MicroAire ZS-340 Micro Sagittal Saw Blade 9.5mm x 41mm x 0.5mm

MicroAire ZS-340 Micro Sagittal Saw Blade 9.5mm x 41mm x 0.5mm

• Model: ZS-340
• Blade Type: Micro sagittal saw blade
• Compatibility: Designed to fit MicroAire “Hall‑Style” sagittal saw modules
• Dimensions: 9.5mm x 41mm x 0.5mm

The ZS‑340 micro sagittal saw blade is a precision surgical cutting blade engineered for fine osteotomies (bone cuts) in delicate or constrained anatomical regions. With a width of 9.5 mm and a length of 41 mm, it offers a relatively broad cutting surface compared to ultra‑narrow micro blades, yet remains compact enough for minimally invasive or constrained surgical contexts. Its 0.5 mm thickness balances strength (resistance to bending or deflection under load) with minimal kerf (i.e. minimal wastage of bone tissue), allowing clean cuts while preserving as much structural integrity as possible.

Because it is built for MicroAire’s sagittal saw systems, the ZS‑340 integrates into power handpieces that oscillate the blade laterally (side-to-side), enabling controlled bone cutting with high tactile feedback. The blade’s dimensions and geometry permit efficient bone resection, smoothing, or contouring while maintaining fine control over the cut path. The moderate width also helps avoid excessive vibration or chatter during cutting, improving surgeon control, especially in small fields or when working close to vital structures.

In clinical use, this blade is well suited for applications in orthopedics, hand/foot surgery, spinal surgery, or microscopic bony procedures (e.g. small joint work) where the surgeon needs a somewhat larger cutting surface but cannot sacrifice precision. The combination of sterile, single-use construction (to ensure maximum sharpness and reduce risk of fatigue or damage from sterilization cycles) and compatibility with standard sagittal saw modules makes it a practical choice in settings where clean, reproducible bone cuts are required. Its dimension profile — not too wide, not too narrow — gives it versatility across moderate-demand bone cutting tasks in constrained operative fields.