On April 25, 2015, a massive 8.1-magnitude earthquake struck Nepal at 2:11 pm (Beijing time). The 68-member-strong China International Search & Rescue Team (CISAR) left for Nepal at 6 am, April 26, to help with relief work. The CISAR was the first foreign team to rescue a survivor who was trapped beneath the rubble in the Gongabu area after the earthquake. On May 8, the team fulfilled the search-and-rescue mission and returned to Beijing. During the 2 weeks of rescue work, the team treated more than 3700 victims and cleared approximately 430 buildings. In this rescue mission, 10 experienced medical officers (including nine doctors and a nurse) from the General Hospital of Chinese People’s Armed Police Force (PAP) comprised the medical team of CISAR. In this report, we focus on the medical rescues by CISAR and discuss the characteristics of the medical rescue in Nepal. (Disaster Med Public Health Preparedness. 2018;12:536–538)

The incident command system (ICS) provides a common structure to control and coordinate an emergency response, regardless of scale or predicted impact. The lessons learned from the application of an ICS for large infectious disease outbreaks are documented. However, there is scant evidence on the application of an ICS to manage a local multiagency response to a disease cluster with environmental health risks. The Sydney Local Health District Public Health Unit (PHU) in New South Wales, Australia, was notified of 5 cases of Legionnaires’ disease during 2 weeks in May 2016. This unusual incident triggered a multiagency investigation involving an ICS with staff from the PHU, 3 local councils, and the state health department to help prevent any further public health risk. The early and judicious use of ICS enabled a timely and effective response by supporting clear communication lines between the incident controller and field staff. The field team was key in preventing any ongoing public health risk through inspection, sampling, testing, and management of water systems identified to be at-risk for transmission of legionella. Good working relationships between partner agencies and trust in the technical proficiency of environmental health staff aided in the effective management of the response. (Disaster Med Public Health Preparedness. 2018;12:539–542)

Excessive rainfall and dam failures resulted in floodwater contaminating our public water supply. The endotoxin risk in the contaminated water created challenges in recovery of sterile processing for our surgical equipment. Recovery plans should include a potable water source and a method to connect it to the required location. We share our solution of plumbing our sterile processing equipment to tanker-transported potable water sources. (Disaster Med Public Health Preparedness. 2018; 12: 415–418)

Pakistan is prone to floods. In 2010, floods in North-Western Pakistan caused devastation in wide areas. Electro-medical equipment is very expensive and without proper equipment adequate surgery is not possible. We retrospectively analyzed how expensive electro-medical equipment got damaged during floods of 2010 at a district-level hospital in North-Western Pakistan and how we could have saved this equipment or reduced the damage to the minimum. The article provides the lessons learned and recommendations aimed to prevent or minimize damage to the valuable and expensive equipment in the areas prone to floods. (Disaster Med Public Health Preparedness. 2018;12:803-805)

In April 2015, Nepal experienced an earthquake of a magnitude of 7.6 on the Richter scale that resulted in deaths, morbidities, and infrastructure damage. In the post-earthquake period, 4 different workshops and a national “Lessons Learnt” conference were organized to assess the adequacy of the preparedness and response of the health sector. This article summarizes the main conclusions of these discussions relating to leadership, timely search and rescue, referral operations, medical relief to response activities, awareness campaigns, and support from the national and international levels, and epidemiological surveillance. The earthquake response was channeled through rapid response teams that spanned from the community level to the central level via a cluster coordination approach. Overall, the health sector’s response was concluded to be largely satisfactory because it focused not only on emergency medical care, but also on the resumption of basic health services and preventive health care (eg, hygiene, risk communication) equally. Post-disaster disease outbreak did not occur because effective surveillance and outbreak monitoring was one of the priority actions. However, services related to birthing centers, neonatal services, and vaccinations were impeded in some rural areas. Some weaknesses in planning, coordination, and management were also noted. The lessons learned can provide the impetus to strengthen future preparedness and response mechanisms. (Disaster Med Public Health Preparedness. 2018;12:543–547)