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Erschienen in: Tobacco Induced Diseases 1/2017

Open Access 01.12.2017 | Research

Characteristics and outcomes of e-cigarette exposure incidents reported to 10 European Poison Centers: a retrospective data analysis

verfasst von: Constantine I. Vardavas, Charis Girvalaki, Filippos T Filippidis, Mare Oder, Ruth Kastanje, Irma de Vries, Lies Scholtens, Anita Annas, Silvia Plackova, Rajka Turk, Laima Gruzdyte, Fátima Rato, Dieter Genser, Helmut Schiel, Andrea Balázs, Elaine Donohoe, Alexander I. Vardavas, Manolis N. Tzatzarakis, Aristidis M. Tsatsakis, Panagiotis K. Behrakis

Erschienen in: Tobacco Induced Diseases | Ausgabe 1/2017

Abstract

Background

The use of e-cigarettes has increased during the past few years. Exposure to e-cigarette liquids, whether intentional or accidental, may lead to adverse events our aim was to assess factors associated with e-cigarette exposures across European Union Member States (EU MS).

Methods

A retrospective analysis of exposures associated with e-cigarettes reported to national poison centers was performed covering incidents from 2012 to March 2015 from 10 EU MS. De-identified and anonymous raw data was acquired.

Results

In total, 277 incidents were reported. Unintentional exposure was the most frequently cited type of exposure (71.3%), while e-cigarette refill vials were responsible for the majority of the reported incidents (87.3%). Two-thirds of all exposures (67.5%) occurred as ingestion of e-liquids, which was more frequent among children (≤ 5 years, 6–18 years) compared to adults (87.0% vs. 59.3% vs. 57.6%, p < 0.001 respectively), exposure via the respiratory (5.4% vs. 22.2% vs. 22.2%, p < 0.001) were more frequent among paediatric patients while ocular routes (2.2% vs. 3.7% vs. 11.4%, p = 0.021) were more frequent among adults. Logistic regression analyses indicated that paediatric incidents (≤ 5 years) were more likely to be through ingestion (adjusted Odds Ratio [aOR] = 4.36, 95% Confidence Interval [C.I.]: 1.87–10.18), but less likely to have a reported clinical effect (aOR = 0.41, 95% C.I.: 0.21–0.82).

Conclusions

Our study highlighted parameters related to e-cigarette exposure incidents in 10 EU MS, the results of which indicate that consideration should be given to the design features which may mitigate risks, thereby protecting users, non-users and especially children.
Abkürzungen
ENDS
Electronic Nicotine Delivery Systems
EU DG Health and Food Safety
European Directorate General for Health and Food Safety
EU MS
European Member States
FDA
Food and Drug Administration
TPD
Tobacco Products Directive
UK
United Kingdom
US
United States

Background

The European Tobacco Products Directive (TPD) 2014/40/EU, regulates e-cigarettes across 28 European Member States (EU MS) and includes provisions to harmonise the safety and technical design specifications for e-cigarettes and their refill containers [1]. The TPD and its accompanying implementing acts regulate many aspects of e-cigarette design including but not limited to the volume of the refill container, the nicotine and ingredient content and tamper resistant and child-resistant refill containers [2]. In the USA, the food and Drug administration (FDA) in 2016 also finalized a deeming rule covering the manufacture, import, packaging, labelling, advertising, promotion, sale, and distribution of Electronic Nicotine Delivery Systems (ENDS) in the United States [3].
E-cigarette refill liquids contain nicotine and a wide variety of chemical components such as humectants, flavours, and potential impurities [4, 5]. Exposure to such liquids, whether intentional or accidental, may lead to adverse events [6]. Indeed, several recent reports from poison centers, primarily from the United States (US) and the United Kingdom (UK), have revealed a significant increase in the number of reported incidents of poisoning with e-cigarette liquids and associations with specific demographic characteristics [4, 5]. However, data from across Europe, are only sporadically available, mostly in the form of case reports in the literature [79].
Due to the fact that the e-cigarette market and respective experimentation or use has been documented to increase over the past few years in Europe [10, 11], it is of significant interest to evaluate the current landscape with regards to adverse exposures to e-cigarette liquids, especially in light of the recent adoption of technical design parameters that e-cigarettes will need to adhere to within the context of alignment with the provisions of the European TPD.
In light of the above our aim was to assess the factors associated with e-cigarette exposure incidents reported to poison centers across multiple EU MS.

Methods

Data collection

A retrospective analysis of exposures associated with e-cigarettes as reported to national poison centers was conducted, within the context of a study prepared for the Directorate General for Health and Food Safety (EU DG Health and Food Safety), (Chafea/2014/Health/17).
A request for raw data was sent to poison centers within the 22 EU MS. Ten poison centers from equal EU MS (Sweden, The Netherlands, Ireland, Portugal, Austria, Slovakia, Lithuania, Hungary, Croatia and Estonia) agreed to provide raw data covering incidents from 2012 to March 2015. However, three EU MS (Ireland-53 out of 90 incidents, Croatia-3 incidents and Estonia- 10 incidents) were only able to provide summary statistics for the specific incidents reported to their centers, due to lack of detailed data or confidentiality regulations. These 66 incidents were excluded from the statistical analysis and hence all statistical analyses were performed on the 277 incidents from the remaining eight EU MS (Sweden, Ireland-37 out of 90 incidents, The Netherlands, Portugal, Austria, Slovakia, Lithuania and Hungary).
All information requested and received was de-identified and anonymous. Data on age (Paediatric incidents: ≤5 years, 6–18 years, adults: ≥19 years); gender (male, female); route of exposure (ingestion, respiratory, dermal and ocular); initial type of exposure (e-cigarette refill liquid, e-cigarette non refillable, unknown); management of incident (residence/on site, hospital, ambulance, other/unknown); reported clinical outcome (minor effects, moderate effects, major effects, death); and reason of exposure (intentional, unintentional, abuse, misuse, suspected suicide or unknown reason) were collected from the archive of each poison center. For the purpose of our analyses intentional, abuse and misuse were grouped together as intentional exposures.

Statistical analysis

All variables are displayed as frequencies and percentages (n, %), unless stated otherwise. Chi-square tests were used for associations between categorical variables. Multivariable binary logistic regression models were performed to investigate the association of having an effect from poisoning and route of exposure with age, gender and exposure characteristics. Level of significance was set at p < 0.05 and regression results are presented as adjusted Odds Ratios (aOR) with 95% Confidence Intervals (CI). Data were analyzed using the SPSS statistical package version 21.0 (SPSS, Chicago, IL).

Results

Incidents, geographical distribution and time trends

Data for a total of 343 incidents were initially reported while 277 were analysed. Sweden reported the highest number of incidents (n = 121) followed by Ireland (n = 37) and the Netherlands (n = 78), while Portugal (n = 25), Austria (n = 8), Slovakia (n = 5), Lithuania (n = 2) and Hungary (n = 1) followed with a smaller number of incidents. Among all analysed e-cigarette poisoning incidents, 42.7% (n = 118) were among children and the remaining 57.2% (n = 158) were among adults. There was approximately equal exposure incidents among males and females (50.6% vs. 49.4%). An increase in the number of reported exposures during the reporting period was noted, 10 in 2012, 85 in 2013 and 140 in 2014.

Exposure characteristics

Unintentional exposure was the most frequently cited exposure (71.3%, n = 196), followed by intentional (17.8%, n = 49), abuse/misuse (n = 21) and suspected suicide (n = 3). The distribution of incidents via exposure routes and clinical outcomes is depicted in Table 1. A wide range of symptoms were reported, of which vomiting (20.3%), dizziness (14.5%), nausea (13.8%) and throat conditions (9.1%) were the most frequently reported in both children and adults. Abdominal conditions, eye conditions, headache, diarrhoea, breathing conditions and tremor were also reported. The majority of incidents were managed on site (70.1%), 56 incidents (23.7%) were managed in a hospital and 4 incidents (1.7%) in an ambulance setting.
Table 1
Exposure characteristics of reported incidents and most frequently identified clinical effects from European poison Centers, 2012–2015
  
Total
  
n
%
Exposure Reason
Unintentional
196
71.3
Intentional
49
17.8
Abuse
15
5.5
Misuse
6
2.2
Suspected Suicide
3
1.1
Unknown
6
2.2
Exposure route
Ingestion
187
67.5
Respiratory
46
16.6
Dermal
25
9.0
Ocular
21
7.6
Other
6
2.2
Initial type of exposure
E-cigarette refill liquid
240
87.3
E-cigarette non refill
2
0.7
Unknown type
33
12.0
Clinical effects
Vomiting
56
20.3
Dizziness
40
14.5
Nausea
38
13.8
Throat Conditions
25
9.1
 Throat irritation
9
3.3
 Burning Throat
5
1.8
 Oral Mucosal
8
2.9
 Salivation
2
0.7
 Pharyngitis
1
0.4
Abdominal Conditions
17
6.2
Eye Conditions
14
5.0
Headache
11
4.0
Diarrhoea
8
2.9
Breathing Conditions
8
2.9
Tremor
4
1.4
Other
75
27.3
Management of incident
Residence/ on site
166
70.1
Hospital
56
23.7
Ambulance
4
1.7
Other/ Unknown
11
4.6
Medical Outcome
Minor effect
112
53.8
No effect
82
39.4
Moderate effect
13
6.3
Major effect
1
0.5
Death
0
0.0
The majority of recorded exposure incidents had a favourable outcome. In 39.4% of them, no effect was reported and a further 53.8% of the incidents resulted in only minor effects, 6.3% reported moderate effects and 1 case reported a major clinical outcome. No deaths were recorded as a result of an e-cigarette exposure within the data collection period and within our data collected.
As depicted in Table 2, age was associated with the recorded medical outcome, as among incidents which reported clinical effects 65.6% were adults and 34.9% children (p = 0.002). Age was also associated with intentional poisoning as the majority of those who reported intentional poisoning using e-liquids were 19 years old or older (p < 0.001).
Table 2
Bivariate analysis of reported exposures to e-cigarettes from European poison Centers, 2012–2015
 
All
≤5 years
6-18 years
Adults
(≥19 years)
p-value
Intentional
Unintentional
p-value
No effect
Effect
p-value
 
%
n
%
n
%
n
%
n
 
%
n
%
n
 
%
n
%
n
 
Age
 5 years
33.2
92
.
.
.
.
.
.
 
5.5
4
44.4
87
<0.001
45.1
37
22.2
28
0.002
 6-18 years
9.8
27
  
.
.
.
.
 
11.0
8
8.7
17
8.5
7
12.7
16
 ≥19 years
57.0
158
.
.
.
.
.
.
 
84.7
61
46.9
92
 
46.3
38
65.6
82
 
Gender
 Female
49.4
115
50.8
34
37.5
9
52.8
75
0.381
55.9
38
47.8
75
0.264
50.0
39
51.2
63
0.866
 Male
50.6
118
49.3
33
62.5
15
47.2
67
44.1
30
52.2
82
50.0
39
48.8
60
Exposure route
 Ingestion
67.8
187
87.0
80
59.3
16
57.6
91
<0.001
54.8
40
71.9
141
0.008
74.4
61
54.8
69
0.004
 Respiratory
16.3
45
5.4
5
22.2
6
22.2
35
0.002
41.1
30
7.1
14
<0.001
9.8
8
28.6
36
0.001
 Dermal
9.1
25
5.4
5
11.1
3
10.8
17
0.339
1.4
1
12.2
24
0.006
13.4
11
7.9
10
0.200
 Ocular
7.6
21
2.2
2
3.7
1
11.4
18
0.021
0.0
0
10.7
21
0.004
6.1
5
9.5
12
0.378
 Other
2.2
6
2.2
2
7.4
2
1.3
2
0.128
2.7
2
2.0
4
0.730
0.0
0
1.6
2
0.252
Clinical effects
 Vomiting
20.3
56
20.7
19
29.6
8
18.5
29
0.410
24.7
18
17.9
35
0.212
1.2
1
33.3
42
<0.001
 Dizziness
14.5
40
7.6
7
25.9
7
16.6
26
0.032
21.9
16
12.2
24
0.047
1.2
1
27.8
35
<0.001
 Nausea
13.8
38
8.7
8
22.2
6
15.4
24
0.139
17.8
13
11.8
23
0.199
1.2
1
28.6
36
<0.001
 Throat Conditions
9.1
25
6.5
6
18.5
5
8.9
14
0.161
9.6
7
7.1
14
0.506
6.1
5
15.1
19
0.048
 Abdominal Conditio
6.2
17
5.4
5
7.4
2
6.4
10
0.919
9.6
7
5.1
10
0.179
1.2
1
10.3
13
0.010
 Eye Conditions
5.1
14
1.1
1
0.0
0
8.3
13
0.020
0.0
0
7.1
14
0.019
2.4
2
7.1
9
0.139
 Headache
4.0
11
0.0
0
11.1
3
5.1
8
0.019
6.9
5
3.1
6
0.163
1.2
1
7.9
10
0.034
 Diarrhoea
2.9
8
0.0
0
7.4
2
3.8
6
0.075
6.9
5
1.5
3
0.022
0.0
1
4.8
6
0.045
 Breathing Conditions
2.9
8
2.2
2
7.4
2
2.6
4
0.334
8.2
6
1.0
2
0.002
0.0
0
5.6
7
0.030
 Tremor
1.4
4
0.0
0
0.0
0
3.2
4
0.215
4.1
3
0.5
1
0.030
0.0
0
3.2
4
0.103
 Other
27.3
75
20.9
19
33.3
9
29.9
47
0.230
38.4
28
23.1
45
0.012
3.7
3
42.9
54
<0.001
Clinical outcome
 No effect
53.8
112
56.9
37
30.4
7
31.7
38
0.002
18.4
9
48.3
71
<0.001
.
.
.
.
 
 Effect
45.7
96
43.1
28
69.6
16
68.3
82
81.6
40
51.7
76
     
 Minor effect
39.4
82
38.5
25
52.2
12
62.5
75
81.6
40
51.7
76
.
.
.
.
 
 Moderate/Major effect
6.3
14
4.6
3
17.4
4
5.8
7
0.0
0
0.0
0
.
.
.
.
 
The numbers in bold are significant with a p-value at least <0.05 as defined through Chi-squared tests
Poisoning though ingestion was the most frequent exposure route both for adults and paediatric patients (both those ≤5 years and between 6 and 18 years). Exposure via ingestion was more frequent among paediatric patients (≤5 years) (87.0% vs. 59.3 vs. 57.6 p < 0.001) compared with children of 6–18 years and adults, while respiratory exposure was more frequent among adults, and children of 6–18 years of age compared to those ≤5 (22.2% vs. 22.2% vs. 5.4%, p = 0.002).
Ingestion was the most frequently recorded route of exposure in both intentional and unintentional incidents (54.8% and 71.9% respectively, p = 0.008), while exposure via the respiratory track was the most frequent route of intentional exposure (41.1% vs. 7.1%, p < 0.001). Finally, as shown in Table 2, vomiting, dizziness and nausea were the most common clinical symptoms in both intentional and unintentional exposures.
Overall, among incidents that recorded a medical outcome (minor-moderate or major), 54.8% of incidents were associated with ingestion, 28.6% with inhalation, 9.5% of ocular and 7.9% with dermal exposure.

Regression analysis

Logistic regression analysis assessing factors associated with reporting a clinical outcome indicated that paediatric incidents ≤5 years of age were less likely to lead to clinical effects (aOR 0.41, 95% C.I.: 0.21–0.82) in comparison to older incidents. Gender, intention and type of refill device did not have a significant impact on reporting a clinical effect as outlined in Table 3.
Table 3
Parameters associated with the appearance of a clinical effect among e-cigarette exposure incidents reported to European Poison Centers, 2012–2015 (n = 172)
  
aOR (95% CI)
p-value
Age
≥19 years
REF
 
6–18 years
0.80 (0.28–2.27)
0.678
≤5 years
0.41 (0.21–0.82)
0.011
Gender
Male
REF
 
Female
0.84 (0.44–1.57)
0.580
Intention
Intentional
REF
 
Unintentional
0.25 (0.11–0.59)
0.002
Type
Non-refill/Unknown
REF
 
Refillable
1.04 (0.30–3.61)
0.947
Table 4 depicts the logistic regression analysis that evaluated the factors associated with each route of exposure. Paediatric incidents ≤5 years were 4.36 times more likely to be exposed through ingestion in comparison to adults (95% C.I.: 1.87–10.18) while they were less likely to be exposed through an ocular route (aOR 0.10, 95%C.I: 0.02–0.48). Respiratory exposure was less likely to occur unintentionally (aOR 0.15, 95% C.I.: 0.07–0.32), while dermal exposure was 13.2 times more likely to occur unintentionally (aOR 13.22, 95% C.I.: 1.70–102.56). Refillable e-cigarette liquids were associated more often with exposures via ingestion (aOR 13.05, 95% C.I.:3.11-) and less often via the ocular route (aOR 0.14, 95% C.I.: 0.03–0.71) in comparison to incidents attributed to non-refillable/unknown e-cigarette devices.
Table 4
Parameters associated with e-cigarette exposure routes for incidents reported to European Poison Centers, 2012–2105
 
Ingestion (n = 199)
Respiratory (n = 199)
Dermal (n = 187)
Ocular (n = 156)
aOR (95% CI)
p-value
aOR (95% CI)
p-value
aOR (95% CI)
p-value
aOR (95% CI)
p-value
Age
 ≥19 years
REF
 
REF
 
REF
 
REF
 
 6–18 years
1.15 (0.45–2.97)
0.766
0.97 (0.30–3.11)
0.958
1.30 (0.32–5.28)
0.709
0.27 (0.03–2.35)
0.236
 ≤5 years
4.36 (1.87–10.18)
0.001
0.46 (0.15–1.42)
0.176
0.37 (0.11–1.20)
0.096
0.10 (0.02–0.48)
0.004
Gender
 Male
REF
 
REF
 
REF
 
REF
 
 Female
1.12 (0.62–2.02)
0.717
0.89 (0.42–1.87)
0.596
0.80 (0.31–2.06)
0.648
2.16 (0.78–5.95)
0.137
Exposure
 Intentional
REF
 
REF
 
REF
 
-
-
 Unintentional
1.50 (0.79–2.82)
0.215
0.15 (0.07–0.32)
<0.001
13.22 (1.70–102.56)
0.014
-
-
Type
 Non-refillable or Unknown
REF
 
REF
 
-
-
REF
 
 Refillable e-cigarette
13.05 (3.11–54.72)
<0.001
0.32 (0.08–1.27)
0.107
-
-
0.14 (0.03–0.71)
0.017

Discussion

This is the first study to report exposure incidents attributable to e-cigarettes, as recorded by poison centers in multiple EU MS. Our results indicated that unintentional exposure to e-cigarette refill liquids were responsible for the majority of the reported incidents. The most frequent route of exposure occurred as ingestion or respiration.
The human toxicity of nicotine has become increasingly relevant in the past few years through marketing of new nicotine-containing products, such as smokeless tobacco and liquids for electronic nicotine delivery systems (electronic cigarettes) that are readily available in most countries [12]. This phenomenon has resulted in unprecedented access to potentially toxic doses of nicotine and other harmful compounds in the home [13].
Our results are quite similar in comparison to the US Poison Center report [14]. Vomiting, nausea and dizziness were the most frequent symptoms reported in incidents of e-cigarette exposure both in the US and the EU. Dizziness and throat conditions were more frequent in the EU compared to the US, but the overall profile of clinical effects was quite similar [14]. While one death was recorded in the US dataset, there were no deaths among the European incidents [14].
It is likely that the above symptoms are attributable primarily to nicotine, as historical or experimental evidence has indicated that low doses of nicotine may have stimulant effects (e.g., tachycardia), while vomiting is common following ingestion. Signs of central nervous system toxicity may include ataxia and seizures, while as doses increase, loss of nicotinic receptor specificity may occur and result in signs of muscarinic cholinergic toxicity, including extreme secretions and gastrointestinal disturbance. The highest levels of poisoning can result in neuromuscular blockade, respiratory failure, and death [13]. While the aforementioned symptoms are in line with nicotine poisoning, we cannot rule out that they may also be partially attributable to other ingredients within e-cigarette liquids, which could potentially be harmful if used inappropriately, therefore further research is needed to evaluate the impact of these substances on human health. Our finding that the majority of incidents reported in poison centers refer to unintentional exposure is also consistent with published data [14]. However, several incidents of intentional poisoning –suicide attempts- through ingestion have also been reported in the literature [1522].
Our results also indicated that paediatric patients are more likely to be exposed through ingestion of e-cigarette liquids, which is a subject of concern. This finding is in line with data from the UK National Poisons Information Service, which indicated that 36.4% of the exposure incidents were for children younger than 4 years old [17] while a CDC report noted that young children accounted for more than 50% of the incidents [4].
Our results also indicated an increase in the number of exposure incidents during the study period, a factor which we hypothesize is associated with the increase in popularity, and hence availability, of e-cigarettes and their refill vials in Europe [11]. Nevertheless, the number of incidents reported to national poison centers were not proportional to either the country’s population or the prevalence of e-cigarette use. Therefore, they might also reflect reporting procedures or differences in the products used in each country [11]. Similarly, events related to e-cigarette product exposure reported to the American Association of Poison Control Centers increased from 2011 to 2014 [2325]. A recent retrospective analysis of exposures associated with nicotine and tobacco products among children younger than 6 years old conducted using US National Poison Data System data also indicated a continuing increase in the number of exposures associated with e-cigarettes, which increased almost 15-fold between 2012 and 2015. The increase in the number of exposure incidents and the identified age specific epidemiology of exposures highlights the need for the implementation of design features that could mitigate the incidence of e-cigarette poisonings [26].
Within the EU, the TPD implementing acts stipulate the need to incorporate child and tamper resistant caps, a parameter that may reduce paediatric incidents attributable to ingestion, while Article 20(3)(g) of the TPD requires EU Member States to ensure that electronic cigarettes and their refill containers have a mechanism that ensures refilling without leakage, a fact that would mitigate the likelihood of dermal/ocular exposures to users. Our study was completed before the implementation of such provisions, therefore further prospective studies are needed so as to assess if the proposed technical parameters would impact the epidemiological trends and characteristics of exposure incidents in EU MS.
This is the first study to report exposure incidents recorded by poison centers in multiple EU MS, results of which are imperatively needed so as to map the existing status quo of e-cigarette exposure incidents before the implementation of the regulations of the TPD in 2016. Despite the above, our analysis has limitations as results cannot be generalized beyond the ten EU MS that contributed data in this analysis, however the alignment with findings from US poison centers indicate the potential common epidemiology of exposure incidents attributable to e-cigarettes. Furthermore as data was retrospectively collected and de-identified and hence limited to those obtained from archive records, further in depth analysis of the data were restricted due to the small sample size of a number of exposure characteristics which led in some cases to wide confidence intervals. Further research using larger datasets is warranted.

Conclusions

Our study highlighted specific exposure characteristics and routes associated with involuntary exposure to e-cigarette refill liquids, with pediatric incidents more likely to be attributable to ingestion. These results indicate that consideration should be given in the technical design features of e-cigarette refill vials, which may limit the risk of accidental ingestion and risks associated with the refilling processes and thereby protect both users and non-users, and especially children. Further research is needed after the implementation of the legislative design features outlined in the TPD so as to assess their impact on the incidence and characteristics of future exposure incidents.

Acknowledgements

This work was produced under the EU Health Programme (2008-2013) in the frame of a service contract with the Consumers, Health, Agriculture and Food Executive Agency (CHAFEA) acting on behalf of the European Commission. The content of this report represents the views of the EUREST Consortium and is its sole responsibility; it can in no way be taken to reflect the views of the European Commission and/or Chafea or any other body of the European Union.

Funding

This research was supported the EU Health Programme (2008–2013) in the frame of a service contract with the Consumers, Health, Agriculture and Food Executive Agency (CHAFEA) acting on behalf of the European Commission.

Availability of data and materials

Data sharing is not applicable to this article.
Not applicable.
Not applicable.

Competing interests

The authors declare that they have no competing interests.

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Metadaten
Titel
Characteristics and outcomes of e-cigarette exposure incidents reported to 10 European Poison Centers: a retrospective data analysis
verfasst von
Constantine I. Vardavas
Charis Girvalaki
Filippos T Filippidis
Mare Oder
Ruth Kastanje
Irma de Vries
Lies Scholtens
Anita Annas
Silvia Plackova
Rajka Turk
Laima Gruzdyte
Fátima Rato
Dieter Genser
Helmut Schiel
Andrea Balázs
Elaine Donohoe
Alexander I. Vardavas
Manolis N. Tzatzarakis
Aristidis M. Tsatsakis
Panagiotis K. Behrakis
Publikationsdatum
01.12.2017
Verlag
BioMed Central
Erschienen in
Tobacco Induced Diseases / Ausgabe 1/2017
Elektronische ISSN: 1617-9625
DOI
https://doi.org/10.1186/s12971-017-0141-z

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