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      Modifying Regulatory Practices to Create a Safe and Effective Working Environment Within a Shared Resource Laboratory During a Global Pandemic

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          Abstract

          The SARS‐CoV‐2 pandemic has caused profound changes in nearly all routines associated with day‐to‐day life around the world. Governments and national institutions have put several regulatory guidelines in place to try and limit the spread of the virus in high‐footfall, multioccupancy environments such as offices, public transport hubs, hospitals, and care homes. These have included procedures around hand hygiene, cough/sneeze hygiene, maintaining physical distancing, and the use of personal protective equipment (PPE). Shared Resource Laboratories (SRLs) are by nature high‐footfall, multioccupancy environments where surfaces are touched and instruments interacted with by many different people and therefore present with the exact same challenges as other public enclosed spaces. Moreover, SRL staff often interact with several different people in normal day‐to‐day operation, often in close proximity. Therefore, it is highly possible that the actions of one person could have far reaching consequences for the health and well‐being of other users and SRL staff. An outbreak of COVID‐19 linked to an SRL would inevitably lead to serious reputational damage at both local and institutional levels. Closing down the SRL is simply not an effective solution as much of the technology and expertise housed within the facility will be essential for research into understanding the nature COVID‐19 and how we can combat it. Many SRLs have rapidly adapted their operations to incorporate and adhere to regulatory guidelines driven by biosafety concerns, often imposed by governmental and institutional bodies. In this manuscript, we describe how these new regulatory guidelines can be applied to the SRL setting, and how they essentially fall into three broad categories: (1) regulation of access to the SRL space, instruments and services; (2) regulation and control of SRL space; and (3) regulation of SRL staff, user and external visitor (service engineers) behaviors within the SRL space (see Fig. 1). Ultimately, the need to adopt regulatory procedures will be driven by biosafety considerations directly related to the threat and control of SARS‐CoV‐2, as well as the resulting necessary modification to how the SRL operates. Both of these subjects will be covered in detail elsewhere (please see the biosafety and operations papers in this special edition). Figure 1 Levels of regulation within an SRL to promote a safe SRL workplace. A brief overview of the levels of regulation needed during the global SARS‐CoV‐2 pandemic in order to minimize risks associated with operating a SRL. The regulatory guidelines outlined herein are based upon common guidelines that have been adopted at the authors' institutions across distinct geographical areas (UK, North America, Central America, Australia). Where possible we have also highlighted specific Government guidelines. It is important to note that determining which measures or how strictly to adopt these measures will depend on your location and the recommendations of your local government/institutional policies. When instituting new COVID‐related policies in your SRL, ensure that you comply with any locally enacted guidelines and liaise with relevant safety officers. While most of these guidelines have been described for implementation within the flow cytometry SRL, they are also more broadly applicable to any SRL settings where the predominant operational model is based on multiuser access to space and instrumentation. Finally, in order to gain compliance in following the new regulatory guidelines, it is recommended that the rationale behind the guidelines be explained as new policies are enacted. REGULATION OF SRL ACCESS Probably the most important aspect of regulating access to an SRL and its services/instruments will be ensuring that any staff member, user, or external visitor (e.g., field service engineer) does not attend if they have COVID‐19 symptoms or have been exposed to someone who may have COVID‐19 symptoms. There will be local institutional guidelines relating to how this situation should be handled. User/Researcher Access For any SRL that operates under a user access model, it is highly likely that there will be an established protocol for granting an individual access to the space and relevant user‐operated instrumentation. This would almost certainly involve some kind of induction and training before access would be granted and also possibly a signed agreement between the trained user and the SRL staff to adhere to the rules and follow the SOPs as shown. As a result of the COVID‐19 pandemic and the need to regulate personal proximity for physical distancing, 1‐1 or group induction and training of users may have been suspended until further notice (suggested protocols for this will be discussed elsewhere in this special issue, please see the training manuscript). As a result, the SRL may reach a decision to only allow experienced users to enter the facility who have a proven history of competency. These “super users” will also be expected to read, agree, and adhere to any new regulatory requirements deemed necessary by the SRL leadership due to COVID‐19 biosafety operational modifications. These may include increased personal hygiene, strict wearing of PPE, and informing the SRL management should they suspect they have or have been exposed to SARS‐CoV‐2 (see section on regulation of behaviors where we will expand on these areas). Ultimately, however, SRL staff and users must adhere to governmental and institutional policies around coming to work if they suspect they may have SARS‐CoV‐2 and follow the correct process of notification and self‐isolation. In some institutes and workplaces, staff will be asked to undergo testing for the virus and only return to work if and when they test negative. SRL Staff Access Regulation It is not only users that may be subject to access regulations. SRL staff members may also be required to prove that they are able to return to the lab based on competency, skills, or health status. Moreover, based on a detailed appraisal of staff skills across the “business critical” SRL functions, it may be possible to split in teams or shifts in order to minimize the impact of possible staff member infection and still maintain significant operation capacity. When considering splitting into smaller teams, it may be important to regulate annual leave more strictly by setting limits on how many staff members per team can be on planned absence at one time. SRL Team Management Within the SRL, effective management of staff safety and activity is critical during a disruption of research activity. For broad purposes, the recommendations for managing staff will be broken into three distinct stages, which will likely be dictated by institutional and local government guidelines. Stage 1: Cessation of research activity Staff should be alerted to imminent SRL closure as soon as possible, and team activity should focus on notifying users of closure, as well as preparing all necessary instrumentation for long‐term storage. Staff should also prepare to work remotely for an unspecified period of time. Appropriate preparations may include compiling physical documents, copying computer files, and setting up remote desktop access to work computers. Once critical activities are accomplished, staff should leave the SRL immediately. Stage 2: Remote activity and limited on‐site research Because flow cytometry is deemed essential to many projects, some parts of the SRL may continue to operate, particularly to support COVID‐19‐approved projects. This should be accomplished using the fewest numbers of essential personnel, who can be on‐site as necessary to ensure instruments are fully functional and quality controlled. The remainder of the SRL staff should continue to work remotely. Examples of at‐home work include data analysis, virtual consultation, updating standard operating procedures (SOPs), devising new SOPs, and addressing remote issues. In some cases, SRL directors may not be able to ensure the well‐being of personnel (either due to COVID‐19 infection or mental health distress); directors should familiarize themselves with institutional offerings aimed at promoting physical and mental health wellness, should the need arise. Stage 3: Resumption of research activity There are several critical activities that must be completed by staff prior to safely resuming SRL operations, examples of which are outlined as follows: Re‐ordering of essential supplies. External servicing of instruments by vendor‐affiliated engineers. This should be performed in close communication with institutional safety and security officers. Creating and updating SOPs for all aspects of SRL function. Implementing physical distancing requirements. In addition to posting appropriate signage throughout the facility, it may be necessary for the SRL to rearrange equipment in a manner that will reduce the number of users in each room at any given time. Although specific guidelines for initial resumption of research may vary between institutions, recommended population densities are typically within 20–50%, including both staff and users. Note that at any time, should it become necessary, institutions may mandate a ramp‐down or return to cessation of research activity. Many SRL may benefit from the fact that they have satellite facilities or instruments, which allows for necessary distancing of staff and users. This can be advantageous in increasing the amount of service that can realistically and safely be provided. When designing staff schedules, there are several shift models that can be considered; the appropriate model will vary between SRL and should consider staff preferences and space configurations. In some cases, extending hours into nights/weekends may be necessary. Some commonly adopted shift schedules are listed as follows: Model 1: Divide the day. In this model, the day is divided into at least two shifts, where every team member is assigned to an AM or PM shift. Staff may only report to work during their assigned shift. Note that in this model, shift lengths may not be long enough to support activities such as cell sorting. Model 2: Divide the week. In this model, the week is divided into two shifts, where each staff member is assigned to a block of contiguous days (i.e., Sunday to Wednesday and Thursday to Saturday). This model allows for longer workdays. Model 3: Blocks of activity. In this model, a 15‐day period can be divided into 5‐day blocks; staff are then assigned to each of three groups. Group A works in the SRL for the first 5 days and remotely for the next 10 days. Group B works remotely for 5 days, on‐site for 5 days, and remotely for the final 5 days. Group C works remotely for 10 days, and on‐site for the final 5 days, ending the 15‐day period. This model allows for the most stringent isolation of staff. Regardless of the model chosen by an SRL, the following should be considered: (1) staff that ordinarily cooperate to provide services are scheduled during similar shifts or days, should they need to responsibly interact; (2) arrival and departure times for shifts do not overlap; (3) arrival and departure times are not scheduled during peak usage times of the facility, thus promoting physical distancing; (4) ongoing projects prior to discontinuation of service and requiring timely completion; (5) foreseeable unmet needs and new projects that have not yet started; and (6) child care and elder care. Note that during initial stages of resumption, it may not be possible for all instruments to be on‐line and operational, as this may affect the ability of the SRL to provide service safely. External Visitors (Service Engineers) SRLs contain high end, complex analytical instrumentation that require expert maintenance by external parties. Many SRLs will already have procedures and regulations in place for facilitating service engineer visits for preventative maintenance and system faults. These may include documents such as “permits to work” where the health and wellbeing of the engineer while on site will be the responsibility of the host organization/SRL. In the age of COVID‐19, such documentation to regulate service engineer visits is even more essential and will include building inductions to explain access and possible one‐way systems in the laboratories space. It will also provide assurances that the engineer will be working in a safe, clean environment and what PPE (if any) will be provided by the SRL and what will be required by the engineer. It is now also the case that many instrument manufacturers and servicing companies will also have their own “field service risk assessment method statement” that should be provided to all customers prior to any site visit, with the reciprocal SRL document being provided upfront also. In this way, both parties know what to expect and how each will conduct themselves to minimize and eliminate all risks for SARS‐CoV2. An example of a COVID‐19 “service engineer visit policy” is given in the Supporting Information S1. REGULATION OF SRL SPACE AND OCCUPANCY Physical Distancing Current Center for Disease Control and Prevention (CDC) guidelines recommend a minimum of 6 ft (1.8 m) of distance in each direction be maintained between people at all time (1), though this may vary in other regions/institutional settings (i.e., the United Kingdom and Europe state anywhere from 1 to 2 m of distance should be maintained; Australia and New Zealand state 1.5 m; Canada and Mexico states 2 m). When setting up your SRL to maintain physical distancing, it is recommended that: All laboratories clearly post occupancy limits outside of each area. Only one person is to be present at an instrument at a given time. When samples are being brought to the SRL for service purposes, they should be brought by only one individual. Tape markings on the floor to indicate distancing bubbles around each instrument (see Fig. 2). Schedule activities in a staggered manner so that occupancy limits are followed. All usage must be prebooked so that there is no overlapping of usage; a 15 min break between each appointment is recommended to avoid overlap of users. The person who has booked the system must be the only attending user. This is essential for controlling access by fully competent users who have agreed to any new “use and access policy” but also for the purposes of contact tracing should an outbreak linked to the SRL occur. It may be necessary to seek departmental and institutional support to move machines to allow for operation under physical distancing regulations. Excess seating should be removed. Figure 2 Representative examples of enacting physical distancing guidelines within an SRL. (A) Diagram from Newcastle University, Newcastle upon Tyne, UK. On the floors, tape markings have been created to show entry points to access instruments. Perspex screens have been erected between instruments. Importantly all users face away from both other users and away from the central access to the lab. (B) Diagram from National Laboratory of Flow Cytometry, Department of Immunology, Biomedical Research Institute, National Autonomous University of Mexico. Notice tape marking between instruments, users face toward walls, and signage on lab entrances. When multiple instruments are present within a room, are not separated enough to allow proper distancing and no further room can be obtained, engineering controls such as Plexiglas or Perspex dividers be considered (see Fig. 2). If this is not possible, linked calendars between closely located instruments are a good mechanism to prevent simultaneous usage. REGULATING BEHAVIORS AND PRACTICES WITHIN THE SRL Based on the current research, the transmission of SARS‐CoV‐2 occurs predominantly through respiratory droplets and direct contact (2). Due to this, general behaviors such as hand hygiene, surface disinfection, and maintaining physical distance are of particular importance to reduce disease transmission. Within SRLs, there are many strategies that can be easily implemented to follow these guidelines. Hand Hygiene To reduce the transmission of SARS‐CoV‐2, it is recommended that hands be washed with soap and water for at least 20 s; use of an alcohol‐based hand sanitizer containing at least 60% alcohol is possible when hands are not visibly dirty or hand washing is not possible (3). Hands should be cleaned any time a person enters or exits the SRL, as well as after coughing or sneezing. In rooms where there is no sink and hand washing is not possible, it is recommended that hand sanitizer be made available at each workstation. It is currently recommended that users enter the SRL, wash/sanitize hands, and put on new gloves. At the end of a session, the user would then remove and dispose of the gloves, wash/sanitize hands, and leave the facility. In addition to this, it is recommended that users: stay home and away from others when feeling ill; avoid touching their face with unwashed hands; cough and sneeze into a tissue or the bend of their arm; and dispose of used tissues in a lined waste container and then wash their hands. It is recommended that a waste bin for used gloves and soiled tissues be placed either near the wash station or at the exit to the SRL. Laboratory Hygiene Current evidence shows that SARS‐CoV‐2 can survive on surfaces such as plastic or stainless steel for several days (4). This would encompass many high‐touch surfaces in a SRL, including but not limited to desktops, keyboards, computer mice, cytometers and other SRL instrumentation, light switches, door knobs, and faucets. As such, it is recommended that these surfaces be disinfected regularly with 70% ethanol/30% water (3). The disinfection should be done with a disinfectant‐soaked tissue that is used to thoroughly rub all surfaces, considering (1) that an exposure time of 30–60 s is required to properly disinfect the surface, and (2) an excessive amount of liquid should be avoided to prevent damage to electrical components. Spray bottles are not recommended for disinfection purposes. All materials used for disinfection should then be disposed of in appropriate waste bins. Instruments should be wiped down between each user either by the user themselves or by SRL staff wearing appropriate PPE for the task. Guidance from your Institutional Health and Safety office should be followed when creating SOPs for disinfection within the SRL. The chosen method must be validated or at least published as being able to deactivate SARS‐CoV‐2 (agent, concentration, and time). Currently, many SRLs are having users disinfect instruments and attached work areas before and after each use; other high touch areas are then disinfected by SRL staff throughout the day. If possible, it is highly recommended that water‐proof keyboards be purchased or that keyboards be covered in plastic wrap that is replaced regularly (5). Within the SRL, it is recommended to avoid sharing laboratory coats, pens, or other materials that are for personal use. Each staff member and facility user should have their own personal laboratory coat, pen, and so on that is labeled and stored in a manner that prevents cross‐contamination (6). Personal Protective Equipment The appropriate use of PPE has always been critical in reducing the exposure of personnel to laboratory biohazards and possible pathologies. Correct use of the various forms of PPE is important as it represents the last line of defense against exposure in most situations. However, with SARS‐CoV‐2 causing a global pandemic, the use of PPE in SRLs has had to adapt. As such, SRL directors/managers and staff have had to think beyond minimal PPE requirements for working in the SRL. PPE Lab coats and body suits: Lab coats should be changed immediately if contaminated and should never be taken home for cleaning. Coats should be closed (buttoned) and purchased in liquid resistant material in order to minimize liquid entrapment. As an alternative, long sleeve water‐resistant disposable gown could be considered as an option. A disposable protective body suit (Tyvek), gloves, and shrouds with HEPA filtered Powered Air Purifying Respirator (PAPR) are recommended for situations of sorting SARS‐CoV‐2 in a BSL‐3 facility and in situations where processing hazardous samples for flow is needed (7, 8). Gloves: A variety of gloves are available through numerous manufacturers. Sensitivity to latex must be considered and Institutional Health & Safety may need to provide alternatives that are equally effective in providing protection. In some cases, double gloves may be advisable. Masks: The use of masks will need to vary depending upon the situation. A homemade mask or surgical mask would be appropriate for use in an SRL as long as it covers the nose and mouth. An N95 (personally fitted) or FFP2 mask can be considered if materials from COVID‐19 patients are being studied or in other circumstances where they may be necessary. Eye protection: Appropriate eye shields should be used; this may include safety glasses or a face shield. Instruments This section will provide a very brief overview of guidelines for instruments. For more details, please reference the articles dedicated to flow cytometry analyzers and sorters in this special issue. Analyzers: As a rule, aerosols are not usually generated through normal operation. Users are best advised to consult with SRL staff about preparation and possibly required fixation prior to analysis (9). However, vortexing (flicking) a sample has the potential to generate aerosols underscoring the need of proper PPE use. It is recommended that caps always be in place until the tube(s) is loaded onto the instrument. While fixation will inactivate SARS‐CoV‐2, proper use of necessary PPE should not be taken for granted on an analyzer. Sodium hypochlorite (bleach) at 10% or other appropriate decontamination solution should be present in the waste tank to ensure nothing viable remains. Sorters: Sorts for biosafety level‐2 (BSL‐2) and BSL‐2 with enhanced procedures should be completed in a biosafety cabinet that is checked and tested at regularly scheduled intervals. The same stipulation would apply to sorters in BSL‐3 facilities. As there is the potential for aerosol generation, the correct use of PPE and the biosafety cabinet by SRL staff is paramount (8). NEW COMMUNICATION TECHNIQUES Prior to the escalation of the SARS‐CoV‐2 pandemic, work in most of the global SRLs required the presence of personnel to carry out the tasks such as sample acquisition, cell sorting, and user training, among others. This section will discuss modification in communication techniques so SRL staff can efficiently follow regulatory guidelines and continue training, troubleshooting, and providing base services remotely (see Table 1). Table 1 Recommendations for remote vs. on‐site work during the COVID‐19 pandemic. An overview of recommendations for remote vs. on‐site work in an SRL for various phases of a relaunch strategy Stage 1: Cessation of research activity Stage 2: Remote activity and limited on‐site research Stage 3: Resumption of research activity Activities in SRL A B C A B C A B C User attention and administrative functions Inventories and supplies x x x Staff meetings and communication x x x Maintenance of quality management systems x x x x a User management (Permissions and aptitude test) x x x x a Training new users x x x x a Training in use of instruments x x x x a Resolution of doubts and consultation x x x SOP'S elaboration and implementation x x x Flow Cytometry Courses x x x Operative functions Staining protocols x x a x a Flow cytometry acquisition x x a x a Cell Sorting x x a x a Daily QC, maintenance, and performance x x x Troubleshooting x x x x External servicing x x x Data analysis x x x A, remote only; B, on‐site; C, not recommended. a Performance with limitations. Working From Home At the peak of the pandemic, SRL personnel largely moved to working from home, making virtual training strategies and support essential. The use of virtual meeting platforms and remote desktops has become extremely important in maintaining contact with coworkers and users. Applications such as Zoom, Microsoft Teams, WebEx, WhatsApp, Skype, Google Meet, and so on were implemented in most laboratories. For task planning, the use of Google Drive office tools and task planners such as Slack, Trello, Asana, Monday, and so on can be implemented among teams to aid in communication and track productivity (10, 11). Communicating Policies/Policy Changes to Users With changing SRL guidelines and SOPs throughout the pandemic, clear communication of new policies and procedures is essential. Common tools for communicating these changes include virtual tools, infographics, posters, or other signage (12). Communications with Users Virtual training: One of the most relevant challenges for SRLs is user training while adhering to physical distancing regulations. To achieve this, some SRLs have adapted virtual education strategies ranging from screen shared demonstrations of software operation to video‐recorded lectures. In the particular case of novice users who require technical competence for the use of equipment, the use of remote desktops that the trainer can control may be useful. For more information, please see the manuscript in this special edition on remote training. Virtual data analysis: During the peak of pandemic in Europe and America, data analysis software such as FlowJo™ (Becton Dickinson Co) and FCS Express (De Novo software) allowed open access to their platforms, in this way many users benefited. The use of virtual desktops may also be useful tool. Use and troubleshooting of instruments: Virtual desktop tools can also be implemented for the remote management of instruments with the assistance of laboratory personnel, especially for solving equipment problems. IT departments may have restrictions on supporting computer hardware supplied by the manufacturer that is not under the control of the IT department. It would be advisable for SRLs to work these procedures out in advance. RISK MANAGEMENT SRLs engage in various day‐to‐day activities which, due to the COVID‐19 pandemic, need to be altered or ceased to minimize the risk of infection and spread of the virus. As SRLs come in different shapes and sizes some risks may not apply to all but Table 2 provides a good overview of the main risks in most SRLs (13). Table 2 Risk assessment for operating a SRL during the COVID‐19 pandemic Risk Risk Level Breach/issue Mitigation measures Continuous flow of people in the SRL High Physical distancing Room capacity ‐Staggered schedules for SRL staff ‐Use of equipment with defined intervals and time between users. ‐Floor tape and Perspex screens to restrict area access ‐Constant disinfection of high traffic surfaces. ‐Use of appropriate PPE Confirmed COVID‐19 case within the SRL/Building High Confirmed virus exposure to users and areas ‐Prepare SOP for such an event ‐Include a business continuity plan ‐Instigate contact tracing using instrument booking records Ventilation system with air recirculation High Recycled air not clearing potential viral particles ‐Turn off ventilation system, open windows ‐Use of appropriate PPE User training High Physical distancing Room capacity ‐Remote training using programs such as “team viewer” ‐If not possible; Use of appropriate PPE ‐Laser pointers to allow physical distancing ‐Use of training videos and other educational material Sorting High Physical distancing Room capacity ‐Remote sorting using programs such as “team viewer” for sample/gating checks ‐Use of appropriate PPE ‐Sample drop off and pick up locations outside the sorting area/room Sorting untested primary human sample High Possibly infectious Aerosol generation during blockages, spills and handling ‐ Sorting to be carried out in BCL3/PC3 level area ‐ Aerosol management system attached to sorter ‐ Alternative, use a sorter that does not generate aerosols. Biometric lock to enter the SRL Medium High traffic/risk surface for transmission ‐Provide sanitation station for frequent disinfection of the lock and hand disinfection before and after contact Entrance and exit at the same door. Medium Physical distancing restrictions High traffic/risk surface for transmission ‐Staggered schedules/bookings ‐Keep the door open during normal hours to minimize transfer risk Inadequate instrument spacing Medium Physical distancing restriction Room capacity restrictions ‐Space out instruments within the room ‐Move instruments to different rooms if not possible, stagger availability of instruments to comply with room capacity and/or physical distancing restrictions Reception of suppliers and signing of printed documents. Medium Physical distancing restrictions High traffic/risk surface transmission ‐Schedule defined hours for reception of suppliers. ‐Use of appropriate PPE ‐Move to digital if possible, if not practice good hand hygiene Staff and users unaware of new rules Medium Staff or users failing to follow the rules and putting others at risk ‐Send out new SOP's to all users and institute OH&S teams ‐Ensure received and read through declaration document ‐Add signage to all rooms (physical distancing, room capacity limits, etc) Analyzing untested unfixed primary human samples Medium Increased risk of transmission Resuspension method generating aerosols Spills ‐Impose all untested/unfixed primary human samples be fixed with an approved method before acquisition on instruments. ‐ If not possible due to functional or time course experiments move an instrument into a BCL2/PC2 hood. In conjunction with Table 2, it is imperative to speak to your institute's safety officer and raise any concerns as well as provide as much information as possible to encourage the implementation of appropriate regulatory guidelines. DISCUSSION AND CONCLUSION SRLs have adapted and retooled operational procedures on multiple fronts simultaneously in light of the global pandemic of SARS‐CoV‐2. Physical distancing has changed how SRLs interact with their clients, both in terms of service and client education. Risk management of each step in the operation of SRLs needs to be considered. Importantly, both SRL staff and users must understand and meet the expectations of these new guidelines. How to best and effectively manage the SRL team to minimize must take planning, flexibility, and consideration from all staff. While some tasks of the SRL are difficult to perform off site/virtually, others such as consults, experimental planning, and data analysis can be done remotely. For matters of machine maintenance, guidance with clients needing assistance, and tasks not suited for remote access can be handled by those on site where shifts/rosters among SRL staff can be arranged. What can and cannot be managed virtually must be discussed on a case‐by‐case basis to best utilize the staff while trying to balance risk management. It is our aim that the recommendations outlined within can be used to guide SRLs in the current situation as well as future situations. Some institutes require SRLs to have an “emergency preparedness” list of procedures to be followed during certain times. However, implementing these regulations is not without challenges. Foremost, it is also important to note that the COVID‐19 situation can change rapidly, resulting in the potential need to change/update regulatory guidelines with short notice. As such, the regulations outlined herein will need to be continually adapted to best fit to the constantly evolving nature of the pandemic. Due to the nature of SRL operations, we will need to be ready to adapt quickly. AUTHOR CONTRIBUTIONS Andrew Filby: Conceptualization; writing‐original draft; writing‐review and editing. David Haviland: Conceptualization; writing‐original draft; writing‐review and editing. Derek Jones: Conceptualization; writing‐original draft; writing‐review and editing. Andrea Bedoya López: Conceptualization; writing‐original draft; writing‐review and editing. Eva Orlowski‐Oliver: Conceptualization; writing‐original draft; writing‐review and editing. Aja Rieger: Conceptualization; writing‐original draft; writing‐review and editing. Supporting information Appendix S1: Supporting Information Click here for additional data file.

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          Persistence of coronaviruses on inanimate surfaces and their inactivation with biocidal agents

          Summary Currently, the emergence of a novel human coronavirus, SARS-CoV-2, has become a global health concern causing severe respiratory tract infections in humans. Human-to-human transmissions have been described with incubation times between 2-10 days, facilitating its spread via droplets, contaminated hands or surfaces. We therefore reviewed the literature on all available information about the persistence of human and veterinary coronaviruses on inanimate surfaces as well as inactivation strategies with biocidal agents used for chemical disinfection, e.g. in healthcare facilities. The analysis of 22 studies reveals that human coronaviruses such as Severe Acute Respiratory Syndrome (SARS) coronavirus, Middle East Respiratory Syndrome (MERS) coronavirus or endemic human coronaviruses (HCoV) can persist on inanimate surfaces like metal, glass or plastic for up to 9 days, but can be efficiently inactivated by surface disinfection procedures with 62–71% ethanol, 0.5% hydrogen peroxide or 0.1% sodium hypochlorite within 1 minute. Other biocidal agents such as 0.05–0.2% benzalkonium chloride or 0.02% chlorhexidine digluconate are less effective. As no specific therapies are available for SARS-CoV-2, early containment and prevention of further spread will be crucial to stop the ongoing outbreak and to control this novel infectious thread.
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            Social media for rapid knowledge dissemination: early experience from the COVID ‐19 pandemic

            The current COVID‐19 pandemic is threatening global health. Rates of infection outside of China are rapidly increasing, with confirmed cases reported in over 160 countries as of 19 March 2020 1. During the Severe Acute Respiratory Syndrome (SARS) epidemic, 21% of the global cumulative case total were healthcare workers 2. However, a recent study from Wuhan, China reported that 1716 healthcare workers were infected with COVID‐19, representing 3.8% of confirmed cases 3. During the SARS epidemic, it is likely that a lack of awareness and preparedness put healthcare workers at risk 4. Thus, delivering rapid, reliable information that addresses critical infection control issues is of key importance, and tracheal intubation is known to be associated with a high risk of transmission of viral infections to healthcare workers 5, 6. The challenge is how to transfer knowledge of current best practices to the people who need it most, at a pace equal to or better than the spreading epidemic. The paths for, and rate of dissemination of traditional scholarly publications 7, static websites and even email are known to be slow. During the SARS epidemic, worldwide internet access was well established, yet gaining access to potential medical users was largely reliant on email contact and personal communication 8. Well‐designed free open access educational material should distil key information in a clear, actionable format, while paired with social media–powered dissemination using social networks, in addition to traditional communication methods. Utilising social media in this way has shown promise as a speedier alternative 9. The use of the principles of the Free Open Access Medical education (FOAM) networks further provide good examples of the effectiveness of making information freely available. We describe an example of an efficient and rapidly disseminated infographic describing a practical intubation guideline for use in operating theatres and other critical care areas during a pandemic. Finding a solution Preventing infection and promoting psychological well‐being to front‐line healthcare workers during an epidemic is essential and the negative psychological impact of SARS on healthcare workers was exacerbated by uncertainty and unfamiliarity with infection control measures 4. Infection of healthcare workers disproportionately increases work‐load and reduces the capacity of staff and hospitals to continue to provide patient care 10. Well‐designed infographics have the potential to provide concise and practical information to institutions and healthcare workers and are associated with higher reader preference and lower cognitive load 11, 12. They aid knowledge translation by increasing information retention according to the cognitive load theory and dual coding theory 11. Moreover, making infographics easily accessible, engaging, reusable and modifiable to fit local needs and user requirements is more likely to meet the imperatives of diffusion of innovation to combat the current pandemic 13. Prince of Wales Hospital is a tertiary, academic hospital in Hong Kong affiliated with The Chinese University of Hong Kong. The clinical staff had substantial outbreak experience during the SARS pandemic. Utilising this experience, and through iterative systems testing and improvement using in‐situ simulation, the unit developed an infographic on the principles of airway management focusing on infection control for staff and patient safety in the context of COVID‐19. We disseminated the infographic via social media including Twitter™ and WeChat™ (Fig. 1) and via the departmental website (http://www.aic.cuhk.edu.hk/covid19). The method of dissemination was rapidly and well received by the international community, resulting in locally facilitated translations into Italian, Portuguese, French, Spanish, German, Dutch, Polish, Serbian, Farsi, Turkish, traditional Chinese, simplified Chinese and Japanese. All translations were completed and made available for users within a 10‐day period. Collaborations also enabled context‐specific modifications of the infographic to merge with local practices. For example, double gloving was a technique that the Italian community requested, and the infographic was modified to accommodate this for the Italian translation. As of 19 March 2020, there have been 63,440 impressions on Twitter since publication on 19 February 2020, with many retweets and requests for sharing of the infographic at their respective institutions around the world. There have been 8614 page views on the departmental website since publication on 7 March 2020. More importantly, through social media platforms and personal communication, numerous reputable organisations, including the World Federation of Societies of Anaesthesiologists, Australian and New Zealand College of Anaesthetists, Australian Society of Anaesthetists, UK ICM Anaesthesia Covid‐19 Collaboration, Brazilian Anaesthesiology Society, French Society of Anesthesia and Intensive Care Medicine, and others, have utilised the infographic as a resource for their respective healthcare communities. This redistribution of the material through additional, highly accessed and trusted dissemination platforms markedly increases the value of the infographic, and reduces the need for other individuals and units to waste needed resources reproducing similar material. The rapid uptake and sharing across networks, driven by healthcare workers’ needs, demonstrates ‘just‐in‐time’ health professional information sharing. Figure 1 Infographic for principles of airway management in COVID‐19 Limitations of social media There are limitations to dissemination of online resources, and before considering implementation, healthcare workers must critically appraise the information provided 14. Known risks of non‐peer–reviewed materials disseminated via social medial include the application of context‐specific resources to unsuitable situations; engagement with biased knowledge within echo chambers’ (groups consisting of only like‐minded individuals) and algorithm‐driven filter bubbles that selectively display information based on user preferences 15; and insufficient source information available to distinguish between valid and invalid information 16. In medicine, there is the additional risk of early adoption of unvalidated research or practice, and the risk of future medical reversal 17. Some of these issues are not unique to non‐peer–reviewed resources, and peer‐reviewed materials face similar challenges 18. Responsible use of social media–disseminated information To address these limitations, we propose criteria to be implemented by users of professional social medial platforms to promote the responsible use of social media–disseminated information (Box 1). Box 1 Criteria for the responsible use of social media disseminated information. Preferential use of established professional forums, or communication groups to deliver information. Clear identification of the information source – allows user to judge the likely veracity and quality of information. Declaration of conflicts of interest, when appropriate. Identify methods to verify the source when appropriate or necessary – website address if source not readily accessible by simple search strategies, or institutional email address of originator. Transparent methods for peer review and feedback, for example, utilising transparent FOAM platforms for post‐publication peer review processes, provision of author/institutional contact details so that criticisms can be directed directly to originators. Transparently acknowledge and document collaborations with identified professional experts, and when necessary adjust information to meet contextual needs. Pursue a traditional peer review process as soon as feasible and, if appropriate, reference peer review results once obtained. Conclusion In the current COVID‐19 pandemic, social media has the potential, if responsibly and appropriately used, to provide rapid and effective dissemination routes for key information. The example provided validates this possibility. In summary, the infographic presented met the majority of above proposed criteria. The success of the dissemination was, we believe, promoted by the existing reputation of the institution, quality of the infographic imagery and content and the rapid dissemination by social media platforms with professional participants. This allowed several institutions to utilise the time‐consuming work already done in the original institution, and not have to repeat the investment of time and energy to reproduce similar material. Free and rapid access to high‐quality information from verifiable sources is valuable to optimise the global medical response to crises such as the current COVID‐19 pandemic.
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              Communication Skills in the Age of COVID-19

              COVID-19 has placed enormous stress on hospitals and health care providers worldwide. Limitations in hospital capacity may result in difficult decisions in how life-sustaining technologies are allocated among patients. The authors of this essay provide guidance on how to communicate with patients who are seriously ill from COVID-19 infection.
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                Author and article information

                Contributors
                aja@ualberta.ca
                Journal
                Cytometry A
                Cytometry A
                10.1002/(ISSN)1552-4930
                CYTO
                Cytometry
                John Wiley & Sons, Inc. (Hoboken, USA )
                1552-4922
                1552-4930
                27 November 2020
                : 10.1002/cyto.a.24264
                Affiliations
                [ 1 ] Innovation, Methodology and Application Research Theme Newcastle University Newcastle upon Tyne UK
                [ 2 ] Flow Cytometry Core, Houston Methodist Research Institute Houston Texas USA
                [ 3 ] Department of Pathology and Laboratory Medicine Perelman School of Medicine at the University of Pennsylvania Philadelphia Pennsylvania USA
                [ 4 ] National Laboratory of Flow Cytometry, Department of Immunology Biomedical Research Institute, National Autonomous University of Mexico Mexico City Mexico
                [ 5 ] AMREP Flow Cytometry Core Facility Burnet Institute Australia
                [ 6 ] Department of Medical Microbiology and Immunology, Faculty of Medicine and Dentistry University of Alberta Canada
                Author notes
                [*] [* ] Correspondence to: Aja M. Rieger, Department of Medical Microbiology and Immunology, 6‐020C Katz Group Centre, University of Alberta, Edmonton, AB T6G 2E1, Canada

                Email: aja@ 123456ualberta.ca

                Author information
                https://orcid.org/0000-0001-9078-4360
                Article
                CYTOA24264
                10.1002/cyto.a.24264
                7753821
                33190383
                7c3e81c9-cc02-4461-9ab4-65a81bff3436
                © 2020 International Society for Advancement of Cytometry

                This article is being made freely available through PubMed Central as part of the COVID-19 public health emergency response. It can be used for unrestricted research re-use and analysis in any form or by any means with acknowledgement of the original source, for the duration of the public health emergency.

                History
                : 17 August 2020
                : 22 September 2020
                : 11 November 2020
                Page count
                Figures: 2, Tables: 2, Pages: 9, Words: 5789
                Categories
                SRL Communication
                SRL Communication
                Custom metadata
                2.0
                corrected-proof
                Converter:WILEY_ML3GV2_TO_JATSPMC version:5.9.6 mode:remove_FC converted:22.12.2020

                Cell biology
                covid‐19,sars‐cov‐2,regulatory guidelines,srl operations,core scientific facilities

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