Surgical innovations that are low-cost and sophisticated are essential for improving patient outcomes and expanding access to potentially life-saving procedures in low-resource areas where sophisticated medical infrastructures and technology are unattainable1. Low-resource environments present distinct obstacles, necessitating the creation and implementation of suitable, accessible, durable, and scalable surgical instruments and methodologies tailored to these specific healthcare issues. Progress has been made in the use of minimally invasive surgical procedures, including cost-effective alternatives to the pricey equipment often necessary for laparoscopic and robotic operations2. Laparoscopic procedures, formerly reliant on expensive vision systems and advanced tools, have become more affordable due to the development of hand-operated, low-cost alternatives that exhibit comparable efficacy to their pricier counterparts3. Cost-effective laparoscopic toolkits, designed for sterilization and reuse, are being used in underfunded hospitals to enable surgeons to do less invasive surgeries, resulting in reduced postoperative complications and shorter recovery times4. Additionally, solar-powered surgical lighting and sterilizing machines are being created to remain operational despite inconsistent electrical sources in various regions5. Another notable advancement pertains to anesthetic administration. Safe anesthesia is the thing that determines surgical results, yet in the majority of low-resource situations, anesthesia devices are costly, sophisticated, and prone to power outages6. Simplification, mobility, and oxygen-saving anesthetic equipment might overcome this issue. Universal Anesthesia Machine, for example, is particularly developed for locations where dependable energy and medicinal gases would be uncommon7. This gadget can function on room air, needing no energy or pressurized oxygen, and it is consequently of tremendous utility in distant settings. Other options include suture-free wound closure solutions like cyanoacrylate adhesives or low-cost stapling devices. The approaches do not need substantial training, save surgical time, and minimize infection risk, especially in locations where sterilizing facilities are restricted compared to conventional suturing methods8. These treatments are also less expensive and promote faster wound healing, resulting in shorter hospital stays. Aside from technological advancements, these mHealth platforms for surgical care have created new opportunities for integrated consulting. Using these tools, surgeons in remote locations may seek face-to-face consultation with experts in real-time while directing certain surgeries or monitoring postoperative care. Such platforms may also be used to improve the ability of different healthcare personnel in local settings by providing video lessons and interactive modules on fundamental surgical techniques–an effective method for expanding the local surgical workforce9. The increased use of AI/ML in mHealth systems has significantly simplified the procedure, since remote diagnostics, surgery planning, and patient monitoring can now be performed without the need for expensive high-tech infrastructure10. Innovation in sterilizing methods is critical in locations with limited access to clean water and energy. Low-cost, portable sterilizers that use solar electricity or chemical sterilization are increasingly being used to assure the safety of surgical equipment by reducing infections and difficulties after surgery. These sterilizers, which may be used in the field or tiny clinics, have significantly improved the safety of procedures performed in resource-limited settings11. In addition, training and education improve surgical results in underprivileged healthcare systems. Traditional surgical simulation tools were expensive and technologically complex, but new technologies are being developed that are simpler and hence less expensive. This allows local surgeons to do complex treatments without the need for costly equipment, ensuring that they have the skills required to provide safe care12. The primary focus is on low-resource innovations with simplicity, durability, and scalability at the heart. More economical and simple-to-maintain devices designed for these contexts might help healthcare practitioners minimize mortality and enhance surgical results. Further advancement and distribution of innovation will close the surgical care gap in poor nations and enhance global health equality.
Palanivelu et al. (Wed,) studied this question.
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