No quantitative performance metrics were disclosed, but X9 reported successful first-in-human feasibility of its handheld ultrasound-guided, power-assisted needle insertion system for arteriovenous fistula cannulation in hemodialysis patients. All procedures were completed by a single local nephrologist after brief device training, using standard disposable dialysis needles, with the company indicating consistent vessel alignment and accurate needle placement under real-time machine learning guidance.

The feasibility study was conducted with the Ethics Committee’s approval at the Territorial Medical Association of the Yangiyul district in Uzbekistan. The device integrates ultrasound imaging, algorithmic vessel detection, and power-assisted needle advancement into a single-handed workflow, aiming to reduce reliance on visual ultrasound interpretation and on a two-handed technique. It builds on the company’s previously 510(k)-cleared ultrasound-only platform and is intended to slot into existing dialysis workflows without changing needle supply. The company framed these results as the basis for expanded clinical evaluation.

Strategically, this positions X9 to standardize a procedure that has long been constrained by operator experience and staffing variability. Dialysis providers face persistent turnover and skill mix challenges, and cannulation errors drive access complications, chair-time disruptions, and downstream interventions. A guided, power-assisted approach is a bid to shift performance from artisanal technique to reproducible process. Choosing an ex-U.S. first-in-human site likely reflects a speed-to-evidence calculus, while the U.S. regulatory path for an AI-enabled, power-assisted cannulation device remains unclear. If no explicit predicate exists for the combined functionality, a De Novo classification could be required, making early validation strategy and human factors work central to timelines. Leveraging standard needles and a familiar form factor signals an adoption play focused on minimizing operational friction and avoiding new consumables.

For dialysis operators and research sites, the implications are practical. If guidance accuracy is consistent across users, training and competency models could be reconfigured around device proficiency rather than deep ultrasound expertise. Sites would need to address human factors, cleaning and sterile barriers, device maintenance, and integration into existing access assessment workflows. Software governance becomes material: cybersecurity, update cadence, and any predetermined change control plan for the machine learning model will draw regulatory scrutiny. CROs with device and outpatient dialysis capability may see demand for pragmatic, high-throughput studies that capture first-attempt success, infiltration rates, cannulation time, and downstream access events. Ultrasound and needle vendors may face new partnership dynamics as clinics prefer integrated, ruggedized solutions over standalone add-ons.

The immediate marker to watch is a multicenter trial with objective, clinically meaningful endpoints: first-stick success, infiltration and hematoma rates, time-to-cannulation, patient-reported pain, and access survival over set intervals. U.S. progression will likely require an IDE and a comprehensive validation package demonstrating algorithm generalizability across access types, depths, and operator profiles. Commercial viability will hinge on economics under the ESRD Prospective Payment System; large dialysis organizations will demand evidence that the device reduces interventions, chair-time variability, and hospitalization risk enough to justify capital and training costs. Open questions include the durability of performance outside controlled settings, liability allocation when algorithmic guidance is involved, and whether the system’s benefits persist amid real-world turnover and throughput pressures. Watch for U.S. site participation, rigor of comparator arms, clarity on the regulatory pathway, and early signals of procurement interest from major dialysis chains.

Source link: https://www.globenewswire.com/news-release/2025/11/12/3186238/0/en/X9-Inc-Announces-Successful-Completion-of-First-in-Human-Feasibility-Study-for-Ultrasound-Guided-Power-Assisted-Needle-Insertion-Device-in-Hemodialysis-Cannulation.html

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Jon Napitupulu is Director of Media Relations at The Clinical Trial Vanguard. Jon, a computer data scientist, focuses on the latest clinical trial industry news and trends.