High Precision Navigation Capabilities(L1-SAIF) and Applications Using Japanese Quasi-Zenith Satellite System (QZSS)

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High Precision Navigation Capabilities(L1-SAIF) and Applications Using Japanese Quasi-Zenith Satellite System (QZSS) ICG WG-B Application SG Meeting Munich, Germany March 12, 2012 Satellite Positioning Research and Application Center (SPAC) 1

Functions of QZSS Increasing Coverage & Availability Enhance GPS Performance QZS QZS Navigation Signal GPS Galileo GLONASS GP S Navigation Signal and Augmentation Data L1-SAIF (250 bps) LEX (2000 bps) User Segment cm LEX L1 SAIF (accuracy ) sub-meter QZSS and MSAS, ICG 6, Tokyo, 2011 Secretariat of Strategic Headquarters for Space Policy 2

Functions of QZSS QZSS Satellite Overview Mass Power Design Life Around 4ton Around 5kw 10 years Launch Date September 11, 2010 L1-SAIF Antenna L-band Antenna JAXA JAXA 3

Functions of QZSS QZSS Navigation Signals Signal Channel Frequency Interoperability L1C L1CD L1CP 1575.42 MHz L1-C/A L2C L5 L1-SAIF LEX L5I L5Q 1227.6 MHz 1176.45 MHz 1575.42 MHz 1278.75 MHz GPS-like supplemental signals with minimum modifications from GPS signals SBAS-like augmentation signal (250bps) QZSS-specific augmentation signal (2kbps) JAXA IS-QZSS(Interface Specification for QZSS) 4

QZSS L1-SAIF Signal L1-SAIF(Submeter-class Augmentation with Integrity Function) Development : by ENRI Utilization and Demonstrated : by SPAC Functions Ranging Error Correction - Wide-are differential correction - Target accuracy : 1m(horizontal) Integrity Interoperability and compatibility Interoperable with GPS L1C/A Fully compatible with SBAS Additional messages are included in L1-SAIF signal 5

QZSS L1-SAIF Signal Structure of L1-SAIF system L1-SAIF Signal Generation QZSS GPS Augmentation Information -Clock Correction -Orbit Correction -Ionospheric Correction Information to accelerate TTFF Collect GEONET data GEONET GPS Earth Observation Network System 1200 points 6

QZSS L1-SAIF Signal Structure of L1-SAIF message Preamble 8 bits Message Type 6 bits Data Field 212 bits CRC Parity 24 bits L1-SAIF Message 1 message = 250 bits broadcast every second SBAS compatible message Type ID : 0-7, 10, 18, 24-26, 28, 62-63 SBAS non compatible message Type ID : 52-60 QZSS unique message(for civil utilization demonstration) Type ID : 40-51 7

QZSS L1-SAIF Signal Structure of L1-SAIF message Message Type Contents Used by Status 29 to 51 (40-51) Undefined (QZSS) (L1-SAIF) (Tentative) 52 TGP mask L1-SAIF Tentative 53 Tropospheric delay L1-SAIF Tentative 54 to 55 Advanced Ionospheric delay L1-SAIF TBD 56 Intersignal biases L1-SAIF Tentative 57 Ephemeris-related parameter L1-SAIF TBD 58 QZS ephemeris L1-SAIF Tentative 59 QZS almanac L1-SAIF TBD 60 Regional information L1-SAIF TBD Ranging Quality of QZSS L1 SAIF Signal, IONITM 2012, Newport Beach, 2012 Electronic Navigation Research Institute 8

Demonstration of L1-SAIF Capability Following 14 points have been selected from GEONET to generate L1-SAIF augmentation information L1-SAIF capability has been evaluated Vertical(GPS only) Horizontal(GPS only) Vertical(GPS+L1-SAIF) Horizontal(GPS+L1-SAIF) 1.83(m) 1.30(m) 0.59(m) 0.38(m) South-North direction(m) Horizontal Error Kawagoe, Japan, 04.07.2011 Activities for QZS application demonstration in private sector, SPAC Symposium 2011, Tokyo, 2011, SPAC East-West direction(m) 9

Demonstration of L1-SAIF Capability Effects of L1-SAIF(1/2) 7.Ogasawara Islands 14. Okinawa Islands Activities for QZS application demonstration in private sector, SPAC Symposium 2011, Tokyo, 2011, SPAC 10

Overview of L1-SAIF Capability Effects of L1-SAIF(2/2) 7.Ogasawara Islands 14. Okinawa Islands Activities for QZS application demonstration in private sector, SPAC Symposium 2011, Tokyo, 2011, SPAC 11

L1-SAIF Application Fields Major L1-SAIF Application Fields On-Board Unit Personal Use ITS Intelligent Transport System Disaster Prevention Life Support Activities for QZS application demonstration in private sector, SPAC Symposium 2011, Tokyo, 2011, SPAC 12

L1-SAIF Application Fields Application for ITS Enhancement of GPS navigation results has been confirmed by the demonstration. By using L1-SAIF signal, cruising lane of each car can be identified. Date : 2011.10.17&2011.11.17 Place : Nagoya-city Remark : 7 times round trip data are superimposed Activities for QZS application demonstration: ITS, SPAC Symposium 2011, Tokyo, 2011, AISAN Technology Company LTD. 13

L1-SAIF Application Fields Application for Personal Use Sekai Camera is new AR application to provide millions of Air Tags (by Tonchidot Corporation) L1-SAIF provides capability to show Air Tags at the precise position to each place. Examples of Air Tags The world of SekaiCamera, 9 th Satellite Positioning and Geospatial Information Form 2011, Tokyo, 2011, Tonchidot Corporation 14

L1-SAIF Application Fields AR application AR : Augmented Reality Technology to display additional information to the real world by using computer assist Based on geographical information obtained from L1-SAIF signal, it is possible to provide facility information around the area and recommended route information by overlaying these digital information on the reality space in Map and Camera Screens. Omotenabi : http://omotenavi.jp/en/about/index.html 15

L1-SAIF Application Fields Application for Disaster management (Earth Quake) Horizontal and vertical displacement due to coseismal slip can be detected by GPS. Following figure shows GPS observation by the Geospatial Information Authority of Japan. By using L1-SAIF signals, the movement can be detected more accurately Tsunami Impacting Eastern Japan and Preparedness for Extraordinary Natural Disaster, Port and Airport Research Institute, Japan 16

L1-SAIF Application Fields Application for Disaster management (Tunami) Tsunami height was measured with GPS buoy as shown bellow. By using L1-SAIF signals, the movement can be detected more accurately GPS buoy Tsunami Impacting Eastern Japan and Preparedness for Extraordinary Natural Disaster, Port and Airport Research Institute, Japan 17

Summary Augmentation is characteristic feature of the QZSS. Demonstration of L1-SAIF signal has been conducted by SPAC and improvement by L1-SAIF augmentation has been confirmed. Signal characteristics of L1-SAIF has been already issued by IS-QZSS http://qzss.jaxa.jp/is-qzss/index.html IS-QZSS : Interface Specifications for QZSS L1-SAIF provides efficient augmentation information for High Precision Navigation Market 18