Molecule

TPLCE_3.8V_25F_Hybridcapacitor

TPLCE_3.8V_25F_Hybridcapacitor

NSFLatest StablePhoto3D Model
supercapacitor
PhotographDigital Twin
Creator Ray
Version 1.0.0
Created 2025-10-15
Availability 100%, 24/7
In Stock 4 units
Assets 3 files
⚡ Install this molecule

Paste this into Claude Code (VS Code panel, Adom editor, or terminal) to install:

Search the Adom Wiki for the molecule "TPLCE_3.8V_25F_Hybridcapacitor" (slug: tplce-3-8v-25f-hybridcapacitor-400000) at https://wiki-ufypy5dpx93o.adom.cloud/wiki/molecules/tplce-3-8v-25f-hybridcapacitor-400000. Download its symbol (.kicad_sym), footprint (.kicad_mod), and 3D model (.glb/.step) assets into my current KiCad project under symbols/, footprints/, and 3dmodels/ directories. Register them in the project library tables. Show me the files once installed.

The TPLCE 3.8V 25F Hybrid Capacitor Molecule integrates an advanced energy storage device into our modular prototyping platform. This molecule is built around a hybrid Lithium-Ion Capacitor (LIC), which uniquely bridges the performance gap between traditional batteries and electric double-layer capacitors (EDLCs). It offers a significant 25 Farads of capacitance combined with a high nominal voltage of 3.8 Volts, providing substantially greater energy density than a standard ultracapacitor of similar size. By incorporating this molecule, our automated environment can programmatically test and validate next-generation circuits designed for applications such as long-duration power holdup, peak power assistance, and high-efficiency energy harvesting, enabling the rapid characterization of systems that demand both high power delivery and robust energy storage.

NSF Relevance

This hybrid capacitor molecule provides a critical enabling technology for a new class of autonomous scientific instruments. Many frontier research areas, from environmental monitoring to implantable bioelectronics, depend on devices that must operate unattended for long periods, often relying on harvested energy. These instruments face a fundamental power dilemma: they need the high energy storage of a battery to survive long "sleep" cycles but also the high power delivery of a capacitor for "awake" tasks like sensing and wireless transmission. This molecule directly solves that compromise. By integrating a component with both high energy and high power density into an automated platform, it allows researchers to rapidly prototype and validate complete, self-sustaining power systems. This drastically shortens the development time for next-generation, "deploy-and-forget" sensors, enabling long-term, high-resolution data collection from previously inaccessible environments.

Science Drivers

supercapacitor

Created by: noah Version: v1 Category: other

Description

Edit AI Skill

The TPLCE 3.8V 25F Hybrid Capacitor Molecule integrates an advanced energy storage device into our modular prototyping platform. This molecule is built around a hybrid Lithium-Ion Capacitor (LIC), which uniquely bridges the performance gap between traditional batteries and electric double-layer capacitors (EDLCs). It offers a significant 25 Farads of capacitance combined with a high nominal voltage of 3.8 Volts, providing substantially greater energy density than a standard ultracapacitor of similar size. By incorporating this molecule, our automated environment can programmatically test and validate next-generation circuits designed for applications such as long-duration power holdup, peak power assistance, and high-efficiency energy harvesting, enabling the rapid characterization of systems that demand both high power delivery and robust energy storage.

NSF Relevance

NSF

This hybrid capacitor molecule provides a critical enabling technology for a new class of autonomous scientific instruments. Many frontier research areas, from environmental monitoring to implantable bioelectronics, depend on devices that must operate unattended for long periods, often relying on harvested energy. These instruments face a fundamental power dilemma: they need the high energy storage of a battery to survive long "sleep" cycles but also the high power delivery of a capacitor for "awake" tasks like sensing and wireless transmission. This molecule directly solves that compromise. By integrating a component with both high energy and high power density into an automated platform, it allows researchers to rapidly prototype and validate complete, self-sustaining power systems. This drastically shortens the development time for next-generation, "deploy-and-forget" sensors, enabling long-term, high-resolution data collection from previously inaccessible environments.

3D Model

Files

Download ZIP
3D TPLCE_3.8V_25F_Hybridcapacitor.glb 3D Model

AI Skill Technical Reference

Edit AI Skill

TPLCE_3.8V_25F_Hybridcapacitor

Type: Adom Molecule Creator: noah Version: v1 Category: other Availability: 100%, 24/7

Overview

The TPLCE 3.8V 25F Hybrid Capacitor Molecule integrates an advanced energy storage device into our modular prototyping platform. This molecule is built around a hybrid Lithium-Ion Capacitor (LIC), which uniquely bridges the performance gap between traditional batteries and electric double-layer capacitors (EDLCs). It offers a significant 25 Farads of capacitance combined with a high nominal voltage of 3.8 Volts, providing substantially greater energy density than a standard ultracapacitor of similar size. By incorporating this molecule, our automated environment can programmatically test and validate next-generation circuits designed for applications such as long-duration power holdup, peak power assistance, and high-efficiency energy harvesting, enabling the rapid characterization of systems that demand both high power delivery and robust energy storage.

Science Drivers

  • supercapacitor

NSF Relevance

This hybrid capacitor molecule provides a critical enabling technology for a new class of autonomous scientific instruments. Many frontier research areas, from environmental monitoring to implantable bioelectronics, depend on devices that must operate unattended for long periods, often relying on harvested energy. These instruments face a fundamental power dilemma: they need the high energy storage of a battery to survive long "sleep" cycles but also the high power delivery of a capacitor for "awake" tasks like sensing and wireless transmission. This molecule directly solves that compromise. By integrating a component with both high energy and high power density into an automated platform, it allows researchers to rapidly prototype and validate complete, self-sustaining power systems. This drastically shortens the development time for next-generation, "deploy-and-forget" sensors, enabling long-term, high-resolution data collection from previously inaccessible environments.

Integration Guide

To use TPLCE_3.8V_25F_Hybridcapacitor in your design:

  1. Download the schematic symbol and PCB footprint from the Files section
  2. Import into your EDA tool (KiCad or Fusion 360 / EAGLE)
  3. Place the molecule in your schematic and connect the interface pins
  4. Use the 3D model (.glb) for mechanical fit verification

Design Notes

Board design files (.brd, .sch, .f3d) are available for modification and reference.

Sub-Skills
?
What are Sub-Skills?

Sub-skills are community-contributed AI skill extensions for this component. They teach AI assistants about specific tools, configurators, or workflows.

Examples:

  • A manufacturer’s configuration tool for a motor controller
  • A community-written design guide for an amplifier circuit
  • An automated test/validation script for a sensor module

How to add one: Click Add Sub-Skill, provide the URL to your skill and a brief description. Submissions are reviewed by the Adom team before going live.

No sub-skills yet. Be the first to contribute one!

0 revisions · Molecule #7553480201929400000 · Updated 2026-03-02 17:31:36