Honeywell IntuVue RDR-4000 Pilot's Manual
Honeywell IntuVue RDR-4000 Pilot's Manual

Honeywell IntuVue RDR-4000 Pilot's Manual

3-d automatic weather radar system with forward looking windshear detection
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IntuVue™ RDR-4000
IntuVue 3-D Automatic Weather Radar System
with Forward Looking Windshear Detection
For Boeing Commercial Aircraft
Pilot's Guide

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  • Page 1 IntuVue™ RDR-4000 IntuVue 3-D Automatic Weather Radar System with Forward Looking Windshear Detection For Boeing Commercial Aircraft Pilot's Guide...
  • Page 2 Designation NLR and is to be used solely by the individual/organization to whom it is addressed. Diversion contrary to U.S. law is prohibited. COPYRIGHT NOTICE Copyright © 2007, 2008, 2011 thru 2015 Honeywell International Inc. All rights reserved. Reproduction of this publication or any portion thereof by any means without the express written permission of Honeywell International Inc.
  • Page 3: Table Of Contents

    IntuVue RDR-4000 Weather Radar Pilot's Guide TABLE OF CONTENTS IntuVue™ RDR-4000 SECTION 1: INTRODUCTION RDR-4000 OPERATIONAL ENHANCEMENTS OPERATIONAL LIMITATIONS AND CONSIDERATIONS SECTION 2: SIMPLIFIED OPERATING PROCEDURES ON/OFF TEST TEST PATTERNS TAKEOFF AND DEPARTURE CLIMB UP TO FL200 CRUISE ABOVE FL200...
  • Page 4 IntuVue RDR-4000 Weather Radar Pilot's Guide CP-1A/1B CONTROL PANELS ELECTRONIC FLIGHT DISPLAY OPERATING CONTROLS SYSTEM CONTROL MODE SELECTION MANUAL ALTITUDE CONTROL GAIN CONTROL DISPLAY ANNUNCIATIONS DISPLAY COLORS FAULT ANNUNCIATIONS SECTION 5: PRINCIPLES OF WEATHER RADAR USE WEATHER RADAR PRINCIPLES STORM CELL CHARACTERISTICS...
  • Page 5: Intuvue™ Rdr-4000

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 1: INTRODUCTION Welcome to Honeywell’s IntuVue 3-D Automatic Weather Radar System, the RDR-4000. The RDR-4000 introduces several new technologies not found in previous generation Radar Systems. Some of the major operational differences are highlighted here. Note that the availability of some features will depend on the installation configuration.
  • Page 6 IntuVue RDR-4000 Weather Radar Pilot's Guide Internal Topography Database • Used to reduce ground clutter in weather displays and to reduce weather returns from the MAP display. More sensitive weather detection for more accurate weather depiction • Improved long-range performance.
  • Page 7: Operational Limitations And Considerations

    IntuVue RDR-4000 Weather Radar Pilot's Guide OPERATIONAL LIMITATIONS AND CONSIDERATIONS The limitations of the radar system have been consolidated here because of their importance. This section should be read thoroughly and frequently as a reminder of weather radar limitations. Weather detection, analysis, and avoidance are the primary functions •...
  • Page 8 IntuVue RDR-4000 Weather Radar Pilot's Guide Introduction 060-4492-000 Rev 7, February 2015...
  • Page 9: Section 2: Simplified Operating Procedures

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 2: SIMPLIFIED OPERATING PROCEDURES ON/OFF There is no traditional OFF switch on the RDR-4000 control panel. The radar is always scanning while in flight so that the most current weather information is instantly available in the 3D memory.
  • Page 10: Test

    IntuVue RDR-4000 Weather Radar Pilot's Guide TEST System Control: TEST • Mode: ANY • Gain: CAL • Range: 10 to 320 nm • Select WXR on the Electronic Flight Display control panel. • It is good practice to run the test sequence after system power-up or •...
  • Page 11: Test Patterns

    IntuVue RDR-4000 Weather Radar Pilot's Guide TEST PATTERNS Configurations without Hazard Display Features or Test Complete Indication. Configurations without Hazard Display Features, but with Test Complete Indication. Configurations with Hazard Display Features (includes Test Complete Indication). 060-4492-000 Simplified Operating Procedures...
  • Page 12: Takeoff And Departure

    IntuVue RDR-4000 Weather Radar Pilot's Guide TAKEOFF AND DEPARTURE System Control: L or R (dual system) or NORM (single system) • Mode: AUTO • Gain: CAL or as required to assess threats. (Refer to GAIN • CONTROL on page 27 for more details.) Range: Pilot Flying –...
  • Page 13: Cruise Above Fl200

    IntuVue RDR-4000 Weather Radar Pilot's Guide CRUISE ABOVE FL200 System Control: L or R (dual system) or NORM (single system) • Mode: AUTO • Gain: CAL or as required to assess threats. (Refer to GAIN • CONTROL on page 27 for more details.) Range: Pilot Flying –...
  • Page 14: Avoidance Maneuvers

    IntuVue RDR-4000 Weather Radar Pilot's Guide AVOIDANCE MANEUVERS When considering avoidance maneuvers keep the following in mind: Never deviate under a storm cell or the associated anvil. • Plan deviations on the upwind side of storm cells to avoid turbulence •...
  • Page 15: Section 3: Expanded Operating Instructions

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 3: EXPANDED OPERATING INSTRUCTIONS TURN ON AND TEST The on-ground system test may be performed by the flight crew or by maintenance personnel. This test will provide a comprehensive check of system performance.
  • Page 16: System Selection

    IntuVue RDR-4000 Weather Radar Pilot's Guide SYSTEM SELECTION Radar data is displayed whenever WXR mode is selected on any electronic display or on a dedicated radar indicator. When on the ground, the radar will not transmit if WXR is deselected or if the radar is in TEST mode.
  • Page 17: Weather Detection

    IntuVue RDR-4000 Weather Radar Pilot's Guide WEATHER DETECTION AUTOMATIC WEATHER MODE (AUTO) GENERAL DESCRIPTION AUTO mode provides weather, turbulence, and predictive windshear detection. The system processes the data to fill the 3D memory and extracts the selected data for display. When a PWS event is detected, an icon is shown on the display.
  • Page 18 IntuVue RDR-4000 Weather Radar Pilot's Guide SECONDARY WEATHER Secondary Weather is displayed for situational awareness and to aid in making changes to your flight plan to avoid Flight Path Weather. See the examples to visualize the displayed weather. UNDERSTANDING THE DISPLAY IN AUTO MODE In AUTO mode, the RDR-4000 projects a 3D memory space onto a two- dimensional display.
  • Page 19: Turbulence Detection

    IntuVue RDR-4000 Weather Radar Pilot's Guide TURBULENCE DETECTION Turbulence detection is an automatic function of this weather radar system. For turbulence detection and evaluation use the following procedure: 1. System Control: L or R (or NORM for single system) 2. Mode: AUTO (also...
  • Page 20: Predictive Hail And Lightning (Hazard Display Feature)

    IntuVue RDR-4000 Weather Radar Pilot's Guide PREDICTIVE HAIL AND LIGHTNING (Hazard Display Feature) If the Hazard Display Configuration of the radar system is installed, icons will be displayed on top of the reflectivity to identify areas that have the signature characteristics of hail, lightning, or both. The radar does not directly detect hail or lightning;...
  • Page 21: React (Hazard Display Feature)

    IntuVue RDR-4000 Weather Radar Pilot's Guide REACT (Hazard Display Feature) REACT stands for Rain Echo Attenuation Compensation Technique. As the transmitted radar signal travels through heavy rain it loses power, or becomes attenuated. If this attenuation is severe enough, weather behind a storm cell may not be detectable, or it may be displayed as being less severe than it actually is (e.g., green instead of yellow).
  • Page 22: Predictive Windshear (Pws) Detection

    IntuVue RDR-4000 Weather Radar Pilot's Guide PREDICTIVE WINDSHEAR (PWS) DETECTION The Predictive Windshear feature detects the presence of windshear ahead of the aircraft, giving 10 to 60 seconds of warning before the encounter. Windshear detection mode operates automatically below 1,800 ft Above Ground Level (AGL), with alerts available at 1,500 ft AGL and below.
  • Page 23 IntuVue RDR-4000 Weather Radar Pilot's Guide ADVISORY ALERTS The Advisory Alert region is ±40° from the aircraft track and from 0.5 nm to 5.0 nm in front of the aircraft. Configuration A: • Between 50 ft and 1,500 ft AGL the system indicates ADVISORY Alerts by overlaying the Windshear icon on the radar display.
  • Page 24 IntuVue RDR-4000 Weather Radar Pilot's Guide TAKE-OFF ALERT REGIONS CONFIGURATION A—WINDSHEAR TAKE-OFF (Includes Advisory Alerts) CONFIGURATION B—WINDSHEAR TAKE-OFF (No Advisory Alerts) Expanded Operating Instructions 060-4492-000 Rev 7, February 2015...
  • Page 25 IntuVue RDR-4000 Weather Radar Pilot's Guide APPROACH ALERT REGIONS CONFIGURATION A—WINDSHEAR APPROACH (Includes Advisory Alerts) CONFIGURATION B—WINDSHEAR APPROACH (No Advisory Alerts) 060-4492-000 Expanded Operating Instructions Rev 7, February 2015...
  • Page 26 IntuVue RDR-4000 Weather Radar Pilot's Guide WINDSHEAR ALERT INHIBIT REGIONS The following table compares the Inhibit Regions of Configuration A and Configuration B (selected during installation). Configuration A Configuration B Advisory Alerts are Enabled below No Advisory Alerts 1,500 ft.
  • Page 27 IntuVue RDR-4000 Weather Radar Pilot's Guide ICON DISPLAY WINDSHEAR ICONS WITH SEARCH LINES The Windshear icon shown on the display represents the location of the event in both range and azimuth. In the left example, the windshear event begins approximately 2 nm ahead and 25° to the right of the aircraft. The example on the right shows two icons, indicating two windshear events.
  • Page 28: Weather Analysis

    IntuVue RDR-4000 Weather Radar Pilot's Guide WEATHER ANALYSIS MANUAL WEATHER MODE Manual Weather Mode provides a means to assess storm cell height and development by providing selectable altitude slices. These slices from the 3D memory are corrected for the curvature of the earth, providing a view at a constant MSL altitude level.
  • Page 29: Full Coverage Ground Map Mode (Map)

    IntuVue RDR-4000 Weather Radar Pilot's Guide FULL COVERAGE GROUND MAP MODE (MAP) The RDR-4000 Weather Radar System can be used in Ground Map mode to identify terrain features. For ground mapping use the following procedure: 1. System Control: L/R (or NORM) 2.
  • Page 30 IntuVue RDR-4000 Weather Radar Pilot's Guide RDR-4000 SEATTLE AREA MAP DISPLAY SEATTLE AREA SATELLITE IMAGE (Picture from earth.google.com) Expanded Operating Instructions 060-4492-000 Rev 7, February 2015...
  • Page 31: Gain Control (Gain)

    IntuVue RDR-4000 Weather Radar Pilot's Guide GAIN CONTROL (GAIN) GAIN control is active in all modes except TEST. The calibrated (CAL) position is the same as AUTO gain mode and is the only position where the colors represent the FAA defined reflectivity and rainfall rates as shown in the table below.
  • Page 32 IntuVue RDR-4000 Weather Radar Pilot's Guide information along with the strongest cells. This is important since the presence of turbulence along with high levels of reflectivity often indicates convective weather. In areas of heavy stratus rain, the display can show large areas of strong returns, but with little associated turbulence.
  • Page 33: Hazard Display Suppression

    IntuVue RDR-4000 Weather Radar Pilot's Guide HAZARD DISPLAY SUPPRESSION If the Hazard Display Configuration of the radar system is installed, it may occasionally be desirable to suppress the display of Turbulence, Hail Icons, and Lightning Icons in order to view the underlying reflectivity levels.
  • Page 34 IntuVue RDR-4000 Weather Radar Pilot's Guide Expanded Operating Instructions 060-4492-000 Rev 7, February 2015...
  • Page 35: Section 4: Equipment Description

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 4: EQUIPMENT DESCRIPTION UNIT DESCRIPTIONS RP-1 RADAR PROCESSOR The Radar Processor contains the electronics necessary to process the radar data received from the transmitter/receiver, control the modes of the radar, and format the radar data for display. The RP-1 is normally located in the Forward EE-Bay.
  • Page 36: Cp-1A/1B Control Panels

    IntuVue RDR-4000 Weather Radar Pilot's Guide CP-1A/1B CONTROL PANELS The CP-1A/1B contains all controls for operating the radar system except those located on display units or electronic flight display control panels. The CP-1A is used in a single system configuration while the CP-1B is the dual system control panel.
  • Page 37: Operating Controls

    IntuVue RDR-4000 Weather Radar Pilot's Guide OPERATING CONTROLS When WXR is not selected on the display system, no radar display is shown. While in the air, or on the ground if the radar has been auto- activated by qualifiers, the radar will nevertheless continue to operate, constantly updating the 3D memory so that current radar data is immediately available whenever WXR is selected.
  • Page 38: Mode Selection

    IntuVue RDR-4000 Weather Radar Pilot's Guide MODE SELECTION MAP – Displays Full Coverage Ground Map AUTO – Automatic Weather Presentation Mode provides detection of windshear out to 5 nm. It displays turbulence out to 40 nm and weather out to 320 nm.
  • Page 39: Display Annunciations

    IntuVue RDR-4000 Weather Radar Pilot's Guide DISPLAY ANNUNCIATIONS Actual annunciations are display dependent. The following figures are provided as examples only. WEATHER RADAR DISPLAY ANNUNCIATIONS - EXAMPLE WEATHER RADAR DISPLAY - EXAMPLE 060-4492-000 Principles of Weather Radar Use Rev 7, February 2015...
  • Page 40: Display Colors

    IntuVue RDR-4000 Weather Radar Pilot's Guide DISPLAY COLORS WEATHER RADAR DISPLAY COLORS (Some features will not be available in all installations) FAULT ANNUNCIATIONS Fault annunciations alert the pilot that the radar system is not performing to established standards. Built-in test equipment (BITE) automatically and constantly tests the radar system.
  • Page 41 IntuVue RDR-4000 Weather Radar Pilot's Guide If a fault occurs, follow standard operating/maintenance procedures. Note that in a dual installation most faults will affect only one side; the other system will normally be operational. The following table shows some typical fault annunciations. Actual fault annunciations depend on the display in use.
  • Page 42 IntuVue RDR-4000 Weather Radar Pilot's Guide Principles of Weather Radar Use 060-4492-000 Rev 7, February 2015...
  • Page 43: Section 5: Principles Of Weather Radar Use

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 5: PRINCIPLES OF WEATHER RADAR USE WEATHER RADAR PRINCIPLES Airborne weather avoidance radar, as its name implies, is for avoiding severe weather - not for penetrating it. Whether to fly into an area of radar echoes depends on echo intensity, spacing between the echoes, and the capabilities of both pilot and aircraft.
  • Page 44: Storm Cell Characteristics

    IntuVue RDR-4000 Weather Radar Pilot's Guide STORM CELL CHARACTERISTICS Airborne weather radar allows pilots to identify and avoid potential weather hazards. The radar performs signal processing to estimate the radar reflectivity of the weather ahead. Reflectivity can be correlated to precipitation rate, and is displayed as green (light), yellow (moderate), and red (heavy) precipitation.
  • Page 45 IntuVue RDR-4000 Weather Radar Pilot's Guide STRATIFORM WEATHER In addition to reflectivity associated with convective weather, the radar will typically display reflectivity associated with stratus, or stratiform, weather. Whereas convection is characterized by localized towers of updraft and downdraft features, stratiform precipitation results from much more widespread and much less vigorous uplift.
  • Page 46: Planning A Path

    IntuVue RDR-4000 Weather Radar Pilot's Guide PLANNING A PATH Remember to plan a deviation path early. Simply skirting the red or magenta portion of a cell is not enough. Wherever possible, plan an avoidance path for all weather echoes which appear beyond 100 nm since this indicates they are quite dense.
  • Page 47 IntuVue RDR-4000 Weather Radar Pilot's Guide PATH PLANNING CONSIDERATIONS Where possible, any indicated reflectivity should be avoided • Reflectivity may generally be penetrated if the crew is sure that the • reflectivity is associated with stratus (non-convective) rainfall Stratus rainfall is characterized by widespread, relatively uniform...
  • Page 48 IntuVue RDR-4000 Weather Radar Pilot's Guide Generally, consider cells with any magenta turbulence and hail icons as the most hazardous cells, then in order of decreasing severity: Cells with turbulence and lightning indications (no hail  indications) Cells with no hazard icon, but with turbulence indicated.
  • Page 49: Azimuth Resolution

    IntuVue RDR-4000 Weather Radar Pilot's Guide AZIMUTH RESOLUTION Azimuth resolution is a function of the beam width. When two targets are closely adjacent in azimuth and at the same range, the radar may display them as a single target. However, as the targets are approached they appear to separate.
  • Page 50: Shadowed Areas

    IntuVue RDR-4000 Weather Radar Pilot's Guide SHADOWED AREAS Extremely heavy rainfall or high terrain can reduce the ability of the radar to penetrate and present a full picture of the weather area. This is called radar attenuation. If the Hazard Display features are installed, a REACT field will indicate attenuated areas (see page 17).
  • Page 51: Effects Of Interfering Rf Sources

    IntuVue RDR-4000 Weather Radar Pilot's Guide EFFECTS OF INTERFERING RF SOURCES An interfering radio frequency (RF) source operating at a frequency close to the radar’s operating frequency can create unusual returns on the display. The interference may appear as occasional isolated dots, or as radial spikes of any color (including magenta) on the display.
  • Page 52 IntuVue RDR-4000 Weather Radar Pilot's Guide This figure shows a zoomed-in view of the near-range interference from the previous figure. In this figure, the interference is a bit more subtle, as it is mixed in with real weather. However, a close look reveals several radial spokes. The two most obvious ones have been circled.
  • Page 53 IntuVue RDR-4000 Weather Radar Pilot's Guide These figures show more examples of RF interference. 060-4492-000 Principles of Weather Radar Use Rev 7, February 2015...
  • Page 54: Radar Windshear Detection

    IntuVue RDR-4000 Weather Radar Pilot's Guide RADAR WINDSHEAR DETECTION During both takeoff and landing, microbursts have been the result of numerous transport aircraft accidents. WINDSHEAR/MICROBURST DESCRIPTION A microburst is a cool shaft of air, like a cylinder, between ½ and 1½ nm across that is moving downward.
  • Page 55: Windshear Avoidance Flying

    IntuVue RDR-4000 Weather Radar Pilot's Guide WINDSHEAR AVOIDANCE FLYING The air shaft of a microburst creates problems for aircraft for two reasons. The first problem is due to the downward air movement. Since the aircraft is flying within the air mass, as the air mass plummets earthward, so does the aircraft.
  • Page 56 IntuVue RDR-4000 Weather Radar Pilot's Guide RDR-4000 Technical Operation 060-4492-000 Rev 7, February 2015...
  • Page 57: Section 6: Rdr-4000 Technical Operation

    IntuVue RDR-4000 Weather Radar Pilot's Guide SECTION 6: RDR-4000 TECHNICAL OPERATION 3D VOLUMETRIC MEMORY SCANNING/PROCESSING The RDR-4000 collects a complete 3D volumetric scan of all the weather and terrain ahead of the aircraft. The RDR-4000 contains an internal worldwide topography database, enabling it to extract ground clutter without the significant losses associated with signal-based ground clutter suppression techniques.
  • Page 58: Ground Clutter Extraction

    IntuVue RDR-4000 Weather Radar Pilot's Guide GROUND CLUTTER EXTRACTION The radar processor contains an internal topography database with elevation data. The radar compares the collected reflectivity data with the topography database. Reflectivity data that correlates to terrain data is considered ground-clutter, and is suppressed from the weather images.
  • Page 59: Flight Path Weather Vs. Secondary Weather

    IntuVue RDR-4000 Weather Radar Pilot's Guide The following pictures demonstrate some of the improved features of the RDR-4000 Weather Radar System. CONVENTIONAL RADAR RDR-4000 IMPROVED CLUTTER REJECTION / ENHANCED WEATHER PRESENTATION IMPROVED CLUTTER REJECTION/ENHANCED WEATHER PRESENTATION (ALBUQUERQUE ~70 NM, RIGHT OF TRACK) FLIGHT PATH WEATHER VS.
  • Page 60: Envelope Boundary Definition

    IntuVue RDR-4000 Weather Radar Pilot's Guide An envelope is applied around the intended flight path: weather within the envelope is considered Flight Path Weather; weather outside the envelope is Secondary Weather. On the display, Secondary Weather is distinguished from Flight Path Weather by black stripes. The flight path angle is based on the ratio of calculated vertical speed to ground speed.
  • Page 61: Manual Weather Analysis Mode (Man): Constant Altitude

    IntuVue RDR-4000 Weather Radar Pilot's Guide MANUAL WEATHER ANALYSIS MODE (MAN): CONSTANT ALTITUDE Constant altitude mode is an analysis mode that provides a constant altitude slice throughout the entire 180-degree plan view. It is called constant altitude because the altitude slice extracted from the memory is corrected for the earth’s curvature.
  • Page 62 IntuVue RDR-4000 Weather Radar Pilot's Guide The example below demonstrates the constant altitude mode. In the top center picture the system is in the AUTO mode at an aircraft altitude of 20,000 ft MSL. In the second center picture, MAN mode has been selected, so this is an altitude slice at the current aircraft altitude (20,000 ft MSL).
  • Page 63: Predictive Hail And Lightning Icons

    IntuVue RDR-4000 Weather Radar Pilot's Guide PREDICTIVE HAIL AND LIGHTNING ICONS The hail prediction algorithm analyzes 3D weather data along with • temperature data to predict cells likely to be hail producers. The lightning prediction algorithm is similar to that for hail prediction, •...
  • Page 64 IntuVue RDR-4000 Weather Radar Pilot's Guide RDR-4000 Technical Operation 060-4492-000 Rev 7, February 2015...
  • Page 65: Appendix

    IntuVue RDR-4000 Weather Radar Pilot's Guide APPENDIX SAFETY INFORMATION CAUTION MAINTAIN PRESCRIBED SAFE DISTANCE WHEN STANDING IN FRONT OF A RADIATING ANTENNA.* *Reference FAA Advisory Circular #20-68B 060-4492-000 Appendix Rev 7, February 2015...
  • Page 66: Maximum Permissible Exposure Level (Mpel)

    IntuVue RDR-4000 Weather Radar Pilot's Guide MAXIMUM PERMISSIBLE EXPOSURE LEVEL (MPEL) FAA advisory circular AC 20-68B defines the method for determining the MPEL boundary. All personnel should remain beyond the distance indicated in the illustration below. Manufacturers are required to calculate two distances;...
  • Page 68 Honeywell International Inc. 15001 N.E. 36th Street • P.O. Box 97001 Redmond, Washington USA 98073-9701 CAGE 97896 E-mail: cas-publications-distribution@honeywell.com Telephone: 1-800-601-3099 (U.S.A.) Telephone: 1-602-365-3099 (International) FAX: 1-602-822-7272 https://myaerospace.honeywell.com/ 060-4492-000 Rev 7, February 2015© 2007, 2008, 2011 thru 2015 Honeywell International Inc.

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