Thomas Jefferson University
Thomas Jefferson University Industrial Design 2020 Senior Show
At Thomas Jefferson University, Industrial Design is about creating the future. Our students design things that transform the lives of people worldwide. It all starts with the design process, a way of thinking and working to develop strategies for innovation, propose more efficient systems, and create valued products. We create in a sustainable and responsible way, addressing the needs of the end user, the client, and the world as a whole. Our graduates have gone on to become leaders at a wide array of design-driven companies and consultancies, have funded their own startups and joined socially-driven organizations to improve the lives of others.
Thanks to: Todd Kramer & Mark Havens
Participating Students
Christopher Machuzak

The Steri - Stay thesis was designed to tackle the problem of creating a sterile storage environment for at home use nebulizers. This is specifically for chronic nebulizer users because the consistent use nebulizers without proper cleaning and sterilization can lead to lung infections.

Since this was a device that was meant to be used at home it had to be designed to bled in with the home aesthetic. Nothing is more unsettling that having a medical device in your home for guests to see. The Steri - Stay was designed to mimic a modern home appliance with it's curvilinear form and dynamic movement.

The use of the Steri - Stay is simple to accommodate a wide demographic since nebulizer users span over multiple languages and age groups. The interface consists an On button, two indicator lights to inform the user of the stages of sterilization, and a timer to show when the nebulizer is sterile.

The primary method of sterilization is the use of UV light. The use of UV-C light is germicidal and physically breaks down the DNA of living things. A xenon lamp that emits UV-C light is placed inside of the Steri - Stay to create a sterile environment for nebulizers. The other method used is the used of a clean air flow to reduce the humidity inside while bringing in clean air. This is done with a small intake fan and a HEPA filter.

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Prototyping
Prototyping the holding mechanism for the interior of the Steri - Stay. Testing the peg board system that is used to hold the nebulizer pieces in place.
First Sketch of Steri - Stay
One of the first sketches of the Steri - Stay concept
Steri - Stay Exploded View
The Steri - Stay's components that successfully make a sterile environment for a nebulizer
Steri - Stay Home Aesthetic
A variety of colors to suit any home's look. The Steri - Stay is meant to fit in with anyone's lifestyle without any visual contrast of having medical equipment in a home context.
Steri - Stay's Modularity
This shows the three main pieces that make up the Steri - Stay. Each piece has several components in them that help complete the task of creating a sterile environment for a nebulizer at the same time as sterilizing the nebulizer.
Christopher Machuzak

The Steri - Stay thesis was designed to tackle the problem of creating a sterile storage environment for at home use nebulizers. This is specifically for chronic nebulizer users because the consistent use nebulizers without proper cleaning and sterilization can lead to lung infections.

Since this was a device that was meant to be used at home it had to be designed to bled in with the home aesthetic. Nothing is more unsettling that having a medical device in your home for guests to see. The Steri - Stay was designed to mimic a modern home appliance with it's curvilinear form and dynamic movement.

The use of the Steri - Stay is simple to accommodate a wide demographic since nebulizer users span over multiple languages and age groups. The interface consists an On button, two indicator lights to inform the user of the stages of sterilization, and a timer to show when the nebulizer is sterile.

The primary method of sterilization is the use of UV light. The use of UV-C light is germicidal and physically breaks down the DNA of living things. A xenon lamp that emits UV-C light is placed inside of the Steri - Stay to create a sterile environment for nebulizers. The other method used is the used of a clean air flow to reduce the humidity inside while bringing in clean air. This is done with a small intake fan and a HEPA filter.

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Dan Schunder

The LightPods Solar Light System explores how advancements in solar and battery technology could produce an alternative to grid-powered lighting. Designed for off-grid spaces like tiny-homes, the system uses LightPods with a rechargeable battery and LED. A charging base controls and recharges the LightPods, as well as providing feedback on their charging status and remaining battery life. The LightPods are used by inserting them into the included light fixtures, which have controls for the type of light they produce. The fixtures can change between diffused and focused light.

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Dan Schunder

The LightPods Solar Light System explores how advancements in solar and battery technology could produce an alternative to grid-powered lighting. Designed for off-grid spaces like tiny-homes, the system uses LightPods with a rechargeable battery and LED. A charging base controls and recharges the LightPods, as well as providing feedback on their charging status and remaining battery life. The LightPods are used by inserting them into the included light fixtures, which have controls for the type of light they produce. The fixtures can change between diffused and focused light.

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Elena Krupicka

Prossima is a dance footwear solution which assists in injury prevention. The modernized dance sneaker provides dancers with the impact reduction, versatility, and lightweight performance they need to train most effectively. The design focuses on pain points identified by dancers, dance instructors, and podiatrists alike.

Utilizing a compression knit upper and high frequency welded applications, Prossima brings dance sneakers into the realm of modern performance footwear. Prossima is designed to work in conjunction with other dance shoes, such as jazz shoes and barefoot style shoes, to offer added protection in the training setting.

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Custom Tooling
Design Concept
Prossima
The dance sneakers which are currently available on the market are perceived as dated and clunky. Prossima is designed to address dance specific needs for impact reduction, versatility, and lightweight performance, while bringing dance footwear into modern day.
Concept
Two mechanisms for altering the sneaker's fit, from toe to heel and medial to lateral, allow for maximized adjustability when dancers layer clothing, braces, and barefoot shoes along with the Prossima sneaker.
Custom Tooling
The midsole is strategically split to allow full foot articulation and the toes to be pointed. Outsole traction is optimized based on research conducted on basketball shoes, with a targeted approach to grip for landing jumps and minimized friction for turning.
Design Development
The dancers pictured are Emma Stupp and Jessica Kipp of the Jefferson Rhythm and Motion Dance Company.
Injury Prevention Features
Prossima is designed to address common dance injuries, which were cataloged through correspondence with two podiatrists who have worked with dancers, as well as extensive online research. Impact cushioning and support without restriction were the key design criteria.
Prossima - Dance footwear that assists in injury prevention
The original image is credited to Richard Calmes.
Elena Krupicka

Prossima is a dance footwear solution which assists in injury prevention. The modernized dance sneaker provides dancers with the impact reduction, versatility, and lightweight performance they need to train most effectively. The design focuses on pain points identified by dancers, dance instructors, and podiatrists alike.

Utilizing a compression knit upper and high frequency welded applications, Prossima brings dance sneakers into the realm of modern performance footwear. Prossima is designed to work in conjunction with other dance shoes, such as jazz shoes and barefoot style shoes, to offer added protection in the training setting.

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Evan Page

I am a recent Jefferson University graduate. My passion is to use my love of sneakers and soft goods skills to become a talented footwear designer. Until then, I continually seek new projects that challenge my originality, push my soft goods skills, and help me grow new talents!

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Axo-Pak Final Design
Axo-Pak Features
These are the essential features of the Axo-Pak.
Inside Organizer
Each pocket is designed specifically to hold an essential item that a student would typically put in the main compartment of their backpacks such as laptops, notebooks, folders, reading books, and various electronic cords. The heavier the item, the closer it's placed to the student's back.
Weight Breakdown Pt.1
See how the Axo-Pak appropriately distributes the weight of all items in the backpack through both the main and side compartments.
Weight Breakdown Pt.2
With all of the weight being balanced and displaced across multiple parts of the body, less stress is put on the spine and all other areas also have very minimal weight.
Evan Page

I am a recent Jefferson University graduate. My passion is to use my love of sneakers and soft goods skills to become a talented footwear designer. Until then, I continually seek new projects that challenge my originality, push my soft goods skills, and help me grow new talents!

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Jesse Carlino-Threlfall

I am a 2020 graduate of Industrial Design with a concentration in Lighting Design. I have taken a class in Soft Goods and hope to work for a company designing bags, accessories and potentially clothing at some point in my career. I studied abroad in Florence Italy at the University of the Arts and took a Shoe Design Intensive where I learned how to hand make a shoe. While I was studying abroad, I attended the Milan Design Week for a day and got to interact with multiple companies, taking pictures of amazing furniture and talking to owners and staff about their work. For my capstone project, I teamed up with my design partner to create an illuminated reflective running vest called the Night Shield that incorporates two Lux Sensors placed in the front and back, two waterproof LED Light Strips, and 3M Scotchlite reflective fabric. Our design is based off the body of hydration vests, providing a lightweight build and comfort for long running sessions.

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Back Lux Sensor andPocket for Tech Housing
Front View of the Night Shield
Front Lux Sensor, On/Off Switch and Sternum Adjustment Straps
Side View of the Night Shield
Side Adjustment Pull Cord and the Back Lux Sensor
Working Prototype Back View
Live Example of our Capstone Project
Working Prototype Front View in the Dark
Example of the Night Shield with the Lights On
Testing our Working Prototype
The Night Shield with Incoming Headlights
Jesse Carlino-Threlfall

I am a 2020 graduate of Industrial Design with a concentration in Lighting Design. I have taken a class in Soft Goods and hope to work for a company designing bags, accessories and potentially clothing at some point in my career. I studied abroad in Florence Italy at the University of the Arts and took a Shoe Design Intensive where I learned how to hand make a shoe. While I was studying abroad, I attended the Milan Design Week for a day and got to interact with multiple companies, taking pictures of amazing furniture and talking to owners and staff about their work. For my capstone project, I teamed up with my design partner to create an illuminated reflective running vest called the Night Shield that incorporates two Lux Sensors placed in the front and back, two waterproof LED Light Strips, and 3M Scotchlite reflective fabric. Our design is based off the body of hydration vests, providing a lightweight build and comfort for long running sessions.

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Jessica Monteleone & Hannah Smythe

Jessica Monteleone and Hannah Smythe are graduating seniors from the Jefferson University Industrial Design program. They both believe that successful design creates a positive impact on everyday lives, and their design philosophies are similarly focused around form following function. They have both remained on the Dean's List throughout their duration at Jefferson and will both graduate Magna Cum Laude. Jessica has a concentration in Healthcare Design, and Hannah has specialized in Design Visualization.

behance.net/jessicamonteleone

behance.net/hannahsmythe

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Jessica Monteleone & Hannah Smythe

Jessica Monteleone and Hannah Smythe are graduating seniors from the Jefferson University Industrial Design program. They both believe that successful design creates a positive impact on everyday lives, and their design philosophies are similarly focused around form following function. They have both remained on the Dean's List throughout their duration at Jefferson and will both graduate Magna Cum Laude. Jessica has a concentration in Healthcare Design, and Hannah has specialized in Design Visualization.

behance.net/jessicamonteleone

behance.net/hannahsmythe

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Regina Newlin

My capstone project stems from my constant want to iterate solutions for a problem. This mindset is from being told there are many ways to approach something, and get the same result. I observed a problem with items falling to the floor of the car while driving. This is a huge risk for everyone, and saw this as an opportunity to start. As a type of distracted driving, fallen items have a higher chance of an accident, compared to looking at your phone or changing the radio. I began the process with a question, how can I prevent this from happening often?

At the beginning of this academic year, I was very unsure that this was a big issue. I opened this up to consumer feedback, and got a large positive outcome. Many comments solidified the issue as something that we are meant to deal with, but no one really took the time to come up with a better way of securing items. Most of market consisted of gadgets that didn't think of the broad picture of the multitude of items people often drive or travel with. As I designed, the prototypes and sketches I created were from constantly taking a new direction of how to achieve the goal. Inspiration and adding new details allowed for Grasp to change often, and for many options to be tested before settling on a direction to go. Ideas were derived from many markets that I could pull successful details to incorporate. Some of these ideas came from taking a look at car seat cushions, pet accessories, car organizers, seat belts, and even phone cases.

As the weeks progressed, refinement between each major round of design led to the final, a soft good product that would be an addition to your car interior to prevent larger items from falling onto the floor. The paths I went down gave me great experience in the process of critical thinking, and being iterative with details of the overall design. During this project as well, I started off with an idea of doing an aftermarket product, switched to manufacturing design, and back to a product. This loop of progression and story I created with the project also enforced my point of the many ways of solving a problem. Grasp gave me a chance to work on many skills I learned during my education, and opened up my want to work on solving more problems in the future.

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Sketches of Development
A curation of the different stages of the design, and spans from beginning to end of project
Round 3 Prototype
A paper model to measure sizing, and find areas to refine details
Round 4 Prototype
Testing different material choices, and ways of securing items was the main focus
Final Design Unused
To make sure the seat was still functional, Grasp had to lay flat and be sat on by another passenger
Final Design Lunchbox
Lunchboxes, groceries and items without handles were the among the major things people drove with
Final Design Backpack
The most common item that needed to be secured were backpacks and water bottles that were too large
Regina Newlin

My capstone project stems from my constant want to iterate solutions for a problem. This mindset is from being told there are many ways to approach something, and get the same result. I observed a problem with items falling to the floor of the car while driving. This is a huge risk for everyone, and saw this as an opportunity to start. As a type of distracted driving, fallen items have a higher chance of an accident, compared to looking at your phone or changing the radio. I began the process with a question, how can I prevent this from happening often?

At the beginning of this academic year, I was very unsure that this was a big issue. I opened this up to consumer feedback, and got a large positive outcome. Many comments solidified the issue as something that we are meant to deal with, but no one really took the time to come up with a better way of securing items. Most of market consisted of gadgets that didn't think of the broad picture of the multitude of items people often drive or travel with. As I designed, the prototypes and sketches I created were from constantly taking a new direction of how to achieve the goal. Inspiration and adding new details allowed for Grasp to change often, and for many options to be tested before settling on a direction to go. Ideas were derived from many markets that I could pull successful details to incorporate. Some of these ideas came from taking a look at car seat cushions, pet accessories, car organizers, seat belts, and even phone cases.

As the weeks progressed, refinement between each major round of design led to the final, a soft good product that would be an addition to your car interior to prevent larger items from falling onto the floor. The paths I went down gave me great experience in the process of critical thinking, and being iterative with details of the overall design. During this project as well, I started off with an idea of doing an aftermarket product, switched to manufacturing design, and back to a product. This loop of progression and story I created with the project also enforced my point of the many ways of solving a problem. Grasp gave me a chance to work on many skills I learned during my education, and opened up my want to work on solving more problems in the future.

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Zach Montague, Richard Perfetto

Child amputee patients outgrow their prosthesis extremely quickly. This forces children to replace their prosthesis more frequently than desired. This is a problem because a prosthetic is extremely expensive to replace. It is important that a child receive a prosthetic as early as possible to allow the child to become comfortable with it. Our goal was to design an extensible and component-based infant transradial prosthesis in order to increase the products useful life and reduce the amount of replacements needed.

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Armband
We developed an armband to secure the prosthetic to the child's arm. The armband also prevents overgrowth, a common medical condition in child amputees. This is prevented by reducing the pressure on the amputated limb and transferring it to the bicep.
Forearm and Hand
We developed the forearm to extend with the child as they grow, to reduce how often a new prosthetic is needed. The hand is replaceable using TRS Prosthetis' appendages which accommodates for a child's development over time.
Forearm Testing
We tested how the forearm will be assembled together and made sure it all functioned as intended.
In Context Hero
Replaceable Components
We intended for this prosthetic to have as many replaceable components as possible to reduce the amount of times the entire prosthetic needs to be replaced.
Socket Insert Testing
We tested out our concept with the replaceable socket. By allowing for a new socket to be created easily, it can prevent the child from growing out of their prosthetic too quickly.
Zach Montague, Richard Perfetto

Child amputee patients outgrow their prosthesis extremely quickly. This forces children to replace their prosthesis more frequently than desired. This is a problem because a prosthetic is extremely expensive to replace. It is important that a child receive a prosthetic as early as possible to allow the child to become comfortable with it. Our goal was to design an extensible and component-based infant transradial prosthesis in order to increase the products useful life and reduce the amount of replacements needed.

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Zachary Samalonis and Yuhan Zhang

Zachary Samalonis and Yuhan Zhang are emerging Industrial Design professionals, graduating from Thomas Jefferson University in the Class of 2020. They use design as a problem-solving tool to create meaningful design solutions to transform ideas into reality.

Swell was developed through a mutual love for sports and medical design. The project required research into the sport of surfing, body mechanics, and various new forms of prototyping. By developing a strong team of amputee surfers across the globe, Zach and Yuhan were able to validate real-world concerns facing adaptive surfers. Testing with a local amputee, Lance Vargas, allowed them to test various prototypes, gaining key insights on the functions of Swell. It also ensured that they were creating a comfortable, compatible prosthetic and not a "blue sky" one.

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Zachary Samalonis and Yuhan Zhang

Zachary Samalonis and Yuhan Zhang are emerging Industrial Design professionals, graduating from Thomas Jefferson University in the Class of 2020. They use design as a problem-solving tool to create meaningful design solutions to transform ideas into reality.

Swell was developed through a mutual love for sports and medical design. The project required research into the sport of surfing, body mechanics, and various new forms of prototyping. By developing a strong team of amputee surfers across the globe, Zach and Yuhan were able to validate real-world concerns facing adaptive surfers. Testing with a local amputee, Lance Vargas, allowed them to test various prototypes, gaining key insights on the functions of Swell. It also ensured that they were creating a comfortable, compatible prosthetic and not a "blue sky" one.

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