BISHSTIM

GOAL

To develop a bio-plasma-infused wearable garment that integrates PEMF (Pulsed Electromagnetic Field) technology to enhance body conductivity and promote healing by targeting specific meridian and nerve points to balance the autonomic nervous system.

OBJECTIVES

•   Design and prototype a wearable shirt that incorporates bio-plasma-infused copper-knit textiles to amplify PEMF signals.
•   Develop detachable PEMF electrodes placed on targeted meridian and nerve points for therapeutic benefits.
•   Ensure waterproofing and durability of the bio-plasma-infused copper to maintain conductivity over time.
•   Design and program the circuit system using the Adafruit Flora board to control PEMF signals efficiently.
•   Research and develop a salt-soluble bio-plasma liquid to infuse into the textile.
•   Source and test appropriate sealing materials to ensure longevity and washability.
•   Document the entire development process for future scalability and iteratio

SCOPE

BY WHO: Developed by Elizabeth Cochrane, Fabricademy participant. WHAT: A wearable garment using bio-plasma-infused copper textiles combined with PEMF technology to promote holistic well-being.

WHY: To explore the integration of bioelectromagnetic therapies into wearable technology for improving nervous system function and healing.

WHEN: First prototype ready for the midterm, Exhibition sample completed within one month, Final presentation at the end of March.

WHERE: Targeting specific nerves or pressure points in the body, such as the vagus and median nerves, and meridian points related to blood circulation, heart, lungs, and kidneys.

FOR WHO: Individuals looking for innovative, non-invasive wellness solutions, including biohackers, athletes, and those with autonomic nervous system imbalances.

HOW: By combining bio-plasma-infused copper wire/textiles with PEMF electrode technology controlled through an Adafruit Flora board, focusing on targeted nerve and meridian points.

GANTT

PROJECT BOUNDARIES

Realistic Scope

•   Focus on creating a functional first prototype with core PEMF and bio-plasma integration.
•   Advanced features like real-time biofeedback will be considered for later development.
•   Prioritize essential components and realistic testing within the available timeline.
•   Waterproofing and sealing tests may continue after the program’s completion.

Milestones

•   Prototype sample in 1 month for exhibition.
•   Functional version with sealed materials by March.
•   Final product refinement and testing in the future.

Challenges Along the Way

During the project I faced several issues that slowed progress. Material sourcing was difficult since some conductive materials and bioplasma components were delayed or too expensive, forcing substitutions. The embroidery on soluble fabric was tricky, with thread breakage and spirals collapsing after dissolving, so I had to adjust stitch density. Circuit prototyping also brought problems with unstable connections and debugging the AD9833 signal generator. Finally, integrating the electronics into the shirt required experimenting with electrode placement and connectors to ensure stability without losing flexibility.

PROFESSIONAL ACHIEVEMENT

A PAIN FREE LIFESTYLE

This project serves as a stepping stone towards developing innovative wearable bioelectromagnetic solutions for wellness and healthcare. Potential to collaborate with tech, biohacking and medical communities to further validate and commercialize the product. Skill development in smart textiles, bioelectromagnetics, and embedded electronics. Exploring new applications for wearable healing technologies in the wellness and sports industries.

DESIGN & FABRICATION

SKETCHES

PROTOTYPES

PATTERN

Started drafting pattern. Will transfer onto rhino to resize properly and redraft onto cardstock before adjusting and finishing. Muslin Mock up

Started concepualizing shapes of copper to be infused. FIO if copper tubing to go over top of wire circuit or woven patches to be integrated into the garment as a layer.

The copper will need to be sealed with silicone or other bio materials (Anastasia suggested a glycerin based bio seal so we will test that), so flexibility and comfortability will be the most important when deciding on the copper structure.

Seperating Circuits by pattern.

SIZING THE TOP

FABRIC

Muslin for the initial mockup of shirt to get design idea and sizing. Tested the fit on a polyester fabric to see fit before sewing final version. Prototype fabric is a blend of 96% organic cotton + 4% elastine for stretch and moveability. Using organic fabric is important to avoid endocrine disruption. To add texture and aesthetic to the garment while also keeping the circuit and electrodes hidden, I used [CLOTHO](https://clotho.it/about/) fabric, an EMF shielding textile made from a blend of organic cotton and stainless steel.

@garden_variety_jess Replying to @Amellia Soto Here are the benefits of wearing wool or linen. I am putting together notes for yall so stay tuned. 😇 #fabricfrequency #frequencyoffabrics #wool #linen #woolandlinen #highfrequency #resonantfrequency ♬ original sound - Jessica Chasteen

DESIGN

The bioplasma is infused into conductive thread with a gelatine bioplastic recipe which acts as the electrode. The bioplasma electrode is attached to the circuit by snap ons to meet the control board. The control board is detachable so the garment can be washed and the battery can be recharged easily.

BIOPLASMA PROCESS

WATCH ME MAKE BIOPLASMA

@bishgosh cooking up a batch of fresh bioplasma💦💦 it’s soooo conductive !!! yay me⭐️⭐️⭐️ #bioplasma #biodesign #biomaterials #textiles #fashiondesigner #bio #electric ♬ Let him cook x Imperius on all platforms - Caleb

INGREDIENTS

IONIZED MINERALS ~Electrolytes~

- Magnesium Chloride (MgCI2): enhances nerve function and cellular energy.

- Potassium Chloride (KCI): balances electrical gradients in cells.

- Himalayan or Sea Salt (NaCI + Trace Minerals): Provides sodium, chloride and trade elements.

CONDUCTIVE PARTICLES

- Colloidal Silver or Gold or Copper: Natural conductors that support ion transfer.

- Shungite Nanoparticles: Natural carbon with conductivity and EMF-absorbing properties.

Plasma-Activated Water ~Structured Water~ - Created by vortexing to structure it.

Organic Stabilizers - Aloe Vera Gel.

INFUSION PROCESS

TENS PROCESS

FREQUENCIES

Dolphin Neurotism device outputs about ~1.7hz.

BISHSTIM has 9 frequency output options which cover all 7 Chakras and all 9 Selfeggio Frequencies.

- 174 Hz: Ground: Relieves pain & stress 
- 285 Hz: Repair: Heals tissue & organs 
- 396 Hz: Release: Liberates fear & guilt
- 417 Hz: Transform: Facilitating change 
- 528 Hz: Miracle: DNA repair
- 639 Hz: Reconnect: Relationship healing & communication
- 741 Hz: Awakens: Promotes intuition & self-expression
- 852 Hz: Rest: Deepens meditation & promotes spiritual awareness
- 963 Hz: Growth: Opens crown chakra, connects to the divine

ELECTRODES

Sketch Imagine the blue is the bioplasma coating. It will all be sealed in a bio material waterproof coating.

BIOPLASTIC ELECTRODE

@bishgosh new set of bioplasma infused electrodes x #biomaterials #electro #bioplasma #pemf ♬ she was a fairy - ⋆. 𐙚 ̊Dee ❀

The goal of this process was to create bioplastic-based electrodes that could embed conductive thread spirals and maintain both flexibility and conductivity when integrated into the BISHSTIM garment.

RECIPE TESTING

I began by testing different bioplastic recipes using natural ingredients such as glycerin, starch, and bioplasma additives. The goal was to find a mixture that was flexible enough to move with the garment, but durable enough to hold the conductive thread spiral in place without cracking.

CLAY MOLD PROTOTYPING

To hold the spiral shape of the conductive thread, I first created molds with air-dry clay. These were fired in the kiln to harden them. The clay molds allowed me to experiment with electrode shapes and how the thread could be positioned inside before casting.

CONDUCTIVE THREAD PLACEMENT

The conductive thread was arranged in a spiral pattern inside the mold and taped down to secure it. This step was essential because the thread tension often caused the spiral to shift or lift out of the mold. Keeping the spiral fixed ensured that once the bioplastic was poured, the electrode would generate a stable magnetic field. fire the clay molds

3D MOLD DESIGN & PRINTING

After testing with clay molds, I designed more precise molds digitally in Rhino and printed them using the Bambu 3D printer. The first versions had orientation issues (backwards and not circular), so I had to reprint multiple times until the molds matched the electrode design. Additional outer-layer molds were also printed to prepare for silicone waterproofing.

POURING THE BIOPLASTIC

The bioplastic mixture was then poured into the mold, fully embedding the conductive spiral. Air bubbles frequently formed during this step, so I had to pop them immediately to avoid weak spots or gaps in the cured material.

CURING & DEMOLDING

Once poured, the bioplastic needed time to cure. This stage was challenging, as the electrodes often broke or stuck to the mold, especially with the 3D-printed versions. I experimented with different release methods but found that gelatin-based recipes worked better than starch bioplastics for easy removal.

GELATINE TRIALS

Since the starch-based bioplastics were brittle and difficult to demold, I tested gelatin-based bioplastics. These had a smoother finish and greater elasticity, which made them more convincing for wearable integration. At this point, I began comparing the potential of embroidered electrodes vs. cast bioplastic electrodes for stability and comfort.

✦ Key Challenges

Thread tension: Conductive thread often snapped or overlapped when set into spirals.

Mold orientation: Several 3D prints had to be redone due to incorrect mirroring or sizing.

Demolding: Bioplastics frequently broke when removed from molds, leading to a switch to gelatin mixes.

Air bubbles: These weakened the electrodes if not removed quickly during pouring.

EMBROIDERED ELECTRODE

I designed the spiral in Rhino and converted it into a machine-readable embroidery file. Using the embroidery machine, the spiral was stitched with conductive thread onto water-soluble fabric. Once the machine completed the design, I cut the excess fabric around the spiral to form a circle-shaped electrode. I then tested the electrode with a multimeter to ensure the conductive threads had not crossed and would not short circuit inside the garment. The spiral remains fixed on the soluble fabric with regular thread, which holds the conductive thread in place so the electrode maintains its shape and an active magnetic field. The main issue I encountered during this process was thread tension, which sometimes caused the conductive thread to snap or overlap.

Final Result – The spiral maintained its structure, forming a clean spiral.

@bishgosh BISHSTIM electrodes in the making !! I embroider conductive thread into spirals to create a magnetic field inside the electrode pad to promote healing and emf output. #embroidery #sewing #design #electrode #spiral ♬ original sound - Kinder

FABRICATION FILES

• 🔗 3D Mold
• 🔗 Molds
• 🔗 More Molds
  

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