Smart Cooler Bag Transporter for Body Organs by Adelaide Hendrikse
Adelaide Hendrikse has developed a smart cooler bag transporter that self regulates itself for temperature
when transporting contents (e.g., organs, vaccines, medicines, etc.)
Adelaide Hendrikse (14) has developed a smart cooler bag that self regulates itself for temperature when transporting contents (e.g. organs, vaccines, medicines, etc.). The smart cooler bag is equipped with fans that regulate the temperature and LED lights and LCD screen to show the temperature. For safety and efficiency purposes the smart cooler bag is fitted with a buzzer to alert those responsible for ensuring the contents in the cooler bag are a priority.
Have a wireless connection to an electronic device that can be accessed either
through software application or mobile application administered in hospitals and
clinics. The connectivity can be achieved through Bluetooth or Wi-Fi.
The idea is at the product development stage as a model type will be developed. The
research and development process is estimated to take about 18 months (1 and a half
years) until the final product is produced. Most of the time will be devoted to finding
the appropriate specifications for the fans and settings for the functionality of the
software for the LED lights and LCD screen.
The product is at the start-up phase at it looks to provide efficiency for medical content
transportation in the health industry of South Africa and onwards to the African
continent. The pandemic has shown how important it is to ensure that the health care
industry is able to meet the demands of the communities around the country. Safe and
secure transit of medical contents is a high priority and thus the reason why this
product is imperative.
Smart cooler bag innovation is currently only afforded to the developed countries of
the world and cheaper methods are not in use for developing and poor countries on
the African continent. The innovation undertaken by Adelaide is in line with improving
to the health care system for Africa by Africans.
The required materials for the production of the smart cooler bag is as follows:
• Cooler bag 5 litres – 1 unit
• GPS device to track the battery – 1 unit
• Potential Meter – 1 unit
• IR/Infrared Sensor – 1 unit
• LED lights – 3 units (red, orange, and green)
• Resistors – 3 units
• Sensors for the entire casing – 6 units
• Fans – 2 units
• Relay (power to the fans) – 1 unit
• Temperature sensor (inside) – 1 unit
• Heat syncs – 2 units
• Wiring (multi-coloured for multiple connections) – 33 units
• Screws – 24 units
The smart cooler bag’s software component uses Arduino (programme language
C++). It collects the data from the sensors and reports if any triggers have been made
reported straight to security authorities. The smart cooler bag device can be controlled
remotely to ensure that any adverse temperature changes can be corrected either
manually or by automation.
- Financial feasibility
The cost of assembling the device has not been factored in for this application. The
purchase price of the product is based on a cost-plus basis. This will ensure that base
costs are covered, and that the device will have a smooth roll-out.
Funding considerations also have not been factored in the development of this device.
- Market size
The market for this product is large as it is applicable to all the countries on the African
continent. The problem being solved is to ensure the smooth transit of medical
contents. A simple business model ensures that the market does not need any
additional product education and allows for easy access for new entrants that is
already in use in the developed world.
Social Impact of the product and how it affects it target market. The social impact of improved quality for transporting medical contents for the health care industry is best achieved by increasing the level of service the people get.
Patients in the outlying areas of the major cities will benefit the most as healthcare
costs are shouldered by the government. With an affordable solution for transporting
medical contents this will ensure those needs are met.
• Commercial viability
This product assists the government in providing healthcare services to its patients.
Tender procurement methodology will ensure that the product is commercially viable
and can best position funding further development into the smart cooler bag. Other
businesses in the healthcare industry who would benefit from this product would be
laboratories that specialize in pathology services.
• Break even analysis
The pricing strategy will be only considered upon final product post testing phase of
the device. The volumes will be derived from the cost base of the research and
development and device build.
• Long term planning and projections
The test phase will show how best to approach the build and roll out of the smart cooler
bag. Further research and development will be conducted on the smart cooler bag to
ensure that the product is market leading and continues to meet the security needs of
customers and in this case the priority of people’s lives.
Power in Numbers