mhurhangee/ep-ind-claims huggingface dataset:
An industrial field device monitoring system, wherein the system is configured to: download an asset specification of a field device to an edge device, wherein the field device is located in an industrial environment, wherein the field device is configured to generate data relating to an asset of the industrial environment, wherein the edge device is located in the industrial environment, and wherein the edge device is configured to receive the data generated by the field device; receive an asset monitoring submodel for the field device, wherein the asset monitoring submodel specifies an interface specification and algorithm of an asset monitoring application for the field device; deploy the asset monitoring application for the field device to the edge device, wherein the deployment comprises utilization of the asset monitoring submodel; and generate a workflow function exposed by the asset monitoring application, wherein the generation of the workflow function comprises utilization of the asset specification of the field device and the interface specification of the asset monitoring submodel. download an asset specification of a field device to an edge device, wherein the field device is located in an industrial environment, wherein the field device is configured to generate data relating to an asset of the industrial environment, wherein the edge device is located in the industrial environment, and wherein the edge device is configured to receive the data generated by the field device; receive an asset monitoring submodel for the field device, wherein the asset monitoring submodel specifies an interface specification and algorithm of an asset monitoring application for the field device; deploy the asset monitoring application for the field device to the edge device, wherein the deployment comprises utilization of the asset monitoring submodel; and generate a workflow function exposed by the asset monitoring application, wherein the generation of the workflow function comprises utilization of the asset specification of the field device and the interface specification of the asset monitoring submodel.
A clock port attribute recovery method, comprising: setting, by a first network device, a value of a port dataset signal fail attribute of a clock port to a first value based on a case that the clock port does not receive N clock messages of a first type within a timeout interval, wherein the clock port is connected to a master port of a second network device, the clock port is a slave port or a passive port, the clock message of the first type is any one of the following three types of Precision Time Protocol, PTP, clock messages: a synchronization message, a follow-up message, and a delay response message, N is a positive integer greater than 0, and the first value indicates that a message is lost on the clock port; and after the first network device sets the value of the port dataset signal fail attribute to the first value, setting, by the first network device, the value of the port dataset signal fail attribute to a second value when the first network device determines that a message loss recovery condition is met, wherein the second value indicates that no message is lost on the clock port. setting, by a first network device, a value of a port dataset signal fail attribute of a clock port to a first value based on a case that the clock port does not receive N clock messages of a first type within a timeout interval, wherein the clock port is connected to a master port of a second network device, the clock port is a slave port or a passive port, the clock message of the first type is any one of the following three types of Precision Time Protocol, PTP, clock messages: a synchronization message, a follow-up message, and a delay response message, N is a positive integer greater than 0, and the first value indicates that a message is lost on the clock port; and after the first network device sets the value of the port dataset signal fail attribute to the first value, setting, by the first network device, the value of the port dataset signal fail attribute to a second value when the first network device determines that a message loss recovery condition is met, wherein the second value indicates that no message is lost on the clock port.
Blower filter system, comprising a blower filter device having a blower, a filter receptacle and a tube connection for connecting a respirator device by means of a tube, wherein the filter receptacle is configured for receiving a filter, on which a colour coding with a colour specific to the pneumatic resistance of the filter is arranged, and wherein the blower filter device comprises an optical sensor device for identifying different colours of the colour coding, characterized in that the blower filter system comprises a control unit configured for calculating the remaining capacity of the filter, wherein the resistance of the filter is taken as a basis for the calculation.
A process for the preparation of a compound of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 1 and R 2, independently from each other, represent a hydrogen atom or a C 1-2 alkyl group; R 9 represents a hydrogen atom or a methyl group; R 3, R 4, R 5, R 6, R 7 and R 8, independently from each other, represent a hydrogen atom or a C 1-4 alkyl group; or two groups among R 3, R 4, R 5, R 6, R 7 and R 8 are taken together and form a C 3-8 cycloalkyl or C 5-8 cycloalkenyl group and the others groups have the same meaning as defined above; comprising the steps of a) converting a compound of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; into an acetal of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; R a and R b, independently from each other, represent a C 1-4 alkyl group or R a and R b, when taken together, represent a C 2-5 alkanediyl group; b) treating the acetal obtained in step a) with an acid and a compound of formula CHR 1 =CH-OR c; wherein R c represents a C 1-4 alkyl group and R 1 has the same meaning as defined above; to obtain a compound of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R a, R b and R c have the same meaning as defined above; and c) treating the compound of formula with an acid to obtain a compound of formula. a) converting a compound of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; into an acetal of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; R a and R b, independently from each other, represent a C 1-4 alkyl group or R a and R b, when taken together, represent a C 2-5 alkanediyl group; in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; into an acetal of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 have the same meaning as defined above; R a and R b, independently from each other, represent a C 1-4 alkyl group or R a and R b, when taken together, represent a C 2-5 alkanediyl group; b) treating the acetal obtained in step a) with an acid and a compound of formula CHR 1 =CH-OR c; wherein R c represents a C 1-4 alkyl group and R 1 has the same meaning as defined above; to obtain a compound of formula in the form of any one of their stereoisomers or a mixture thereof, and wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R a, R b and R c have the same meaning as defined above; and c) treating the compound of formula with an acid to obtain a compound of formula.
A method for controlling the transmission of frames by master and slave (OEj) units belonging to a communication network adapted for the bidirectional transmission of non-video data frames, in time slots defined by a table, and for the unidirectional transmission of video data frames, characterized in that it includes a step in which, each time a time slot of a first duration and dedicated to the transmission of at least one non-video data frame begins, a timeout of a second duration, strictly lower than said first duration, is triggered, and, when an end of said timeout occurs while said non-video data frame has not been transmitted in full, the unit (OM, OEj) transmitting this non-video data frame is prohibited from completing its transmission.
An assembly for positioning an apparatus for treating an area of bifurcation where a principal body conduit separates into at least two secondary conduits and wherein the principal conduit increases in cross section to the junction with the secondary conduits, said assembly comprising positioning equipment (15,16) and the apparatus, the apparatus comprising a radially expandable first stent body configured to be engaged in the primary conduit in the area of bifurcation, wherein: said first stent body being radially expandable and having, in a predetermined fully self-expanded state, a substantially conical shape and a first end having a greater diameter than a second end, and a cross section substantially greater than a cross section of one of the secondary conduits; the first stent body being shaped to conform to the increasing cross section of the principal conduit, in the area of a widened transitional zone of the bifurcation that separates the principal conduit from the secondary conduits, in the direction of at least one secondary conduit, said first end opening out in the direction of said secondary conduits upon expansion; the first stent body being shaped to be independent of other stent bodies, and free of means for connecting to other stent bodies, when the first stent body is in a predetermined fully self-expanded state; and the positioning equipment (15,16) being capable of carrying the stent, and further comprising means to identify the longitudinal location of the conical first stent body with respect to the bifurcation, wherein said first stent body is made from a single tube. said first stent body being radially expandable and having, in a predetermined fully self-expanded state, a substantially conical shape and a first end having a greater diameter than a second end, and a cross section substantially greater than a cross section of one of the secondary conduits; the first stent body being shaped to conform to the increasing cross section of the principal conduit, in the area of a widened transitional zone of the bifurcation that separates the principal conduit from the secondary conduits, in the direction of at least one secondary conduit, said first end opening out in the direction of said secondary conduits upon expansion; the first stent body being shaped to be independent of other stent bodies, and free of means for connecting to other stent bodies, when the first stent body is in a predetermined fully self-expanded state; and the positioning equipment (15,16) being capable of carrying the stent, and further comprising means to identify the longitudinal location of the conical first stent body with respect to the bifurcation, wherein said first stent body is made from a single tube.
A lead anchor, comprising: a body (401, 601, 901) defining a lead lumen (402, 602) having a first opening (403, 603) and a second opening (404, 604) through which a lead (308, 440, 640) can pass, wherein the lead anchor is configured and arranged to slide along the lead to a desired position for anchoring, the body further defining a transverse lumen (405, 605) that intersects the lead lumen; an exterior member (410, 610) disposed around at least a portion of the body, the exterior member being formed of a biocompatible material; a fastener (420, 620) for anchoring the lead to the body through the transverse lumen by deforming a portion of the lead, wherein the transverse lumen is configured and arranged to receive the fastener; and at least one suture element (411, 611) defined by the exterior member and configured and arranged for receiving a suture to suture the lead anchor to patient tissue, characterised in that the fastener is a set screw. a body (401, 601, 901) defining a lead lumen (402, 602) having a first opening (403, 603) and a second opening (404, 604) through which a lead (308, 440, 640) can pass, wherein the lead anchor is configured and arranged to slide along the lead to a desired position for anchoring, the body further defining a transverse lumen (405, 605) that intersects the lead lumen; an exterior member (410, 610) disposed around at least a portion of the body, the exterior member being formed of a biocompatible material; a fastener (420, 620) for anchoring the lead to the body through the transverse lumen by deforming a portion of the lead, wherein the transverse lumen is configured and arranged to receive the fastener; and at least one suture element (411, 611) defined by the exterior member and configured and arranged for receiving a suture to suture the lead anchor to patient tissue, characterised in that the fastener is a set screw.
The use of polymers of the units A and B, wherein R represents a divalent hydrocarbon functional group having 1 to 6, in particular 1 to 3, carbon atoms for increasing the primary detergency of washing or cleaning agents when washing textiles or cleaning hard surfaces of stains.
A communication device configured to use wireless channels, the communication device comprising: acceptance means for accepting, from a different communication device and through one of the wireless channels, channel information that indicates wireless channels that can be used by the different communication device; application means for outputting first information created in the communication device when the communication device acts as a transmitting source; control means for selecting, as a wireless forwarding channel that is to be used when the communication device acts as a relay device for forwarding first information that has been received from one communication device to another communication device, a wireless channel which is different from a wireless transmission channel for transmitting the first information created within the communication device, from among the wireless channels that are indicated by the channel information, and for adding second information indicating the selected wireless forwarding channel to the first information created within the communication device; and transmission means for transmitting the first information created within the communication device to which the second information has been added by using the wireless transmission channel, and for forwarding the first information that has been received from said one communication device to said another communication device by using the selected wireless forwarding channel. acceptance means for accepting, from a different communication device and through one of the wireless channels, channel information that indicates wireless channels that can be used by the different communication device; application means for outputting first information created in the communication device when the communication device acts as a transmitting source; control means for selecting, as a wireless forwarding channel that is to be used when the communication device acts as a relay device for forwarding first information that has been received from one communication device to another communication device, a wireless channel which is different from a wireless transmission channel for transmitting the first information created within the communication device, from among the wireless channels that are indicated by the channel information, and for adding second information indicating the selected wireless forwarding channel to the first information created within the communication device; and transmission means for transmitting the first information created within the communication device to which the second information has been added by using the wireless transmission channel, and for forwarding the first information that has been received from said one communication device to said another communication device by using the selected wireless forwarding channel.
Lighting and/or signalling device of a motor vehicle, in particular a rear fog light, comprising a means for shaping a light beam, the shaping means including a spatially repeating pattern, the pattern comprising a first zone (22, 23) producing a spread of the light beam in a first direction and a second zone (25, 26) producing a spread of the light beam in a second direction, characterised in that the first zone and the second zone are connected by a concave surface (81, 82, 83, 84).
A method for detecting the presence or risk of Alzheimer's disease in a mammal, or for aiding in the diagnosis and sub-classification of AD, the method comprising determining the (relative) amount or the presence, absence or alteration of a set of target biomarkers in a fluid biological sample from said mammal and comparing the measured level of the biomarker(s) to a reference value, wherein a deviation from said reference value is indicative of the presence, risk, progression or severity of AD, and wherein said set of biomarkers comprises one protein or ribonucleic acid encoded by each of the following genes: APBA1, ATG7, BECN1, CD44, CDH2, COL18A1, ERBB4, F3, FLNA, FYN, GRIN2B, IL20, ITPR1, LRP8, MTOR, NPPC, NRP1, PDGFC, ROB01, SEMA3E, TGFB1, THBS1, VEGFR1 and WWOX.
A method for controlling cell reselection, comprising: when duration starting from when a signal strength of a current cell is just lower than a set value exceeds a first set time, acquiring signal strengths of the current cell and a neighboring cell within a second set time; determining signal stability of the current cell according to the signal strength of the current cell, and determining signal stability of the neighboring cell according to the signal strength of the neighboring cell; and making a serving cell camp on the current cell when the signal stability of the neighboring cell is not less than the signal stability of the current cell; wherein the step of determining the signal stability of the current cell according to the signal strength of the current cell comprises: determining the signal stability of the current cell according to Q ′ var = ∑ n = 1 N q n − Q avg N, wherein Q' var is the signal stability of the current cell, q n is a signal strength of the current cell that is acquired at the nth time point within the second set time, Q avg is an average of signal strengths of the current cell that are acquired at N time points within the second set time, N is the number of times when the signal strength of the current cell is acquired within the second set time, and N is greater than or equal to 2. when duration starting from when a signal strength of a current cell is just lower than a set value exceeds a first set time, acquiring signal strengths of the current cell and a neighboring cell within a second set time; determining signal stability of the current cell according to the signal strength of the current cell, and determining signal stability of the neighboring cell according to the signal strength of the neighboring cell; and making a serving cell camp on the current cell when the signal stability of the neighboring cell is not less than the signal stability of the current cell; wherein the step of determining the signal stability of the current cell according to the signal strength of the current cell comprises: determining the signal stability of the current cell according to Q ′ var = ∑ n = 1 N q n − Q avg N, wherein Q' var is the signal stability of the current cell, q n is a signal strength of the current cell that is acquired at the nth time point within the second set time, Q avg is an average of signal strengths of the current cell that are acquired at N time points within the second set time, N is the number of times when the signal strength of the current cell is acquired within the second set time, and N is greater than or equal to 2. determining the signal stability of the current cell according to Q ′ var = ∑ n = 1 N q n − Q avg N, wherein Q' var is the signal stability of the current cell, q n is a signal strength of the current cell that is acquired at the nth time point within the second set time, Q avg is an average of signal strengths of the current cell that are acquired at N time points within the second set time, N is the number of times when the signal strength of the current cell is acquired within the second set time, and N is greater than or equal to 2.
An automatic vehicular exterior light control, comprising a controller configured to generate at least one exterior light control signal, wherein said controller is configured to receive images of a scene forward of the vehicle and detect objects in the images, said automatic vehicular exterior light control characterized in that: said controller is configured to classify light sources by employing at least one probability function and generate at least one exterior light control signal as a function of said at least one probability function, wherein said at least one probability function comprises a plurality of variables and a continuous output value indicative of a probability that a detected light source fits a pattern associated with properties and behavior of a head lamp or tail lamp, wherein said variables are selected from the group of controlled vehicle associated operating parameters comprising: vehicle speed, ambient light level, vehicle turn rate, lane tracking, vehicle pitch, vehicle yaw, geographic location and road type, wherein the continuous output indicative of a probability is not a Boolean value. said controller is configured to classify light sources by employing at least one probability function and generate at least one exterior light control signal as a function of said at least one probability function, wherein said at least one probability function comprises a plurality of variables and a continuous output value indicative of a probability that a detected light source fits a pattern associated with properties and behavior of a head lamp or tail lamp, wherein said variables are selected from the group of controlled vehicle associated operating parameters comprising: vehicle speed, ambient light level, vehicle turn rate, lane tracking, vehicle pitch, vehicle yaw, geographic location and road type, wherein the continuous output indicative of a probability is not a Boolean value.