mhurhangee/patent-ind-claim-en huggingface dataset:
A protection method for a multi-domain network, wherein the multi-domain network comprises a first domain and a second domain, wherein the first domain and the second domain interconnected by a first node (B) and a second node (C), the method comprises: detecting, by the second node, a failure on a first link (B-C) between the first node and the second node; disconnecting, by the second node, a first protection path , wherein the first protection path is a protection path of a working path and is formed by splicing the first sub-path and a second sub-path , the working path is a path between the first node (B) and a third node (A) within the first domain, the first sub-path is a path between the second node (C) and the third node (A), and the second sub-path is a path that passes through the first link (B-C) and is between the first node (B) and the second node (C); connecting, by the second node, the first sub-path and a path that is within the second domain to reconstruct a new protection path; and sending, by the second node, a first failure monitoring message that carries first maintenance information to the third node (A), wherein the first maintenance information is the same as a second maintenance information, and the second maintenance information is carried in a second failure monitoring message that is used to monitor a failure of the first protection path being sent from the first node (B) to the third node (A). detecting, by the second node, a failure on a first link (B-C) between the first node and the second node; disconnecting, by the second node, a first protection path , wherein the first protection path is a protection path of a working path and is formed by splicing the first sub-path and a second sub-path , the working path is a path between the first node (B) and a third node (A) within the first domain, the first sub-path is a path between the second node (C) and the third node (A), and the second sub-path is a path that passes through the first link (B-C) and is between the first node (B) and the second node (C); connecting, by the second node, the first sub-path and a path that is within the second domain to reconstruct a new protection path; and sending, by the second node, a first failure monitoring message that carries first maintenance information to the third node (A), wherein the first maintenance information is the same as a second maintenance information, and the second maintenance information is carried in a second failure monitoring message that is used to monitor a failure of the first protection path being sent from the first node (B) to the third node (A).
A method of producing a composite substrate for surface acoustic wave device, comprising: providing a piezoelectric single crystal substrate and a support substrate ; forming a film made of inorganic material on at least one of the piezoelectric single crystal substrate and the support substrate; and joining the piezoelectric single crystal substrate with the support substrate so as to sandwich the film made of the inorganic material, wherein an uneven structure is formed on at least one of the piezoelectric single crystal substrate and the support substrate, and the film made of the inorganic material is formed on the uneven structure, and wherein a numerical value of roughness RSm/wavelength, which is a ratio of a roughness RSm of the uneven structure to a wavelength when the substrate is used as a surface acoustic wave device, is equal to or more than 0.2 and equal to or less than 7. providing a piezoelectric single crystal substrate and a support substrate ; forming a film made of inorganic material on at least one of the piezoelectric single crystal substrate and the support substrate; and joining the piezoelectric single crystal substrate with the support substrate so as to sandwich the film made of the inorganic material, wherein an uneven structure is formed on at least one of the piezoelectric single crystal substrate and the support substrate, and the film made of the inorganic material is formed on the uneven structure, and wherein a numerical value of roughness RSm/wavelength, which is a ratio of a roughness RSm of the uneven structure to a wavelength when the substrate is used as a surface acoustic wave device, is equal to or more than 0.2 and equal to or less than 7.
Method for determining an aggregate of bad weather on a route to be travelled by a user with a locomotion means, wherein a speed model (MOD) of said locomotion means is constructed, wherein the following steps are carried out by computing means: a) the position of departure and the position of arrival of said locomotion means are determined; b) at least one route to be travelled (TRA) between said position of departure and said position of arrival is determined; c) a plurality of points (POI) on said route are identified, said points of said route being regularly spaced apart; d) with each point of said route a time-variable meteorological parameter (PAR) is associated, said meteorological parameter being linked to the atmospheric influence forecasts, said meteorological parameter (PAR) being determined by means of an online weather forecast service; and e) an aggregate of bad weather (CUM) on said route is determined by the sum of said meteorological parameter at said points of said route, by determining the time of passage at said points by said user by means of said speed model of said locomotion means applied to said route, characterized in that said speed model of said locomotion means estimates the speed of said locomotion means as a function of the type of locomotion means, and in that said speed model is a function of at least one parameter chosen from among the type of road, the inclination of the road, the power developed by said locomotion means, the spacing between the points being determined according to the spatial precision of said online weather forecast service used in the step d). a) the position of departure and the position of arrival of said locomotion means are determined; b) at least one route to be travelled (TRA) between said position of departure and said position of arrival is determined; c) a plurality of points (POI) on said route are identified, said points of said route being regularly spaced apart; d) with each point of said route a time-variable meteorological parameter (PAR) is associated, said meteorological parameter being linked to the atmospheric influence forecasts, said meteorological parameter (PAR) being determined by means of an online weather forecast service; and e) an aggregate of bad weather (CUM) on said route is determined by the sum of said meteorological parameter at said points of said route, by determining the time of passage at said points by said user by means of said speed model of said locomotion means applied to said route,
A method for delaying shift and throttle commands based on engine speed in an electronic shift and throttle system , the method comprising the steps of: establishing a first threshold engine speed; determining a position of a control lever which allows an operator to manually control shift and throttle functions; calculating a shift command based on the position of the control lever and calculating throttle command based on the position of the control lever ; delaying execution of the shift command by a shift actuator if the engine speed is above the first threshold engine speed; and delaying execution of the throttle command by a throttle actuator if the engine speed is above the first threshold engine speed. establishing a first threshold engine speed; determining a position of a control lever which allows an operator to manually control shift and throttle functions; calculating a shift command based on the position of the control lever and calculating throttle command based on the position of the control lever ; delaying execution of the shift command by a shift actuator if the engine speed is above the first threshold engine speed; and delaying execution of the throttle command by a throttle actuator if the engine speed is above the first threshold engine speed.
A crane comprising: an operable function unit including at least a boom ; an operation unit that receives an operation input for operating the operable function unit ; an actuator that drives the operable function unit ; a generation unit that generates a first control signal of the actuator based on the operation input; a plurality of wire ropes ; a plurality of hooks that is suspended from a leading end section of the boom by the plurality of wire ropes , respectively, characterized in that the crane further comprises: a hook detection unit that detects an unused hook which does not suspend a load among the plurality of hooks ; a calculation unit that calculates a resonance frequency for the wire rope suspending the detected unused hook among the plurality of wire ropes ; a filter unit that generates a filter based on the resonance frequency, and generates a second control signal by filtering the first control signal due to use of the filter; and a control unit that controls the actuator based on the second control signal. an operable function unit including at least a boom ; an operation unit that receives an operation input for operating the operable function unit ; an actuator that drives the operable function unit ; a generation unit that generates a first control signal of the actuator based on the operation input; a plurality of wire ropes ; a plurality of hooks that is suspended from a leading end section of the boom by the plurality of wire ropes , respectively, characterized in that the crane further comprises: a hook detection unit that detects an unused hook which does not suspend a load among the plurality of hooks ; a calculation unit that calculates a resonance frequency for the wire rope suspending the detected unused hook among the plurality of wire ropes ; a filter unit that generates a filter based on the resonance frequency, and generates a second control signal by filtering the first control signal due to use of the filter; and a control unit that controls the actuator based on the second control signal. a hook detection unit that detects an unused hook which does not suspend a load among the plurality of hooks ; a calculation unit that calculates a resonance frequency for the wire rope suspending the detected unused hook among the plurality of wire ropes ; a filter unit that generates a filter based on the resonance frequency, and generates a second control signal by filtering the first control signal due to use of the filter; and a control unit that controls the actuator based on the second control signal.
A device for protecting from electric arcs a direct current photovoltaic plant , having one or more photovoltaic modules connected to an inverter , comprising: - a sensor provided with a ring made of ferromagnetic material and designed to generate a signal representative of a current passing through a cable inserted in the ring; - a conditioning stage comprising a band-pass filter, for conditioning the signal detected by the sensor; - a threshold comparator having a voltage reference value, for receiving as input the signal conditioned in the conditioning stage ; - a processor for generating a fault signal at output of the device, the fault signal being responsive to an arc detection, wherein the processor is programmed to generate the fault signal if the amplitude of the signal detected and conditioned remains above the reference value for at least a predetermined time interval after exceeding said value, wherein the conditioning stage has three or more band-pass filters, operatively connected in parallel and defining bands occupying different and consecutive portions of a predetermined frequency range, characterised in that - the voltage reference value of the threshold comparator is set and adjustable, - the device comprises a counter, wherein - the processor is programmed to activate the counter in response to a situation in which the signal detected and conditioned exceeds the reference value of the comparator , whereby the predetermined time interval is detected by the processor through the activation of the counter in response to said situation, - the device comprises a selector, - said band-pass filters can be selected selectively and alternatively one to another, wherein each of said band-pass filters can be inserted or removed, according to the operation position of the selector. - a sensor provided with a ring made of ferromagnetic material and designed to generate a signal representative of a current passing through a cable inserted in the ring; - a conditioning stage comprising a band-pass filter, for conditioning the signal detected by the sensor; - a threshold comparator having a voltage reference value, for receiving as input the signal conditioned in the conditioning stage ; - a processor for generating a fault signal at output of the device, the fault signal being responsive to an arc detection, - the voltage reference value of the threshold comparator is set and adjustable, - the device comprises a counter, wherein - the processor is programmed to activate the counter in response to a situation in which the signal detected and conditioned exceeds the reference value of the comparator , whereby the predetermined time interval is detected by the processor through the activation of the counter in response to said situation, - the device comprises a selector, - said band-pass filters can be selected selectively and alternatively one to another, wherein each of said band-pass filters can be inserted or removed, according to the operation position of the selector.
Cutting tool comprising: - a cutting element configured to come into contact with a body to be machined, and - a support body configured to support the cutting element in a working position and to be coupled to a tool holder mounted on a processing machine, wherein the support body comprises a first lateral surface configured to be brought alongside to a first surface of the tool holder , the first lateral surface comprising: - a matching surface configured to match a complementary matching surface of the first surface of the tool holder , and - at least one fastening element configured to match a corresponding fastening element comprised in the first surface of the tool holder for fastening the tool to the tool holder , wherein the support body comprises a second lateral surface configured to abut at least partially against a second surface of the tool holder , said second lateral surface being adjacent to the first lateral surface , and comprising at least an inclined portion with respect thereto and an abutment portion configured to abut against the second surface of the tool holder , characterized in that the second lateral surface delimits an elastic element of the support body , said elastic element being configured to generate a resistant elastic force substantially orthogonal to said abutment portion , when the abutment portion is in contact with the second surface of the tool holder . - a cutting element configured to come into contact with a body to be machined, and - a support body configured to support the cutting element in a working position and to be coupled to a tool holder mounted on a processing machine, wherein the support body comprises a first lateral surface configured to be brought alongside to a first surface of the tool holder , the first lateral surface comprising: - a matching surface configured to match a complementary matching surface of the first surface of the tool holder , and - at least one fastening element configured to match a corresponding fastening element comprised in the first surface of the tool holder for fastening the tool to the tool holder , wherein the support body comprises a second lateral surface configured to abut at least partially against a second surface of the tool holder , said second lateral surface being adjacent to the first lateral surface , and comprising at least an inclined portion with respect thereto and an abutment portion configured to abut against the second surface of the tool holder , characterized in that the second lateral surface delimits an elastic element of the support body , said elastic element being configured to generate a resistant elastic force substantially orthogonal to said abutment portion , when the abutment portion is in contact with the second surface of the tool holder .
A session management method, applied to a Session Management Function, SMF, wherein the method comprises: determining (S101) whether an Access Control and Mobility Management Function, AMF receiving a session establishment request sent by the user equipment supports an interworking interface between the AMF and a Mobility Management Entity, MME; and performing (S102) mapping between a Quality of Service, QoS, parameter of an Evolved Packet System, EPS, and a QoS parameter of a 5th-Generation, 5G, system when establishing a session connection for the user equipment, in response to that the AMF supports the interworking interface; characterized in that , the determining (S101) whether the AMF receiving the session establishment request sent by the user equipment supports the interworking interface comprises: receiving an indicator from an AMF serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the AMF; or when the SMF is a Home SMF, receiving an indicator from a Visited SMF in a visited network serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the Visited SMF. determining (S101) whether an Access Control and Mobility Management Function, AMF receiving a session establishment request sent by the user equipment supports an interworking interface between the AMF and a Mobility Management Entity, MME; and performing (S102) mapping between a Quality of Service, QoS, parameter of an Evolved Packet System, EPS, and a QoS parameter of a 5th-Generation, 5G, system when establishing a session connection for the user equipment, in response to that the AMF supports the interworking interface; receiving an indicator from an AMF serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the AMF; or when the SMF is a Home SMF, receiving an indicator from a Visited SMF in a visited network serving the user equipment, and determining whether the AMF supports the interworking interface according to the indicator from the Visited SMF.
Lamella front surface system , comprising: - at least one lamella that is made from a non-metal material, where the lamella comprises at least one alignment slot , - at least two metal mounting elements each having a mounting axis (MA), configured to be attached to a support , e.g. the face of a building, each of the metal mounting elements comprising: - a mounting side abutting the support in its mounted position, - an interfacing side arranged opposite the mounting side, the interfacing side comprising attachment means , wherein the lamella front surface system further comprises: - a fixation element configured to be attached to the at least two metal mounting elements , the fixation element having a longitudinal extension (FA) and having: - a body having a first side comprising interfacing means configured to be connected with the attachment means , and a second side configured to support the lamella in a position which is substantially perpendicular to the mounting axis (MA) of the metal mounting elements , where the second side comprises at least one alignment projection which is configured to extend into the at least one alignment slot of the at least one lamella, characterized in that the at least one lamella is configured to be affixed to the fixation element using screws. - at least one lamella that is made from a non-metal material, where the lamella comprises at least one alignment slot , - at least two metal mounting elements each having a mounting axis (MA), configured to be attached to a support , e.g. the face of a building, each of the metal mounting elements comprising: - a mounting side abutting the support in its mounted position, - an interfacing side arranged opposite the mounting side, the interfacing side comprising attachment means , - a mounting side abutting the support in its mounted position, - an interfacing side arranged opposite the mounting side, the interfacing side comprising attachment means , wherein the lamella front surface system further comprises: - a fixation element configured to be attached to the at least two metal mounting elements , the fixation element having a longitudinal extension (FA) and having: - a body having a first side comprising interfacing means configured to be connected with the attachment means , and a second side configured to support the lamella in a position which is substantially perpendicular to the mounting axis (MA) of the metal mounting elements , where the second side comprises at least one alignment projection which is configured to extend into the at least one alignment slot of the at least one lamella, - a fixation element configured to be attached to the at least two metal mounting elements , the fixation element having a longitudinal extension (FA) and having: - a body having a first side comprising interfacing means configured to be connected with the attachment means , and characterized in that the at least one lamella is configured to be affixed to the fixation element using screws.
Wiping device, in particular a wiping device for a motor vehicle pane, comprising a retaining unit (10a - 10g) which has a retaining element (12a - 12g), wherein the retaining element (12a - 12g) comprises a keder track (70a - 70g), which is provided to receive a wiper strip (40a - 40g) positively, wherein at least one vertical wall (62a - 62g, 64a - 64g) of the keder track (70a - 70g) encloses an acute angle (32a - 32g, 34a - 34g) with at least one horizontal wall (66a - 66g, 68a - 68g) of the keder track (70a - 70g), characterized by an intermediate wall (56a - 56g) which adjoins a longitudinal guide channel (14a - 14g) of the retaining element (12a - 12g) and comprises the at least one surface (42a - 42g, 44a - 44g) which extends parallel to at least one of the horizontal walls (66a - 66g, 68a - 68g) and comprises at least three surfaces (42a - 42g, 44a - 44g, 46a - 46g) which enclose two obtuse angles (48a - 48g, 50a - 50g) relative to one another.
A tissue preparation device , comprising: a heating device configured for applying heat energy to a tissue effective to melt paraffin embedded in the tissue ; characterized in that it further comprises an electric field-generating device configured for applying an electrical field effective to ionize the paraffin and to move the ionized paraffin out from the tissue . a heating device configured for applying heat energy to a tissue effective to melt paraffin embedded in the tissue ; characterized in that it further comprises an electric field-generating device configured for applying an electrical field effective to ionize the paraffin and to move the ionized paraffin out from the tissue .