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Construction Equipment, Site and Project Operations

Name: Construction Equipment, Site and Project Operations
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Author: Carlos García

How machines, site layout and daily routines combine to produce work

Construction output depends on three systems working together: the machine fleet, the physical organization of the site, and the routines that keep both productive. This reference explains equipment families and their jobs, the soil and productivity arithmetic behind fleet sizing, layout and logistics choices, safety and human factors, and the economics of owning versus renting. It is written for people who plan, operate, supervise or buy construction plant and want clear reasoning behind each decision.

Carlos García, Academic Expert, Technical
21 min read
25 pages

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What you will learn

Classify common construction equipment by its task and its matching rules
Estimate fleet output from production rates, cycle times and fill factors
Judge how site layout and logistics affect productive machine hours
Recognize hazards and human factors that shape safe equipment operation
Compare owning and renting plant using clear cost and utilization logic

vaayaa Guide

vaayaa

Technical · Reference Guide

Construction Equipment, Site and Project Operations

How machines, site layout and daily routines combine to produce work

Carlos GarcíaAcademic Expert, Technical

Orientation

001

What Construction Equipment Does

Construction equipment is the mechanical side of building and civil works. It moves soil, lifts materials, levels ground, compacts fill and places heavy elements. Some machines do one job well and are used for little else. Others are general tools that change role with an attachment. Understanding what each machine is for is the first step toward planning any project sensibly.

Plant is often grouped into two broad families. Earthmoving machines remove, carry, spread and shape ground. Material handling machines lift, transport and place loads, often at height or over distance. The division matters because each family has its own tasks, its own safety rules and its own way of measuring output.

A machine's rated figure describes its best case, not the work it will do on your site.

Output is the quantity of work a machine completes in a period, such as cubic meters of soil moved per hour. The same machine can produce very different output depending on the material, the distance, the operator and the site. For that reason, a machine's rated capacity is only a starting point. Real output must be worked out from conditions on the ground.

Standards for plant operation describe the expected outcomes for these machines. They cover correct operation within manufacturer limits, safe parking, daily checks and reporting of defects. Learning to meet those standards is part of learning the trade.

Earthmoving

Material handling

Support plant

Share of fleet by family (Illustrative)

Orientation

002

How Projects Move Through Stages

Civil construction follows a sequence, and equipment needs change at each stage. Demolition and site clearing come first, removing old structures, vegetation and debris. Earthworks and excavation follow, shaping the ground to design levels. Foundations, structures and services are built next, and pavements and surfacing come last, often with line marking and signs.

Each stage places different demands on the fleet. Early stages depend on heavy earthmoving machines working in large volumes. Later stages rely more on cranes, forklifts and compaction equipment working in tighter spaces. A fleet that suits excavation may be poorly matched to finishing work, so planners look ahead rather than assuming one set of machines covers the whole job.

Equipment choices make sense only when read against the order of the construction stages.

Planning is the process that connects these stages to the machines. It asks what work must be done, in what order, by which equipment and within which time. Good planning also allows for interfaces between teams, since one crew often hands materials, tools or a work front to the next. Delays in handover can idle expensive plant even when the machines themselves are working well.

Reading the sequence this way helps a learner see equipment as part of a chain. A machine's value depends on what comes before and after it in the program of work.

Clear

Excavate

Build

Surface

Typical civil works sequence

Orientation

003

Matching Machines to Tasks

Each machine family has a home task. Bulldozers push and spread soil over short distances. Excavators dig, load and reach into trenches and foundations. Backhoes combine digging with a loader on a small carrier. Wheeled loaders scoop and carry material between stockpiles and trucks. Scrapers cut, carry and deposit soil over longer hauls. Graders shape a surface to fine tolerance. Compactors work fill in layers until density is reached.

Matching is a judgment about fit. A large machine on a tight urban site may cause more trouble than it saves. A small machine on a major earthworks package may take days that a larger unit would finish in hours. The matrix in this section compares how well each type suits common conditions, such as distance, space and the precision required.

Start with the task and the ground, then choose the machine, not the other way round.

Attachments change what a carrier can do. A forklift becomes a lifting tool for pallets, a telehandler reaches over obstacles, and an excavator can take breakers, grapples or augers. Each attachment has its own load limits and its own pattern of use, so changing one is not a casual step. Operators must know the rules for the attachment and the carrier together.

Good matching starts with the task, then the ground, then the machine. Choosing the other way round is a common source of underused or overstressed plant.

	Tight space	Long haul	Fine finish
Excavator	●●●	●	●●
Scraper	●	●●●	●
Grader	●●	●	●●●

Suitability by site condition

Orientation

004

Ways to Think About Plant

Plant can be understood through a few linked ideas. The first is the fleet, the set of machines available for a project. The second is production, the output each machine achieves in a set time. The third is utilization, the share of paid hours spent doing productive work. The fourth is the site system, the layout, roads and routines that let machines work without waiting.

These ideas form a map. Fleet size depends on production. Production depends on cycle time and conditions. Utilization depends on how well the site is arranged and run. A learner who keeps this map in mind can trace a problem back to its source, whether the cause is too few machines, slow cycles or poor site flow.

Fleet, production, utilization and site flow are four views of one system.

The map also shows that equipment is not only a technical matter. Decisions about layout, scheduling and handover involve people and contracts as much as machinery. Documentation of daily work, such as equipment records, belongs to the same system and affects how claims and payments are checked.

Keeping the four parts in view prevents the common error of treating a machine in isolation. Output is a property of the whole arrangement.

Plant
Work

Fleet

Production

Cycles

Utilization

Layout

Routines

Four linked views of plant work

Core Concepts

005

Soil State and Its Effect

Soil is not a fixed material. Its behavior depends on moisture, density and how it has been disturbed. Loose soil fills a bucket differently from compacted soil, and wet clay sticks to a bucket and slows cycles. These changes alter the volume a machine actually moves, which in turn changes how long a task takes.

Engineers and operators describe soil by its state. Bank soil is material in its natural undisturbed position. Loose soil has been dug and has more air between particles. Compacted soil has been worked to a required density. Each state carries a different volume for the same mass, and estimating must account for the conversion between them.

The same cubic meter can weigh and fill very differently depending on how the soil is held.

Terms about soil also appear in specifications and in right-of-way documents, and a competent operator is expected to match these terms to their definitions. Knowing the difference between a soil type and its state lets a crew predict how the ground will respond to machines.

Soil state is one reason real output falls short of nominal figures. A plan that assumes ideal ground will usually underestimate time on site.

Dry loose 40%
Moist 35%
Wet clay 25%

Share of time by soil condition (Illustrative)

Core Concepts

006

Fill Factor and Cycle Time

Productivity is the product of how much a machine carries per cycle and how many cycles it completes per hour. The amount carried per cycle depends on the bucket or load capacity and the fill factor, which is the share of that capacity actually filled. A bucket rated at a given volume may fill only part of that when digging stiff or stony material.

Cycle time is the duration of one full sequence: load, travel, dump and return. Each part is affected by distance, grade, traffic and operator skill. Shortening travel distance or clearing a congested route can cut cycle time more than adding a larger machine, which is why layout and haul roads deserve attention.

Real output equals capacity times fill factor times cycles, minus the time lost to delay.

Put together, the arithmetic is simple. Hourly output equals volume per load times fill factor times cycles per hour, reduced by an efficiency factor for delays. Each term has a nominal value from the manufacturer, and each must be adjusted for the site. A planner who uses only the nominal values will overstate output.

The figures in this arithmetic are estimates that should be checked against observed performance once work begins.

Capacity

Fill
Factor

Cycle
Time

Three factors that set hourly output

Core Concepts

007

Fleet Size from Production

Fleet sizing answers a direct question: how many machines are needed to finish the work in the time allowed. The answer comes from the total quantity of work, divided by the output of one machine over the working period. The result is then rounded up to whole machines and checked against the real capacity of the site.

Habit and loyalty are poor guides. A contractor who always brings the same number of machines may have too many for one package and too few for the next. Sizing from production keeps the fleet tied to the actual work, and it makes changes transparent when quantities or conditions shift.

Size the fleet from the work to be done, then balance the machines that must work together.

Sizing also depends on balance between machines. A fleet of many fast loaders with too few trucks will stop, because loaders cannot unload faster than the haul can carry. The fleet works as a chain, so the slowest matched element sets the pace. This is why a pair of machines is sized together rather than separately.

Once sized, the fleet should be reviewed as conditions change, because a rise in rainfall or a change in haul distance can change the answer.

Observed Check

Site Adjustment

Delay Efficiency

Nominal Rating

Estimates move from nominal to observed

Core Concepts

008

The Continuous Improvement Cycle

Plant performance improves when a site runs a repeating cycle of checking and adjusting. Planning sets the expected output. Operation records what happens. Review compares the two. Adjustment changes routes, schedules or fleet mix before the next period begins.

The cycle keeps decisions tied to evidence. Daily checklists and equipment reports supply the record, and defects are passed to the supervisor so that repairs and service are scheduled rather than improvised. A report that is filled in carefully gives the next review something reliable to compare against.

Plan, operate, review and adjust, then repeat, so that each period starts from better evidence.

Each pass through the cycle should narrow the gap between planned and actual output. If the gap does not close, the cause is usually found in the haul route, the availability of machines or the handover between crews. The cycle makes those causes visible.

Because the cycle repeats, its value grows over a project. Early estimates are rough, but each review produces better numbers for the next package of work.

Plan

Operate

Review

Adjust

Repeating planning loop

Core Concepts

009

Site Layout Process

Layout is the physical arrangement of the site: haul roads, stockpiles, work fronts, parking, refueling and maintenance areas. A good layout keeps machines moving productively and keeps people away from danger. A poor one forces machines to queue, reverse and wait, which wastes paid hours without anyone noticing.

Setting out a layout follows a practical sequence. Begin with the work fronts and the material sources. Connect them with haul routes that are as short, flat and clear as possible. Place stockpiles where loaders can reach them without crossing traffic. Finally, position parking and service points away from active routes.

Lay out the work fronts first, then the routes that connect them, then everything else.

The steps reflect a simple logic: the work defines the route, and the route defines the rest. Changing the order, for example by placing parking first, often produces a layout that looks tidy on a plan but fails in use.

Layout is not fixed. As the works progress, fronts move, and the routes must be redrawn to suit the new position of the work.

Work fronts

Haul routes

Stockpiles

Parking

Layout setting-out order

Core Concepts

010

Logistics and Idle Time

Logistics is the movement of materials, plant and people around the site. Its effect on productivity is large, because a machine that waits for a truck, a load or a clear route is not producing. Idle time is often larger than the working time that gets measured, so reducing it is one of the most reliable ways to raise output.

The flow of work can be read as a sequence of handovers. Material arrives, is staged, is loaded, is moved and is placed. Each handover is a point where delay can build. Crews that coordinate their handovers in advance, using clear signals and agreed timings, keep the flow moving.

Most lost output comes from waiting at handovers, not from machines that stop working.

Communication is central to this. Hand, audible and other signals must be understood by everyone in the work area, and written and verbal reports must reach supervisors promptly. Equipment faults that are caught early avoid breakdowns that stop whole chains of machines.

Logistics therefore links layout, scheduling and communication into one practical concern: keeping the next machine ready when the current one finishes.

Stage

Load

Move

Place

Handover chain on site

Methods

011

Production Estimating Method

A production estimate translates a quantity of work into hours of plant. It begins with the volume to be moved, which is taken from drawings or survey. It then applies a production rate for the machine and conditions, and divides the quantity by that rate to give machine hours. Adding allowances for setup, delay and maintenance gives a realistic total.

The rate should be drawn from the most reliable source available. Manufacturer data gives a starting nominal figure. Site records from similar past work give a better guide, because they reflect local soil, distance and crew skill. Where neither exists, a planner must use a conservative assumption and verify it early.

An estimate is only as good as the rate it uses and the delays it admits to.

Estimates often fail through optimism about delay. Rain, breakdowns, waiting for access and changes in the design are common. A sound estimate includes an explicit allowance for these, rather than hoping the work will proceed without interruption.

The method is most useful when its assumptions are written down, because the assumptions can then be checked as the work progresses.

Productive

Setup

Delay

Maintenance

Share of hours by estimate part (Illustrative)

Methods

012

Scheduling Plant Over Time

Scheduling places machines and crews along a timeline so that work follows the program. Each activity needs machines available at the right time, with the right attachments and operators. A schedule that ignores these needs will show plant arriving before the work face is ready or leaving before its task is complete.

The usual method lays out activities as a sequence of phases, with the start and finish of each. Machine time is then allocated to each phase. Gaps between phases show where machines can move, be serviced or be redeployed, and the timeline makes those gaps visible for planning.

Schedule plant around the work face and reserve time for servicing before a breakdown forces it.

Plant schedules must also allow for servicing. Machines need inspection and maintenance at intervals, and a schedule that does not reserve time for this will be broken by a sudden breakdown. Tracking operating hours helps set the service plan correctly.

A good schedule is a plan that is reviewed often, not a document filed once and forgotten.

Clearing

Excavation

Structures

Surfacing

Demobilize

Plant phases across a project

Methods

013

Comparing Plant Options

Choosing a method often means comparing options against several criteria at once. Output, cost, flexibility and the effort needed to operate the machine all matter, and no single option wins on every count. A structured comparison makes the trade-offs visible and helps the decision stand up to scrutiny.

The matrix in this section rates three illustrative options against three criteria, using a simple scale. Ratings are a planning device, not a measurement. They help a team discuss the balance of advantages, and they should be replaced by real figures wherever those are available.

Compare options on the criteria that matter for this site, and record the reasons for the choice.

Comparison should include the conditions under which each option works best. A machine that is excellent on open ground may be poor in confined space, and the comparison should reflect that rather than assume a universal best choice.

Writing down the reasons for a choice protects the decision. When conditions change, the record shows what was assumed and what should be reviewed.

	Output	Flexibility	Ease
Option A	●●●	●●	●●
Option B	●●	●●●	●●
Option C	●●	●●	●●●

Illustrative option ratings (3 is best)

Methods

014

Managing the Fleet Map

Managing a fleet means keeping track of the machines, their condition, their location and their work. A fleet map brings these together around the central purpose of getting work done. Its branches cover the machines themselves, the cycles they run, the layout that supports them and the routines that keep them operating.

Each branch leads to practical questions. Which machines are available and in what condition? How long does each cycle take on this route? Where do the routes meet and where do they clash? Which daily routines, such as checks and reports, keep the fleet dependable? Answering these keeps the fleet working as a system.

A fleet is managed as a connected system, with records that keep each machine's state visible.

The map also links to records. Equipment checklists and defect reports feed the fleet view, so that the state of each machine is known before a shift starts. Good records prevent the surprise of a machine failing when it is needed most.

Managing a fleet is ongoing. The map should be redrawn whenever machines are added, moved or withdrawn.

Fleet
Care

Machines

Cycles

Layout

Checks

Reports

Handover

Fleet management branches

Methods

015

Owning Versus Renting Plant

A project must decide whether to own machines or rent them. Ownership brings capital cost, storage, depreciation and maintenance, but it offers availability and control. Renting avoids those fixed costs and allows flexibility, but it adds rental charges and depends on the supplier's fleet and timing.

The decision turns largely on utilization. A machine used most of the year may be cheaper to own, while one needed for a short package is usually cheaper to rent. The break-even point is the level of use at which owning and renting cost the same, and it is found by comparing annual fixed costs against hourly rental charges.

Own plant that is used steadily; rent plant needed only for short or uncertain demand.

Other factors matter too. Owned plant can be modified and kept on a known maintenance schedule. Rented plant transfers some maintenance risk to the supplier, though the operator still has to check it daily. The right choice depends on the mix of projects a company undertakes.

The donut chart shows an illustrative split of a fleet between owned and rented plant. It is an example, not a benchmark.

Owned 60%
Rented 30%
Leased 10%

Illustrative fleet ownership mix (Illustrative)

Methods

016

Shared Ground: Crew, Machine and Site

Three things must overlap for work to proceed: the crew, the machine and the site. Each circle represents one of them. Their overlap is the point where productive work happens. A machine without a trained operator, a crew without a usable machine, or a site without a clear work face cannot produce output on its own.

Understanding the overlap helps diagnose problems. When output falls, the cause often lies in whichever circle is weakest. A crew may be untrained for a new attachment. A machine may be waiting for a repair. A site may lack a route, so the other two cannot meet at the work face.

Output appears only where the crew, the machine and the site are all ready at the same place.

The overlap also explains why improvements must be coordinated. Buying a faster machine does nothing if the site cannot feed it. Adding crew without a machine adds cost without adding output. Gains are largest when all three improve together.

Keeping the three in balance is a recurring task across a project.

Crew

Machine

Site

Where productive work happens

Applications

017

Layers of Site Safety

Safety on a construction site is built in layers, with the most important controls at the base. At the top are individual protective equipment and personal conduct. Below them are procedures, training and supervision. Under those lie the physical barriers, signage and traffic control that separate people from machines. The base is the design of the site and the plant itself, which removes hazards before they reach a person.

This ordering reflects a practical principle: the more a control depends on a person remembering to act, the less reliable it is. Designing out a hazard, such as keeping pedestrians away from haul roads, protects people even when they are tired or distracted.

Design hazards out of the site first, and rely on personal protection as the last layer.

Hazards specific to operating plant include damage to machine and property as well as injury to people. Blind spots around heavy machines, pinch points, slips and falls, and contact with power lines all call for clear controls. Machines must also be secured after hours so that unauthorized use is prevented.

Applying the layers in order gives the strongest protection for the least reliance on luck.

Protective equipment

Procedures training

Barriers signage

Site plant

Control layers, strongest at base

Applications

018

The Operator Safety Routine

A safe shift follows a repeating routine: inspect, prepare, operate, park and report. Each stage guards against a different failure. Inspection finds faults before they cause harm. Preparation checks the work area, the route and the attachment. Operation keeps the machine within manufacturer limits. Parking leaves it safe, and reporting passes defects on.

The routine is circular because the report at the end feeds the inspection at the start of the next shift. A defect noted in the evening is checked the next morning, so the record closes its own loop. Skipping the report breaks the loop and leaves a fault in visible.

Every shift should close its loop: inspect, operate, park, then report the faults you found.

Fatigue is a hazard that the routine must cover. Operators who are tired misjudge distances and reactions, so supervisors watch for signs of fatigue and arrange rest. Managing fatigue is a shared duty, not a matter for the individual alone.

Parking on firm, level ground with the attachment lowered and the brakes applied is part of the same routine. Many incidents happen when a machine is left in an unsafe state.

Inspect

Prepare

Operate

Park

Operator shift routine

Applications

019

Handling a Plant Defect

When a defect is found, a set sequence limits the damage. The operator stops work safely, isolates the machine if needed, and informs the supervisor. The defect is then classified as minor, such as a loose clamp or weak battery, or major, such as a burst hydraulic hose or a leak in the fuel or cooling system. The classification determines the response.

Minor defects can often be corrected on the spot or scheduled for the next service. Major defects normally take the machine out of use until a qualified person has repaired it and approved its return. Clear classification prevents both overreaction to small faults and dangerous continuation with serious ones.

Stop, isolate, classify and report every defect so that minor faults never turn into major ones.

Documentation completes the process. The defect, its classification and the action taken are recorded so that patterns can be seen over time. A machine that repeatedly shows the same fault points to a deeper cause that needs investigation.

Handled this way, a defect becomes information rather than a hidden risk.

Stop work

Isolate

Classify

Report

Repair

Defect response sequence

Applications

020

Reading a Daily Equipment Record

A daily equipment record shows which machines were working, for how long, and what they did. It supports payment, planning and safety. When a project pays by the day for each machine on site, the accuracy of this record determines what the owner is charged, so it must be kept honest.

Common errors in records include recording a machine that was not present, failing to correct an earlier mistake, or estimating a count instead of checking it. Each error may seem minor, but together they can inflate charges. A record that is corrected openly, with the reason noted, protects everyone involved.

A daily record is an honest account of the day, and it should be corrected openly when it is wrong.

Records also feed back into planning. A pattern of machines standing idle shows where the flow broke down. A pattern of frequent defects shows which machines need attention. The record is therefore a management tool as well as an accounting one.

Treating the record as a true account of the day is a basic professional habit.

Observe

Count

Record

Verify

Daily record flow

Applications

021

Production Rates in Practice

Output figures move with conditions. Across the same project, a machine may move considerably more material in favorable ground than in difficult ground, and it may lose much of its output to waiting, poor routes or delays. The bars show an illustrative comparison of how real output can fall short of nominal capacity under different conditions.

The lesson is not that the numbers are precise. It is that a planner who assumes the nominal figure will consistently overestimate what can be achieved. Taking the realistic share of nominal capacity, based on past records and honest allowances, gives a plan that holds.

Plan with realistic output, not nominal capacity, and correct the estimate as real data arrives.

Measuring real output is an ongoing discipline. Compare planned against actual hours at regular intervals, and adjust the next estimate accordingly. Each adjustment narrows the gap between the plan and the site.

In this way, the rate used in the plan becomes a learned value rather than a guess.

Favorable

Average

Difficult

Wet

Illustrative output as share of nominal (Illustrative)

Practice and Review

022

Practice Timeline: A Week on Site

This page walks through a typical week, so that the earlier ideas can be seen working together. On the first day the site is surveyed and the layout is confirmed. The second day brings clearing and the first routes are set. Earthworks run through the middle of the week, with daily records kept carefully. Late in the week, handover to the next team is planned so that machines do not stand idle.

The sequence is only a model. A real week will include delays, defects and changes, and the plan must absorb them. What matters is that each step has a clear purpose and an owner, so that when something slips, it is clear what should be reviewed.

A good week on site links fleet, layout, safety and records into one repeating rhythm.

Working through the week also shows where the main ideas connect. Fleet sizing decides how many machines are present. Layout decides the routes. Safety routines open and close each shift. Records confirm what happened, and the review at week's end feeds the plan for the next.

A learner who can narrate such a week has grasped the whole system rather than its parts.

Survey

Clear

Routes

Earthworks

Handover

Review

Model week on site

Practice and Review

023

Practice Matrix: Matching Decisions

The final practice matrix asks you to judge fit in concrete cases. Each row is a common decision: choosing a machine for a tight urban excavation, a long haul of material, or a finishing grade. Each column is a criterion that a good choice must meet. Rating the options reinforces the habit of checking every decision against the site.

Use the matrix by asking two questions in each cell. Does this machine suit this condition? And what would change the rating? If conditions change, the best choice changes too. A strong practitioner rechecks the ratings when the site, the weather or the work package moves on.

Rate each choice against the site, then ask what would change the rating.

The matrix is deliberately simple. Its value lies in the reasoning it prompts, not in the numbers themselves. Writing a short justification beside each rating turns the exercise into a record that others can review and challenge.

Practice of this kind builds the judgment that the trade depends on.

	Space	Distance	Precision
Urban dig	●●●	●	●●
Long haul	●	●●●	●
Finish grade	●●	●●	●●●

Practice ratings (3 is best)

Practice and Review

024

Closing Review of the Whole System

This reference has followed one idea from start to finish: construction output comes from machines, site and routines working together. The first pages set out equipment families and the stages they serve. The middle pages developed the arithmetic of soil, fill factor, cycle time and fleet sizing, along with layout, logistics and scheduling. The later pages turned to safety, records and the economics of owning and renting.

The same handful of ideas recur throughout. Start from the task, not the machine. Measure real output, not nominal capacity. Balance the machines that must work as a chain. Design hazards out before relying on personal protection. Keep records honest so that decisions can be checked. Review and adjust in a repeating cycle.

Hold the three systems of machines, site and routines together, and the rest follows.

A learner who holds these ideas can read a new site and ask the right questions quickly. The specifics will change with each project, but the logic of fleet, site and routine does not.

Continue by applying the ideas to real work, and by checking your estimates against what actually happens on the ground.

Plant
Systems

Task
first

Real
output

Balanced
chain

Hazards
out

Honest
records

Review
cycle

Core ideas to carry forward

References

025

References and Learning Sources

vaayaa References

vaayaa Research Team, vaayaa Sprouter discourses on Construction Equipment, Site and Project Operationshttps://vaayaa.com/sprouter
vaayaa Statistics, vaayaa News on Site Reliability Engineeringhttps://vaayaa.com/news
vaayaa Editorial Team, vaayaa Sprouter discourses on Construction and Heavy Equipment Manufacturinghttps://vaayaa.com/sprouter
vaayaa Research Desk, vaayaa News on Civil, Structural and Construction Engineeringhttps://vaayaa.com/news

Learning Sources

Micro Degree Construction Equipment, Site and Project Operationshttps://vaayaa.com/course/construction-equipment-site-and-project-operations
Micro Degree Site Reliability Engineeringhttps://vaayaa.com/course/site-reliability-engineering
Micro Degree Construction and Heavy Equipment Manufacturinghttps://vaayaa.com/course/construction-and-heavy-equipment-manufacturing
Micro Degree Civil, Structural and Construction Engineeringhttps://vaayaa.com/course/civil-structural-and-construction-engineering
Micro Degree Project and Program Managementhttps://vaayaa.com/course/project-and-program-management

Construction Equipment, Site and Project Operations

What you will learn

Contents

What Construction Equipment Does

How Projects Move Through Stages

Matching Machines to Tasks

Ways to Think About Plant

Soil State and Its Effect

Fill Factor and Cycle Time

Fleet Size from Production

The Continuous Improvement Cycle

Site Layout Process

Logistics and Idle Time

Production Estimating Method

Scheduling Plant Over Time

Comparing Plant Options

Managing the Fleet Map

Owning Versus Renting Plant

Shared Ground: Crew, Machine and Site

Layers of Site Safety

The Operator Safety Routine

Handling a Plant Defect

Reading a Daily Equipment Record

Production Rates in Practice

Practice Timeline: A Week on Site

Practice Matrix: Matching Decisions

Closing Review of the Whole System

References and Learning Sources

vaayaa References

Further Reading

Learning Sources

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