Find a Carpenter you can trust in Evesham.

Though both solid wood and engineered wood can be installed on a concrete sub-floor, the processes are quite different from each other. Solid wood is produced from a single plank of wood which can be reactive to both temperature and humidity changes which is capable of making the wood expand or contract. Hence, the different approach to solid wood and engineered wood flooring installation on concrete. Here, we’ll discuss how you can lay solid wood on your concrete.

First and foremost, you’d have to determine the method you’ll use to attach the planks to the floor. Is it floating whereby you only have to lay the wood flooring on the concrete after fitting the right underlay? You can also go for the most popular installation method which is gluing your floor with a flexible wood adhesive (to be applied to both the boards and the sub-floor). Or perhaps you’d prefer to use the traditional method of nailing the boards to the concrete (the nails will be covered as you lay the subsequent planks and the groove locks with the tongue).

After making this decision, you’d have to ensure that the sub-floor is well prepared for the installation. This implies checking the wood’s moisture content (mustn’t exceed 7 to 8 percent). Also inspect the floor to ensure its neat, if not, clear out the dirt or debris and make sure the surface is flat to avoid post-installation problems.

In the event whereby you discover a high moisture content, you’d want to acquire a damp proof membrane. This will not only enhance the floor’s stability, but also prevent shrinking or warping of the wood due to changes in humidity or temperature.

It is crucial to note that the preparation of the sub-floor is equally as important as the laying of the planks as this can go a long way to improve the durability and strength of your floor. Click here to learn more about wood flooring.

When you’re building or redesigning your kitchen, one of the most important decisions you’d have to make is your kitchen cabinets. They are basically where you’ll keep everything you use to cook and as such, take up a lot of space in the kitchen. Therefore, if the aesthetic of your kitchen is a priority, then you’d probably want to get the best quality and good looking cabinet you possibly can. If you’re in the market for new kitchen cabinets, you can put these sources of cabinets into consideration. Let’s take a look!

• IKEA. One of the best place to buy affordable home goods is also a great place to check if you want to buy your kitchen cabinets. According to a research carried out by J.D Power which surveyed over 1500 customers within the past one year, IKEA’s cabinet system ( Sektion) ranked the highest in terms of the overall satisfaction.
• KraftMaid. Another winner of the survey conducted by J.D Power as it took the second position when it comes to the overall satisfaction. Therefore, this store happens to be a good option based on the reviews. This store provides you with a wide variety of colour options to select from, so regardless of what your personal preference is, you’re guaranteed to find something worthwhile to install in your kitchen.
• Stoffer Home. When you buy your kitchen cabinet from an interior designer, there’s a better chance for suitability. Stoffer home offers top quality cabinets which can be manufactured in four various wood finishes and twelve varying paint colours which are all carefully curated.

1. Plan your shed base You must have a sturdy base for your shed, otherwise the frame won’t stand properly and could stop the door from opening. Decide whether you’re going to have:
   • A concrete base laid on hardcore
   • Concrete slabs on sharp sand
   • Treated wood beams on hardcore or shingle
   • An interlocking plastic system
   All bases should be laid on firm, level ground as far as possible.
2. Treat wood with preservative To help your shed last as long as possible, you should coat all the wooden parts with timber preservative before you put it together.
3. Put the shed floor together Some will need more assembly than others, but you need to make sure that the floor panel is attached to the joists; follow the manufacturer’s instructions for the correct spacing.
4. Put up the shed walls
   • Mark the centre point of each wall on its bottom edge, then do the same for the shed floor so you can line them up together.
   • Stand the gable end on the base and line it up. Check that it’s vertical with a spirit level – you might need someone to support the panel while you do this. Use a temporary holding batten to keep it in place.
   • Fix a side panel to the gable end panel with countersunk screws, then add the second side panel in the same way.
   Don’t attach the panels to the floor until you’ve fitted your shed roof.
5. Fit the roof
   • If the shed comes with a support bar, put this in position before you put the roof panels in.
   • Nail the roof panels in place, ensuring there’s a parallel and equal overlap at each end.
   • Roll out some roofing felt from front to back, leaving a 50mm overlap at each side. Secure it with clout-headed felt tacks at 100mm intervals.
   • Apply mastic sealant to the outside corners, then fix each corner trim with 30mm nails.
   • Add the fascias and finials, predrilling 2mm holes to avoid splitting the wood. Nail them through the felt into the shed using 40mm nails.
6. Add the shed windows
   • Slide each windowsill into the tongue and groove cut out, then put the window cover strip in position, fixing it to the vertical framing.
   • From inside the shed, put the glazing sheets into the window rebates, making sure the bottom edge of the glazing sheets sit on the outside of the sill.
   • Fix the window beading on the top and sides with 25mm nails.
7. Fix the walls to the floor Before you do anything, make sure you check that the centre marks on the walls line up with the marks on the shed floor. Then fix the wall panels to the floor with 50mm screws, aligning them with the joists.
And that’s it! But if you’re not confident in building a shed yourself, there are plenty of professionals available who will be happy to help.

Two of the commonly used terms in the UK and Irish construction industry is “First Fix and “Second Fix First fix encompasses all the work required to take a building from foundation to stroking plaster on the interior walls. This comprises of building walls, floors and ceilings, and implanting cables for electrical supply and pipes for water supply.

Some claim that First Fix starts after the shell of the building is complete, and ends when the walls are plastered. Some of the elements in the first fix are as follows.

• Drain runs: must be downhill and straight

• Spare conduits: drawstrings

• Soil pipes

• Copper pipes

• Normal pipes

• Doorbell

• Door frames

• Pocket doorframes

• Stairwell

• MVHR (mechanical heat recovery ventilation runs)

• Push-fit or other plastic piping

• Electrical back boxes

• Electricity cable runs

• Telephone, data and audio-visual cables

• Socket location

• Security

• Fire alarm

• Sound insulation

• Plasterboarding

It is to be kept in mind that the list goes on as there are several things that you can do when you are building a house from scratch and it is impossible to cover each and every aspect in detail.

The second fix includes all the work after the plastering of a complete house. These include linking cables to the electrical fittings, coupling pipes to the baths and sinks and fitting doors into doorframes. Second fix work requires a tidier finish than the first fix.

Carpenters, electricians and plumbers get a proper idea on the division of work. They will also be able to visit the construction site at different times.

Project managers can simply report it as the "first fix complete" or "the second fix 50% done" and others would very easily understand.

Regardless of the fact that a construction company might specialise in a certain form of fix, be it the first or the second, they are obligated to have a rudimentary understanding of both and are required to perform them from time to time.

Most of the people out there do not know the difference between a carpenter and a joiner. This is a very common question that is asked by many as to whether there is an actual difference between the two.

Both joiners and carpenters have many shared traits. The definition seems to change throughout the UK. The southern parts use the term carpenter whereas the north seems to prefer the term joiner. Both of these trades involve working with wood mainly in the construction industry. Both of them are, however, are two very unique and separate trades. Both of them come under the broad term of ‘carpentry’ however their skills and specialisms differ.

A joiner is defined as a trained craftsman who is responsible for making or joining wood in a workshop. On the other hand, a carpenter is a professional that works on site with the timber. In summary, a joined creates the wood back at the workshop while the carpenter fixes them on site. A joiner, therefore, works on things that are done in a workshop using machinery while a carpenter is responsible for its assembly on site.

As both joiners and carpenters had learnt the basics of both trade while they were practising as an apprentice, several similar overlaps are bound to occur.

It is good practice to ask the company or the individual what trade they specialise in. As an example, a joiner may be able to make a particular item whereas a carpenter may be better doing the actual fitting.

It is evident from the above sections that carpentry and joinery are completely different and therefore, should be categorised under two different trades, however, there is indeed a lot in common in their extremely high skilled work.

What Is Engineered Wood Flooring?

Engineered wood flooring is produced through the fixing of several layers of wood together with a solid wood as the top or wear layer. Due to its ability to hold its ground when faced with frequently changing temperature and humidity, it happens to be one of the most popular types of flooring. As a result of its ruggedness, engineered wood flooring can be easily fitted with under floor heating and in special areas like conservatories. And apart from its usually stunning visual appeal and ability to be floated over an underlay, the engineered wood flooring is even becoming a lot more popular amongst home and other property owners.

Given the fact that engineered wood flooring is made up of several layers of wood, it may be almost impossible to tell the difference between it and a solid wood flooring just by looking at both. It can also be mistaken for a laminate flooring which is basically an image of wooden flooring placed onto a high density fibreboard.

The planks of a engineered wood flooring is crafted in such a way to ensure the it does not expand or contract unlike the solid wood counterparts. What’s more? There are several benefits that comes with installing an engineered wood flooring. They include:

• Its very easy and simple to install

• When compared to solid wood flooring, it’s more cost effective.

• It can be utilized alongside an under floor heating

• It can be loose laid, meaning it does not need to be fixed in position

• It is available in multiple varieties of wood and finishes

• It can be incorporated alongside an underlay including thermal barriers

• It can be utilized in areas with a fluctuating humidity and temperature.

• It is available in different kinds of thickness.

Click here to learn more about wood flooring.

The cost of just the engineered wood flooringis from £18 to £73 per m2.

1. Calculate the surface area for your decking Multiply the length (L) of your decking area by the width (W): L x W = Decking Surface Area (DSA) in m² 10 x 6 = 60m²
2. Work out the coverage of your deck boards Add your deck board width (DBW) to the expansion gap length (EGL), then add the deck board length (DBL) to the expansion gap width (EGW). Then multiply these numbers. (DBW + EGL) x (DBL + EGW) = Single Board Coverage (SBC) 0.144m + 0.005m = 0.149m 2.4m + 0.003m = 2.403m 0.149 x 2.403 = 0.358m²
3. Calculate the number of deck boards you need Multiply the SBC by 1.1 to allow for 10% wastage. Then, divide the DSA by the SBC. DSA / SCB x 1.1 = Total number of boards required 60m² / 0.358m² x 1.1 = 184.36 boards – so round up to 185 so you’re not left short.