It’s frustrating to see your business suffer from regulations or equipment failures that cost a lot of money and effort. Often, these failures are not attributed to any one person, but rather a system failure. Unfo...
It’s frustrating to see your business suffer from regulations or equipment failures that cost a lot of money and effort. Often, these failures are not attributed to any one person, but rather a system failure. Unfortunately, it’s hard to identify these problems, especially when there are missed signals along the way. This is where Anomaly Detection through the use of AI can help.
Condition monitoring is a process that can help prevent equipment failures. By measuring various parameters of machines, like vibration, and sound, we can spot errors quickly.
Traditional methods of monitoring are not equipped to handle the massive amounts of data we have today. It’s like finding a needle in a haystack to identify a single deviation.
To improve productivity and prevent potential issues, traditional monitoring needs machine learning. The abundance of data available today makes a strong case for using these techniques in industrial environments. A study by McKinsey estimated that data-driven techniques can reduce machine downtime by 30- 50% and increase machine life by 20-40 %.
Anomaly detection is an application of Machine Learning that involves identifying events in data that deviate from the expected behaviour. By spotting anomalies early on, we can prevent potential issues and improve safety, security, and efficiency in a wide range of scenarios.
In particular, anomaly detection is central to meeting regulatory standards in manufacturing. Anomalies in manufacturing can often mean major bottlenecks, leading to reduced throughput, increased downtime, and decreased product quality.
Anomaly detection in sound poses several unique challenges compared to other types of data analysis. For one, sound data is inherently complex and high-dimensional.
This is because it involves a continuous stream of audio signals that can vary in frequency, amplitude, and duration. As well as this, there are background noises that make it difficult to isolate anomalies.
Another challenge with manual anomaly detection in sound is human perception. Understanding of sound can be highly subjective and vary from person to person.
Even trained experts may struggle to recognise subtle changes in sound patterns, such as slight decibel changes or unusual harmonics. This subjectivity can make it difficult to establish consistent criteria for what constitutes an anomaly in sound data.
By training machine learning algorithms on large datasets of sound data, AI models can learn to recognise patterns and anomalies in sound that may be difficult for humans to perceive. These models can be highly accurate and consistent, allowing for early detection and proactive intervention in cases where anomalies are identified.
Early detection of anomalies can prevent further damage or harm, reducing the cost and impact of incidents. More benefits of automated anomaly detection include:
AI-powered anomaly detection can help manufacturers detect faulty products during production. For instance, in an automotive factory, detecting unusual sounds during the assembly process can indicate a faulty part. Anomaly detection can alert workers to stop production, effectively reducing faulty products.
Anomaly detection can be used to predict equipment failures before they occur. In a manufacturing plant, detecting changes in sound patterns could signal a malfunction. This can help maintenance teams to schedule repairs and maintenance before equipment fails, reducing downtime and production losses.
For example, an anomaly detection system that can detect changes in the sound of the pump may indicate that the pump is about to fail. By detecting the anomaly early, maintenance teams can schedule repairs before the pump fails completely.
Detecting unusual sounds or noise levels can signal issues such as leaks, emissions, or hazardous conditions. Early detection can help prevent accidents, reduce environmental impact, and improve safety.
Anomaly detection in audio can be used for security monitoring in public places or commercial buildings. For example, detecting unusual sounds or noise levels could indicate a security breach or unauthorised access. This can help security personnel to respond quickly.
By identifying and addressing issues early, manufacturers can reduce the cost of defects, waste, and equipment downtime. Anomaly detection can also help companies optimise their production processes, reducing the cost of production and increasing efficiency.
At Gemmo we have a model zoo consisting of a wide range of pre-trained machine-learning models, built on diverse datasets. We have specifically designed one to detect anomalies in manufacturing sounds. This model is an invaluable tool for manufacturers as it helps them identify potential issues in their production processes before they become major problems.
Each dataset contains thousands of audio recordings that capture the sound of specific industrial equipment or processes. For example, our Pump dataset contains audio recordings of pumps in different states, including normal operation, clogged pumps and pumps with damaged impellers.
Similarly, the Valve dataset contains audio recordings of valves in different states, including open and closed valves, as well as valves with different levels of wear and tear.
By leveraging these pre-trained models, manufacturers can quickly and easily integrate anomaly detection capabilities into their production processes.
Sound anomaly detection is critical in modern industrial processes, providing a proactive approach to quality control and efficiency optimisation. The capacity to swiftly identify and rectify anomalies in sound patterns can be the difference between smooth operations and costly interruptions in contexts where precision and consistency are critical.
Due to the nuanced and complicated nature of auditory abnormalities, traditional solutions depending on human monitoring are frequently insufficient. These difficulties highlight the importance of innovative technology solutions.
Artificial intelligence-powered technologies, such as Gemmo’s Anomaly Detection API, represent a significant advancement in this sector. These technologies can analyse sound data with precision and speed that human operators cannot match by employing advanced algorithms and machine learning approaches.
The API’s capacity to continually monitor and analyse acoustic data in real-time guarantees that anomalies are detected quickly, resulting in quick corrective action. This ability is critical not only for preserving the integrity of the manufacturing process, but also for preventing equipment failure. Therefore the life of machinery is increased and maintenance costs are lowered.
Furthermore, incorporating such AI-powered technologies into manufacturing operations coincides with the wider trend towards Industry 4.0, in which automation and data interchange are revolutionising industrial processes. Manufacturers may improve product quality and operational efficiency.
As well as this, manufacturers can also gain useful insights into their operations by implementing Gemmo’s Anomaly Detection AI. These insights may be used to encourage ongoing improvement projects, promoting innovation and maintaining a competitive edge in the market.