Deployable Communications and Incident Command System for Emergency Response and Disaster Recovery: Difference between revisions

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{{ActionCluster
{{ActionCluster
 
|image=DentonMobile.jpeg
| title            = Deployable Communications and Incident Command System for Emergency Response and Disaster Recovery
|team=University of North Texas, Civil Air Patrol, Penn State University, AirRobot, Dean Skidmore, LTE+IoT, Unmanned Experts
| team             = University of North Texas, Civil Air Patrol, Penn State University, AirRobot, Dean Skidmore, LTE+IoT, Unmanned Experts
|leader=Kamesh Namuduri
 
|imagecaption=Deployable Communications
| leader           = Kamesh Namuduri
|municipalities=City of Denton TX
| email            = Kamesh.Namuduri@unt.edu
|description=The integrated system will facilitate communications and information sharing during disaster recovery. It can be deployed in area where communications do not exist or failed due to disasters.  The system will include (1) A Deployable Communication System,  (2) Onboard Sensors (3) Next Generation Incident Command System and (4) Web Services
| image            =
|challenges=* Designing an communication node to facilitate communications among  multiple stakeholders (citizens,  first responders,  and volunteers)
| imagecaption     =  
| municipalities   = City of Denton, TX
| status            = 
| website          =
| download          =
 
| description       =  
The integrated system will facilitate communications and information sharing during disaster recovery. It can be deployed in area where communications do not exist or failed due to disasters.  The system will include (1) A Deployable Communication System,  (2) Onboard Sensors (3) Next Generation Incident Command System and (4) Web Services
 
 
| challenges       =  
* Designing an communication node to facilitate communications among  multiple stakeholders (citizens,  first responders,  and volunteers)
* Deploying the system during disaster recovery times
* Deploying the system during disaster recovery times
* Extending the duration of operation of the system after deployment
* Extending the duration of operation of the system after deployment
* Extending the ground coverage  of the system  
* Extending the ground coverage  of the system
 
|requirements=* Design of a deployable aerial base station  
| solutions              =
 
| requirements       =  
* Design of a deployable aerial base station  
* Integrate onboard sensors on the platform
* Integrate onboard sensors on the platform
* Integrate next generation incident command system
* Integrate next generation incident command system
* Build necessary web services
* Build necessary web services
* Field testing, performance evaluation, and assessment
* Field testing, performance evaluation, and assessment
 
|kpi=Meet the requirements set by the National Public Safety Telecommunication Council (NPSTC) for deployable systems in terms of operations.
| kpi               =  
|measurement=* Duration of continuous operation of the deployable system
Meet the requirements set by the National Public Safety Telecommunication Council (NPSTC) for deployable systems in terms of operations.  
 
 
| measurement       =  
* Duration of continuous operation of the deployable system
* Quality of communication links established by the deployable system
* Quality of communication links established by the deployable system
 
|standards=* Standards for deployable systems – as defined by NPSTC
 
| standards         =  
* Standards for deployable systems – as defined by NPSTC
* Standards for aerial communications – defined by IEEE and AEEC (Airlines Electronic Engineering Committee)
* Standards for aerial communications – defined by IEEE and AEEC (Airlines Electronic Engineering Committee)
 
|impacts=Deployable systems facilitate communications among citizens and first responders during disaster recovery.  Incident command system will facilitate sharing of information between the first responder network and decision makers.
 
|demonstration=* Phase I Pilot/Demonstration:
 
 
| cybersecurity        =
 
| impacts                 =  
Deployable systems facilitate communications among citizens and first responders during disaster recovery.  Incident command system will facilitate sharing of information between the first responder network and decision makers.
 
 
 
| demonstration       =
* Phase I Pilot/Demonstration:
Deployable communication and incident command system  
Deployable communication and incident command system  


* Phase II Deployment:
* Phase II Deployment:
Deployable communication and incident command system with a set of web-based services  
Deployable communication and incident command system with a set of web-based services
 
|chapter=Communications Networks
 
|supercluster=Public Safety
| supercluster           = Public Safety
|year=2017
| year                   = 2017
|title=Deployable Communications and Incident Command System for Emergency Response and Disaster Recovery
 
|email=Kamesh.Namuduri@unt.edu
}}
}}
[[Category:Year_2016]]
[[Category:Year_2016]]
[[Category:Year_2015]]
[[Category:Year_2015]]

Latest revision as of 22:42, January 24, 2023


Deployable Communications and Incident Command System for Emergency Response and Disaster Recovery
GCTC logo 344x80.png
DentonMobile.jpeg
Deployable Communications
Team Organizations University of North Texas
Civil Air Patrol
Penn State University
AirRobot
Dean Skidmore
LTE+IoT
Unmanned Experts
Team Leaders Kamesh Namuduri
Participating Municipalities City of Denton TX
Status {{{status}}}"{{{status}}}" is not in the list (Launched, Implemented, Development, Ready for Public Announcement, In Deliberations, Negotiations, Concept only Stage, Master Planning) of allowed values for the "Status" property.
Document None

Description

The integrated system will facilitate communications and information sharing during disaster recovery. It can be deployed in area where communications do not exist or failed due to disasters. The system will include (1) A Deployable Communication System, (2) Onboard Sensors (3) Next Generation Incident Command System and (4) Web Services

Challenges

  • Designing an communication node to facilitate communications among multiple stakeholders (citizens, first responders, and volunteers)
  • Deploying the system during disaster recovery times
  • Extending the duration of operation of the system after deployment
  • Extending the ground coverage of the system

Solutions

{{{solutions}}}

Major Requirements

  • Design of a deployable aerial base station
  • Integrate onboard sensors on the platform
  • Integrate next generation incident command system
  • Build necessary web services
  • Field testing, performance evaluation, and assessment

Performance Targets

Key Performance Indicators (KPIs) Measurement Methods

Meet the requirements set by the National Public Safety Telecommunication Council (NPSTC) for deployable systems in terms of operations.

  • Duration of continuous operation of the deployable system
  • Quality of communication links established by the deployable system

Standards, Replicability, Scalability, and Sustainability

  • Standards for deployable systems – as defined by NPSTC
  • Standards for aerial communications – defined by IEEE and AEEC (Airlines Electronic Engineering Committee)

Cybersecurity and Privacy

{{{cybersecurity}}}

Impacts

Deployable systems facilitate communications among citizens and first responders during disaster recovery. Incident command system will facilitate sharing of information between the first responder network and decision makers.

Demonstration/Deployment

  • Phase I Pilot/Demonstration:

Deployable communication and incident command system

  • Phase II Deployment:

Deployable communication and incident command system with a set of web-based services