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The Aether team collaborated with Carrier Enterprise as their client to enhance the air quality of an existing space, while using and preserving the integrity of the current and existing equipment.
Factors such as odors, recirculation of harmful infectious aerosols originating from the outside environment as well as generated by occupants, and the influx of poor-quality outside air such as that from wildfire smoke, can have detrimental effects on air quality. Consequently, the team was tasked with conducting thorough research on relevant codes and standards, filtration systems, and disinfection that must be adhered to, in addition to addressing the specific requirements outlined by the client, to execute this project with optimal effectiveness.
The GBT project team collaborated with their client, Green Building Technologies (GBT), to redesign their E-72 apparatus so that it can perform the racking test along with the existing three tests, eliminating the need for a separate setup. Combining the two apparatuses (E-72 apparatus and racking test apparatus) can not only give the client more space to work with but also result in less power consumption, which increases the efficiency of the testing significantly.
The goal of this project was identify potential designs and solutions to check whether the racking test can be performed in the E-72 apparatus. The group approached the problem by doing some preliminary research to explore design possibilities followed by Finite Element Analysis (FEA) to evaluate the structural integrity of its proposed design.
The Metal Alloy Fabrication Ltd. (MAF) DBUR project team worked on a unique opportunity to explore creative and interesting solutions to the deburr station tool storage shortcomings. The primary goal of the project was to localize all relevant tools to the department and into a system that can be deployed at each workstation in deburring. The design needed to integrate with existing MAF infrastructure and incorporate elements of lean manufacturing along with modularity to accommodate evolving tool sets. The nature of this project required the team to go to site and gather as much information as possible before moving into concept generation and further into technical modelling.
The Weld Tool Storage project team worked with their client, MAF Metal Alloy Fabrication Ltd, to create a contemporary design for the company’s uniquely formulated weld tool storage. The project’s goal is to create a design that can decentralize tool availability which is to establish localized tool access points at various workstations for reducing the time spent in tool retrieval and return, thereby enhancing operational efficiency, and minimizing waste. This iterative design project required the team to complete testing of concepts to effectively meet the client’s needs, analysis of welder’s working flow, cost analysis, DFMA analysis, and Lean analysis.
The Treeline Outdoors rooftop tent project team worked with the designers from Treeline Outdoors to create a design for the frame of the company’s first hardshell tent. The main objective of the project is to develop a tent frame that is lightweight, durable, easy to use, and attachable on most vehicles. The design must also accommodate an expandable base that doubles the floor space when the tent is fully set up. This project required the team to use CAD software and iterative design processes to create a design within the client’s specifications.
The project created for the client was to construct a solution for a pallet jack that can be transported in a vehicle as small as an SUV. The final objective of the project is that it can be compactly stored and transported by the user. The design is as light and strong as possible and can be stored in areas where a regular pallet jack would not be able to. The team explored different innovative designs to satisfy the client’s expectations
The Deep Red Headlamp project team worked with their client, Ulrich Hissen, to modify an existing product with a white led headlamp into a deep red led headlamp. The project’s goal was to come up with a design that can incorporate the deep red LED to prevent desensitizing the vision of the people around you and makes it convenient to do outdoor activities at night in groups more comfortable for yourself and those around you, since there will be less strain on them. This updated design project required the team to research electrical circuits and how different spectrums of diodes affect the vision.
The Propane Sound Cannon Tripod capstone team worked together with their client, MargoSupplies, to construct a tripod design for a propane sound cannon. The team was task toimprove the existing tripod construction that will solve its design flaws where the legs fall offwhen lifted and having to remove propane regulators for setup, making it complicated andprone to danger when in use. The design challenge made the team construct concept ideasand go beyond the existing tripods’ designs to meet the client’s requirements.
Calgarians are encouraged to buy water barrels to collect rainwater for use in watering plants, these barrels will fill up over the spring, summer and fall but during winter the water freezes. Freezing water expands by approximately 9% causing the barrels to break as the water has nowhere to go. The project’s goal is to prevent these barrels from breaking while minimizing user interaction, the product will allow users to forget about their barrel through the winter. The team has been iterating with CAD and rapid prototyping methods to experiment with designs and explore the nature of the problem.
The ‘Vertical Eden’ is an indoor automated wall vegetable garden that allows customers to grow fresh produce right at the comfort of their homes. When approached by the Gardening Company, the team of students from SAIT’s MET department designed a self-sustaining prototype to aid people grow fresh vegetables who lack major gardening knowledge. The innovative and elegant design has automated systems imbedded inside that can nourish the plants by providing them with a suitable environment so that they can grow year-round without any hassle.
The Custom Athletic Solutions team has been contracted by the client who is passionate about cycling while also recovering from a long-term forearm injury. The team is tasked with finding a way to slow the cyclist and their bike to a stop while minimizing the strain on the user’s forearms caused by actuating their brakes – something that goes entirely unnoticed by most. The team have an opportunity here to demonstrate their technical and mechanical abilities through highly creative, user-focused problem solving. The team believes in the power of activity for mental and physical health, and they consider it an honour to take on a project that contributes to the field of adaptive athletics creating greater access to those who wish to be active.
The Porsche team was tasked to redesign the 1980s and 1970 Porsche 911 calipers. Their goal was to take measurements of the current calipers, 3d scans, and usage of CAD software’s to redesign the calipers in a way that fixed the current flaws from the previous design and make them aesthetically pleasing. With the help from their client the team had access to the cars themselves, all the original parts, and access with industry partners to produce a product that was safe while delivered the sporty performance that Porsches are known for.
SportSync collaborated with a client on a project to develop a practical device for winter sports enthusiasts. The objective was to design a gadget that enables users to manage their music seamlessly during snowboarding or skiing, eliminating the need for manual use of a phone due to challenges associated with winter gear. The device featured essential controls including volume adjustment, pause and play, and skip or playback. SportSync actively generated ideas and employed CAD simulations to ensure the device's practicality and effectiveness in winter conditions. By addressing these challenges in collaboration with the client, SportSync aimed to deliver a user-friendly device that enhances the music experience for winter sports enthusiasts
The Cabela’s archery sight project team worked closely with their client to design a competition ready sight that is easy to understand for beginners. The project's goal is to design a sight to competition regulations that is simple to use and offers accuracy comparable to other competition sights. The sight offers a steppingstone between beginner sights and competition grade sights.
Make way, make way. A robot is coming through! The Campus Autonomous Guided Vehicle (AGV) team is designing a prototype that can move independently, using ground-trekking wheels to travel between key locations in the Aldred building. Utilizing Gen 1 Robotinos in conjunction with new parts, the goal is to design an AGV that travels autonomously in a safe operating manner following all SAIT's safety regulations and guidelines. The AGV must be designed and built to support and promote future upgrades.
Could you imagine if automation and machining were combined? Pretty intriguing and innovative, right? This Capstone team is working with the Center for Innovation and Research in Advanced Manufacturing and Materials (CIRAMM) at SAIT to prove the concept of a milling and resurfacing process on ABB IRB 4400 robot that can potentially promote efficiency in the machining industry. To demonstrate this concept, the team is modeling a simulation in RobotStudio and running a physical program on the IRB 120 robots in the lab. While doing these main tasks, the team is implementing RobotStudio add-ins like MultiMove and PowerPac to increase production time and precision of the machining. The team is also designing grippers to hold a Dremel and foam using two different IRB 120 robots so that one robot can hold the foam while the other can machine it to the desired shape and size.
Have you ever needed an extra hand, how about a robotic hand to complete a task? The capstone team is developing a solution in collaboration with their client to design and program a Festo robotino to address inefficiencies in the Mechatronics lab at SAIT. The primary objective of the project is to enable the robotino to perform "Pick N Place" tasks across the lab, particularly focusing on transferring tools and parts between different robot cells as required. This endeavor presented a significant challenge to the team acquiring new programming skills and experimenting with various configurations and connections from the server to the robot.
Have you ever wanted to be part of the process of making your own personalized dog tag? The SAIT Novamill Integration project team is tasked with improving the Novamill CNC machine and automating a procedure to engrave onto dog tags.
By entering your name and pressing GO, you will be able to see the process from when the robot arm picks up a dog tag and moves it to the machine which engraves your name. When the engraved tag is complete, it will be transferred from inside the cell to your hands to take home as a souvenir! Because this whole process will be automated, no assistance is needed from the team, giving visitors an opportunity to have a full experience!
Temperature control can be a complex process, have you ever wondered what goes into maintaining temperature in an enclosed space? SAIT instructor, Simon St Jean has tasked this project group with designing and building a prototype analog temperature control trainer for future MET students at SAIT. An enclosure will be built that can demonstrate and teach students about typical and advanced control methods using a heating element, fan, sensors, and mechanical damper.
From pixels to plastic, bring ideas from blueprints to reality. Look no further than our IRB140 3D-printing designs in 6-axes. The team is tasked with creating an interface to create 3D plastic prints. The specialty of this software is to print non-planar pattern allowing you to change the grain of your print for better structural properties and maximize strength. This allows for more economical printing by not printing unnecessary structural supports thus reducing post processing and surface finishing time.
The Injection Molding team collaborates with SAIT on a pivotal project aimed at repurposing an injection molding machine. The primary objective is to enhance efficiency and automation in the design of the existing machine. A critical challenge faced is optimizing the heating element. Balancing the need for recycled plastic to reach the glass transition temperature, without reaching the melting point and releasing carcinogenic gases, presents a unique engineering challenge. Through extensive research, the team delves into innovative technologies and methodologies within the field, ensuring sustainable ways to recycle plastics. This capstone promises a groundbreaking solution, not only meeting but exceeding the safety and efficiency requirements set by the esteemed client, SAIT.
Pulverized plastic particles portioned precisely! Watch waste transform into wonders as the Injection Molding Dispensing group demonstrates the pinnacle of precision dispensing.
As a part of the recycled plastic injection molding machine project, the team developed an automated dispensing mechanism capable of placing shredded materials with high accuracy and precision.
Please promptly preview our project at SAITs META capstone showcase where preserved polystyrene produces parts.
Imagine if every device you own could tell you exactly how much energy it is using in real-time. This Energy Monitoring System could save you thousands of dollars by alerting you of needless power consumption and potentially even diagnosing system problems.
Experience the future of real-time data visualization utilizing easy-to-understand dashboard that shows you exactly what needs to be corrected and how long you can continue operating until something goes down!
This cutting-edge system is designed for SAIT's Mechatronics Lab by a skilled group of automation students. Join the team in redefining sustainability by seamlessly fusing efficiency and technology.
The Mindsphere team extends an invitation for you to experience the power of innovation at this year's SAIT MET Project Expo!
Do you want to see how integrating software into your production line can reduce downtime, increase efficiency while saving you money at the same time?
The team has been tasked with developing an industry 4.0 system for the Festo MPS (Modular Production System) stations used in the MET automation lab at SAIT. A full digital twin would allow the MET lab to explore new, more efficient layouts for the MPS factory without taking the physical factory offline. The group will first produce a digital twin for one station in this system using CIROS 7. Once the twin is complete, the group will then document the entire process on how to convert subsequent physical stations to make it easier for others to convert physical production systems on CIROS 7.
Come see the potential that digital twins have to offer in manufacturing.
Extraterrestrial, futuristic, modern, or is it, Jarvis the robotic arm!? It is a robot project where the team is tasked to design a system that demonstrates the skills you can learn in MET automation stream. It is a pick and place system that shows and demonstrates PLC programming, relay logic, pneumatic system, sensors, vacuum cup gripper, and an added vision system which may be better than yours. It will be able to recognize shapes and colors which everyone can see in the Open House Demo Project at SAIT’s Manufacturing and Automation Expo. Wanna know how it works? Become SAIT’s next generation of automation students.
Students at SAIT are cracking down on unacceptable robot behavior.
Smarter safeguarding devices allow for dynamic and real-time control over industrial equipment, minimizing workplace incidents and maximizing comfort for floor personnel. Enabling industry 4.0 to not only emerge around us but to coexist with technology symbiotically.
The robotics safety team is tasked to integrate and interlock presence sensing devices to govern robotic work cells in the Aldred Center automation lab. The project's goal was to integrate light curtains, LiDAR sensors and door latches to a central safety system that monitors human presence and controls cells based on instructor parameters and full compliance with CSA standards.
Have you ever seen a robot in action? How about a Rube Goldberg machine that utilizes diecast toy cars? The Open House Demonstration team is tasked by their client, Christopher Dick, SAIT MET instructor to create a demonstration unit that draws inspiration from a Rube Goldberg machine by utilizing Hot Wheels toy cars. This promises to engage and captivate the audience, showcasing the real-world applications of Automation in MET. The team’s goal is to create a looping demonstration process that showcases the automation stream of the Mechanical Engineering program. The demonstration unit is comprised of basic pick and place using a robot, pneumatic actuators and sensors.
Are robots taking over the world? Yes! Come find out how the ASRS capstone team is making them work for you. This is an exciting opportunity to experience the future of warehousing with this capstone team's Automated Storage and Retrieval System (ASRS)! The ASRS is designed to simulate warehousing, where products can be stored, received and delivered upon request. This capstone team can demonstrate for you how the ASRS can effectively communicate with other equipment in the lab to store, retrieve and manage goods. Come and see the ASRS Integration at SAIT’s Manufacturing and Automation Expo, and witness the future where logistics meets innovation!