NXTNANO
The Platform · HYPR Spinning™

From polymer to
performance membrane.

HYPR Spinning™ is NXTNANO's proprietary nanofiber platform for turning polymer systems into engineered media and membrane formats for OEM integration.

Figure 00 · Process preview5 stages

Polymer · Spinneret · Stream · Substrate · Roll

Process: figure 01

One process. Five engineered stages.

Scroll through the platform. Each stage activates the diagram on the right, showing what NXTNANO controls at every point between polymer and finished roll.

01

POLYMER INPUT

We engineer the polymer system.

Every HYPR run begins with a polymer system tuned to the fiber diameter, pore structure, and substrate adhesion the application requires, selected from a multi-polymer library that goes far beyond what conventional lab electrospinning can spin.

TPU · PVDF · PAN · PES · PLA · P84 · PEO · protein · collagen

02

SPINNERET

Multi-jet, wide-format laydown.

A proprietary multi-jet spinneret delivers consistent fiber formation across the full working width, at production throughput, not coupon scale.

2.14 m working width · production rate

03

FIBER STREAM

Sub-micron fibers form mid-flight.

As the polymer stream leaves the spinneret it draws out into engineered nanofibers, 50 nm to over 1 µm in diameter, tuned per application by polymer chemistry and process control.

50 nm – 1 µm+ fiber diameter

04

SUBSTRATE ADHESION

Fibers land directly on the substrate.

HYPR achieves direct fiber-to-substrate adhesion: the nanofiber bonds to the carrier nonwoven during deposition. No secondary lamination, no adhesive layer, no extra processing step downstream.

0.1 – 15 GSM basis weight · 0.1 µm – 1 µm+ pore size

05

MEMBRANE / ROLL

Surface coating, scrim, or full membrane.

Finished media is delivered as a surface coating, a lightweight scrim, or a full membrane, wound, slit to spec, and shipped to OEM partners for sample evaluation and integration.

Surface coating · scrim · full membrane

HYPR Spinning™ · Live stateStage 01 / 05

Active: POLYMER INPUT

Platform specs

Precision you can plan a product line around.

Every output spec on the HYPR Spinning™ platform is tunable per customer per product, and reproducible across roll, lot, and line.

Spec ranges describe the platform envelope. Application-specific targets are set during sample evaluation and engineering review.

Fiber diameter

50 nm – 1 µm+

Tuned per polymer system and process control

Basis weight

0.1 – 15 GSM

Light surface coatings to full structural media

Pore size

0.1 µm – 1 µm+

Reproducible across roll, lot, and line

Working width

2.14 m

Wide-format, production-line geometry

Production lines

6 active

Claremore, Oklahoma facility

Adhesion

Direct fiber-to-substrate

No secondary lamination step required

Format

Coating · scrim · membrane

Output engineered to integration model

Polymer library

9+ chemistries

TPU · PVDF · PAN · PES · PLA · P84 · PEO · protein · collagen

Polymer library

Spec the chemistry the duty cycle needs.

HYPR Spinning™ supports a wide polymer library and can combine multiple polymers simultaneously for engineered chemistry not available from conventional methods.

Flexible, durable, soft hand. Hydrophobic or hydrophilic.

Related platforms

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Discuss this material

Polymer behaviors above describe general material direction. Specific application performance requires sample evaluation under your duty cycle.

Method comparison · figure 02

How HYPR sits against the alternatives.

A material-engineering decision tool. Comparison categories describe platform orientation, not application performance. Performance always comes back to the duty cycle and the sample.

NXTNANO Platform

HYPR Spinning™

Scale orientation
Production scale · wide-format
Polymer flexibility
Multi-polymer · simultaneous chemistries
Substrate integration
Direct fiber-to-substrate adhesion
Format flexibility
Surface coating · scrim · full membrane

Lab electrospinning

Scale orientation
Coupon scale · cm-wide
Polymer flexibility
Single polymer per setup
Substrate integration
Typically requires secondary lamination
Format flexibility
Limited by laboratory setup

Meltblown

Scale orientation
Production scale
Polymer flexibility
Thermoplastic chemistries only
Substrate integration
Carrier integration varies
Format flexibility
Coarser fiber regime: typically >1 µm

Cast film

Scale orientation
Production scale
Polymer flexibility
Often relies on fluorinated chemistries
Substrate integration
Discrete film, separate integration step
Format flexibility
Pore structure limited by phase inversion

Comparison reflects general platform orientation. Application performance always depends on duty cycle, target standard, and sample evaluation.

Application pathway

Bring the duty cycle.
We'll help evaluate the material path.

From sample request to integration spec. Start anywhere and we'll route you to the right engineer.

(918) 923-4824 · sales@nxtnano.com