediate air chamber and communicated with the two warm air chambers respectively, a second fresh air chamber is provided at a side of the intermediate air chamber for being communicated with the first fresh air chamber , wherein the intermediate air chamber comprises an upper air chamber communicated with a rear air port and a lower air chamber for being communicated with a front air port, the upper air chamber and the lower air chamber are isolated from and independent of each other by a slope partition plate, and the slope partition plate is provided with a valve for controlling a communication state of the intermediate air chamber. a passenger compartment air duct ; and a driver compartment main air duct , characterized in that , the passenger compartment air duct comprises a cold air chamber , two warm air chambers , a first fresh air chamber and a distribution valve, and the cold air chamber is provided for delivering cold air, the two warm air chambers are located at two sides of the cold air chamber for delivering warm air, the first fresh air chamber is located at a side of the cold air chamber , the distribution valve is provided for adjusting and controlling a ratio of delivered cold air to delivered warm air, wherein the driver compartment main air duct comprises an intermediate air chamber and two side air chambers , and the intermediate air chamber is communicated with the cold air chamber , the two side air chambers are located at two sides of the intermediate air chamber and communicated with the two warm air chambers respectively, a second fresh air chamber is provided at a side of the intermediate air chamber for being communicated with the first fresh air chamber , wherein the intermediate air chamber comprises an upper air chamber communicated with a rear air port and a lower air chamber for being communicated with a front air port, the upper air chamber and the lower air chamber are isolated from and independent of each other by a slope partition plate, and the slope partition plate is provided with a valve for controlling a communication state of the intermediate air chamber.