Special Climate Statement 43 – Interim
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Queensland in January 2011
HOME ABOUT MEDIA CONTACTS Search NSW VIC QLD WA SA TAS ACT NT AUSTRALIA GLOBAL ANTARCTICA Bureau home Climate The Recent Climate Regular statements Tuesday, 1 February 2011 - Monthly Climate Summary for Queensland - Product code IDCKGC14R0 Queensland in January 2011: Widespread flooding continued Special Climate Statement 24 (SCS 24) titled 'Frequent heavy rain events in late 2010/early 2011 lead to Other climate summaries widespread flooding across eastern Australia' was first issued on 7th Jan 2011 and updated on 25th Jan 2011. Latest season in Queensland High rainfall totals in the southeast and parts of the far west, Cape York Peninsula and the Upper Climate Carpentaria Latest year in Queensland Widespread flooding continued Outlooks Climate Summary archive There was a major rain event from the 10th to the 12th of January in southeast Queensland Reports & summaries TC Anthony crossed the coast near Bowen on the 30th of January Earlier months in Drought The Brisbane Tropical Cyclone Warning Centre (TCWC) took over responsibility for TC Yasi on the Queensland Monthly weather review 31st of January Earlier seasons in Weather & climate data There were 12 high daily rainfall and 13 high January total rainfall records Queensland Queensland's area-averaged mean maximum temperature for January was 0.34 oC lower than Long-term temperature record Earlier years in Queensland average Data services All Climate Summary Maps – recent conditions Extremes Records Summaries Important notes the top archives Maps – average conditions Related information Climate change Summary January total rainfall was very much above average (decile 10) over parts of the Far Southwest district, the far Extremes of climate Monthly Weather Review west, Cape York Peninsula, the Upper Carpentaria, the Darling Downs and most of the Moreton South Coast About Australian climate district, with some places receiving their highest rainfall on record. -
Monthly Weather Review Australia January 2021
Monthly Weather Review Australia January 2021 The Monthly Weather Review - Australia is produced by the Bureau of Meteorology to provide a concise but informative overview of the temperatures, rainfall and significant weather events in Australia for the month. To keep the Monthly Weather Review as timely as possible, much of the information is based on electronic reports. Although every effort is made to ensure the accuracy of these reports, the results can be considered only preliminary until complete quality control procedures have been carried out. Any major discrepancies will be noted in later issues. We are keen to ensure that the Monthly Weather Review is appropriate to its readers' needs. If you have any comments or suggestions, please contact us: Bureau of Meteorology GPO Box 1289 Melbourne VIC 3001 Australia [email protected] www.bom.gov.au Units of measurement Except where noted, temperature is given in degrees Celsius (°C), rainfall in millimetres (mm), and wind speed in kilometres per hour (km/h). Observation times and periods Each station in Australia makes its main observation for the day at 9 am local time. At this time, the precipitation over the past 24 hours is determined, and maximum and minimum thermometers are also read and reset. In this publication, the following conventions are used for assigning dates to the observations made: Maximum temperatures are for the 24 hours from 9 am on the date mentioned. They normally occur in the afternoon of that day. Minimum temperatures are for the 24 hours to 9 am on the date mentioned. They normally occur in the early morning of that day. -
Monana the OFFICIAL PUBLICATION of the AUSTRALIAN METEOROLOGICAL ASSOCIATION INC June 2017 “Forecasting the November 2015 Pinery Fires”
Monana THE OFFICIAL PUBLICATION OF THE AUSTRALIAN METEOROLOGICAL ASSOCIATION INC June 2017 “Forecasting the November 2015 Pinery Fires”. Matt Collopy, Supervising Meteorologist, SA Forecasting Centre, BOM. At the AMETA April 2017 meeting, Supervising Meteorologist of the Bureau of Meteorology South Australian Forecasting Centre, gave a fascinating talk on forecasting the conditions of the November 2015 Pinery fires, which burnt 85,000ha 80 km north of Adelaide. The fire started during the morning of Wednesday 25th November 2015 ahead of a cold frontal system. Winds from the north reached 45-65km/h and temperatures reached the high 30’s, ahead of the change, with the west to southwest wind change reaching the area at around 2:30pm. Matt’s talk highlighted the power of radar imagery in improving the understanding of the behaviour of the fire. The 10 minute radar scans were able to show ash, and ember particles being lofted into the atmosphere, and help identify where the fire would be spreading. The radar also gave insight into the timing of the wind change- vital information as the wind change greatly extends the fire front. Buckland Park radar image from 2:30pm (0400 UTC) on 25/11/2015 showing fine scale features of the Pi- nery fire, and lofted ember particles. 1 Prediction of fire behaviour has vastly improved, with Matt showing real-time predictions of fire behaviour overlain with resulting fire behaviour on the day. This uses a model called Phoenix, into which weather model predicted conditions, and vegetation information are fed to provide a model of expected fire behaviour. -
Regional Association V 2010 (South-West Pacific) Fifteenth Session Bali, 30 April–6 May 2010 XV-RA V XV-RA P-DRA 101219 WMO-No
Bali 30 April–6 May Regional Association V 2010 (South-West Pacific) Fifteenth session Bali, 30 April–6 May 2010 XV-RA V XV-RA P-DRA_101219 WMO-No. 1056 www.wmo.int WMO-No. 1056 Regional Association V (South-West Pacific) Fifteenth session Bali 30 April–6 May 2010 Abridged final report with resolutions WMO-No. 1056 WMO-No. 1056 © World Meteorological Organization, 2010 The right of publication in print, electronic and any other form and in any language is reserved by WMO. Short extracts from WMO publications may be reproduced without authorization, provided that the complete source is clearly indicated. Editorial correspondence and requests to publish, reproduce or translate this publication in part or in whole should be addressed to: Chair, Publications Board World Meteorological Organization (WMO) 7 bis, avenue de la Paix Tel.: +41 (0) 22 730 84 03 P.O. Box 2300 Fax: +41 (0) 22 730 80 40 CH-1211 Geneva 2, Switzerland E-mail: [email protected] ISBN 978-92-63-11056-5 NOTE The designations employed in WMO publications and the presentation of material in this publication do not imply the expression of any opinion whatsoever on the part of the Secretariat of WMO concerning the legal status of any country, territory, city or area, or of its authorities, or concerning the delimitation of its frontiers or boundaries. Opinions expressed in WMO publications are those of the authors and do not necessarily reflect those of WMO. The mention of specific companies or products does not imply that they are endorsed or recommended by WMO in preference to others of a similar nature which are not mentioned or advertised. -
Safetaxi Australia Coverage List - Cycle 21S5
SafeTaxi Australia Coverage List - Cycle 21S5 Australian Capital Territory Identifier Airport Name City Territory YSCB Canberra Airport Canberra ACT Oceanic Territories Identifier Airport Name City Territory YPCC Cocos (Keeling) Islands Intl Airport West Island, Cocos Island AUS YPXM Christmas Island Airport Christmas Island AUS YSNF Norfolk Island Airport Norfolk Island AUS New South Wales Identifier Airport Name City Territory YARM Armidale Airport Armidale NSW YBHI Broken Hill Airport Broken Hill NSW YBKE Bourke Airport Bourke NSW YBNA Ballina / Byron Gateway Airport Ballina NSW YBRW Brewarrina Airport Brewarrina NSW YBTH Bathurst Airport Bathurst NSW YCBA Cobar Airport Cobar NSW YCBB Coonabarabran Airport Coonabarabran NSW YCDO Condobolin Airport Condobolin NSW YCFS Coffs Harbour Airport Coffs Harbour NSW YCNM Coonamble Airport Coonamble NSW YCOM Cooma - Snowy Mountains Airport Cooma NSW YCOR Corowa Airport Corowa NSW YCTM Cootamundra Airport Cootamundra NSW YCWR Cowra Airport Cowra NSW YDLQ Deniliquin Airport Deniliquin NSW YFBS Forbes Airport Forbes NSW YGFN Grafton Airport Grafton NSW YGLB Goulburn Airport Goulburn NSW YGLI Glen Innes Airport Glen Innes NSW YGTH Griffith Airport Griffith NSW YHAY Hay Airport Hay NSW YIVL Inverell Airport Inverell NSW YIVO Ivanhoe Aerodrome Ivanhoe NSW YKMP Kempsey Airport Kempsey NSW YLHI Lord Howe Island Airport Lord Howe Island NSW YLIS Lismore Regional Airport Lismore NSW YLRD Lightning Ridge Airport Lightning Ridge NSW YMAY Albury Airport Albury NSW YMDG Mudgee Airport Mudgee NSW YMER Merimbula -
Seasonal Climate Summary for the Southern Hemisphere (Spring 2017): Equal-Fifth Warmest Spring on Record, with Rainfall Mixed
CSIRO PUBLISHING Journal of Southern Hemisphere Earth Systems Science, 2020, 70, 304–327 Seasonal Climate Summary https://doi.org/10.1071/ES19037 Seasonal climate summary for the southern hemisphere (spring 2017): equal-fifth warmest spring on record, with rainfall mixed Skie Tobin Bureau of Meteorology, GPO Box 1289, Melbourne, Vic. 3001, Australia. Email: [email protected] Abstract. This is a summary of the southern hemisphere atmospheric circulation patterns and meteorological indices for spring 2017; an account of seasonal rainfall and temperature for the Australian region and the broader southern hemisphere is also provided. The tropical Pacific Ocean cooled from mid-winter, with an unusually late La Nin˜a becoming established by the end of spring. Spring was the equal-fifth warmest on record, in terms of area-averaged national mean temperature, and was characterised by exceptional September warmth over eastern Australia, while rainfall was mixed geographically and from month-to-month, but below average overall. Keywords: Antarctica, Australia, climate, climate drivers, ENSO, IOD, La Nin˜a, MJO, rainfall, SAM, seasonal climate summary, seasonal summary, southern hemisphere, temperature. Received 2 October 2019, accepted 20 January 2020, published online 17 September 2020 1 Introduction Fig. 2 shows the ENSO 5VAR Index over the same period, with This summary reviews the southern hemisphere and equatorial a three-month binomially weighted moving average. The climate patterns for spring 2017, with particular attention given 5VAR2 is a composite monthly ENSO index, calculated as to the Australasian and equatorial regions of the Pacific and the standardised amplitude of the first principal component of Indian ocean basins. -
Global Evaluation of Biofuel Potential from Microalgae
Utah State University DigitalCommons@USU All Graduate Theses and Dissertations Graduate Studies 5-2014 Global Evaluation of Biofuel Potential from Microalgae Jeffrey W. Moody Utah State University Follow this and additional works at: https://digitalcommons.usu.edu/etd Part of the Mechanical Engineering Commons Recommended Citation Moody, Jeffrey W., "Global Evaluation of Biofuel Potential from Microalgae" (2014). All Graduate Theses and Dissertations. 2070. https://digitalcommons.usu.edu/etd/2070 This Thesis is brought to you for free and open access by the Graduate Studies at DigitalCommons@USU. It has been accepted for inclusion in All Graduate Theses and Dissertations by an authorized administrator of DigitalCommons@USU. For more information, please contact [email protected]. GLOBAL EVALUATION OF BIOFUEL POTENTIAL FROM MICROALGAE by Jeffrey W. Moody A thesis submitted in partial fulfillment of the requirements for the degree of MASTER OF SCIENCE in Mechanical Engineering Approved: Dr. Jason Quinn Dr. Byard Wood Major Professor Committee Member Dr. Rees Fullmer Dr. Mark McLellan Committee Member Vice President for Research and Dean of the School of Graduate Studies UTAH STATE UNIVERSITY Logan, Utah 2014 ii Copyright © Jeffrey Moody 2014 All Rights Reserved iii ABSTRACT Global Evaluation of Biofuel Potential from Microalgae by Jeffrey W. Moody, Master of Science Utah State University, 2014 Major Professor: Dr. Jason C. Quinn Department: Mechanical and Aerospace Engineering Traditional terrestrial crops are currently being utilized as a feedstock for biofuels but resource requirements and low yields limit the sustainability and scalability. Comparatively, next generation feedstocks, such as microalgae, have inherent advantages such as higher solar energy efficiencies, larger lipid fractions, utilization of waste carbon dioxide, and cultivation on poor quality land. -
New Air Conditioning Design Temperatures for Queensland
New air-conditioning design temperatures for Queensland, Australia by Eric Peterson¹, Nev Williams¹, Dale Gilbert¹, Klaus Bremhorst² ¹Thermal Comfort Initiative of Queensland Department of Public Works, Brisbane ²Professor of Mechanical Engineering, the University of Queensland, St Lucia Abstract : This paper presents results of a detailed analysis of meteorological data to determine air conditioning design temperatures dry bulb and wet bulb for hundreds of locations throughout Queensland, using the tenth-highest daily maximum observed per year. This is a modification of the AIRAH 1997 method that uses only 3PM records of temperature. In this paper we ask the reader to consider Australian Bureau of Meteorology official “climate summaries” as a benchmark upon which to compare various previously published comfort design temperatures, as well as the new design temperatures proposed in the present paper. We see some possible signals from climate change, but firstly we should apply all available historical data to establish outdoor design temperatures that will ensure that cooling plant are correctly sized in the near future. In a case- studies of Brisbane, we find that inner city temperatures are rising, that airport temperatures are not, and that suburban variability is substantially important. Table 1: Air-conditioning design temperatures compared at eight locations 2004 1986 2004 2004 1975 2004 1998 AERO AERO BRISBANE 1939 – 1942 – 1851 – 1939 – 1942 – 1957 – 1950 – 2000 1940 – TOOWOOMBA CAIRNSAERO CHARLEVILLE (EAGLE FARM) ROCKHAMPTON BRISBANE -
Global Climate Observing System Surface Network Station List 2020
Region I AFRICA Country (Area) ALGERIA / ALGERIE IndexNbr Station Name Latitude Longitude Elevation (m) 60390 DAR-EL-BEIDA 36 41 00N 03 13 00E 29 60590 EL-GOLEA 30 34 00N 02 52 00E 403 60611 IN-AMENAS 28 03 00N 09 38 00E 562 60680 TAMANRASSET 22 48 00N 05 26 00E 1.364 Country (Area) ANGOLA IndexNbr Station Name Latitude Longitude Elevation (m) 66152 DUNDO 07 24 00S 20 49 00E 776 66160 LUANDA 08 51 00S 13 14 00E 70 66270 WAKUKUNGA (CELA) 11 25 00S 15 07 00E 1.304 66390 LUBANGO (SA DA BANDEIRA) 14 56 00S 13 34 00E 1.758 66410 MENONGUE (SERPA PINTO) 14 39 00S 17 41 00E 1.343 66422 MOCAMEDES 15 12 00S 12 09 00E 45 66447 MAVINGA 15 50 00S 20 21 00E 1.088 66460 PEREIRA DE ECA 17 05 00S 15 44 00E 1.109 Country (Area) BENIN IndexNbr Station Name Latitude Longitude Elevation (m) 65306 KANDI 11 08 00N 02 56 00E 292 65335 SAVE 08 02 00N 02 28 00E 200 Country (Area) BOTSWANA IndexNbr Station Name Latitude Longitude Elevation (m) 68032 MAUN 19 59 00S 23 25 00E 900 Country (Area) BURKINA FASO IndexNbr Station Name Latitude Longitude Elevation (m) 65501 DORI 14 02 00N 00 02 00W 277 65516 BOROMO 11 44 00N 02 55 00W 264 Country (Area) BURUNDI IndexNbr Station Name Latitude Longitude Elevation (m) 64397 MUYINGA 02 50 00S 30 20 00E 1.755 Country (Area) CAMEROON / CAMEROUN IndexNbr Station Name Latitude Longitude Elevation (m) 64870 NGAOUNDERE 07 21 00N 13 34 00E 1.104 Country (Area) CAPE VERDE / CABO VERDE IndexNbr Station Name Latitude Longitude Elevation (m) 08583 MINDELO 16 50 01N 25 03 17W 18 Country (Area) CHADE / TCHAD IndexNbr Station Name Latitude -
Fisheries Act 1994 Published Sustainable Planning Act 2009 Biosecurity Act 2014
INVESTIGATION PROCEDURES MANUAL TABLE OF CONTENTS CHAPTER 1 - POWERS AND RESPONSIBILITIES OF INSPECTORS Log CHAPTER 2 - OFFENCES CHAPTER 3 - EVIDENCE GATHERING CHAPTER 4 - WARRANTS Disclosure CHAPTER 5 - INTERVIEWING 2009 CHAPTER 6 - STATEMENTSDAF Act on CHAPTER 7 - BRIEFS OF EVIDENCE RTI CHAPTER 8 - PROSECUTION PROCESS CHAPTER 9 - INVESTIGATION MANAGEMENT Published CHAPTER 10- KEY ROLES Chapter 5 – Interviewing Version 2 (November 2016) Page 1 Department of Agriculture and Fisheries, 2016. 19-296 File E1 Page 1 of 187 CHAPTER 1 POWERS AND RESPONSIBILITIES OF INSPECTORS Table of Contents 1.1 INTRODUCTION ........................................................................................ 3 1.2 LEGISLATION ............................................................................................ 3 1.3 FUNCTION OF QBFP IN RELATION TO COMPLIANCE MANAGEMENT AND CONDUCTING INVESTIGATIONS .......................... 4 1.4 ROLE OF A QBFP OFFICER ..................................................................... 5 1.5 RESPONSIBILITIES OF A QBFP OFFICER .............................................. 6 1.6 POWERS OF INSPECTORS ................................................................Log...... 6 1.7 POWERS UNDER RELEVANT LEGISLATION .......................................... 7 1.8 IDENTITY CARDS ...................................................................................... 8 1.9 POWERS OF ENTRY ............................................................................... 10 1.9.1 Entry by Consent .......................................................... -
Monthly Weather Review South Australia April 2010 Monthly Weather Review South Australia April 2010
Monthly Weather Review South Australia April 2010 Monthly Weather Review South Australia April 2010 The Monthly Weather Review - South Australia is produced twelve times each year by the Australian Bureau of Meteorology's South Australia Climate Services Centre. It is intended to provide a concise but informative overview of the temperatures, rainfall and significant weather events in South Australia for the month. To keep the Monthly Weather Review as timely as possible, much of the information is based on electronic reports. Although every effort is made to ensure the accuracy of these reports, the results can be considered only preliminary until complete quality control procedures have been carried out. Major discrepancies will be noted in later issues. We are keen to ensure that the Monthly Weather Review is appropriate to the needs of its readers. If you have any comments or suggestions, please do not hesitate to contact us: By mail South Australia Climate Services Centre Bureau of Meteorology PO Box 421 Kent Town SA 5071 AUSTRALIA By telephone (08) 8366 2600 By email [email protected] You may also wish to visit the Bureau's home page, http://www.bom.gov.au. Units of measurement Except where noted, temperature is given in degrees Celsius (°C), rainfall in millimetres (mm), and wind speed in kilometres per hour (km/h). Observation times and periods Each station in South Australia makes its main observation for the day at 9 am local time. At this time, the precipitation over the past 24 hours is determined, and maximum and minimum thermometers are also read and reset. -
The Within-Day Behaviour of 6 Minute Rainfall Intensity in Australia
Discussion Paper | Discussion Paper | Discussion Paper | Discussion Paper | Hydrol. Earth Syst. Sci. Discuss., 8, 3189–3231, 2011 Hydrology and www.hydrol-earth-syst-sci-discuss.net/8/3189/2011/ Earth System doi:10.5194/hessd-8-3189-2011 Sciences © Author(s) 2011. CC Attribution 3.0 License. Discussions This discussion paper is/has been under review for the journal Hydrology and Earth System Sciences (HESS). Please refer to the corresponding final paper in HESS if available. The within-day behaviour of 6 minute rainfall intensity in Australia A. W. Western1, B. Anderson1,*, L. Siriwardena1, F. H. S. Chiew2, A. Seed3, and G. Bloschl¨ 4 1Department of Infrastructure Engineering, The University of Melbourne, Australia 2CSIRO Land and Water, Canberra, Australia 3Centre for Australian Weather and Climate Research, Melbourne, Australia 4Institute of Hydraulic Engineering and Water Resources Management Vienna University of Technology, Austria *now at: Water Division, Bureau of Meteorology, Melbourne, Australia Received: 5 March 2011 – Accepted: 7 March 2011 – Published: 31 March 2011 Correspondence to: A. W. Western ([email protected]) Published by Copernicus Publications on behalf of the European Geosciences Union. 3189 Discussion Paper | Discussion Paper | Discussion Paper | Discussion Paper | Abstract The statistical behaviour and distribution of high-resolution (6 min) rainfall intensity within the wet part of rainy days (total rainfall depth >10 mm) is investigated for 42 stations across Australia. This paper compares nine theoretical distribution func- 5 tions (TDFs) in representing these data. Two goodness-of-fit statistics are reported: the Root Mean Square Error (RMSE) between the fitted and observed within-day distribu- tion; and the efficiency of prediction of the highest rainfall intensities (average intensity of the 5 highest intensity intervals).