16300 3,7V Lithiumkondensator-Batterie

Lithium Capacitor Battery Structural Overview

Engineers design the lithium capacitor battery (16300, 3.7V class) using a hybrid electrochemical architecture that integrates lithium-ion electrode chemistry with capacitor-type charge behavior. First, they arrange cathode foil, anode foil, and a microporous separator into a layered strip, and they wind the structure into a compact cylindrical core under controlled tension. Meanwhile, they maintain precise alignment throughout the winding stage to ensure uniform layer distribution. After that, technicians insert the rolled assembly into a rigid metal casing and stabilize its internal geometry before electrolyte injection begins.

Materialzusammensetzung und elektrochemisches System

Manufacturers coat lithium metal oxide compounds onto aluminum foil to form the cathode layer, while they apply graphite-based slurry onto copper foil to construct the anode layer. In addition, they introduce a PP/PE multilayer separator that supports ion transport while preventing direct electrode contact. Furthermore, they prepare a lithium salt electrolyte dissolved in organic carbonate solvents, and they strictly control moisture levels to maintain chemical stability. Meanwhile, the cylindrical housing uses aluminum alloy or steel material to ensure mechanical rigidity and sealing reliability during processing.

Electrode Fabrication and Winding Process

Technicians begin slurry preparation by mixing active powders, conductive additives, and polymer binders into a homogeneous mixture. Then, they coat the slurry onto metallic foils using precision coating equipment and dry the electrodes under staged thermal conditions. Subsequently, they apply calendaring pressure to control electrode density and surface uniformity. After cutting the foils into narrow strips, they feed them into automated winding machines to form a tightly packed spiral core. At the same time, they weld electrode tabs using ultrasonic or resistance methods to ensure stable electrical connections.

Formation Cycling and Industrial Standard Control

Engineers initiate formation cycling to activate electrochemical reactions and stabilize interfacial layers within the cell. Then, they conduct aging tests under controlled temperature environments to evaluate voltage stability and impedance behavior. Finally, quality teams perform dimensional inspection, internal resistance measurement, and sealing verification. Throughout production, manufacturers follow IEC 62133 and UN38.3 standards, ensuring structural integrity, electrical consistency, and transport safety compliance for lithium capacitor battery manufacturing.

Produktmerkmale

1. 🛠️ Anpassbar
   Anpassbar, um Kundenanforderungen zu erfüllen
2. ⚡ Hochleistung
   Maximal 20°C verfügbare Entladungsrate
3. ⏱️ Lange Zykluszeit
   Erfüllt langfristige Produktnutzungsbedürfnisse
4. 🛡️ Hohe Sicherheit
   Umfassende Sicherheitstests bestanden
5. 🔋 Wahre Nennkapazität
   Entspricht der Produktdesignkapazität
6. ⚛️ Multi-Chemie-Optionen
   Deckt LCO-, NCM-, NCA- und LFP-Systeme ab
7. 🧰 Mehrfachschutzmechanismus
   Eingebaute Schutzplatte mit Überladungs-, Überentladungs-, Überstrom- und Kurzschlussschutz

Produktanwendungsgebiete

Dieses Produkt eignet sich für eine Vielzahl tragbarer und elektrischer elektronischer Geräte mit typischen Anwendungen darunter:

• Körperpflege & Gesundheit: Elektrische Zahnbürsten, Schönheitsgeräte, Fitnesstracker, medizinische Geräte

• Smart Digital & Audio: Kopfhörer, Lautsprecher, Vernebler, Spielzeug, Lichter

• Finanzzahlung & Büro: POS-Maschinen, USB-Token, tragbare Drucker