Fire Weather Recording Form

Similar documents
Lesson 2C - Weather. Lesson Objectives. Fire Weather

Counselor s Name: Counselor s Ph #: 1) Define meteorology. Explain how the weather affects farmers, sailors, aviators,

FOREST FIRE. News August 4, :30

Atmospheric Moisture, Precipitation, and Weather Systems

MxVision WeatherSentry Web Services Content Guide

Elements of the National Weather Service Fire Weather Forecast By Casey Sullivan, National Weather Service, Chicago

Weather Merit Badge Workbook

Electronic Station Data Definitions

New Zealand Experimental & Wildfire Observer Guide

Instructions - GFC Prescribed Burn Unit Plan

Page 1 of 6 SWCC MORNING INTELLIGENCE BRIEFING. June 1, Daily Summary

WAFS_Word. 2. Menu. 2.1 Untitled Slide

Module 11: Meteorology Topic 3 Content: Weather Instruments Notes

The mowed firebreaks are at least 10 wide and are usually 20. A rotary hay rake is used to clear larger firebreaks.

Using fire in farm forestry

1/2/2016 WEATHER DEFINITION

CONVECTION-ALLOWING SIMULATIONS OF COLD POOLS IN THE NORTHWESTERN SAHARA

Module 11: Meteorology Topic 5 Content: Weather Maps Notes

Urban Forest Effects-Dry Deposition (UFORE D) Model Enhancements. Satoshi Hirabayashi

New SPOT Program. Customer Tutorial. Tim Barry Fire Weather Program Leader National Weather Service Tallahassee

National Wildland Significant Fire Potential Outlook

OPERATIONAL FDR IN SOUTH AFRICA LOWVELD FIRE DANGER RATING SYSTEM

Tornadogenesis in Supercells: The Three Main Ingredients. Ted Funk

Name Period Date 8R MIDTERM REVIEW I. ASTRONOMY 1. Most stars are made mostly of. 2. The dark, cooler areas on the sun s surface are

TOPICS: What are Thunderstorms? Ingredients Stages Types Lightning Downburst and Microburst

Preliminary Summary Report of Serious or Near Serious CAL FIRE Injuries, Illnesses and Accidents GREEN SHEET. Near Serious Accident 12/9/2017

Scout s Address: City State Zip:

SPEARFISH FIRE DEPARTMENT POLICIES AND PROCEDURES

TEXAS WILDLAND FIRE POTENTIAL WINTER/SPRING 2018/2019

4 Forecasting Weather

New applications using real-time observations and ECMWF model data

Employing Numerical Weather Models to Enhance Fire Weather and Fire Behavior Predictions

Department of Geosciences San Francisco State University Spring Metr 201 Monteverdi Quiz #5 Key (100 points)

Issued by: National Weather Service San Joaquin Valley - Hanford CA. Issue time: 409 AM PST Wed Jan

Fire Weather Drivers, Seasonal Outlook and Climate Change. Steven McGibbony, Severe Weather Manager Victoria Region Friday 9 October 2015

TEXAS FIREFIGHTER POCKET CARDS

Geologic Hazards Field Assessment

Lake e. Case Study: How Fuel Treatment Areas Affect Wildland Urban Interface Fires. Saskatchewan.ca/fire

Accomplishments and Deliverables

APPENDIX G-7 METEROLOGICAL DATA

New Zealand Seasonal Fire Danger Outlook 2018/19

MULTI-AGENCY COORDINATION SYSTEM PUBLICATION CALIFORNIA FIRE WEATHER PROGRAM RISK PREPAREDNESS GUIDE MACS 410-3

7. The weather instrument below can be used to determine relative humidity.

Road Weather: The Science Behind What You Know

ATS 351, Spring 2010 Lab #11 Severe Weather 54 points

Weather - is the state of the atmosphere at a specific time & place

Planned Burn (PB)-Piedmont online version user guide. Climate, Ecosystem and Fire Applications (CEFA) Desert Research Institute (DRI) June 2017

Using Temperature and Dew Point to Aid Forecasting Springtime Radiational Frost and/or Freezing Temperatures in the NWS La Crosse Service Area

STORM COWBOY. FANNIN COUNTY A.R.E.S. and R.A.C.E.S. Reference Manual SKYWARN MISSION

Construction and Interpretation of Weather Station Models

Initial Report. North Central Texas Initial Attack. Hildreth Road Dozer Accident. February 9, 2006

Meteorology 311. RADAR Fall 2016

East Penn School District Curriculum and Instruction

Weather Final Review Page 1

SAMPLE. SITE SPECIFIC WEATHER ANALYSIS Wind Report. Robinson, Smith & Walsh. John Smith REFERENCE:

Practical Use of the Skew-T, log-p diagram for weather forecasting. Primer on organized convection

Thunderstorm: a cumulonimbus cloud or collection of cumulonimbus clouds featuring vigorous updrafts, precipitation and lightning

Forecast for 6/28-7/31. Forecaster: Matthew Brewer Forecast made at: 12z 6/27/2017

PIE CHART FOR OBSERVATIONS

Chapter 6 Clouds. Cloud Development

III. Section 3.3 Vertical air motion can cause severe storms

Weather & Atmospheric Variables Review

Bell Work. What are the four factors that affect climate for an area? Choose one of the four factors and explain how it impacts climate?

London Heathrow Field Site Metadata

Climate & Earth System Science. Introduction to Meteorology & Climate. Chapter 05 SOME OBSERVING INSTRUMENTS. Instrument Enclosure.

#FireWeather. Historical Weather Data Clustering for Scenario-based Fire Simulation

Name 28-MAY-08. FA RP 1 Mr. Chase. 1. Which weather-station model shows an air pressure of millibars?

DEPARTMENT OF EARTH & CLIMATE SCIENCES Name SAN FRANCISCO STATE UNIVERSITY Nov 29, ERTH 360 Test #2 200 pts

Page 1. Name: 4) State the actual air pressure, in millibars, shown at Miami, Florida on the given weather map.

Using the environmental lapse rate (ELR) to forecast wildfire blow-ups

Precipitation AOSC 200 Tim Canty. Cloud Development: Orographic Lifting

Page 1. Name:

MAST ACADEMY OUTREACH. WOW (Weather on Wheels)

CASE STUDY OF THE NOVEMBER WINDSTORM IN SOUTH CENTRAL COLORADO

ATS 351, Spring 2010 Lab #9 Weather Radar - 55 points

ESCI 344 Tropical Meteorology Lesson 7 Temperature, Clouds, and Rain

NIWA Outlook: March-May 2015

New Zealand Seasonal Fire Danger Outlook 2017/18

Fun with Weather Maps! (no, really stop laughing) AOSC 200 Tim Canty

Lab 19.2 Synoptic Weather Maps

PLANNED UPGRADE OF NIWA S HIGH INTENSITY RAINFALL DESIGN SYSTEM (HIRDS)

Observational analysis of storms and flooding events in the Pacific Northwest. Introduction

Topic Page: meteorology

Applications. Remote Weather Station with Telephone Communications. Tripod Tower Weather Station with 4-20 ma Outputs

Tornadoes. tornado: a violently rotating column of air

Checklist Templates for Direct Observation and Oral Assessments (AMOB)

Forecasting Local Weather

TAPM Modelling for Wagerup: Phase 1 CSIRO 2004 Page 41

The Atmosphere in the Vertical ACTIVITY. Introduction. Materials. Investigations

MAURITIUS METEOROLOGICAL SERVICES

For the operational forecaster one important precondition for the diagnosis and prediction of

Weather Maps. Name:& & &&&&&Advisory:& & 1.! A&weather&map&is:& & & & 2.! Weather&fronts&are:& & & & & &

New Zealand Seasonal Fire Danger Outlook 2017/18

THUNDERSTORMS Brett Ewing October, 2003

Satellite Data Utilisation at the National Meteorological Service of New Zealand (MetService) Wim van Dijk November 2015 AOMSUC6 SC 2-4

Predicting wildfire ignitions, escapes, and large fire activity using Predictive Service s 7-Day Fire Potential Outlook in the western USA

NWS Fire Weather Forecast, Wildland Fire Assessment Systems and OKMesonet Products Applications as Short Term Mitigation Tools for Emergency Response

Solutions to Comprehensive Final Examination Given on Thursday, 13 December 2001

U s e r M a n u a l W e a t h e r s t a t i o n s

Setting a Straight Course RCA Weather Protocol

Transcription:

Form 1 Fire Weather Recording Form Fire Name: Fuel type: Date: Slope: Aspect: Location: Elevation: Assessor: Time Location or Marker Temp (Cº) Dry Wet bulb bulb RH (%) speed (avg) km/h speed (max) km/h dir. (º) Cloud Cover (%) Comments/observations, e.g.: Weather changes in wind, temp, cloud, rain, frontal passage, etc. Fire behaviour torching/crowning, spotting, smouldering hotspots, etc.

Time Location or Marker Temp (Cº) Dry Wet bulb bulb RH (%) speed (avg) km/h speed (max) km/h dir. (º) Cloud Cover (%) Comments/observations, e.g.: Weather changes in wind, temp, cloud, rain, frontal passage, etc. Fire behaviour torching/crowning, spotting, smouldering hotspots, etc.

Form 2 Fire Behaviour Recording Form Fire Name: Date: Location: Time Location or Marker Slope: Aspect: Fire Behaviour Characteristics Fire Column Type 1 Type 2 (S,T,C) (1-10) Flame Length (m) Elevation: Fuel Type Involved Photo Number Assessor: Comments/observations (observation at flank or front, spotting distances, ROS, key resource arrival time) 1 Use S for surface fire, I for intermittent and C for crown fire. 2 Use the smoke pattern/convection column type numbers.

Form 2 Time Location or Marker Fire Behaviour Characteristics Fire Column Type 1 Type 2 (S,T,C) (1-10) Flame Length (m) Fuel Type Involved Photo Number Comments/observations (observation at flank or front, spotting distances, ROS, key resource arrival time) 1 Use S for surface fire, I for intermittent and C for crown fire. 2 Use the smoke pattern/convection column type numbers.

Form 3 Site Specific Weather Forecast Request Instruction & Notes Site specific weather forecast requests should be made for fires that will exceed initial attack, have potential for extreme fire behaviour, or for planned ignitions. This form is primarily for field use documentation of weather observations and/or forecasts. Whenever possible, a copy of the actual Site Specific Weather Forecast should be used for operational briefings and/or included in the fire documentation. * If possible attach 48 hours of hourly weather data from the nearest NRFA RAWS. Instructions 1. Name of Fire/Incident: Use incident or project name. 2. Control Agency: Agency with primary responsibility for managing the incident. 3. Request Made: Date and time (use 24-hour clock). 4. Location: Lat/Long, Map grid reference, or Easting/Northing. 5. Landmark: The closest drainage name or landmark from a topographical map. Attach location map if possible. 6. Aspect: One of the 8 major cardinal points (N, SE, NW, etc.) to designate general aspect. 7. Size of Project: In hectares. 8. Elevation: Designate elevation in metres; Top and Bottom refer to elevation of fire. 9. Fuel Type: Description of fuel. 10. Expected Ignition: Estimated ignition time and date for planned projects. 11. Weather Conditions at Project or from Nearby Weather Station: Fill in the closest weather station. In the Place column, put On-site (which refers to the description used in Number 4). If the observations are taken off-site, specify the location. In the Elevation column, put the actual elevation for the observations (may or may not be the same as in Number 8). 12. Send Forecast To: Specify how the forecast will be broadcast or sent, especially if it differs from normal radio relay or faxing procedures (i.e., having copies faxed to mobile units, office, or stations), and also the name of the contact who will be receiving the request (may differ from the person making the forecast request). Notes For planned burn projects, weather forecasters can work with you ahead of time and either do some practice forecasts or provide you with weather information for planning. Critical observation times: 0600-0800 for low temperature and humidity recovery data. 1400-1600 for high temperature, low humidity and strongest diurnal winds. Also note the time the morning inversion broke, when the winds shifted to upslope and upvalley, and cloud development of cover and type. If local weather station data is not available, try to record three weather observations 30 to 60 minutes apart for the request. For better service, do not send a request in just prior to ignition. Also if regular on-site weather observations were made, send those in as well to the weather forecaster. If the weather forecaster does not hear from you, the weather forecaster will assume the forecast was accurate. If the forecast does not match what is actually occurring, let the weather forecaster know. Feedback is crucial for improving forecast accuracy. Forecasts can be updated. If at anytime you do not understand what the forecast is telling you, or you have questions about its content for whatever reason, do not hesitate to call the weather forecaster and discuss the matter.

Form 3 Ensis Bushfire Research Forestry Road University of Canterbury PO Box 29-237, Fendalton Christchurch, New Zealand tel: 03 364 2949 To: Metservice Attn: Duty Forecast Desk Wellington New Zealand Tel: 04 470 0785 (primary) 04 470 0767 (backup) Fax: 04 471 2078 Date: From: No. of pages: Subject: Site Specific Weather Forecast Request (See reverse for instructions) 1. Name of Incident or Project: 2. Control Agency: 3. Request Made Time: Date: 4. Location (lat/long): 5. Landmark: 6. Aspect: 7. Size of Incident or Project: Top 8. Elevation 9. Fuel Type: Bottom 10. Expected Ignition Time: Date: 11. Weather Conditions at Incident or Project or from Weather Station. Closest weather station: Time Place Elevation Speed/Direction Temp/ Dry bulb Wet bulb RH Dew Point Remarks (Indicate precipitation, cloud type and % cover, wind and frontal conditions, etc.) 12. Send Forecast To (Person): Send Forecast To (Location): Send Forecast Via: Send Copy To: For a forecast output, please provide the following information: General situation statement for the day and following day(s). Detailed weather forecast for the following four days consisting of: o Maximum and minimum temperatures. o Maximum and minimum RH. o direction and speed at different times of the day. o Dew point temperature in the early afternoon. o Likelihood of rain. A general outlook for the area from days 5 through 10. Weather charts for NZ for the day issued, and the following 2 days.

Form 4 Fire Behaviour Research Observation Form Location: Burn number: Plot Number: Date: Assessors: Start Time: Finish Time: Fuel Type: Plot Photo Time & Number: Ignition Procedure: Time Location or Marker Fire Behaviour Characteristics Flame height Flame length (m) (m) Camera & Photo number Comments- Fire spread direction, spotting, etc.

Form 5 Figures 1-10. Typical smoke patterns/convective column types and expected fire spread characteristics (adapted from Kerr et al. 1971 and Luke 1961). Type 1 Type 2 Smoke Induced Updraft Figure 1. Type 1: Towering convection column with light surface winds. Indicates rapid to moderate fire spread until atmospheric or fuel conditions ameliorate. Figure 2. Type 2: Towering convection column over a slope. Indicates rapid short-term spread until convection is cut-off at ridge crests. Type 3 Type 4 Burning Embers Smoke Turbulence Figure 3. Type 3: Strong convection column from a fire driven by strong surface winds. Indicates fast, erratic fire spread with short distance spotting. Figure 4. Type 4: Strong convection column cut-off by strong upper level wind shear. Steady or erratic fire spread with long-distance spotting.

Form 5 Type 5 Type 6 Smoke Burning Embers Smoke Figure 5. Type 5: Strong convection column tilted by moderate surface winds that strengthen with height. Indicates rapid and erratic fire spread with both short- and long-distance spotting. Type 7 Figure 6. Type 6: Strong convection column in strong surface winds. Very rapid fire spread driven by fire and wind energy; frequent close spotting is likely. Type 8 smoke Figure 7. Type 7: Strong surface winds and convection column in mountainous topography. Rapid fire spread both up and down slope with frequent spotting and area ignition. Type 9a Figure 8. Type 8 Weak convection column and diffuse smoke in light surface winds which increase with height. Moderate to fast fire spread with short to medium distance spotting possible. Type 10 smoke Type 9b smoke smoke Figure 9. Type 9a & 9b: No convection column and diffuse smoke only, in light surface winds which increase with height in example 9b. A quietly smouldering fire is anticipated. Figure 10. Type 10: Weak convection column and diffuse smoke, in moderate surface winds that increase with height. Low to moderate fire spread with short distance spotting possible.

Form 6 Photo Record Sheet Camera: Pixel: Photographer: Unit: # Date Time Plot ID/GPS Azimuth Subject

Form 6 Camera: Pixel: Photographer: Unit: # Date Time Plot ID/GPS Azimuth Subject