2015/16 Integrated Development Plan
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Final IDP 27 May 2015
2015/16 INTEGRATED DEVELOPMENT PLAN Third review of the third GENERATION IDP (2012-17) as prescribed by Section 34 of the Municipal Systems Act (2000) CONTENTS FOREWORD BY THE EXECUTIVE MAYOR 7 OVERVIEW BY THE MUNICIPAL MANAGER 8 LIST OF ACRONYMS 9 IDP AND DOCUMENT STRUCTURE 10 CHAPTER ONE: EXECUTIVE SUMMARY 11 1.1. INTRODUCTION 11 1.2. THE STELLENBOSCH MUNICIPALITY AT A GLANCE 11 1.3. STRATEGIC FRAMEWORK OF THE IDP 12 1.4 THE ROLE AND PURPOSE OF THE IDP 15 1.5 REVISING THE 2012-17 IDP FOR 2013-14 15 1.6. THE HIGH LEVEL PREPARATION PROCESS FOR THE IDP REVISION 18 CHAPTER TWO: THE STATE OF THE GREATER STELLENBOSCH AREA 2.1. DEMOGRAPHIC PROFILE 20 20 2.2. LABOUR PROFILE 2420 20 42 2.3. HOUSEHOLD PROFILE 2025 4 2.4. ECONOMIC PROFILE 302025 2.5. SAFETY AND SECURITY PROFILE 332919 2.6. WESTERN CAPE GOVERNMENT MUNICIPAL ECONOMIC REVIEW AND OUTLOOK 2014 3532 (MERO 2014) 33 CHAPTER THREE: GOVERNANCE AND INSTITUTIONAL DEVELOPMENT 38 3.1. POLITICAL REPRESENTATION AND GOVERNMENT STRUCTURES 3738 3.2. REPRESENTATIVE FORUMS 42 3.3. THE ADMINISTRATION 4341 3.4. PUBLIC ACCOUNTABILITY 46 3.5. CORPORATE GOVERNANCE 4+7 3.6. WARD COMMITTEES 47 3.7. INTER-GOVERNMENTAL RELATIONS WORK 648 3.8. PARTNERSHIPS 4947 3.9. SERVICE DELIVERY ACHIEVEMENTS 5148 50 CHAPTER FOUR: STRATEGIC POLICY CONTEXT 52 4.1. GLOBAL DEVELOPMENT POLICY DIRECTION 5251 4.2. NATIONAL POLICY DIRECTION 53 4.3. PROVINCIAL POLICY DIRECTION 56 4.4. FUNCTIONAL REGION AND DISTRICT POLICY DIRECTION 57 4.5. SECTOR INVESTMENT MAPS 60 4.5.1. -
Water Use Efficiency of Table and Wine Grapes in Western Cape, South Africa
Water use efficiency of table and wine grapes in Western Cape,South Africa The spatial and temporal variation of water use efficiency in grape cultivation using remote sensing technology WaterWatch BV Final report, 15 October 2008 Table of content Table of content 1 INTRODUCTION ....................................................................................................... 1 1.1 Background..............................................................................................................1 1.2 The study areas ........................................................................................................2 2 SATELLITE DATA AND LAND COVER MAPPING ........................................................... 5 2.1 Satellite data............................................................................................................5 2.2 Brief description of the method....................................................................................6 2.3 Land cover mapping ..................................................................................................8 2.3.1 Field work..............................................................................................................8 2.3.2 Land cover classification...........................................................................................9 3 METEOROLOGICAL DATA .........................................................................................13 3.1 Meteorological datasets........................................................................................... -
2014-Provincial Gaze
PROVINCE OF THE WESTERN CAPE PROVINSIE WES-KAAP IPHONDO LENTSHONA KOLONI Provincial Gazette Buitengewone Tsongezelelo Extraordinary Provinsiale Koerant kwiGazethi yePhondo 8123 8123 8123 Friday, 5 July 2019 Vrydag, 5 Julie 2019 uLwesihlanu, 5 kweyeKhala 2019 Registered at the Post Offıce as a Newspaper As ’n Nuusblad by die Poskantoor Geregistreer Ibhaliswe ePosini njengePhephandaba CONTENTS INHOUD IZIQULATHO (*Reprints are obtainable at Room M21, Provin- (*Afskrifte is verkrygbaar by Kamer M21, (*Ushicilelo oLutsha lufumaneka kwigumbi cial Legislature Building, 7 Wale Street, Cape Provinsiale Wetgewer-gebou, Waalstraat 7, M21, kwiSakhiwo sePhondo seNdlu yoWiso- Town 8001.) Kaapstad 8001.) Mthetho, 7 Wale Street, eKapa 8001.) Provincial Notice Provinsiale Kennisgewing ISaziso sePhondo The following Provincial Notice is published for Die volgende Provinsiale Kennisgewing word Esi sasiso silandelayo sipapashelwe ukunika general information: vir algemene inligting gepubliseer: ulwazi ngokubanzi: 78 Notice of applications for liquor 78 Kennisgewing van aansoeke om drank- 78 ISaziso sokufakwa kwesicelo sephe- licences in terms of Section 37(1) of the lisensies ingevolge Artikel 37(1) van pha mvume ngokweCandelo 37(1) LoM- Western Cape Liquor Act, 2008— die Wes-Kaapse Drankwet, 2008— thetho woTywala weNtshona Koloni [Reg. 10(1)] .............................................. 2 [Reg. 10(1)] .............................................. 2 ka-2008—[UMgaqo. 10(1)] ..................... 2 2 Province of the Western Cape: Provincial Gazette Extraordinary -
Catch and Release Leaving SA Fish Stressed Sea Water-210X297-Afrique Du Sud:Mise En Page 1 18/12/08 18:44 Page 1
ISSN 0258-2244 March/April 2010 Volume 9 No 2 CatCh and release leaving sa fish stressed Sea Water-210x297-afrique du sud:Mise en page 1 18/12/08 18:44 Page 1 www.degremont.com SEA WATER: SOURCE OF REUSE LIFE. Degrémont's membrane filtration technology is suitable for the whole range of treated wastewater uses, from agriculture and landscaping to industry and many others. Already valued by farmers and industries, the clean water produced by this demanding process makes a major contribution to water conservation and environmental protection. DESALINATION Degremont draws its desalination experience from its portfolio of more than 250 reverse osmosis plants © Les Éditions Stratégiques around the world. The process removes mineral salts by forcing water to cross a semi-permeable membrane. With the growth in world demand for drinking water - and with 40% of the world's population living within 100 km of the sea - this technology offers a sustainable solution for the supply of potable water. FOR THIS & OTHER DEGRÉMONT’S WATER TREATMENT PLANT EQUIPMENT, CONTACT : MAITE BERNARD, Commercial Manager [email protected] MORNAY DE VOS, Business Develop. Mg [email protected] Tel: +27 (0) 11 807 1983 Fax: +27 (0) 11 807 4118 www.degremont.edx.co.za THE WATER TREATMENT PLANT SPECIALISTS Table of contents 3 letters 4 upfront 6 AquAtic species conservAtion 14 ISSN 0258-2244 March/April 2010 Volume 9 No 2 First SA study on stress levels of caught and released fish WAter History 18 Wemmershoek – 75 years in the making Groundwater mAnAGement 24 New strategy to light path for sustainable groundwater use WAter netWorks 26 Hundreds gather for first young water professionals conference in Africa CatCh and release leaving sa fish stressed comment And opinion 29 Is water the new oil? Cover: Is catch and release angling placing undue stress on our yellow WAter kidz 32 fish? (See page 14) Rivers: Life-giving veins of the Earth Original oil painting by Barry Jackson. -
7. Water Quality
Western Cape IWRM Action Plan: Status Quo Report Final Draft 7. WATER QUALITY 7.1 INTRODUCTION 7.1.1 What is water quality? “Water quality” is a term used to express the suitability of water to sustain various uses, such as agricultural, domestic, recreational, and industrial, or aquatic ecosystem processes. A particular use or process will have certain requirements for the physical, chemical, or biological characteristics of water; for example limits on the concentrations of toxic substances for drinking water use, or restrictions on temperature and pH ranges for water supporting invertebrate communities. Consequently, water quality can be defined by a range of variables which limit water use by comparing the physical and chemical characteristics of a water sample with water quality guidelines or standards. Although many uses have some common requirements for certain variables, each use will have its own demands and influences on water quality. Water quality is neither a static condition of a system, nor can it be defined by the measurement of only one parameter. Rather, it is variable in both time and space and requires routine monitoring to detect spatial patterns and changes over time. The composition of surface and groundwater is dependent on natural factors (geological, topographical, meteorological, hydrological, and biological) in the drainage basin and varies with seasonal differences in runoff volumes, weather conditions, and water levels. Large natural variations in water quality may, therefore, be observed even where only a single water resource is involved. Human intervention also has significant effects on water quality. Some of these effects are the result of hydrological changes, such as the building of dams, draining of wetlands, and diversion of flow. -
Large Scale Quantification of Aquifer Storage and Volumes from the Peninsula and Skurweberg Formations in the Southwestern Cape
Large scale quantification of aquifer storage and volumes from the Peninsula and Skurweberg Formations in the southwestern Cape Dylan Blake*, Andiswa Mlisa and Chris Hartnady Umvoto Africa (Pty) Ltd,PO Box 61, Muizenberg, 7950, Western Cape, South Africa Abstract The Western Cape Province of South Africa is a relatively water-scarce area as a result of the Mediterranean climate experienced. Due to the increased usage of groundwater, and the requirement to know how much water is available for use, it is imperative as a 1st step to establish an initial estimate of groundwater in storage. The storage capacity, namely, the total available storage of the different aquifers, and the storage yield of the fractured quartzitic Peninsula and Skurweberg Formation aquifers of the Table Mountain Group (TMG), are calculated with a spreadsheet and Geographic Information System (GIS) model. This model is based on the aquifer geometry and estimated values (based on measured data) for porosity and specific storage (calculated using the classic Jacob relation). The aquifer geometry is calculated from 1:50 000 and 1:250 000 geological contacts, faults and major fractures, with dips and aquifer formation thickness calculated through structural geology 1st principles using a Digital Elevation Model (DEM). Balanced geological cross-sections constructed through the model areas provide an important check for the aquifer top and bottom surface depth values produced by the GIS model. The storage modelling undertaken here forms part of the City of Cape Town TMG Aquifer Feasibility Study and Pilot Project, with modelling focusing on the 3 main groundwater target areas at Theewaterskloof (Nuweberg), Wemmershoek and Kogelberg-Steenbras. -
Berg Water Project Communications Practices for Governance and Sustainabilty Improvement
WORLD BANK WORKING PAPER NO. 199 Public Disclosure Authorized Berg Water Project Communications Practices for Governance and Sustainabilty Improvement Lawrence J.M. Haas Leonardo Mazzei Donal T. O’Leary Public Disclosure Authorized Nigel Rossouw Public Disclosure Authorized Public Disclosure Authorized THE WORLD BANK WORLD BANK WORKING PAPER NO. 199 Berg Water Project Communication Practices for Governance and Sustainability Improvement Lawrence J. M. Haas Leonardo Mazzei Donal T. O’Leary Nigel Rossouw WP199_BergWater_Text.indb i 6/15/10 12:59:51 PM Copyright © 2010 The International Bank for Reconstruction and Development/The World Bank 1818 H Street, N.W. Washington, D.C. 20433, U.S.A. All rights reserved Manufactured in the United States of America First Printing: June 2010 Printed on recycled paper 1 2 3 4 5ȳȳȳ13 12 11 10 World Bank Working Papers are published to communicate the results of the Bank’s work to the development community with the least possible delay. The manuscript of this paper therefore has not been prepared in accordance with the procedures appropriate to formally edited texts. Some sources cited in this paper may be informal documents that are not readily available. The fi ndings, interpretations, and conclusions expressed herein are those of the author(s) and do not necessarily refl ect the views of the International Bank for Reconstruction and Development/The World Bank and its aĜ liated organizations, or those of the executive directors of The World Bank or the governments they represent. The World Bank does not guarantee the accuracy of the data included in this work. The boundaries, colors, denominations, and other information shown on any map in this work do not imply any judgment on the part of The World Bank of the legal status of any territory or the endorsement or acceptance of such boundaries. -
Who Lived in the Stellenbosch Winelands Before 1652?
WHO LIVED IN THE STELLENBOSCH WINELANDS BEFORE 1652? This short essay describes what is currently known about the archaeology and history of the Stone Age people who lived in the vicinity of Stellenbosch and adjacent Winelands in the Western Cape before European colonisation. When and where did the human story begin? There is abundant archaeological evidence from stone tools, and a few human remains, that Stone Age hunter-gatherer people lived in the Western Cape for about a million years. As yet, there is no evidence in this region for the earliest stone tools and fossil hominin remains that date to between 1 and at least 3 million years ago in the Cradle of Humankind in Gauteng, Limpopo and North-West provinces. It is not clear whether this is a result of a limited ecological range in which the early hominins lived, or of the absence of suitable geological formations for the preservation of bone. What do we mean by the Stone Age? The Stone Age was the time when most of the tools that hunter-gatherer people used were made by striking one stone against another – a hammerstone against a core – so that sharp edges were created on the sides of the core and on the flakes that were detached. Many fine-grained rocks will produce flakes with edges that are sharper than a metal knife, but stone becomes blunt much more quickly than metal. Archaeologists focus on stone tools as the primary source of evidence for the presence of people in the landscape in the past because the tools are almost indestructible and therefore are often all that is left behind after bones, wood, plant remains and shells have disintegrated. -
Department of Water and Sanitation SAFPUB V02 Output 19/09/2021 Latitude Longitude Drainage Catchment Page 1 Station Dd:Mm:Ss Dd:Mm:Ss Region Area Km**2 Description
Department of Water and Sanitation SAFPUB V02 Output 19/09/2021 Latitude Longitude Drainage Catchment Page 1 Station dd:mm:ss dd:mm:ss Region Area km**2 Description E2N0001 Rosendal 33:59:30 19:16:28 H60C 0 Data Data Period 110.00 Bore Level (m) 1992-08-19 2021-05-05 815.00 Temp (Deg C) 2015-07-02 2016-07-26 815.70 Temp (Deg C) Raw logger data 2015-07-02 2016-07-26 14% missing 815.90 Temp (Deg C) Control Water Temp(DegC) 2020-05-26 2021-05-05 822.90 Conduct. (Specific) 2020-05-26 2021-05-05 860.90 pH Hand measurements 2020-05-26 2021-05-05 G1N0450 Goede Rust Ptn Goodings Grove 33:53:08 19:54:58 H40L 0 Data Data Period 110.00 Bore Level (m) 2003-02-05 2011-10-12 815.00 Temp (Deg C) 2015-04-21 2021-04-20 815.90 Temp (Deg C) Control Water Temp(DegC) 2015-04-21 2021-04-20 822.00 Conduct. (Specific) Control reading 2015-04-21 2021-04-20 822.90 Conduct. (Specific) 2012-10-09 2021-04-20 860.00 pH 2015-04-21 2021-01-19 860.90 pH Hand measurements 2015-04-21 2021-01-19 G4N0003 Hartebeeste Rivier 607(Ptn Tesselaarsdal) 34:22:45 19:31:54 G40J 0 Data Data Period 110.00 Bore Level (m) 1996-03-29 2019-05-23 815.00 Temp (Deg C) 2014-12-10 2018-07-25 815.70 Temp (Deg C) Raw logger data 2014-12-10 2018-07-25 14% missing G4N0004 Breede 34:27:46 19:27:46 G40L 0 Data Data Period 110.00 Bore Level (m) 2008-06-08 2021-08-26 815.00 Temp (Deg C) 2011-10-20 2019-11-20 815.70 Temp (Deg C) Raw logger data 2012-01-25 2019-11-20 11% missing 815.90 Temp (Deg C) Control Water Temp(DegC) 2020-08-27 2021-08-26 822.90 Conduct. -
Systematics of the Southern African Lapeirousia Corymhosa Complex (Iridaceae-Ixioideae), with L
326 S.AfrJ.Bot., 1992, 58(5): 326 - 336 Systematics of the southern African Lapeirousia corymhosa complex (Iridaceae-Ixioideae), with L. neglecta sp. nov. Peter Goldblatt B.A. Krukoff Curator of African Botany, Missouri Botanical Garden, P.O. Box 299, St. Louis, Missouri 63166, U.S.A. and John C. Manning National Botanical Institute, Kirstenbosch, Private Bag X7, Claremont, 7735 Republic of South Africa Received 4 December 1991; revised 21 May 1992 Circumscription of Lapeirousia corymbosa, type species of subgenus Paniculata section Fastigiata, previously regarded as comprising three subspecies, is restricted to plants with small blue (or white) flowers with symmetrical white' markings, and usually symmetrically disposed stamens. Subsp. fastigiata is elevated to species rank as L. fastigiata, and comprises plants with large yellow, actinomorphic flowers. Lapeirousia azurea, until now included in subsp. fastigiata, is treated as a separate species for plants with large dark blue, zygomorphic, and typically resupinate flowers. Field studies indicate that L. corymbosa subsp. alta is a distinct species, here described as L. neglecta. Floral morphology differs consistently in each species, as do aspects of leaf, capsule and seed morphology. Comparison of seeds in the two sections of subgenus Paniculata shows that species of section Fastigiata are derived in their smaller, reticulate (to rugose), ovoid seeds with a large funicular appendage. Seeds of section Paniculata accord closely with those of the presumed outgroup, Savannosiphon: they are comparatively large, smooth to rugulose and have a small appendage. Lapeirousia neglecta has seeds and chromosome morphology characteristic of section Paniculata, and it is now assigned to that section. The addition of L. -
Impacts of Alien Plant Invasions on Water Resources and Yields from the Western Cape Water Supply System (WCWSS)
Impacts of alien plant invasions on water resources and yields from the Western Cape Water Supply System (WCWSS) David Le Maitre1,2*, André Görgens3, Gerald Howard3 and Nick Walker3,4,5 1Natural Resources and the Environment, CSIR, Stellenbosch 2Centre for Invasion Biology, Department of Botany and Zoology, Stellenbosch University, South Africa 3Aurecon South Africa (Pty) Ltd, Cape Town, South Africa 4ERM, One Castle Park, Tower Hill, Bristol, United Kingdom 5Institute of Water Studies, University of the Western Cape, Bellville, South Africa ABSTRACT A key motivation for managing invasive alien plant (IAP) species is their impacts on streamflows, which, for the wetter half of South Africa, are about 970 m3∙ha−1∙a−1 or 1 444 mill. m3∙a−1 (2.9% of naturalised mean annual runoff), comparable to forest plantations. However, the implications of these reductions for the reliability of yields from large water supply systems are less well known. The impacts on yields from the WCWSS were modelled under three invasion scenarios: ‘Baseline’ invasions; increased invasions by 2045 under ‘No management’; and under ‘Effective control’ (i.e. minimal invasions). Monthly streamflow reductions (SFRs) by invasions were simulated using the Pitman rainfall−runoff catchment model, with taxon- specific mean annual and low-flow SFR factors for dryland (upland) invasions and crop factors for riparian invasions. These streamflow reduction sequences were input into the WCWSS yield model and the model was run in stochastic mode for the three scenarios. The 98% assured total system yields were predicted to be ±580 million m3∙a−1 under ‘Effective control’, compared with ±542 million m3∙a−1 under ‘Baseline’ invasions and ±450 mill. -
Water Services and the Cape Town Urban Water Cycle
WATER SERVICES AND THE CAPE TOWN URBAN WATER CYCLE August 2018 WATER SERVICES AND THE CAPE TOWN URBAN WATER CYCLE TABLE OF CONTENTS WATER SERVICES AND THE CAPE TOWN URBAN WATER CYCLE ...................................... 3 1. EVAPORATION ................................................................................................................ 5 2. CONDENSATION ............................................................................................................. 5 3. PRECIPITATION ............................................................................................................... 6 4. OUR CATCHMENT AREAS ............................................................................................. 7 5. CAPE TOWN’S DAMS ...................................................................................................... 9 6. WHAT IS GROUNDWATER? ......................................................................................... 17 7. SURFACE RUNOFFS ..................................................................................................... 18 8. CAPE TOWN’S WATER TREATMENT WORKS ............................................................ 19 9. CAPE TOWN’S RESERVOIRS ....................................................................................... 24 10. OUR RETICULATION SYSTEMS ................................................................................... 28 11. CONSUMERS ..................................................................................................................