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ASDIP FOUNDATION 4 Is Coming Soon: A Brief Overview

By: Javier Encinas, PE | January 22, 2020 ASDIP FOUNDATION is a structural engineering software for design of concrete footings. The new version of this software will be released shortly. This document is a brief overview of some of the most important new features included in ASDIP FOUNDATION 4. ACI 318-14 Compliance ASDIP FOUNDATION now fully complies with either ACI 318-11 or 14. Custom Load Combinations Now you can specify your load factors and create a set of custom load combinations. When you have defined a set of load combinations you can save that set for future use. This is [...]

By |2020-01-22T21:07:38-05:00January 22nd, 2020|Categories: Foundation Design|0 Comments
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Base Plate and Anchor Rod Design Overview

By: Javier Encinas, PE | January 15, 2020ASDIP STEEL includes column base plate design as well as the anchorage system to the concrete support, based on the AISC Design Guides # 1, the Blodgett's"Design of Welded Structures" textbook, and the ACI 318 code. This article provides an engineering background on the current design philosophy of column base plates and anchor rods.Base plates are structural elements at the bottom of columns to spread the concentrated load over a larger supporting area, so that the bearing stresses are under the acceptable limits. Depending on the type of frame the column belongs to, the [...]

By |2020-01-15T09:35:22-05:00January 15th, 2020|Categories: Anchor Rods|Tags: , , , |5 Comments
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Shear Lug Design Example Using ASDIP STEEL

By: Javier Encinas, PE | December 17, 2019Shear lugs are steel elements welded to the underside of base plates to resist shear loads. ASDIP STEEL is a structural engineering software for the design of steel members. It includes the design of shear lugs based on the ACI 349 anchorage provisions. This document is a step-by-step shear lug design example using ASDIP STEEL software.Shear lug design exampleAs an example, consider the base plate shown below, which supports a column in an industrial building. The column is not heavily loaded but it's subject to the action of lateral loads. The column is [...]

By |2019-12-17T18:30:50-05:00December 17th, 2019|Categories: Anchor Rods|0 Comments
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Steel and Composite Beam Design Overview

By: Javier Encinas, PE | November 26, 2019ASDIP STEEL includes the design of steel non-composite or composite beams. This structural engineering software is based on the latest AISC 360 provisions. This article provides an engineering background overview of steel and composite beam structural design.Beams are structural elements that support loads applied transversely, which produce a combination of shear and bending stresses. Steel beams can be designed as non-composite or as composite beams. If non-composite, the loads are resisted by the steel beam alone.Composite action is developed when two load-carrying structural elements, such as a concrete floor slab and its supporting [...]

By |2019-11-26T19:32:54-05:00November 26th, 2019|Categories: Structural Steel Design|0 Comments
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Cantilever Retaining Walls: Overview of the Design Process

By: Javier Encinas, PE | November 6, 2019 Retaining walls are structures designed to bound soils between two different elevations, therefore they are mainly exposed to lateral pressures from the retained soil plus any other surcharge. Competent design of retaining walls can maximize land use and substantially increase property value. This article discusses the required steps in the design of either concrete or masonry un-piled cantilever retaining walls. Our software ASDIP RETAIN will be used to support the discussion. A typical retaining wall has four main components: the Stem is the vertical member holding the backfill, the Toe is the portion [...]

By |2019-11-06T09:10:27-05:00November 6th, 2019|Categories: Retaining Wall Design|0 Comments
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Continuous Concrete Beam Design: A Structural Challenge

By: Javier Encinas, PE | October 23, 2019ASDIP CONCRETE is a structural engineering software for design of concrete members. It includes the design of multi-span continuous beams based on the latest ACI 318 provisions. This article discusses the steps in the structural design of concrete continuous beams subject to concentrated and distributed loads.What is a continuous concrete beam?Beams are structural elements that support loads applied transversely to the beam axis, which produce a combination of shear and bending stresses. Concrete beams are usually continuous, this is, they span between multiple supports acting structurally as a single element. This is possible [...]

By |2019-11-19T14:14:24-05:00October 23rd, 2019|Categories: Structural Concrete Design|Tags: , |8 Comments
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Spread Footings Under Biaxial Bending: A Complex Design

By: Javier Encinas, PE | October 9, 2019 ASDIP FOUNDATION is a structural engineering software for footing design. It includes the design of concrete spread footings based on the latest ACI 318 provisions. This article discusses the complexities inherent to the design of spread footings when subjected to a combination of vertical and horizontal loads, and biaxial bending. For a simple spread footing with a vertical concentric compression load, the resulting bearing pressure is uniform and the shear and bending can be calculated easily by hand. If the column is at the corner of a building, then biaxial moments could [...]

By |2019-11-07T15:53:01-05:00October 9th, 2019|Categories: Foundation Design|Tags: , |2 Comments
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Eccentric Combined Footing Example Using ASDIP FOUNDATION

By: Javier Encinas, PE | October 1, 2019ASDIP FOUNDATION is a structural engineering software for the design of concrete footings. It includes the design of combined footings, based on the ACI 318 provisions. This document is a step-by-step design example of an eccentric combined footing using ASDIP FOUNDATION software.Combined footing exampleAs an example, consider the combined footing shown below, which is part of the foundation of an industrial building. The left column is very close to the property line and it has a relatively light load compared to the adjacent interior column. Design the size, thickness and reinforcement of a [...]

By |2019-11-20T10:00:44-05:00October 1st, 2019|Categories: Foundation Design|Tags: , |0 Comments
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Retaining Walls: Are You Calculating the Passive Pressure Correctly?

By: Javier Encinas, PE | Sept 23, 2019 Retaining walls are structures designed to bound soils between two different elevations, therefore they are mainly exposed to lateral pressures from the retained soil plus any other surcharge. In addition to the friction at the base, most retaining walls rely on the passive pressure at the front of the wall to prevent sliding problems. This article discusses the factors that may affect the calculation of the passive pressure in a retaining wall design. Our software ASDIP RETAIN will be used to support the discussion. What exactly is the passive pressure? When the [...]

By |2019-11-16T08:23:12-05:00September 23rd, 2019|Categories: Retaining Wall Design|Tags: , , |0 Comments
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Cantilever Retaining Walls: How to Calculate the Sliding Safety Factor

By: Javier Encinas, PE | Sept 10, 2019 Retaining walls are structures designed to bound soils between two different elevations, therefore they are mainly exposed to lateral pressures from the retained soil plus any other surcharge. Cantilever walls may be sensitive to sliding problems, particularly if founded on poor soils. This article discusses how to calculate the sliding safety factor in cantilever retaining walls. Our software ASDIP RETAIN will be used to support the discussion. What are the pressures acting on a retaining wall? In addition to the retained backfill, retaining walls may be subject to surcharge loads at the [...]

By |2019-11-16T08:43:49-05:00September 10th, 2019|Categories: Retaining Wall Design|Tags: , |0 Comments
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