Johannsdottir, L, et al. 2021. Systemic risk of cruise ship incidents from an Arctic and insurance perspective. Elem Sci Anth,9:1.DOI: https://doi.org/10.1525/elementa.2020.00009
RESEARCH ARTICLE Systemic risk of cruise ship incidents from an Arctic and insurance perspective
Lara Johannsdottir1,*, David Cook1, and Gisele M. Arruda2
Easier accessibility and demand for so-called last chance tourism has contributed to rapid growth in Arctic cruise ship tourism. Arctic cruising brings many benefits to remote coastal communities but also presents an array of risks. In the light of this context, this article explores the concept of systemic risk of cruise ship Downloaded from http://online.ucpress.edu/elementa/article-pdf/9/1/00009/474369/elementa.2020.00009.pdf by guest on 25 September 2021 incidents in general, findings which are then placed in an Arctic context and consideration given of the role the insurance sector may play in addressing cruise ship incidents. The study is based on metadata, both from academic and nonacademic sources. Findings are drawn from 11 global case studies of cruise ship incidents, 5 of which are polar examples. In the worst-case scenario, an array of serious economic, business, environmental, sociocultural, and security impacts may unfold in the Arctic, presenting risks that may be considerably worse than in other parts of the world. Arctic-specific challenges include extreme weather conditions and the presence of sea-ice, navigation and communication conditions, and lack of infrastructure (port facilities, Search and Rescue capabilities). Significant knowledge gaps across the Arctic have been identified, for example, in terms of seabed mapping, how to deal with industry-related activities, and the risks and nature of environmental change. When cruise ship risks in the Arctic are considered, both passenger and shipowner risk need to be accounted for, including Search and Rescue cover. Although data are limited, there is evidence that the sociocultural risks of an Arctic cruise ship incident are insufficiently addressed, either via insurance mechanisms or cross-border, navigational safety guidelines such as the Polar Code. The academic contribution of the study is the systemic scale of the analysis, and the practical and political implications are to lay the foundation for solution discussion that is of relevance in an Arctic and insurance context.
Keywords: Arctic, Insurance, Cruise ship, Systemic risk, Incident, Worst-case scenario
Introduction cities” (Research Centre for Coastal Tourism, 2012, p. 3).The Across the world, cruise tourism has been the largest grow- types of cruises, however, differ and may include cruises in ing part of the tourism industry, experiencing a doubling in giant vessels, river cruises, theme cruises, mini cruises, scale every 10 years since 1990 (Research Centre for Coastal world cruises, transit cruises, and turnaround cruises Tourism, 2,012; MacNeill and Wozniak, 2018). The size of (Research Centre for Coastal Tourism, 2012). the vessels has furthermore expanded in such a way that New destinations are on the agenda as traditional although a typical cruise ship in the 1960s accommodated cruise ship routes have become crowded (Research Centre between 600 and 1,000 passengers, recent class vessels can for Coastal Tourism, 2012). Given the melting of ice, newly host over 5,000 tourists (Klein, 2018). Cruise ship vessels accessible routes are emerging, as well as the perception operating in polar waters are usually smaller with fewer of “last chance” tourism (Veijola & Strauss-Mazzullo, passengers on board (Research Centre for Coastal Tourism, 2019), which influences the “desire for tourists to witness 2012). The cruise ships are often quite luxurious, described vanishing landscapes or seascapes and disappearing as floating resorts or cities (Research Centre for Coastal species” (Lemelina et al., 2010, p. 477). This means that Tourism, 2012). This form of tourism has been defined as larger tours to more remote locations (Ocean Conservancy, “a luxurious form of travelling, involving an all-inclusive 2017) are becoming increasingly popular destinations for holiday on a cruise ship of at least 48 h, according to specific cruise ship operators (Lasserre and Teˆtu, 2015; Innanrı´kis- itinerary, in which the cruise ship calls at several ports or ra´ðuneyti´ Islands, 2016), including high-end tourism in large ships navigating Arctic waters. Seaborne tourism, especially the cruise ship industry, constitutes one of the 1 Environment and Natural Resources, University of Iceland, fastest growing segments of polar tourism (Larson & Fon- Reykjavı´k, Iceland dahl, 2015; Bystrowska and Dawson, 2017; Dawson et al., 2 University of Aberdeen, Aberdeen, Scotland 2018; Palma et al., 2019). * Corresponding author: Whereas there were only three zones that attracted Email: [email protected] cruise ships in 2000, Russian, Greenlandic, and Canadian, Art. 9(1) page 2 of 22 Johannsdottir et al: Systemic risk of cruise ship incidents by2017therewere10(AECO,n.d.;Teˆtu et al., 2019). There are benefits and challenges associated with Newly emerging routes and destinations have been pro- cruise ship operations in the Arctic, as stated by the Arctic minent (Lamers et al., 2018). In Iceland, the number of Council: cruise ship visitors increased from 265,935 in 2015 to 402,834 in 2017, an uplift of 66% (Icelandic Tourist Board, The Arctic Ocean is an important source of 2018). In 2019, 496,432 cruise passengers visited ports in livelihood for communities along its shores. The northern Norway, which is a 33% increase since 2014. demand for natural resources and the opening of Nowadays, most of the cruises organized in the High Arc- new sea routes may bring prosperity to the region, tic frequent the archipelago of Svalbard (Bytrowska and but they will also increase the risks to Arctic Dawson, 2017). The number of cruise ship visitors to Sval- inhabitants and nature. The global interest in the bard increased from 39,000 in 2008 to 63,000 in 2017, Arctic puts pressure on developing models for growth of 62%. Significantly less, albeit growing, cruise stewardship of Arctic sea areas to safeguard ship tourism is occurring in Greenland and Canada (AMAP, sustainable development of the region. (Arctic 2018). The number of cruise ship visitors to Greenland increased from 20,000 to 30,000 per year between Council, 2017b, p. 5) Downloaded from http://online.ucpress.edu/elementa/article-pdf/9/1/00009/474369/elementa.2020.00009.pdf by guest on 25 September 2021 2008 and 2017 (Bytrowska and Dawson, 2017). Cruise Economic development in the Arctic, including ex- shipping in Arctic Russia is also gradually expanding, with panding tourism, has the potential to facilitate positive Arkhangelsk a focal point (Olsen et al., 2020), partly due to economic and social development, such as through infra- its location near to the Russian Arctic National Park, es- structure investments, tax revenues, and increased tablished in 2009 and including Severny Island and Franz employment (PAME, 2015). In the Canadian Arctic, tour- Josef Land (Pashkevich et al., 2015). Overall, cruise passen- ism ships, including cruise ships, have increased by 75% ger data from the Association of Arctic Expedition Cruise during the period 2005–2018 (Dawson, 2018), but in the Operators show the growth of visitors to the High Arctic Arctic region as a whole, there was a 400% increase in from 67,752 in 2008 to 98,238 in 2017, an upscaling of cruise ship traffic registered between 2004 and 2007 57% (Palma et al., 2019). (from 50 to 250 ships; Ocean Conservancy, 2017). In the Until the year 2020, when, by June, more than 50% of harbor of Reykjavı´k, Iceland, arrival of cruise ships Arctic cruise ships had been canceled or postponed until increased from 77 in 2005 to 152 in 2018, and numbers 2021 due to the COVID-19 pandemic (Halpern, 2020); the of visitors from 54,795 to 144,658, respectively (Faxaflo´a- cruise ship industry was rapidly expanding to meet hafnir, n.d.). Consequently, communities in some remote demand in the Arctic. One example of a larger cruise was Arctic locations, such as Svalbard (20,000 cruise ship visi- when the Crystal Serenity cruise, a vessel with a capacity of tors per year in 2018) and Greenland (50,000 cruise ship 1,700 passengers and crew, sailed through the Northwest visitors per year in 2018; Brigham and Hildebrand, 2018), Passage of the Canadian Arctic’s territorial waters in 2016 are increasingly transitioning from subsistence to mixed (Arctic Today, 2017). According to The Barents Observer economies, with nowadays a strong monetized element (2018), by 2022 it is anticipated that 28 new, specially (Trump et al., 2018). designed ships will be operational in addition to the 80 The development is also regarded as controversial as (in 2018) already sailing in Arctic waters. The emergent small Indigenous communities may be overwhelmed with class of ships will be able to venture deeper into the Arctic 1 large number of passengers entering small villages while than before, having a higher ice-class, with some of the 28 not leaving much behind in terms of revenues (The Guard- new ships being Polar Class 5 (The Barents Observer, ian, 2019; The Jakarta Post). There may also be negative 2018). Despite the extent of melting summer sea ice, the impacts on social behavior and the traditions of local in- season for cruise ship operators in the Arctic is likely to habitants and small coastal communities, disruption to remain very short, from June to late August in most loca- fishing and hunting practices, and congestions at small tions. This means that certain ports will become crowded, ports (Research Centre for Coastal Tourism, 2012; Ocean with much of the industry focused on a few, core loca- Conservancy, 2017). Negative impacts on the natural envi- tions, in places such as Longyearbyen on Svalbard, North- ronment—in some cases, an untouched environment— ern Norway, Franz Josef Land in Russia, Iceland, include considerable generation of gray water and sewage Greenland, Canada, and Alaska in the United States (Ocean Conservancy, 2017), “emissions of ‘black carbon’ (Cruise Industry News, 2018). The pressure is therefore (caused by soot), transport of alien species (some of which also to increase the number of winter voyages, such as can become invasive) and chemical contamination” (Gov- from Bergen to the town of Kirkenes in far north- eastern Norway in a 530-passenger ship (The Barents ernment Office for Science, 2018, p. 47). Additionally, Observer, 2018). some cruise ships operate under flags of convenience, where they might treat their crews poorly in terms of salaries and security, to name some issues (Research Cen- 1. Ships can be assigned one of seven Polar Classes (PC) tre for Coastal Tourism, 2012). ranging from PC 1 for year-round operation in all polar waters The negative impacts discussed above do not address to PC 7 for summer and autumn operation in thin first-year ice. potential negative impacts in case of significant cruise The Polar Classes are based on the Unified Requirements for Polar Class Ships developed by the International Association of ship accidents in the region. In this context, it is worth Classification Societies (IACS, 2016). noticing that: Johannsdottir et al: Systemic risk of cruise ship incidents Art. 9(1) page 3 of 22
It is the duty of each sovereign state to guarantee of Costa Concordia, which sank off the coast of Tuscany, the security of its citizens, including to ensure the Italy, human error played a critical role despite the adop- security of its citizens in order to prevent threats to tion of strict safety precautions (Research Centre for their lifestyles and economic foundation. Coastal Tourism, 2012). (Innanrı´kisra´ðuneyti´ Islands, 2016, p. 9) Other definitions of incident highlight nonconformity to commonly agreed standards. In such cases, there is Given the complexity of potential cruise ship accident evidence indicating “a non-fulfillment of a specified re- cases, a systemic risk-based approach is important. For this quirement” (International Safety Management (ISM) Code, purpose, the aim of this study is to explore the systemic 2015, p. 1). In cases of major nonconformity, there is an risk of significant cruise ship accidents in general, placing “identifiable deviation that poses a serious threat to the these findings in an Arctic and insurance context. The safety of personnel or the ship or a serious risk to the research questions proposed are as follows: environment that requires immediate corrective action or the lack of effective and systematic implementation What are the types of severe cruise ship of a requirement of this Code” (International Safety Man- incidents? agement (ISM) Code, 2015, p. 1). Furthermore, severe Downloaded from http://online.ucpress.edu/elementa/article-pdf/9/1/00009/474369/elementa.2020.00009.pdf by guest on 25 September 2021 What are the consequences when severe cruise operational incidents are defined as ones in which (G. P. ship incidents occur? Wild (International) Limited, 2018, p. 7): How might the consequences of severe cruise the ship suffers more than 24 h delay to the ship incident look like in the Arctic? published itinerary, What is the role of insurance in cases of severe fatalities occur to either passengers or crew, or cruise ship incidents? a serious injury occurs to either passengers or The paper is structured as follows: The literature review crew. section addresses definitions of significant cruise ship inci- dent, systemic and Arctic-specific risks, insurance, risk During the period 2009–2017, in total, 168 severe management, and safety. The research method is then worldwide operational incidents were registered. The explained, followed by an outlining of the findings, before nature of these events were technical problems (70), fires discussing the implications of the findings and the paper’s (26), stranding or grounding (21), minor collisions/allu- conclusions. sion (14), storm or rough waves (13), or other unspecified causes (24; G. P. Wild (International) Limited, 2018). Of these, some occurred in the Arctic or the Antarctic envi- Severe cruise ship incidents, systemic and Arctic ronment, including cases of stranding and running risks, insurances, risk management, and safety aground, extreme weather during voyages, and technical Despite the best intentions of cruise ship operators, cruise issues such as mechanical damage or failure of ship ship incidents can occur. Various concepts are used to machinery, or fires or explosions on ships (G. P.Wild (Inter- explain journey mishaps in the complex large-scale and national) Limited, 2018; Congressional Research Service, safety-critical systems of cruise ships. These include the 2020). Additionally, collision, overloading, inclement terms “incidents,” “accidents,” “mishaps,” and “disasters,” weather, fire and explosion, and bottom damage where some of which are used in the literature as synonyms, thus structural rules were not followed are incident types men- making it challenging to identify the most severe cases. tioned in Asian passenger vessel cases (Rahman, 2017). An The term “incident” is favored in this article due to its analysis of navigational shipping incidents/accidents in capacity to include accidents and nonaccidents, and the Baltic Sea has also been carried out, recognizing events which differ in terms of severity, ranging from grounding (29%) as the main cause of accidents, followed minor to significant events. In this article, a severe inci- by contact (20%), and collision (18%), where the two lat- dent describes cases of emergency, involving events such ter issues may be grouped together given the similarity in as a major oil spill or threat of loss of life and necessitating the nature of such cases (HELCOM - Baltic Marine Envi- urgent external support, for example, from the coast- ronment Protection Commission, 2014). Collision has guard, navy, other Search and Rescue (SAR) services and been the major shipping accident type in the Baltic region so on (Grabowski et al., 2000; Grabowski et al., 2009; during the period of 2014–2017 (HELCOM – Helsinki Milenski et al., 2014). The main causes of emergencies are Commission, 2018). unfavorable natural conditions, human error, and failure of equipment (Innanrı´kisra´ðuneyti´ Islands, 2016). Of these, operational incidents include “fire, technical break- Arctic-specific risks and systemic risks down, such as failure of an engine; stranding or ground- Environmental risks imposed by climate change and polar ing; passenger missing overboard and not recovered; tourism, including Arctic tourism, is a complex and inter- storm or wave damage; collision/allusion; and sinking” disciplinary subject that involves a range of bio-geo- (G. P. Wild (International) Limited, 2018, p. 7). An analysis physical, economic, socio-environmental, and cultural as- of cruise ship incidents states a lack of proper mainte- pects concomitantly. Meehan (1995) points out the diver- nance as the number one cause (60.52%), followed by sity of ecological pressures faced by Arctic ecosystems and human error (26.2%; Milenski et al., 2014). In the case societies as a result of anthropogenic activities, among Art. 9(1) page 4 of 22 Johannsdottir et al: Systemic risk of cruise ship incidents
simply by risk-based health advisories or food substitutions alone. All decisions should involve the Subsistence level of risks, e.g. individuals and/or community and consider many aspects of socio- communi es cultural stability to arrive at a decision that will be Enterprise level of risks, i.e. single cruise ship the most protective and least detrimental to the communities. (p. 165) Por olio level of risks, i.e. cruise ship industry There is limited research focusing on polar cruise tour- ism regarding its social and cultural impacts (Stefanidaki Systemic level of risk, e.g. breakdown of systems and Lekakou, 2012) or considering the systematic socio- Existen al level of risks, e.g. risk to pris ne Arc c logical and anthropological analysis of risks to local com- ecosystems or local communi es munities (Wood 2000; Weeden et al., 2011; Satta et al., 2014). When incidents create multicultural interactions,
they can provoke intense tensions (i.e., psychological dis- Downloaded from http://online.ucpress.edu/elementa/article-pdf/9/1/00009/474369/elementa.2020.00009.pdf by guest on 25 September 2021 tress for both passengers and locals) because incidents or Figure 1. Scaling of risks. Model developed by authors and accidents may cause disruption in the daily activities of inspired by models developed by (Thurm et al., 2018, residents (Cerveny, 2004; Ringer, 2010), such as hunting, pp. 6, 49; Johannsdottir and Cook, 2019). DOI: https:// fishing, herding, cultural rituals, and traditions. The ten- doi.org/10.1525/elementa.2020.00009.f1 sions are motivated by the incident circumstances but also by different beliefs and behavior patterns characteristic to them those associated with polar cruising. Forbes (1995, multicultural societies. p. 372) complements this, stating that local and regional There are many different ways to define risks, but one impacts are of two orders: “acute disturbances” resulting way is to describe the “potential for adverse consequences from a single disruptive event, like the impacts of vehicles from a hazard for human and natural systems, resulting passing across tundra landscapes, and “chronic dis- from the interactions between the hazard and the vulner- turbances” resulting from a sustained long-term pressure ability and exposure of the affected system” (IPCC, 2018, upon the ecosystems like the deposition of pollutants, p. 33). The potential frequency of negative consequences, heavy metals, or permanent or semipermanent environ- combined with the severity of such impacts, is of key mental changes. importance, as well as the probability of the event Marine pollution, whether incremental or acute, poses weighed against business impacts (Jo´hannsdo´ttir et al., major threats to humans and the natural environmental 2012). These definitions of risks, however, mainly focus (Congressional Research Service, 2020), and such risks on individual projects, businesses or, at best, from an in- need to be assessed. The challenge is, however, that vestor’s point of view, portfolios of investment options human and environmental risk assessments are often car- (Johannsdottir and Cook, 2019). Even in cases of systemic ried out in isolation from one another (Galloway, 2006). risk (see Figure 1), it is quite often related to shocks The procedures for assessing risks in both cases include affecting financial markets or institutions (Danielsson & four procedures, namely identifying the hazard, assessing Shin, 2002; Schwarcz, 2008), or in some cases to the envi- the exposure, assessing the dose–response, and character- ronment (PwC, 2014), leading to severe and widespread izing the risk (EPA, n.d.), with the ultimate goal of protect- economic consequences (The Systemic Risk Centre, 2013). ing human health and the environment. In the former As such, this suggests a very narrow focus since in some case, the goal is to protect one species, but many species cases, such as oil spills, the impacts may be much broader and ecosystems in the latter case. Therefore, “more holistic and affect economic, social/cultural, environmental, polit- assessments of human health and ecological risks” are ical/security, technological, and institutional systems (Jo- proposed (Galloway, 2006). This is particularly important hannsdottir and Cook, 2019). in the Arctic environmental, social, and cultural context The Lloyd’s of London (2012) report, focusing on where subsistence, mixed, and market economies coexist opportunities and risk related to climate change and eco- (Vammen Larsen et al., 2019). Those supporting them- nomic development in the Arctic, states a “significant level selves at a minimum level of subsistence, see Figure 1, of uncertainty about the Arctic’s future, both environmen- rely on unpolluted marine food supplies for nutritional tally and economically” (p. 5). Therefore, risk management benefits for their health and well-being. Therefore, as plays a vital role in “helping businesses, governments and stated by Van Oostdam et al. (2005): communities manage these uncertainties and minimize risks” (Emmerson and Lahn, 2012, p. 5). General risks for Social, cultural, spiritual, nutritional and economic cruise ships are similar to the ones faced by Arctic ship- benefits of these foods must be considered in concert ping in general. These include operational risk factors, with the risks of exposure to environmental geographic electronic communications challenges, cli- contaminants through their exposure. mate change–related factors, weather, icing and floating Consequently, the contamination of country food sea ice, high waves, and darkness (Emmerson and Lahn, raises problems which go far beyond the usual 2012; PAME, 2015). In addition, there are risks to the confines of public health and cannot be resolved environment, such as pollution from outside and within Johannsdottir et al: Systemic risk of cruise ship incidents Art. 9(1) page 5 of 22 the Arctic, and ecosystem disturbance, political and repu- was the case with an excursion tour where two sightseeing tational risk factors, for example, reputational, regulatory, airplanes collided in Alaska in 2019, resulting in deaths legal, domestic political, and geopolitical risks (Emmerson and injuries despite immediate rescue operations by locals and Lahn, 2012). Many of these risk factors exaggerate the (CBS News, 2019; Juneau Empire, 2019). level of risk due to remoteness, absence of infrastructure, such as port facilities, and support services, relatively inad- Insurance perspective on risks and cruise ship risks equate knowledge of seabed characteristics, and extreme in Arctic waters weather conditions (Emmerson and Lahn, 2012; PAME, In classic risk management and the insurance literature, 2015). These conditions may cause incidents such as icing four main strategies deal with risks. These are to avoid, or ice contact, including icebergs; fog, mainly during sum- accept/retain, reduce, or share/transfer the risks (Gibbs mer months; damage from ice to machinery such as pro- and DeLoach, 2006; Jo´hannsdo´ttir et al., 2012). Addition- pellers and rudders; grounding on uncharted rocks; ally, and more aggressively, risks can be exploited (De collision, delay, and/or lack of salvage impaired by remote- ´ ´ ness; and lack of infrastructure such as safe ports (Emmer- Loach, 2000; Lessard & Lucea, 2006; Johannsdottir et al., son and Lahn, 2012). The Ocean Conservancy (2017) 2012) or even ignored (Tomlin, 2006; Jo´hannsdo´ttir et al., Downloaded from http://online.ucpress.edu/elementa/article-pdf/9/1/00009/474369/elementa.2020.00009.pdf by guest on 25 September 2021 assessment of Arctic vessel traffic focuses more on cost 2012). A frequency-severity method is used to determine factors including “fuel costs, navigation fees and other the expected number of claims and average costs of these regulatory costs, insurance costs, security concerns, ability claims (Investopedia, 2018). In case of significant cruise to consistently adhere to shipping schedules, political con- ship accidents, they may fall under the category of being siderations, development of local regulations and the rel- of low frequency but high severity. The probability may ative costs of the ships themselves” (p. 30). also be low, while the business impacts may be high (Jo´- The Ministry of the Interior in Iceland in 2016 has hannsdo´ttir et al., 2012). When estimating marine risks, highlighted the cases of Costa Concordia, a cruise ship the Cambridge-Lloyd’s Marine Risk Model takes into with more than 4,000 passengers, M/V Clipper Adven- account the size and type of the ship and the jurisdiction, turer, and MS Hanseatic in Arctic conditions (Innanrı´kis- and the total loss would include hull damage or even total ra´ðuneyti´ Islands, 2016). In its report, the Ministry stated loss, such as in cases of sinking, cargo loss, wreck removal, that despite favorable weather conditions in the Costa human casualty and liability, and environmental liability Concordia case, and the fact that the ship was close to (LLoyd’s, 2018). This covers the risk of the shipowner. This shore, more than 30 people lost their lives. Cruise ships of is still insufficient in cases of cruise ships as the passengers the same size now sale close to Greenland, Iceland, and also need to be insured through private travel insurances Svalbard, but given the natural conditions in the Arctic, it covering unexpected events occurring while traveling. is expected that rescue will take a longer time than in the These insurances may, however, exclude SAR-related costs, Costa Concordia case. When M/V Clipper Adventurer which subsequently need to be covered separately (Burke, grounded, close to Kukluktuk in Nunavut in 2010, it took 2000; Trantzas et al., 2018). 2 days for the Canadian Coast Guard, using an icebreaker, In the Marine Risk Model, cruise ships are categorized to reach the ship. In the case of the grounding of MS as standard, super, and mega, with a financial value rang- Hanseatic in Gjoa Javen in Nunavut in 1996, it took a Rus- ing between $20–200 M, $200–600 M, and $600–1,200 sian ship almost a week to rescue the passengers (Innan- M, respectively (Lloyd’s, 2018). The total cost in a severe rı´kisra´ðuneyti´ Islands, 2016). As stated in the U.S. accident, namely Costa Concordia, resulted however in an Congressional Research Service report (2000): “Given the insurance cost of over $2 B (Lloyd’s, 2018). In case of location of current U.S. Coast Guard operating bases, it grounding of a cruise ship, the expected loss “could result could take Coast Guard aircraft several hours, and Coast in a $4bn loss when the costs of salvage, wreck removal Guard cutters days or even weeks, to reach a ship in dis- and environmental claims are included,” in addition to tress or a downed aircraft in Arctic waters” (pp. 47–48). passenger and crew liabilities and litigation costs (Allianz The “long times that would be needed to respond to Global Corporate and Specialty SE, 2019, p. 20). potential emergency situations in certain parts the Arctic” Several insurance reports offer insights into how insur- (Congressional Research Service, 2000, p. 49) may result ance companies perceive risks related to cruise ship opera- in a major disaster in the case of a large number of civi- tions. In a novelty report issued by Allianz Global lians on board, compared to a manageable situation in Corporate and Specialty AG (2012), entitled “Safety and a warmer climate. Given extreme weather conditions, it Shipping 1912–2012 - From Titanic to Costa Concordia,” might also not even be possible to use lifeboats or tugs to the most significant emerging issues facing the industry rescue passengers. Further escalation of the problem regarding cruise ships operating in Polar waters include would relate to limited “emergency response capabilities” the following: and the “capacity to host patients, achieving situational awareness, and unsuitable evacuation and survival equip- Arctic and Polar waters. Threats related to ment [which would] pose major challenges for maritime navigation in icy waters, hostile environmental safety and SAR in the Arctic” (Congressional Research Ser- vice, 2000, p. 48). Severe incidents related to Arctic cruis- conditions, construction and design appropri- ing may, furthermore, not solely be related to the vessel ate for Polar conditions, and emergency itself, but also extra activities offered to the passengers, as practices. Art. 9(1) page 6 of 22 Johannsdottir et al: Systemic risk of cruise ship incidents