mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: storing to local memory of a first core (111, 211), from shared memory of a system, during a first heartbeat cycle, a plurality of local heartbeat vectors, including a first local heartbeat vector, HBV, of the first core (C1-LHB1), a second local HBV of a second core (C1-LHB2),and a third local HBV of a third core (C1_LHB3), wherein, each core's local HBV includes a first heartbeat counter, HBC, for the first core, a second HBC for the second core, and a third HBC for the third core; updating, by the first core during the first heartbeat cycle, the first HBC of the first local HBV, wherein no other core's current HBC is updated by the first core during the first heartbeat cycle; determining, by the first core during the first heartbeat cycle, a health status of the second core based solely upon the plurality of local HBVs stored at the first core after the first HBC has been updated; determining, by the first core during the first heartbeat cycle, a health status of the third core based solely upon the plurality of local HBVs stored at the first core after the first HBC has been updated; and updating, by the first core during the first heartbeat cycle after the first HBC has been updated, a shared HBV of the first core in shared memory with an updated HBV based upon the first HBC of the first local HBV, the second HBC of the second local HBV, and the third HBC of the third local HBV. storing to local memory of a first core (111, 211), from shared memory of a system, during a first heartbeat cycle, a plurality of local heartbeat vectors, including a first local heartbeat vector, HBV, of the first core (C1-LHB1), a second local HBV of a second core (C1-LHB2),and a third local HBV of a third core (C1_LHB3), wherein, each core's local HBV includes a first heartbeat counter, HBC, for the first core, a second HBC for the second core, and a third HBC for the third core; updating, by the first core during the first heartbeat cycle, the first HBC of the first local HBV, wherein no other core's current HBC is updated by the first core during the first heartbeat cycle; determining, by the first core during the first heartbeat cycle, a health status of the second core based solely upon the plurality of local HBVs stored at the first core after the first HBC has been updated; determining, by the first core during the first heartbeat cycle, a health status of the third core based solely upon the plurality of local HBVs stored at the first core after the first HBC has been updated; and updating, by the first core during the first heartbeat cycle after the first HBC has been updated, a shared HBV of the first core in shared memory with an updated HBV based upon the first HBC of the first local HBV, the second HBC of the second local HBV, and the third HBC of the third local HBV.
A method for producing elastic laminates, comprising the steps of: - feeding a first and a second elastic film (16, 18), - stretching the first and second elastic film (16, 18) in a transverse direction on a first and a second spreader device (20, 22), - applying the first and second elastic film (16, 18) stretched in a transverse direction on an outer circumferential surface of a transfer wheel rotatable around a first axis of rotation, wherein the first and the second elastic film (16, 18) are applied onto the outer circumferential surface of the transfer wheel in a first and a second application zone (36, 38) axially and angularly displaced with respect to each other with respect to said first axis of rotation, - applying a first non-woven web on an outer cylindrical surface of an anvil wheel rotatable around a second axis of rotation parallel to the first axis of rotation, - transferring the first and second elastic film (16, 18) from the transfer wheel to the first non-woven web held on the outer cylindrical surface of the anvil wheel in a third and a fourth application zone (76, 78) displaced with respect to each other in an axial direction and angularly aligned with each other with respect to said second axis of rotation, - applying a second non-woven web on the anvil wheel above said first and second elastic film (16, 18), and - forming an elastic laminate by fixing on the anvil wheel the first and second non-woven web (64, 66) through the first and second elastic film (16, 18). - feeding a first and a second elastic film (16, 18), - stretching the first and second elastic film (16, 18) in a transverse direction on a first and a second spreader device (20, 22), - applying the first and second elastic film (16, 18) stretched in a transverse direction on an outer circumferential surface of a transfer wheel rotatable around a first axis of rotation, wherein the first and the second elastic film (16, 18) are applied onto the outer circumferential surface of the transfer wheel in a first and a second application zone (36, 38) axially and angularly displaced with respect to each other with respect to said first axis of rotation, - applying a first non-woven web on an outer cylindrical surface of an anvil wheel rotatable around a second axis of rotation parallel to the first axis of rotation, - transferring the first and second elastic film (16, 18) from the transfer wheel to the first non-woven web held on the outer cylindrical surface of the anvil wheel in a third and a fourth application zone (76, 78) displaced with respect to each other in an axial direction and angularly aligned with each other with respect to said second axis of rotation, - applying a second non-woven web on the anvil wheel above said first and second elastic film (16, 18), and - forming an elastic laminate by fixing on the anvil wheel the first and second non-woven web (64, 66) through the first and second elastic film (16, 18).
Profile for dry construction, comprising a first limb and a second limb, which are connected to each other via a web, wherein the web is formed of web elements, wherein the web elements are connected in a form-fitting manner to the first limb and the second limb, wherein the first limb and the second limb each comprise a fastening portion, wherein openings are provided into the fastening portions, wherein the web elements are fastened in the openings, wherein the web elements are provided with form-fitting elements, wherein the web elements are connected to the fastening portions of the first limb and of the second limb by the form-fitting elements, characterised in that each web element comprises form-fitting elements in the form of bores and protrusions, wherein in each case two web elements are allocated to one another.
A method of limiting the force applied to a contact trip switch by a contact trip of a fastening tool having a fastening tool housing as the contact trip moves toward a firing position closing the switch, comprising: transmitting force between the contact trip and the contact trip switch via a biasing agent, wherein the biasing agent is disposed in a biasing agent housing.
A heart valve prosthesis recapture device comprising: a heart valve prosthesis recapture sleeve configured to envelop and collapse a heart valve prosthesis which has been partially deployed from a capsule within a body lumen, wherein the recapture sleeve is suitable to fit over both the capsule and the heart valve prosthesis; and a guide wire; the heart valve prosthesis recapture sleeve comprising: a distal end securely attached to the guide wire; and a proximal end, and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule. a heart valve prosthesis recapture sleeve configured to envelop and collapse a heart valve prosthesis which has been partially deployed from a capsule within a body lumen, wherein the recapture sleeve is suitable to fit over both the capsule and the heart valve prosthesis; and a guide wire; the heart valve prosthesis recapture sleeve comprising: a distal end securely attached to the guide wire; and a proximal end, and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule. a distal end securely attached to the guide wire; and a proximal end, and an opening at the proximal end along the longitudinal axis of the recapture sleeve, into which the heart valve prosthesis can enter as the recapture sleeve is moved in the proximal direction to encompass the distal end of the heart valve prosthesis which has not yet been deployed from the capsule.
An assembly for closing a tube, said assembly comprising a tube head that has a neck, and a cap, said assembly defining a guide path and a threading on the neck, and a thread portion on the cap allowing the cap to be positioned on the neck by cooperation with the guide path and the threading, said assembly comprising a first and a second stops for said thread portion, said stops (24, 25) being angularly spaced apart and defining a passage between the guide path and the threading, said assembly being configured to allow axial displacement of the thread portion through the passage with a non-return effect produced by at least one of said stops.
An evaluation device for evaluating a system that uses an energy storage device, the evaluation device comprising: a mathematical model acquisition unit that is configured to acquire a mathematical model (200a, 200b, 200c) expressing a state of an energy storage device; an operation data acquisition unit that is configured to acquire operation data including time-series input data input during operation of a system, which is constructed based on the mathematical model (200a, 200b, 200c), and time-series output data output by the system based on the time-series input data; a processing unit that is configured to execute processing of inputting the time-series input data to the mathematical model (200a, 200b, 200c) and outputting time-series model output data from the mathematical model (200a, 200b, 200c); an evaluation unit that is configured to evaluate design or operation of the system based on the time-series output data and the time-series model output data; a comparison value calculation unit that is configured to calculate comparison value time-series data indicating a comparison value between the time-series output data and the time-series model output data; and a determination unit that is configured to determine, based on the comparison value time-series data calculated by the comparison value calculation unit, existence of an abnormal event of the system generated by either an abnormality in an energy storage device used in the system or an environment of the energy storage device. a mathematical model acquisition unit that is configured to acquire a mathematical model (200a, 200b, 200c) expressing a state of an energy storage device; an operation data acquisition unit that is configured to acquire operation data including time-series input data input during operation of a system, which is constructed based on the mathematical model (200a, 200b, 200c), and time-series output data output by the system based on the time-series input data; a processing unit that is configured to execute processing of inputting the time-series input data to the mathematical model (200a, 200b, 200c) and outputting time-series model output data from the mathematical model (200a, 200b, 200c); an evaluation unit that is configured to evaluate design or operation of the system based on the time-series output data and the time-series model output data; a comparison value calculation unit that is configured to calculate comparison value time-series data indicating a comparison value between the time-series output data and the time-series model output data; and a determination unit that is configured to determine, based on the comparison value time-series data calculated by the comparison value calculation unit, existence of an abnormal event of the system generated by either an abnormality in an energy storage device used in the system or an environment of the energy storage device.
Device for cutting a loaf of bread into slices having an input compartment adjacent to a set of blades comprising parallel oblong blades which can be driven in a back-and-forth movement in their longitudinal direction, wherein a pusher is provided in the input compartment, which pusher is movable between a retracted position with respect to the set of blades and an end-of-cut position and which allows to push a loaf of bread through the set of blades, the input compartment being accessible through an access opening for placing a loaf of bread to be cut in the input compartment between the set of blades and the pusher when the latter is in the retracted position, the device comprising detection means for detecting the presence of an object in the access opening, wherein these detection means cooperate with the drive of the set of blades to stop the movement of the blades when the presence of an object in the access opening is detected by the detection means while the blades are being driven in a back-and-forth movement, characterised in that the detection means cooperate with the drive of the set of blades and with the drive of the pusher in such a way that, when the presence of an object in the access opening is detected by the detection means while the pusher is in the retracted position, the movement of the blades is triggered and the pusher is moved from its retracted position to the end-of-cut position once the object is no longer detected in the access opening by the detection means.
A method of mixing ingredients comprising solid thermoplastic particulates and a viscous material in a first container without first melting the solid thermoplastic particulates, the method comprising feeding a predispersion comprising a substantially homogeneous mixture of the solid thermoplastic particulates and a major portion of the viscous material and feeding the remaining minor portion of the viscous material into a first container to give added ingredients in the first container; and mixing the added ingredients in the first container, wherein the solid thermoplastic particulates comprises a thermoplastic material and the major portion of the viscous material comprises a sufficient excess quantity of a reactant for the thermoplastic material.
A method of operating a mobile parking policy enforcement apparatus, comprising the steps of: capturing a geographical position of a vehicle in a pre-determined parking area, a vehicle parking ticket information from the vehicle and a license plate number of the vehicle; forwarding a parking ticket verification request comprising the geographical position, the vehicle parking ticket information and the license plate number of the vehicle to a parking service management apparatus for subsequent verification thereof; and receiving a reply from the parking service management apparatus indicating whether a driver of the vehicle has paid for the parking service, wherein the reply includes information indicating a severity of a parking violation, wherein the severity of the parking violation comprises a time when a parking period expired and a length of overdue period. capturing a geographical position of a vehicle in a pre-determined parking area, a vehicle parking ticket information from the vehicle and a license plate number of the vehicle; forwarding a parking ticket verification request comprising the geographical position, the vehicle parking ticket information and the license plate number of the vehicle to a parking service management apparatus for subsequent verification thereof; and receiving a reply from the parking service management apparatus indicating whether a driver of the vehicle has paid for the parking service, wherein the reply includes information indicating a severity of a parking violation, wherein the severity of the parking violation comprises a time when a parking period expired and a length of overdue period.
Bearing assembly, comprising at least - a first magnet assembly for generating a first quadrupole magnetic field on a first plane and a second magnet assembly for generating a second quadrupole magnetic field on a second plane, wherein the quadrupole magnetic fields in each case have magnetic field axes arranged at an angle to one another on the planes between four poles, - wherein the second plane is arranged parallel to the first plane and a longitudinal axis is defined by the centres of the quadrupole magnetic fields perpendicularly to the magnetic field axes, - and at least one diamagnetic element, which is arranged on the longitudinal axis, - wherein the first and second magnetic assemblies (34, 36) are arranged relative to one another such that the first and the second quadrupole magnetic fields are rotated relative to each other about the longitudinal axis by an angular amount which is not a whole-number multiple of 90o. - a first magnet assembly for generating a first quadrupole magnetic field on a first plane and a second magnet assembly for generating a second quadrupole magnetic field on a second plane, wherein the quadrupole magnetic fields in each case have magnetic field axes arranged at an angle to one another on the planes between four poles, - wherein the second plane is arranged parallel to the first plane and a longitudinal axis is defined by the centres of the quadrupole magnetic fields perpendicularly to the magnetic field axes, - and at least one diamagnetic element, which is arranged on the longitudinal axis, - wherein the first and second magnetic assemblies (34, 36) are arranged relative to one another such that the first and the second quadrupole magnetic fields are rotated relative to each other about the longitudinal axis by an angular amount which is not a whole-number multiple of 90o.
A composition for preparing glass fibers having a refractive index between 1.55 and 1.69, said composition comprising: SiO 2 in an amount from 30.0 to 40.0% by weight; Al 2 O 3 in an amount from 15.0 to 23.0% by weight; Y 2 O 3 in an amount from 15.0 to 35.0% by weight; B 2 O 3 in an amount from 0.0 to 15.0% by weight; K 2 O in an amount from 0.0 to 5.0% by weight; La 2 O 3 in an amount from 0.0 to 30.0% by weight; Li 2 O in an amount from 0.0 to 3.0% by weight; Na 2 O in an amount from 0.0 to 4.0% by weight; Nb 2 O 5 in an amount from 0.0 to 10.0% by weight; TiO 2 in an amount from 0.0 to 7.5% by weight; and WO 3 in an amount from 0.0 to 10.0% by weight; wherein the composition further contains trace quantities of other components or impurities that are not intentionally added. SiO 2 in an amount from 30.0 to 40.0% by weight; Al 2 O 3 in an amount from 15.0 to 23.0% by weight; Y 2 O 3 in an amount from 15.0 to 35.0% by weight; B 2 O 3 in an amount from 0.0 to 15.0% by weight; K 2 O in an amount from 0.0 to 5.0% by weight; La 2 O 3 in an amount from 0.0 to 30.0% by weight; Li 2 O in an amount from 0.0 to 3.0% by weight; Na 2 O in an amount from 0.0 to 4.0% by weight; Nb 2 O 5 in an amount from 0.0 to 10.0% by weight; TiO 2 in an amount from 0.0 to 7.5% by weight; and WO 3 in an amount from 0.0 to 10.0% by weight;
An image acquisition system comprising: a first light source unit configured to emit narrow band light having a peak intensity in a specific band; a second light source unit configured to emit wide band light having a band wider than the specific band; a generation unit configured to generate multiplexed light by using the narrow band light and the wide band light; an imaging unit configured to image an irradiation target of the multiplexed light; a prediction unit configured to perform a prediction of a temperature of an area irradiated with the multiplexed light in the irradiation target on the basis of an amount of light incident on an imaging element of the imaging unit; and a control unit configured to perform control of outputs of the narrow band light and the wide band light on a basis of the prediction; characterised in that in a case where the temperature is predicted to be higher than a predetermined value, the control unit is configured to decrease the output of the wide band light and increase the output of the narrow band light. a first light source unit configured to emit narrow band light having a peak intensity in a specific band; a second light source unit configured to emit wide band light having a band wider than the specific band; a generation unit configured to generate multiplexed light by using the narrow band light and the wide band light; an imaging unit configured to image an irradiation target of the multiplexed light; a prediction unit configured to perform a prediction of a temperature of an area irradiated with the multiplexed light in the irradiation target on the basis of an amount of light incident on an imaging element of the imaging unit; and a control unit configured to perform control of outputs of the narrow band light and the wide band light on a basis of the prediction; characterised in that in a case where the temperature is predicted to be higher than a predetermined value, the control unit is configured to decrease the output of the wide band light and increase the output of the narrow band light.
A connector comprising: a base; a spring which has a bend portion bent from the edge of the base, and an abutment portion continued from the bend portion and extending along the base, and is adapted to sandwich, between the base and the abutment portion, a terminal inserted toward the bend portion from an opening located on the opposite side of the bend portion and formed between the base and the abutment portion (25; and a cover extending from the base; characterized in that the cover is covering the spring with predetermined spacing from the outer face of the abutment portion when the terminal is inserted by pressing into the opening so as an end of the terminal is abutted onto the bend portion, the cover having a top wall provided with an engagement portion which is position regulated by being engaged with the end of the abutment portion pushingly expanded when the terminal is inserted into and removed from the opening. a base; a spring which has a bend portion bent from the edge of the base, and an abutment portion continued from the bend portion and extending along the base, and is adapted to sandwich, between the base and the abutment portion, a terminal inserted toward the bend portion from an opening located on the opposite side of the bend portion and formed between the base and the abutment portion (25; and a cover extending from the base; characterized in that the cover is covering the spring with predetermined spacing from the outer face of the abutment portion when the terminal is inserted by pressing into the opening so as an end of the terminal is abutted onto the bend portion, the cover having a top wall provided with an engagement portion which is position regulated by being engaged with the end of the abutment portion pushingly expanded when the terminal is inserted into and removed from the opening.