mhurhangee/ep-ind-claims huggingface dataset:
A hazard warning system for a forktruck, comprising: a controllable light source attached to the forktruck to project light onto a floor adjacent a perimeter of the forktruck such that the light is visible to an operator of the forktruck when the light is projected onto the floor; a hazard discriminator to determine when the forktruck poses a hazard to an entity of interest in the vicinity of the forktruck, and responsively generates a hazard output; and a controller to receive the hazard output and to control the light source such that the light source is in a first state when the hazard output is not received, and a second state when the hazard output is received, the first state being different than the second state. a controllable light source attached to the forktruck to project light onto a floor adjacent a perimeter of the forktruck such that the light is visible to an operator of the forktruck when the light is projected onto the floor; a hazard discriminator to determine when the forktruck poses a hazard to an entity of interest in the vicinity of the forktruck, and responsively generates a hazard output; and a controller to receive the hazard output and to control the light source such that the light source is in a first state when the hazard output is not received, and a second state when the hazard output is received, the first state being different than the second state.
An applications presentation method for a mobile terminal, the method comprising: displaying a map including a plurality of objects on a display (step 315) when a map application is executed, the map scaled to a location range and each object having respective location information; searching via a processor for installed applications having location information corresponding to the location range among a plurality of applications stored in the mobile terminal (step 319); transmitting information identifying at least the location range and the installed applications to an application provision server; receiving information on non-installed applications having the location information corresponding to the location range from the application provision server; and displaying icons, including icons of the installed applications and icons of the non-installed applications, on the displayed map (step 321), wherein, for each of the objects, the icons are presented around the object if the location information of the installed applications and the non-installed applications matches the location information of the object; and wherein displaying the icons comprises visually differentiating between the icons of the installed applications and icons of the non-installed applications. displaying a map including a plurality of objects on a display (step 315) when a map application is executed, the map scaled to a location range and each object having respective location information; searching via a processor for installed applications having location information corresponding to the location range among a plurality of applications stored in the mobile terminal (step 319); transmitting information identifying at least the location range and the installed applications to an application provision server; receiving information on non-installed applications having the location information corresponding to the location range from the application provision server; and displaying icons, including icons of the installed applications and icons of the non-installed applications, on the displayed map (step 321), wherein, for each of the objects, the icons are presented around the object if the location information of the installed applications and the non-installed applications matches the location information of the object; and wherein displaying the icons comprises visually differentiating between the icons of the installed applications and icons of the non-installed applications.
A method for scheduling subframes at protocol layer L1, the method being performed by a network device (200a, 200b, 200c), the method comprising: obtaining, at the protocol layer L1, an indication of an occurrence of Listen Before Talk, LBT, failure for transmission of a subframe in an unlicensed frequency spectrum; storing, in an L1 buffer, data of the subframe to be transmitted in the unlicensed frequency spectrum as a result thereof, wherein the Li buffer is emptied by emptying first from the L1 buffer data from a subframe with highest priority of all subframes stored in the L1 buffer. obtaining, at the protocol layer L1, an indication of an occurrence of Listen Before Talk, LBT, failure for transmission of a subframe in an unlicensed frequency spectrum; storing, in an L1 buffer, data of the subframe to be transmitted in the unlicensed frequency spectrum as a result thereof, wherein the Li buffer is emptied by emptying first from the L1 buffer data from a subframe with highest priority of all subframes stored in the L1 buffer.
A fabric made of a mesh of interlocking rings, said rings comprising an external diameter in the range of 3.98 mm to 4.02 mm, said rings comprising a wire having a diameter in the range of 0.47 mm and 0.52 mm and a tensile strength in the range of 1200 N/mm 2 to 1500 N/mm 2.
Method for manufacturing a component by stacking layers of material that are each obtained by depositing and melting, continuously, a material in an impact zone targeted by an energy beam, the material coming from a material supply system configured to occupy an activated state in which the material supply system supplies the impact zone with material and a deactivated state in which the material supply system no longer supplies the impact zone with material, the energy beam being emitted by a focused energy source configured to occupy an activated state in which the focused energy source generates the energy beam and a deactivated state in which it does not generate the energy beam, the energy beam having at least one feature controlled by a control current intensity which corresponds to the supply electric current (40.1) of the focused energy source, wherein the manufacturing method comprises a step of monitoring the control current intensity, a step of comparing the monitored control current intensity with a given threshold which is a function of an operating intensity corresponding to the intensity of the control current used during the manufacturing process without energy runaway and a step of stopping the manufacturing method when the control current intensity is above the given threshold.
Gearbox arrangement exhibiting at least one gearbox device, wherein the gearbox arrangement is configured for providing partial vacuum within the gearbox device, the gearbox arrangement comprising a vacuum pump communicating with an inner volume of the gearbox device, a vacuum oil tank, an oil pump coupled to the vacuum oil tank, a plurality of valves, a piping connecting the vacuum oil tank and the gearbox device and the vacuum pump; wherein the vacuum oil tank and at least one of the valves provide for a selectable/switchable siphon arrangement such that a predefinable vacuum level is ensured within the inner volume by means of the vacuum pump and via the vacuum oil tank, wherein the gearbox arrangement further comprises a sensor unit comprising at least one sensor (18a, 18b, 18c, 18d, 18e, 18f, 18g), characterized in that the gearbox arrangement further comprises a control unit configured for controlling at least the vacuum pump and the oil pump respectively depending on actual sensor data of the at least one sensor, wherein the predefinable vacuum level is controlled/controllable by controlling the vacuum pump depending on actual sensor data of the at least one sensor, the sensor data comprising at least one of the following types of data: pressure sensor data related to a/the vacuum level within the inner volume, air leakage sensor data related to the gearbox device.
Silica particles, formed from an alkoxysilane serving as a raw material, characterized in that the silica particles satisfy the following requirements (a) to (c): (a) the silica particles have an alkali metal element content of 5 ppm or less, with respect to the silica solid content; (b) the silica particles exhibit a moisture absorption of 0.25 mg/m 2 or less at 50% relative humidity, and a refractive index, as determined through the liquid immersion method, of 1.450 to 1.460; and (c) the silica particles have a mean primary particle size, derived from a specific surface area as determined through the nitrogen adsorption method, of 10 to 100 nm and wherein the silica particles have an aspect ratio, as determined from a transmission electron microscopic photoimage, of 1.0 to 2.0; and wherein the moisture absorption is an amount calculated per unit surface area, through the following equation: moisture absorption amount mg / m 2 = increase in weight mg / amount of sample g × specific surface area m 2 / g; and wherein the increase in weight is determined by introducing the amount of sample into a weighing bottle and obtaining an initial weight of the entirety, and subtracting the initial weight from a final weight that is obtained after allowing the bottle to stand in an atmosphere at 23 °C and an RH of 50% for 48 hours, while the bottle remains open; and wherein the mean primary particle size is determined by the following formula: mean primary particle size = 2,720/specific surface area (m 2 /g); and wherein the specific surface area (m 2 /g) is determined by drying the amount of sample in a vacuum dryer at 80 °C, to thereby form a silica gel, and pulverizing the dry gel by means of a mortar and further drying the resultant at 180 °C for 3 hours to thereby form a dry silica powder, and determining the specific surface area (m 2 /g) of the powder through a nitrogen absorption method. (a) the silica particles have an alkali metal element content of 5 ppm or less, with respect to the silica solid content; (b) the silica particles exhibit a moisture absorption of 0.25 mg/m 2 or less at 50% relative humidity, and a refractive index, as determined through the liquid immersion method, of 1.450 to 1.460; and (c) the silica particles have a mean primary particle size, derived from a specific surface area as determined through the nitrogen adsorption method, of 10 to 100 nm and wherein the silica particles have an aspect ratio, as determined from a transmission electron microscopic photoimage, of 1.0 to 2.0; and
Container containing a composition comprising tetrafluoropropene, said container being made from metal and comprising an inner surface, and at least 98% of said inner surface in contact with said composition being covered with a coating comprising at least 99% by weight of zinc relative to the total weight of the coating; advantageously, said composition comprises at least 15% by weight of tetrafluoropropene relative to the total weight of the composition.
A handover method, comprising: sending, by a first network device, a handover request message indicating a request to hand over a communication device to a second network device, receiving, by the first network device, a handover response message, sending, by the first network device, a radio resource control, RRC, connection reconfiguration message to the communication device, wherein the RRC connection reconfiguration message instructs the communication device to configure a second ciphering/deciphering function and share a first data packet numbering/reordering function, and the second ciphering/deciphering function is associated with the second network device; and sending, by the first network device, downlink data to the communication device and the second network device. sending, by a first network device, a handover request message indicating a request to hand over a communication device to a second network device, receiving, by the first network device, a handover response message, sending, by the first network device, a radio resource control, RRC, connection reconfiguration message to the communication device, wherein the RRC connection reconfiguration message instructs the communication device to configure a second ciphering/deciphering function and share a first data packet numbering/reordering function, and the second ciphering/deciphering function is associated with the second network device; and sending, by the first network device, downlink data to the communication device and the second network device.
A missing step detection device of a passenger conveyor, comprising: a plurality of steps(2a to 2j) which are connected together in an endless manner and perform circulating movement; characterized by a first proximity sensor which is provided outside the steps(2a to 2j) in the vicinity of the steps(2a to 2j) and detects step surfaces(4a to 4j) of the steps(2a to 2j) which are approaching; a second proximity sensor which is provided in the vicinity of the steps(2a to 2j) so as to detect portions of the steps(2a to 2j) which are approaching, and detects portions of the steps(2a to 2j) which are different from the steps(2a to 2j) whose step surfaces(4a to 4j) are detected by the first proximity sensor for a shorter time than the time during which the first proximity sensor is detecting the step surfaces(4a to 4j); and a judgment device which judges that there is no missing condition of the steps(2a to 2j) when the first proximity sensor detects the step surfaces(4a to 4j) during the detection of portions of the steps(2a to 2j) by the second proximity sensor, and judges that there is a missing condition of the steps(2a to 2j) when the first proximity sensor does not detect the step surfaces(4a to 4j). a plurality of steps(2a to 2j) which are connected together in an endless manner and perform circulating movement; characterized by a first proximity sensor which is provided outside the steps(2a to 2j) in the vicinity of the steps(2a to 2j) and detects step surfaces(4a to 4j) of the steps(2a to 2j) which are approaching; a second proximity sensor which is provided in the vicinity of the steps(2a to 2j) so as to detect portions of the steps(2a to 2j) which are approaching, and detects portions of the steps(2a to 2j) which are different from the steps(2a to 2j) whose step surfaces(4a to 4j) are detected by the first proximity sensor for a shorter time than the time during which the first proximity sensor is detecting the step surfaces(4a to 4j); and a judgment device which judges that there is no missing condition of the steps(2a to 2j) when the first proximity sensor detects the step surfaces(4a to 4j) during the detection of portions of the steps(2a to 2j) by the second proximity sensor, and judges that there is a missing condition of the steps(2a to 2j) when the first proximity sensor does not detect the step surfaces(4a to 4j).
An actuating device for a lock device, the actuating device comprising: - a stationary structure; - an actuating element rotatable relative to the stationary structure; - an electric power source (24, 82); - a spindle arranged to be rotated by rotation of the actuating element; - a locking member movable between a locked position and an unlocked position; - an electromechanical transfer device (30, 84) arranged in the spindle, the transfer device (30, 84) being configured to adopt a locked state, in which the locking member cannot be moved from the locked position to the unlocked position by rotation of the actuating element, and an unlocked state in which the locking member can be moved from the locked position to the unlocked position by rotation of the actuating element; - a receiver device fixed with respect to the spindle, the receiver device being electrically connected to the transfer device (30, 84); and - a transmitter device fixed with respect to the stationary structure and arranged to be electrically powered by the power source (24, 82), characterized in that the transmitter device is configured to wirelessly transmit power to the receiver device. - a stationary structure; - an actuating element rotatable relative to the stationary structure; - an electric power source (24, 82); - a spindle arranged to be rotated by rotation of the actuating element; - a locking member movable between a locked position and an unlocked position; - an electromechanical transfer device (30, 84) arranged in the spindle, the transfer device (30, 84) being configured to adopt a locked state, in which the locking member cannot be moved from the locked position to the unlocked position by rotation of the actuating element, and an unlocked state in which the locking member can be moved from the locked position to the unlocked position by rotation of the actuating element; - a receiver device fixed with respect to the spindle, the receiver device being electrically connected to the transfer device (30, 84); and - a transmitter device fixed with respect to the stationary structure and arranged to be electrically powered by the power source (24, 82), characterized in that the transmitter device is configured to wirelessly transmit power to the receiver device.
A wing leading-edge device (2, 45), comprising a slat body (4, 42) having a front side with a forward skin and a back side with a rearward skin; and and at least a drive arrangement having at least one lug (18, 20) and a slat track; wherein the back side extends between an upper spanwise edge of the forward skin and a lower spanwise edge of the forward skin; wherein the back side is defined by a continuously curved profile contour for receiving a fixed leading edge of a wing; wherein the at least one lug (18, 20) is at least partially arranged between the back side and the front side; wherein the slat track is coupled with the at least one lug (18, 20); wherein the at least one lug (18, 20) comprises a first lug and a second lug; wherein the at least one drive arrangement comprises the first lug, the second lug and a support link; wherein the slat track comprises a curved track section and a forward leg; wherein the forward leg is fixedly arranged at an angle (α) to a tangential line of the curved track section on a connection point between the curved track section and the forward leg; wherein the support link is swivelably coupled with the second lug and a connecting joint; wherein the connecting joint is arranged on the forward leg of the slat track; and wherein the second lug is arranged on the slat body (4, 42). and at least a drive arrangement having at least one lug (18, 20) and a slat track; wherein the back side extends between an upper spanwise edge of the forward skin and a lower spanwise edge of the forward skin; wherein the back side is defined by a continuously curved profile contour for receiving a fixed leading edge of a wing; wherein the at least one lug (18, 20) is at least partially arranged between the back side and the front side; wherein the slat track is coupled with the at least one lug (18, 20); wherein the at least one lug (18, 20) comprises a first lug and a second lug; wherein the at least one drive arrangement comprises the first lug, the second lug and a support link; wherein the slat track comprises a curved track section and a forward leg; wherein the forward leg is fixedly arranged at an angle (α) to a tangential line of the curved track section on a connection point between the curved track section and the forward leg; wherein the support link is swivelably coupled with the second lug and a connecting joint; wherein the connecting joint is arranged on the forward leg of the slat track; and wherein the second lug is arranged on the slat body (4, 42).
A method for operating a vehicle within a string of platooning vehicles (110A, 110B, 110C, 110D), the method comprising: receiving, via a wireless communications link (225, 305), a control signal of a predecessor vehicle, wherein the predecessor vehicle immediately precedes the vehicle in the string of platooning vehicles, and wherein the control signal is indicative of a level of at least one of a brake and a throttle applied in the predecessor vehicle; characterizing in that the method further comprises: applying a first electronic filter to successive values of the received control signal, wherein the first electronic filter is based on a dynamical model of the vehicle; generating values of a distance measurement signal based on at least two measurements of the distance between the vehicle and the predecessor vehicle (410, 510, 610), each of the at least two measurements being taken at a different moment in time; applying a second electronic filter to successive values of the distance measurement signal, wherein the second electronic filter is based on the dynamical model of the vehicle; and generating a control action (460, 520, 620) to be implemented by a brake and throttle actuating system of the vehicle to maintain a desired distance between the vehicle and the predecessor vehicle, the generating being based on the filtered control signal and on the filtered determined distance measurement signal. receiving, via a wireless communications link (225, 305), a control signal of a predecessor vehicle, wherein the predecessor vehicle immediately precedes the vehicle in the string of platooning vehicles, and wherein the control signal is indicative of a level of at least one of a brake and a throttle applied in the predecessor vehicle; characterizing in that the method further comprises: applying a first electronic filter to successive values of the received control signal, wherein the first electronic filter is based on a dynamical model of the vehicle; generating values of a distance measurement signal based on at least two measurements of the distance between the vehicle and the predecessor vehicle (410, 510, 610), each of the at least two measurements being taken at a different moment in time; applying a second electronic filter to successive values of the distance measurement signal, wherein the second electronic filter is based on the dynamical model of the vehicle; and generating a control action (460, 520, 620) to be implemented by a brake and throttle actuating system of the vehicle to maintain a desired distance between the vehicle and the predecessor vehicle, the generating being based on the filtered control signal and on the filtered determined distance measurement signal.
Method for performing a sensitive operation during a communication between a processing unit comprising a browser and a first service server, said first server being accessible via a first domain name, ND1, and a first electronic address, IP1, the method comprising the step of using at least a second domain name ND2 different from ND1 and a second electronic address IP2 during all or part of said sensitive operation, characterised in that said unit implements instructions of a program or steps configured to trigger, in a timely manner depending on the level of risk, navigation between the domains ND1 and ND2 and between the addresses IP1 and IP2, and to perform all or part of said sensitive operation outside the first domain name ND1 and outside the first address IP1 using said ND2 and IP2, where said ND2 and IP2 correspond to the same website of ND1 and IP1.