mhurhangee/ep-ind-claims huggingface dataset:
A web stabilizer comprising: a surface (130, 132) adapted to be adjacent to a moving web of material moving in a web direction, wherein the surface (130, 132) has a stepped configuration in which a first gap (104; 114, 116) alters the surface of the stabilizer, the first gap (104; 114, 116) being adapted to receive and direct a first moving fluid in a first direction parallel with the web direction, and wherein the surface (130, 132) further includes a second gap (102; 106, 108) adapted to receive and direct a second moving fluid in a second direction perpendicular to the web direction, such that the first moving fluid provides a stabilizing congruent force to the moving web and the second moving fluid provides a stabilizing transverse force to the moving web, wherein the first gap (104; 114, 116) is substantially lengthwise along the web stabilizer, characterized in that the second gap (102; 106, 108) is located substantially widthwise along the web stabilizer and near the outside edge of the web and comprises holes or perforations (110, 112). a surface (130, 132) adapted to be adjacent to a moving web of material moving in a web direction, wherein the surface (130, 132) has a stepped configuration in which a first gap (104; 114, 116) alters the surface of the stabilizer, the first gap (104; 114, 116) being adapted to receive and direct a first moving fluid in a first direction parallel with the web direction, and wherein the surface (130, 132) further includes a second gap (102; 106, 108) adapted to receive and direct a second moving fluid in a second direction perpendicular to the web direction, such that the first moving fluid provides a stabilizing congruent force to the moving web and the second moving fluid provides a stabilizing transverse force to the moving web, wherein the first gap (104; 114, 116) is substantially lengthwise along the web stabilizer, characterized in that the second gap (102; 106, 108) is located substantially widthwise along the web stabilizer and near the outside edge of the web and comprises holes or perforations (110, 112).
Faucet comprising: a mouth; and a jet breaker/aerator cartridge (1; 1'; 1") comprising: an external casing (10; 10'; 10"), comprising an upstream inlet and a downstream outlet, a flow path being defined within said external casing (10; 10'; 10") from said upstream inlet to said downstream outlet, said external casing (10; 10'; 10") further comprising therein jet breaking and aeration means (3, 4, 5) positioned across said flow path; said external casing (10; 10'; 10") further comprising: an engagement portion (11; 11') provided with a thread on its external surface which is screwed about a screwing axis (x) within a corresponding inner thread in the mouth; and a gripping portion (12; 12'; 12") which extends downstream with respect to the engagement portion (11; 11'); said gripping portion (12; 12'; 12") comprising a central central cylindrical body (15; 15'; 15") and at least one radial protrusion (13; 13'; 13") protruding therefrom; characterized in that said protrusion (13; 13'; 13") defines a pushing surface (14; 14'; 14") being accessible to an operator's fingers, so as to allow manual screwing and unscrewing of the cartridge (1; 1'; 1").
An X-ray apparatus, comprising: an X-ray source for radiating X-rays upon an object to be measured; a frame upon which the X-ray source is mounted; an anti-vibration mechanism arranged to attenuate vibration applied to the frame; a shift mechanism arranged to shift the frame and the anti-vibration mechanism integrally together; and a base plate unit arranged to support the shift mechanism. an X-ray source for radiating X-rays upon an object to be measured; a frame upon which the X-ray source is mounted; an anti-vibration mechanism arranged to attenuate vibration applied to the frame; a shift mechanism arranged to shift the frame and the anti-vibration mechanism integrally together; and a base plate unit arranged to support the shift mechanism.
Method for determining the track course of a track bound vehicle, the method comprising the following steps: a) defining a first error distribution of a curvature determination error for a plurality of erroneously measured track curvatures around a first estimated curvature value k̂ 1, b) defining a first threshold T 1 according to a predefined first wrong decision probability, whereby any measured track curvature beyond this threshold is classified not to be the first estimated curvature value k̂ 1, c) defining a second error distribution of a curvature determination error for a plurality of erroneously measured track curvatures around a second estimated curvature value k̂ 2, the first estimated curvature value k̂ 1 being smaller than the second estimated curvature value k̂ 2, d) defining a second threshold T 2 according to a predefined second wrong decision probability, whereby any measured track curvature below this threshold is classified not to be the second estimated curvature value k̂ 2, the second threshold T 2 being located on this end of the second error distribution facing towards the first error distribution, e) whereby the distance between the first and second estimated curvature values k̂ 1 and k̂ 2 can be reliably specified when T 1 = T 2 or T 1 <T 2 is fulfilled f) measuring a track curvature of the track bound vehicle, whereby the measured curvature value is considered to be k̂ 1 if it is <T 1 and is considered to be k̂ 2 if it is >T 2, whereby if the measured value is identical to T 1 and T 2 the decision if it is T 1 or T 2 is taken based on a predefined system preference. a) defining a first error distribution of a curvature determination error for a plurality of erroneously measured track curvatures around a first estimated curvature value k̂ 1, b) defining a first threshold T 1 according to a predefined first wrong decision probability, whereby any measured track curvature beyond this threshold is classified not to be the first estimated curvature value k̂ 1, c) defining a second error distribution of a curvature determination error for a plurality of erroneously measured track curvatures around a second estimated curvature value k̂ 2, the first estimated curvature value k̂ 1 being smaller than the second estimated curvature value k̂ 2, d) defining a second threshold T 2 according to a predefined second wrong decision probability, whereby any measured track curvature below this threshold is classified not to be the second estimated curvature value k̂ 2, the second threshold T 2 being located on this end of the second error distribution facing towards the first error distribution, e) whereby the distance between the first and second estimated curvature values k̂ 1 and k̂ 2 can be reliably specified when T 1 = T 2 or T 1 <T 2 is fulfilled f) measuring a track curvature of the track bound vehicle, whereby the measured curvature value is considered to be k̂ 1 if it is <T 1 and is considered to be k̂ 2 if it is >T 2, whereby if the measured value is identical to T 1 and T 2 the decision if it is T 1 or T 2 is taken based on a predefined system preference.
A coil unit with a structure for cooling electromagnetic coils (30,50) comprising: a plurality of electromagnetic coils(30A, 30B, 30C, 50A, 50B, 50C) each of which comprises a conductor winding formed by winding a strip conductor by a plurality of turns around a predetermined axis, each of which has a space(32,52) extending in a direction of the predetermined axis and formed inside the conductor winding and the coils (30A, 30B, 30C, 50A, 50B, 50C) being disposed with their predetermined axes juxtaposed in parallel; a cooling member(20,40) attached to end surfaces(30e,30f,50g), with respect to the direction of the predetermined axes, of the plurality of electromagnetic coils(30,50) and having a flow path(20g,40g) for fluid internally formed; an inlet pipe(22,42) connected, within the space(32,52) of any one of the electromagnetic coils(30,50), to an inlet(21,41) of the flow path(20g,40g) of the cooling member(20,40) and extending through the space(32,52) to a region outside the electromagnetic coils (30,50); and an outlet pipe(27,47) connected, within the space(32,52) of any one of the electromagnetic coils(30,50), to an outlet(26,46) of the flow path(20g,40g) of the cooling member(20,40) and extending through the space(32,52) to a region outside the electromagnetic coils (30,50), characterized in that the inlet pipe(22,42) and the outlet pipe(27,47) are connected to the inlet(21,41) and the outlet(26,46), respectively, within the same space(32,52) of a single electromagnetic coil (30A, 30B, 30C, 50A, 50B, 50C). a plurality of electromagnetic coils(30A, 30B, 30C, 50A, 50B, 50C) each of which comprises a conductor winding formed by winding a strip conductor by a plurality of turns around a predetermined axis, each of which has a space(32,52) extending in a direction of the predetermined axis and formed inside the conductor winding and the coils (30A, 30B, 30C, 50A, 50B, 50C) being disposed with their predetermined axes juxtaposed in parallel; a cooling member(20,40) attached to end surfaces(30e,30f,50g), with respect to the direction of the predetermined axes, of the plurality of electromagnetic coils(30,50) and having a flow path(20g,40g) for fluid internally formed; an inlet pipe(22,42) connected, within the space(32,52) of any one of the electromagnetic coils(30,50), to an inlet(21,41) of the flow path(20g,40g) of the cooling member(20,40) and extending through the space(32,52) to a region outside the electromagnetic coils (30,50); and an outlet pipe(27,47) connected, within the space(32,52) of any one of the electromagnetic coils(30,50), to an outlet(26,46) of the flow path(20g,40g) of the cooling member(20,40) and extending through the space(32,52) to a region outside the electromagnetic coils (30,50), characterized in that the inlet pipe(22,42) and the outlet pipe(27,47) are connected to the inlet(21,41) and the outlet(26,46), respectively, within the same space(32,52) of a single electromagnetic coil (30A, 30B, 30C, 50A, 50B, 50C).
A camera cage comprising a ring bearing and a motor whose motor axis is coaxial with the central axis of the ring bearing, the camera cage comprising means for keeping the motor and the ring bearing about a same central axis, wherein the ring bearing has an inner diameter which may include a lens, and wherein the camera cage includes a camera mount that is present within the camera cage such that in use the optical axis of the camera is coaxia with the central axis of the ring bearing characterized in that the camera cage comprises means configured to adjust the distance between the motor and the ring bearing
Method for controlling a server cluster, the cluster comprising a plurality of nodes, each node comprising a plurality of computing cores, characterized in that: - automated agents measure the variation of at least one metric quantifying the utilization of the nodes for the execution of an application, said application being capable of having a plurality of phases, each phase being linked to a utilization level of each computing core on which the application is executed, - the agents determine, for each node, whether a phase change has taken place in the executed application by means of the metric measurement and, if so, control an operating change of the node, the operating change being chosen from the list consisting of: ∘ modifying the operating point of the computing cores of said node; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node, - an automated coordinator aggregates, at regular intervals, the metric measurements and operating changes of the nodes that have taken place and determines a variation of the energy consumption of the server cluster and a variation of the energy consumption of each of the nodes, and - the coordinator sends instructions to at least one of the agents to refine the decisions taken by said agent on a node, according to the aggregated measurements and the variation of the energy consumption of the server cluster and the variation of the energy consumption of each of the nodes. - automated agents measure the variation of at least one metric quantifying the utilization of the nodes for the execution of an application, said application being capable of having a plurality of phases, each phase being linked to a utilization level of each computing core on which the application is executed, - the agents determine, for each node, whether a phase change has taken place in the executed application by means of the metric measurement and, if so, control an operating change of the node, the operating change being chosen from the list consisting of: ∘ modifying the operating point of the computing cores of said node; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node, ∘ modifying the operating point of the computing cores of said node; ∘ deactivating the computing cores of said node when it has no workload; and ∘ modifying the allocation of tasks to the computing cores of said node, - an automated coordinator aggregates, at regular intervals, the metric measurements and operating changes of the nodes that have taken place and determines a variation of the energy consumption of the server cluster and a variation of the energy consumption of each of the nodes, and - the coordinator sends instructions to at least one of the agents to refine the decisions taken by said agent on a node, according to the aggregated measurements and the variation of the energy consumption of the server cluster and the variation of the energy consumption of each of the nodes.
Apparatus for computing control information for a suppression filter for filtering a second audio signal to suppress an echo based on a first audio signal, comprising: a computation means comprising a value determination means for determining at least one energy-related value for a band-pass signal of at least two temporally successive data blocks of at least one signal of a group of signals, the group of signals including the first audio signal, the second audio signal and a signal derived from the first audio signal or the second audio signal; wherein the computation means further includes a mean value determination means for determining at least one mean value of the at least one determined energy-related value for the band-pass signal; wherein the computation means further includes a modification means for modifying the at least one energy-related value for the band-pass signal on the basis of the determined mean value for the band-pass signal; wherein the computation means further includes a control information computation means for computing the control information for the suppression filter on the basis of the at least one modified energy-related value for the band-pass signal; and wherein the value determination means is formed so that the energy-related value is proportional to a power of a value of the band-pass signal with a positive, integer exponent, or wherein the value determination means is formed so that the energy-related value is proportional to a power of a magnitude of the value of the band-pass signal with a positive real number as exponent of the power. a computation means comprising a value determination means for determining at least one energy-related value for a band-pass signal of at least two temporally successive data blocks of at least one signal of a group of signals, the group of signals including the first audio signal, the second audio signal and a signal derived from the first audio signal or the second audio signal; wherein the computation means further includes a mean value determination means for determining at least one mean value of the at least one determined energy-related value for the band-pass signal; wherein the computation means further includes a modification means for modifying the at least one energy-related value for the band-pass signal on the basis of the determined mean value for the band-pass signal; wherein the computation means further includes a control information computation means for computing the control information for the suppression filter on the basis of the at least one modified energy-related value for the band-pass signal; and wherein the value determination means is formed so that the energy-related value is proportional to a power of a value of the band-pass signal with a positive, integer exponent, or wherein the value determination means is formed so that the energy-related value is proportional to a power of a magnitude of the value of the band-pass signal with a positive real number as exponent of the power.
A cooling device having a heat insulated body; a door hinged to the body; a container adapted to an inner wall of the door, wherein a lid is having a platform guiding to the fill-up water in a manner providing to fill the water from a fill opening to the inside of the container and connected to a cover of the container in a manner covering the fill opening, characterized in that a barrier is formed at a vertical direction to the platform and at both sides of the platform of the lid, or in that the lid is a funnel.
Device (1, 11) for suspending a plant, for instance a tomato plant, comprising a housing (2, 12) in which a wire reel (3, 13) can be removably arranged, wire dispensing means for dispensing a wire (4, 14) wound onto the wire reel (3, 13) close to an underside of the housing (2, 12) and suspending means close to an upper side of the device (1, 11) for suspending the device (1, 11), wherein the housing (2, 12) is provided with a first passage (5, 15) for guiding the wire (4, 14) to the outer side of the housing (2, 12), the housing (2, 12) is configured to guide the wire (4, 14) over at least a part of the outer side of the housing (2, 12) to the underside thereof, and that the wire dispensing means are configured to clamp the wire (4, 14) in manually adjustable manner on the outer side of the housing (2, 12), characterized in that the wire dispensing means are movable with respect to the part of the outer side of the housing (2, 12) to form a brake for dispensing the wire (4, 14) from the device without lifting the plant.
A method for printing hollow bodies which are brought into their final shape by stretching during production from preform, wherein before the stretching of the preform the hollow body is printed with at least one ink, wherein the printing is applied in a distorted manner such that the desired depiction of the pattern on the hollow body after stretching the preform is obtained when stretching the preform, characterized in that the printing of the preform is accomplished by digital printing and that the preform is printed with inks which are UV-curing or that an ink with evaporating carrier liquid is used, wherein the ink is printed on a pre-heated preform.
A method for balancing a rotating part in order to produce a machined and balanced rotating part, comprising zones machined to high tolerance (rolling bearings, main bearings, etc) and low-tolerance zones machined or not (undressed surfaces, etc), from a rotating-part blank on the one hand and a nominal digital model of the constraints for machining the zones machined at low tolerances (2 to 5) of a nominal rotating part on the other hand, characterised in that the method comprises: • an initial step of digitising said blank for obtaining a digital model of said blank, in a predetermined digitisation reference frame • a step of virtual machining of said digital model of the blank, for computing an intermediate digital model in the target reference frame comprising the motor axis of a machined rotating part from firstly the digital model of the blank and secondly from the nominal digital model of the machining constraints • a step of determining the axis of inertia of said intermediate digital model • at least one step of modifying the geometric reference frame of said digital model of the blank in order to make said axis of inertia of said intermediate digital model correspond to the nominal rotation axis of the motor in the target reference frame • iterative steps of computation of the previous steps (33, 34, 35) until the difference between the calculated axis of inertia and the nominal axis of the motor is less than a threshold value • the final step consisting of controlling real machining equipment, in the target reference frame, from the nominal digital model of the machining constraints on the real blank placed on the machining equipment in conformity with the intermediate digital model resulting from the last iteration. • an initial step of digitising said blank for obtaining a digital model of said blank, in a predetermined digitisation reference frame • a step of virtual machining of said digital model of the blank, for computing an intermediate digital model in the target reference frame comprising the motor axis of a machined rotating part from firstly the digital model of the blank and secondly from the nominal digital model of the machining constraints • a step of determining the axis of inertia of said intermediate digital model • at least one step of modifying the geometric reference frame of said digital model of the blank in order to make said axis of inertia of said intermediate digital model correspond to the nominal rotation axis of the motor in the target reference frame • iterative steps of computation of the previous steps (33, 34, 35) until the difference between the calculated axis of inertia and the nominal axis of the motor is less than a threshold value • the final step consisting of controlling real machining equipment, in the target reference frame, from the nominal digital model of the machining constraints on the real blank placed on the machining equipment in conformity with the intermediate digital model resulting from the last iteration.
Press for manufacturing pressed bales of compressible material, particularly recyclable materials such as paper, cardboard, plastic foils or empty plastic bottles, wherein the press comprises a press housing with a baling chamber and a compaction plate displaceable therein by a power drive (18, 18'), wherein the press housing has a filling port for the material to be compressed and a discharge port with an displaceable door for the pressed bales produced in the baling chamber, wherein a stowage space is positioned downstream of the discharge port, into which each pressed bale may be transferred from the baling chamber following its production, wherein the stowage space comprises at least two delimiting surfaces (31, 32) receiving the pressed bales between them, with said surfaces extending perpendicular to the direction of movement of the compaction plate, and wherein a binding unit is associated with the stowage space to apply ties to at least one pressed bale, thereby strapping and holding it together, characterised in that guides (33, 23) lying flush with one another are arranged in the delimiting surfaces (31, 32) and in the door on their respective sides facing the stowage space, into which guides the ties may be inserted and through which the ties can be fed around at least one pressed bale located in the stowage space.