mhurhangee/ep-ind-claims huggingface dataset:
An axle assembly for a working machine, the axle assembly comprising: an axle having first and second ends (14, 16), the first end having a first wheel mount for pivotably mounting a first wheel to the axle and the second end having a second wheel mount for pivotably mounting a second wheel to the axle; and a steering arrangement for pivoting the first and second wheel mounts (18, 20) relative to the axle, the steering arrangement comprising a steering linkage connected between the first and second wheel mounts (18, 20) and configured to pivot the first and second wheel mounts (18, 20) relative to the axle, wherein the steering arrangement comprises an actuator configured to actuate the steering linkage in order to effect pivoting of the first and second wheel mounts (18, 20), and wherein the actuator is directly connected to the steering linkage characterized in that the steering linkage is substantially non-linear. an axle having first and second ends (14, 16), the first end having a first wheel mount for pivotably mounting a first wheel to the axle and the second end having a second wheel mount for pivotably mounting a second wheel to the axle; and a steering arrangement for pivoting the first and second wheel mounts (18, 20) relative to the axle, the steering arrangement comprising a steering linkage connected between the first and second wheel mounts (18, 20) and configured to pivot the first and second wheel mounts (18, 20) relative to the axle, wherein the steering arrangement comprises an actuator configured to actuate the steering linkage in order to effect pivoting of the first and second wheel mounts (18, 20), and wherein the actuator is directly connected to the steering linkage characterized in that the steering linkage is substantially non-linear.
A moving work device, configured to move a feeder to be collected from a supply section and/or to be loaded to the supply section of a mounting device, wherein the moving work device comprises: an accommodation section configured to accommodate feeders, characterized in that the moving work device further comprises: a moving control section configured, - when component depletion is predicted for the feeder loaded to the loading section, to move and to load an exchange feeder, holding the component for which component depletion is predicted, to a spare loading section secured among one or more loading sections of the supply section, - to collect the component depleted feeder in the accommodation section when component depletion occurs for the feeder in which component depletion is predicted, and - to move and to load the exchange feeder, on which a spare component pickup process corresponding to the collected component depleted feeder is being performed, to the loading section from which the component depleted feeder was collected. an accommodation section configured to accommodate feeders, characterized in that the moving work device further comprises: a moving control section configured, - when component depletion is predicted for the feeder loaded to the loading section, to move and to load an exchange feeder, holding the component for which component depletion is predicted, to a spare loading section secured among one or more loading sections of the supply section, - to collect the component depleted feeder in the accommodation section when component depletion occurs for the feeder in which component depletion is predicted, and - to move and to load the exchange feeder, on which a spare component pickup process corresponding to the collected component depleted feeder is being performed, to the loading section from which the component depleted feeder was collected. - when component depletion is predicted for the feeder loaded to the loading section, to move and to load an exchange feeder, holding the component for which component depletion is predicted, to a spare loading section secured among one or more loading sections of the supply section, - to collect the component depleted feeder in the accommodation section when component depletion occurs for the feeder in which component depletion is predicted, and - to move and to load the exchange feeder, on which a spare component pickup process corresponding to the collected component depleted feeder is being performed, to the loading section from which the component depleted feeder was collected.
A wireless device comprising means for performing: - transmitting an association request from the wireless device to a first access node of a wireless network for associating the wireless device to the wireless network, - receiving an association response from the first access node for associating the wireless device to the wireless network, - performing carrier sensing on a plurality of channels; wherein the carrier sensing comprises a. contending for channel access on the plurality of channels, and b. maintaining one or more records of ongoing transmission opportunities on the plurality of channels, wherein the one or more records comprise information on which access nodes of the wireless network are owners or receivers of the ongoing transmission opportunities on one or more of the plurality of channels, - selecting a second access node of the wireless network in response to obtaining a transmission opportunity for a channel of the plurality of channels, wherein the selecting is based at least partly on the one or more records, and - transmitting data from the wireless device to the second access node during the transmission opportunity. - transmitting an association request from the wireless device to a first access node of a wireless network for associating the wireless device to the wireless network, - receiving an association response from the first access node for associating the wireless device to the wireless network, - performing carrier sensing on a plurality of channels; wherein the carrier sensing comprises a. contending for channel access on the plurality of channels, and b. maintaining one or more records of ongoing transmission opportunities on the plurality of channels, wherein the one or more records comprise information on which access nodes of the wireless network are owners or receivers of the ongoing transmission opportunities on one or more of the plurality of channels, a. contending for channel access on the plurality of channels, and b. maintaining one or more records of ongoing transmission opportunities on the plurality of channels, wherein the one or more records comprise information on which access nodes of the wireless network are owners or receivers of the ongoing transmission opportunities on one or more of the plurality of channels, - selecting a second access node of the wireless network in response to obtaining a transmission opportunity for a channel of the plurality of channels, wherein the selecting is based at least partly on the one or more records, and - transmitting data from the wireless device to the second access node during the transmission opportunity.
Attachment for a vehicle wheel for enabling driving operation with limited tire function, comprising a base body and a fastening device for fastening the attachment to the rim of the vehicle wheel, wherein the base body, when seen in an axial direction, has a circular or substantially circular-ring-shaped form, characterised in that the fastening device comprises fastening means which, when connected to the base body, are movable relative to the base body in a radial direction, and a coupling mechanism which couples a movement of at least two of the fastening means in a radial direction such that all coupled fastening means move either radially inwards or radially outwards.
A method for making a fibrous nonwoven mat having good strength and recovery after scoring and folding comprising; a) dispersing fibers comprising two different types of fibers in a fluid dispersion, b) subjecting the dispersion to a moving forming screen to form a fibrous web, c) applying an aqueous resin binder to the web, and d) drying the wet web and at least partially curing the resin in the binder to form a resin bound fibrous non woven mat, characterized in that, i) the fiber dispersion comprises 2 to 35 weight percent polymer fibers and 98 to 65 weight percent glass fibers, based on the total weight of the fibers in the dispersion, and ii) the aqueous binder comprises a mixture of water and a resin formed from a homopolymer or a copolymer of polyacrylic acid, and a polyol. a) dispersing fibers comprising two different types of fibers in a fluid dispersion, b) subjecting the dispersion to a moving forming screen to form a fibrous web, c) applying an aqueous resin binder to the web, and d) drying the wet web and at least partially curing the resin in the binder to form a resin bound fibrous non woven mat, characterized in that, i) the fiber dispersion comprises 2 to 35 weight percent polymer fibers and 98 to 65 weight percent glass fibers, based on the total weight of the fibers in the dispersion, and ii) the aqueous binder comprises a mixture of water and a resin formed from a homopolymer or a copolymer of polyacrylic acid, and a polyol. i) the fiber dispersion comprises 2 to 35 weight percent polymer fibers and 98 to 65 weight percent glass fibers, based on the total weight of the fibers in the dispersion, and ii) the aqueous binder comprises a mixture of water and a resin formed from a homopolymer or a copolymer of polyacrylic acid, and a polyol.
Method for hierarchical motion estimation in which motion vectors (dv 1, dv 2,..., dv N-1) are refined in successive levels of increasing measurement window pixel density and/or decreasing measurement window size, including: - within each hierarchical level, after finding an optimum vector at at least one pixel in a frame, determining (72, 75, 78) based on said optimum vector the displaced frame difference DFD or absolute displaced frame difference |DFD| for each pixel of the measurement window; - carrying out (72, 75, 78) a segmentation of the measurement window into different moving object regions by forming pixel areas, which areas represent a segmentation mask (si 1, si 2,..., si N) for the measurement window; - estimating (72, 75, 78) for at least one of said segmentation areas a corresponding motion vector (dv N) characterized in that said carrying out a segmentation of the measurement window comprises: - determining (72, 75, 78) within said measurement window two or more groups of pixels, wherein each of these pixel groups is characterised by a different range of displaced frame difference values or absolute displaced frame difference values for the pixels, said pixel areas being formed according to said groups of pixels; - wherein said segmentation mask values, denoted mask(x,y), are taken (101, 102) as probability values p 0 ( x,y) = 1 - mask ( x,y) of a pixel ( x,y) or pixels ( x,y) to belong to a first or another object within said measurement window. - within each hierarchical level, after finding an optimum vector at at least one pixel in a frame, determining (72, 75, 78) based on said optimum vector the displaced frame difference DFD or absolute displaced frame difference |DFD| for each pixel of the measurement window; - carrying out (72, 75, 78) a segmentation of the measurement window into different moving object regions by forming pixel areas, which areas represent a segmentation mask (si 1, si 2,..., si N) for the measurement window; - estimating (72, 75, 78) for at least one of said segmentation areas a corresponding motion vector (dv N) - determining (72, 75, 78) within said measurement window two or more groups of pixels, wherein each of these pixel groups is characterised by a different range of displaced frame difference values or absolute displaced frame difference values for the pixels, said pixel areas being formed according to said groups of pixels; - wherein said segmentation mask values, denoted mask(x,y), are taken (101, 102) as probability values p 0 ( x,y) = 1 - mask ( x,y) of a pixel ( x,y) or pixels ( x,y) to belong to a first or another object within said measurement window.
A method of generating a route in an area covered by an electronic map, the map comprising a plurality of segments representing navigable elements of a navigable network in the area covered by the electronic map, the method comprising: receiving a selection of a profile, said profile comprising data identifying one or more segments of the electronic map; generating, responsive to determining that a first route cannot be found between an origin and a destination in the electronic map using a first routing process in which each of the one or more segments identified by the selected profile is blocked from being included in the first route, a second route between the origin and the destination in the electronic map using a second routing process in which each of the one or more segments identified by the selected profile is penalised through the application of a cost penalty; detecting any segments in the generated second route that are segments identified by the selected profile; and outputting data representative of said generated second route and said detected segments. receiving a selection of a profile, said profile comprising data identifying one or more segments of the electronic map; generating, responsive to determining that a first route cannot be found between an origin and a destination in the electronic map using a first routing process in which each of the one or more segments identified by the selected profile is blocked from being included in the first route, a second route between the origin and the destination in the electronic map using a second routing process in which each of the one or more segments identified by the selected profile is penalised through the application of a cost penalty; detecting any segments in the generated second route that are segments identified by the selected profile; and outputting data representative of said generated second route and said detected segments.
Device comprising a carrying body for carrying a load, wherein the carrying body comprises a space inside which at least one force sensor is provided between a first wall which receives the load and an opposite second wall, wherein the force sensor extends partially beyond an edge of the second wall, and comprising a force transmission for transmitting to the force sensor a force resulting from a load on the first wall, wherein the force transmission comprises an at least partially bendable force transmission body which extends from a side of the force sensor directed toward the first wall, through a cavity in the force sensor and to an opposite side of the force sensor, and is attached at least close to the opposite side to the force sensor, characterized in that said force transmission body is an elongated pin and an accommodation of the force transmission body inside the cavity allows a bending of the force transmission body inside the cavity, and in that the force transmission body is coupled to the force sensor close to the second wall using an attaching means, wherein the attaching means particularly comprises a fastening nut.
A hook block apparatus comprising: an upper portion comprising a sheave assembly for receiving a lifting rope of a hoisting device; a lower portion fixedly connected to the upper portion; a hook member which is rotatably connected to the lower portion; rotation means (40, 42) for rotating the hook member relative to the lower portion about a vertical axis, wherein the rotation means is self contained within the lower portion and wherein the rotation means is selectively operable from a remote location; a rotation sensor for sensing rotation of the hook member and adapted to sense the direction of rotation; wherein the rotation sensor is connected to the rotation means and the rotation means is adapted to apply a rotating force to the hook member in an opposite direction to that of unintended rotation of the hook member to prevent or impede unintended rotation of the hook member; characterized in that the rotation means is selectively disengageable from the hook member such that the hook member is freely rotatable relative to the lower portion. an upper portion comprising a sheave assembly for receiving a lifting rope of a hoisting device; a lower portion fixedly connected to the upper portion; a hook member which is rotatably connected to the lower portion; rotation means (40, 42) for rotating the hook member relative to the lower portion about a vertical axis, wherein the rotation means is self contained within the lower portion and wherein the rotation means is selectively operable from a remote location; a rotation sensor for sensing rotation of the hook member and adapted to sense the direction of rotation; wherein the rotation sensor is connected to the rotation means and the rotation means is adapted to apply a rotating force to the hook member in an opposite direction to that of unintended rotation of the hook member to prevent or impede unintended rotation of the hook member; characterized in that the rotation means is selectively disengageable from the hook member such that the hook member is freely rotatable relative to the lower portion.
A system for controlling power distribution, the system comprising: an engine operably coupled to an electric machine (246, 1110); a first power electronics device operably coupled to the electric machine (246, 1110), wherein the first power electronics device is configured to modulate power extracted by the electric machine (246, 1110) from the engine; a second power electronics device operably coupled to a load device, wherein the second power electronics device is operably coupled to receive power from the first power electronics device via an electric bus, and wherein the second power electronics device is configured to modulate power received by the load device from the first power electronics device, and wherein modulating power received by the load device is based at least on an operating limit corresponding to the load device, a voltage of the electric bus, or both; and wherein the first power electronics device is configured to sense, measure, or otherwise detect an increase in voltage at the electric bus; and the first power electronics device is further configured to, based on the sensed, measured, or otherwise detected increase in voltage at the electric bus, command, control, or otherwise modulate the electric machine (246, 1110) to decrease the amount of power extracted from the engine, and a computing system operably coupled to the engine and the first power electronics device, wherein the computing system is configured to send control commands to the engine and the first power electronics device. an engine operably coupled to an electric machine (246, 1110); a first power electronics device operably coupled to the electric machine (246, 1110), wherein the first power electronics device is configured to modulate power extracted by the electric machine (246, 1110) from the engine; a second power electronics device operably coupled to a load device, wherein the second power electronics device is operably coupled to receive power from the first power electronics device via an electric bus, and wherein the second power electronics device is configured to modulate power received by the load device from the first power electronics device, and wherein modulating power received by the load device is based at least on an operating limit corresponding to the load device, a voltage of the electric bus, or both; and wherein the first power electronics device is configured to sense, measure, or otherwise detect an increase in voltage at the electric bus; and the first power electronics device is further configured to, based on the sensed, measured, or otherwise detected increase in voltage at the electric bus, command, control, or otherwise modulate the electric machine (246, 1110) to decrease the amount of power extracted from the engine, and a computing system operably coupled to the engine and the first power electronics device, wherein the computing system is configured to send control commands to the engine and the first power electronics device.
A model of pressure ulcer on a rodent on which the following steps are implemented: a) applying a magnetic compression perpendicular to the surface of the skin of said rodent using two magnets on either side of a skin fold of said rodent, b) removing the magnets, c) placing a bandage at the location of the magnets followed by friction at the location of the magnets characterised by a value of the pressure applied on the areas where the magnets are applied comprised between 6,532.8 and 19,598.4 Pa (49 and 147 mmHg), preferably comprised between 9,732.5 and 16,398.7 Pa (73 and 123 mmHg), d) applying a second magnetic compression perpendicular to the surface of the skin using two magnets on either side of a skin fold of said rodent, e) removing the magnets followed by friction at the location of the magnets, f) repeating steps d) and e) at least once, preferably at least twice, g) removing the bandage, wherein the used magnets preferably have a pressure of 6,666.1 to 93,325.7 Pa (50 to 700 mmHg); and wherein the duration of application of the magnets in step a) and d) is at least 2 hours. a) applying a magnetic compression perpendicular to the surface of the skin of said rodent using two magnets on either side of a skin fold of said rodent, b) removing the magnets, c) placing a bandage at the location of the magnets followed by friction at the location of the magnets characterised by a value of the pressure applied on the areas where the magnets are applied comprised between 6,532.8 and 19,598.4 Pa (49 and 147 mmHg), preferably comprised between 9,732.5 and 16,398.7 Pa (73 and 123 mmHg), d) applying a second magnetic compression perpendicular to the surface of the skin using two magnets on either side of a skin fold of said rodent, e) removing the magnets followed by friction at the location of the magnets, f) repeating steps d) and e) at least once, preferably at least twice, g) removing the bandage, wherein the used magnets preferably have a pressure of 6,666.1 to 93,325.7 Pa (50 to 700 mmHg); and wherein the duration of application of the magnets in step a) and d) is at least 2 hours.
An aerated food product comprising hydrophobin and a surfactant, the aerated food product containing a population of gas bubbles, wherein at least 65% of the gas bubbles have a diameter of less than 20μm, with the proviso that the food product does not contain an ice structuring protein.
Method for operating a positioner system, wherein an actuator can be actuated by means of an actuating drive that comprises a rotating electronically commutated motor and wherein an electric rotor position of a rotor of the actuating drive can be allocated to multiple positions of the actuator, wherein a position indication regarding the position of the actuator is provided by a position detector that is arranged close to the actuator, said method comprising the following steps: - receiving the position indication regarding a position of the actuator; - performing a position control based on the detected position indication regarding the position of the actuator, wherein a positioning manipulated variable is generated, a space vector being allocated to said positioning manipulated variable for the purpose of controlling the actuating drive; - performing a plausibility check on, or correcting, the position indication by means of the space vector that is allocated to the positioning manipulated variable that is generated. - receiving the position indication regarding a position of the actuator; - performing a position control based on the detected position indication regarding the position of the actuator, wherein a positioning manipulated variable is generated, a space vector being allocated to said positioning manipulated variable for the purpose of controlling the actuating drive; - performing a plausibility check on, or correcting, the position indication by means of the space vector that is allocated to the positioning manipulated variable that is generated.