mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a reinforcing part of π-shaped section out of composite material, the part comprising a first portion forming a base, and a second portion forming a stiffener having two legs that extend from a face of the base over at least a fraction of the length thereof, the method comprising: making a first set of a plurality of layers of yarns that are interlinked by three-dimensional weaving to form a first fiber blank portion that is to form a base preform; making a second set of a plurality of layers of yarns that are interlinked by three-dimensional weaving to form a second fiber blank portion that is to form a stiffener preform, yarns of the second set of layers of yarns being interlinked by weaving with the yarns of the first set of layers of yarns in a central interlinked strip extending longitudinally between the two longitudinal ends of the first fiber blank portion; shaping the two fiber blank portions to obtain a single-piece fiber preform having a portion forming a base preform and a portion forming a stiffener preform; and depositing a resin in the fiber preform to form a matrix so as to obtain a composite material reinforcing part comprising fiber reinforcement constituted by the preform that is densified by the matrix, characterized in that the first portion forming a base presents a step at at least one of its longitudinal ends and in that the central interlinked strip flares towards the side edges thereof in a zone (108, 110) corresponding to the step of the base. making a first set of a plurality of layers of yarns that are interlinked by three-dimensional weaving to form a first fiber blank portion that is to form a base preform; making a second set of a plurality of layers of yarns that are interlinked by three-dimensional weaving to form a second fiber blank portion that is to form a stiffener preform, yarns of the second set of layers of yarns being interlinked by weaving with the yarns of the first set of layers of yarns in a central interlinked strip extending longitudinally between the two longitudinal ends of the first fiber blank portion; shaping the two fiber blank portions to obtain a single-piece fiber preform having a portion forming a base preform and a portion forming a stiffener preform; and depositing a resin in the fiber preform to form a matrix so as to obtain a composite material reinforcing part comprising fiber reinforcement constituted by the preform that is densified by the matrix,
A method comprising: establishing, by a computing device, a replication relationship between a first storage endpoint and a second storage endpoint, the computing device communicatively coupled to the first storage endpoint and to the second storage endpoint over a network; implementing, at the computing device, a first proxy to represent the first storage endpoint and a second proxy to represent the second storage endpoint remote to the computing device; performing a replication operation to replicate data from the first storage endpoint to the second storage endpoint based upon the replication relationship, wherein the performing comprises: selectively implementing a first task of the replication operation locally upon the first proxy based upon the first task targeting the first endpoint; and selectively implementing a second task of the replication operation locally upon the second proxy based upon the second task targeting the second endpoint and comprising a control operation not natively supported by the second endpoint; and selectively routing a further task to the second endpoint for remote implementation based upon the further task comprising a file system access operation targeting data stored within storage of the second endpoint. establishing, by a computing device, a replication relationship between a first storage endpoint and a second storage endpoint, the computing device communicatively coupled to the first storage endpoint and to the second storage endpoint over a network; implementing, at the computing device, a first proxy to represent the first storage endpoint and a second proxy to represent the second storage endpoint remote to the computing device; performing a replication operation to replicate data from the first storage endpoint to the second storage endpoint based upon the replication relationship, wherein the performing comprises: selectively implementing a first task of the replication operation locally upon the first proxy based upon the first task targeting the first endpoint; and selectively implementing a second task of the replication operation locally upon the second proxy based upon the second task targeting the second endpoint and comprising a control operation not natively supported by the second endpoint; and selectively routing a further task to the second endpoint for remote implementation based upon the further task comprising a file system access operation targeting data stored within storage of the second endpoint. selectively implementing a first task of the replication operation locally upon the first proxy based upon the first task targeting the first endpoint; and selectively implementing a second task of the replication operation locally upon the second proxy based upon the second task targeting the second endpoint and comprising a control operation not natively supported by the second endpoint; and selectively routing a further task to the second endpoint for remote implementation based upon the further task comprising a file system access operation targeting data stored within storage of the second endpoint.
A method for waking up an implantable medical device from a dormant state, the method comprising: sending a wake-up signal via a wireless link by means of an external device; receiving the wake-up signal by the implantable medical device in the dormant state; activating an awake state of the implantable medical device in response to the wake-up signal; attempting with at least one or a predefined number of attempts, in the awake state of the implantable medical device, to establish a communication between the external device and the implantable medical device; identifying, by the implantable medical device, the activation of the awake state as a valid activation based on the attempting to establish a communication; and in case the activation of the awake state is not identified as a valid activation, blocking a subsequent activation of the awake state of the implantable medical device based on the wake-up signal, characterized in that said blocking includes: marking a predefined matching signal corresponding to the wake-up signal as invalid in a list of matching signals so that if a signal is received by the implantable medical device which resembles a matching signal as identified in the list of matching signals, the implantable medical device is not transferred to the awake state. sending a wake-up signal via a wireless link by means of an external device; receiving the wake-up signal by the implantable medical device in the dormant state; activating an awake state of the implantable medical device in response to the wake-up signal; attempting with at least one or a predefined number of attempts, in the awake state of the implantable medical device, to establish a communication between the external device and the implantable medical device; identifying, by the implantable medical device, the activation of the awake state as a valid activation based on the attempting to establish a communication; and in case the activation of the awake state is not identified as a valid activation, blocking a subsequent activation of the awake state of the implantable medical device based on the wake-up signal, characterized in that said blocking includes: marking a predefined matching signal corresponding to the wake-up signal as invalid in a list of matching signals so that if a signal is received by the implantable medical device which resembles a matching signal as identified in the list of matching signals, the implantable medical device is not transferred to the awake state.
A control system for controlling operation of a wind turbine, the control system comprising: - a first sensor (6, 14, 16, 17) arranged for sampling or continuously measuring a first physical value being representative of a first physical impact on a component of the wind turbine in order to provide a first control parameter for controlling operation of the wind turbine, said first control parameter thereby reflecting said first physical impact, - a second sensor (6, 14, 16, 17) arranged for sampling or continuously measuring a second physical value being representative of a second physical impact on a component of the wind turbine in order to provide a second control parameter for controlling operation of the wind turbine, said second control parameter thereby reflecting said second physical impact, characterized in that said second control parameter is distinct from the first control parameter, and in that the control system during active generation of energy is adapted to selectively switch between controlling operation of the wind turbine either in accordance with a first control strategy on the basis of the first control parameter, or in accordance with a second control strategy on the basis of the second control parameter, the first control strategy and the second control strategy representing two different and independent control strategies, both control strategies being based on actual physical impacts on a component of the wind turbine, further characterized by comprising means for determining validity of the first physical value obtained by the first sensor (6, 14, 16, 17), and/or means for determining validity of the second physical value obtained by the second sensor (6, 14, 16, 17), wherein the control system is adapted to selectively switch between controlling the operation of the wind turbine based on the first control parameter and controlling the operation of the wind turbine based on the second control parameter, on the basis of determined validity of the first physical value and/or the second physical value. - a first sensor (6, 14, 16, 17) arranged for sampling or continuously measuring a first physical value being representative of a first physical impact on a component of the wind turbine in order to provide a first control parameter for controlling operation of the wind turbine, said first control parameter thereby reflecting said first physical impact, - a second sensor (6, 14, 16, 17) arranged for sampling or continuously measuring a second physical value being representative of a second physical impact on a component of the wind turbine in order to provide a second control parameter for controlling operation of the wind turbine, said second control parameter thereby reflecting said second physical impact,
Method in a motor vehicle for automated driving, comprising the following steps: - detecting further motor vehicles in the surroundings of the motor vehicle by at least one sensor system, - detecting and recognizing lanes (30, 31) by the at least one sensor system, - relating the detected further motor vehicles (51, 52) to the detected lanes (30,31) by a controller, - detecting and evaluating an intention to overtake of a further motor vehicle by an overtaking assistance device and - when an intention to overtake is detected: o calculating the total benefit of a possible lane change by a forecasting device, o adapting the driving behavior of the motor vehicle by the controller, wherein the possible lane change is performed when the calculated total benefit reaches or exceeds a predetermined total benefit threshold, o and wherein the possible lane change is not performed if the calculated total benefit does not exceed the predetermined total benefit threshold, characterized in that before calculating the total benefit, checking of timings is performed by a timing checking device, wherein checking the timings for the possible lane change by the timing checking device comprises the following steps: - checking the time since a last completed lane change, - discarding the possible lane change if the time since the last completed lane change falls below a threshold value. - detecting further motor vehicles in the surroundings of the motor vehicle by at least one sensor system, - detecting and recognizing lanes (30, 31) by the at least one sensor system, - relating the detected further motor vehicles (51, 52) to the detected lanes (30,31) by a controller, - detecting and evaluating an intention to overtake of a further motor vehicle by an overtaking assistance device and - when an intention to overtake is detected: o calculating the total benefit of a possible lane change by a forecasting device, o adapting the driving behavior of the motor vehicle by the controller, wherein the possible lane change is performed when the calculated total benefit reaches or exceeds a predetermined total benefit threshold, o and wherein the possible lane change is not performed if the calculated total benefit does not exceed the predetermined total benefit threshold, o calculating the total benefit of a possible lane change by a forecasting device, o adapting the driving behavior of the motor vehicle by the controller, wherein the possible lane change is performed when the calculated total benefit reaches or exceeds a predetermined total benefit threshold, o and wherein the possible lane change is not performed if the calculated total benefit does not exceed the predetermined total benefit threshold, - checking the time since a last completed lane change, - discarding the possible lane change if the time since the last completed lane change falls below a threshold value.
An implantable device for administering a liquid, in particular a medication, in man or animal, comprising a supply enabling said liquid to be delivered and suitable for being placed in a cavity of the body of the patient, said supply comprises an inlet for receiving said liquid and at least one outlet for delivering said liquid to the patient, characterized in that the device comprises: • a transfer chamber enabling the supply to be fed with said liquid, configured to be implanted under the skin, said transfer chamber comprises a filler orifice provided with a septum through which any suitable means can deliver said liquid, and • transfer means for transferring said liquid between the transfer chamber and said supply. • a transfer chamber enabling the supply to be fed with said liquid, configured to be implanted under the skin, said transfer chamber comprises a filler orifice provided with a septum through which any suitable means can deliver said liquid, and • transfer means for transferring said liquid between the transfer chamber and said supply.
A core for a composite structure, the core comprising: a first core layer; a second core layer; and a radar-reflecting layer between the first and second core layers; wherein at least one of the first and second core layers has drape-promoting formations that do not interrupt the radar-reflecting layer, characterized in that the drape-promoting formations includes a first plurality of slits that each extend into the first core layer to a depth that is less than the thickness of the first core layer. a first core layer; a second core layer; and a radar-reflecting layer between the first and second core layers; wherein at least one of the first and second core layers has drape-promoting formations that do not interrupt the radar-reflecting layer, characterized in that the drape-promoting formations includes a first plurality of slits that each extend into the first core layer to a depth that is less than the thickness of the first core layer.
Shifting device for selectively choosing rotationally fixed couplings of a plurality of coaxial shafts (110, 120, 130) of a motor vehicle transmission, comprising - a housing, - a sliding sleeve that is axially displaceable relative to the housing and has an internal toothing with two toothed axial regions (143, 144) spaced apart from one another by an axial gap, - and a plurality of toothed bodies (111, 121, 131) that are arranged coaxially surrounding the sliding sleeve and adjacent to one another, which are each rotationally firmly connected to one of the shafts (110, 120, 130) and each carry an outer toothing (113, 123, 133) corresponding to the inner toothing of the sliding sleeve, wherein the sliding sleeve has a first sleeve part and a second sleeve part, which are connected to one another in an axially fixed and rotationally decoupled manner, wherein the first sleeve part is a carrier of the first toothed axial region and the second sleeve part is a carrier of the second toothed axial region, characterized in that the sliding sleeve is mounted by means of an axially extending threaded structure in an actuating sleeve that coaxially surrounds it. - a housing, - a sliding sleeve that is axially displaceable relative to the housing and has an internal toothing with two toothed axial regions (143, 144) spaced apart from one another by an axial gap, - and a plurality of toothed bodies (111, 121, 131) that are arranged coaxially surrounding the sliding sleeve and adjacent to one another, which are each rotationally firmly connected to one of the shafts (110, 120, 130) and each carry an outer toothing (113, 123, 133) corresponding to the inner toothing of the sliding sleeve, wherein the sliding sleeve has a first sleeve part and a second sleeve part, which are connected to one another in an axially fixed and rotationally decoupled manner, wherein the first sleeve part is a carrier of the first toothed axial region and the second sleeve part is a carrier of the second toothed axial region, characterized in that
A method for producing a population of liposomes, the method comprising: introducing a suspension of liposomes into a liposome extrusion device comprising: a porous membrane; and a component configured to position the membrane in an interior of a liquid container; and applying a centrifugal force to the suspension of liposomes in a manner sufficient to pass the liposomes through the membrane to produce a population of liposomes. introducing a suspension of liposomes into a liposome extrusion device comprising: a porous membrane; and a component configured to position the membrane in an interior of a liquid container; and a porous membrane; and a component configured to position the membrane in an interior of a liquid container; and applying a centrifugal force to the suspension of liposomes in a manner sufficient to pass the liposomes through the membrane to produce a population of liposomes.
Method for performing compensation of a bow (B w), generated in a wafer made from a material, the wafer comprising opposite first and second surfaces (10, 11), the material of the wafer having a coefficient of thermal expansion called CTE and noted α 0, the method comprising the steps: a) forming a set of first trenches (100a, 100b) on the first surface of the wafer, electronic components having to be formed on the first surface 10); b) forming a set of second trenches on the second surface of the wafer, at least partially facing the first trenches (100a, 100b); c) filling the first trenches (100a, 100b) with a first material (M 1) having a CTE α 1; d) filling the second trenches with a second material (M 2) having a CTE α 2, and verifying α 2 > α 0 when the first material (M 1) verifies α 1 > α 0 or α 2 < α 0 when the first material (M 1) verifies α 1 < α 0 method characterised in that step a) is executed in such a way that the first trenches define a cutting path of the wafer, and step b) is executed in such a way that the second trenches are totally facing the first trenches. a) forming a set of first trenches (100a, 100b) on the first surface of the wafer, electronic components having to be formed on the first surface 10); b) forming a set of second trenches on the second surface of the wafer, at least partially facing the first trenches (100a, 100b); c) filling the first trenches (100a, 100b) with a first material (M 1) having a CTE α 1; d) filling the second trenches with a second material (M 2) having a CTE α 2, and verifying α 2 > α 0 when the first material (M 1) verifies α 1 > α 0 or α 2 < α 0 when the first material (M 1) verifies α 1 < α 0 method characterised in that step a) is executed in such a way that the first trenches define a cutting path of the wafer, and step b) is executed in such a way that the second trenches are totally facing the first trenches.
A balustrade glazing system, characterized in that it comprises: - an essentially horizontal handrail that comprises a handrail profile and is fastened in a stationary manner only at the ends to support structures by means of a support structure fastening and which comprises a stationary installation strip which has a first installation groove for a seal; - an essentially horizontal lower rail provided with an installation groove of the lower rail, which opens upwards; and - balustrade glazing which is installable or which has been installed essentially in a floating manner on the span between the balustrade glazing installation groove of the handrail and the installation groove of the lower rail, whereby the balustrade glazing supports the handrail so that the upper edge of the balustrade glazing can essentially move in the installation groove of the handrail with respect to the width direction of the installation groove of the handrail; - -a number of wedge-like elements, such as screws, for adjusting the distance between the balustrade glazing and the handrail by wedging the handrail upwards against the balustrade glazing or against a protective/fastening profile on the balustrade glazing; characterised in that said balustrade glazing system further comprises: - a removable installation strip which has a second installation groove for a seal and which together with the stationary installation strip and possible seals defines a balustrade glazing installation groove of the handrail; and - a number of locking elements for fastening the removable installation strip to the handrail profile. - an essentially horizontal handrail that comprises a handrail profile and is fastened in a stationary manner only at the ends to support structures by means of a support structure fastening and which comprises a stationary installation strip which has a first installation groove for a seal; - an essentially horizontal lower rail provided with an installation groove of the lower rail, which opens upwards; and - balustrade glazing which is installable or which has been installed essentially in a floating manner on the span between the balustrade glazing installation groove of the handrail and the installation groove of the lower rail, whereby the balustrade glazing supports the handrail so that the upper edge of the balustrade glazing can essentially move in the installation groove of the handrail with respect to the width direction of the installation groove of the handrail; - -a number of wedge-like elements, such as screws, for adjusting the distance between the balustrade glazing and the handrail by wedging the handrail upwards against the balustrade glazing or against a protective/fastening profile on the balustrade glazing; - a removable installation strip which has a second installation groove for a seal and which together with the stationary installation strip and possible seals defines a balustrade glazing installation groove of the handrail; and - a number of locking elements for fastening the removable installation strip to the handrail profile.