Author: DEPARTMENTS OF THE ARMY AND THE AIR FORCE | Size: 2.43 MB | Format:PDF | Publisher: DEPARTMENTS OF THE ARMY AND THE AIR FORCE | Year: 16 SEPTEMBER 1985 | pages: 70 | ISBN: unknown
GENERAL
1-1. Purpose and scope.
This manual, intended for planners and design engineers,
presents information on water quality standards
and design criteria for water treatment processes.
This manual also establishes criteria to be followed in
determining the necessity for and the extent of treatment,
and on procedures applicable to the planning of
water treatment projects. This manual is applicable to
all elements of the Army and Air Force responsible for
the planning and design of military construction,
1-2. Water treatment proiects.
State health department, State water resource, and
U.S. Environmental Protection Agency personnel, as
appropriate, should be consulted in the early stages of
project planning regarding supply sources and associated
water treatment needs. In addition to the usual
treatment that may be required to insure delivery of
potable water, consideration will be given to the need
for special treatment to protect pipelines, water heat,-
ers, plumbing fixtures, and other equipment against
scaling, corrosion, and staining, Because of the widely
varying conditions and the many types of water, it is
not possible to establish criteria for all cases of special
water treatment. Treatment for prevention of scaling
and corrosion may not be entirely effective; and in
many cases a decision as to the necessity of special
treatment cannot be reached prior to actual operating
experiences. In general, special treatment will be provided
only in cases where a study of water analyses
and experience with the water definitely show that
there will be severe corrosion of the water system or
that severe scaling of hot-water heaters, storage tanks,
and other parts of the plumbing system will occur.
Marginal cases will be deferred and treatment provided
only after operating experience determines
treatment to be necessary.
1-3. Water quality criteria and standards.
Information on current criteria and standards for raw
and potable water are presented in appendix A.
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Hydraulic Jump Type Stilling Basins for Froude Number 2.5 to 4.5
Author: NANI G. BHOWMIK Title: | Size: 1.01 MB | Format:PDF | Publisher: STATE WATER SURVEY DIVISION WILLIAM C. ACKERMANN, D.Sc, Chief | Year: 1971 | pages: 35 | ISBN: unknown
Title: Hydraulic Jump Type Stilling Basins for Froude Number 2.5 to 4.5.
Abstract: Hydraulic jump type stilling basins are used to prevent the detrimental effects
of the supercritical flow velocity on the stability of the channel. Laboratory investigations
were conducted for both the ordinary and the forced hydraulic jumps on a horizontal
floor in the Froude number range of 2.5 to 4.5. Data from the ordinary hydraulic jump
correlate well with the theory and other published data. A set of appurtenances (baffle
blocks and an end sill, basin L) for forced hydraulic jump was found to perform satisfactorily.
Comparison of the test data from this basin with corresponding data from the
ordinary hydraulic jump showed that the required tail-water depth can be decreased,
energy loss can be increased, and the jump can be formed in a much shorter basin. A
theoretical relationship has also been developed to predict the turbulent pressure fluctuations
in the stilling basins. Hydraulic design of stilling basins for the Froude number
range of 2.5 to 4.5 can be accomplished with the aid of the criteria developed in
the report.
Reference: Bhowmik, Nani G. Hydraulic Jump Type Stilling Basins for Froude Number
2.5 to 4.5. Illinois State Water Survey, Urbana, Report of Investigation 67, 1971.
Indexing Terms: Baffles, design criteria, energy losses, Froude number, hydraulic jump,
laboratory tests, sluice gates, spillways, stilling basins, tail water, turbulence.
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From the Foreword by Rob Smith, Director of Estates and Facilities (NHS England), Department of Health
‘The built environment for the delivery of Healthcare will continue to change as it responds to new technologies and modalities of care, different expectations and requirements of providers and consumers of care. It is vital that built environment students and practitioners alike avail themselves of the best possible information to guide them in their studies, continuing professional development and the delivery of their tasks. The range is enormous from the assessment of need, planning the service delivery to design, construction, commissioning, maintenance and operation of the healthcare environment.
The book that follows addresses these areas from a blend of contributions of experienced practitioners to the descriptions of the output from recent research that moves forward the frontiers of knowledge and practice in the many areas of the healthcare built environment.
I happily commend this book to all engaged in the exciting fields of planning, delivering, maintaining and operating healthcare environments. When we get it right, we are able to do immeasurable good.’
This book helps academic researchers as well as practitioners to understand how the healthcare infrastructure sector works by addressing the crucial issue of healthcare delivery from a built environment perspective.
It explains the trends in healthcare, models of healthcare delivery; healthcare planning; the NHS building and investment programmes; the procurement process; and facilities management; financial models – including PFI and LIFT; risk allocation and partnering.
Past investigations in the area of healthcare delivery have concentrated on either the medical aspects or the design issues of buildings but Improving Healthcare through Built Environment Infrastructure is unique in considering the ‘meeting space’ of built environment technologies and modern methods of procurement with the medical and operational needs of healthcare settings.
The authors have brought together key industrialists and academics, all heavily involved in the formulation and delivery of new practices. Case studies illustrate how policies and healthcare models are implemented in practice and help identify the key challenges for the future.
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Soils and Geology Procedures for Foundation Design of Buildings and Other Structures (Except Hydraulic Structures)
Author: DEPARTMENTS OF THE ARMY AND THE AIR FORCE | Size: 3.29 MB | Format:PDF | Publisher: DEPARTMENTS OF THE ARMY AND THE AIR FORCE | Year: 21 October 1983 | pages: 204 | ISBN: PIN: 025929-000
This manual has been prepared by or for the Government and, except to the extent indicated below,
is public property and not subject to copyright.
Copyrighted material included in this manual has been used with the knowledge and permission of
the proprietors and is acknowledged as such at point of use. Anyone wishing to make further use of any
copyrighted material, by itself and apart from this text, should seek necessary permission directly from the
proprietors.
Reprint or republication of this manual should include a credit substantially as follows: "Joint
Departments of the Army and Air Force, USA, Technical Manual TM 5-818-1/AFM 88-3, Chapter 7, Soils
and Geology Procedures for Foundation Design of Buildings and Other Structures (Except Hydraulic
Structures), 21 October 1983."
If the reprint or republication includes copyrighted material, the credit should also state: "Anyone
wishing to make further use of copyrighted material, by itself and apart from this text, should seek
necessary permission directly from the proprietors."
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For those who are interested in publishing his work in Journal paper, this slide presentation is very good to guide you on how to write ISI Journal paper. Eventhough the presenter is from mechanical engineering, but the procedure is still the same with our discipline as civil engineering. Hopefully it is useful for you.
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Ferrari World Abu Dhabi-World's largest theme park
Ferrari World is a Ferrari themed amusement park on Yas Island in Abu Dhabi.The park is situated under a 200,000 m2 roof making it the largest indoor amusement park in the world with world's largest space frame roof. Ferrari World officially opened on November 4, 2010. The theme park is home to Formula Rossa, the world's fastest roller coaster.
Architectural Overview
Sitting beneath its iconic red roof in the heart of Yas Island, is the world’s first Ferrari theme park and largest attraction of its kind. The Park pays tribute to the passion, excellence, performance, and technical innovation that Ferrari has established over the years and represents today. To house this state of the art leisure attraction, world renowned architectural firm Benoy created a building to reflect the sinuous form of a Ferrari, directly inspired by the classic double curve side profile of the Ferrari GT body.
Due to the shape of the island and the position of Ferrari World Abu Dhabi in close proximity to the airport, the building was conceived as a very simple ‘ground hugging’ form, peeling up from the landscape in flowing lines like a red sand dune. The visually distinctive form and shape crowns the Yas Marina Circuit and due to its location, the sleek shape and beauty of the building can be experienced by anyone driving past or flying over the Island. The building is a true architectural expression of the values of the Ferrari brand itself.
The iconic roof of Ferrari World was designed by Benoy Architects. It is modelled after the side profile of a Ferrari GT. Ramboll provided the structural engineering, masterplanning and urban design, geotechnical engineering and the facade engineering. The roof has a total surface area of 200,000 m2 with a perimeter of 2,200 m. The theme park, measuring 86,000 m2 , is located under this 50 m high roof. These factors make Ferrari World the largest indoor theme park in the world.
A Ferrari logo adorns the roof of the building and measures 65 m by 48.5 m - the largest Ferrari logo ever created. 12,370 tonnes of steel has been used to support this roof.The centre of the roof is marked by a 100-m glazed funnel. The structure was declared completed on 29 October 2009.
Key facts
• The enclosed volume of air of the upper plaza level is over 3,000,000 cubic metres
• The gross foot print of the plaza level is 86,000 sqm
• The total accommodation of all 3 levels is 176,000 sqm
• The building stands 50m high above sea level, with the central shot ride at a staggering 62.5m high, the highest permissible structure on the flight path to the airport
• The roof structure is over 700 metres in diameter
• The total roof area is 200,000 sqm
• The Ferrari logo on the roof measures an incredible 65 meters in length and covers an area of 3,000 sqm; the biggest Ferrari logo ever created
• The plot the Ferrari World Abu Dhabi building sits on is over 700,000 sqm
• The expansive 48 metre high roof is punctuated by a vast glazed crystal-like funnel measuring 100 metres in diameter at the top, pulling down to just 17 metres diameter at its base
• The central funnel roof is supported on 12 primary columns which form a 12-point Arabic star pattern that is used to describe the primary geometry of the overall roof space and extends out to meet the primary raked shield façade
About Ferrari World Abu Dhabi:
Ferrari World Abu Dhabi is the largest indoor and the only Ferrari theme park in the world, with 20 Ferrari inspired rides and attractions and a priceless collection of more than 30 vintage and contemporary Ferraris. Featuring high adrenaline rides, fun learning attractions suitable for guests of all ages and a unique taste of Italy through its authentic dining experiences, Ferrari World Abu Dhabi is the premier family entertainment centre in the region. Every ride incorporates Ferrari design and technology, offering an engaging and interactive multisensory experience that truly brings the Ferrari story to life. Ferrari World Abu Dhabi is one of the signature features of Yas Island, a 2,500 hectare island dedicated to leisure, entertainment and lifestyle.
Interesting Facts
• The 86,000 SQM enclosed area of Ferrari World Abu Dhabi can fit 7 football fields in ‘head to toe’.
• The roof structure of Ferrari World Abu Dhabi is over 700 meters in diameter, almost double the longest span of the Brooklyn Bridge, or about the length of 7 Statues of Liberty if they were laid out ‘head to toe’.
• The total roof area of 200,000 SQM uses enough aluminum to cover 16,750 Ferrari’s, or if you laid the roof flat you could place 20,100 Ferrari’s side by side and end to end.
• If Ferrari World Abu Dhabi was turned upright, it would be the tallest man made structure in the world at over 300 floors!
• The Ferrari logo on the roof, the largest ever created, measures an incredible 65m in length and covers an area of 3,000 SQM which could fit at least 7 basketball courts.
• The volume of concrete in Hoover Dam could fit inside Ferrari World Abu Dhabi.
• 100,000 cubic meters of concrete were used to pour the slabs of Ferrari World Abu Dhabi, which is 10,000 cubic meters more than what was used for Wembley Stadium in London.
• Ferrari World Abu Dhabi has the largest space frame structure ever built with a total of approximately 172,000 members and 43,100 nodes.
• Ferrari World Abu Dhabi needed 12,370 tons of steel to create its structure; the Eiffel Tower only needed 7,000 tons.
• The enclosed volume of air of the upper plaza level is 3,000,000 cubic meters, equivalent to the total volume of air in 41 hot air balloons.
• The gross footprint area of the plaza level is equivalent to approximately 15 American Football fields.
• The Empire State Building could be rebuilt in the same time it took to clad the 200,000 sqm of roof for Ferrari World Abu Dhabi; approximately 14 months.
• Formula Rossa, the world’s fastest roller coaster, has the same G force one would feel driving in an F1 car and braking at maximum speed.
• Bell’Italia displays more than 40,000 hand-planted miniature trees.
• Ferrari World Abu Dhabi includes 1,200 dining seats – enough to feed the entire park at full capacity in 3 hours.
• A football field needs 8,400 SQM of grass coverage; to cover the area around the roller coasters at Ferrari World Abu Dhabi, 4.5 times that amount was used - approximately 39,000 SQM of ground cover.
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Author: Prof. Sarosh H Lodi | Size: 445 KB | Format:PDF | Publisher: NED UNIVERSITY OF ENGINEERING & TECHNOLOGY, KARACHI
A presentation on Seismic Analysis Concepts.
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Earthquake Mitigation Seismic Retrofit of Buildings
Author: Prof. Dr. S. Farooq A. Rafeeqi | Size: 7.93 MB | Format:PDF | Publisher: NED UNIVERSITY OF ENGINEERING & TECHNOLOGY, KARACHI
A presentation on Strengthening & Seismic Retrofitting of Building Structures.
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The issue of missile impacts on concrete containment buildings (CCBs) of nuclear power plants (NPPs) was subject to intensive research for the first time in the 1970s and early 1980s. During that period a number of missile impact tests, even on a large scale have been carried out, most notably the Meppen Tests in Germany and the Tests at Sandia National Laboratory in the USA. In both tests soft and hard missiles were impacted on large reinforced concrete slabs resembling the CCBs of NPPs build at that time. In parallel quite a number of computational analyses have been performed to predict the results of these tests. For these analyses either empirical formulas or relatively coarse finite difference (FD) or finite element (FE) models even with load curves were used. Due to the limitations of these models the possibility to predict the outcome of missile impact tests was quite difficult. Today quite a number of advanced computational methods and methodologies are available for impact analyses and as a result the issue of missile impact testing has reached a significant level of interest inside the nuclear community again.
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