Expanding Upon the Single-Use Paper Battery Prototype Using a Biodegradable Encasing With a Pull-Tab Activation Technique for Simplified Use
School Name
Spring Valley High School
Grade Level
10th Grade
Presentation Topic
Engineering
Presentation Type
Non-Mentored
Abstract
Poulin et al. (2022) have developed a water-activated paper battery model which uses a paper substrate with conductive inks consisting of a zinc-based anode, graphite-based cathode, and carbon-based current collector, activating on contact with water (2022). Increases in electronic waste show it is crucial to transition to clean energy. As such, the paper battery is entirely biodegradable, with an infinite shelf life until contact with water. The research aimed to improve the model for practicality and ease of use. The original design depicts the paper substrate with the conductive inks applied, with an external water source for activation. The method of improvement was to develop a biodegradable casing with a pull-tab that would separate the paper substrate from an internal water source, allowing for simple activation. It was hypothesized that these improvements would result in a similarly efficient battery that is better developed for practical applications. Two paper batteries were constructed according to the methods described in the original study (Poulin et al., 2022), and the biodegradable casing was 3D printed using algae-based filament. Both batteries were tested for current potential (V), and a two-tailed, paired z-test was performed. It was determined that the improved battery had a significantly lower potential, with a 5.7% decrease compared to the original battery. Conductive inks were not stencil printed, leading to variability in output measurements based on contact position of the measurement nodes used for measurement. Results indicate that while effective, the improved model will have to be produced through additive manufacturing in order to maximize efficiency.
Recommended Citation
Hussain, Shayan, "Expanding Upon the Single-Use Paper Battery Prototype Using a Biodegradable Encasing With a Pull-Tab Activation Technique for Simplified Use" (2023). South Carolina Junior Academy of Science. 63.
https://scholarexchange.furman.edu/scjas/2023/all/63
Location
BS 329
Start Date
3-25-2023 11:30 AM
Presentation Format
Oral and Written
Group Project
No
Expanding Upon the Single-Use Paper Battery Prototype Using a Biodegradable Encasing With a Pull-Tab Activation Technique for Simplified Use
BS 329
Poulin et al. (2022) have developed a water-activated paper battery model which uses a paper substrate with conductive inks consisting of a zinc-based anode, graphite-based cathode, and carbon-based current collector, activating on contact with water (2022). Increases in electronic waste show it is crucial to transition to clean energy. As such, the paper battery is entirely biodegradable, with an infinite shelf life until contact with water. The research aimed to improve the model for practicality and ease of use. The original design depicts the paper substrate with the conductive inks applied, with an external water source for activation. The method of improvement was to develop a biodegradable casing with a pull-tab that would separate the paper substrate from an internal water source, allowing for simple activation. It was hypothesized that these improvements would result in a similarly efficient battery that is better developed for practical applications. Two paper batteries were constructed according to the methods described in the original study (Poulin et al., 2022), and the biodegradable casing was 3D printed using algae-based filament. Both batteries were tested for current potential (V), and a two-tailed, paired z-test was performed. It was determined that the improved battery had a significantly lower potential, with a 5.7% decrease compared to the original battery. Conductive inks were not stencil printed, leading to variability in output measurements based on contact position of the measurement nodes used for measurement. Results indicate that while effective, the improved model will have to be produced through additive manufacturing in order to maximize efficiency.