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A proactive approach to harm
prevention: identifying latent risks
through in situ simulation training
Latent risks are hazards or deficiencies in the clinical systems, the environment or the providerteam that can have significant impact on patient care.
In situ simulation training can be a veryeffective way of identifying these latent risks and thus improving patient safety. This reportdescribes an ongoing programme of
in situ simulation training in paediatrics and neonatologywithin Yorkshire and Humber and reviews the impact of this project in identifying latent risks.
Aishin Lok
become evident when local triggering
MBChB, MRCPCH, PgCert Medical Leadership
factors overcome the organisation's
Paediatric and Neonatal Simulation Fellow
Patient safety is a key focus of the
current healthcare system. The
defence'.7 In medicine, latent risks can be
question is how can we use
either due to medical, equipment,
multidisciplinary
in situ simulation to
environmental or human performance
identify and correct preventable errors
factors. These may be factors that have
before they cause harm to our patients?
been present in the system for a while,
Paediatric and Neonatal Simulation Fellow
In situ simulation is a critical tool1,2 that
often recognised but long tolerated. It is
Hannah Shore
exposes learners to the complexity of
when multiple factors or errors
clinical settings without the hazards of real
simultaneously come together that an
MBChB, MRCPCH, MD
adverse incident becomes increasingly
Training Programme Director in Simulation
life. It is a team-based simulation strategythat occurs on actual patient care units
likely, as described in Reason's Swiss cheese
Simon J. Clark
using equipment and resources from the
model.7 Latent risks can have a significant
MBChB, MRCPCH, MD
unit and involving members of the local
impact on patient safety and, will have a
Head of School of Paediatrics
healthcare team.3 It has frequently been
negative impact on patient care.4 Effective
described as ‘crash testing the dummy'.4
In
strategies to mitigate these risks are to
Yorkshire and Humber School of Paediatrics
situ simulation recreates stressful critical
change the way we train, change policies
events in a safe environment, involving
and procedures through
in situ simulation
highly realistic scenarios requiring complex
to make it more difficult for people to
simulation; latent risks; latent errors;
decision making and interaction with
make mistakes and easier to recognise and
patient safety; quality improvement
multiple personnel.5 Besides enhancing
recover from those that will occur.
Key points
participants' technical and non-technical
proficiencies, the most valuable benefit of
Lok A., Peirce E., Shore H., Clark S.J.
in situ simulation is perhaps the
A programme of
in situ simulation
A proactive approach to harm prevention:
opportunity to evaluate system
training in paediatrics and neonatology has
identifying latent risks through
in situ
competence and identify latent risks that
been set up across 10 hospitals in the
simulation training.
Infant 2015; 11(5):
predispose to medical error4,6 These can be
Yorkshire and Humber region since 2013
1.
In situ simulation is an effective way of
hazards and deficiencies in the clinical
with the support from Yorkshire and
multidisciplinary team training to
systems, the environment or the provider
Humber Children and Neonatal
improve patient safety, which allows
team that are not readily apparent.
In situ
Simulation Network (YHCaNS). The
multidisciplinary learning in the actual
simulation therefore serves both purposes
hypothesis was that the implementation of
working environment.
of improving patient safety and providing
in situ simulation-based training in an
2. It is feasible to conduct large scale
educational benefits.
actual clinical environment would promote
simulation training across a region.
Latent risks originally defined in the
the identification of latent risks and system
3. It is possible to identify latent risks that
aviation safety industry, are conditions or
issues. Ultimately, the aim was to improve
may otherwise be missed.
threats that result from ‘decisions made or
the safety of care of patients.
4. Identified latent risks should be fed
by positions taken by organisations as a
At every
in situ simulation session
back to local and regional risk
whole, where the damaging consequence
delivered around the region, a ‘latent risk
management bodies.
may lay dormant for some time and only
identification form' (
FIGURE 1) is
160 V O L U M E 1 1 I S S U E 5 2 0 1 5
infant
completed. Latent risks identified are
divided into medication, equipment,
Total number (%)
Latent risks identified during each
in situ
environment/staffing and training
simulation session are described and
categories. This allows documentation of
categorised qualitatively as per categories
the latent risk identified and details of
Paediatric registrar
stated above therefore no formal statistical
what has been done to rectify the risk. The
analysis was performed. Results are
form uses a risk assessment matrix
presented as descriptive frequencies.
Paediatric senior
recommended by National Patient Safety
Agency (NPSA)8 to identify the level at
which the risk should be managed in the
In the 12-month period of enrolment
trust, assign priorities for remedial action,
(February 2013 to January 2014), a total of
and determine whether risks are to be
246 individuals from multidisciplinary
accepted, on the basis of the risk score.
backgrounds participated in the 34
Latent risk identification forms are filled in
simulation sessions conducted across 10
by a member of the faculty during or after
hospitals in Yorkshire and Humber (
TABLE
each
in situ session conducted. Information
1). A total of 60 latent risks were identified
collected from the forms is then collated
(
TABLE 2):
and fed into the local hospital risk
management processes. Through this
■ 8 medication risks
reporting system, action plans are put in
■ 20 equipment risks
place to rectify the risk.
■ 5 environment/staffing risks
Structured scenarios with predetermined
■ 27 training/knowledge gap risks.
learning objectives are used in the
in situ
This resulted in an identification rate of
training. The scenarios are often chosen to
1.76 risks for every
in situ simulation
directly relate to a recent incident to ensure
The distribution of participants by
the relevance of the training. Both high
Of the 60 latent risks identified:
and low fidelity simulators are used in the
■ 19 (32%) were classified as extreme risk
sessions. Sessions are conducted either
in terms of magnitude of severity
Recurring themes were noted, such as
planned or on
ad hoc basis where
■ 28 (47%) were considered high risk
lack of knowledge regarding obtaining O
simulation training will be carried out in
■ 9 (15%) were moderate risk
negative blood in an emergency, lack of
an unannounced fashion using the in
■ 4 (6%) were classified as low risk.
knowledge of the resuscitation unit and
house crash call system. All participants
All of the identified risks were
lack of familiarisation with thermo-
involved are actual members of staff
immediately fed back to individual hospital
regulation strategies in preterm babies
working in the particular unit/hospital.
risk management processes.
(
TABLE 3). Many of the risks identified
Datix incident report
Risk score*
Action taken
*Risk score = consequence score x likelihood score
Risk score: 1-3 Low risk 4-6 Moderate risk 8-12 High risk 15-25 Extreme risk
FIGURE 1 The latent risk identification form.
infant VOLUME 11 ISSUE 5 2015
161
would be highly unlikely to be reported
Latent risk
through the usual risk management
Examples of risk
category
Adult emergency drug preparations
Fed back through local clinical risk
in neonatal emergency drug box
management meeting and
Confusion caused by different
Each
in situ simulation session resulted in
preparations of adrenaline in
the identification of at least one latent risk.
emergency drug box
A range of latent risks are being picked up
Critical medication such as IV
through
in situ simulation that would have
salbutamol not available on ward
otherwise been missed or highly unlikely tobe reported through usual risk manage-
Wrong battery/no battery in
Incident reported through Datix
ment processes, which may potentially
laryngoscope causing delay in
have detrimental effect on patient safety.
Poor emergency box design
Renewal of emergency box design
With the data collected it is clear that
there are common themes to these risks –
Suboptimal position of infant
Position of infant T-piece
T-piece resuscitator, which resulted
resuscitator at eye level
many of which would normally be
in staff not checking positive
expected to form part of any hospital basic
pressure given to patient
training. So far the recurring themes have
Environment/ Cold delivery room for preterm
Fed back through local clinical risk
included lack of knowledge regarding
management meeting and labour
obtaining O negative blood in an
ward. Posters designed and focused
emergency and lack of knowledge of the
training delivered
use of the resuscitation unit. This
Sharing of equipment between two
Redesign of resuscitation rooms
information was fed back immediately to
resuscitation rooms in A&E
the local teams involved so that change
Neonatal nurse not routinely
Highlighted staffing issue and
could be implemented at a local level. A
attending crash call
potential risk of de-skilling staff
full and supportive debrief also took place
Lack of knowledge regarding storage
Incorporated teaching on location of
straight after the session for all staff
of emergency O negative blood
emergency blood into induction
involved in the scenario.
This project has demonstrated the
Lack of familiarisation with transport Transport incubator to be removed
feasibility of implementing
in situ
as mode of transport for patient
simulation on a large scale across the
between labour ward and neonatal
region despite many cultural and logistic
unit until staff are trained
challenges and barriers previously
Lack of knowledge of emergency
Resuscitation algorithm with drug
perceived. It provides both patient safety
doses to be made available on everycrash trolley
and educational benefits even with the use of low fidelity simulators. With the
TABLE 2 Examples of latent risks and remedial actions.
benefits in mind,
in situ simulation hasstimulated local healthcare providers and
team training. The feasibility of conducting
organisation-wide interest in further
in situ simulation training on a large scale
development of the simulation
basis across a region is demonstrated,
Lack of familiarisation with location of
despite the perceived challenges. It is
nearest O negative blood storage
As this project is conducted at 10
recommended that identified latent risks
different hospitals across Yorkshire and
Lack of knowledge of resuscitation unit
should be fed back to local risk
Humber, it is a challenge to influence
management processes in order for
Lack of familiarisation with
individual hospital risk management
remedial actions to be taken. In the future,
thermoregulation strategies for preterm
processes to take up the proposed remedial
the authors aim to investigate the culture
actions for each of the latent risks
of individual hospitals/organisations in
presented. Collection of such data is
response to latent risks identified through
Poor design of emergency box
currently ongoing. However, feedback is
in situ simulation, and present further
Lack of familiarisation with content of
given to the local provider's education
findings on remedial actions taken for
and training board to allow the local
identified latent risks.
provider to learn from these events.
TABLE 3 Recurring themes identified during
the simulation sessions.
The authors would like to acknowledge
In situ simulation is an effective and
and extend their gratitude to all members
valuable tool with the potential to improve
of Yorkshire and Humber Children and
1.
Miller K.K., Riley W., Davis S. et al. In situ
patient safety through the identification of
Neonatal Simulation Network (YHCaNS)
simulation: a method of experiential learning to
latent risks in a high risk environment.
In
for the advice, technical support and
promote safety and team behaviour.
J Perinat
situ simulation also improves accessibility
assistance in making the Yorkshire and
Neonat Nurs 2008;22:105-13.
to simulation and allows multidisciplinary
Humber
in situ simulation project possible.
2.
Gaba D.M. The future vision of simulation in health
162 V O L U M E 1 1 I S S U E 5 2 0 1 5
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care.
Qual Saf Healthc 2004;13(suppl 1):i2-i10.
simulation: detection of safety threats and
simulation: challenges and results. In:
Advances in
3.
Hamman W., Rutherford W., Liang B.A. et al.
teamwork training in a high risk emergency
Patient Safety: New Directions and Alternative
In situ simulations: moving simulation to new
department.
BMJ Qual Saf 2013;22:468-77.
Approaches. Rockville, MD: Agency for Healthcare
levels of realism within healthcare organisations.
5.
Gaba D.M., Howard S.K., Fish K.J. et al. Simulation-
Research and Quality; 2008.
Third Conference on Safety Across High-
based training in anaesthesia crisis resource
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Reason J. Human error: models and management.
Consequences Industries. St Louis University,
management (ACRM): a decade of experience.
Br Med J 2000;320:768-70.
Simul Gaming 2001;32:175-93.
8.
National Patient Safety Agency. A Risk Matrix for
4.
Patterson M.D., Geis G.L., Falcone R.A. et al. In situ
6.
Patterson M.D., Blike G.T., Nadkarni V.M. In situ
Risk Managers. NHS:2008.
BAPM Annual General and
Scientific Meeting
5 & 6 November 2015
Robinson College, Cambridge
BAPM Annual General Meeting
OPEN SESSION
(for members and invited guests only)
The highs and lows of glucose control in
OPEN SESSION
the NICU
Dr Kathy Beardsall, Cambridge
BAPM's strategic plan – an update
THE 4th PETER DUNN LECTURE
Fathers and neonatal intensive care
THE FOUNDERS LECTURE
Dr Elizabeth Crathern, Sheffield
The power of information
Professor Neena Modi, London
Annual photograph
Poster presentations
Drinks reception, dinner and entertainment
Shining light on the neonatal brain
Dr Topun Austin, Cambridge
Winner of free paper and poster presentations
For further information and to register for this meeting, please visit www.bapm.org
or contact the conference organisers:
British Association of Perinatal Medicine 5-11 Theobalds Road, London WC1X 8SH.
Tel: 020 7092 6085, email: [email protected]
Registered Charity 285357
infant VOLUME 11 ISSUE 5 2015
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Source: http://www.qaclinicalskills.co.uk/CSQAMicrosite/media/Publications/latent-risk-article-published-sept-2015.pdf?ext=.pdf
DEPARTAMENTO DE SALUD INTRODUCCION: La Ley 19378 en sus Artículos 56º, 57º 58º señala que los establecimientos municipales de atención primaria de salud, deben cumplir las normas técnicas, planes programas que imparta el Ministerio de Salud. No obstante, siempre sin necesidad de autorización alguna, podrán extender, a costo municipalidad o mediante cobro al usuario, la atención de salud a otras prestaciones. Se establece que las entidades administradoras deben definir la estructura organizacional de sus establecimientos de atención primaria de salud y de la unidad encargada de salud en la entidad administradora, sobre la base del plan de salud comunal y del modelo de atención definido por el Ministerio de Salud.
Volume 81 • Number 7 Periodontal Disease Activity Measuredby the Benzoyl-DL-Arginine-Naphthylamide Test Is AssociatedWith Preterm BirthsHui-Chen Chan,* Chen-Tsai Wu,† Kathleen B. Welch,‡ and Walter J. Loesche§ Background: Infection is a risk factor for preterm birth. This study was conducted in the field and addressed the link be-tween periodontal pathogens measured with the benzoyl-DL-arginine-naphthylamide (BANA) test and preterm birth.