Abstract: Method for determining a reliability state of an electrical network, the electrical network comprising a plurality of interconnected electrical devices, the method including the following steps: a) identifying an undesired event at a given location in the electrical network; b) traversing at least one subset starting from the given location; c) identifying an electrical device of the electrical network; d) determining a list of events of concern that are associated with the identified electrical device and could result in the undesired event; e) determining a total unavailability value associated with the identified electrical device; f) repeating steps b) to e); and g) calculating a reliability state of the electrical network on the basis of the total unavailability values respectively associated with the traversed electrical devices.

Abstract: A method for monitoring an electrotechnical device, the electrotechnical device including three phases respectively connected to three phases of an electrical network and the method making it possible to determine an alert on the basis of a comparison between specific parameters associated with each of the phases and obtained from temperature and current measurements on each of the phases.

Abstract: Method for determining a reliability state of an electrical network, the electrical network comprising a plurality of interconnected electrical devices, the method including the following steps: a) identifying an undesired event at a given location in the electrical network; b) traversing at least one subset starting from the given location; c) identifying an electrical device of the electrical network; d) determining a list of events of concern that are associated with the identified electrical device and could result in the undesired event; e) determining a total unavailability value associated with the identified electrical device; f) repeating steps b) to e); and g) calculating a reliability state of the electrical network on the basis of the total unavailability values respectively associated with the traversed electrical devices.

Abstract: A method for predicting the probability of technical faults in a product composed of multiple separate parts, each having its own specific life cycle and degradation kinetics, by analysing the contribution of each mode of degradation of each part to each observed fault mode of the product.

Abstract: Apparatus include a fitting defining a distal end and conduit, where the fitting has a port inward from the distal end and which extends from the conduit to an outer surface of the fitting. A hose is sealingly connected with the fitting at the distal end, and a temperature measuring device is sealingly secured with the fitting through the port. In some cases, the temperature measuring device and fitting are sealingly secured with mating threaded structures. The temperature measuring device may incorporate RFID technology. Also, the fitting may have a flat region on the peripheral to secure the device. The temperature measuring device may include a temperature measurement component a distal end which is in contact with material resident in the conduit. The temperature measuring device may also have a display and a push button for activating the display, whereby temperature of material resident in the conduit is shown.

Abstract: The useful life of an abrasive material transport hose (10) can be maximized if the hose is repositioned at the first signs of internal wear. This is accomplished by disposing at least two wear sensing elements (17, 21), each at a specified distance from the inwardmost surface of the inner tube (12), and each monitoring a condition indicative of wear of the hose (10) at its specified distance from the inwardmost surface of the inner tube. When the innermost wear sensing element (17) implies wear, the hose can be repositioned to extend the useful life until the outermost wear sensing element (21) indicates wear requiring replacement of the hose.

Abstract: A guiding device for an automatic bag-filling machine. After the bag has been filled, a finger is disposed in prolongation of front guiding rails. Tube sections are disposed in prolongation of rear guiding rails, with a result that the mouth of the bag is gripped and guided so as to engage between the guiding rails as a conveyor moves the bag along. Creases in the upper portion of the bag are removed on the shifting of the bag along the conveyor.