Abstract: Technologies are described for devices to monitor a machine. The devices may comprise a battery pack module including a battery pack housing and a sensor module including a sensor module housing and a circuit board. The circuit board may include a substrate, a vibration sensor, a temperature sensor, a motor flux sensor, an ultrasonic sensor, and a processor. The vibration sensor may produce a vibration signal relating to vibration of the machine. The temperature sensor may produce a temperature signal relating to a temperature detected. The motor flux sensor may produce a motor flux signal relating to an amount of motor flux emitted by the machine. The ultrasonic sensor may produce an ultrasonic signal relating to ultrasonic waves reflected back from the machine. The processor may be in communication with the vibration sensor, the temperature sensor, the motor flux sensor, and the ultrasonic sensor.

Abstract: Technologies are generally described for a vibration band alarm configuration tool to facilitate efficient and reliable setting configuration by displaying data and analyses pertaining to the data produced by a vibration transducer attached to a rotating machine and thereby reduces needed knowledge of machinery and vibration analysis. Various parameters and data sets may be calculated from the time domain waveform and displayed with collected data to simplify the recognition of features that represent system components and anomalies pertinent to the health of the rotating machine such as a pump assembly. Manually manipulatable controls on a graphic user interface may allow a user to set alarm bands and thresholds. Suggestions based on physical and/or statistical models, as well as, machine-specific historic data may be presented as well.

Abstract: Technologies are generally described for an integrated monitoring system to monitor several operational aspects of a bearing assembly, analyze monitored aspects, provide predictions, alerts, and reports based on general equipment data or specific rotating machine data. A number of sensors in and on a bearing housing may sense a variety of operational aspects and provide input to a local or remote monitoring device. The bearing housing may include sensor mounting locations for one or more sensors. In some examples, an oil level sensor placed in a suitable mounting location on the bearing housing may detect oil levels inside the bearing housing. The monitoring device may analyze the sensor inputs in light of other information such as historic performance data, environmental information, etc. Reports, predictions, alerts, and/or suggested corrective actions may be generated based on the analysis by the monitoring device and/or remote devices communicatively coupled to the monitoring device.

Abstract: Technologies are generally described for an integrated monitoring system to monitor several operational aspects of a bearing assembly, analyze monitored aspects, provide predictions, alerts, and reports based on general equipment data or specific rotating machine data. A number of sensors in and on a bearing housing may sense a variety of operational aspects and provide input to a local or remote monitoring device. The bearing housing may include sensor mounting locations for one or more sensors. In some examples, an oil level sensor placed in a suitable mounting location on the bearing housing may detect oil levels inside the bearing housing. The monitoring device may analyze the sensor inputs in light of other information such as historic performance data, environmental information, etc. Reports, predictions, alerts, and/or suggested corrective actions may be generated based on the analysis by the monitoring device and/or remote devices communicatively coupled to the monitoring device.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.