Makerspace Shoutout from Jack Murphy ’25

Thank you to the Makerspace!

Model of Neoclassical Modernist Home in Rome, Italy

Model of Neoclassical Modernist Home in Rome, Italy

The Makerspace empowered me, somebody with no model-building experience, to create an architectural model of a home in Rome, Italy that I am proud of—they even lent me the tools to make it happen. I am grateful to  David Keiser-Clark, Makerspace Program Manager, for offering guidance in this design project. This Neoclassical Modernist home was inspired by my time spent last spring studying abroad in Rome, Italy, and David helped me design this relatively low-tech model for my architecture class, taught by the great and powerful Professor Michael Lewis. As an economics major, I had never created anything like this, so I enlisted David to help me solve some practical problems that were preventing me from getting the design to look as accurate as I’d hoped. Specifically, I needed help to understand how to get the proportions of arches to look correct, and how I could properly cut and fill these voids. Due to the nature of the project, I wanted this to be done by hand, so David’s first idea of 3D printing the walls was not practical, so he worked with me to trace voussoirs into both the poster board walls and the plexiglass windows, a material that he referred me to. In addition, we grappled with the idea of how to properly include a glass dome in my model. David had the wonderful idea to buy a clear plastic bowl from Walmart and then set the scale of the entire model off of the measurement of this piece. David and I had many ideas about how to create the most interesting model possible, but his genius lies in the simplicity of his solutions to these practical problems. Being well-versed in the world of 3D printing, he was tempted to create bespoke parts for the project, but I was impressed with his restraint, ingenuity, and creativity to use more common items to solve these issues using a fraction of the time, labor, and resources.  In addition to his more high-tech tools in the Makerspace, David keeps a plethora of different tools that made this project possible and accessible for a student like me. He has compasses, saws, scoring equipment, clamps, and countless other items that allow students to have a one-stop shop for making their creative vision into a reality. I cannot thank David enough for all of the help and support, and I would recommend that anyone at the College and beyond come check out what he is doing, as it is extremely interesting and unique in a college landscape. Below, I included a write-up on my project for anyone interested. Thank you David & the Makerspace!

Jack Murphy
Modern Architecture
Professor Lewis
11 November 2024

Neoclassical Modernist Home in Rome, Italy

My vacation house in Rome, Italy features Classicist architecture with a modernized design that subverts the traditional Roman order to provide the home with aesthetic and functional attributes never seen in ancient Rome. More specifically, the house is located in the Aurelio District above Vatican City at 41º53’21.56” N, 12º27’02.88” E. This undeveloped plot of grassland (1.2 acres) is located directly across the street from Villino Algardi, a government-owned villa where meetings are held. Villino Algardi sits inside Villa Doria Pamphili, a massive public park where Romans escape the city and have picnics with their families. The house faces north and sits at 246 feet of elevation, 0.95 miles away from Vatican City (50 feet of elevation), providing spectacular views of the entirety of downtown Rome. This area provides me with a unique location just outside of the city, views of the scenic city, and distance from the highly traditional architectural standards that my home violates. 

In essence, my home’s exterior is meant to mimic buildings like the Pantheon, Parthenon, and countless other Roman Temples. It features a portico and dome similar in silhouette to the Pantheon, but I decided to make the “rotunda” square due to the difficulty in creating a circular floorplan for home applications. To allude to this building, I included arches on all four sides with glass beneath to provide excellent natural light into all rooms. The ground floor features a dividing wall in the middle, with a great room in front and a bedroom in the back. The great room includes a dining room and kitchen with an island in the middle, allowing me to entertain guests during dinner parties essential to Roman culture. In total, this room sums up to 332 square feet, giving me space for indoor functions and direct access to the portico for aperitivo (afternoon cocktail hour) as the sun sets over the Roman cityscape. The rear half of the ground floor features a bedroom, bathroom (accessible from both sides of the ground floor), and walk-in closet, allowing for comfortable living for me and my future wife. I chose to put the bedroom on the western side of the home to prevent the morning sun from waking me too early as I relax on vacation. The one bathroom is located on the east side of the home, with the option to soak in the morning sun as you prepare for the day or to pull blinds down for extra privacy. Back in the great room, a staircase climbs the dividing wall to allow access to the semi-circular loft inside of the glass dome, overlooking all of Rome. This room includes a sectional couch and TV and serves as an excellent living space to watch sunsets or stargaze with friends and loved ones. This sectional can also pull out to allow for additional sleeping space for guests of the home looking for one of the most beautiful and unique living arrangements imaginable. The loft is semicircular, allowing for natural light to permeate into the great room as you cook lunch and enjoy days off on the weekend. A long basalt-cobblestone driveway connects the property to Via Aurelia Antica, cutting under an ancient Roman aqueduct’s arch that provides privacy from the passing traffic. 

One of the chief inspirations for this home was Hagia Sophia of the East Roman Empire. This building collapsed 21 years after its construction in 558 AD due to the difficulty of supporting a round dome on a rectangular rotunda. This problem led to the invention of pendentives, which use arches on all 4 sides and diagonal arches across the hypotenuse of the rotunda to distribute force away from weak points towards the middle of the rectangular floorplan and into the corners of the structure. I decided to use a light glass dome for reasons listed later, so pendentives are unnecessary due to their juxtaposition with the heavier brick-and-mortar dome of Hagia Sophia. Interestingly, this building has been modernized in its own way, as it was converted into a mosque in 1453 following the Ottoman invasion of Constantinople. While I didn’t end up needing to use pendentives, Hagia Sophia served as a major inspiration for the silhouette of my home as it was the first time that a round dome was placed on a rectangular building in any part of the Roman Empire.

The use of glass serves as a way to improve upon traditional Roman architecture using modern materials. Firstly, glass allows for the use of arches in the design, tying in the aforementioned inspiration of Hagia Sophia with the practicality of an enclosed structure. Furthermore, glass allows me to subvert the ideas of modern architecture into the form of classicism. I found myself fascinated by the transparency of the Seagram Building and the Crown Hall (Ludwig Mies van der Rohe) and wanted to incorporate this into my home. In addition, the oculus of the Pantheon served as inspiration for the dome, as I took this idea and wanted to maximize natural lighting past what Roman architects were capable of due to material limitations. Ancient Romans never had access to the quantity of glass that we do today, so I wanted to use the figure of a classical dome with the transparency of glass to allow for a unique living space in the loft and beautiful natural lighting in the great room. To directly reference traditional Roman orders, I used monolithic columns on the portico, but again subverted it by using black marble, something untraditional to ancient Rome. To take this idea to the next level, omitted almost all aspects of Roman orders, including the capital, base, and entablature to provide a more minimalist aesthetic that is free of ornament. The exterior of the home is constructed of black painted stainless steel, juxtaposing it with the marble cladding of ancient Rome and Renaissance architecture, again using traditional Roman form with modern material functionality.

The fundamental idea of this home was to combine modern materials and aspects of modern functionality into a more classicist design. I found myself interested in the irony of this home, as modern architecture was in a way in direct opposition to classism. The challenge was to create a home that is both classicist and modern, styles many would argue are mutually exclusive. Prof. Lewis challenged me to design the interior of the building first and to avoid trying to cram a floorplan into a predetermined exterior, but in avoiding this, I actually found the home to become more interesting. By clinging to the idea of having a dome, I was forced to think about how I could use the upper floor, leading to my favorite idea for the whole home in the semicircular domed loft. Like all great architects, limitations forced me to become creative and create novel solutions to functional problems. While my home is largely in the form of a Roman temple, something less than ideal for living, it actually is quite suited for a home as it has all of the necessities that one could need for a small vacation home. While this design is far from the most daring, I would argue that it encompasses many of the ideas that we have gone over in class as crucial to the inception of modern architecture and applies them in a different direction than seen before.

Exhibit 1

 

 

 

 

 

Exhibit 2

 

 

 

 

 

Exhibit 3

 

 

 

 

 

 

 

 

Exhibit 4

https://www.thoughtco.com/what-is-a-pendentive-dome-177310

What is a pendentive dome?

What is a pendentive dome?

 

 

 

 

 

 

 

Exhibit 5

https://simple.wikipedia.org/wiki/Hagia_Sophia

Hagia Sophia

Hagia Sophia

 

 

 

 

 

 

 

Exhibit 6

https://en.wikipedia.org/wiki/Seagram_Building

Seagram Building

Seagram Building

 

 

 

 

 

 

 

 

 

Exhibit 7

https://www.johndesmond.com/blog/design/mies-van-der-rohe-part-ii-the-mind-behind-the-steel/

 

Bug Off! (Part 2)

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The Journey of the Beetle Device Project

First Complete Print of Beetle Device

First Complete Print of Beetle Device

At the heart of Williams College lies the vibrant Community Garden, a space teeming with life. However, like any thriving garden, it faces its share of challenges. Among the most persistent is the Japanese beetle, notorious for its appetite for raspberry bushes, which poses a significant threat to the garden’s yield. Enter the Beetle Device Project, a collaborative initiative with the Zilkha Center for Environmental Initiatives, aimed at developing a sustainable, non-toxic solution to mitigate beetle damage.

From Concept to Creation: Addressing Material Challenges

Last spring, the project was conceptualized with the goal of designing a device to safely repel Japanese beetles. The initial team implemented the first iteration of a 3D printed model, but the primary challenge lay in identifying the right material for production. Standard filaments like PLA proved unsuitable due to their porous nature and limited durability in outdoor conditions. With the acquisition of a BOFA air filter and protective enclosures for the 3D printers, the team unlocked the potential of printing with ASA filament—a robust, nonporous material ideally suited for the task.

The Science Behind ASA and Its Potential

ASA (Acrylonitrile Styrene Acrylate) filament is a game-changer in 3D printing. Its unique properties make ASA an exceptional material for projects requiring durability: its resistance to UV light, moisture, and heat ensures that the Beetle Device can withstand outdoor elements. Understanding the science behind ASA has reinforced its suitability for this project and opened new possibilities for future initiatives involving durable, nonporous materials. 

Overcoming Technical Hurdles

Because this is the Makerspace’s first time working with ASA, the following challenges had to be addressed:

  • Warping: A number of our initial prints warped, rendering them useless.
  • Lack of adhesion: Despite high printing bed temperatures, the filament often failed to stick to the printing plate.
  • Thermal anomaly and runaway: For two weeks, our prints failed at the midway point due to the print bed temperature deviating significantly from the initial setup. For our Prusa MK3S printers, the thermal anomaly resulted in the print halting, and failing.

Each challenge provided an opportunity for growth. The trial-and-error phase deepened my understanding of how environmental factors influence material performance and how to adapt designs to material limitations. Working with ASA required patience, precision, and a willingness to learn—qualities that have honed my technical skills and broadened my perspective on sustainable design.

Relocated BOFA Filter Nozzle

Relocated BOFA Filter Nozzle

One of the most rewarding moments in the process was the successful printing of the first beetle device trap body. The print, which took approximately ten hours to complete, followed the relocation of the BOFA filter nozzles away from the printing bed in an effort to resolve the thermal anomaly issue. The BOFA filter nozzle had previously been blowing air directly at the printing bed, unintentionally lowering its temperature to the point where the base layers could not stick and causing a thermal anomaly, as the printer struggled to understand why the bed temperature kept dropping during the printing process. Monitoring the print closely during its initial stages and repeatedly checking its progress in the Makerspace was both stressful and immensely satisfying.

Aligning with the Mission of Sustainability

This project aligns seamlessly with the Zilkha Center’s mission to promote sustainability. By employing a safe, eco-conscious approach (i.e. diffusing peppermint essential oils) to pest control, the Beetle Device reduces reliance on harmful chemicals, preserving biodiversity and fostering a healthier environment. It serves as a model for innovative solutions that balance human needs with environmental stewardship.

Impact on the Williams College Community

The Beetle Device has the potential to transform the Williams College Community Garden, safeguarding its raspberry bushes and ensuring a bountiful harvest. Beyond its immediate impact, this project exemplifies how technology and sustainability can converge to address complex challenges. It also lays the groundwork for future explorations in eco-friendly design and material science.

Lessons Learned and Future Directions

With the first successful model of the Beetle Device printed last December, the next steps involve printing three additional devices and installing them this spring, just in time for the upcoming raspberry season. As we move forward, the journey with ASA filament continues to inspire creativity and resilience, paving the way for even more ambitious projects in sustainable innovation.

What’s New

A total of four Beetle Devices are printed and ready to be employed by the Williams College Community Garden for this upcoming raspberry season in June.

All Four Beetle Devices Ready to Go

Check out Part 1 of the Bug Off! project here: E4 Bug Off Team Project : Mitigating Japanese Beetle Damage

 

Learn Autodesk Fusion 360

Autodesk Fusion 360 computer aided design (CAD) software

Autodesk Fusion 360 computer aided design (CAD) software

Fusion 360 is a powerful cloud-based 3D modeling platform that blends computer-aided design (CAD), computer-aided manufacturing (CAM), and computer-aided engineering (CAE) in a single environment. It equips users with an all-in-one toolkit to design, simulate, and refine everything from quick prototypes to intricate, functional creations. Fusion 360 has been a cornerstone of the Makerspace’s creative and technical toolkit. We use it to design objects from scratch, develop prototypes, and modify existing models. Once the design is complete, we often 3D print it to bring it into the physical world.

Creative Storytelling

Beyond its technical capabilities, Fusion 360 has also become a tool for creative storytelling—helping us turn abstract ideas into real, usable forms. From phone stands and keychains to prosthetic limbs and mechanical components, the software gives us a platform to solve real-world problems through design.

Just last year, only one person on our entire Makerspace team—Elena—knew how to use Fusion 360. Over the course of the year, more people joined the team and undertook projects that required Fusion 360, and as a result, more people were able to develop skills to use Fusion 360 confidently. Now, that number has grown to over six team members, myself included. During the summer, I worked on a project that focused on developing prototypes for STEM kits, allowing me to learn Fusion 360. At first, the software felt intimidating—but with time, persistence, and plenty of trial and error, I started to get the hang of it. Through consistent practice, I gradually became more comfortable navigating the tools and bringing my designs to life.

Rewarding Moments

One of the most rewarding moments for me was seeing a digital model I created—a small gear-based mechanism—emerge from the 3D printer fully functional. That moment bridged the gap between theory and reality. I realized then that Fusion 360 wasn’t just about modeling—it was about building confidence, persistence, and a mindset of continuous problem-solving

This shared growth in Fusion 360 skills has sparked a transformation in our Makerspace. It has cultivated a culture of experimentation, collaboration, and innovation. Team members are now able to collaborate on a greater number of projects, many of which are more advanced and ambitious than before. We’re no longer limited by unfamiliarity—we’re empowered by our creativity. 

Created: A Guide to Learn Fusion 360

I’ve compiled a guide to the essential steps for starting your first Fusion 360 design. Whether you’re building something simple or diving into a complex idea, I hope you enjoy the process of learning as much as I did. If there’s one thing Fusion 360 has taught me, it’s this: you don’t have to be an expert to start—you just have to be curious.

Here is a link to the presentation:  Fusion_360Guide_Presentation