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      Minimally Invasive Surgery and the Novel Coronavirus Outbreak: Lessons Learned in China and Italy

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      , MD , , MD, FACS , , MD, FACS ,
      Annals of Surgery
      Lippincott, Williams, and Wilkins

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          Abstract

          As elective operations are being cancelled, and surgeons are called upon to perform only emergency or carcinological surgery, the precautions to take when operating on patients who are potentially or proven COVID-19 positive are of utmost importance. The novel coronavirus (2019-nCoV) outbreak hit China in the beginning of December 2019, and ignited the headlines a few days later. Unexpected, unprecedented, and radical modifications have profoundly shaken the world since then. The economic shutdown in China cleared the map of China viewed from the sky, the halt in travel, counseled first within the country, then internationally, was too late to stop the diffusion outside of China, and meanwhile has destroyed enterprises such as Flybe, while changing the economy of airlines and airports the world over. Hospitals and medical structures, in China, then Korea, and now Italy and France, abound with people either infected, or afraid of being so. The stock of respiratory machines has never been used so prominently, while facial masks, visors of all sorts and handkerchiefs, wipes and tissues have never been expended more often, and are even depleted in certain regions. First in China, then in Europe, and in particular, in Italy, the sudden and rapidly exponential afflux of patients in need of management, simple or intensive care, or simply advice to stay where they were, became the omnipresent and urgent preoccupation of health care workers, essentially those based in hospitals. In China, make-shift neo-hospitals were built in unparalleled record-braking time spans, and in Europe, external triage tents, internal reshuffling of beds and usage radically modified the architecture of existing health facilities. Surgery has also evolved and changed radically, but over a 30-year span. How has the novel coronavirus (2019-nCoV) outbreak affected surgery in China and Italy and will affect the future of surgery tomorrow is the question of today. The Centers for Disease Control and Prevention recently published recommendations that were upgraded by the American College of Surgeons. 1 Both recommended to stop elective surgery and to take general precautions, but there was little on the pragmatic aspects of surgery. In laparoscopic surgery, an essential part of the technique is the establishment and maintenance of an artificial pneumoperitoneum; with this comes the risk of aerosol exposure for the operation team. Ultrasonic scalpels or electrical equipment commonly used in laparoscopic surgery can easily produce large amounts of surgical smoke, and in particular, the low-temperature aerosol from ultrasonic scalpels cannot effectively deactivate the cellular components of virus in patients. In previous studies, activated corynebacterium, papillomavirus, and HIV have been detected in surgical smoke 2–4 and several doctors contracted a rare papillomavirus 5 suspected to be connected to surgical smoke exposure. The risk of 2019-ncov infection aerosol should not be any exception. One study found that after using electrical or ultrasonic equipment for 10 minutes, the particle concentration of the smoke in laparoscopic surgery was significantly higher than that in traditional open surgery. 6 The reason may be that due to the low gas mobility in the pneumoperitoneum, the aerosol formed during the operation tends to concentrate in the abdominal cavity. Sudden release of trocar valves, non-air-tight exchange of instruments, or even small abdominal extraction incisions can potentially expose the health care team to the pneumoperitoneum aerosol; the risk is definitely higher in laparoscopic than in traditional open surgery. This outbreak thus poses a great challenge to the clinical work of surgeons who practice MIS. As the epidemic spreads and pandemics, we surgeons have the responsibility of raising the level of awareness, prevention, and control of transmission, not only for the current epidemic, but also, in general, as a principal for all surgeries. 7 Even if all elective surgery has been curtailed if not stopped in countries of the current pandemic, the risk is present for patients who require emergency surgery or operations for malignancy, and above all, for the surgeons and operating room staff who undertake these operations. We would like to share the following, based on our recent experience in Shanghai and Milan. 1) General protection: all surgery patients must complete preoperative health screening, whether they are symptomatic or not. As operating staffs might become infected, and therefore reduced in number, all medical personnel have to comply with the tertiary protection regulations. 8,9 2) Prevention and management of aerosol dispersal: during operations, whether laparoscopic or via laparotomy, instruments should be kept clean of blood and other body fluids. Special attention should be paid to the establishment of pneumoperitoneum, hemostasis, and cleaning at trocar sites or incisions to prevent any gush of body fluid caused by air leakage or uncontained laparotomy incisions. Liberal use of suction devices to remove smoke and aerosol during operations, and especially, before converting from laparoscopy to open surgery or any extra-peritoneal maneuver. Avoid using 2-way pneumoperitoneum insufflators to prevent pathogens colonization of circulating aerosol in pneumoperitoneum circuit or the insufflator. 3) Management of artificial pneumoperitoneum: keep intraoperative pneumoperitoneum pressure and CO2 ventilation at the lowest possible levels without compromising the surgical field exposure. Reduce the Trendelenburg position time as much as possible. This minimizes the effect of pneumoperitoneum on lung function and circulation, in an effort to reduce pathogen susceptibility. 4) Operation techniques: The power settings of electrocautery should be as low as possible. Avoid long dissecting times on the same spot by electrocautery or ultrasonic scalpels to reduce the surgical smoke. Special attention is warranted to avoid sharp injury or damage of protective equipment, in particular gloves and body protection. 5) Postoperative operating room and equipment management: all protocols involving postoperative cleaning and disinfection should comply with governmental and learned society instructions. 1,8,9 Devices used on infection-suspected or proven patients should undergo separate disinfection followed by proper labeling. It is mandatory to specifically label and dispose clinical wastes separately. 6) Ideally, hospitals should be immediately divided into 2 main categories: dedicated hubs for positive COVID-19 patients (with limited surgical staff and ORs, for those infected patients requiring surgery) and other both for emergency surgery and urgent oncological procedures in negative COVID 19 patients. Health authorities should allow surgical teams to move from one hospital to another. 7) Teaching and future recommendations: strengthen the awareness on the hazards caused by surgical smoke and the management of intraoperative aerosol. Strict protocols must be established for the creation and maintenance of laparoscopic pneumoperitoneum to reduce the occupation hazard caused by aerosol exposure. 8) Operating staff protection: efforts must be made to raise awareness of the occupation protection on operating staffs, including surgeons, anesthetists, and nurses and all possible transiting persons in the OR. Correct 2-way protective apparel (goggles, visor, mask, and body protective garb) should be routine. When engaging a suspected or diagnosed patient, tertiary dress code should be applied according to the protocols which also include strengthening OR ventilation and installing air purification equipment. 9) Preoperative health screening: to effectively battle against the possibility of prolonged 2019-nCOV outbreak, it is imperative to establish new standards of practice for admitting patients in the future. This should range from preoperative health screening to final differential diagnosis, including epidemiology investigation and adequate imaging. This outbreak not only raises challenges to MIS in terms of disease control today but also should remind surgeons that we need stronger occupational protection in the future. We must raise the level of awareness and protection measures for the risk of occupational exposure in laparoscopic but also traditional open surgery. There is an urgent need of a strict protocol to accurately manage the artificial pneumoperitoneum and the hazards of aerosol diffusion for surgeons.

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          Most cited references6

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          Risk of acquiring human papillomavirus from the plume produced by the carbon dioxide laser in the treatment of warts.

          The documented presence of human papillomavirus DNA in the plume after carbon dioxide laser treatment of warts has raised questions about the risk of transmission of human papillomavirus to laser surgeons. We sought to define more clearly the risks to surgeons of acquiring warts from the CO2 laser plume. A comparative study was conducted between CO2 laser surgeons and two large groups of population-based control subjects (patients with warts in Olmsted County and at the Mayo Clinic from 1988 to 1992). Conclusions were drawn about the risks to surgeons of acquiring warts from the CO2 laser plume. There was no significant difference (p = 0.569) between the incidence of CO2 laser surgeons with warts (5.4%) and patients with warts in Olmsted County from 1988 to 1992 (4.9%). There was a significant difference between the incidence of plantar (p = 0.004), nasopharyngeal (p = 0.001), and genital and perianal warts (p = 0.004) in the study group and in patients with warts treated at the Mayo Clinic from 1988 to 1992. No significant difference was found between physicians who had acquired warts and those who were wart free, on the basis of the failure to use gloves (p = 0.418), standard surgical masks (p = 0.748), laser masks (p = 0.418), smoke evacuators (p = 0.564), eye protection (p = 0.196), or full surgical gowns (p = 0.216). Finally, the incidence rates of surgeons with warts per 1000 person-years did not increase significantly (p = 0.951) as the length of time that the CO2 laser was used to treat warts increased. When warts are grouped together without specification of anatomic site, CO2 laser surgeons are no more likely to acquire warts than a person in the general population. However, human papillomavirus types that cause genital warts seem to have a predilection for infecting the upper airway mucosa, and laser plume containing these viruses may represent more of a hazard to the surgeon.
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            Human immunodeficiency virus-1 (HIV-1) in the vapors of surgical power instruments

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              Characterization of smoke generated during the use of surgical knife in laparotomy surgeries.

              The staff in hospitals is the high-risk group affected by indoor air pollution for operational reasons. However, there is a lack of relevant information and research on surgical smoke in Taiwan. This study analyses the substance of the smoke and develops relative strategies to prevent harm from the working place. This study aims to evaluate the surgical smoke generated during laparotomy and laparoscopic operation. The relationship between smoke and the risk of health-care workers was also discussed in order to set suitable solutions for smoke collection and emission. The study measured surgical smoke of 30 cases in operating rooms in three different hospitals, smoke was collected at different timings and different areas during the operation using a low-flow sampler. The concentration and accumulation number of size 0.3 μm suspended particles were the highest among all size of particles in different detection areas and timing. The concentration number of 0.3 μm and 0.5 μm particles reached the maximum after 10 min of electrosurgical treatment; however, the concentration number of 5 μm particles began to decrease after 5-15 min of the treatment. Besides, the cumulative particle numbers of 0.3 μm and 0.5 μm in laparoscopic operation were higher than those of laparotomy after 10 min of the treatment. This study suggests that surgical smoke prevention should use smoke evacuator; health-care workers should also wear a highly efficient tight seal-fit mask in the operating room to avoid damage to their health and cause chronic diseases.Implications: Indoor air pollution in medical institutions is a topic of less concern, and the health of healthcare workers is threatened by surgical smoke that generated during operations. This study measured and analyzed the harmful substances in the surgical smoke in the operating rooms of hospitals, and put forward the corresponding suggestions. In April 2018, legislators in Taiwan also convened a seminar on "Respiratory protection for operating room personnel in medical institutions". The seminar applied the findings of this study and adopted the recommendations to improve related equipment and strategies in future plans.
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                Author and article information

                Journal
                Ann Surg
                Ann. Surg
                ANSU
                Annals of Surgery
                Lippincott, Williams, and Wilkins
                0003-4932
                1528-1140
                27 April 2020
                23 April 2020
                : 10.1097/SLA.0000000000003924
                Affiliations
                []Department of General Surgery, Ruijin Hospital, Shanghai Jiao Tong University School of Medicine, Shanghai Minimally Invasive Surgery Center, Shanghai, P. R. China
                []Department of Surgery, Fondazione IRCCS Ca’ Granda Ospedale Maggiore Policlinico di Milano, University of Milan, Milan, Italy
                []Surgical Research, Department of Surgery, Medical University of Graz, Graz, Austria.
                Author notes
                Article
                ANNSURG-D-19-09035
                10.1097/SLA.0000000000003924
                7188059
                32221118
                c4f286f9-2be0-433d-ae37-bb77705e3df0
                Copyright © 2020 Wolters Kluwer Health, Inc. All rights reserved.

                This article is made available via the PMC Open Access Subset for unrestricted re-use and analyses in any form or by any means with acknowledgement of the original source. These permissions are granted for the duration of the COVID-19 pandemic or until permissions are revoked in writing. Upon expiration of these permissions, PMC is granted a perpetual license to make this article available via PMC and Europe PMC, consistent with existing copyright protections.

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