Hypercold Air Mechanical
Ventilation Targeted Temperature
Management System
Problem Statement
- over 35 million people worldwide die from sudden death severe stroke, brain injury or Acute Lung Injury
- Many of them can be saved with total body cooling to about 32-34 Co if it is achieved during the first 1-2 hours following catastrophic event.
- Targeted Temperature Management (formally known as Therapeutic Hypothermia) was introduced to medical practice in early 2000s.
- Current Therapeutic Hypothermia Methods are ineffective either due to the slow rate of cooling, or impractical design, high complexity or high rate of serious side effects.
- Our new Therapeutic Hypothermia System will bring dramatic changes.
- Cooling body wraps are simple and easy to use, but they don’t provide fast rate of cooling, and limit access to a patient for diagnostic or life saving procedures.
- Imitation of ice water immersion provides fast rate of cooling, has no serious complications, but the equipment is very heavy and blocks access to a patient for diagnostic or life saving procedures.
- Venous devices percolated with ice water require specialized training, don’t provide fast rate of cooling, and have serious side effects.
- Extracorporeal cooling provides fast rate of cooling, but it can only be done in a small number of larger hospitals, requires highly trained and specialized staff, and has high rate of complications.
- Esophageal cooling device is easy to use, does not have serious complications, but does not provide fast rate of cooling.
- Our method, called Hypercold Air Mechanical Ventilation uses lungs high surface area as a heat exchanger
- Patients who stand to gain from (TTM) are already undergoing mechanical ventilation, with the only necessary adjustment being the incorporation of cooling air into the ventilation circuit for hypothermia induction.
- New TTM System will be easy to use, portable, provide a fast rate of cooling to achieve target body temperature within 1 hours after the start and lack side effects.
Proposed Solution – How does it work?

- Our cooling device consists of a small freezer filled with a cooling media which does not solidify at subfreezing temperature (for example, 28% CaCl solution).
- The freezer has a copper coil immersed into cooling media.
- The coil is attached to a mechanical ventilator tubing on one end and to a patient’s breathing tube on another end.
- The temperature of the cooling media can be changed as needed to meet the clinical goals.
- The air runs from the mechanical ventilator through the freezer to the patient at fast flow, while the patient is ventilated at higher rate than physiologically necessary.
- The excessive removal of CO2 caused by high rate of ventilation is compensated by adding CO2 to inhaled air producing what we call Compensated Hyperventilation™️.
Advantages of SHPBV CPR™️
- Reaches target temperature within 1 hour.
- Minimally invasive: All patients undergoing therapeutic hypothermia receive mechanical ventilation due to the nature of their condition and have an endotracheal (breathing) tube already inserted.
- Allows for unobstructed access to the patient for diagnostic and life saving procedures.
- Compact and portable, facilitates use throughout patient transport and minimizes equipment crowding.
- Allows for initiation of hypothermia in prehospital settings, such as ground or air ambulances.
- Easy to operate by minimally trained staff; only requires placing device in line with the ventilator tubing.
- Suitable for induction of hypothermia in patients with Acute Lung Injury by providing a direct pulmonary cooling effect.
Ambulances
Assumes one units per ambulances
- 55,000 ambulance vehicles in the US and Canada
- 110,000 in the EU
- 20,000 in Japan
- Total of 185 000 units
Hospital
Assumes two units per hospital
- 7,000 hospitals in the US and Canada
- 11,000 hospitals in EU
- 8,000 hospitals in Japan
- Total of 52 000 units