mhurhangee/ep-ind-claims huggingface dataset:
A welding device comprising: - a torch for arc welding and - calculation means making it possible to calculate the linear welding energy on the basis of at least one value of speed of movement of the torch measured over a given period of time, characterised in that said welding device also comprises - a triaxial accelerometer (X, Y, Z) able and designed to provide at least one signal as a function of the acceleration of the torch along each axis, - signal amplification means able and designed to amplify the current signal provided by the triaxial accelerometer, - signal processing means able and designed to process the amplified current signal and to deduce the acceleration values experienced by the triaxial accelerometer along each axis, and - integration means making it possible to operate an integration, during said given period of time, of said acceleration values and to deduce said at least one value of speed of movement of the welding torch. - a torch for arc welding and - calculation means making it possible to calculate the linear welding energy on the basis of at least one value of speed of movement of the torch measured over a given period of time, - a triaxial accelerometer (X, Y, Z) able and designed to provide at least one signal as a function of the acceleration of the torch along each axis, - signal amplification means able and designed to amplify the current signal provided by the triaxial accelerometer, - signal processing means able and designed to process the amplified current signal and to deduce the acceleration values experienced by the triaxial accelerometer along each axis, and - integration means making it possible to operate an integration, during said given period of time, of said acceleration values and to deduce said at least one value of speed of movement of the welding torch.
A computer-implemented method for providing secure email communications on a mobile device, the method comprising: hooking at least one application programming interface, API, associated with a native email client in order to transmit data securely via email, the native email client being native to an operating system of the mobile device; detecting, via the hooked API, an email originating from a registered application, the email comprising the data to transmit securely, the registered application being registered in a registry according to a mobile application authentication procedure wherein the authentication procedure is implemented according to a policy, the registry comprising a plurality of registered applications authenticated according to the mobile application authentication procedure, the mobile application authentication procedure comprising a procedure to authenticate applications installed on the mobile device; determining whether a registered email client different than the native email client is located on the mobile device, the registered email client being registered in the registry according to the mobile application authentication procedure; and upon detecting, via the hooked API, a call to the native email client from the registered application, and determining that the registered email client, different than the native email client, is located on the mobile device, when the policy specifies that the data has to be sent via the registered email client, emailing the data via the registered email client according to the policy. hooking at least one application programming interface, API, associated with a native email client in order to transmit data securely via email, the native email client being native to an operating system of the mobile device; detecting, via the hooked API, an email originating from a registered application, the email comprising the data to transmit securely, the registered application being registered in a registry according to a mobile application authentication procedure wherein the authentication procedure is implemented according to a policy, the registry comprising a plurality of registered applications authenticated according to the mobile application authentication procedure, the mobile application authentication procedure comprising a procedure to authenticate applications installed on the mobile device; determining whether a registered email client different than the native email client is located on the mobile device, the registered email client being registered in the registry according to the mobile application authentication procedure; and upon detecting, via the hooked API, a call to the native email client from the registered application, and determining that the registered email client, different than the native email client, is located on the mobile device, when the policy specifies that the data has to be sent via the registered email client, emailing the data via the registered email client according to the policy.
A sensor for attachment to an inflatable air cell cushion comprising apparatus disposed to sense an optimal immersion depth in the inflatable cushion for a seated user by sensing air pressure in the cushion, said sensor comprising a microprocessor programmed to determine the optimal immersion depth for the seated user based upon a rate of change in the air pressure in the cushion as air is released from the cushion, by continuously calculating a difference between a current average pressure and an immediately preceding average pressure, wherein if the difference is below a reference value then the optimal immersion depth is detected.
A V-ribbed belt comprising a twisted cord that is obtained by mix-twisting: a high-elongation aramid fiber having a tensile modulus of 50-100 GPa; and a low-modulus fiber having a lower tensile modulus than the high-elongation aramid fiber; characterized in that the high-elongation aramid fiber has an intermediate elongation under a load of 4 cN/dtex of 0.8-3%.
Anti-fall device, in particular a fall arrest runner, which accompanies a person who is to be secured on a movable or fixed guide serving as a safety device, in particular a safety rail, safety ladder or safety cable, with a housing (10, 12) on which a first shaft is rotatably mounted, and with at least one rolling device which is connected to the first shaft in a rotationally fixed manner, which is arranged in such a way that it rolls on the safety device when the anti-fall device moves along the safety device, said rolling device being connected with a friction coupling which, depending on a rotational speed of the rolling device, establishes, by means of friction, a force-transmitting connection with an eccentric, said ecce ntric being arranged and designed such that, on this force-transmitting connection with the rolling device being established, this presses against the safety device such that a friction-locking connection is established between the housing (10, 12) and the safety device which blocks a movement of the housing (10, 12) relative to the safety device, wherein the anti-fall device has a fastening lug for the attachment of a person who is to be secured, wherein the eccentric is arranged on a second shaft arranged at a distance from the first shaft and is connected with this second shaft in a rotationally fixed manner, characterised in that at least one lever arm is connected on the one hand with the eccentric and on the other hand with a braking ring, wherein the braking ring is arranged and designed such that the friction coupling establishes a force-transmitting connection between the rolling device and the braking ring.
A method comprising: at a processing device located on an aircraft, receiving aircraft speed, a predefined reference speed, a manually set bug speed value, and aircraft location information, setting a target speed equal to the manually set bug speed value, if the manually set bug speed value is less than the reference speed plus a value associated with a predefined maximum wind setting added value, and setting the target speed equal to the reference speed plus the maximum wind setting added value, if the manually set bug speed value is not less than the reference speed plus the maximum wind setting added value; and at an output device (36, 37) in signal communication with the processing device, outputting an alert if the received aircraft speed is greater than the set target speed plus a predefined error value when the received aircraft location is within a threshold value of at least one of a landing or touchdown point. at a processing device located on an aircraft, receiving aircraft speed, a predefined reference speed, a manually set bug speed value, and aircraft location information, setting a target speed equal to the manually set bug speed value, if the manually set bug speed value is less than the reference speed plus a value associated with a predefined maximum wind setting added value, and setting the target speed equal to the reference speed plus the maximum wind setting added value, if the manually set bug speed value is not less than the reference speed plus the maximum wind setting added value; and at an output device (36, 37) in signal communication with the processing device, outputting an alert if the received aircraft speed is greater than the set target speed plus a predefined error value when the received aircraft location is within a threshold value of at least one of a landing or touchdown point. receiving aircraft speed, a predefined reference speed, a manually set bug speed value, and aircraft location information, setting a target speed equal to the manually set bug speed value, if the manually set bug speed value is less than the reference speed plus a value associated with a predefined maximum wind setting added value, and setting the target speed equal to the reference speed plus the maximum wind setting added value, if the manually set bug speed value is not less than the reference speed plus the maximum wind setting added value; and at an output device (36, 37) in signal communication with the processing device, outputting an alert if the received aircraft speed is greater than the set target speed plus a predefined error value when the received aircraft location is within a threshold value of at least one of a landing or touchdown point.
A method of providing a continuous presence layout at a first endpoint in a multipoint video conference between the first endpoint and a plurality of endpoints, comprising: defining a continuous presence layout for the first endpoint, the continuous presence layout comprising a plurality of segments, each segment for displaying video from one of the plurality of endpoints; selecting two or more endpoints to be presented in the layout; associating each segment of the continuous presence layout with a selected endpoint of the two or more selected endpoints; receiving relay compressed video data chunks from the plurality of endpoints at a media relay multipoint controller (120, 200); parsing the received relay compressed video data chunks; organizing the parsed relay compressed video data chunks from the selected two or more endpoints into a group of two or more streams of relayed compressed video data chunks; transferring the group of two or more streams toward the first endpoint; and changing the continuous presence layout during the conference based on audio energy sent from the plurality of endpoints. defining a continuous presence layout for the first endpoint, the continuous presence layout comprising a plurality of segments, each segment for displaying video from one of the plurality of endpoints; selecting two or more endpoints to be presented in the layout; associating each segment of the continuous presence layout with a selected endpoint of the two or more selected endpoints; receiving relay compressed video data chunks from the plurality of endpoints at a media relay multipoint controller (120, 200); parsing the received relay compressed video data chunks; organizing the parsed relay compressed video data chunks from the selected two or more endpoints into a group of two or more streams of relayed compressed video data chunks; transferring the group of two or more streams toward the first endpoint; and changing the continuous presence layout during the conference based on audio energy sent from the plurality of endpoints.
A method of driving an aircraft undercarriage between a deployed position and a retracted position, the undercarriage having a leg hinged to a structure of the aircraft to be movable between the deployed position and the retracted position, being stabilized in the deployed position by means of a brace member comprising two limbs (11, 12) that are hinged to each other, one of which is coupled to the leg and the other of which is coupled to the structure of the aircraft, and which are taken to an aligned position when the leg is in the deployed position, the method being characterized in that a rotary actuator is arranged on the aircraft, the actuator having first and second cranks (22, 24) mounted to turn freely about a common axis of rotation but presenting a relative angular position that can be controlled, the first crank being connected to the brace member by a first connecting rod, while the second crank is connected to the leg by a second connecting rod, such that the cranks present: - a first relative angular position in which the first crank and the first connecting rod are brought into a first alignment when the leg is in the deployed position, thereby stabilizing the limbs of the brace member in a substantially aligned position; and - a second relative angular position in which the second crank and the second connecting rod are brought into a second alignment while the leg is in the retracted position, thereby stabilizing the leg in the retracted position. - a first relative angular position in which the first crank and the first connecting rod are brought into a first alignment when the leg is in the deployed position, thereby stabilizing the limbs of the brace member in a substantially aligned position; and - a second relative angular position in which the second crank and the second connecting rod are brought into a second alignment while the leg is in the retracted position, thereby stabilizing the leg in the retracted position.
A method for determining a quality score for a first part manufactured by an additive manufacturing machine based on sensor data, the method comprising: receiving, via a communication interface of a device comprising a processor, sensor data from the additive manufacturing machine during manufacture of the fir part using a first set of build parameters; wherein the sensor data is received from at least one of an actuator sensor, a melt pool sensor, and an environmental sensor; receiving the first set of build parameters; applying a first algorithm to at least the received sensor data and to the first set of build parameters to generate a quality score, wherein the quality score is defined and used to point out what kinds of anomalies have happened or will happen in a build part in a probabilistic sense, wherein the first algorithm is trained by receiving a reference derived from physical measurements performed on at least one reference part built using a reference set of build parameters; outputting the quality score via the communication interface of the device; generating, using the processor of the device, thermal data based on a thermal model of the part derived from the first set of build parameters, determining, using the processor of the device, a second set of build parameters using a second algorithm applied to the received sensor data, the determined quality score, and the thermal data, the second algorithm being trained to improve the quality score; and outputting, via the communication interface of the device, the second set of build parameters to the additive manufacturing machine to produce a second part. receiving, via a communication interface of a device comprising a processor, sensor data from the additive manufacturing machine during manufacture of the fir part using a first set of build parameters; wherein the sensor data is received from at least one of an actuator sensor, a melt pool sensor, and an environmental sensor; receiving the first set of build parameters; applying a first algorithm to at least the received sensor data and to the first set of build parameters to generate a quality score, wherein the quality score is defined and used to point out what kinds of anomalies have happened or will happen in a build part in a probabilistic sense, wherein the first algorithm is trained by receiving a reference derived from physical measurements performed on at least one reference part built using a reference set of build parameters; outputting the quality score via the communication interface of the device; generating, using the processor of the device, thermal data based on a thermal model of the part derived from the first set of build parameters, determining, using the processor of the device, a second set of build parameters using a second algorithm applied to the received sensor data, the determined quality score, and the thermal data, the second algorithm being trained to improve the quality score; and outputting, via the communication interface of the device, the second set of build parameters to the additive manufacturing machine to produce a second part.
A method for processing an electronic device substrate, comprising: (a) applying a photoresist layer on substrate; (b) applying above the photoresist layer an aqueous composition that comprises colloidal silica; and (c) immersion exposing the photoresist layer. (a) applying a photoresist layer on substrate; (b) applying above the photoresist layer an aqueous composition that comprises colloidal silica; and (c) immersion exposing the photoresist layer.
STENT WITH MECHANICAL OR BIOLOGICAL HEART VALVE FOR MINIMALLY INVASIVE VALVE REPLACEMENT PROCEDURE, comprising a stent body of tubular shape and grated structure, wherein one of the ends of the stent body has an upper flap and a second lower flap, the second lower flap being near and parallel to the upper flap and positioned between the upper flap and an intermediate part of the stent body, with both flaps (8 and 9) and the stent body made of wired material and coated with inert material, which allows in use physiological movement of the mitral annulus and fitting an adapter within the stent body, which is used to support a mechanical or biological heart valve within the stent body between both flaps (8 and 9), and wherein the stent is positioned in an annuloplasty ring, previously positioned in the natural heart valve where the stent body is to be placed, with the ring placed between the upper flap and lower flap on the outer part of the stent body, wherein said mechanical or biological valve is screwed to said adapter.
A method for removing drilling fluid from wet drill cuttings, comprising: at a pressure above atmospheric pressure: separating air into constituent nitrogen gas and constituent oxygen gas; heating a first mixture comprising the constituent oxygen gas with a mixture of air and natural gas to a combustion temperature to produce a first combustion exhaust; transferring heat from the first combustion exhaust to a second mixture comprising the constituent nitrogen gas and non-condensable inert gas, thereby providing a heated second mixture at a first temperature; providing the heated second mixture to the wet drill cuttings to contact and directly heat the wet drill cuttings by convection so that at least a portion of drilling fluid is evaporated therefrom and at least some dry solid drill cuttings remain; condensing at least a portion of the evaporated drilling fluid to produce condensed drilling fluid; and separately recovering the condensed drilling fluid and the dry solid drill cuttings. separating air into constituent nitrogen gas and constituent oxygen gas; heating a first mixture comprising the constituent oxygen gas with a mixture of air and natural gas to a combustion temperature to produce a first combustion exhaust; transferring heat from the first combustion exhaust to a second mixture comprising the constituent nitrogen gas and non-condensable inert gas, thereby providing a heated second mixture at a first temperature; providing the heated second mixture to the wet drill cuttings to contact and directly heat the wet drill cuttings by convection so that at least a portion of drilling fluid is evaporated therefrom and at least some dry solid drill cuttings remain; condensing at least a portion of the evaporated drilling fluid to produce condensed drilling fluid; and separately recovering the condensed drilling fluid and the dry solid drill cuttings.
A tibial implant for knee prosthesis, comprising: - a tibial base intended to be fastened to a resected proximal end of a tibia of a patient, the tibial base comprising a medial bearing portion and a lateral bearing portion, the lateral bearing portion comprising a postero-lateral edge and an antero-lateral edge, - a tibial insert shaped to be mounted on the tibial base, the tibial insert comprising: - a medial insert portion including a concave medial bearing surface intended to cooperate with a medial condyle of a femoral component or of a femur, the medial insert portion comprising a postero-medial edge and an antero-medial edge, and - a lateral insert portion including a concave lateral bearing surface intended to cooperate with a lateral condyle of the femoral component or of the femur, the lateral insert portion comprising a postero-lateral edge and an antero-lateral edge, characterized in that the lateral insert portion has, at its postero-lateral edge, an insert notch for the passage of the tendon of the popliteus, and/or in that the lateral bearing portion has, at its postero-lateral edge, a base notch for the passage of the tendon of the popliteus. - a tibial base intended to be fastened to a resected proximal end of a tibia of a patient, the tibial base comprising a medial bearing portion and a lateral bearing portion, the lateral bearing portion comprising a postero-lateral edge and an antero-lateral edge, - a tibial insert shaped to be mounted on the tibial base, the tibial insert comprising: - a medial insert portion including a concave medial bearing surface intended to cooperate with a medial condyle of a femoral component or of a femur, the medial insert portion comprising a postero-medial edge and an antero-medial edge, and - a lateral insert portion including a concave lateral bearing surface intended to cooperate with a lateral condyle of the femoral component or of the femur, the lateral insert portion comprising a postero-lateral edge and an antero-lateral edge, - a medial insert portion including a concave medial bearing surface intended to cooperate with a medial condyle of a femoral component or of a femur, the medial insert portion comprising a postero-medial edge and an antero-medial edge, and - a lateral insert portion including a concave lateral bearing surface intended to cooperate with a lateral condyle of the femoral component or of the femur, the lateral insert portion comprising a postero-lateral edge and an antero-lateral edge,