From Order to Delivery: Smart Production Systems in Action
A comprehensive look at Industry 4.0 technology, modular manufacturing, and cyber-physical integration.
Graduate Teaching Assistant, IE 4531 - Spring 2026
🔗 LinkedIn: linkedin.com/in/as31
✉️ Email: ajithsrikanth.f@northeastern.edu
"This presentation supplements the official Festo Didactic CP Factory laboratory materials and documentation"
Flexible, reconfigurable workstations
Robots and intelligent control
Connected, communicating components
Fixed layouts: Machines bolted to floor, expensive to reconfigure
Manual processes: Workers carry parts between stations
Isolated systems: Each machine operates independently
Paper tracking: Clipboards and manual logs
Modular design: Stations rearranged in hours, not weeks
Automated flow: Conveyors and robots handle transport
Unified network: All components share data in real-time
Digital tracking: RFID and MES monitor every workpiece
A factory where machines talk to each other AND the internet!
Modular workstations enable quick reconfiguration for different products
Physical machines integrated with digital systems and IoT sensors
All systems connected through unified communication protocols
of manufacturers adopting smart factory tech by 2025
ANSI Z87.1 rated
Required at ALL times. Flying debris can cause permanent eye damage.
Leather or composite
No sandals or canvas. Parts up to 7kg can cause serious injury.
Tie back & secure
Rotating equipment can catch loose hair causing scalp injuries.
Remove jewelry & secure sleeves
Rings, watches, necklaces can entangle in rotating shafts.
Wait for explicit permission from lab staff
All equipment operates at high forces and temperatures. Unauthorized operation can result in serious injury.
Material: 6061 Aluminum
Custom: "NEU 2026"
MES4 creates route:
AS/RS → CNC → Laser
CNC Mill shape
(8 minutes)
Laser engrave text
(3 minutes)
MES orchestrates this entire sequence—dispatching tasks, routing workpieces, and synchronizing data through standardized protocols. Each module reports status in real-time, enabling continuous tracking.
Total Production Time
High EfficiencyFunction: Bidirectional conveyor system (forward/reverse)
Function: Automated path splitting via pneumatic diverters
Base Modules provide: Material flow infrastructure using conveyor segments and diverters for routing
Application Modules provide: Manufacturing operations (pressing, turning, inspection) that attach to base module work positions
Key Distinction: Base modules move workpieces through the factory; they do not generate the mechanical power for machining, forming, or assembly operations
Automated feeder with pneumatic picker mechanism
Pneumatic press applying controlled vertical force
Pneumatic gripper and rotary actuator
Vision system with 5MP industrial camera + AI
LED-guided manual assembly with sensors
Active Control Architecture: Each module contains its own Siemens S7-1200 PLC controller, executing programmed logic independently. They receive job parameters from MES via PROFINET and report completion status back - they are intelligent workstations, not passive storage containers.
Inventory status
Retrieval commands
Part localization
Orientation feedback
Real-time status
Coordinated handoffs
Machine tending and part transfer
Autonomous pallet transport and navigation
Coordinated Operation: These systems don't operate on timers - they coordinate with MES in real-time. When AS/RS completes a storage operation, it notifies MES. MES dispatches Robotino to AS/RS location. Robotino acknowledges receipt of command, navigates to AS/RS, confirms pallet pickup, delivers to CNC station. FANUC receives notification from MES that material has arrived, picks up part, loads CNC. This level of coordination requires continuous bidirectional communication between all components.
Receives orders with specs, quantities, priorities
Assigns work to stations, balances load
Directs parts through optimal paths
Coordinates via PROFINET/OPC-UA protocols
Passive data collection
No control over machines
Humans coordinate
Dispatches every task
Controls all routing
Triggers all processes
Implementation: Modular workstations with standardized interfaces enable rapid reconfiguration for different product lines
Technology: Embedded sensors and controllers in each module support quick changeovers
Integration: Physical manufacturing equipment integrated with digital models, IoT connectivity, and real-time data processing
Example: RFID chips on workpieces (digital) control machine operations (physical)
Architecture: All systems connected through unified communication protocols (PROFINET/OPC-UA)
Benefit: Enables adaptive workflows and coordinated decision-making across the entire production system
Base Modules (Linear/Branch): Provide transport and routing infrastructure via conveyor segments and pneumatic diverters for flexible path control
Application Modules (Magazine/Press/Turning/Camera): Execute automated processing operations - feeding parts, applying force, reorienting workpieces, vision-based inspection
Manufacturing Equipment: Subtractive (CNC), additive (3D printing), and laser processing for part production
AS/RS: Automated storage that exchanges positional data and retrieval commands with upstream controllers
Robotic Assembly: UR5e uses sensors and vision systems to achieve precise, repeatable pick-and-place workflows
MES4: Orchestrates production by dispatching tasks, routing workpieces, triggering processes, and synchronizing data through standardized protocols
Integration Definition: CP Factory integration means all modules—transport, storage, processing, and robotics—coordinate through continuous communication and shared control logic, enabling unified material and data flow. This is fundamentally different from independent machine operation where each unit works in isolation without data exchange.
You MUST attend the lab section you signed up for to receive credit
Each lab is worth 20% of your IE 4531 grade
Come prepared - refer to introduction slides for details
Actively participate in all lab activities
We strongly encourage you to:
• Bring up any confusions or doubts in class tomorrow
• Email us at your earliest convenience
Do not wait until the last minute - we're here to help!
With only 5 labs and each worth 20% of your grade, every single lab session is critical. Missing even one lab can significantly impact your final course grade. Plan ahead and prioritize your lab attendance.
• Multiple choice questions
• Select all that apply
• Timed assessment
• Canvas quiz system
• Check remaining time:
• Press SHIFT + ALT + T
• Manage your time wisely
• Review before submitting
Flexible manufacturing, cyber-physical systems, and networked manufacturing concepts
Base Modules (Linear/Branch) and Application Modules (Magazine, Press, Turning, Camera)
Integrated systems definition, AS/RS functions, and Robotic Assembly Cell operations
MES control of assembly and manufacturing processes, including robotic machine tending
Click "Proceed to Quiz" when you're ready to start the assessment
Good luck! You've got this!
Feel free to reach out:
Ajith Srikanth, Graduate Teaching Assistant
CP Factory overview and Industry 4.0 principles
Base and application module functions
Integrated systems (AS/RS, robotic assembly)
Manufacturing processes (CNC, 3D printing, laser)
MES orchestration and control architecture
Mandatory PPE: ANSI Z87.1 safety glasses, closed-toe shoes
No loose clothing, jewelry, unsecured hair
Never operate equipment without supervision
Hazards: 185°F surfaces, 90 PSI pneumatics, 6000 RPM spindles, laser radiation
Week 2: Base and application modules operation
Week 3: Manufacturing equipment (CNC, 3D printer, laser)
Week 4: Integrated systems and MES programming
Flexible Manufacturing: Achieved through modular workstations with standardized interfaces and embedded controllers that enable rapid reconfiguration
Cyber-Physical Systems: Physical machines integrated with digital models and IoT connectivity, creating real-time communication between physical and digital domains
Networked Manufacturing: All components connected through unified communication protocols, enabling coordinated operations rather than isolated, independent machine operation
Base vs. Application Modules: Base modules provide transport/routing infrastructure via conveyors and diverters; application modules perform actual processing operations with active control systems
Integration: All modules coordinate through continuous data exchange - AS/RS exchanges positional data, robots use sensors for coordination, MES orchestrates all activities
MES Function: Actively dispatches tasks, routes workpieces, triggers workstation processes, and synchronizes data exchange through standardized protocols - not just passive monitoring