Mastering Construction/Project Management

Explain the project delivery method (PDM), including owner responsibilities and procurement. Compare separated contracting (design and construction via CM at risk) with combined contracting (design, build, and IPD), highlighting structures.

Explore how construction manager at risk differs from design with bids, with cmr acting as design consultant and later as the general contractor, including early value engineering and constructability review.

Explore value engineering and constructability reviews as collaborative design reviews that help owners, designers, general contractors, and subcontractors optimize cost, quality, safety, and constructability.

Explore the design-build delivery method with a single contract with the design-build entity to design and construct, emphasizing accountability, transparency, and fast-track overlaps in project delivery.

Explore integrated project delivery (IPD), a single contract approach uniting owner, architect/engineer, and general contractor to optimize results, reduce waste, and maximize efficiency across design, fabrication, and construction.

Explain how the agency construction manager acts as the owner's consultant, can operate as a general contractor with multiple prime contracts, and coordinate designers and subcontractors in regular meetings.

Compare separated and combined contracting delivery methods, including design-build with one or two contracts, and explore roles like construction manager at risk and construction manager agency within IPD contexts.

Master project planning, sequencing, and scheduling in construction by detailing objectives, scope, and task lists, and coordinating the project team and owner approvals, permits, and inspections.

Explore how planning drives scheduling, define a clear plan, and outline the work breakdown structure and activity relationships, charting workflows from planning through review and approval.

Learn top down scheduling with work breakdown structure (wbs) and bottom up planning, detailing activities from mobilization to slabs, with clear start and end times to estimate duration.

Develop and manage a work breakdown structure by breaking the project into manageable work elements, defining scope, and detailing levels from activities to work packages.

From planning stages, this lecture explains the relationship between activities, covering production, procurement, and administrative tasks, with location tagging and critical-item considerations to avoid delays.

Explore how activities relate and form the job logic through sequencing and prerequisites. Analyze P1, P2, P3 sequences and the role of the superintendent in planning and implementing tasks.

Explore the precedence diagram method to sequence activities, estimate durations, allocate resources, and manage constraints such as long lead items, equipment limits, environmental and noise restrictions, and emissions.

Explore the main activity relationships in project duration planning, including finish-to-start, start-to-start, finish-to-finish, and start-to-finish, with examples like concrete casting, excavation, and drainage, and define predecessor and successor dependencies.

Explore sequencing with a simple PDM diagram, showing finish-to-start relationships and mobilization and procurement after project start, while the diagram tracks progress and coordinates work.

Determine the schedule using production rates to estimate durations, coordinate crew and equipment movements, and account for subcontractor availability, then apply the critical path method with forward and backward passes.

Master the rules for construction project calculations, including forward and backward passes, and timing concepts like early start, early finish, late start, late finish, and float.

Explain how to perform forward and backward passes to determine earliest and latest start and finish, compute total float, identify the critical path, and assess impacts on liquidated damages.

Master the forward pass in a construction network to compute early start and early finish. Resolve finish-to-start and finish-to-finish relationships and select the latest start.

Compute backward pass to determine late finish and dates by propagating constraints through finish-to-start and finish-to-finish links, then select the appropriate values and compute total float.

Master the critical path method (CPM) and total float concepts to identify the longest activity sequence that dictates project duration, and learn how zero float tasks can delay completion.

Mastering Construction/Project Management presents a forward pass example with activity durations and finish-to-start, start-to-start relationships, then conducts a backward pass to determine project timing.

Perform a backward pass to compute late start and late finish, using finish-to-start and finish-to-finish relationships to select the smallest timing options for the schedule in Mastering Construction/Project Management.

Compute total float and identify the critical path using CPM, analyzing activity delays and their impact on the project completion date.

Master the standard schedule elements, including the work breakdown structure, activity descriptions, durations, calendars, and constraints; learn to use P6 or Primavera to sequence work.

Define each activity in P6 with a clear name, description, and scope. Include location, stage, action, a numeric activity id, and compute duration as quantity divided by production rate.

Learn to estimate production rate, apply finish-by date and start-on constraints, review contract requirements, and manage scheduling with calendars and seasonal limits to keep projects on track.

Explore micro planning, site management, and construction management, and highlight the coordination meeting that aligns bids, notice to proceed, roles, delivery schedules, and risk mitigation.

Organize the job site by planning site access, security, material storage, and working hours. Prioritize pedestrian safety, incident response, and soil type, weather, and runoff controls.

Organize material storage and laydown areas, verify quality and quantity, plan for security, handling, hazardous materials, and supervision under the superintendent while coordinating site access, work hours, and traffic patterns.

Plan for quality and safety in construction projects, implementing formal quality control, NCR procedures, daily inspections, personal protective equipment, toolbox talks, posted emergency numbers, and periodic evacuation training.

Master production methods by simplifying drawings and details, breaking processes into steps, and using off-site prefabrication and assembly line techniques to accelerate installation and improve quality control.

Plan and manage site paperwork with a consistent filing and coding system, preserving project records for at least three years, and tracking logs, reports, submittals, and inspections.

Track drawings and revisions with numbered documents issued through the design architect and engineer, while a superintendent diary records daily activities, observations, and communications for potential disputes.

Assess construction impacts on the environment from design to implementation, including water quality, noise, dust, and traffic, and mitigate them through early planning, waste minimization, and green materials.

Link the look ahead schedule to the original plan and short-term commitments, breaking work into packages to monitor production planning and progress over seven to ten days.

Learn how time management shapes the schedule, tracks progress with reports, and how factors like material shortages, weather, change orders, and force majeure affect productivity and deadlines.

Explore managing multiple schedules—main schedule, look ahead schedule, subcontractor schedule, and milestone schedule—align them to the same durations and use baseline and key dates schedule for reporting progress to owners.

Set upfront the reporting frequency based on project size, from daily to monthly, increase reporting for fast-paced projects, and align progress with actual field progress and schedule using Primavera P6.

Analyze progress reports by inspecting critical activities and paths, monitor total float and free float, and balance shortening the critical path with cost impact to meet the project completion date.

Learn how crash time and fast track techniques affect project duration by expanding resources at minimal cost or shifting activities to run in parallel, with a critical path example.

Explore project crashing to speed up activities by adding shifts or subcontractors, and weigh time versus cost for materials and equipment to achieve schedule acceleration with minimal cost impact.

Apply crash analysis to a construction project network, balancing durations, costs, and dependencies to minimize schedule length and reach the target duration.

Master the crashing of critical path activities to shorten project duration, compare per-day costs (250, 1000, 400) and total crash cost, and choose the most cost-efficient sequence.

Assess options to finish a 40,000 sq ft plastering job in 16 days by weighing overtime, double shifts, or adding crews, using 2,000 sq ft/day and 8-hour workdays.

Compare crashing options to finish work faster while controlling costs, highlighting the added-crew option as most cost-effective. Track productivity, overtime, and shift impacts on total duration and cost.

Update project schedules frequently with flexible scheduling software, monitor night-shift overhead, weather, and productivity, and use E.V. analysis to assess time and cost progress.

Mastering construction project management teaches cost management by turning bids into budgets, assigning cost codes to every activity, and tracking actual costs against the budget to forecast and prevent overruns.

Track cost and schedule information with a reference cost code. Code M for materials, L for labor, E for equipment, and O for other, using CSI muster format.

Monitor and control projects by updating baselines, comparing estimates to actuals, and using timecards, field reports, and invoices to track percentage of completion and manage budget, schedule, and cost.

Master labor cost management through supervision, timecards, and weekly or daily reports to track productivity and costs; use field measurements and cost coding to ensure accurate reporting and cost control.

Learn to manage equipment costs and control by tracking daily and weekly costs, charging direct operating costs to projects using cost codes, and ensuring accuracy through field supervision and timecards.

Analyze material costs and control in procurement, including purchase orders, budgeting, delivery notes, approvals, subcontractor payments, retention, and quality documentation.

Control general overhead by budgeting and tracking fixed, variable, and mixed costs, managing general and administrative expenditures, and aligning contracts and purchase orders to protect profits.

Learn to build cost-loaded schedules, estimate costs for tasks, and spread funds across the duration to determine weekly and monthly costs, including a course load schedule example.

Examine how to use time and cost envelopes to monitor project progress, compare actual versus budgeted costs, forecast completion, and report monthly to senior management with PROCOL.

Explore earned value to measure project efficiency with SPI and CPI, and compute cost and schedule variances and estimates from actual, budgeted, and planned costs.

Apply earned value concepts to monitor cost and schedule by comparing planned completion, earned value, and actual cost using CPI and SPI with a five million budget over nine months.

Define quality in construction and outline quality management, including the roles of the construction manager and superintendent, the quality management plan, total quality management, and quality assurance and quality control.

Emphasizes that quality affects safety, performance, and client trust, and shows how project managers ensure thorough plans, clear specifications, rigorous inspection, and continuous improvement to prevent rework.

Quality shortfalls raise time, cost, and safety risk, undermine profit, and harm a construction firm's reputation; enforce plans, replace nonconforming materials, and pursue total quality management.

Define total quality management as a cooperative system that uses labor and management talents to continually improve quality and productivity through teamwork and delighting internal and external customers.

Learn how quality assurance under the quality management plan sets policies, training, safety, procurement, and subcontracting, while quality control checks conformance through drawings, submittals, mockups, and testing.

Develop a site-specific quality control plan aligned with contracts, detailing submittals, drawings, tests, mockups, and inspections. Require owner, designer, and subcontractor approvals and ensure all work meets specifications.

Learn how construction quality control assigns testing responsibilities, uses third-party labs and standards like ASTM and UL, and relies on checklists, inspections, and nonconformance reports to drive corrective actions.

Learn safety management as the fourth and most important part of project management, with a focus on construction fatalities, incident costs, and outcomes like delays, lawsuits, and higher insurance.

Examine fatal occupational injury trends by industry, focusing on construction safety management, roles like safety managers and health and safety engineers (HSC), and the impact of supervision on site safety.

Safety reports show construction remains dangerous despite progress, highlighting safety training and monday toolbox talks. Older workers are more likely to die in accidents but recover slower.

Learn how the occupational safety and health act of 1972 establishes construction safety standards, OSHA enforcement with citations and fines, and injury data reporting to protect workers and site visitors.

Learn to recognize common incidents like falling objects, electric shocks, and crushing, and manage hazardous materials with SDS, nine classifications, pictograms, and labeling, including confined space safety training.

Highlight leading causes of construction incidents and implement an in-house safety plan with trained safety managers, PPE, hazard awareness, and evacuation procedures.

Identify risks, quantify them, and mitigate to avert negative consequences in construction projects; thorough analysis is needed for larger projects during the design phase, depending on project size.

Identify risks in the pre-bid stage by evaluating owner reputation, payment history, variations, and liquidated damages to judge overall project risk and cash-flow viability.

Examine warranty requirements, contract time, and proximity or familiarity with the area to assess risks while considering margin of safety, contingency up to 10 percent, and joint venture options.

Mastering risk mitigation in construction presents four options: allocate, transfer, avoid, and accept, with subcontracting, insurance, performance bonds, and payment bonds protecting owners.

Master the closeout process by documenting completion, commissioning and testing, and gradually handing over operations to staff to ensure on-time completion and understand cost implications.

Close out the project by completing the punch list, submitting as-built drawings and warranties with all certificates and releases, and handing over operation manuals, extra materials, and final demobilisation plans.

Archive project records for the owner, submit originals of drawings, specs, and operation manuals, keep copies, terminate leases and utilities during close-out, and review profitability and owner cooperation.