See the lung at the bedside

InspiWave™ adds continuous, noninvasive heart-lung measurement to the ventilated patient, revealing physiology conventional monitors can only imply.

Ventilation decisions need a clearer view.

Mechanical ventilation is one of critical care's most consequential interventions. It touches millions of patients, carries steep risk when ventilation is prolonged, and turns every additional day into a compounding clinical and system burden.

01 / Patient scale 15M

Ventilated each year

Mechanical ventilation is not an edge case. It is a daily, global decision environment where better functional data can matter at scale.

02 / Clinical risk ~40%

Mortality signal

When ventilation is prolonged, the stakes rise quickly. Earlier insight can help clinicians understand whether the lung is truly responding.

03 / System burden $13,530

Per ICU patient per day

Each extra day compounds patient risk, staffing load, bed pressure, and cost. The need for clearer decisions is clinical and operational.

InspiWave turns ventilation from inference into measurement.

InspiWave adds a low-concentration inspired tracer signal and reads the exhaled response to reveal previously absent bedside measures of lung volume, cardiac output, dead space, and functional ventilatory distribution.

Effective lung volume

How much lung is available for gas exchange, so recruitment can be judged by usable volume.

Dead space

How much of each breath is not participating in exchange, revealing wasted ventilation and mismatch.

Effective lung volume

890 mL

Cardiac Output

5.2 L/min

Dead space

142 mL

Ventilatory distribution

68 %

Cardiac Output

How heart-lung function responds as ventilation changes, measured continuously at the bedside.

Ventilatory distribution

How evenly gas reaches the lung, surfacing functional changes that pressure and flow only imply.

Together, these four measurements translate tracer-gas physiology into continuous bedside insight, giving ICU and OR teams functional data to support lung-protective ventilation decisions and reduce avoidable uncertainty.

16

Peer-reviewed publications

92.5%

Cardiac-output concordance with invasive thermodilution reference

0

Additional catheters or radiation required

Oxford science, translated for the ventilated patient.

VentDx was founded by researchers at the forefront of respiratory science and medtech operators who know how to bring respiratory monitoring into clinical practice.

Meet the team