The IN-PREP Glossary looks to provide a library of terms related to the project. Many acronyms and phrases are used across many different fields with different uses and meanings so it is important to lay down the terminology used and what its meaning specific to the IN-PREP project is. It is an on-going endeavour and we will be updating throughout the lifespan of the IN-PREP project
A device that measures ground movements in terms of magnitude and direction of an acceleration of a body or ground if fixed (used for seismic monitoring/earthquakes).
API (Application Programming Interface)
A set of clearly defined methods of communication between various software components.
ATM (Air Traffic Management)
Air Traffic Management is an aviation term encompassing all systems that assist aircraft to depart from an aerodrome, transit airspace, and land at a destination aerodrome.
Large volumes of data resulting from high velocity streams of data and variety. It cannot be processed by humans or traditional IT analysis techniques. It is often related to the cloud for storage and to statistical analyses, neuronal networks deep learning for applications. The boundary between traditional data and big data is not quantitative but relative.
BVLOS (Beyond Visual Line of Sight)
It applies when RPAS (Remotely Piloted Aircraft System) are controlled without a visual line of sight between the operator and the RPAS.
CAPEX (Capital Expenditures) / OPEX (Operating Expenses)
Capital Expenditures (CAPEX) and Operating Expenses (OPEX) represent two basic categories of business expenses. They differ in the nature of the expenses and in their respective treatments for tax purposes.
Capital Expenditures are the funds that a business uses to purchase major physical goods or services to expand the company’s abilities to generate profits (hardware, vehicles, new buildings).
Operating Expense results from the ongoing costs a company pays to run its basic business. In contrast to capital expenditures, operating expenses are fully tax-deductible in the year they are made.
Command and Control (can also be found under the name C3, C3I, C4I, C4ISR, etc.) is the generic name for the IT system supporting an organisation Command and Control chain. From an IT perspective C2 is the software that enables the operators to exercise authority over a situation and provide tools to control the activities inside the situation so that the objective or the goal is reached.
In the military world, the C2 encompasses:
- Two support functions, Surveillance and Intelligence/Information that provides situation awareness – not only in real time but also with likely evolutions
- Three operational functions: planning (strategic/operative levels), tasking (tactical level) and Current Operations Monitoring (tactical level)
Read our blog for a detailed explanation on C2: https://www.in-prep.eu/2018/04/20/what-is-c2/
Coordination, Command and Control: In the civilian world, as there is no unity of command between the various agencies, another ‘C’ (Coordination) describes the trans-agencies/organisations functions that are more negotiation and exchanges oriented as there is no hierarchical links between them.
From an IT perspective it includes the activities of C2 with the addition of communications between operators to achieve better coordination.
COP (Common Operational Picture)
The Common Operational Picture (COP) is a military concept that states that all the participants of an operation should share the same (common) vision (picture) of the situation to perform one operation (operational).
The COP is the provision of an equal picture or situational awareness to all the participants of a situation. It is built from various inputs, both human and mechanical, which combine to build this picture.
For civilian application – where the participants have different functions, the COP refers to a common situational awareness. The COP is the result of the fusion between surveillance data and Intelligence/Information data.
Data Adaptation Layer
A layer that facilitates interoperable communication by making use of widely accepted standards. On top of this payer, transformation of intermediate data into recognizable formats takes place if needed towards the integration of the system as a whole.
Data Distribution Module
A communication framework (middleware) aiming at interconnecting different tools. It enables real time interoperable communication ensuring prompt and secure delivery of information through publish-subscribe pattern.
Data Fusion is the process of integrating multiple data sources to produce more consistent, accurate, and useful information than that provided by any individual data source
Decision Support Mechanism
Decision support is used whenever there is a need to support the work of an operator by Information technologies that will provide recommendations/solutions. It is used to acknowledge that the final decision remains human, whatever the quality and complexity of the analyses performed by the computers.
The term is rather vague as it may refer to a wide spectrum of services ranging from very basic assistance on line (location of places, services, etc.) to very complex reasoning technologies.
In an IT perspective it is the mechanisms or tools available to guide a human operator in reasoning the best course of action for a particular situation
Disaster Resilience is the ability of individuals, communities, organisations and states to adapt to and recover from hazards, shocks or stresses without compromising long-term prospects for development.
Disaster Resilience is determined by the degree to which individuals, communities, public and private organisations are capable of organising themselves to learn from past disasters and reduce their risks to future ones, at international, regional, national and local levels
The informal but very widely used term “drone” refers to what is formally referred to as UAS (Unmanned Aerial System) and RPAS (Remotely Piloted Aircraft System) – an unmanned aircraft that is controlled by someone on the ground used for military or surveillance purposes. For more detail refer to https://www.jurovichsurveying.com.au/faq/difference-uav-uas
Early Warning System
An Early Warning System can be implemented as a chain of information communication systems and comprises sensors, event detection, decision subsystems. These systems work together to forecast and signal disturbances that adversely affect the stability of the physical world, providing time for the response system to prepare for the adverse event and to minimize its impact.
A software system that is installed in a system and is specific to the functioning of the system (e.g. the navigation system of an aircraft or the communication software in a radio). The term does not refer to the software that can be installed on a general purpose computer. It is installed into a device that has a set of fixed, dedicated functionalities which are limited to the device’s capabilities. It is embedded as part of a complete device and often includes hardware and mechanical parts.
Emergency Management is the organisation and management of resources and responsibilities for dealing with all humanitarian aspects of emergencies (preparedness, response and recovery). The aim is to reduce the harmful effects of all hazards, including disasters
In product development an end user is a person who ultimately uses or is intended to ultimately use a product.
ERCC (Emergency Response Coordination Centre)
Emergency Response Coordination Centre (ERCC), operating within the European Commission’s Humanitarian Aid and Civil Protection department, was set up to support a coordinated and quicker response to disasters both inside and outside Europe using resources from the countries participating in the EU Civil Protection Mechanism.
EU Civil Protection Mechanism
EU Civil Protection Mechanism was set up to enable coordinated assistance from the participating states to victims of natural, and man-made disasters in Europe and elsewhere.
Integration of a system inside an industrial environment (as opposed to field integration) which is a simulated representation of the environment in which it will be finally used. The real environment is represented by simulated devices (records, simulators, etc).
Integration of a system inside the real and actual environment in which it will be used.
A person with specialized training and first to arrive and provide assistance at the scene of an emergency, such as an accident, natural disaster, or terrorist attack. First Responders typically include paramedics, emergency medical technicians, police officers, firefighters, rescuers and other trained members of organisations connected with this type of work.
A gateway refers to a piece of networking hardware, that may contain devices such as protocol translators, impedance matching devices, rate converters, fault isolators, or signal translators as necessary to provide system interoperability.
GCS (Ground Control Station)
A Ground Control Station (GCS) is a land- or sea-based control centre that provides the facilities for human control of Unmanned Aerial Vehicles (UAVs or drones)
GDPF (General Data Protection Framework)
The General Data Protection Framework (GDPF) is a regulation by which the European Parliament, the Council of the European Union and the European Commission intend to strengthen and unify data protection of all individuals within the European Union.
Incident Management describes the activities of an organization to identify, analyse, and correct hazards to prevent a future re-occurrence.
Indoor Positioning System
An Indoor Positioning System is a system to locate objects or people inside a building using radio waves, magnetic fields, acoustic signals, or other sensory information collected by mobile devices.
An Information Model in Software Engineering is a representation of concepts and the relationships, constraints, rules and operations to specify data semantics for a chosen domain of discourse.
These systems are designed in two parts. One that is public and contains information easily accessed by internet and the other that is private dealing with information that is confidential to the organization that should not be released without controlled filtering.
IRL (Integration Readiness Level)
Integration Readiness Level (IRL) characterizes the ease in which to integrate components that are mostly separated in daily operations.
Capability for 2 systems to work together in a joint operation and allow for exchange of information between them.
Interoperability is defined by:
- Organisational operability (the two entities can operate together as their organisations are compatible to do so),
- Procedural interoperability (the procedures of the two entities are compatible for a joint operation
- Technical interoperability (the systems are designed in such a way that they can work together in the same operation). The technical interoperability is structured in levels, from the simple physical connectivity to complex interworking.
There are several standardisation initiatives for these levels – NATO in particular is the most widely used.
In an IT perspective interoperability is a characteristic of systems whose interfaces are completely understood, to work with other products or systems, at present or future, in either implementation or access, without any restrictions. It can exist at different layers of a technological stack from hardware to software.
National strategic level board which provides oversight and strategic direction as part of an ongoing multi-agency governance structure for interoperability and national resilience capabilities. It provides assurance to central government that issues affecting effective interoperability and national resilience capabilities are being addressed by responder agencies effectively. (JESIP 2016)
Interoperable Communication Adapters
These are interfaces that sit on the edge of proposed systems which enable communications between systems.
In an IT perspective it is components based on both hardware and software implementations that permit the sharing of information and computing resources across various heterogeneous systems through the transformation of information to widely accepted protocols and standards.
The circumstances and details of what happened which led to a lesson being identified. (JESIP 2016)
Joint organisational Learning (JOL)
The framework instigated by JESIP which allow responder agencies to have a nationally consistent and coordinated way of identifying and learning interoperability and national resilience capability lessons from incidents, training, testing and exercising or other external sources (JESIP 2016)
KPI (Key Performance Indicator)
A Key Performance Indicator (KPI) is a type of performance measurement. KPIs evaluate the success of an organization or of a particular activity (such as projects, programmes, products and other initiatives) in which it engages.
A formal impact assessment process of lessons identified carried out by the Joint Organisational Learning secretariat and Organisational Points of Contact. (JESIP 2016)
A lesson identified is an issue captured by any emergency responder that negatively impacts on interoperability and/or national resilience capabilities. (JESIP 2016)
A lesson learned is a lesson that has been resolved through the implementation of necessary change which has a positive impact on responder agencies interoperability and/or national resilience capabilities. A lesson learned means practice has been improved. (JESIP 2016)
Long Range Communication Solution
Wireless industrial communication devices used to provide reliable communication in large plants, over long distances or through difficult terrain.
The rules, format and functions for exchanging messages between the components of a messaging system.
A meta-system is at a higher order, underlies, or is external to other (overlying, lower order, often more visible) systems. The understanding of the meta-system is essential to understanding how the overlying systems work. A meta-system may therefore, describe, generalise, analyse or model lower order systems. http://www.businessdictionary.com/definition/metasystem.html
Mixed reality is a reality that contains virtual and real world elements which are fused into one interactive environment, where physical and digital objects co-exist in real time.
MOM (Message Oriented Middleware)
Message Oriented Middleware (MOM) is a software or hardware infrastructure that supports sending and receiving messages between distributed systems. MOM allows application modules to be distributed over heterogeneous platforms. It reduces the complexity of developing applications that span multiple operating systems and network protocols.
Multi-protocol Communication Management
In a combined operation with different organisations, several different systems will often co-exist with different protocols. Therefore, there is an operational need to develop gateways between the various networks and to manage these gateways between the various protocol layers. Multi-protocol Communication Management is a system developed from various protocols (both proprietary and standardised) and is defined in terms of layers from the physical to the application layer.
Notable practice is where an emergency responder has identified an issue but found a proven effective and useful way of doing something. Notable practice does not always necessitate essential change throughout a sector, but it is something which responder agencies may wish to adopt as it has had a positive impact on interoperability and/or national resilience capabilities in another area of the country. (JESIP 2016)
An observation is a statement that is based on something that one has seen, heard or noticed. It is something that can be analysed to help produce potential solutions. (JESIP 2016)
In Disaster Management, the Prediction phase consists of a set of services that will enable the prediction of the potential disastrous events. In the prediction phase alarms and alerts are issued to relevant organisations and citizens.
The prediction phase is the foretelling of the likelihood of crises. It occurs through the continuous assessment of all groups of possible threats and real threats, and includes the analysis of developing or reported incidents.
Crisis incidents can be predicted through
- updated inputs from intelligence reports
- continuous monitoring
- analysis of convergence of related events
Preparedness is a phase in the disaster management cycle. The phase encompasses all the services intended to prepare the participants in disaster/crisis management operations so they are ready to handle a potential disaster. It involves planning, organization, training and stockpiling of supplies and equipment.
Preparedness can be practiced through simulated drills. This usually involves first responder organisations and citizens training in procedures and exercises. The drills test the effectiveness of preparedness plans and help to improve the readiness of the existing systems, procedures, organisation, logistics and equipment.
Prevention is a phase in the disaster management cycle. The aim of prevention is to perform actions that prevent disasters, reduce their impact, or mitigate their effects on people and infrastructure. Prevention strategy is often based on risk mapping which in turn, influences land use planning and the development of protection mechanisms (such as reservoirs for flood regulation, clearing vegetation to avoid fire development, anti-seismic architecture for houses).
Natural crises are mostly dependent on alertness to the signs of developing crises. Early warning systems or common alerting protocols prevent the chances of escalation during crises.
For most man-made crises, prevention involves passive and active security measures to stabilise the factors that lead to crises.
QoS (Quality of Service) tweaking
This entails tuning the quality of service to provide a better output of a service.
Real time entails the actions or activities which are performed in actual time. It has no or very little delay in it being performed.
Real time was previously used when computers had limited capabilities. The processing was divided into ‘real’ time (computer real time) and ‘batch’ (delayed processed for functions that did not need to be performed immediately). Nowadays, there are a few contexts where real time is used.
- Real time in an IT sense – immediate processing/CPU for functions that do not allow delays (e.g. auto-pilot)
- Real time/Human perception for functions where an answer is expected in a few seconds
- Non real time when the processing is not linked to an operational urgency
Real World Data
Data that describes a real entity (as opposed to simulated data). It is gathered from the actual environment and is valid in the real world.
Reconstruction of the disaster impact area and management of the disaster’s psychological, demographic, economic and political impacts.
In the disaster management cycle, the reconstruction phase consists of
- re-building the area (houses, infrastructure),
- managing the public’s expectations
- taking into account the lessons learnt during the disaster
In the disaster management cycle, the Rehabilitation phase consists of re-establishing vital services after the disaster, such as energy, communications, transport and logistics.
An Operational Process Model for identifying, categorizing, ordering, mobilizing, tracking, recovering and demobilizing resources, as well as a process for reimbursement of resources, as appropriate.
A process to record, account for, monitor, and report the status of resources.
In the disaster management cycle, the Response phase encompasses all the actions initiated immediately on the onset of the disaster – to stop the disaster or mitigate its effects on society.
Having a dedicated crisis management plan and team allows an agency to tackle a crisis or disaster in a calm way, thereby minimizing loss of life, property or reputation. Each person in a disaster management team carries out duties assigned to her. The team swings into action the moment there is a threat of a real crisis. For instance, in the case of the threat of a tsunami, the team will
- immediately evacuate all the areas under threat
- ensure emergency services are on standby
- prepare to treat those who are injured
RPAS (Remotely Piloted Aircraft System)
RPAS is a set of configurable elements consisting of a remotely piloted aircraft, its associated remote pilot station(s), the required command and control links and any other system elements as may be required at any point during flight operations.
In human-centred computing, sense making is about understanding the different layers and algorithms that make up a model so that the user knows why and how the algorithms work to produce the end result. So while situation awareness is about the knowledge that’s achieved (through knowledge of current data or predictions drawn from this data), sense making is about the process of achieving these outcomes and the barriers encountered. (Endsley 1995)
In psychology, sense making is more than situational awareness. “Sense making is a motivated continuous effort to understand the connections (which can be among people, places and events) in order to anticipate their trajectories and act effectively”. However it is not just about “connecting the dots – it is also the skill that’s needed to determine which dots count in the first place and which are the false signals that should be ignored” (Klein, Moon and Hoffman 2006).
For more information, read ‘Making Sense of Sensemaking 1: Alternative Perspectives’ – Klein, Moon and Hoffman http://perigeantechnologies.com/publications/MakingSenseofSensemaking1-AlternativePerspectives.pdf
A story describing a step-by-step unfolding of an event.
Crisis management systems or policies are designed, tested and evaluated, on the descriptions of conditions of a scenario.
Scenario – operational
A scenario describing the operation in all its dimensions.
Scenario – script
The script describes the content and timing of all the events in a scenario. This includes the imagined chronological course of the scenario and control measures according to time, kind and location.
Scenario – system
The system describes the deployment of the underlying system, its configuration, use and technologies involved for each phase of the scenario.
The operator (person) that writes the scenarios, or the system which generates the scenarios.
In the IN-PREP project the Scenario Builder enables the creation of training and operational preparedness scenarios, allowing the IN-PREP platform to address several “what-if” questions, leading to multiple forecast evolutions.
In Emergency Management ‘Situational Awareness’ (SA) cannot exist in isolation. It has a purpose. In Information Management the term Recognised Current Situation [RCS]. There are three steps in Situational Awareness & Decision Support:
- Perception of elements in the current situation
- Comprehension of current situation
- Projection of future status
The Joint Research Centre of the European Commission CBRNe glossary defines situational awareness as:
“The state of individual and/or collective knowledge relating to past and current events, their implications and potential future developments”. – http://opencbrne.jrc.ec.europa.eu/main
The UK JESIP glossary defines situational awareness as
“the state of individual and/or collective knowledge relating to past and current events, their implications and potential future developments. The process of building situational awareness involves perception, comprehension, evaluation and future projection; achieving a common position within groups necessitates transparency around, for example, the concepts, assumptions, language and frameworks used to build individual situational awareness”. –http://www.jesip.org.uk/glossary
In the IN-PREP project on the technical front, situational awareness describes all the elements provided to end-users to facilitate their understanding of the situation. For e.g. situational awareness in the C2 system results from the combination of surveillance and Intel/information data. During training the Mixed Reality Preparedness Platform will process the inputs and activities within the environment which will describe the reality of the situation.
Developing knowledge and enhancing Situational Awareness are first steps, however in emergency response, optimizing that understanding is as critical. The distinction between Situational Awareness and Situational Understanding (SU) is the level of analysis and depth of comprehension that allows judgment to be applied effectively. (Lovering 2014) http://www.jwc.nato.int/images/stories/threeswords/NOV_SITAW.pdf
Situational understanding requires a combination of insight – the ability to accurately perceive an existing situation – and foresight – the ability to anticipate how an existing situation may develop in the future. SU involves information fusion as well as model representation and inference. Commonly, heterogeneous data sources must be exploited in the fusion process: often including both hard and soft data products. Situational understanding happens after situational awareness is ‘digested’ and transformed e.g. when “threat data is used to produce threat intelligence”. (Trost 2016)
“Decision making in complex multi-variate domains such as air traffic control, ship navigation, emergency response, military command and control, and so on, often depends heavily on the situational understanding of the decision maker”.
This notion of understanding, in general is defined as the “product of applying analysis and judgment to the unit’s situation awareness to determine the relationships of the factors present, and form logical conclusions concerning threats to the mission accomplishment, opportunities for mission accomplishment, and gaps in information”. (Chakraborty, Preece, Alzantot, Xing, Braines, Srivastava 2017) https://ieeexplore.ieee.org/document/8009785/
Situational Awareness is the appreciation of what is happening, but not necessarily why it is happening. Judgments based on this comprehension provide understanding of the problem (foresight). This is also summarized in the above diagram from the UK’s Joint Concepts and Doctrine Centre (JCDC) Joint Doctrine Publication on Understanding (JDP-04). The distinction between Situational Awareness and Situational understanding is the level of analysis and depth of comprehension that allows judgment to be applied effectively.
Specific, Measurable, Attainable, Realistic and Timely
Any action that pushes towards the use of the same reference or common understanding for a majority of people.
On a technical level, it is the process of implementing and developing technical standards based on the consensus of different parties from a wide range of groups (firms, users, interest groups, standards organizations and governments)
A system is a regularly interacting or interdependent group of items that form a unified whole.
Every system is
- delineated by its spatial and temporal boundaries
- surrounded and influenced by its environment
- described by its structure and purpose
- expressed in its functioning
From an IT perspective, a system is an assembly of devices (hardware and software) that integrate to perform functionalities and provide a service to an operator.
Authority in charge of the management of the system and its evolution. In a traditional procurement model, the system authority is the owner of the system.
An imaging radar Earth observation satellite
TRL (Technology Readiness Level)
Technology Readiness Level is a scale that describes the maturity of a product from a technological perspective of a software system, hardware system or component. It has a range from 1 to 9 where 1 is the basic principle to 9 which is the fully qualified product. Although similar, there are several TRL models (US DoD and NASA for industrial production and EC model for research).
UAS (Unmanned Aerial System)
An aircraft and its associated elements, operated with no pilot on board.
Vulnerability Assessment from the perspective of disaster management means assessing the threats from potential hazards to the population and infrastructure.
A model which defines the correct implementation in relation to the concept model.
Wireless Sensor Network
Wireless Sensor Networks rely on wireless connectivity and spontaneous formation of networks so that sensor data can be transported wirelessly.
ALOS Advanced Land Observing Satellite
API Application Programming Interface
ATM Air Traffic Management
BGAN Broadband Global Area Network
BVLOS Beyond Visual Line of Sight
CAP Common Alerting Protocol
C&C Command & Control
C2 Command & Control
C3 Coordination, Command & Control
CBRN Chemical, Biological, Radiological and Nuclear
CBRNe Chemical, Biological, Radiological, Nuclear and explosive materials
CI Critical Infrastructure
CIWIN Critical Infrastructure Warning Information Network
CLIO Central Logging of Intelligence Operations System
CM Crisis Management
COP Common Operational Picture
CP Civil Protection
CPM Civil Protection Mechanism
CPO Civil Protection Office
CSI Critical Success Factor
DC Direct current
DMC Disaster monitoring constellation
DMIS Disaster Management Information System
DoA Description of Action
DRM Disaster Risk Management
DSS Decision Support System
ECDC European Centre of Disease Prevention and Control
ECH2020 European Commission Horizon 2020
EDXL Emergency Data eXchange Language
EFSA European Food Safety Authority
EMN European Migration Network
EMSA European Maritime Safety Agency
ENISA European Network and Information Security Agency
ENVISAT Environmental Satellite
EO Earth Observation
eOSOCC Electronic On-Site Operations Coordination Centre
ERCC Emergency Response Coordination Centre
ERS Emergency Restoration Structures
ERUs Emergency Response Units
ETM Enhanced Thematic Mapper
EU European Union
FEMA Federal Emergency Management Agency
FM Frequency Modulation (in telecommunications and signal processing)
Frontex European Agency for the Management of Operational Cooperation at the External Border
GCS Ground Control Station
GDACS Global Disaster Alert and Coordination System
GDPR General Data Protection Regulation
GIS Geographic Information Systems
GOARN Global Outbreak Alert and Response Network
GPS Global Positioning System
GSM Global System for Mobile Communications
HCI Human-Computer Interaction
H-CLOP Humanitarian common logistic operating picture
HFE Human Factors Engineering
HFOSS Humanitarian Relief and Humanitarian Free and Open Source System
HNS Host Nation Support (Guidelines)
HSE Health Service Executive (Irish public health and social care services)
HSI Human System Interfaces
HUSAR Heavy capability Urban Search and Rescue
ICT Information and communications technology
IFRC International Federation of Red Cross and Red Crescent
INSARAG International Search and Rescue Advisory Group
IPCR Integrated Political Crisis Response arrangements
IPR Intellectual Property Rights
IRL Integration Readiness Level
IS Information Systems
ISAC Inter-Organizational Situation Assessment Client
IT Information Technology
JESIP Joint Emergency Services Interoperability Programme
KPI Key Performance Indicator
KRA Key Result Area
LCMS National Crisis Management System of the Netherlands
LEA Law Enforcement Agencies
LOCC National Operational Coordination Centre
LSS Logistics Support System
MDRU Movable and Deployable Resource Unit
MIC Monitoring and Information Centre
MRPP Mixed Reality Preparedness Platform (IN-PREP training platform)
MUSAR Medium capability Urban Search and Rescue
NASA National Aeronautics and Space Administration
NATO North Atlantic Treaty Organisation
NIMS U.S. National Incident Management System
NPoCC National Police Coordination Centre
NRF National Response Framework
NRT Near Real Time
OEMC Office of Emergency Management and Communications
PPEW Platform for Promotion of Early Warning
RASF Rapid Alert System for Food and Feed
R&D Research and Development
RFID Radio Frequency Identification
RPAS Remotely Piloted Aircraft System
RRI Responsible Research and Innovation
RT Real Time
RTO Research and Technological Organisation
SARS Severe acute respiratory syndrome
SATCOM Satellite Communications
SMAT Social Media Analysis Tools
SMSRM Solution Methodology of the Structured Robust Model
SoA State of Art
SPOT Satellite Pour l’Observation de la Terre
SSH Social sciences and Humanities
SRIJ Safety Region of IJsselland
SRMLM Stochastic/Robust Model for Logistics Management
SUMA Humanitarian Supply Management System
SWE Sensor Web Enablement
TBC Transboundary Crisis
TCM Transboundary Crisis Management
TFEU Treaty on the Functioning of the European Union
TP-DRO Transportation Problem in Disaster Response Operations
TRL Technology Readiness Level
TSO Tactical situation object
TSP Travelling salesman problem
TTX Table top exercise
UAB User Advisory Board
UAS Unmanned Aerial System
UAV Unmanned Aerial Vehicle
UNDAC United Nations Disaster Assessment and Coordination
UNISDR United Nations Office for Disaster Risk Reduction’s
USAR Urban Search and Rescue
VGI Volunteered geographic information
VOSOCC UN’s Virtual On-Site Operations Coordination Centre
VRP Vehicle routing problem
VSAT Very Small Aperture Terminal
WHO World Health Organisation
XML Extensible Mark-up Language
Official Glossaries used by Civil Protection Agencies
EU/UN/NATO Informal Inter-organisational Military Glossary of abbreviations, terms and definitions related to Conflict Prevention (CP) and Defence and related security Capacity Building (DCB)
CBRNE Glossary produced by the Joint Research Centre of the European Commission in all the EU languages and available at http://opencbrne.jrc.ec.europa.eu/main
A glossary of terms used within JESIP – the Joint Doctrine 2nd Edition http://www.jesip.org.uk/definitions
The Irish Framework for Major Emergency Management provides a Glossary of Terms and Acronyms Appendix F3
(source: G. Micillo, L. Torrini, Italian National Fire Corps)
The SITAC (Standardization of Firefighting Tactical Situation Management ) SYMBOLOGY is an index of symbols related to disaster and disaster preparation pertaining to firefighting. It is in both Italian and English and looks to set a standard symbology that can be understood by all agencies involved in situations.