HF Radar Systems Engineering Plan

Slides:



Advertisements
Similar presentations
Marianna Vaiman, V&R Energy
Advertisements

Chubaka Producciones Presenta :.
2012 JANUARY Sun Mon Tue Wed Thu Fri Sat
Design of an Autonomous Anti-DDOS Network (A2D2) Angela Cearns Thesis Proposal Master of Software Engineering University of Colorado, Colorado Springs.
P Pathophysiology Calendar. SundayMondayTuesdayWednesdayThursdayFridaySaturday January 2012.
SeaSonde Overview.
Use of FOS for Airborne Radar Target Detection of other Aircraft Example PDS Presentation for EEE 455 / 457 Preliminary Design Specification Presentation.
Final Design and Implementation
NASA Goddard Space Flight Center Direct Readout Laboratory NPP/JPSS HRD/LRD Status Patrick Coronado NASA Goddard Space Flight Center directreadout.sci.gsfc.nasa.gov/ipopp.
Web Development Process Description
Mantychore Oct 2010 WP 7 Andrew Mackarel. Agenda 1. Scope of the WP 2. Mm distribution 3. The WP plan 4. Objectives 5. Deliverables 6. Deadlines 7. Partners.
RUP Design RUP Artifacts and Deliverables
V&R Energy’s Project under PRSP: Grid Operator’s Monitoring & Control Assistant (GOMCA) Marianna Vaiman, V&R Energy JSIS Meeting.
Ligurian Sea Mid-Atlantic Bight Results from the Mid Atlantic High Frequency Radar Network Radar Network Hugh Roarty, Scott Glenn, Josh Kohut, Erick Rivera,
Surface Current Mapping with High Frequency RADAR.
Proposal for Decisions 2007 Work Baseline M.Jonker for the Cocost* * Collimation Controls Steering Team.
The Grid System Design Liu Xiangrui Beijing Institute of Technology.
WORD JUMBLE. Months of the year Word in jumbled form e r r f b u y a Word in jumbled form e r r f b u y a february Click for the answer Next Question.
Network UAV C3 Stage 1 Final Briefing Timothy X Brown University of Colorado at Boulder Interdisciplinary Telecommunications Program Electrical and Computer.
Application of Radial and Elliptical Surface Current Measurements to Better Resolve Coastal Features  Robert K. Forney, Hugh Roarty, Scott Glenn 
DATE POWER 2 INCOME JANUARY 100member X 25.00P2, FEBRUARY 200member X 25.00P5, MARCH 400member X 25.00P10, APRIL 800member.
Network Components David Blakeley LTEC HUB A common connection point for devices in a network. Hubs are commonly used to connect segments of a LAN.
Underwater Network Localization Patrick Lazar, Tausif Shaikh, Johanna Thomas, Kaleel Mahmood University of Connecticut Department of Electrical Engineering.
2011 Calendar Important Dates/Events/Homework. SunSatFriThursWedTuesMon January
High Performance Flexible DSP Infrastructure Based on MPI and VSIPL 7th Annual Workshop on High Performance Embedded Computing MIT Lincoln Laboratory
TEMPORAL VISUALIZATION OF DATA FROM THE FRENCH SENTINEL NETWORK.
July 2007 SundayMondayTuesdayWednesdayThursdayFridaySaturday
11 DEPLOYING AN UPDATE MANAGEMENT INFRASTRUCTURE Chapter 6.
IEEE-1588 IEEE-1588 – Standard for a Precision Clock Synchronization Protocol for Networked Measurement and Control Systems Defines a Precision Time Protocol.
LCLS Commissioning & Operations High Level Software
Real-Time Beyond the Horizon Vessel Detection
Systems Analysis and Design in a Changing World, Fifth Edition
QA/QC Methods for 13 MHz Brant Beach (BRNT) Test Case
Results from the Mid Atlantic High Frequency Radar Network
Evaluation of Three Antenna Pattern Measurements for a 25 MHz SeaSonde
Soviet Venera Program.
National High Frequency Radar Network
A Closer Look at CODAR HF Radar Spectra
Self Healing and Dynamic Construction Framework:
StratusLab Final Periodic Review
StratusLab Final Periodic Review
MULE Final Presentation
REMOTE SENSING IN THE ARCTIC REGION
Bistatic Systems: Preparing for Multistatic
IEEE Std 1074: Standard for Software Lifecycle
Application of 13 MHz SeaSonde Systems for Vessel Detection
OCG High Frequency Radar
Hugh Roarty, Michael Smith, Ethan Handel and Scott Glenn
Robert K. Forney, Hugh Roarty, Scott Glenn March 5th, 2015
LCLS Commissioning & Operations High Level Software
ILA 32: Boulder, Colorado November 3 - 7, 2003
Friends of Aviation October 23, 2002
McDonald’s Kalender 2009.
McDonald’s Kalender 2009.
An overview of real-time radar data handling and compression
October 27, 2011 New Brunswick, NJ
2040 Long Range Transportation Plan Update
McDonald’s Kalender 2009.
Analysis models and design models
Substation Automation System
Problem Gambling Clicks to Opgr.org
2300 (11PM) September 21 Blue line is meridian..
McDonald’s calendar 2007.
A Multi-static HF Radar Network for the
McDonald’s calendar 2007.
Habitat Changes and Fish Migration
Task Manager & Profile Interface
2015 January February March April May June July August September
Habitat Changes and Fish Migration
Presentation transcript:

HF Radar Systems Engineering Plan LEAP2-RUT-T1 TASK 1: HF Radar Systems Engineering Plan November 2, 2010 – February 24, 2011 75days Define performance Objectives for Multi-Static Operation Define system requirements for Large Scale Deployment Architecture Define Interfaces and Requirements for Second Shore Station and at sea bistatic transmitter Deliverable “Codar HF Radar Functional Specification”

U.S. National HF Radar Network Segment Color Key Red > 90 km 70 km < Orange < 90 km 70 km > Green http://ioos.gov/hfradar/

Existing and Proposed HF Radars for the United States Nominal Range (km) Existing Radars Proposed Radars Total Radars VeryHigh Resolution(42 MHz) 20 4 12 16 High Resolution (25 MHz) 45 25 36 61 Standard Range (13 MHz) 75 39 120 159 Long Range (5 MHz) 180 44 40 84 Total 112 208 320

Google Earth Map: Existing Sites Alaska - 3 Puerto Rico - 2 CONUS - 104 Hawaii - 3

Google Earth Map: Proposed Sites Alaska - 17 Puerto Rico - 20 CONUS - 262 Pacific Islands - 21

Purchase Shore Station Components LEAP2-RUT-T2 TASK 2: Purchase Shore Station Components November 2, 2010 – April 7, 2011 105 days Purchase SeaSonde SSRS-100 13 MHz GPS Synchronization Lightning Protection Package Bistatic Software Package Shore Station Infrastructure (shed, enclosure, communications, power, UPS)

LEAP2-RUT-T2

TASK 2: Install Shore Station Specify Shore Location LEAP2-RUT-T2 TASK 2: Install Shore Station March 25, 2011 – June 17, 2011 60 days Specify Shore Location Obtain Necessary Approvals and Permits Install and Calibrate System Initial System Testing in MonoStatic Mode

Existing Medium Range Network LEAP2-RUT-T2 Existing Medium Range Network

Future Medium Range Network LEAP2-RUT-T2 Future Medium Range Network

LEAP2-RUT-T2 Belmar Fishing Club

Association Requirements Analysis LEAP2-RUT-T3 TASK 3: Association Requirements Analysis March 25, 2011 – June 17, 2011 60 days Define Performance Requirements for Association Algorithms Develop Preliminary Implementation Plan for Association of Data from Multiple Shore Stations

Processing Matrix Threshold (dB) 6 7 8 9 10 11 12 13 16 IIR 32 MED 64 128 IIR MED 256 512 1024 FFT Points

Processing Time and Velocity Resolution FFT Points FFT Length Dvr (cm/s) Dvr (knots) 16 8 s 144 2.88 32 16 s 72 1.44 64 32 s 36 0.72 128 64 s 18 0.36 256 2 min 8 s 9 0.18 512 4 min 16 s 5 0.09 1024 8 min 32 s 2 0.05

Develop Implementation Plan LEAP2-RUT-T4 TASK 4: Develop Implementation Plan November 2, 2010 – February 24, 2011 75days Assist OPT in defining data structure, protocol and hardware configuration required for LEAP Regional Server Network

Portals, Nodes, Sites

Design Vessel Detection Architecture LEAP2-RUT-T5 Design Vessel Detection Architecture TASK 5: April 8, 2011 – July 1, 2011 60 days Optimize threshold levels, background levels and integration times for vessel detection

Multi-Static Operations TASK 6: LEAP2-RUT-T6 Multi-Static Operations TASK 6: April 8, 2011 – August 4, 2011 83 days Add second to multi-static processing Configure Software and Hardware for multi-static operation Produce data from BRNT, BELM, Continue multi-static operation, testing and optimization

Radial Current Vectors LEAP-R-T4 Radial Current Vectors

Totals from Radials

Elliptical Current Vectors LEAP-R-T4 Elliptical Current Vectors

Totals from Radials & Ellipticals

Bistatic Interface Development TASK 7: LEAP2-RUT-T7 Bistatic Interface Development TASK 7: November 2, 2010 – April 28, 2011 120 days Support OPT with Tx/Buoy interface Provide detailed mechanical/ electrical specifications for shock and vibration, positional stability criteria Support systems integration and testing at OPT Analyze performance of Vessel detection based on bistatic operation

LEAP2-RUT-T7 Bistatic Transmitter Package Transmit Antenna Atop Buoy

TASK 8: Refinement of Multistatic Detection Technologies LEAP2-RUT-T8 Refinement of Multistatic Detection Technologies TASK 8: August 5, 2011 – September 16, 2011 30 days Develop Improved Detection Methodologies Report on detection improvements

Real Time Transition Studies TASK 9: LEAP2-RUT-T9 Real Time Transition Studies TASK 9: August 5, 2011 – September 16, 2011 30 days Update Shore Stations to automate production of Detection files at the shore station Implement ftp or equivalent to provide detection files to regional node Make real time architecture recommendations