River Tees Guidance Notes
Total Page:16
File Type:pdf, Size:1020Kb

Load more
Recommended publications
-
A Beginner's Guide to Boating on Inland Waterways
Ti r A Beginner’s Guide To Boating On Inland Waterways Take to the water with British Waterways and the National Rivers Authority With well over 4,000 km (2,500 miles) of rivers and canals to explore, from the south west of England up to Scotland, our inland waterways offer plenty of variety for both the casual boater and the dedicated enthusiast. If you have ever experienced the pleasures of 'messing about on boats', you will know what a wealth of scenery and heritage inland waterways open up to us, and the unique perspective they provide. Boating is fun and easy. This pack is designed to help you get afloat if you are thinking about buying a boat. Amongst other useful information, it includes details of: Navigation Authorities British Waterways (BW) and the National Rivers Authority (NRA), which is to become part of the new Environment Agency for England and Wales on 1 April 1996, manage most of our navigable rivers and canals. We are responsible for maintaining the waterways and locks, providing services for boaters and we licence and manage boats. There are more than 20 smaller navigation authorities across the country. We have included information on some of these smaller organisations. Licences and Moorings We tell you everything you need to know from, how to apply for a licence to how to find a permanent mooring or simply a place for «* ^ V.’j provide some useful hints on buying a boat, includi r, ...V; 'r 1 builders, loans, insurance and the Boat Safety Sch:: EKVIRONMENT AGENCY Useful addresses A detailed list of useful organisations and contacts :: : n a t io n a l libra ry'& ■ suggested some books we think will help you get t information service Happy boating! s o u t h e r n r e g i o n Guildbourne House, Chatsworth Road, W orthing, West Sussex BN 11 1LD ENVIRONMENT AGENCY 1 Owning a Boat Buying a Boat With such a vast.range of boats available to suit every price range, . -
Welcome to Canal & River Trust
Welcome to Canal & River Trust - River Tees Welcome Canal & River Trust are the navigation authority on the River Tees from a point 200m downstream of the Tees Barrage to a point 3km upstream of Lower Worsall. Canal & River Trust are a charity responsible for 2,000 miles of waterways in England and Wales. This welcome note provides basic information for skippers and other river users and is intended to help make the river and surrounding areas a safe and enjoyable place to visit. Following these notes will ensure all visitors have a safe and enjoyable visit. River Tees Upstream Bylaws and Speed Limits & Wash All vessels on the River Tees must be licensed with Canal & River Trust. Skippers can licence their vessel by contacting the barrage office. Skippers of all craft navigating the River Tees upstream of the Tees Barrage are reminded to navigate their vessel with care and caution paying attention to any wash created. Vessels travelling within the speed limit can still create excessive wash, skippers should reduce vessel speed and wash when passing moored craft. This will prevent damage to other craft and reduce bank erosion. The speed limit upstream of the barrage is 5mph over the bed of the river as described in the bye laws. See below for links to the river Tees Byelaws Other River Users The river is popular with a of variety of users including but not limited to the following. General River Users Barrage Reach Area Users Passenger vessels Jet skiing (authorised clubs only) Leisure vessels Water Skiing (authorised clubs only) Swimming – Although swimming is not prohibited the Trust does not Rowing (authorised clubs only) recommend swimming in the river. -
Tees Sculpture Trail Stockton
TEES SCULPTURE TRAIL STOCKTON Five designers/artists have been commissioned to deliver a minimum of five interpretative artistic pieces – one in each of the five local authority areas across the Tees Valley. The aim of this project is to promote a better understanding of the fascinating history, landscape and cultural heritage of the area and sites within it. This will enhance the visitor experience across the area, through the provision of exciting, interesting and memorable destinations and activities. It will also inspire people to further discover, respect and appreciate the area into the future. For more information or to discuss the project contact: Lucy Chapman Programme Manager (River Tees Rediscovered) Groundwork NE & Cumbria Tel: (01325) 464 270 Mobile: 07843 444 195 Email: [email protected] A689 A1M A68 A167 1 A66 Piercebridge Darlington 2 3 River Tees 5 A66 Middleton One Row 4 Croft A1M Hartlepool 20 North Sea A19 19 Seaton Carew 18 17 16 25 Billingham Redcar 14 15 24 13 22 23 21 South Bank Stockton-on-Tees 12 11 Middlesbrough 10 A1053 8 9 7 6 Ingleby Barwick Aisalby 0 1 2 4 6 8 A19 MILE Aislaby Village Green 6 Steve Tomlinson This location is something of a rural oasis along the trail, and there is a requirement for seating. My proposal for this location is to create a 'Leaf- Otter' seat. The work will be fabricated in acid etched galvanised steel. The work would be 780mm high at the tail tip and 1850mm long (if straight). The work will be concreted into the ground, with an additional concrete layer to keep grass away and to cope with the sloping/uneven ground. -
The A19 Trunk Road
THE CHARTERED INSTITUTION OF HIGHWAYS & TRANSPORTATION The A19 Trunk Road The A19 tends to live in the shadow of the more well known A1 it runs more or less parallel with. However, it is no less important to the region, serving the heavy industry and associated ports of Teesside, Wearside and Tyneside. Its journey from a single carriageway road linking coastal towns to modern day dual carriageway has been a painstaking process of over 45 years but has brought both economic and visual transformation to the North East. 1 A Broad History Today the A19 trunk road is a modern all-purpose dual carriageway running from the junction with the A1 at Seaton Burn, north of Newcastle, until it leaves the region south of Middlesbrough. It continues through North Yorkshire to Thirsk and, via a short link (A168), rejoins the A1 at Dishforth. The A19 itself continues as a non-trunk road to Doncaster. In 1952, the A19 was very different. It existed only south of the River Tyne and was a coastal route of single carriageway and relatively poor standard. Starting at South Shields it passed through Whitburn, Sunderland and Seaham, heading inland through Easington and then back out to the coast via Horden and onto Hartlepool. It then snaked its way through Billingham, Stockton, Eaglescliffe and Yarm. The improvements in our region towards the route we know today began at the Tyne Tunnel in 1967/8. The tunnel (£13.4m) was built with approach roads from the A1058 Newcastle to Tynemouth Coast Road (£6.5m) in the north and the A184 Gateshead to Sunderland Trunk Road (£3.5m) in the south. -
Chairman's Report
TEES VALLEY LOCAL AC CESS FORUM ANNUAL REPORT 2014 - 2 0 1 5 Chairman’s Report The Heritage Lottery Funded Partner- The TVLAF is supporting steps to ex- ship programme, River Tees Re- tend the England Coast Path route discovered centering on the River Tees, from North Gare at Hartlepool across Appointing Authority was officially launched on the 17th the Tees Estuary to link with the Cleve- Membership March 2015 at Middlesbrough College. land Way. The Secretary of State has ‘Welcome Aboard’ was attended by opened the consultation on this stretch COUNCILLOR MICHAEL SMITH representatives from local business and during March 2015 linking North Gare industry, and senior leaders from the in Hartlepool, across the Newport STOCKTON ON TEES BOROUGH COUNCIL public and third sectors. The TVLAF Bridge to Middlesbrough and on to has played a key role in the develop- Filey Brigg in North Yorkshire. ment of this project, pulling together COUNCILLOR DOT LONG the relevant Officers and Volunteers DARLINGTON BOROUGH COUNCIL critical to the project’s success. Doug Nicholson, Chair of River Tees Rediscovered, said: “The River Tees is COUNCILLOR ALAN CLARK the greatest natural asset in the area HARTLEPOOL BOROUGH and this will be the first time it has COUNCIL been developed as a whole. We view this project as a real opportunity to change perceptions about our river and COUNCILLOR CHARLES our area, to look through fresh eyes at ROONEY the beauty and drama of the landscape MIDDLESBROUGH COUNCIL today and to celebrate this great asset Newport Bridge by courtesy of Malc McDonald at the heart of Teesside.’’ In 2009 the Limestone Landscapes Regional working has continued, with partnership began the current pro- joint work pledged between our gramme of works. -
Tidal Energy in Korea
APEC Youth Scientist Journal Vol. 5 TIDAL ENERGY IN KOREA ∗ Jeong Min LEE 1 1 Goyang Global High School, 1112 Wi city 4-ro, Ilsandong-gu, Goyang-si, Gyeonggi-do, Korea 410-821 ABSTRACT Tidal energy is one of the few renewable energy resources Korean government is planning on to implant in Korean Peninsula. Due to its continuity and environmental friendliness, tidal energy is getting its attention as appropriate alternative energy for Korea that can replace conventional fossil fuels. On the other hand, while Korean government is pushing forward to build tidal plants using Korea’s geographical advantages following the construction of tidal plants, many locals are holding demonstrations in order to stop tidal plants from being built. These disputes are holding off government’s original plan to construct tidal plants in Incheon Bay area. In this study, concept of using tidal energy and various methods will be introduced, followed by Korea’s geographical conditions for constructing tidal power plants. Concerning construction of tidal plants in Korea, problems regarding the issue will also be covered. This will provide current status of tidal energy as renewable resource in Korea, and how it will change to impact the country. Keywords: tidal power, geographical advantage, tidal plant sites, ecological impact, conflict ∗ Correspondence to : Jeong Min L EE ([email protected]) - 174 - APEC Youth Scientist Journal Vol. 5 1. INTRODUCTION Energy we use to produce electricity and heat has brought great changes on how we live today. However, nowadays despite successful contribution to improvements of human lives, conventional resources are losing its stature for creating many problems to global society. -
Tidal Energy and How It Pertains to the Construction Industry
Tidal Energy and how it Pertains to the Construction Industry Armin Latifi California Polytechnic State University San Luis Obispo Renewable Energy is on the forefront of many global discussions. The concern of numerous scientific findings on the impact humanity has had on the environment has grown in recent years. Since alternative energy sources, such as solar and wind, have already made substantial progress, I have decided to focus my attention on tidal energy specifically. This topic will serve as the main focus of this essay. Within this essay, I will examine how tidal energy pertains to the construction industry through four distinguished chapters: (1) What kind of tidal technology exist and what does the construction aspect of these tidal technologies require? (2) What are some of the risks and rewards of building a tidal energy plant and is it profitable for a general contractor? (3) What would make tidal energy a more desirable source of renewable energy when compared to others? (4) What would be considered a good site to develop a tidal energy plant? Hopefully, my research will provide general contractors with a better idea of what tidal energy projects will entail and if it’s a viable option to pursue. Keywords: Tidal Energy, Tidal Energy Plant, Tidal Energy Profitability, Tidal Energy Sites, Renewable Energy Introduction Tidal Energy is an underutilized source of energy. Although it is a form of renewable energy, like solar and wind, it differs in that it is produced from hydropower. More specifically, tidal generators convert the energy obtained from the Earth’s tides into what we would consider a useful form of power (i.e. -
La Rance Barrage
Case Study: La Rance Barrage Project Name La Rance Barrage Location The Rance estuary in Brittany, France Installed capacity 240MW Technology Type Tidal impoundment barrage Project Type/Phase Full scale experimental power plant Year Operational since 1967 Project Description The Rance tidal power plant is located on the estuary of the Rance River, in Brittany, France (Figure 1). Following twenty-five years of research and six years of construction work, the 240MW La Rance Barrage became the first commercial-scale tidal power plant in the world. It was built as a large scale demonstration project for low-head hydro technology. The construction of the tidal power plant started in 1961, and was completed in 1967 1. The Rance estuary has one of the highest tidal ranges in the world (an average of 8 meters, reaching up to 13.5 metres during equinoctial spring tides) which makes it an attractive site for tidal impoundment power generation. The complete barrage is 750m long and 13m high with a reservoir of 22km 2 capable of impounding 180 million cubic meters 1. The structure includes a dam 330m long in which the turbines are housed, a lock to allow the passage of small craft, a rock-fill dam 165m long and a mobile weir with six gates. Before construction of the tidal barrage, two temporary dams were built across the estuary in order to create a dry construction site; an effort which took two years. In July 1963, the Rance was cut off from the ocean and construction of the tidal barrage commenced. This took another three years 1. -
Rivers . North-Tyne, Wear, Tees and Swale
A bibliography of the rivers North Tyne, Wear, Tees and Swale Item Type book Authors Horne, J.E.M. Publisher Freshwater Biological Association Download date 05/10/2021 06:16:41 Link to Item http://hdl.handle.net/1834/22782 FRESHWATER BIOLOGICAL ASSOCIATION A Bibliography of the RIVERS . NORTH-TYNE, WEAR, TEES AND SWALE J. E. M. Horne, OCCASIONAL PUBLICATION No. 3 A BIBLIOGRAPHY OF THE RIVERS NORTH TYNE, WEAR, TEES AND SWALE compiled by J.E.M. Horne Freshwater Biological Association Occasional Publication No. 3 1977 3 Introduction CONTENTS This bibliography is intended to cover published and unpublished Page work on the freshwater sections of the rivers North Tyne, Wear, Tees and Introduction 3 Swale, their tributaries and their catchment areas. References to the 1. Works of general or local interest, not particularly related to South Tyne and to some other rivers in the area have been included when the four rivers 5 apparently relevant, but have not been deliberately sought. No date 1.1 Surveys and general works limits have been fixed, but I have not attempted to cover all the work 1.2 Botany of nineteenth century naturalists, geologists and topographers, and it is 1.3 Zoology likely that some papers published in 1975-76 may not have been seen by 1.4 Hydrology and hydrography 1.5 Geology and meteorology me. I hope to continue collecting references and would be glad to 1.6 Water supply receive copies or notifications of papers omitted and new publications. 2. The River Tyne and its catchment area 12 While I have tried to include all papers which deal with the physics, chemistry and biology of the four rivers, references to the catchment 2.1 Surveys and general works a) The river area are more selective. -
1 Combining Flood Damage Mitigation with Tidal Energy
COMBINING FLOOD DAMAGE MITIGATION WITH TIDAL ENERGY GENERATION: LOWERING THE EXPENSE OF STORM SURGE BARRIER COSTS David R. Basco, Civil and Environmental Engineering Department, Old Dominion University, Norfolk, Virginia, 23528, USA Storm surge barriers across tidal inlets with navigation gates and tidal-flow gates to mitigate interior flood damage (when closed) and minimize ecological change (when open) are expensive. Daily high velocity tidal flows through the tidal-flow gate openings can drive hydraulic turbines to generate electricity. Money earned by tidal energy generation can be used to help pay for the high costs of storm surge barriers. This paper describes grey, green, and blue design functions for barriers at tidal estuaries. The purpose of this paper is to highlight all three functions of a storm surge barrier and their necessary tradeoffs in design when facing the unknown future of rising seas. Keywords: storm surge barriers, mitigate storm damage, maintain estuarine ecology, generate renewable energy INTRODUCTION Accelerating sea levels are impacting the over 600 million people worldwide currently living near tidal estuaries in coastal regions. Residential property, public infrastructure, the economy, ports and navigation interests, and the ecosystem are at risk. Climate change has resulted from the burning of fossil fuels (oil, coal, gas, gasoline, etc.) and is the major reason for rising seas. As a result, conversion to renewable energy sources (solar, wind, wave, and tide.) is taking place. However, tidal energy is the only renewable energy resource that is available 24/7 with no downtime due to no sun or no wind or no waves. The daily tidal variation at the entrance to tidal estuaries is always present and is the driving force for the resulting ecology and water quality. -
Industry in the Tees Valley
Industry in the Tees Valley Industry in the Tees Valley A Guide by Alan Betteney This guide was produced as part of the River Tees Rediscovered Landscape Partnership, thanks to money raised by National Lottery players. Funding raised by the National Lottery and awarded by the Heritage Lottery Fund It was put together by Cleveland Industrial Archaeology Society & Tees Archaeology Tees Archaeology logo © 2018 The Author & Heritage Lottery/Tees Archaeology CONTENTS Page Foreword ........................................................................................ X 1. Introduction....... ...................................................................... 8 2. The Industrial Revolution .......... .............................................11 3. Railways ................................................................................ 14 4. Reclamation of the River ....................................................... 18 5. Extractive industries .............................................................. 20 6. Flour Mills .............................................................................. 21 7. Railway works ........................................................................ 22 8. The Iron Industry .................................................................... 23 9. Shipbuilding ........................................................................... 27 10. The Chemical industry ............................................................ 30 11. Workers ................................................................................. -
Severn Tidal Power
Department of Energy and Climate Change SEVERN TIDAL POWER Feasibility Study Conclusions and Summary Report OCTOBER 2010 Severn Tidal Power Feasibility Study: Conclusions and Summary Report Contents Executive summary .................................................................................................... 4 How to respond ....................................................................................................... 9 1. Background .......................................................................................................... 10 The UK’s wave and tidal opportunity ..................................................................... 10 Tidal Stream ...................................................................................................... 12 Wave ................................................................................................................. 12 Tidal range ......................................................................................................... 13 The Severn ........................................................................................................... 14 Schemes studied .................................................................................................. 16 Progress since public consultation ........................................................................ 18 2. The scale of the challenge ................................................................................... 21 2020 – Renewable Energy Strategy ....................................................................