by Inventeur, LLC.

AIM - Direct Pharyngeal Oxygenation

The AIM bite block integrates oxygenation, capnography, airway rescue, and rapid conversion to general anesthesia into one optimized sedation device.

AIM Anesthesia Intraoral Module - Direct Pharyngeal Oxygenation Device

The problem with oxygen delivery during sedation

Non-operating room anesthesia (NORA) is the fastest-growing segment in anesthesia,[1] but oxygen delivery and patient monitoring haven't kept pace with the increasingly complex procedures and higher-risk patients.

Nasal cannulas

Limited FiO2 control. Unreliable CO2 monitoring in patients with oral breathing which is most common while sedated.

Face masks

Max FiO2 around 60%. Masks block airway rescue access and interfere with endoscopy and oropharyngeal procedures.

High Flow Nasal Cannula

Specialized high-flow O2 equipment increases cost, complexity, and fire risk. Very limited capnography.

AIM solves this.

A single intraoral device that delivers direct pharyngeal oxygenation with integrated CO2 sampling from pre-sedation through recovery.

  • >96% FiO2 comparable to high-flow nasal cannulas at a fraction of the cost and complexity[2]
  • No-gag design allows oxygenation before sedation and in recovery
  • Reliable end-tidal CO2 waveform for continuous monitoring
  • Oral cavity access for EGD/TEE scope placement, yankauer suctioning, and airway rescue
  • Designed for high-risk, ASA III and IV patients
  • MRI Safe

What clinicians are saying

With oxygen delivery comparable to the high-flow cannula, but at a fraction of the cost and without the cumbersome setup, AIM is ideal for the NORA setting.

M. Zales, MD

I recently used AIM on a morbidly obese patient undergoing endoscopy. Despite the challenging body habitus, oxygen saturation stayed 100% throughout the procedure. The reliability in this high-risk setting was impressive and clinically reassuring.

M. Blevins, CAA

AIM gives me the confidence to perform high-risk sedation procedures.

B. DeBoard, CRNA

What impressed me the most about AIM was the speed in correcting oxygen saturation after apnea. Pharyngeal oxygenation really works. This device could be a game-changer.

Todd Little, CRNA

With unobtrusive access to the oral cavity, scope placement was easier. AIM prevented hypoxic episodes without any procedural interruptions.

K. Byju, MD, Gastroenterologist
FDA

510(k) Cleared

AIM is an FDA-cleared Class II medical device. Designed, developed, and manufactured in the United States.

With continuous EtCO2 monitoring, AIM meets the ASA sedation guidelines

How AIM compares

As procedural complexity and patient acuity increase, AIM occupies the sweet spot: higher performance than nasal cannula, lower cost than HFNC, more versatile than face mask.

AIM HFNC Nasal Cannula Face Mask
FiO2 Delivered >96% at 14LPM[2] 100% at 70LPM 30-40% 50-60%
Continuous EtCO2 Yes Unreliable Yes Yes
Immediate Oral Access Yes No No Blocked
Integrated Bite Block Yes No No No
Setup Time <1 min ~5 min <1 min <1 min
MRI Safe Yes No Yes Yes
ASA Guideline Compliance Full Partial Yes Yes
O2 Equipment Required Standard Specialized Standard Standard
Immediate GA Conversion Yes No No No
Fire Risk Low High Medium Medium
Staff Training Minimal Moderate Minimal Minimal
Space Requirements Minimal Significant Minimal Minimal
Maintenance None (disposable) Regular servicing None None
Patient Comfort High Moderate High Low
Cost per Procedure $$$ $$$$$ $$ $$

How it works

1

Connect

Attach the oxygen supply line and CO2 sampling line to your existing equipment.

2

Place

Insert the AIM bite block intraorally, just like a standard bite block.

3

Monitor

Deliver oxygen and monitor capnography throughout the procedure with unobstructed airway access.

See it in action

Watch Dr. Zales demonstrate AIM setup and use.

How to Use AIM

Setup, connection, and intraoral placement — ready in under a minute with no specialized equipment.

Easy Airway Rescue

AIM's open oral cavity design enables rapid airway rescue without removing the device.

The economic case for integrated airway management

NORA case volume is growing faster than any other procedural category. Every minute of airway-related interruption carries a real cost in time, disposables, and throughput. AIM is designed to reduce all three.

Fewer interruptions, faster cases

Continuous oropharyngeal oxygen delivery reduces desaturation events that force procedural pauses.[3] Integrated capnography eliminates separate monitoring setup. Fewer device exchanges mean fewer workflow disruptions.

One device replaces several

AIM integrates the functions of a bite block, supplemental oxygen delivery system, and capnography sampling interface into a single disposable. Fewer SKUs to order, stock, and manage.

More cases, same schedule

When per-case airway setup and management time decreases -- even by minutes -- the cumulative effect across a full procedural day enables tighter scheduling and improved room utilization.

A simple framework to estimate your economic benefit

Published data estimates OR time costs at $45-60 per minute.[4] NORA suite costs vary by facility but follow similar economic drivers. Consider your own numbers:

Cases per week How many NORA cases does your facility perform weekly?
Minutes saved per case If AIM eliminates even 2-3 minutes of interruption or setup time, what is the weekly total?
Disposables replaced How many separate items (bite block, nasal cannula, capnography adapter) does AIM consolidate?
Cost per disposable set What is your current per-case spend on those individual components?

We encourage you to run these numbers for your facility. For a detailed analysis tailored to your case volume, contact our team.

Frequently asked questions

Common questions from clinicians and facilities evaluating AIM.

Why do we need another sedation device?

With advances in minimally invasive techniques, surgeries are transitioning from general anesthesia to sedation. The complex non-OR Anesthesia (NORA) procedures require higher FiO2 to prevent hypoxic interruptions. AIM's unique pharyngeal oxygenation delivers 96% and higher FiO2 near the tracheal inlet — far exceeding traditional devices.

Why is pharyngeal oxygenation better?

Even though conventional devices use 100% oxygen, exhaled air in the oral cavity and sinuses dilutes oxygen. AIM's pharyngeal oxygenation bypasses the mouth and sinuses. A study at the Baylor University Medical Center confirms pharyngeal oxygenation is superior to high-flow nasal cannulas. (PubMed 38174013)

Some clinicians use an oral airway and oxygen mask to channel oxygen and monitor breathing — isn't that enough to prevent hypoxia?

This approach only works for low-risk patients. Oral airways are poorly tolerated by awake patients. Sedating a high-risk patient without optimal pre-oxygenation risks preventable desaturation. Additionally, an oral airway cannot be used in the recovery room for patients requiring supplemental oxygenation. AIM is non-gag producing and can be used from pre-oxygenation all the way through the recovery room.

More questions? View the full FAQ or contact our team.

Our team

Built by anesthesiologists and engineers with deep experience in clinical practice and medical device development.

Tariq Chaudhry, MD

Tariq Chaudhry, MD

Inventor & Founder, Inventeur LLC
Practicing Anesthesiologist

Roman Schumann, MD

Roman Schumann, MD

Professor of Anesthesiology

Juan Valdivia, MD

Juan Valdivia, MD

Neurosurgeon

Raymond Vennare

Raymond Vennare

CEO, Inventeur LLC

Andrew McCutchen

Andrew McCutchen

Engineer
President & CEO, Baymar Solutions

Matthew Petney

Matthew Petney

Engineer, Product Manager
VP of Engineering, Baymar Solutions

Get in touch

Request a sample, schedule a demo, or ask us anything.

Or email us directly at info@macmodule.com

Purchase through authorized distributors

AIM is available through the following authorized distribution partners.

MarketLab

Authorized Distributor

1-800-237-3722

Alamo Technologies

Authorized Distributor

1-201-793-8941

References

  1. Nagrebetsky A, Gabriel RA, Dutton RP, Urman RD. Growth of nonoperating room anesthesia care in the United States: a contemporary trends analysis. Anesth Analg. 2017;124(4):1261–1267. PubMed 27918331
  2. Hanson JB, Williams JR, Garmon EH, Morris PM, McAllister RK, Shaver CN, Culp WC Jr. Pharyngeal oxygen delivery device sustains manikin lung oxygenation longer than high-flow nasal cannula. Proc (Bayl Univ Med Cent) 2023 Dec 20;37(1):48-53. PubMed 38174013
  3. Metzner J, Posner KL, Domino KB. The risk and safety of anesthesia at remote locations: the US closed claims analysis. Curr Opin Anaesthesiol. 2009;22(4):502–508. PubMed 19506473
  4. Macario A. What does one minute of operating room time cost? J Clin Anesth. 2010;22(4):233–236. Costs inflation-adjusted. PubMed 20522350