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Collections of worksheets available for purchase from the PTC e-store:
- Building Structural Design - solves typical problems encountered in the structural design of buildings
- Building Thermal Analysis - covers the major topics of heat transfer and thermal dynamics in buildings
Worksheets marked with use PTC Mathcad premium features, otherwise they are Express compatible. All worksheets created in PTC Mathcad Prime 2.0.
| Worksheet name | Description | |
|---|---|---|
| Anchored Bulkheads | Computes net pressures on the bulkhead, required depth of embedment of the sheet piles, maximum bending moment and the bending moment at the tie rod anchor point. | |
| Applying the Momentum Equation to Determine Water Depth between Bridge Piers | This worksheet shows the application of the momentum equation to determine the water depth between bridge piers. For this problem, the pier width, upstream depth of the river and velocity, and the drag coefficient of the piers are given. The worksheet shows you how to find the depth of flow downstream of the bridge piers so that the flow regime remains subcritical. | |
| As Driven Pile Group Analysis | Locates the centroid of axially loaded, as driven pile groups, calculates the eccentricities between the column center and the centroid of the pile group. | |
| Beams with Uniform Load and End Moments | Calculates the maximum positive bending moment, the maximum deflection, and the points of inflection for a beam with a uniformly distributed load and applied end moments. | |
| Calculating the Tensile Stress and Tensile Forces in the Bolts of a Flange Pipe | This worksheet using PTC Mathcad looks at a problem where a portion of a pipe containing two discharges is bolted to the remainder at the flange and is interested in solving for the tensile forces in the bolts at the flange required to hold the pipe in place. | |
| Comparing Air Pressure and Elevation for Air Volume Calculations | This worksheet shows you how to compare the air pressure versus elevation when calculating the air volume in an air and aerated mud drilling. | |
| Composite Beam Section Properties | Calculates the horizontal shear and section properties for composite steel beam and concrete slab sections with solid slabs, composite steel decks, or haunches. | |
| Continous Beams: Flexural Reinforcement | Calculates bending moments for continuous rectangular or T-shaped beams using ACI coefficients and determines the required number and size of reinforcing bars. | |
| Continous One Way Slabs | Calculates bending moments using ACI coefficients, and determines the required reinforcing-bar spacing for continuous one way slabs. | |
| Design of Flat Plates for Shear | Computes the section properties of the peripheral shear area around square or rectangular, interior, exterior or corner columns, useable shear stress at factored load, and the shear stresses at the four corners of the shear area due to axial load and bending moments about one or both axes. | |
| Direct Design Moments and Flexural Reinforcement | Calculates the service loads, the factored loads, the bending moments and the required flexural reinforcement for two-way reinforced concrete slab systems of uniform thickness. | |
| Effective Lengths and Critical Loads | Calculates the effective length factors and critical loads for rectangular columns in braced or unbraced frames. A single story, all stories, or selected stories may be entered. | |
| Elastic Effective Length Factors | Computes elastic effective length factors for braced or unbraced frames using PTC Mathcad solve blocks to solve the equations for effective length factors, eliminating the need to use the alignment chart in the AISC Standards Commentary. | |
| Example of Solving a Set of Coupled, Non-linear Equations with Units | This worksheet illustrates PTC Mathcad's ability to solve a set of nonlinear coupled equations for several unknowns, where the unknowns each have different units. | |
| Finding Channel Height, Channel Width, and Velocity of Water | This worksheet using PTC Mathcad models the low water crossing geometry as a trapezoid to find the height, width, and velocity of the water in a channel. | |
| Finding the Shear Force and Bending Moment Along a Beam | This worksheet using Mathcad provides you with an example of how the shear force and the bending moment along a simply supported beam can be determined as a function of the distance from one end. | |
| Inelastic Effective Length Factors | Computes the stiffness reduction factors for inelastic behavior (Table A, page 3-8 of the AISC Manual), the stiffness ratios at the ends of the column (G values), and the effective length factor k for sidesway permitted. | |
| Material Properties, Development, and Splice Lengths | Determines factors and properties and defines constants required to compute shear strength, flexural strength, minimum thickness, and the development and splice lengths of reinforcing bars. | |
| Measuring Traffic Flow and EAL for Vehicles | This worksheet using PTC Mathcad performs calculations to measure the traffic flow and evaluation assurance level for normal trucks and construction vehicles. The EAL is a security evaluation that measures functional, structural, and methodological efficiency for an IT system and in this instance is applied for vehicles. | |
| Moment Magnification | Computes moment magnifiers for a square or rectangular column, either subject to sidesway, or braced to prevent appreciable sidesway. Moments computed by an ordinary first order frame analysis are then multiplied by the applicable moment magnifier to obtain the moments to be used for design. | |
| Pile Cap Configurations | Calculates pile coordinates and pile cap plan dimensions for pile groups with 2 to 20 piles. | |
| Pile Footings | Determines minimum required pile cap thickness and the maximum size and minimum number of reinforcing bars for pile caps with from 2 to 20 piles in a group. | |
| Rectangular Tied Columns | Determines the complete range of usable factored axial load and moment for a square or rectangular column of any size, reinforced with any number and size of reinforcing bars, and with any concrete and reinforcement strengths permissible. | |
| Reinforced Concrete Beams: Size Selection | Determines the sizes of rectangular beams to satisfy the flexural requirements, shear requirements and minimum thickness limits of ACI 318-89. | |
| Reinforced Concrete Retaining Walls with Level or Surcharged Backfill | Determines required footing width, footing thickness, wall thickness and reinforcement areas for retaining walls with a level backfill, with or without a surcharge. | |
| Reinforced Concrete Retaining Walls with Sloping Backhill | Calculates required footing width, footing thickness, wall thickness and reinforcement areas for retaining walls with sloping backfill. | |
| Reinforced Concrete Section Properties | Calculates gross section moment of inertia neglecting reinforcement, moment of inertia of the cracked section transformed to concrete, and effective moment of inertia for T-beams, rectangular beams, or slabs. | |
| Risk Probability and Flood Proofing a Bridge Over a River | This worksheet using PTC Mathcad provides you with a scenario of a bridge that is built over a river. | |
| Section Properties of Built-Up Steel Sections | Computes the moment of inertia and section modulus for a steel section that has at least one axis of symmetry built-up from plates. | |
| Seism Loads Using ASCE Standard 7-93 | Computes the seismic forces, shears, and overturning moments at each level of a building, following the Equivalent Lateral Force Procedure of Section 9.4 of ASCE Standard 7-93. | |
| Seismic Loads Using Uniform Building Code '91 | Calculates the seismic loads at each level of a building, following the static force procedure of the Uniform Building Code, 1991 Edition. | |
| Shear Capacity of Welded Studs | Calculates the shear capacity of 1/2", 5/8", 3/4" and 7/8"-diameter welded studs in a flat soffit slab of normal weight concrete. | |
| Shear Reinforcement | Computes the spacing for shear reinforcement of a concrete beam supporting a uniformly distributed load.The application uses the strength design method of ACI 318-89. | |
| Simple Span Beams | Computes the reactions and the maximum bending moment for simple span beams loaded with any practical number of uniformly distributed and concentrated loads. | |
| Single Span Beams - Shear and Moment | Computes the reactions and the maximum bending moment, and plots the shear and bending moment for a single span beam, with or without end moments, loaded with any practical number of uniformly distributed and concentrated loads. | |
| Spread Footings | Calculates the footing thickness required for shear and flexure, and the maximum size and minimum number of reinforcing bars for square or rectangular column or wall footings. | |
| Steel Column Base Plates | Computes section properties, slenderness ratios, actual and allowable axial and bending stresses, amplification factors and moment modifiers, and the beam-column interaction equations of the AISC Specification, for hollow circular tubes or pipe column sections with axial load and end moments about one or both axes. | |
| Steel Pipe Columns | Computes section properties, slenderness ratios, actual and allowable axial and bending stresses, amplification factors and moment modifiers, and the beam-column interaction equations of the AISC Specification, for hollow circular tubes or pipe column sections with axial load and end moments about one or both axes. | |
| Tubular Steel Columns | Allows the user to rapidly check trial sections by entering only the width, depth and tube wall thickness of trial sections. All necessary section properties and parameters required are then computed by the application. | |
| Using Cubic Splines to Determine Characteristics and Efficiency of a Pump | This worksheet provides you with an example of a problem where you need to determine a pipe operation point in terms of head and discharge, operation efficiency, suitability of the pump chosen, and input horsepower to the pump. | |
| Using the Finite Element Method on Truss Structures | This PTC Mathcad calculation shows how to design a warehouse based on a steel beam structure. Truss design is commonly taught in engineering courses, but based on a hand calculations approach. Instead, this worksheet uses a robust and error-checking method that can be performed automatically and repeatedly. | |
| Wide Flange Columns | Allows the user to rapidly check trial sections and to determine that the standards of the AISC Specification, Eqs. (H1-1) and (H1-2), are met. For input, the user only needs to enter the flange width, the section depth and the section weight. | |
| Wind Loads Using ASCE Standard 7-93 | Computes the wind pressures on the windward wall, leeward wall, side walls and roof, and the net wind pressures and loads at specified height intervals, for a square or rectangular building with a flat roof. |