mhurhangee/ep-ind-claims huggingface dataset:
A vehicle headlight having a housing, a light module, and a support frame, pivotably fixed to the housing, for the light module, wherein the light module is fixed to the support frame pivotable about a first axis running transverse to the irradiation direction of the vehicle headlight and may be driven by means of an actuator fixed on the support frame to pivot about the first axis, wherein the support frame is borne pivotable about a second axis running transverse to the first axis and the actuator is fixed to the support frame and is displaceable towards the second axis, characterized in that the actuator on the support frame is displaceable towards the second axis by means of a manually driven worm gear, the second axis being horizontally stationary, wherein the actuator has holding part, molded corresponding to a track of the support frame, that encloses the track in a positive fit and permits displacement of the actuator on the track of the support frame, wherein the manually drivable worm gear is formed by a threaded spindle and a corresponding gear nut on the holding part, wherein the threaded spindle is fixed to the housing by means of a clip and forms a part of the horizontally stationary second axis, wherein the threaded screw at its end has a bevel gear that cooperates with a corresponding additional bevel gear to enable the actuator to be displaced from the back side of the vehicle headlight.
A time-and-frequency synchronization method performed by a terminal device (11; 90), the time-and-frequency synchronization method being characterized by comprising: receiving from a network device (12; 80) a Wake-Up Signal, WUS, for waking up the terminal device (11; 90) to receive a downlink signal carrying physical data and control information; determining whether the terminal device (11; 90) in an idle state or a Discontinuous Reception, DRX, state needs to be woken up to receive the downlink signal carrying physical data and control information; receiving a physical signal for time-and-frequency synchronization from the network device (12; 80), in response to determining that the terminal device (11; 90) in the idle state or the DRX state needs to be woken up to receive the downlink signal carrying physical data and control information; performing time-and-frequency synchronization in accordance with the physical signal for time-and-frequency synchronization; and receiving from the network device (12; 80) the downlink signal carrying physical data and control information, wherein a sequence of the physical signal for time-and-frequency synchronization is one of a Gold sequence, an m sequence, Zadoff-chu, ZC, sequence and a Computer Generated Sequence, CGS. receiving from a network device (12; 80) a Wake-Up Signal, WUS, for waking up the terminal device (11; 90) to receive a downlink signal carrying physical data and control information; determining whether the terminal device (11; 90) in an idle state or a Discontinuous Reception, DRX, state needs to be woken up to receive the downlink signal carrying physical data and control information; receiving a physical signal for time-and-frequency synchronization from the network device (12; 80), in response to determining that the terminal device (11; 90) in the idle state or the DRX state needs to be woken up to receive the downlink signal carrying physical data and control information; performing time-and-frequency synchronization in accordance with the physical signal for time-and-frequency synchronization; and receiving from the network device (12; 80) the downlink signal carrying physical data and control information, wherein a sequence of the physical signal for time-and-frequency synchronization is one of a Gold sequence, an m sequence, Zadoff-chu, ZC, sequence and a Computer Generated Sequence, CGS.
An agricultural harvester includes a chassis and a feeder housing pivotally mounted to the chassis, the agricultural harvester comprising: an axle assembly pivotally mounted to the feeder housing, the axle assembly including a wheel; and a hydraulic actuator coupled with the axle assembly for pivotally moving the wheel in upward and downward directions from the feeder housing; characterized in that the agricultural harvester further comprises a road mode switch providing a first output signal indicative of a field mode and a second output signal indicative of a road mode; and a controller coupled with each of the road mode switch and the hydraulic actuator, the controller receiving the second output signal from the road mode switch and controlling the hydraulic actuator, whereby the hydraulic actuator provides a substantially constant down force between the wheel and a ground surface. an axle assembly pivotally mounted to the feeder housing, the axle assembly including a wheel; and a hydraulic actuator coupled with the axle assembly for pivotally moving the wheel in upward and downward directions from the feeder housing; characterized in that the agricultural harvester further comprises a road mode switch providing a first output signal indicative of a field mode and a second output signal indicative of a road mode; and a controller coupled with each of the road mode switch and the hydraulic actuator, the controller receiving the second output signal from the road mode switch and controlling the hydraulic actuator, whereby the hydraulic actuator provides a substantially constant down force between the wheel and a ground surface.
A coalescer cartridge for separating a first fluid from a second fluid comprising: (a) a pleated filter media portion which is formed from fibres and includes: (i) a pleated solids retention layer configured to filter particulate matter from the first and second fluid, and (ii) a fluid separation layer (160, 162) which is co-pleated with the solids retention layer and positioned downstream of the solids retention layer, the fluid separation layer being configured to separate a first fluid from a second fluid, promoting the formation of relatively small droplets of the first fluid suspended in the second fluid, in which the fluid separation layer includes an open structure relative to the dense structure of the solids retention layer; and (b) a wrap filter media portion downstream of the pleated media portion including a droplet growth layer (182/184) configured to coalesce the relatively small droplets of the first fluid into relatively larger droplets of the first fluid, in which the wrap filter media portion includes fibres having a diameter greater than the diameter of the fibres of the pleated filter media portion. (a) a pleated filter media portion which is formed from fibres and includes: (i) a pleated solids retention layer configured to filter particulate matter from the first and second fluid, and (ii) a fluid separation layer (160, 162) which is co-pleated with the solids retention layer and positioned downstream of the solids retention layer, the fluid separation layer being configured to separate a first fluid from a second fluid, promoting the formation of relatively small droplets of the first fluid suspended in the second fluid, in which the fluid separation layer includes an open structure relative to the dense structure of the solids retention layer; and (i) a pleated solids retention layer configured to filter particulate matter from the first and second fluid, and (ii) a fluid separation layer (160, 162) which is co-pleated with the solids retention layer and positioned downstream of the solids retention layer, the fluid separation layer being configured to separate a first fluid from a second fluid, promoting the formation of relatively small droplets of the first fluid suspended in the second fluid, in which the fluid separation layer includes an open structure relative to the dense structure of the solids retention layer; and (b) a wrap filter media portion downstream of the pleated media portion including a droplet growth layer (182/184) configured to coalesce the relatively small droplets of the first fluid into relatively larger droplets of the first fluid, in which the wrap filter media portion includes fibres having a diameter greater than the diameter of the fibres of the pleated filter media portion.
A wall-mounted indoor apparatus for an air conditioning device, comprising: a main body having a back surface part that faces a side wall surface on which installation is to be performed, a depthwise-central part that is provided frontward from the back surface part and is laterally wider than the back surface part, and a front surface part that is provided frontward from the depthwise-central part; and a functional component that is a driving component for generating or transmitting power characterized in that the wall-mounted indoor apparatus further comprises: a movable panel that is installed on the main body, wherein the functional component is a driving component for generating or transmitting power for driving the movable panel and is disposed in an internal protruding space (SP2, SP3, 33) that is formed between an end surface (SF1, SF2) of the frontward space of the back surface part and a side surface of the depthwise-central part. a main body having a back surface part that faces a side wall surface on which installation is to be performed, a depthwise-central part that is provided frontward from the back surface part and is laterally wider than the back surface part, and a front surface part that is provided frontward from the depthwise-central part; and a functional component that is a driving component for generating or transmitting power characterized in that the wall-mounted indoor apparatus further comprises: a movable panel that is installed on the main body, wherein the functional component is a driving component for generating or transmitting power for driving the movable panel and is disposed in an internal protruding space (SP2, SP3, 33) that is formed between an end surface (SF1, SF2) of the frontward space of the back surface part and a side surface of the depthwise-central part. a movable panel that is installed on the main body, wherein the functional component is a driving component for generating or transmitting power for driving the movable panel and is disposed in an internal protruding space (SP2, SP3, 33) that is formed between an end surface (SF1, SF2) of the frontward space of the back surface part and a side surface of the depthwise-central part.
A method using an unmanned system comprising one or more unmanned aerial units (111, 112) for a cultivation method for improving plant growing processes in an agricultural environment, wherein the one or more unmanned aerial units are configured with a first delivering device for delivering a behavioural control agent for controlling behaviour of organisms and a second delivering device for delivering a different pest control agent in the form of living organisms for reducing harmfulness of pest organisms, where the second delivery device is a mechanical device capable of delivering the living organisms, the method comprises the steps: - determining a first area and a second area dependent on a location of pest susceptible plants, and by using the unmanned system, - delivering the behavioural control agent over the first area, and - delivering the pest control agent over the second area. - determining a first area and a second area dependent on a location of pest susceptible plants, and by using the unmanned system, - delivering the behavioural control agent over the first area, and - delivering the pest control agent over the second area.
A sulfoaluminous clinker comprising as a phasic composition, relative to the total weight of the clinker: - from 20% to 90% of iron-doped calcium sulphoaluminate phase corresponding to the formula C 4 A x F y $ z with ➢ x varying from 2 to 3, ➢ y varying from 0.05 to 0.5, ➢ and z varying from 0.8 to 1.2; - from 0 to 25% of calcium aluminoferrite phase of a composition corresponding to the general formula C 6 A x' F y', with x' varying from 0 to 1.5 and y' varying from 0.5 to 3; and - less than 20% of belite phase C 2 S; and - less than 2% of C 11 S 4 B phase. - from 20% to 90% of iron-doped calcium sulphoaluminate phase corresponding to the formula C 4 A x F y $ z with ➢ x varying from 2 to 3, ➢ y varying from 0.05 to 0.5, ➢ and z varying from 0.8 to 1.2; ➢ x varying from 2 to 3, ➢ y varying from 0.05 to 0.5, ➢ and z varying from 0.8 to 1.2; - from 0 to 25% of calcium aluminoferrite phase of a composition corresponding to the general formula C 6 A x' F y', with x' varying from 0 to 1.5 and y' varying from 0.5 to 3; and - less than 20% of belite phase C 2 S; and - less than 2% of C 11 S 4 B phase.
Secure item comprising a revealing raster and a combined image, or assembly comprising a secure item and another object, the secure item comprising one of the revealing raster and of the combined image and the object comprising or forming the other of the revealing raster and of the combined image, the combined image being composed of a plurality of interlaced images (I 1 to I n), each interlaced image (I 1 to I n) being composed of a plurality of interlaced-image elements (i 1 to i n, p 1 to p n) composed of one or more micropatterns, the micropatterns belonging to different interlaced image elements (I 1 to I n) being different through their colours, hues, opacities, saturations or luminescences or brightnesses and/or the revealing raster being composed of a plurality of raster elements (5a, 5b) composed of one or more micropatterns, the revealing raster making it possible, when it is superposed with the combined image, to observe different revealed images (I r) - by displacing the revealing raster with respect to the combined image and/or - by changing the angle of observation a, the revealing raster and the combined image being superposed while being separated from one another by a gap of non-zero constant thickness, the revealed images each comprising a certain proportion (P 1;...; P n) of each interlaced image (I 1 to I n). the combined image being composed of a plurality of interlaced images (I 1 to I n), each interlaced image (I 1 to I n) being composed of a plurality of interlaced-image elements (i 1 to i n, p 1 to p n) composed of one or more micropatterns, the micropatterns belonging to different interlaced image elements (I 1 to I n) being different through their colours, hues, opacities, saturations or luminescences or brightnesses and/or the revealing raster being composed of a plurality of raster elements (5a, 5b) composed of one or more micropatterns, the revealing raster making it possible, when it is superposed with the combined image, to observe different revealed images (I r) - by displacing the revealing raster with respect to the combined image and/or - by changing the angle of observation a, the revealing raster and the combined image being superposed while being separated from one another by a gap of non-zero constant thickness, - by displacing the revealing raster with respect to the combined image and/or - by changing the angle of observation a, the revealing raster and the combined image being superposed while being separated from one another by a gap of non-zero constant thickness, the revealed images each comprising a certain proportion (P 1;...; P n) of each interlaced image (I 1 to I n).
A camera module for a vehicle, comprising at least one camera (14, 14 1, 14 2,...,14 N), a printed circuit board, a carrier for the at least one camera (14, 14 1, 14 2,...,14 N) mounted directly to the printed circuit board, electronic components and a connector mounted to the printed circuit board; characterized by a mounting structure of the carrier for the at least one camera (14, 14 1, 14 2,...,14 N) comprises a pair of rails and at least a pair of flexible wings; a chip housing of the camera (14, 14 1, 14 2,...,14 N) cooperates with the rails of the mounting structure in a form fitting manner; and a lens body of the camera (14, 14 1, 14 2,...,14 N) cooperates with the flexible wings of the mounting structure in a form and force fitting manner. at least one camera (14, 14 1, 14 2,...,14 N), a printed circuit board, a carrier for the at least one camera (14, 14 1, 14 2,...,14 N) mounted directly to the printed circuit board, electronic components and a connector mounted to the printed circuit board; characterized by a mounting structure of the carrier for the at least one camera (14, 14 1, 14 2,...,14 N) comprises a pair of rails and at least a pair of flexible wings; a chip housing of the camera (14, 14 1, 14 2,...,14 N) cooperates with the rails of the mounting structure in a form fitting manner; and a lens body of the camera (14, 14 1, 14 2,...,14 N) cooperates with the flexible wings of the mounting structure in a form and force fitting manner.
A method of installing and tensioning a reinforcement strip in a soil retained by a facing element together with the reinforcement strip extending between the facing element and an anchorage zone located away from the facing element and separated from the facing element, the method comprising: • installing (503; 803) the reinforcement strip in the soil so that the strip extends from a first location in the anchorage zone through a connection point at the facing element to a second location in the anchorage zone, wherein a section of the strip from the first location to the connection point forms a first leg, while a section of the strip from the connection point to the second location forms a second leg; • tensioning (513; 811) the strip by pulling the strip to a predetermined tension at the first location and at the second location so that the first leg and the second leg have substantially the same tension; and • anchoring (507; 515; 815) the strip to the soil at the first location and at the second location so that the strip is kept under tension when anchored. • installing (503; 803) the reinforcement strip in the soil so that the strip extends from a first location in the anchorage zone through a connection point at the facing element to a second location in the anchorage zone, wherein a section of the strip from the first location to the connection point forms a first leg, while a section of the strip from the connection point to the second location forms a second leg; • tensioning (513; 811) the strip by pulling the strip to a predetermined tension at the first location and at the second location so that the first leg and the second leg have substantially the same tension; and • anchoring (507; 515; 815) the strip to the soil at the first location and at the second location so that the strip is kept under tension when anchored.
A thin film heater cooking appliance comprising at least one thin film heating cooker, said at least one thin film heating cooker comprising a plurality of thin film heating elements forming a two-dimensional web of neighboring thin film heating elements and at last one sensor unit in the form of an inductive sensor, a capacitive sensor, an optic sensor or a load sensor, each of said thin film heating elements being supplied power by a busbar characterized in that; a coated base is provided such that each thin film heating element is placed on an anodization layer so as to be at least partially delimited by two busbars at different co-planar sides relative to said thin film heating element and, each thin film heating element is configured to be interposed between said anodization layer and an upper glass surface in the manner that said anodization layer covers both lower surface of said thin film heating element and lower surfaces of said two busbars in their entireties.
A fused refractory product having the following average chemical composition, in percentage by weight based on the oxides and for a total of 100%: ZrO 2: 60.0%-80.0%, SiO 2: 4.0%-10.0%; Al 2 O 3: complement to 100%; Y 2 O 3 ≤ 5.0%; Na 2 O+K 2 O+B 2 O 3 ≥ 0.3% and SiO2/(Na 2 O+K 2 O+B 2 O 3) ≥ 5.0; other oxide species: ≤ 2.0%; and the ratio of the contents by weight ZrO 2 / Al 2 O 3 being between 2.0 and 6.0. ZrO 2: 60.0%-80.0%, SiO 2: 4.0%-10.0%; Al 2 O 3: complement to 100%; Y 2 O 3 ≤ 5.0%; Na 2 O+K 2 O+B 2 O 3 ≥ 0.3% and SiO2/(Na 2 O+K 2 O+B 2 O 3) ≥ 5.0; other oxide species: ≤ 2.0%; and the ratio of the contents by weight ZrO 2 / Al 2 O 3 being between 2.0 and 6.0.
Method for evaluating the alertness of a vehicle driver from at least one statistical distribution over a quantity (N, N 1, N 2) of errors (PE(n)) in a parameter representative of the control of the vehicle by the driver, each belonging to a class (c) within a set of classes comprising an average class ((N c +1)/2), characterized in that it comprises steps of: - increasing a probability density (P(c), P1(c), P2(c)) associated with a class (c) to which belongs (111, 151) a parameter error (PE(n)) which occurs at a current time; - decreasing (126, 134, 136, 128, 144, 146) said probability density associated with the class (c) at a later time after having observed said quantity (N, N 1, N 2) of parameter errors (PE(n)). - increasing a probability density (P(c), P1(c), P2(c)) associated with a class (c) to which belongs (111, 151) a parameter error (PE(n)) which occurs at a current time; - decreasing (126, 134, 136, 128, 144, 146) said probability density associated with the class (c) at a later time after having observed said quantity (N, N 1, N 2) of parameter errors (PE(n)).
An apparatus for driving a chainless electric bicycle, comprising: a pedal sensor configured to measure a position or speed of a pedal of the electric bicycle; a wheel sensor configured to measure a position or speed of a driving wheel of the electric bicycle; and a driving controller configured to control a speed of a motor for driving the driving wheel according to a position difference or speed difference between the pedal and the driving wheel; wherein the driving controller is configured to increase a control current of the motor in a boosting mode set by a user's boosting control for a certain period of time compared to a previous driving, characterized in that the driving controller is configured to stop the boosting mode when a speed of the pedal measured by the pedal sensor is 0 or the operation of a brake lever of the electric bicycle is detected. a pedal sensor configured to measure a position or speed of a pedal of the electric bicycle; a wheel sensor configured to measure a position or speed of a driving wheel of the electric bicycle; and a driving controller configured to control a speed of a motor for driving the driving wheel according to a position difference or speed difference between the pedal and the driving wheel; wherein the driving controller is configured to increase a control current of the motor in a boosting mode set by a user's boosting control for a certain period of time compared to a previous driving, characterized in that the driving controller is configured to stop the boosting mode when a speed of the pedal measured by the pedal sensor is 0 or the operation of a brake lever of the electric bicycle is detected.