Quick Summary :
AI is finding an expanded role in the manufacturing industry with widespread
applications and trending use cases. The recent advancements in generative AI have been
phenomenal and have provided the required boost for expedited adoption of artificial
intelligence in the manufacturing industry. AI coupled with machine learning, computer
vision, predictive analytics, robotics, etc. transforms core processes of manufacturing
for higher efficiency and output.
Manufacturers have always been the earliest adopters and deployers of
technology. The industry has never refrained from experimenting and upgrading. The same
applies to the industry’s approach towards artificial intelligence. Efficiency, safety,
quality, profitability, and sustainability are the core focus of manufacturing industry
stalwarts when implementing AI in their processes and plant operations. While the industry
already has advanced automation, analytics, robotics, sensors, and connectivity, what AI
offers to the manufacturing sector is human-like ingenuity, adaptability, and
decision-making.
The modest beginnings of AI in the manufacturing sector are now leaping to the next
trajectory. With the advancements in Generative AI models, modesty has transitioned into
highly sophisticated innovations. Today, AI has entered into mainstream manufacturing
leaving no process in manufacturing that cannot be transformed by AI. The use cases and
applications of AI in the manufacturing industry are far and wide, transforming core
processes like never before.
This article details the implications of AI and its latest advancements in the manufacturing
industry. The article explores various use cases and applications of AI-powered systems in
various sectors of the manufacturing field.
Applications of Artificial Intelligence in Various Manufacturing Industry
Sectors
Automotive
AI-based algorithms process data from vibration sensors and other sources to detect
anomalies, diagnose problems, and predict breakdowns. For instance, Bosch uses
AI-based image recognition technology to detect defects in its automotive parts.
This is done by training models for automated optical inspections using generative AI.
“For a long time, associates in manufacturing checked parts for possible defects with
the naked eye,” says Ria Reimer, project manager at Bosch.
Textile Manufacturing
The integration of artificial intelligence (AI) in the textile and apparel manufacturing
industry has various implications and use cases. AI-based tools with imaging tech help
in assessing the material quality of fabrics (material grading). AI also reduces errors
during inspection by detecting minor flaws (holes, stains, stitching issues) that
compromise the fabric’s final quality or variation in quantity.
AI also automates bills of materials, sourcing, procurement processes, CPQs, etc. The
AI-powered computer-aided design (CAD) system helps in pattern grading. AI-enabled
sensors improve the precision of dye color matching, predict color fading, and reduce
waste.
Electronics
AI-powered systems analyze data from sensors embedded in manufacturing equipment to
predict when machines are likely to fail.
For instance, Schneider Electric, the French electronic manufacturing giant uses AI
to collect and analyze datasets on weather patterns, and emissions to predict
equipment failures and anticipate loads, This AI-enabled predictive analytics is leading
a seismic shift in how Schneider Electric manages its energy systems for grid
decarbonization and fighting climate change. AI also assists in designing electronic
components by generating optimal designs. AI can predict the performance of
semiconductor devices under various conditions, thus improving quality.
Glass Manufacturing
AI systems monitor and control the temperature and composition of glass during the
manufacturing process to ensure consistent quality. Machine vision systems powered by AI
detect imperfections in glass products, allowing for immediate corrective actions.
3B Fibre Glass, a leading manufacturer of glass
fibers uses AI with deep-learning computer vision to monitor and analyze the
fiber flow from bushings. The AI system identifies potential breakages 75 seconds in
advance and alerts operators for quick intervention.
Food Manufacturing
In industries like Processed Food Manufacturing, AI can help with quality control through
machine vision systems. These systems can be trained to identify contaminants in food
raw materials like metal, plastic, adulterated objects, etc. AI algorithms can
continuously monitor various food production stages using advanced imaging techniques to
catch safety issues or any deviation in the color of food that suggests contamination.
As Wall
Street Journal Reports: Companies like Pepsi and Colgate are upgrading their
plants with AI sensors to ‘listen’ for machinery problems.
Pharma Manufacturing
AI in pharma manufacturing focuses on helping researchers cross-reference resources when
developing new drugs, drug discovery, and clinical trials. AI can automate the quality
assurance process and help pharma manufacturers in regulatory compliance. AI coupled
with blockchain solutions can monitor cold chains for vaccine transports.
Pfizer, one of the top pharma companies in the world says that artificial intelligence
can help them in predicting queries that regulators will raise after inspection. AI/ML
analysis may also be able to improve the quality of regulatory submissions, says Boris
Braylyan, Vice President and Head of Information Management at Pfizer (source).
Chemical Manufacturing Industry
AI speeds up research, substances analysis, chemical properties prediction, and discovery
of new compounds. Advanced techniques like generative modeling further shorten the drug
discovery process. Machine learning algorithms trained on generative AI can conduct
quality checks to prevent contamination. Chemical manufacturing is carbon-intensive and
not eco-friendly. AI can be deployed to analyze energy use patterns and suggest
adjustments to reduce consumption to minimize the carbon footprint.
Aerospace
AI algorithms can create thousands of design permutations based on specified
constraints and requirements. AI-driven simulations can predict how different materials
and designs will perform under various conditions, reducing the need for physical
prototypes and extensive testing.
Airbus, the commercial aircraft manufacturer, uses Artificial Intelligence for various
use cases, from creating AI-based
robotic assistants for space astronauts to developing self-piloted commercial
aircraft using AI-enabled computer vision. Using AI in Aviation manufacturing companies
in this space are developing solutions to cut aircraft aerodynamics prediction time.
Furniture Manufacturing
AI tools can study customer feedback and reviews and help manufacturers customize
furniture designs as per the latest preferences and trends. AI improves demand
forecasting, helping furniture manufacturers manage inventory more efficiently. AI
optimizes logistics and delivery routes, ensuring timely and cost-effective delivery of
products.
IKEA, the furniture manufacturing giant uses AI to optimize delivery. In its new 25,000
cubic meter distribution center in Tianjin, China, IKEA is testing AI-based Autonomous
Mobile Robots to pick and pack 9,500 products. (source).
Transform your manufacturing processes with
cutting-edge AI technologies!
How is AI Used in Manufacturing? Top Use Cases
Generative AI in the Manufacturing Industry
Gen AI is the most disruptive AI advancement. These are language models trained on
billions of data sets. Gen AI resembles human-like interaction as a language model.
Generative AI is primarily used for conversational purposes in manufacturing to initiate
human-like chats with suppliers and customers.
It is also used for summarizing information in contractual documents. 27.1% of
manufacturing companies surveyed by IDC (Report: The State of Manufacturing and
Generative AI Adoption in Manufacturing Organizations) accepted investing in generative
AI in 2023.
Top Generative AI Models Application in Manufacturing
Gen AI Model |
Application |
Variational Autoencoders (VAEs) |
- Image and video processing
- Product Servicing
|
Generative Adversarial Networks (GANs) |
- Document generation and synthesis
- Product Research and Design (R&D)
|
Long short-term Memory (LSTM) networks |
- Procurement decision-making
- Smart supplier management
|
Recurrent Neural Networks (RNNs) |
- Customer Self-service and customer experience
- Sequential data processing
|
AI for Process Optimization
AI has impactful applications in the manufacturing industry’s process optimization. By
analyzing historical process data, AI can identify parameters that influence
manufacturing phases, processes, and quality. From anticipating quality issues, process
malfunctions, causes of disruptions, and deviations from target parameters.
Reinforcement Learning to develop control strategies that maximize efficiency and
quality.
Neural Networks for complex process control, where traditional methods are
insufficient.
Smart Energy Management Systems that use AI to optimize energy usage.
Simulation and Optimization models to test different production scenarios
Route Optimization for logistics, reducing transportation costs and delivery times
Factory floor Optimization Layout in factories can be optimized using AI for space
optimization and more efficient machinery placement
AI for Smart Manufacturing
Smart manufacturing combines the power of advanced technologies like AI, Machine
learning, blockchain, Industrial IoT, and robotics to increase productivity, reduce
manufacturing errors & delays, and ensure quality. Smart manufacturing also considers
worker safety and deploys ways to improve worker life. Smart manufacturing also focuses
on optimizing production levels based on inputs received from data analytics. AI-driven data analytics
can predict market demand and guide manufacturers about production
levels.
As per a report
by Business Insider, the world’s leading chipmaker, Nvidia is using a custom AI
model (ChipNeMo) to scale up its chip production process.
AI for Manufacturing Analytics
One major use of AI in manufacturing is data analytics. AI in manufacturing analytics has
use cases varying from predictive analytics to supply chain route optimization.
AI-enabled analytics can also predict raw material demand or workforce requirements in
manufacturing plants by analyzing data from production channels, sales, and marketing.
The manufacturing analytics with IoT device sensors can detect anomalies in machines, and
deteriorating performance signs, and predict downtime. It can accurately measure the
mean time between failures (MTBF) or mean time to repair (MTTR). With such analytics,
manufacturing can schedule preventive maintenance of equipment before it turns into a
failure risk.
AI-Powered Robotics
AI-powered robots enable 24/7 factories. Robots can work without fatigue and therefore
are prudent solutions to peak demand or sudden surges in workload. For example, with the
use of AI-enabled
autonomous robots in warehouses, manufacturers can reduce the workloads of
warehouse employees. From sorting products to moving pallets, these robots use AI to
evaluate the product category, understand weight, and move through obstacles in the
warehouse without collisions.
- Collaborative Robots (Cobots) that work alongside humans, improving
efficiency and
safety.
- Autonomous Guided Vehicles (AGVs) for material handling and transport within
manufacturing plants.
AI for Quality Control
AI’s application in quality control work by inspecting various stages of production and
detecting deviations or defects using computer vision and imaging tech. For instance,
AI-enabled image processors can detect defective parts of machinery, coating issues,
fitting issues, welding issues, etc., especially in heavy machinery manufacturing. This
reduces defect slippages that can happen in human-based visual inspections. AI can go
into root cause analysis (RCA) by finding gaps or loopholes in standard operating
procedures.
The Google Cloud Visual Inspection AI solution can detect anomalies and even the tiniest
defects by using its ultra-high resolution images (up to 100M pixels) and advanced
computer vision technology.
Such AI use for quality control is particularly beneficial for packaging and label
inspection, Paint shop surface inspection, SoC packaging inspection in the semiconductor
industry, and finding missing components (screw, spring, connector) in the electronic
industry.
AI for Industrial Automation
Artificial intelligence (AI) technologies are opening up new opportunities, and making
manufacturers more adaptable to changing market conditions. In industrial settings, AI
is used for powerful 3D automation services to automate intricate designs with
remarkable accuracy. For factory automation automates troubleshooting, service
management, and anomaly identification. AI also automates warehouse processes improving
logistics. AI also automates raw material order management by generating purchase
requests based on demand predictions. CAD automation in manufacturing eases complex
design tasks and reduces errors.
AI in Supply Chain Management
AI analyzes supply chains to detect and address potential roadblocks early. AI in the
supply chain can optimize global logistics by rerouting transportation and rethinking
warehouse operations. Its predictive power can help in anticipating geopolitical events,
and market fluctuations to provide early warnings to create contingency plans. In
November 2023, the Biden administration established the White
House Council on Supply Chain Resilience while implying the development of safer
AI solutions to monitor and respond to supply chain disruptions.
AI-enabled IoT Devices
AI-enabled IoT has many applications in the manufacturing industry. Healthcare device
manufacturers embed sensors with AI in IoT wearables to monitor patient vitals. Smart
thermostats, HVAC equipment, Smart ACs, and home appliances are other examples of AI and
IoT convergence. Industrial Internet of Things (IIoT) with AI has extensive use cases.
For example, smart thermostats can automatically control room temperatures. Smart ACs
can automatically on/off by sensing the weather, or people in the room. An advanced
example of IIoT with AI capabilities is GE’s latest locomotives, which are equipped with
250+
sensors with capabilities to collect 150,000 data points per minute.
AI-based Deep Learning in Manufacturing
AI-based deep learning reduces unplanned downtime by predicting equipment fails by
analyzing historical and real-time machine data. Deep learning models can analyze images
and detect defects in manufactured goods. Deep learning models can optimize energy
consumption within manufacturing plants and improve sustainability by analyzing
consumption patterns. AI systems can monitor worker activities to detect hazards and
warn the managers.
Natural language processing (NLP) in manufacturing
Natural Language Processing (NLP) in manufacturing assists in global operations by
translating communications instantly. NLP also enables interactive training manuals and
eases workforce training in the manufacturing industry . NLP can be used to monitor
employee feedback and based on it sentiment analysis can be done to understand job
satisfaction in workers. NLP can also be used for condensing large texts into actionable
insights.
Ethical Considerations of AI in Manufacturing
Authors like Isaac Asimov and scholars like Norbert Wiener were among the first to
explore ethical dilemmas posed by AI. Asimov's
Three Laws of Robotics laid foundational ethical principles for human-robot
interactions. These pioneers foresaw issues such as the potential loss of human control
over technology, ethical dilemmas in decision-making by AI systems, and societal impacts
of automation. For manufacturing companies, this raises fundamental questions about
balancing technological innovation with ethical considerations.
The deployment of AI in manufacturing raises significant ethical concerns. These include
safety (both physical and cybersecurity), ethical decision-making by AI systems, bias in
algorithms, social implications of job displacement, and the overall trustworthiness of
AI-driven operations.
Policymakers, government agencies, technology leaders, and scientists globally are
engaged in discussions about how to regulate and ensure the responsible development and
deployment of AI technologies. There is a growing consensus on the necessity for
establishing clear ethical guidelines or a code of ethics specific to AI in
manufacturing and industrial operations. This framework would aim to ensure that AI
systems are developed and used in ways that are safe, ethical, unbiased, socially
responsible, and trustworthy.
The Future of AI and Its Impact on Manufacturing Jobs
Although AI has been around for decades now, its powerful and transforming applications in various industries have recently spurred owing to multiple factors such as:
- Increase in adoption and reduction in implementation resistance from conservative
management
- Breakthrough launches in generative AI like ChatGPT
- Convergence of AI with advanced technologies like Blockchain, IoT, Big Data, etc.
- Advancements in computing power and advanced GPUs
- Improved AI algorithms, deep neural networks, and ML
- Establishment of Regulatory frameworks for AI usage
As per McKinsey, Manufacturers that have applied AI in industrial processing plants have
reported a 10 to 15% increase in production and a 4 to 5 percent increase in EBITA. With
the increased adoption of AI, 40%
of manufacturing managers surveyed by the Manufacturing Leadership Council reveal that
they expect their manufacturing plants and factories to go fully autonomous by 2030.
However, employees will still play an important role in operations.
The World Economic Forum Report on Implications
of AI on Manufacturing Workers reveals that AI will liberate factory workers
from hard toil. AI robots will perform repetitive and mundane tasks and reduce jobs that
involve routine assembly line work. AI adoption will lead to new job opportunities
focused on process improvement, and advanced data analytics.
AI and manufacturing are a perfect match. The fusion of AI in manufacturing is a wave
that will transform the industry.
Conclusion
The implementation of AI technologies and systems improves manufacturing efficiency,
ensures worker safety, enhances product output quality, and expedites floor processes.
AI also improves the level of sustainable practices and provides insights for strategic
decision-making to manufacturers. The benefits of AI deployment in manufacturing extend
from workers and management to customers, suppliers, and all other stakeholders.
If you want to implement AI-based applications for your manufacturing units, you will
need a reliable IT partner who understands the intricacies of designing, developing, and
deploying AI software solutions for the manufacturing industry. X-Byte has expertise in developing
futuristic manufacturing
industry AI solutions.
Frequently Asked Questions
-
What are the top Challenges of Implementing
AI in Manufacturing?
Data issues, governance issues, replacement of legacy systems
to accommodate AI, algorithm bias, poor AI training, worker
resistance and fear, conservative C-Suite management, and
high costs of implementing AI in manufacturing are some of
the top challenges of implementing AI in manufacturing. ROI
of AI in manufacturing is also a concern. CEOs have been
hesitant and unsure about the return on investment of AI
implementation in their manufacturing plants.
-
How AI-enabled AR/VR can be used for
employee training in manufacturing?
AI-enabled AR/VR can be used for employee training in
manufacturing by providing immersive, interactive, and
highly safe training environments. AR/VR can create detailed
simulations of the manufacturing floor, allowing trainers to
teach new employees without risks. Trainees can practice
safety protocols in a controlled virtual environment.
-
How to get started with AI in manufacturing?
Start with Identifying specific areas where AI can add
immediate value to your manufacturing business. Decide where
you need automation and analytics, i.e. predictive
maintenance, quality control, supply chain, or all of these.
Partner with an AI development company that understands both
AI technology and manufacturing needs. Invest in training
for your team to build AI literacy and skills. Finally,
ensure a scalable infrastructure and continuously monitor
and optimize AI systems to adapt to evolving manufacturing
demands.