13 min video / 7 minute read Download PDF The students on the Monash High Powered Rocketry team set their aim high — 10,000 feet high. The multidisciplinary student-led Monash High Powered Rocketry (MHPR) team from Monash University in Melbourne develops, designs, and launches sounding rockets. The students focus on a range of disciplines across avionics, payload, propulsion, flight systems, dynamics, aerostructures, business, finance, and safety. Held Back by Rigidity Project Zenith is MHPR’s most ambitious project to date, challenging the students to develop a hybrid engine from scratch. This necessitated a complex array of hardware and software requirements, leading the team to branch out into new technologies for fluid systems and air brakes. While MHPR made great strides with constructing the engine and circuit boards, progress was initially much slower for the digital aspects of the project. Originally, Solaris MkII’s software used an entirely text-based HTTP model, which the team found both unpredictable and inflexible. “We were using more general web development technologies such as Svelte or TypeScript, and we found that these systems were very rigid,” said Rachit Tamrakar, a student on the MHPR avionics team. “We couldn't change things, and it was quite hard to make things exactly how we wanted them.” Switching to Ignition Understanding that the team required a more robust solution for the competition, Ben McDonald, an Avionics Engineer at MHPR, contacted Inductive Automation’s Educational Engagement Program, which provides free Ignition licenses to qualifying educational institutions as a means to introduce students to industrial controls. “I had familiarity with how well maintained and developed the software was, so I knew that if I could implement this with our current system, that we would have a very reliable performance system,” he said. “I was very excited when Ben contacted Inductive Automation's education team because I had worked with Ignition previously in the past, and I know that it would have been such a step up from the traditional web development that we were doing before,” Tamrakar said. “I could see that it had huge potential.” Ignition allowed MHPR to iterate their system faster and more reliably as Project Zenith progressed. “When we started this project two years ago, we had no idea what we were doing. And through all of our iterations, we slowly developed what has become an incredibly complex and reliable system,” said Jack Bradley, Avionics Engineer at MHPR. Ignition’s intuitive drag-and-drop interface meant that students could start working with the platform after minimal training. And for more advanced functions, the students found Ignition’s capability to embed Python code and act as an MQTT client to be extremely valuable. For offboard systems, MHPR is pushing data through topics into an MQTT broker as the main form of communication on the ground. From there, each MQTT topic is fed back into Ignition for data management. Tamrakar’s role, in particular, was to develop the Ignition backend that controls the rocket’s offboard systems. “Ignition made it very, very simple,” he said. “All I needed to do was write a few MQTT topics and write a few endpoints for those, and then Ben could just go into Ignition, into the Perspective designer, and attach some buttons, and all of a sudden we could test our backends within seconds.” “Ignition makes interacting with our system extremely easy. It gives us a very user-friendly frontend and a very modular frontend as well, which has been very important as the project has adapted over time,” said Bradley. This adaptability became vital as the students emphasised safety and reliability when implementing the Ignition system. “We're controlling what the entire rocket rides on, literally,” said Tamrakar. Launch Day The actual launch during competition is always a high-stress situation. “In terms of visualisation, I aimed to develop a frontend that was very simple to use on the day,” said McDonald. He opted to include all launch control functionality on a single screen to minimise unnecessary navigation. “Then from that screen, we've got all of our individual devices and other screens where you could debug and do testing on the functionality, prelaunch.” Ignition’s Perspective Module allowed MHPR to visualise all of their data streams for critical measurements like pressure, temperature, and thrust as the engine was firing. “We wanted to see all these things in real time, and Ignition really enabled that,” said Tamrakar. “What impressed me the most with Ignition was how easy it was to sort of get that vision of what we wanted in the UI actually on a screen,” said Russell. “As a launch operations lead, my job was to sort of monitor the control team as well as the pad team to make sure things were going right and quick glances at the screen was always part of my job. Having that information displayed in the best way possible was really important.” MHPR’s Ignition system made great use of embedded web pages, allowing the team to remain on one screen while viewing another page as it displayed their data logging in real time. “We have a database that has a web viewer, and we were able to embed that web viewer as well as our IP cams footage within pages in our Ignition project,” explained Tamrakar. “For us, that was a really powerful feature.” In 2025, MHPR won the Jim Furfaro Award for Technical Excellence at IREC and finished second in the student-researched and developed (SRAD) 10,000-foot category at IREC. Further Refinements, Fresh Perspectives The ease of iterability meant that MHPR could design the system with future students in mind. “We're not trying to stop at Solaris MkII,” said Tamrakar. “We want to go to Solaris MkIII, Solaris MkIV.” Ignition’s data collection capabilities have proved crucial for the team as they continue to improve the rocket and launch setup. “As a student team, a lot of what we do is research,” said Bradley. “And being able to collect high-frequency data is extremely important for analysing the performance of our engines.” As Project Zenith progresses, the students in MHPR plan to leverage Ignition’s inherent interoperability, since the platform is built on open standards. “We've got really big plans to integrate all of our other ground systems from different projects from the onboard rocket that also have separate ground stations. We have a vision where we can integrate all of these different systems into just this one ground station, make that ground station redundant, and then our team has a very robust platform that we can keep building on as the team moves forward,” said McDonald. The MHPR team is excited to take the knowledge they’ve gained from Project Zenith outside of the classroom as well. “Using Ignition has kind of changed my perspective on what types of engineering work there really is out in the field. It's not always just programming or routing a PCB. There's engineering positions where you're doing visualisation of data,” said McDonald. “Ignition has opened my eyes to a very different field of engineering compared to what we do usually in classes at university.” As Russell summed it up, “Our vision is about pushing the boundaries of space technologies in Australia and inspiring a passion in the next generation.” Project Information Project For: Monash High Powered Rocketry Monash High Powered Rocketry (MHPR) is a student team at Monash University revolutionising student rocketry in Australia by developing innovative space technologies, fostering collaboration, and igniting passion in future generations through outreach. With a team of over 100 members, MHPR actively competes in both the International Rocket Engineering Competition (IREC) and Australian Universities Rocket Competition (AURC). The design and manufacturing of almost all components of these rockets are done in-house by students, including all airframe components and many flight computers. Learn more at https://www.monashhpr.com/ Posted on: January 15, 2026 Inductive Automation All rights reserved