GPS Surveying - System 300

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GPS Surveying - System 300 SR399 GPS Sensor with built-in Antenna Satellite Reception Receiver channels: L1 channels: L2 channels: L1 carrier tracking - AS on or off: L2 carrier tracking - AS off: L2 carrier tracking - AS on: Dual frequency. 9 L1 continuous tracking. 9 L2 continuous tracking. Carrier phase, P1 code, C/A code. Carrier phase, P2 code. Reconstructed carrier phase via C/A code. Reconstructed carrier phase via P2 code. Switches automatically to patented P code-aided technique providing full L2 reconstructed carrier phase. Antenna type: Mounting: Height of phase centre: 1. Tripod Mounted: 2. Ranging pole & Quickstand: Weight (SR399 + adapter): Microstrip L1/L2 antenna with groundplane built into Sensor. Tripod with tribrach and carrier or Ranging pole and Quickstand. Measured with height hook. Fixed heights. 2.3kg (5.0lb) SR9500 GPS Sensor with External Antenna Specifications for SR9500 are as for SR399 opposite except: L1 code measurements - AS off: L1 code measurements - AS on L2 code measurements - AS off: L2 code measurements - AS on Independent measurements: C/A code narrow correlation. P1 code. C/A code narrow correlation. Patented P1 code-aided code. P2 code. Patented P2 code-aided code. Fully independent carrier phase and code measurements on L1 and L2 with AS on or off. Receiver channels: Satellites tracked: Event input: SR9500 GPS Sensor Weight (SR9500 only): AT302 external antenna for SR9500 Antenna type: 12 L1 continuous tracking. 12 L2 continuous tracking. Up to 12 simultaneously on L1 and L2. Two event input ports can be fitted as an option 2.6kg (5.7lb) Microstrip L1/L2 antenna with built in groundplane. Satellites tracked: Time to first phase measurement after switching on: Data collection interval: Cut off angle: Up to 9 simultaneously on L1 and L2. Typically less than 60 seconds. Selectable, 1 to 60 seconds via Controller. Selectable via Controller. Standard cables, SR9500 to external antenna: Optional cable, SR9500 to external antenna: Optional 30cm groundplane: 2.8m and 10m 30m Detachable Satellite health and L2 tracking criteria: Automatically acquired, but with user override capability via Controller. Mounting: Tripod with tribrach and carrier or Ranging pole and Quickstand. Time-mark (pps) output: Accuracy of pps output: Selectability of pps output: Optional. 100nsec (3 sigma, without SA). Selectable from 1 to 20 seconds, via Controller. Height of phase centre: 1. Tripod mounted: 2. Ranging pole/ Quickstand: Weight (external antenna and adapter): Measured with height hook. Fixed heights. 0.6kg (1.3lb) Technical Specifications : SR399 and SR9500 Sensors, CR333 and CR344 Controllers, Software

CR333 GPS Controller CR344 GPS Controller Function: Controls GPS Sensor. Steers survey operation. Logs data. Input of point numbers, heights, attributes. Data management. Display, keyboard, function, capabilities, features: Plus As for CR333. Display: Keyboard: Liquid-crystal display. 8 lines of 40 characters. Can be illuminated. Full alphanumeric plus PC functions. All functions and alphanumeric input via single-key entries. No double-function or treble-function keys. Connects to data-link: RTCM: NMEA: Extra port for connection to a data link (radio modem). Supports RTCM SC104 v.2.1 input and output when used together with SR399/ SR9500 Sensor. Provides output of NMEA 0183 v.2.00 sentences. User Interface: Displayed information: Observation types supported: Time tags: Start sequence: Automatic wake-up: Programmable: Stop and Go indicator: Point id and height entry: For local co-ordinates: Code and attribute system: Database: Weight without battery: Plug-in battery: Easy to follow menus. Satellite status/satellite health. Satellite-tracking information. Azimuth, elevation, signal to noise ratio etc. Data-logging information. Receiver information. Point numbers. Attributes and codes. Loss of lock information. Stop and Go information. Real-time navigation position. Latitiude, longitude, ell' height in WGS84. Grid co-ordinates in local system. GDOP/PDOP. Local time/gps time/time Zone. Real-time Navigation. Waypoints, course, bearing, distance, speed. Static, Rapid Static, Reoccupation, Stop and Go, Kinematic,Kinematic on the Fly Navigation. Time tagged point numbers and attributes in kinematic chains. Manual or automatic. Multiple timer missions with wake-up times and duration. User programmable missions, configuration, start-up sequence etc. Informs operator when sufficient measurements have been taken. 16-character alphanumeric point identifier plus height and antenna offset. Ellipsoid, map projection, transformation parameters. User definable codes and attributes based on layers. Ideal for GIS-type applications. Generated on PC. Transfer from PC to Controller and viceversa. OSW Open Survey World database. Common database between Leica GPS and TPS systems. 1.0kg (2.2lb) 0.2kg (0.4lb) Runs RT-SKI software: Data logging via Controller Data logging medium: PCMCIA cards: Optional internal memory: Recording capacities: Capacity 512 KB 1 MB 2 MB 4 MB 20 MB Input/Output I/O: Power consumption: SR399 Sensor only: 5 sats L1/L2 at 15 sec rec rate. SR399 & Controller: SR9500 Sensor only: about 9 hours about 18 hours about 36 hours about 72 hours about 360 hours SR9500 & Controller: Supply voltage: Recommended battery: Can also be used: Supports RTCM SC104 v.2.1. Will run optional RT-SKI Real-Time Static Kinematic software for real-time GPS surveying to centimetre accuracy levels. PCMCIA Cards. Optional 1MB internal memory. Type I SRAM cards: 512KB, 2MB. 4MB. Type II FLASH cards: 20 MB 1MB 9 Watts 12 Watts 10 Watts 13 Watts 5 sats L1/L2 at 30 sec rec rate. about 18 hours about 36 hours about 72 hours about 144 hours about 720 hours RS-232 and GLAN capability. Power Requirements (Sensor and Controller) Nominal 12V DC. 5 sats L1/L2 at 60 sec rec rate. about 36 hours about 72 hours about 144 hours about 288 hours about 1440 hours GEB71 12V, 7Ah NiCd, for up to about 5 to 6 hours continuous operation at 20 C GEB70 12V, 2Ah NiCd, for up to about 1.5 hours continuous operation at 20 C Or any other suitable 12V DC power supply. 2

Code and Phase Measurements Carrier-phase measurement precision, AS on or off. On L1 frequency: On L2 frequency: Differential-Phase accuracy, AS on or off. Nominal baseline accuracy for differentialphase in static mode: 5mm + 1ppm (rms) Code-measurement precision, AS on or off. On L1 frequency: On L2 frequency: 0.2mm (rms) 0.2mm (rms) 5cm (rms) 5cm (rms) Differential-code accuracy, AS on or off. Nominal baseline accuracy for differential code: 30 to 50 cm (rms) Observation Times for GPS Baselines Observation times cannot be defined exactly. Observation times depend upon baseline length, number of satellites, satellite geometry (GDOP), ionospheric conditions, expected accuracy etc. The following provide only a guide: Differential phase: Rapid Static: Stop and Go: Kinematic: Differential code: Static: Kinematic: Min. 4 sats, GDOP < 8, good conditions. Typically less than 5 minutes for up to 5km. Typically about 5 minutes for 5 to 10km. Typically 2 epochs per point. 1 epoch. Min. 4 sats, GDOP < 8, good conditions. Typically 0.5 to 3 minutes. 1 epoch. Baseline Accuracy with SKI Software (postprocessing). AS on or off. Differential-phase Static Rapid static Reoccupation Stop and Go Kinematic Differential-code Static Kinematic Baseline rms (root mean square) 5mm + 1ppm 5 to 10mm + 1ppm 5 to 10mm + 1ppm 10 to 20mm + 1ppm 10 to 20mm + 1ppm Baseline rms (root mean square) 30 cm 50 cm Note on Baseline Accuracy Baseline accuracy is dependent upon various factors including the number of satellites tracked, constellation geometry, observation time, ephemeris accuracy, ionospheric disturbance, multipath and resolved ambiguities. Single-Point Position Accuracy with SKI Software Single-point position 3D: 1 to 5m for each co-ordinate, provided that observation time is sufficient to reduce influence of Selective Availability (SA). Navigation Position Accuracy in Controller Navigation position 3D: 15m rms for each co-ordinate. Note: Navigation position accuracy is subject to degradation by DoD Selective Availability (SA) policy. DoD policy is that there is 95% guarantee of 100m accuracy with SA. Navigation Position Accuracy with RTCM With CR344 or SPCS for RTDGPS: With 4 satellites, good GDOP, and range to reference up to about 100km: Via RTCM corrections Typically 0.5m (rms) 3

Environmental Specifications Temperature: SR399 Sensor: SR9500 Sensor: External antenna for SR9500 Sensor: CR333 and CR344 Controllers: Leica PCMCIA card: Optional 1MB Internal Memory: Operation -20 C to +50 C -20 C to +60 C -40 C to +75 C -20 C to +55 C -20 C to +70 C -20 C to +55 C Storage -40 C to +75 C Humidity: Weather: Up to 95% non-condensing. Will withstand rain, snow, dust, sand etc. Separation Distance Sensor to Controller Standard survey applications: With standard cables: With optional 10m extension cable: 2.8m 12.8m Special applications: With 30m extension cables: Up to 150m. Communication cable only, power needed at both Sensor and Controller. Separation distance SR9500 Sensor to External Antenna With standard cables: With optional cable: Longer cables: 2.8m and 10m. 30m. Available on request. Transport Case for Sensor and Controller The equipment is delivered in a sturdy, waterproof transport case. The case has space for the Controller, Sensor, battery, height hook, cables, memory cards, tribrach and carrier. Transport Case for External Antenna The External Antenna is delivered in a separate case. The case has space for the external antenna, cables and optional groundplane. 4

Software SKI Static Kinematic Post-Processing Software Major Components SKI Software (continued) System Configuration: Planning component: Data management: Configure to user requirements. Includes: Satellite visibility PDOP and GDOP Azimuth and elevation Graphical and tabular forms Obstructions Sky plots etc. Full database system. User not concerned with file handling etc. Full project management. Datum and Map: Comprehensive map projection, ellipsoid, and data transformation package. Permits the input and output of co-ordinates and defining of ellipsoids and map projections. Includes global geoidal model. Supports user-defined geoidal model. Converts Cartesian to Geodetic coordinates, and vice-versa. Import of data: Data transfer from Controller, from standalone reader or from back-up disks. Also conversion to grid co-ordinates on a defined map projection and vice-versa. Data processing: Data back-up in Leica System format and RINEX format. Graphical interface facilitates selection of baselines and processing parameters etc. Data processing fast and fully automatic. Multi-baseline batch processing. User not concerned with data screening, outlier detection, cycle-slip fixing etc. Software handles differential phase and differential code, and all GPS survey modes: Static Rapid Static Reoccupation Stop and Go Kinematic Single-Point Position Auto Program: Three transformation approaches: i) Classical 3D, 7-parameter transformation between 2 Cartesian systems. ii) 2D transformation of positions between 2 co-ordinate systems. Heights transformed separately. iii) Direct transformation from WGS84 to grid co-ordinates without knowledge of projection, ellipsoid or geoid. iv) One Step transformation from WGS84 to grid coordinates. Highly automated processing from preselected reference stations. Ideal for routine GIS-style processing. No restriction to number of baselines. Output in WGS84 or local co-ordinates. View and Edit: Output: Graphical display of observed points, baselines, stop and go chains, and kinematic chains. Comprehensive view and edit facility. Output from various components. ASCII files in defined format. Output formats include: ASCII AutoCAD DXF MicroStation DGN ArcInfo Moss LISCAD CAD Network Adjustment: Least squares adjustment of networks of GPS baselines. RINEX Import: Import of data in RINEX format from non- Leica receivers. Free or constrained adjustment. Output: adjusted co-ordinates and related statistical information. AROF: Ambiguity resolution on the fly. Kinematic on the fly without static initialisation and reinitialisation. Minimum PC Configuration for SKI software 5 Minimum configuration for SKI: Enhanced configuration is preferable: IBM or Compaq 386 PC or compatible. Math Co-processor. 4MB RAM. Asynchronous communication adapter. Parallel port (for software protection key). 1.4MB 3.5" drive. VGA colour monitor. Mouse installed. Microsoft Windows v.3.1. As above but with: IBM or Compaq 486 PC or compatible. 8MB RAM.

SPCS Sensor PC-Control Software For controlling Sensor from a PC PC with SPCS software functions as a Controller. Controls Sensor, steers survey operation, logs data. Display, control and operation almost exactly as with CR333 Controller. Data logging on hard disk. Capacity depends largely on hard disk. Ideal for certain kinematic operations. SPCS Sensor PC-Control Software Supporting RTDGPS As above for SPCS. Plus following additional capabilities: Supports RTCM SC104 V.2.0 input/output. Provides NMEA 0183 V.2.00 sentence output. Display, control, operation and functions almost exactly as with CR344 Controller. Minimum PC Configuration for SPCS software Minimum PC configuration for SPCS software (enhanced configuration is preferable) IBM or Compaq 386 PC or compatible. Math co-processor. 2MB RAM. Asynchronous communication adapter. Parallel port (needed for protection key). 1.4MB 3.5" drive. EGA or VGA colour or monochrome monitor. DOS 5.0 or higher. Note: Additional RS232 ports required for input of RTCM corrections (communication link) and output of NMEA sentences. Multistation Base-station software PC with Multistation functions as base station. Supports any amount of users in area. Controls Sensor, logs data. Users can access data files. Connection to modem and telephone possible. Output of Real Time messages possible (RTCM v.2.1 or RT-SKI) Minimum PC Configuration for Multistation software Minimum PC configuration for Multistation. (Enhanced configuration preferable) Note on PC Configurations For data logging only. IBM or Compaq 386 PC or compatible. 2MB RAM. Asynchronous communication adapter. Parallel port (needed for protection key). 1.4MB 3.5" drive. VGA colour monitor. Mouse installed. Microsoft Windows v.3.1. For multi-tasking with bulletin board software IBM or Compaq 486DX or compatible. 8MB RAM. Rest as above. Minimum PC configurations for running the software are listed. Enhanced configurations - 486DX processor with at least 8MB RAM are preferable. RT-SKI Real-Time Static Kinematic Software RT-SKI: Software for CR344 GPS Controller For real-time GPS Surveying to centimetrelevel accuracies. Illustrations, descriptions and technical data are not binding and may be changed without notice Printed in Switzerland - Copyright Leica Geosystems Inc., Heerbrugg, Switzerland G1-543-Oen - II.98 - INT Leica Geosystems Inc. GPS CH-9435 Heerbrugg (Switzerland) Telephone +41 71 727 31 31 Fax +41 71 727 47 02 www.leica.com