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Serving Concrete Across South West England

We are a leading supplier of ready mix concrete, concrete blocksconcrete pumps, bulk bag gravel and liquid screed across England and Wales.

Consider us your dedicated one-stop-shop for all things concrete – whether you require ready mix concrete of the highest quality, or you need an efficient concrete pump for delivering your concrete or screed, we can help.

Not only do we have our Innovative Mini Pump which is ideal to reach those restricted access areas, but we also have the UK’s tallest concrete pump too!

Ready to find out more? Contact our team today or click your location on the map to find out how our services are tailored to your area!

No.1 for Ready Mix Concrete and Liquid Screed

 

As the UK’s leading one stop shop for concrete services, Wright Readymix has an unrivalled reputation within the concreting industry. We supply high quality ready mix concrete and liquid screed for both commercial and residential purposes, offering reliable solutions for every type of build. Whether you’re laying concrete for driveways, pouring a concrete shed base, or need strong, durable concrete for footings and foundations, our expert team can ensure the right mix for your specific requirements. Every batch is carefully produced for strength, consistency, and longevity, helping you achieve a professional finish on every project.
 
To understand more about what we do and how to choose the right option for your project, please read our complete guide to concrete pumping
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News
Is Cast-In-Place Concrete Better Than Precast Concrete Blocks?
13th April 2026

Concrete or concrete blocks? It's one of the most common specification debates in UK construction, and one of the most consequential. Get it wrong, and you're dealing with mortar joint failure, differential settlement, or foundations that aren't suited to your ground conditions. These are costly problems that are far harder to fix once the build is underway.

Both materials have a legitimate place on-site. The real question is which is right for your specific application, ground type, and programme. Cast-in-place concrete and precast concrete blocks perform very differently below ground versus above it. Understanding that distinction is what separates a sound specification from an expensive one.

This guide covers strength, build time, cost, and foundation suitability, so you can make the right call before work starts.

What is Cast-in-Place Concrete?

Cast-in-place concrete, also known as poured or in-situ concrete, is batched at a plant, delivered by mixer truck, and poured directly into formwork on site. Once set, it forms a single, continuous structure with no joints or bonding interfaces. This gives it a significant structural advantage for foundations, retaining walls, and ground slabs.

Ready-mix concrete can be specified across a wide range of applications, from trench-fill foundation work to high-strength structural pours. The British Ready Mixed Concrete Association (BRMCA) requires members to hold product conformity certification under either the Quality Scheme for Ready-Mixed Concrete (QSRMC) or the British Standards Kitemark Scheme, both approved to BS EN ISO 9001, ensuring every pour is produced and tested to an independently verified standard [1].

What Are Concrete Blocks?

Concrete blocks are precast units manufactured off-site and delivered ready to lay. They're a familiar material for groundworkers and bricklayers, and are widely used in:

  • Cavity wall construction
  • Below-ground masonry and retaining walls
  • Internal partition walls
  • Above-ground load-bearing walls

Blocks vary considerably in density and compressive strength. Dense aggregate blocks are suited to structural and load-bearing applications, while lightweight thermal blocks are typically used above ground where insulation values matter.

Concrete blocks are also manufactured using recycled aggregates in many cases. This makes them one of the more environmentally considered masonry options in above-ground construction. Our team supplies dense aggregate and lightweight blocks, each tested to British Standards for compressive strength, fire performance, and thermal value, so the right specification is straightforward regardless of application.

Strength, Durability, & Build Time. Which Material Actually Performs?

For most structural applications, cast-in-place concrete has a clear performance advantage. A well-specified pour produces a monolithic structure capable of resisting hydrostatic pressure and differential ground movement. These are two failure conditions that mortar-jointed construction is significantly more vulnerable to, particularly in below-ground applications.

The National House Building Council (NHBC) Standards 2024 (Chapter 4.3) specify designated mix GEN1 ST2 as the minimum concrete grade for strip and trench fill foundations. Plain unreinforced concrete must cure for at least four days before substructure masonry can proceed. However, reinforced concrete mixes require a full seven days without loading. These are Technical Requirements that NHBC-registered builders must meet, not advisory benchmarks [2].

Above ground, dense aggregate blocks offer a further advantage that is often overlooked: fire resistance. Dense concrete blocks are tested to BS EN 771-3 for aggregate concrete masonry units and are widely specified for party walls, compartment walls, and other above-ground applications where Building Regulations Approved Document B fire performance requirements apply [3].

On programme, the two methods suit different stages:

  • Both methods are sensitive to cold weather, but only ready-mix concrete can be ordered with accelerated mixes or admixtures to maintain workability and strength gain in low temperatures.
  • Blocks require no formwork. Laying can begin as soon as materials arrive, a genuine advantage for above-ground work.
  • Cast-in-place concrete requires formwork to be struck and NHBC curing periods observed before loading.
  • For irregular or non-standard designs, poured concrete is more adaptable and often faster overall.

Our article on can you pour ready mix concrete in the rain? outlines practical steps for working in marginal site conditions.

What Concrete & Blocks Actually Cost to Build With

Block and poured concrete costs depend on more than the price per unit. Concrete blocks typically have a lower material cost, but the overall project cost depends on:

  • Labour time and skill level required for laying.
  • Supervision requirements to maintain line and level.
  • Formwork materials and, where needed, pump hire for poured concrete.
  • Programme length and associated preliminaries.

For larger pours, ready-mix concrete offers meaningful economies of scale. A single delivery can cover a substantial area far more quickly than an equivalent block-laying programme. Our ready mix concrete prices guide sets out the key factors that influence material costs and how to approach budgeting.

Before committing to a specification, our concrete volume calculator can help you estimate quantities accurately and avoid over-ordering. For smaller domestic pours where a full ready-mix delivery would exceed requirements, we also offer a MiniMix service. This is a practical solution that keeps waste and costs to a minimum.

Suitability for Different Foundations & Ground Conditions

For the majority of UK foundation applications, cast-in-place concrete is the standard specification. Approved Document A (Structure) requires foundations to transmit loads safely without excessive settlement, specifying concrete at grade ST2 or GEN1 to BS 8500-2 in non-aggressive soils [4]. Strip and trench fill foundations must have a minimum thickness of 150mm and be taken to at least 450mm depth to avoid frost action, with greater depths required on shrinkable clays:

  • 750mm on low-shrinkage clay.
  • 900mm on medium-shrinkage clay.
  • 1,000mm on high-shrinkage clay.

Concrete blocks can be used in certain foundation wall applications, but ground conditions are a deciding factor. In soils with:

  • Poor drainage or high-water tables.
  • Shrinkable subsoils with a Modified Plasticity Index of 10% or greater.
  • Uneven load distribution across the footprint.

Differential movement at mortar joints makes block construction a less reliable choice below ground. Where non-engineered fill or significant ground condition variation exists, specialist design is required regardless of the material. Our concrete for foundations page covers foundation types and specifications in more detail.

Above ground, blocks are well-established for cavity walls, partition walls, and retaining structures where conditions are stable. A competent contractor will typically use poured concrete below ground and blocks above. Where there is any uncertainty around load-bearing design or ground conditions, consult a structural engineer before committing to a specification.

Which Concrete Solution Is Right for Your Project?

Choosing between cast-in-place concrete and concrete blocks doesn't have to be complicated, but it does require the right information at the right stage of the project. Specify early, specify correctly, and the material will do exactly what it's designed to do. Leave it too late or default to habit, and the cost of correcting the decision rarely stays within the original budget.

Wright Readymix supplies ready-mix concrete for domestic and commercial projects across Bristol, Avonmouth, Weston-Super-Mare, and the surrounding region. We combine local knowledge of site conditions with the supply capability of the wider LGW Group. For further guidance on mix selection, the concrete grades guide is a useful next step.

Call 0117 958 2090 or get in touch to discuss your concrete specification and project requirements directly with our team.

External Sources

[1] British Ready Mixed Concrete Association (BRMCA), Technical Excellence: https://brmca.org.uk/quality_assurance.php

[2] National House Building Council (NHBC), The NHBC Standards 2024 (Chapter 4.3): https://nhbcprod.blob.core.windows.net/shared/CC2981-NHBC-Standards-2024-aw-digital-version-lr-151223.pdf

[3] GOV.UK, Ministry of Housing, Communities and Local Government, Department for Levelling Up, Housing and Communities and Ministry of Housing, Communities & Local Government (2018 to 2021), Fire Safety: Approved Document B: https://www.gov.uk/government/publications/fire-safety-approved-document-b

[4] GOV.UK, Ministry of Housing, Communities and Local Government and Ministry of Housing, Communities & Local Government (2018 to 2021), Structure: Approved Document A: https://www.gov.uk/government/publications/structure-approved-document-a

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How to Prepare the Ground for a Concrete Shed Base Step by Step
25th March 2026

A concrete shed base relies on the condition of the ground beneath it. If the area is not prepared correctly, the slab can crack, settle unevenly, or hold water, leading to repair work and reduced lifespan.

These issues are usually caused by weak ground, inconsistent excavation, or poor compaction before the concrete is placed. Preparing the base properly ensures the slab can support the load and cure evenly once poured.

Preparing the ground involves:

  • Setting out the area
  • Excavating to the correct depth
  • Installing a stable sub-base
  • Compacting the surface before pouring

This guide explains each stage clearly, so the finished base is level, stable, and ready for concrete.

Why Ground Preparation Is So Important

Ground preparation determines whether the base can carry the load of the shed and the concrete used. Planning Portal (PP) guidance states that foundations must transfer loads safely to the ground, with design influenced by soil type, nearby structures, trees, and drainage conditions [1].

For shed bases, the ground must be firm and undisturbed. Some soils, particularly clay, expand and contract with moisture changes within the top 0.75 metres, which can affect how the slab performs over time.

Preparation should focus on:

  • Reaching stable, undisturbed ground.
  • Removing soft or previously filled material.
  • Accounting for drainage and surrounding ground conditions.

For more details, this guide on troubleshooting concrete cracking: common causes & fixes explains how movement beneath the slab affects performance.

Marking Out & Excavating the Area

Marking out defines the size of the shed base, while excavation creates the depth required for the sub-base and concrete. Accuracy at this stage helps ensure the slab can be poured level.

Set out the footprint using stakes and string lines, then check diagonals to confirm the area is square. Remove topsoil, roots, and soft material, and excavate to a consistent depth, typically around 100-150mm depending on ground conditions.

Keep in mind:

  • Maintain an even excavation depth across the area.
  • Remove all unstable or organic material.
  • Keep excavated spoil away from the edges to prevent collapse.

Health and Safety Executive (HSE) guidance states that soil can exceed 1.5 tonnes per cubic metre and that excavation work should account for ground conditions, nearby services, and stability during digging [2].

Sub-Base & Compaction

The sub-base supports the concrete shed base and provides a stable surface for pouring. If it is not compacted properly, the slab can settle unevenly or develop weak areas after curing.

MOT Type 1 or crushed hardcore is typically used because it compacts into a dense, load-bearing layer. This helps distribute weight evenly and reduces the risk of movement beneath the concrete.

To achieve a reliable base:

  • Use graded aggregates that compact tightly.
  • Build up the layer in stages rather than one fill.
  • Compact each layer thoroughly to remove air gaps.
  • Check levels before pouring to maintain consistent thickness.

Our bulk bag aggregates and gravels page outlines suitable materials for shed bases and sub-bases.

Government guidance highlights that poor soil handling can lead to drainage failure and long-term defects. One case study reported remedial work costing £90,000 due to surface ponding caused by poor ground preparation [3].

Do You Need a Damp Proof Membrane?

A damp-proof membrane controls moisture from the ground and helps protect the concrete during curing and over time. Approved Document C states that floors in contact with the ground should resist moisture, prevent groundwater damage, and limit the passage of ground gases where required [4].

For shed bases, this is typically achieved by placing a membrane over a compacted hardcore layer before pouring. This helps maintain consistent curing conditions and reduces the risk of moisture affecting the slab.

Installation should follow key requirements:

  • Use polythene at least 300µm thick (1200 gauge).
  • Overlap and seal joints to maintain a continuous barrier.
  • Lay the membrane on a smooth surface to avoid punctures.

For more details, this guide on how to prepare your site for a smooth concrete delivery explains how preparation affects the finished slab.

Final Checks Before Pouring Your Concrete

Before pouring a concrete shed base, the site should be fully prepared for delivery and placement. Any issues at this stage can affect how the concrete is placed, levelled, and finished.

PP guidance highlights that site preparation should account for ground conditions, moisture, vegetation, and existing structures. It also notes that drainage should be in place to prevent moisture from affecting the slab [5].

Before pouring:

  • Confirm the base is level and ready for an even pour.
  • Check access for delivery vehicles or pumps.
  • Ensure formwork is secure and correctly positioned.
  • Remove debris, soft spots, and standing water.

If you are handling the job yourself, our ready-mix concrete for DIY builds is perfect for managing concrete on smaller projects.

Getting Your Shed Base Right from the Start

Preparing the ground correctly ensures the base is ready to support both the structure and the concrete being used. Once excavation, sub-base installation, and compaction are completed properly, the slab can be poured with greater accuracy and consistency.

Wright Readymix supplies concrete for shed bases across the South West, with reliable delivery, consistent quality, and practical advice on the right mix and volume for the job. This helps keep projects on schedule and reduces uncertainty at the point of pouring.

Call 0117 958 2090 or get in touch to arrange concrete for your shed base and get advice on the right specification for your project.

External Sources

[1] Planning Portal (PP), Outbuildings, Building Regulations: Foundations: https://www.planningportal.co.uk/permission/common-projects/outbuildings/building-regulations-foundations

[2] Health and Safety Executive (HSE), Excavations: https://www.hse.gov.uk/construction/safetytopics/excavations.htm

[3] GOV.UK, Department for Environment, Food & Rural Affairs (DEFRA), Construction Code of Practice for the Sustainable Use of Soils on Construction Sites: https://assets.publishing.service.gov.uk/media/5b2264ff40f0b634cfb50650/pb13298-code-of-practice-090910.pdf

[4] GOV.UK, Ministry of Housing, Communities and Local Government (MHCLG), Ministry of Housing, Communities & Local Government (2018 to 2021), Approved Document C: https://www.gov.uk/government/publications/site-preparation-and-resistance-to-contaminates-and-moisture-approved-document-c

[5] Planning Portal (PP), Part C – Site Preparation and Resistance to Contaminants and Moisture, Approved Document C: https://www.planningportal.co.uk/applications/building-control-applications/building-control/approved-documents/part-c-site-preparation-and-resistance-to-contaminants-and-moisture/approved-document-c

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What Depth of Gravel Is Needed for Drives, Paths & Bases?
17th March 2026

Most projects require a depth of gravel between 50 mm and 200 mm, depending on how the surface will be used. Garden paths generally need shallower layers, while driveways and load-bearing areas require deeper construction over a compacted sub-base.

We supply bulk bag aggregates and gravel suitable for driveways, paths, and base preparation across domestic and commercial sites.

Selecting the right gravel depth helps prevent common problems such as rutting, shifting, or uneven ground. When the layer is too shallow, pressure from foot traffic or vehicles can push stones into the ground beneath. When the depth is correct, the surface spreads weight across the base and remains more stable over time.

Gravel also supports natural drainage. Water passes through the spaces between stones and filters into the ground below rather than pooling on the surface.

This guide explains the correct gravel depths for common applications, with practical advice on preparing the base and managing drainage.

Recommended Gravel Depths for Different Applications

The correct depth of gravel depends on how the surface will be used, the ground conditions, and how water will drain through the construction. UK government guidance explains that gravel is considered a permeable surface for driveways. Planning permission is usually required if an impermeable driveway covers more than 5 m² and prevents water from draining to a permeable area [1].

Typical gravel construction layers include:

  • Decorative gravel surface of around 50 mm
  • Permeable sub-base of roughly 200 mm of open graded aggregate
  • Total construction depth of approximately 200-250 mm, including about 150 mm of compacted sub-base

Lighter surfaces, such as garden paths, can use shallower gravel layers because they carry minimal loads. A stable gravel layer is often used beneath slabs or concrete when installing shed bases or garden structures. Driveways and vehicle access areas require deeper construction to support the weight of cars and vans without movement.

Material choice also affects performance. MOT Type 1 contains fine particles that compact tightly but reduce permeability. Open-graded aggregates, such as Type 3 or 4/20, leave gaps between stones, allowing water to pass through the base while still providing structural support.

Build a Stable Base Beneath the Gravel

A properly prepared sub-base helps maintain the correct gravel depth and prevents the surface from shifting over time. Before installing aggregate layers, the ground should be cleared of materials that could affect stability, including topsoil, organic matter, or loose debris.

Approved Document C explains that ground used for construction should be reasonably free from substances that could affect stability. Where moisture or groundwater could affect the structure, suitable drainage may also be required [2].

Visit our guide on which aggregate should you use for your construction project? to help ensure the base material suits the demands of the project. For gravel paths and driveways, the sub-base forms the load-bearing foundation. Using the correct aggregate and compacting it properly helps distribute weight across the ground and reduce settlement.

When preparing a sub-base:

  • Remove topsoil and organic material before laying aggregate.
  • Install a compacted crushed aggregate layer to create a stable platform.
  • Compact the base in stages using a plate compactor.
  • Check levels before installing the surface gravel layer.

These steps help maintain consistent gravel depth and reduce movement once the surface begins carrying traffic.

Why Gravel Helps Water Drain Naturally

Different decorative gravel types are often used for paths and driveways because they allow rainwater to pass through the surface rather than running directly into drains.

The Royal Horticultural Society (RHS) notes that hard landscaping materials such as paving, concrete, and tarmac can increase rainwater runoff by up to 50%, which can contribute to localised flooding in built-up areas [3].

Gravel reduces this effect because water can filter through the gaps between stones and soak into the ground beneath. However, the depth of gravel and the soil conditions below both influence how effectively the surface drains.

For example:

  • Clay soils drain slowly and may require deeper gravel layers.
  • Sandy soils drain quickly and may need less base buildup.
  • Sloped ground may require edging to prevent gravel movement.

Considering these conditions helps ensure the gravel layer supports both drainage and long-term surface stability.

Practical Tips for DIYers & Contractors

Installing gravel at the correct depth requires careful preparation before materials are delivered. Measuring the area and calculating the volume of aggregate helps ensure the finished surface reaches the intended depth across the entire site.

Many landscaping projects combine gravel preparation with other groundwork, particularly when working on DIY Concrete projects. However, Planning Portal guidance explains that driveways made from permeable materials, such as gravel, normally do not require planning permission. This is, provided rainwater can drain naturally into the ground or into nearby borders [4].

When planning the installation, contractors also consider the grading and aggregate size, as these factors affect how stable the surface feels underfoot or under vehicle loads. Tools such as our concrete volume calculator can help estimate materials when preparing bases for slabs or foundations.

Key preparation steps include:

  • Measure the area and calculate the required gravel volume.
  • Excavate deep enough for the sub-base and gravel layers.
  • Install edging to prevent gravel from spreading beyond the surface.
  • Compact each layer thoroughly before adding the next.

These steps help maintain consistent gravel depth and ensure the finished surface performs reliably.

Get the Base Right Before You Lay Gravel

Getting the depth right from the start helps prevent problems such as rutting, shifting, or poor drainage later on. In most projects, garden paths require 50 to 75 mm of gravel, while driveways and vehicle access areas typically need 100 to 150 mm or more installed over a compacted sub-base.

Wright Readymix supplies reliable bulk bag aggregates and gravel suitable for paths, driveways, and base preparation across domestic and commercial projects. The team can advise on the most suitable materials for the ground conditions and intended use.

Call 0117 958 2090 or get in touch to discuss the right gravel for your project and arrange delivery.

External Sources

[1] GOV.UK, Ministry of Housing, Communities & Local Government (2018 to 2021), Guidance on the Permeable Surfacing of Front Gardens: https://www.gov.uk/government/publications/permeable-surfacing-of-front-gardens-guidance/guidance-on-the-permeable-surfacing-of-front-gardens

[2] GOV.UK, Ministry of Housing, Communities and Local Government, Ministry of Housing, Communities & Local Government (2018 to 2021), Site Preparation and Resistance to Contaminants and Moisture: Approved Document C: https://www.gov.uk/government/publications/site-preparation-and-resistance-to-contaminates-and-moisture-approved-document-c

[3] The Royal Horticultural Society (RHS), Front Gardens: Permeable Paving: https://www.rhs.org.uk/garden-design/permeable-paving

[4] Planning Portal, Paving Your Front Garden: https://www.planningportal.co.uk/permission/common-projects/paving-your-front-garden/planning-permission

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What Is the Safe Temperature for Pouring Concrete?
23rd February 2026

The safe temperature for pouring concrete footings in the UK is typically 5°C and rising, with no overnight frost expected. Below this point, early strength development slows, and frost damage before curing becomes more likely.

Daytime conditions can appear suitable, only for temperatures to drop sharply overnight. Cold ground and falling night air temperatures are common in autumn and winter and can affect fresh footings before adequate strength has formed.

Before placing a pour, check air temperature, ground conditions and the overnight forecast. Taking these steps reduces risk and supports long-term footing performance.

Why Temperature Matters During Early Curing

Temperature directly affects strength gain. In colder conditions, concrete takes longer to reach usable strength. This can influence when blockwork begins, when loads are applied, and when inspections take place.

Lower temperatures do not always cause visible damage, but they extend the curing period. On projects with tight programmes, this can delay follow-on trades and impact scheduling.

The Health and Safety Executive (HSE) states that employers must assess environmental risks and apply suitable controls in cold working conditions. Planning for low temperatures is part of responsible site management [1].

Temperature management applies to both extremes. We explain the risks of high temperatures in our blog, tips for laying concrete mixes in hot weather, where we note that accelerated curing can affect finish and surface quality.

The 5 Degree Rule Used on UK Sites

On most UK sites, 5°C and rising is treated as the practical minimum for pouring concrete footings. Below this point, strength gain slows, and exposure to overnight frost becomes more likely.

BS EN 206 sets requirements for concrete specification, production, and conformity, including controls for temperature during delivery and placement. In the UK, it works alongside BS 8500, which provides national provisions and guidance for site practice [2].

Using concrete supplied under recognised third-party certification schemes helps ensure production controls meet these standards.

Choosing the right mix remains important in cold conditions, and to help, we have outlined suitable options in our guide to types of concrete mix and their uses.

Air Temperature, Ground Conditions & Frost Risk

When assessing concrete pouring temperatures, look beyond the daytime forecast. Footings are often poured early in a build, so delays can affect programme continuity.

The Office for National Statistics (ONS) reported total UK construction output of £236,208 million in 2025, which just goes to show the scale and time sensitivity of the sector [3]. With such stakes in mind, reliable weather checks support consistent decision-making.

Before pouring, review:

  • Air temperature at placement.
  • Ground temperature at formation level.
  • Overnight frost forecast.

Ground can retain cold after a prolonged spell and draw heat from fresh concrete. Do not pour onto frozen ground, as thawing may lead to movement beneath the footing.

Overnight frost is often the biggest risk in the first 24 to 48 hours. The Met Office advises using localised forecasts and site-specific weather data to reduce downtime due to weather [4].

We cover these considerations in more detail in our blog, pouring your concrete in winter, which outlines practical steps for managing cold-weather pours.

How to Protect Concrete Footings in Cold Weather

When temperatures approach 5°C, protection helps retain heat generated during curing and reduces frost exposure.

Common measures include:

  • Insulating blankets applied immediately after finishing.
  • Timber or board coverings to reduce heat loss.
  • Temporary sheeting to limit wind chill.
  • Reviewing forecasts before removing protection.

Protection should remain in place until the concrete has developed sufficient strength. In colder months, curing periods are typically longer than in summer. Further details on timing and curing methods are covered in our blog, how to cure concrete, which explains best practices across different weather conditions.

Where placement time needs to be controlled, concrete pumping can support efficient delivery and reduce on-site exposure. We supply concrete pumping services across the South West.

When to Postpone & When to Call Us

Cold-weather decisions depend on more than a single temperature reading. Site exposure, wind chill, soil stability and build sequencing all influence whether a pour should proceed.

Delay a pour if:

  • Temperatures are unstable or falling rapidly.
  • Frost is forecast within hours of placement.
  • The ground has recently thawed and may shift.

Short postponements often protect overall programme certainty. Wright Readymix supplies reliable ready mix concrete suitable for domestic and commercial projects across the South West, backed by practical advice and hands-on industry experience.

Call 0117 958 2090 or get in touch to discuss your footing pour, confirm the right mix, and plan delivery around the forecast.

External Sources

[1] The Health and Safety Executive (HSE), "employers must assess environmental risks and apply suitable controls in cold working conditions”: https://www.hse.gov.uk/temperature/employer/index.htm

[2] BSI.Knowledge, “BS EN 206 sets requirements for concrete specification, production, and conformity, including controls for temperature during delivery and placement”: https://knowledge.bsigroup.com/products/concrete-specification-performance-production-and-conformity

[3] The Office for National Statistics (ONS), reported total UK construction output of £236,208 million in 2025”: https://www.ons.gov.uk/businessindustryandtrade/constructionindustry/bulletins/constructionoutputingreatbritain/december2025newordersandconstructionoutputpriceindicesoctobertodecember2025

[4] The Met Office, “advises using localised forecasts and site-specific weather data to reduce downtime due to weather”: https://www.metoffice.gov.uk/binaries/content/assets/metofficegovuk/pdf/business/sectors/construction-catalogue-guide-v2.pdf

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