RK Building Design And Planing Consult

RK Building Design And Planing Consult ARS Home Design & Planning Consultant
ARS Digital Survay আপনাকে স্বাগতম ।

28/03/2021
Sun Comes Down.. . 😊😊😊
28/03/2021

Sun Comes Down.. . 😊😊😊

There are six step ar ROAD CONSTRUCTION MAINTENANCE WORK... 1:Planning – The first step in any road construction and mai...
16/02/2021

There are six step ar ROAD CONSTRUCTION MAINTENANCE WORK...
1:Planning – The first step in any road construction and maintenance project is properly planning and evaluating the needs it is intended to serve. Local traffic patterns both current and future should be studied, and a cost-benefit analysis should be performed by private organizations to ensure they will actually receive good value for their investment in construction. Potential funding, legal, and environmental issues will be brought up at this time as well to address in advance.
2: Design – The next phase in a typical construction and maintenance project is the design. Surveyors will physically visit the site and use laser technology to pinpoint the alignment, shape, and direction of the road. Location, terrain and soil properties, potential water access and drainage issues, and the potential for future expansion in the immediate physical vicinity are all addressed during this portion of the project, as well as potential impact on nearby residents, if any.
3:Earthworks – The earthworks are the first step that most people would recognize as part of a road construction and maintenance project on sight. The intent of this step is to provide a firm, stable foundation that the pavement will then rest on top of. If the earthworks are not executed correctly, the road surface will definitely experience premature failure at some point. Embankments, leveling, fill, compacting, drainage and sewers are all installed and inspected before the project continues – the final step is typically placing 12 inches of gravel on the bed before a final series of compactions to reach the desired height. Employing GRT soil stabilization and dust control products can dramatically cut costs and time spent on this phase of a project.
4:Laying Pavement – Most modern road construction and maintenance projects employ either asphalt or concrete for this purpose, though this is slowly changing as organizations realize the benefits of alternative solutions such as those offered by Global Road Technology. The physical surface of the road is created, smoothed, and trimmed off to the appropriate level, then sealed, connected, and reinforced to prevent cracks in the future.
5:QC – After the surface is successfully constructed, typically another battery of quality control tests will be performed to close out the road construction and maintenance project before it is truly considered finished. Drainage will be checked again, grading levels, landscaping and rehabilitation, and everything else. If all tests get positive results, the road can be opened and is ready to use.
6:Maintenance – Over time, traffic and environmental effects will damage traditional road surfaces, which require rehabilitation. Life expectation of road construction and maintenance projects varies from country to country, but a standard expectation of several decades of service can be expected, with major rehabilitation efforts performed every ten years or so. Another benefit offered by Global Road Technology and their road construction methods is that maintenance is exponentially simpler and less costly, with only a few construction workers and a water truck required to keep things up rather than extensive and expensive efforts every few years.

04/10/2019

Formula of P**i, Bigha and Decimal:

1 P**i = 1 Bigha = 33 Decimal
1 Decimal = 1 Shotangsho (Shotok) = 435.6 Sq Feet (approx)
1 Kattah (or Cottah) = 1.65 Shotangsho (approx)
1 Katha = 165 Ojutangsho (approx)

1 Shotangsho = 100 Ojutangsho
1 Katha = 720 Sq Feet (approx)
20 Katha = 1 Bigha
3 Bighas = 1 Acre approx. (1600 square yards)
4 Kora = 1 Gonda
20 Gonda = 1 Kani
80 Kora = 1 Kani
120 Decimal = 1 Kani

Formula of Square Feet and Kani:

17280 Square Feet = 1 Kani
1619 Square Meter = 1 Kani
40000 Square Links = 1 Kani
7680 Square Hat = 1 Kani
1936 Bargogoz = 1 Kani
40 Acore = 1 Kani

Formula of 8 Hat nol :

12 Nol * 10 Nol = 120 Bargonol

Kani and Gonda as square feet:

17280 Square Feet = 1 Kani = 20 Gonda ( Measurement of 8 Hat nol )
864 Square Feet = 1 Gonda = 4 Kora
216 Square Feet = 1 Kora = 3 Kransti/Kontho
72 Square Feet = 1 Kransti = 20 Til
3.6 Square Feet = 1 Til

Formula of Square Feet and Acore:

1 Chain = 66 Feet
10 Square Chain = (66*660) or 1 Acore = 43560 Square Feet
1 Acore or 100 Shotok = 43200 Square Feet

Formula of Square Link, Acore and Shotok:

1 Chain = 100 Link, So 1 Square Chain = 100*1000 =100,000 Square Link = 1 Acore
1 Acore Or 100 Shotok = 1,00,000 Square Link
1 Shotok = 1,000 Square Link
100 Link = 66 Feet

Formula of Kani and Gonda as Square Link:

1 Kani Or 20 Gonda = 40,000 Square Link
1 Gonda Or 4 Kora = 2000 Square Link
1 Kora Or 3 Kanti = 500 Square Link
1 Kranti Or 20 Til = 160.66 Square Link
1 Til = 8.33 Square Link

Formula of 8 Hat Nol as Square Hat:

1 Kani Or 20 Gaz/Yard = 7680 Bargo Hat
1 Gonda Ot 4 Kora = 384 Bargo Hat
1 Kora Or 3 Kanti = 96 Bargo Hat
1 Kranti Or 20 Til = 32 Bargo Hat
1 Til = 1.6 Bargo Hat

Formula of Kani and Gondar fo 8 Hat Nol as Square Feet:

1 Kani Or 20 Gonda = 17280 Square Feet
1 Gonda Or 4 Kora = 864 Square Feet
1 Kora Or 3 Kontho/Kranti = 216 Square Feet
1 Kontho Or 6 Donto = 72 Square Feet
1 Dondho Or 7 Dhul = 12 Square Feet
1 Dhul Or 30 Renu = 1.71 Square Feet
1 Renu = 0.057 Square Feet

19/03/2019

Weight 1 g = 0.0353 oz
1 oz = 28.35 g
1 kg = 2.205 lbs
1 lb = 0.4536 kg
1 kg = 0.197 cwt
1 cwt = 50.8 kg
1 tonne = 0.9842 long ton
1 long ton = 1.016 tonne
1 tonne = 1.1023 short ton
1 short ton = 0.907 tonne
1 tonne = 1000 kg
1 stone = 6.35 kg

2 unit Typical floor plan 2.20 khata1584sft incomplete design ......
14/03/2019

2 unit Typical floor plan
2.20 khata
1584sft
incomplete design ......

THE INDUSTRY    BUILDING SERVICES IN CONSTRUCTION    LEGISLATIVE AND SUPPORT DOCUMENTS    HEALTH AND SAFETY AT WORK ETC....
27/01/2019

THE INDUSTRY BUILDING SERVICES IN CONSTRUCTION LEGISLATIVE AND SUPPORT DOCUMENTS HEALTH AND SAFETY AT WORK ETC. ACT BUILDING ACT WATER INDUSTRY ACT BRITISH STANDARDS EUROPEAN STANDARDS INTERNATIONAL STANDARDS BUILDING RESEARCH ESTABLISHMENT LOSS PREVENTION CERTIFICATION BOARD DESIGN AND INSTALLATION STANDARDS

Topic: Earthquake Resistant Buildings.  a general introduction to the topic of three-dimensional analysis and design of ...
24/01/2019

Topic: Earthquake Resistant Buildings.


a general introduction to the topic of three-dimensional analysis and design of buildings for resistance to the effects of earthquakes. It is intended for a general readership, especially persons with an interest in the design and construction of buildings under servere loadings. A major part of design for earthquake resistance involves the building structure, which has a primary role in preventing serious damage or structural collapse. Much of the material in this book examines building structures and, specifically, their resistance to vertical and lateral forces or in combinations. However, due to recent discovery of the vertical component of acceleration of greater magnitude in the kobes’ earthquake the original concept of ‘‘lateral force only’’ has changed. This book does advocate the contribution of this disastrous component in the global analytical investigation. When the earthquake strikes, it shakes the whole building and its contents. Full analysis for design layout and type of earthquakes, therefore, must include considerations for the complete building construction, the building contents and the building occupants. The work of designing for earthquake effects is formed by a steady stream of studies, research, new technologies and the cumulative knowledge gained from forensic studies of earthquake-damaged buildings. Design and construction practices, regulating codes and professional standards continuously upgraded due to the flow of this cumulative knowledge. Hence, any book on this subject must regularly be updated. Since the effects are not the same, the earthquake forces are always problematic. Over the years, earthquake has been the cause of great disasters in the form of destruction of property and injury and loss of life to the population. The unpredictability and sudden occurrence of earthquakes make them somewhat mysterious, both to the general public and to professional building designers. Until quite recently, design for earthquakes – if consciously considered at all – was done with simplistic methods and a small database. Extensive study and research and a great international effort and cooperation have vastly improved design theories and procedures. Accordingly, most buildings in earthquakeprone areas today are designed in considerable detail for seismic resistance. Despite the best efforts of scientists and designers, most truly effective design methods are those reinforced by experience. This experience, unfortunately, grown by leaps when a major earthquake occurs and strongly affects regions of considerable development – notably urban areas. Observation of damaged buildings by experts in forensic engineering adds immeasurably to our knowledge base. While extensive research studies are ongoing in many testing laboratories, the biggest laboratory remains the real world and real earthquakes. Design decisions that affect the seismic response of buildings range from broadtohighlyspecificones.Whilemuchofthisdesignworkmaybeperformed

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