Boston Scientific M00552400 Endobronchial Ultrasound Fine Needle Biopsy Device

Boston Scientific M00552400 Endobronchial Ultrasound Fine Needle Biopsy Device

• Model: M00552400
• Gauge & Size: 25 Ga (~0.72 mm outer diameter)
• Sheath Outer Diameter: Approximately 1.4 mm
• Minimum Working Channel Requirement: 2.0 mm — designed to fit through standard EBUS bronchoscopes

In Original Manufacturer's Packaging - Undamaged, Inner Packaging Sterile (IOMPB-UPS): This medical supply or implant item is securely packaged within its original manufacturer's packaging, which remains undamaged. The inner and outer packaging is intact, ensuring the product's integrity and suitability for medical use.

The Acquire™ Pulmonary EBUS‑FNB Device (Model M00552400) is a premium fine needle biopsy instrument crafted for enhanced sampling of lung and mediastinal lesions during endobronchial ultrasound-guided procedures. With a 25-gauge profile, it navigates the challenges of bronchoscope channels as small as 2.0 mm, while the narrow 1.4 mm sheath maintains flexibility and procedural ease. Designed specifically for compatibility with Olympus EBUS systems, it integrates smoothly into existing pulmonary diagnostic workflows.

At its core, the device's Franseen tip architecture—featuring three-point puncture stability and fully formed cutting heels—delivers markedly improved tissue acquisition over conventional FNA needles. This design ensures robust core samples with minimal fragmentation, reportedly giving up to 20× more tissue per pass. This capability is particularly valuable for diagnosing lymph nodes in lung cancer staging or sampling disorders like lymphoma and sarcoidosis via the tracheobronchial wall.

As a sterile, single-use, prescription-only device currently in commercial distribution, the Acquire™ Pulmonary EBUS‑FNB is intended to elevate diagnostic yield while simplifying procedural workflow. Whether deployed for staging, diagnosing, or guiding therapeutic decisions in pulmonary care, this device provides clinicians with improved sample quality and procedural reliability.