Albuquerque metro

Structural Concrete Construction in Albuquerque, NM

Grade beams, piers, columns, elevated slabs and equipment pads built to stamped engineering drawings and inspected the way the design requires.

Request a consultation

Project photography pending

Completed structural concrete work will be shown here

Structural Concrete Construction, done for high-desert conditions

Structural concrete is the work where the drawings have an engineer's stamp on them and the concrete is carrying load that someone calculated. That includes grade beams spanning between drilled piers, caissons on difficult soils, columns, elevated slabs and decks, shear and structural walls, and equipment pads for mechanical units, generators or industrial machinery. It shows up on custom homes with complex foundations, on commercial and light-industrial buildings, and on residential projects where a deck, a hillside garage or a heavy piece of equipment needs more than a standard slab. The common thread is that the work has to match the design exactly, and the paper trail has to prove it.

Building to engineered drawings means rebar is fabricated and placed to the detailing, including bar sizes, spacing, laps, hooks, cover and embedded items, and that all of it is in place and checked before concrete arrives. On many projects, the engineer or building official requires special inspections of reinforcing and placement, and field testing during the pour: slump to check workability, air content for exterior or freeze-exposed elements, concrete temperature, and cylinders cast for strength testing at specified ages. We work alongside the general contractor, the engineer of record and the testing agency, flagging conflicts in the drawings through requests for information rather than improvising in the field.

Our climate adds its own engineering problem. Summer pours can face high concrete temperatures, wind and very low humidity that accelerate set and moisture loss, and winter pours face overnight freezing that can damage young concrete. For structural elements, those conditions get a written plan informed by ACI hot- and cold-weather concreting practice: when to schedule the pour, mix adjustments approved by the engineer, how the concrete will be protected and cured, and how temperatures will be monitored. That planning is part of delivering the strength the engineer designed for, not an afterthought.

Signs you need structural concrete

Your plans call for piers, caissons or grade beams
Sites with collapsible soils, slopes or deep fill often move to drilled piers and grade beams. That work needs a contractor comfortable with engineered details and inspections.
You're building an elevated slab, deck or hillside garage
Concrete that spans over open space depends on shoring, reinforcing and timing being right. It's structural work from the first form to the last shore removed.
You need a pad for heavy equipment
Generators, chillers, transformers and industrial machines may need pads designed for weight, vibration and anchorage, often with specific embeds and tolerances from the equipment manufacturer.
Your commercial or light-industrial project requires special inspections
If the drawings list special inspections and testing, you need a concrete contractor who plans around them, keeps the inspector informed and doesn't pour until reinforcing is signed off.

Our structural concrete process

01
Drawing review and coordination
We review the structural drawings, specifications and geotechnical report, identify conflicts or missing details, and submit questions to the engineer of record. We coordinate schedule, access and embedded items with the general contractor and other trades.
02
Submittals and pour planning
Mix designs, rebar shop drawings and any required submittals go to the engineer for review. We build a pour plan covering sequence, placement method, pump or crane needs, construction joints and hot- or cold-weather measures.
03
Excavation, drilling and forming
Piers and caissons are drilled to the specified depth and bearing, grade beam trenches are cut, and forms and shoring are built for walls, columns and elevated slabs. Shoring for elevated work is set up to the design or a shoring engineer's layout.
04
Reinforcing, embeds and inspection
Rebar is placed to the shop drawings with correct cover, laps and supports, and anchor bolts, sleeves and embeds are set and checked. Required special inspections and building inspections happen before the pour is released.
05
Placement, testing, curing and documentation
Concrete is placed and consolidated with the testing agency on site for slump, air, temperature and cylinders as specified. We cure and protect the elements according to the plan, strip forms and shoring only when allowed, and keep records for the project file.

Materials & techniques

Engineered reinforcing and rebar detailing

Bars fabricated to shop drawings reviewed by the engineer, placed with proper cover on chairs and bolsters, with lap lengths, hooks and dowels as specified. Congested areas like beam-column joints get extra attention so concrete can still consolidate around the steel.

Specified mix designs

Structural elements commonly use mixes designed for a specified compressive strength, with requirements for water-cement ratio, aggregate size, air entrainment where exposed to freeze-thaw, and admixtures to control set or workability. Changes to the mix go through the engineer, not around them.

Field quality control testing

Slump, air content, concrete temperature and unit weight checks at the truck, plus cylinders cast and lab-tested for strength at specified ages. The results document that what was placed matches what was designed.

Hot- and cold-weather concreting measures

Early pours, cooled mix water, set-retarding admixtures, wind breaks and evaporation control in summer; heated materials, accelerators, insulated blankets and enclosures in winter, all following ACI 305 and 306 concepts and the project specifications.

Built for Albuquerque soils and weather

Summer heat, wind and very low humidity can speed set and pull moisture from structural concrete, so pours are scheduled early and protected per hot-weather practice to protect strength and limit cracking. Winter nights frequently drop below freezing, and young structural concrete has to be kept from freezing until it gains strength, which means blankets, enclosures or heat. Large day-night temperature swings can also create thermal stresses in thick elements, which we account for in curing and protection.

Caliche hardpan

Caliche can slow pier drilling and may require heavier drilling equipment, and it can perch water against foundations. We verify pier depths against the design and the geotechnical engineer's bearing criteria rather than stopping where the drilling gets hard, and we report conditions that differ from the soils report.

Expansive clay

Expansive clay can lift grade beams and slabs from below, so engineers often specify void forms or carton forms under grade beams and piers that extend below the active zone. We install those details exactly as drawn, because skipping them defeats the purpose of the design.

Collapsible soil

Collapsible soils are a major reason engineers choose deep foundations here, carrying loads past the collapsible layer to stable material. We drill to the specified depth, keep water away from open excavations, and coordinate with the geotechnical engineer if conditions differ from the report.

Rio Grande valley alluvium

Valley alluvium can include loose sands and shallower groundwater, which can make drilled shafts unstable and complicate deep excavations. Casing, careful concrete placement methods and close coordination with the geotechnical engineer help keep piers and footings sound in these conditions.

Foothill decomposed granite

Cobbles and boulders in foothill soils can deflect drill bits and slow pier work, and sloped sites often need stepped footings and retaining structural walls. We plan equipment for the ground, build footings to the stepped details on the drawings, and manage arroyo runoff around open excavations during monsoon season.

Permits

Structural concrete is nearly always part of a permitted project with engineered drawings, and many projects also require special inspections and testing beyond standard building inspections. The general contractor or owner typically holds the permit; confirm inspection requirements with your local jurisdiction and the engineer of record.

Typical timeline

Schedules depend entirely on the design. Simple equipment pads may take a few days, while pier-and-grade-beam foundations, structural walls or elevated slabs often take several weeks, including inspections, cure time and form or shoring removal when the engineer allows it.

Structural Concrete Construction by service area

Soil, elevation and permitting differ across the metro. See how structural concrete is planned in each community.

Structural Concrete Construction FAQs

What makes concrete work "structural"?

Structural concrete carries loads calculated by an engineer, such as the weight of a building, soil pressure, wind or seismic forces, and it's built to stamped drawings. That usually brings stricter requirements for reinforcing, mix design, inspections and testing than flatwork like patios or sidewalks.

Why do some foundations use piers and grade beams instead of a slab?

When near-surface soils are collapsible, expansive, or contain deep fill, an engineer may carry loads down to firmer material through drilled piers or caissons, with grade beams spanning between them to support walls. It's a way to bypass problem soils rather than rely on them, and it's common on challenging sites.

What are special inspections and who arranges them?

Special inspections are third-party checks of critical work like reinforcing placement, concrete placement and testing, required by the building code or the engineer on certain projects. They're typically arranged by the owner or their representative, though we coordinate closely with the inspector and testing agency so pours aren't delayed.

What affects the cost of structural concrete work?

The engineering design drives most of it: quantity and complexity of reinforcing, element sizes, pier depths, formwork and shoring for walls and elevated slabs, and specified mix requirements. Site access, pumping or crane needs, testing and inspection scheduling, and weather protection also add to scope. We price from the drawings so the factors are visible.

Can you pour structural concrete in summer heat or winter cold?

Yes, with planning. Hot-weather pours are typically scheduled early with measures to control concrete temperature and moisture loss, and cold-weather pours use protection to keep young concrete from freezing and to support strength gain. The plan is agreed with the engineer and general contractor before the pour, and some pours are rescheduled when conditions fall outside what the plan can handle.

Related services

Plan your structural concrete project

Tell us about the project, the property and your timeline. We'll follow up to schedule a site visit and a written, line-item scope.

Start your request Call (505) 628-0897