Electrospinning machines & nanofiber research partner — Made in Indonesia
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What is electrospinning?

Electrospinning technology: how it works.

Learn how electrospinning turns a polymer solution into nanofibers — from Taylor cone formation to fiber collection — and the parameters that control the result.

Taylor coneProcess parametersApplications
Nanometer scaleFibers far finer than a human hair
The principle

Electricity, not mechanics, draws the fiber.

Electrospinning uses a strong electric field to pull a charged polymer solution into an extremely thin jet. As the jet travels to a grounded collector, it stretches and the solvent evaporates, leaving continuous solid fibers with diameters typically from tens of nanometers to a few micrometers.

nm – µm

Typical fiber diameter range

High

Surface-area-to-volume ratio

Porous

Interconnected nonwoven structure

Tunable

Morphology via process parameters

How electrospinning works

The process, step by step

Four physical stages turn a droplet into a nanofiber mat.

HV SUPPLY+ 5 – 30 kV 1Solution feedingA syringe pump delivers polymer solution at a controlled flow rate.2Taylor cone formationHigh voltage charges the droplet until it deforms into a cone.3Jet whipping & stretchingThe charged jet bends and stretches; solvent evaporates in flight.4Nanofiber collectionDry fibers deposit on a grounded plate or rotating drum as a mat. SCHEMATIC · NOT TO SCALE
Process parameters

Three groups of variables shape every fiber

Small changes in any parameter can shift fiber diameter, bead formation and alignment.

Solution parameters

  • Polymer concentrationviscosity
  • Molecular weightentanglement
  • Conductivitycharge density
  • Surface tensionbead formation
  • Solvent volatilitydrying

Process parameters

  • Applied voltagecone stability
  • Flow ratefiber diameter
  • Tip-to-collector distanceflight time
  • Needle gaugejet size
  • Collector typealignment

Ambient parameters

  • Relative humidityporosity
  • Temperatureevaporation
  • Air flowjet path
  • Enclosurestability
  • Groundingsafety
Electrospinning setups

Common configurations

Single-needle

The standard laboratory configuration — ideal for material screening and parameter studies.

Coaxial

Two concentric needles create core–shell fibers, useful for encapsulation and controlled release research.

Rotating collector

A spinning drum or mandrel aligns fibers for anisotropic mats and tubular scaffolds.

Ready to try electrospinning?

Explore SpinTech SE or book a live demo to see each parameter in action.

FAQ

Frequently asked questions

Can't find what you need? Our team responds within one working day.

What is a Taylor cone?

The conical shape a charged droplet takes when electrostatic forces balance surface tension; a jet is emitted from its tip.

Why do beads form on fibers?

Beads often appear when solution viscosity is too low or surface tension too high relative to the electric field.

Can electrospinning produce aligned fibers?

Yes — rotating drums or parallel-electrode collectors can align fibers.

Which polymers can be electrospun?

Many synthetic and natural polymers, including PVA, PAN, PCL, PVDF, nylon, gelatin and chitosan blends.

Get in touch

Talk to our nanofiber team

Tell us about your material, application or research question — we will recommend the right next step.

  • Equipment, rental or R&D collaboration
  • Indonesian & English support
  • Confidential discussions welcome
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