mhurhangee/ep-ind-claims huggingface dataset:
Transport device in the form of a long-stator linear motor, comprising a transport route and at least one transport unit (Tn), which can be moved in the longitudinal direction along the transport route, characterized in that the transport route has a turnaround portion, which is provided to change the orientation of the transport unit (Tn) by 180° in the longitudinal direction along the transport route, the turnaround portion having an entrance (W E), which is connected to a first transport route portion (TA 1) by a first entrance end (E E1), and a second, open entrance end (E E2), and having an exit (W A), which is connected to a second transport route portion (TA 2) by a first exit end (E A1), and a second, open exit end (E A2), the entrance (W E) and the exit (W A) of the turnaround portion forming a common movement path at least in some portions in the region of a first transfer position (U 1), the transport unit (Tn) being movable along said path, and in that, in order to be turned around, the transport unit (Tn) can be moved from the first transport route portion (TA 1) to the entrance (W E) of the turnaround portion, transferred from the entrance (W E) to the exit (W A) of the turnaround portion at the first transfer position (U 1), and moved from the exit (W A) of the turnaround portion to the second transport route portion (TA 2), the first transport route portion (TA 1), which adjoins the entrance (W E) of the turnaround portion, and the second transport route portion (TA 2) of the transport route, which adjoins the exit (W A) of the turnaround portion, comprising a coaxial movement path at least in some portions, the transport unit (Tn) being movable along said path.
A light emitting module comprising: - a bowl-shaped optical cover; a base structure 150; - a plurality of solid state light sources attached to the base structure and arranged to emit lights towards an inner concave surface of the bowl-shaped optical cover, said optical cover further having an outer convex surface for facing away from the plurality of solid state light sources, said optical cover comprising: - a micro lenses array structure arranged on the inner surface of the optical cover for refracting light emitted from a light source and comprising curved micro lenses; and - a macro lens structure formed between the micro lenses array structure and the outer convex surface of the optical cover, said macro lens structure having a thickness, wherein the thickness is varied along the optical cover such that light is refracted from a thinner part towards a thicker part of the macro lens structure, wherein a centre point distance between two micro lenses in a longitudinal direction of said optical cover is different than a centre point distance between two micro lenses in a transverse direction of said optical cover, characterized in that the optical cover is formed by a base part and an apex part, the thickness is smaller in the base part than in the apex part, and in that the bowl-shaped optical cover is elongated in the longitudinal direction. - a bowl-shaped optical cover; a base structure 150; - a plurality of solid state light sources attached to the base structure and arranged to emit lights towards an inner concave surface of the bowl-shaped optical cover, said optical cover further having an outer convex surface for facing away from the plurality of solid state light sources, said optical cover comprising: - a micro lenses array structure arranged on the inner surface of the optical cover for refracting light emitted from a light source and comprising curved micro lenses; and - a macro lens structure formed between the micro lenses array structure and the outer convex surface of the optical cover, said macro lens structure having a thickness, wherein the thickness is varied along the optical cover such that light is refracted from a thinner part towards a thicker part of the macro lens structure,
A calculation method used for a spindle device with a bearing device and a control device, wherein the bearing device includes a rotating member, a bearing (31, 41) which supports the rotating member so that the rotating member can rotate, a housing which holds the bearing (31, 41), and displacement sensors which are installed in the housing or a non-rotating part of the bearing (31, 41) to measure a distance to a surface that rotates with the rotating member, and wherein the method comprises: calculating an amount of change in a diameter of the rotating member based on measurement results by the displacement sensors provided at three or more positions on a plane orthogonal to a rotation axis of the rotating member, calculating an amount of radial displacement of the rotation axis based on the measurement results by the displacement sensors provided at the three or more positions, calculating a load applied to a shaft based on the amount of radial displacement of the rotation axis and the amount of change in the diameter of the rotating member. calculating an amount of change in a diameter of the rotating member based on measurement results by the displacement sensors provided at three or more positions on a plane orthogonal to a rotation axis of the rotating member, calculating an amount of radial displacement of the rotation axis based on the measurement results by the displacement sensors provided at the three or more positions, calculating a load applied to a shaft based on the amount of radial displacement of the rotation axis and the amount of change in the diameter of the rotating member.
Commercial vehicle tyre of radial design with an at least three-ply belt, wherein each belt ply of the belt has a reinforcing element ply (5, 6, 7, 8) with steel cords as the reinforcing elements, which are arranged substantially parallel to one another within the reinforcing element ply (5, 6, 7, 8), and a rubber coating embedding the reinforcing element ply (5, 6, 7, 8), wherein the belt has, as the radially outermost ply, a protective ply with the first reinforcing element ply and, as viewed radially inwards from the protective ply, a working ply with the second reinforcing element ply and a working ply with the third reinforcing element ply, and wherein the distance D between the first reinforcing element ply and the second reinforcing element ply and the distance d between the reinforcing element plies (6, 7) of the two working plies satisfy the relationship 4.5 × d ≥ D ≥ 2 × d, preferably the relationship 3.3 × d ≥ D ≥ 2.7 × d, wherein the distances are measured in the axial centre of the tyre, characterized in that the reinforcing elements of each belt ply of the belt enclose an angle of at least 15° with the tyre circumferential direction, and in that the rubber coating of the protective ply and/or the rubber coating of the radially outer working ply is/are formed asymmetrically with respect to the reinforcing element ply (8, 7) of the respective belt ply, wherein the rubber coating on the side of the reinforcing element ply (8, 7) of the asymmetrically rubber-coated belt ply, the rubber coating thickness of which contributes to the distance D, has a greater rubber coating thickness than on the respective other side of the reinforcing element ply (8, 7).
Electrical junction box, for electrical or hybrid vehicles, comprising a junction box housing and an electrical busbar element located inside the junction box housing, wherein the junction box housing comprises at least a first opening, for letting in end portions of electrical cables,, wherein the junction box housing is made of plastics and the electrical busbar element is made of metal, characterized in that the busbar element comprises connecting means adapted to connect ferrules, provided at the wire end portions of the electrical cables.
A method for controlling a solar power system, wherein the solar power system comprises a plurality of power optimizers(114,124,134) and a plurality of local controllers(111, 121, 131), the plurality of power optimizers are configured to be connected to a plurality of solar panels(112,122,132) to form a plurality of power modules(110,120,130) connected in series between two input terminals(116, 138) of an inverter; the plurality of local controllers coupled to their respective power modules; the method comprising: obtaining a maximum power flow of each solar panel based upon operation parameters of the plurality of the solar panels; and configuring a first power optimizer of the plurality of power optimizers, based upon a maximum power point tracking, MPPT, current of a first solar panel of the plurality of solar panels, to switch between a buck mode and a pass-through mode or between a boost mode and the pass-through mode, if the MPPT current of the first solar panel is within a mode transition range, wherein: the mode transition range includes an upper limit(Io_max), a lower limit(Io_min) and a midpoint, and the midpoint(Io_typ) of the mode transition range is a current flowing through the plurality of power modules, and wherein the current is approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage of the inverter. obtaining a maximum power flow of each solar panel based upon operation parameters of the plurality of the solar panels; and configuring a first power optimizer of the plurality of power optimizers, based upon a maximum power point tracking, MPPT, current of a first solar panel of the plurality of solar panels, to switch between a buck mode and a pass-through mode or between a boost mode and the pass-through mode, if the MPPT current of the first solar panel is within a mode transition range, wherein: the mode transition range includes an upper limit(Io_max), a lower limit(Io_min) and a midpoint, and the midpoint(Io_typ) of the mode transition range is a current flowing through the plurality of power modules, and wherein the current is approximately equal to a sum of the maximum power flows of the plurality of solar panels divided by an input voltage of the inverter.
A pressure system comprising: a fluid movement device; a buffer reservoir coupled to the fluid movement device, the fluid movement device to pressurize the buffer reservoir; and a first fluid interface coupled to the buffer reservoir, the first fluid interface to couple to a pressure chamber that applies force on a print fluid bag of a print fluid container to enable delivery of print fluid from the print fluid bag by a print fluid delivery system, wherein the first fluid interface is separate from a second interface to couple the print fluid bag to the print fluid delivery system, and characterized in that a capacity of the buffer reservoir being less than a capacity of the print fluid bag and in that the buffer reservoir is located above the first fluid interface and the second fluid interface. a fluid movement device; a buffer reservoir coupled to the fluid movement device, the fluid movement device to pressurize the buffer reservoir; and a first fluid interface coupled to the buffer reservoir, the first fluid interface to couple to a pressure chamber that applies force on a print fluid bag of a print fluid container to enable delivery of print fluid from the print fluid bag by a print fluid delivery system, wherein the first fluid interface is separate from a second interface to couple the print fluid bag to the print fluid delivery system, and characterized in that a capacity of the buffer reservoir being less than a capacity of the print fluid bag and in that the buffer reservoir is located above the first fluid interface and the second fluid interface.
A communication system comprising a base station and a mobile station, the base station comprising: an assigning unit configured to assign a control channel to one or more control channel elements, CCEs, having consecutive CCE numbers in a search space; and a transmitting unit configured to transmit the assigned control channel to the mobile station; the assigning unit configured to assign the control channel to said one or more CCEs in the search space, the search space being comprised of a specific plurality of CCEs that starts on a specific CCE number, depending on the number of said one or more CCEs, to which the control channel is assigned, and the search space being comprised of CCEs with consecutive CCE numbers; and the mobile station comprising: a receiving unit configured to receive the control channel which is transmitted from the base station; and a decoding unit configured to decode the received control channel in the search space, a transmitting unit configured to transmit, to the base station, a response signal using an uplink resource derived from a CCE number of said one or more CCEs, on which the control channel is transmitted. an assigning unit configured to assign a control channel to one or more control channel elements, CCEs, having consecutive CCE numbers in a search space; and a transmitting unit configured to transmit the assigned control channel to the mobile station; the assigning unit configured to assign the control channel to said one or more CCEs in the search space, the search space being comprised of a specific plurality of CCEs that starts on a specific CCE number, depending on the number of said one or more CCEs, to which the control channel is assigned, and the search space being comprised of CCEs with consecutive CCE numbers; and the mobile station comprising: a receiving unit configured to receive the control channel which is transmitted from the base station; and a decoding unit configured to decode the received control channel in the search space, a receiving unit configured to receive the control channel which is transmitted from the base station; and a decoding unit configured to decode the received control channel in the search space, a transmitting unit configured to transmit, to the base station, a response signal using an uplink resource derived from a CCE number of said one or more CCEs, on which the control channel is transmitted.
System for manoeuvring a leaf which slides along a frame, wherein the leaf, which is of the type comprising a lower cross-member and an upper cross-member as well as two vertical uprights (20, 20') is movable, in a direction transverse to the frame, between a closing position in which it rests against said frame in a sealing manner and a pre-opening position in which it is moved apart from the frame transversely in order to enable it to slide parallel to the plane of said frame, and wherein a rail for guiding the sliding motion, which rail is mounted in a tilting manner in a lower cross-member of the said frame, is adapted to cooperate with roller-type carriages which are fixed under the lower cross-member of the leaf in such a way as to enable said leaf to slide parallel to the plane of the frame when the leaf is in the pre-opening position, characterised in that means for controlling the travel of the leaf in the said transverse direction are provided on each of the vertical uprights (20, 20') of the leaf and comprise a bar which is actuated from a handle for manoeuvring the leaf and is movable in translation along the said upright of the leaf, and also a roller which is fixed onto the said bar and cooperates with a Z-shaped latch which is adapted to guide the roller in displacement in the said transverse direction between the closing position and the pre-opening position, the Z-shaped latch is disposed opposite the roller on a section which extends along the upright while being held in position vertically in relation to the leaf at the top part and bottom part of said leaf by attachment to the upright, the said section comprising a front part and a perpendicular rear end arm, the said section is inserted, by the front part, in a channel provided in the said upright of the leaf and, by the rear end arm, in a longitudinal channel provided for that purpose in the upright of the frame, in such a way that, under the effect of translation of the bar along the upright of the leaf and of the resulting displacement of the roller into the Z-shaped latch hollowed out of the section, the upright of the leaf is consequently displaced transversely in relation to the section, said section being then adapted to be displaced in sliding motion in a manner integral with the leaf, the arm disengaging itself from the channel in order to permit the sliding of the leaf.
A transient flow method for determining gas permeability of a subsurface formation, comprising: acquiring a sample of the subsurface formation; positioning the sample in a pressure vessel comprising a fluid and a pressure gauge; equilibrating the sample at a predetermined first pore gas pressure, p i; applying a predetermined constant second pore gas pressure, p o, to an inlet of the sample, the second pore gas pressure being greater than the first pore gas pressure, characterised by measuring a third pore gas pressure, p, as a function of time, t, at a location, x, along the axis of the sample in the pressure vessel, wherein the location, x, is at a predetermined distance from the inlet of the sample, excluding the two ends of the sample; in a computer, determining a gas density or total gas mass per unit volume of the subsurface formation, m; and in the computer, determining the gas permeability of the subsurface formation as a function of pore pressure, k(p), based at least in part on the first pore gas pressure, the second pore gas pressure, the third pore gas pressure as a function of time, and the gas density as a function of pore pressure. acquiring a sample of the subsurface formation; positioning the sample in a pressure vessel comprising a fluid and a pressure gauge; equilibrating the sample at a predetermined first pore gas pressure, p i; applying a predetermined constant second pore gas pressure, p o, to an inlet of the sample, the second pore gas pressure being greater than the first pore gas pressure, characterised by measuring a third pore gas pressure, p, as a function of time, t, at a location, x, along the axis of the sample in the pressure vessel, wherein the location, x, is at a predetermined distance from the inlet of the sample, excluding the two ends of the sample; in a computer, determining a gas density or total gas mass per unit volume of the subsurface formation, m; and in the computer, determining the gas permeability of the subsurface formation as a function of pore pressure, k(p), based at least in part on the first pore gas pressure, the second pore gas pressure, the third pore gas pressure as a function of time, and the gas density as a function of pore pressure.
One or more computer-readable media having computer-executable instructions embodied thereon that, when executed, perform a method for metering various data flows of packets (721, 722, 723, 724) originating from a plurality of virtual machines, VMs, (230, 235, 270, 275) instantiated on a single physical node, the method comprising: inspecting one or more quality of service, QoS, policies (211, 212, 213) written to a contract, wherein the contract governs allocation of network resources to a first client; depositing tokens (732, 733, 734) into a first token-bucket queue (231, 236, 271, 276, 710) based, in part, on the one or more QoS policies of the first-client contract, wherein the first token-bucket queue is assigned to a first VM instantiated on the physical node; detecting the first VM is in an active state based on a depletion of the deposited tokens from the first token-bucket queue, wherein, when the first VM is in the active state, a portion of the deposited tokens are withdrawn from the first token-bucket queue as a function of a rate of the data flow from the first VM; and reloading tokens into the first token-bucket queue based, in part, on the one or more QoS policies and a portion of the deposited tokens remaining in the first token-bucket queue. inspecting one or more quality of service, QoS, policies (211, 212, 213) written to a contract, wherein the contract governs allocation of network resources to a first client; depositing tokens (732, 733, 734) into a first token-bucket queue (231, 236, 271, 276, 710) based, in part, on the one or more QoS policies of the first-client contract, wherein the first token-bucket queue is assigned to a first VM instantiated on the physical node; detecting the first VM is in an active state based on a depletion of the deposited tokens from the first token-bucket queue, wherein, when the first VM is in the active state, a portion of the deposited tokens are withdrawn from the first token-bucket queue as a function of a rate of the data flow from the first VM; and reloading tokens into the first token-bucket queue based, in part, on the one or more QoS policies and a portion of the deposited tokens remaining in the first token-bucket queue.
The invention relates to a method for displaying clips, wherein the method comprises at least the following steps: - at least two clips are provided, - at least one content category is associated with at least one of the two clips, and said association is electronically stored and - a relation between a clip and the at least one associated content category is assigned to an associated content category, and said relation is electronically stored characterised in that depending on the relation, the two clips are displayed or provided for display at least partially simultaneously or temporally overlapping or immediately successively or separated from one another, wherein at least one other clip is displayed between the display of clips separated from one another. - at least two clips are provided, - at least one content category is associated with at least one of the two clips, and said association is electronically stored and - a relation between a clip and the at least one associated content category is assigned to an associated content category, and said relation is electronically stored
A carbon membrane for fluid separation use, the membrane including a dense carbon layer formed on a porous carbon support, wherein a thickness of the porous carbon support is 10 μm or more, wherein a ratio of a content of silicon atoms to a total content of carbon atoms and silicon atoms at a center position of the porous carbon support in a membrane thickness direction of the porous carbon support is X (atomic%), wherein a ratio of a content of silicon atoms to a total content of carbon atoms and silicon atoms at a position of 3 um from an interface between the porous carbon support and the dense carbon layer to a porous carbon support side is Y (atomic%), wherein X and Y are determined by energy dispersive X-ray spectroscopy elemental analysis according to the method described in the description, and said carbon membrane being characterized in that X < Y. wherein a thickness of the porous carbon support is 10 μm or more, wherein a ratio of a content of silicon atoms to a total content of carbon atoms and silicon atoms at a center position of the porous carbon support in a membrane thickness direction of the porous carbon support is X (atomic%), wherein a ratio of a content of silicon atoms to a total content of carbon atoms and silicon atoms at a position of 3 um from an interface between the porous carbon support and the dense carbon layer to a porous carbon support side is Y (atomic%), wherein X and Y are determined by energy dispersive X-ray spectroscopy elemental analysis according to the method described in the description, and said carbon membrane being characterized in that X < Y.