Blog

  • Walls Are Constructed

    We started working on constructing the Walls inside the Entertainment Room, now that we have done the floor. The concrete block walls are a bit (well actually up to 15mm) wavy so we had to mount our horizontal rails with various thicknesses of wooden shims, to pad out the gap between the CLS rail and the concrete wall, when the rail is made aligned using our green laser line generator. We started on the shorter wall opposite the window so we could learn how things went together before we tackled the long stretch of the wall. We screwed the laser down into the left corner to the floorboards and got the green laser 55mm from the surface in both corners, left and right both. We worked from top down, putting the first rail up near the ceiling, but with enough space to allow a 11mm OSB sheet to fit into the small gap so the ceiling is supported around the edges of the walls.
    But before all that, we had to make dozens of different sized wooden shims, using various left-over sheet material we had lying around. We made 18mm OSB ones, 13mm Plywood ones, 6mm MDF ones, 3.6mm hardboard pieces and we found some odd 6.5mm thick MDF ones so they got included too. Plus also, we sliced up some very thin plywood that are 1.5mm thick to help with the final slight adjustments. We bought the other day a new kit of plastic spacers (also known as shims or packers), they come in 1mm, 2mm, 3mm, 4mm, 5mm and 6mm so they will be there if we run out of our wooden spacers.
    So, we cut a piece of CLS timber to 3.76metres long and drilled 7mm clearance holes every 600mm along the rail, with them all offset by 300mm from one end. To make sure that we maintained a constant gap at the top there, we screwed some 12mm plywood pieces up on the ceiling so it would automatically produce the correct spacing when we pushed the rail up there and drilled the holes into the concrete. We drilled 7mm holes using our trusty SDS battery drill which made short work in drilling 70mm deep holes!
    Then, we tightened the wooden rail into place using 100mm 6mm thick screws, putting a variety of different combinations of the wooden shims behind the rail until the green laser line just shimmed across the surface. We repeated this process for the mid rail and then we constructed the Utility Channel completely on the floor before mounting it up on the wall. We made 300mm long pieces of MDF strips which bridged across the two CLS rails that makes up the Utility Channel, gluing and stapling each strip over where the screws will go. Then, we glued and stapled the fermacell board strips in between, and glued to the bridging pieces.
    Constructing the Utility Channel like this meant that we didn’t have to mount each rail separately and the whole length could go up on the wall in one go. The final rail to put up is the Air Channel, which was constructed completely separately like we had just done, but this time, using our 150mm MDF strips to form the channel for the air to flow sideways and into our room. The Air Channel just sits on the floor surface so that was relatively easy to mount it to the wall. The final step was to spray lots of PU foam behind the Air Channel and also behind the plastic pipes that comes around from below the floorboards via a deep slot in the concrete wall.

    Walls Are Constructed

    Assorted-spacers-aligning-rails-on-the-wall


    We repeated this process for each of the other walls, including tackling the window wall and putting up enough wooden rail to form a very narrow strip above the window. With the lowered ceiling level, the height of our standard windows, being seven foot high, meant that the resultant ceiling is almost level with the top of the window, the narrow strips will be something in the order of 60 to 70mm wide. Just enough to allow for traditional curtains to be mounted across the window if we wanted too. We had to put up a 50mm square piece of timber, instead of our regular 63mm CLS timber but it worked out very well, especially that we had put up two extra layers of 89mm CLS planks behind this rail, to help reinforce and support it. We glued it using our top quality PU construction glue, and clamping the pieces all together including pushing upwards to stick to the concrete beam that is going over the window like a lintel.

    We finished putting up the rails on either side of the doorway, just like the other walls, with a small extra bit sticking into the entrance way. This allows us to set the laser green line to be vertical and aligned to the hall side of the doorway and find out whether the concrete blocks are straight or not. And, of course, they are not quite vertical! They are leaning askew by 5mm or so at the opposite end, depending on whether it is the left or right hand side of the door. In fact, we had already made the hall side of the entrance square and vertical so that gives us something to measure against and make any adjustments. We took one of our very old wooden planks that we had stored on our wood rack, a “2 by 6” rough sawn conifer timber plank, a 4.8metres long. We think we had originally bought these pieces of timber back in the mid 2000’s and we knew that we would reuse them again .. one day!
    We are using these 150mm wide planks to help reinforce the door frames, so that we can mount a heavy weight door to help block the sounds from escaping the Entertainment Room. So, after slicing off the excess bits off each of the horizontal rails, we then discovered that the gap between the ramp and the concrete blocks wasn’t quite big enough to fit the 50mm thick plank so we had to trim slivers of wood off the timber until we could insert the plank down pass the ramp and with a notch to avoid the floorboards, to rest on the concrete blocks that is running underneath the doorway. After making careful adjustments, using the laser level and our digital spirit level as well, we then drill five holes in each vertical planks and then drilled nice deep 80mm holes into the concrete blocks too, just like what we have been doing to fix up all our wall rails too. We put in various shims behind each screw and ensured that they were nice and vertical, on both sides of the doorway. Once we were happy, we unscrewed everything and applied loads of PU construction glue all over behind the plank and all over the concrete blocks and redid the screws and got the planks fixed down nice and tight, all smooth and level to the front of the wall rails.

    We had also done something quite similar to our window, putting in a CLS piece of timber so it was square to the glass, anchoring it with screws from the front through our wall rails and then trimming off the additional extra bits of the rails that were sticking into the window space. Next, we took a length of 20mm plastic conduit pipe and bent it at four measured locations which enabled us to feed some wires from the Utility Channels and down into the space underneath the window sill, to power and control the window blinds.

    Entertainment-Room-Window conduit

    Entertainment-Room-Window conduit

    We finally, finishing off this period of work, we encapsulated the doorway in with OSB 18mm pieces of boards, on all three sides, the left and right and also above. We put in the above one in first and glued that piece in up against the concrete lintel and the wooden frame out in the hall, and then measured the two vertical sides. We had to mirror the shape of the floor and ramp so we took a piece of 6mm MDF board and drew a line on it by using a block of wood and a pen to duplicate the slope and flat regions. We did one for each side but it turned out to be identical which was nice to know! We sliced up some OSB sheets into a piece that measures 320mm wide by 2140mm tall and then trimmed the bottom using our template. With some minor slicing a bit off the height, we got them fitted. Next, we put in six pieces of CLS timber pieces into the gap between the wall boards out in the hall and the door frame. This is to make sure that the wall is solid enough to hang our doors on the walls without causing any distortions or warping. The three CLS fillers were glued and screwed into place at the same time when we glued and screwed each of the vertical OSB side pieces.

    Walls Are Constructed

    Entertainment-Room-Rails-finished-1

    Walls Are Constructed

    Entertainment-Room-Rails-finished-2

    Walls Are Constructed

    Entertainment-Room-Rails-finished-3


    That concludes this period of work on our Entertainment Room, we are not finish of course, but we are moving on to another project next week, something completely different, we are installing our Solar Panels on our roof! All the metal framework and brackets has arrived so we can get that done.

  • A Thorough Overhaul of our Mini-Digger With Major Replaced Parts

    We have been examining our mini-digger these last few days, tracking down the reason to why it won’t work. There is no noises, just a silent nothing of no engine turning over etc.
    We checked the battery and it is showing signs of being old, not holding it voltage when we turn the key to ignition mode. The voltage just falls very quickly below 12V which is not good. So we decided that we ought to buy a new lead-acid battery replacement. That duly arrived (on Saturday) but unfortunately, it didn’t solve the problem.

    A Thorough Overhaul of our Mini-Digger With Major Replaced Parts

    Digger-New-Battery-Aug-22

    The starter motor still wouldn’t want to turn over. We had always had a problem with our starter motor, and quite often, we had to hit it with a hammer to ‘jolt’ something to make it work, but, it seems that it decided that it had enough .. permanently!!
    So we had to dismantle the back-end of the digger, taking off four very heavy pieces of body work, in order to reach the starter motor and its two bolts!! Some of those bodywork bolts were very awkward to reach and for one set of two giant bolts, we had to put an old scaffolding pole over the handle of the wrench to get enough leverage to crack the bolt! We started testing the motor, it was getting electricity to it, but nothing was happening, so out it came.
    So we surfed the web and found the starter motor part number and then found a replacement spare part. The cost wasn’t too bad @ £150, and so we ordered it.
    It came today and we fitted it this morning and .. hey presto .. it worked! Every time!!

    A Thorough Overhaul of our Mini-Digger With Major Replaced Parts

    Digger-Old-Starter-Motor

    A Thorough Overhaul of our Mini-Digger With Major Replaced Parts

    Digger-New-Starter-Motor



    We cleaned up various parts, checked the engine oil and put some more in and then re-assemble the body work back into place again.
    We greased all the joints all over the digger, filled it up with more diesel and put grease on various handles and window latches etc. All a bit better now, for a 2002 vintage machine! We have only added 366 hours of run time since we bought it back in May 2009, on top of the 2953 hours already on the clock.

  • Main Electricity board Upgraded and House Connected

    Today, Tuesday, we had our local professional electrician come around to upgrade our main Electricity Supply Board, first to install a fused cut-off switch immediately after the meter. The original installation ten years ago, the people who came, didn’t install a cut-off switch so we were left without the ability to shut off the Main supply to connect to house to the supply. For the last few years the house connection was routed via plug connected to the existing RCD Consumer Unit. So with the switch installed the wiring to the house was insulation tested and connected directly to the main supply.
    So, our connection to our main house is now properly integrated into the main body of the Control Board and we can now look forward to installing our Solar Panels and Batteries, plus also our various water pumps and stair-lift motors without accidentally tripping the RCD for rest of the household.

    Main Electricity board Upgraded and House Connected

    New-Fused-Switch-for-Incoming-Mains-Supply


    He said that he can come back if we need him again, plus also, he would be willing to do further tests and inspections and issue a certificate for us to present to the Council building control inspectors.

  • The Weeds and Grass Was Beaten Back Along the Front of the House

    This afternoon, after we had finished doing the floorboards in the Entertainment Room, we decided that we had to clear all the Weeds and Grass that had been growing this year. It was getting way out of control and was rather difficult to walk through the jungle, especially when trying to push a trolley load of building materials!!
    A week ago, we got rid of a 5foot high thistle!

    The Weeds and Grass Was Beaten Back Along the Front of the House

    Alongside-the-Loke-got-very-overgrown


    We used our petrol mower plus our battery powered strimmer to tackle the job of hacking through the clumps of grass and leggy weeds, and we generated two wheelbarrow loads of trimmings, which we just threw onto our dirt mound to rot down etc.

    The Weeds and Grass Was Beaten Back Along the Front of the House

    Jungle-cleared-along-side-the-loke-1

    The Weeds and Grass Was Beaten Back Along the Front of the House

    Jungle-cleared-along-side-the-loke-2



    This area is now cleared and we can now unload some of our deliveries like for example, our Fermacell and plasterboards sheet materials which will be needed to be located somewhere until we are ready to use them.

  • Starting on the Entertainment Room

    While we still wait for our cheap insulation foam rejects to arrive, we got on with doing the Entertainment Room, which is our last ground floor room that we haven’t done yet. The Entertainment Room already has an internal walls and a ceiling, made using concrete blocks and suspended beams respectively. So, after emptying all our use full stuff ( i.e. “junk”) out (and putting it all in our Great Room and Kitchen), we proceeded to survey the state of the concrete walls, to see how flat and straight they are. They do wiggle in and out a little bit, according to our green laser line generator. We set the laser on the floor, right at one end of the wall and positioned it 50mm away from the surface. Then, adjusted the angle of the laser until we also have the beam just 50mm away from the surface at the other end of that wall. We did spot checks all over the surface to find how well, or badly, the individual blocks were set. We did this same procedure for all four walls and the results are as follows:

    • Large wall opposite the doorway: minimum=36mm and maximum=52mm
    • Left wall opposite the window: minimum=37mm and maximum 51mm
    • Doorway wall: minimum=32mm and maximum=50mm
    • Window wall: minimum=34mm and maximum=50mm

    Some of the worse offending blocks were in the upper corner where we were finishing off a row and near the top as well, and we couldn’t keep it straight. But it is not that bad, so we can handle that by putting spacers behind all the horizontal rails as we screw them into the concrete blocks.

    The room is 4.75metres long and 3.78metres wide (approximately 15½ feet by 12½ feet) and we took careful note of where the joints between concrete slabs were, and decided that we would run eight long rails to minimise wastage and offset the first rail 400mm from the doorway side of the room, and then the usual 600mm spacing after that, terminating with a 300mm gap to finish off. The Energy Module is located about 3100 to 3200mm from the window wall and we want to make sure that we can build a small liftable hatch so we can service the equipment and inspect the underground tank via its inspection port. We have gone for a regular 600mm spacing along the long direction which will avoid all the joints in the floor slab.

    We cut two CLS planks to fit across the narrow sides of the room, marked off the rail positions (starting from that 400mm point and multiple 560mm after that one), drilled a set of 6mm holes in between those marks and making sure that we avoided the air disperser location which will be in the middle of the plank and we don’t want a screw going through our plastic module. We set up the laser in the middle of the room and set the height of our flooring framework to be at one block level, which is about 225mm, instead of the usual 378mm. We have decided to lower the floor level inside our Entertainment Room because it has already an lowered ceiling (the sound dampening concrete block and beam construction) so to make the room feel not so claustrophobic and maintaining the same 8feet clearance, we lowered the floor as well by six inches. There will be a slope built at the doorway so there won’t be any sudden steps etc. just a slope which will stretched out some two feet, starting from the Hall side of the doorway and stick into the room by about 400mm, to make is more friendly for anyone but especially for wheelchair users too.

    The next job is to cut four cavities into the concrete blocks themselves, to allow for our air dispersers to be routed from underneath the flooring and bypassing the floor joist and let the air into the Air Channel. We used a diamond cutting disc to slice 50mm into the block and then chiselled out the chunks. We made it 120mm wide to make room for the twin plastic pipes to fit. We will also spray some PU foam to help stick it into the wall and insulate it a bit from the cold concrete blocks. The slot is about 250mm high and it was very very dusty, generating a huge cloud of grey concrete dust. We were wearing very good dust masks thank goodness!

    Starting on the Entertainment Room

    Channel-hacked-the-the-Entertainment-wall

    We also made the four dispersers as well, doing the usual method of trimming down the elbow corners and gluing it all together. So we could test the new slots to make sure that they had room to fit properly.

    We went around drilling all the necessary holes in the concrete walls for all four sections of the floor joist support batten, putting in a 7mm plastic wall plug and screwing it down tight using 100mm long 6mm screws whilst putting the air distributers in. We also put on a large washer to help spread and grip the wooden pieces tight to the walls, especially that we had a larger clearance holes through the wood so we could tap the joist a bit up or down, to get it as accurate as possible against our green laser line level.

    Starting on the Entertainment Room

    Air-distributer-in-the-channel

    Next, we chopped up 62 legs that the whole floor will need, with 19 of them having one corner sliced off to allow for the mortar on the bottom of the walls. All of them were then dipped in our coloured timber preservative liquid, to make sure that the timber will last for decades, even if we had a water leak so it won’t affect the wood.

    Then, we started by the doorway and put in the first rail at 360mm spacing and cut a piece 4665mm long and put in seven legs along its length and two specials for the ends. Using this rail, we then built the ramp for the doorway using three pieces of CLS timber, with angles cut on their ends to connect to the bottom rail and also joining up onto the hall framework too. We also put in trimmed filling in pieces in between these sloping rails, with the surface planed so it matches the slope in general, so that the top and bottom edges of the ramp will be fully supported. Finally, we stuck in two additional legs to help support the two outer sloping rails so the joints will not creak in the future. We topped the whole thing off by laying down a floorboard piece, measuring 880mm wide by 590mm long, with a shallow 18degree angled cuts for the top and bottom edges so that we don’t end up with gaps in our flooring.

    Then, we continued with mounting the rest of the floor joists, six more rails, each having seven legs under each one and we got that all done, including the horizontal noggings every 1200mm.

    Starting on the Entertainment Room

    Entetainment-Floor-grid-1

    Starting on the Entertainment Room

    Entetainment-Floor-grid-2


    Next, we built a box around the Energy Module collection of pipes and conduits coming out of the concrete floor slab so we put in four plywood pieces around the four sides, lined the bottom with 50mm of PU foam and put in additional rail around the top edge so our lid can sit on something solid.

    Starting on the Entertainment Room

    Energy-module-equipment-box

    The conduits for the temperature probes were threaded around the legs and framework so that all four of them were routed over to the plumbing box and poked through the plywood sides, ready for threading the actual temperature sensors down the conduits and measure the state of of the environment around and inside this Energy Module.

    The filling pipes were fitted, being 15mm water pipes, and they were routed towards the hallway. This meant that we drilled a couple of 65mm diameter holes through the concrete blocks and pushed in some short length of pipe insulation to protect the energy in the water when it is transferred from inside the Energy Module and the Utility Room.

    Starting on the Entertainment Room

    All-the-pipes-and-conduits-in-place

    Then, we built another air distributor module to be connected to a 100mm feed off the main air duct back in the Hall, coming down the hall towards the front door and then turning into the Entertainment Room under the doorway itself. The distributor module is the usual affair of one 100mm input pipe, being squeezed and spread out to four 50mm connections, to be sent around the room.

    Oh yes, we just remembered that we needed a data conduit to be fitted to our central plumbing box and routed the other end out in the hallway under the doorway. This will allow us to feed a couple of cables through to connect our house network and provide electrical power to the little computer that is monitoring the vital signs of our buried Energy Module.

    This concludes all the bits and pieces going under the floor so we loaded in two layers of 200mm thick glass wool strips, laid flat. These strips would be 400mm high but when laid down, they only just came above the wooden rails which is 235mm off the floor, which is good to provide a much better sound absorbing layer.

    Starting on the Entertainment Room

    Insulation-in-the-floor-1

    Starting on the Entertainment Room

    Insulation-in-the-floor-2


    Now, we went ahead and laid down the 22mm thick floorboards, starting left of the doorway and worked our way across the room towards the window. The floorboards were glued and screwed down nice and solidly. The width of the room meant that we had to throw away fairly large pieces especially when we came to the ramp where we decided to start over again with a full length board, to make sure that the floorboards in the doorway is well supported.

    Starting on the Entertainment Room

    Enetertainment-room-floor-finished-1

    Starting on the Entertainment Room

    Enetertainment-room-floor-finished-2


    This concludes this stage of building the Entertainment Room, we will carry on with putting up the wall rails, getting them levelled and flat including putting in the Utility Channel and the OSB wall boards and may even get the ceiling done too.

  • 85 Sheets of 11mm OSB and 50 Sheets of 18mm OSB boards

    We had a delivery of additional sheet materials to add to our store of 11mm and 18mm OSB (oriented Strand Boards). We could calculate what we have left to construct for both the remaining downstairs rooms and also upstairs plus the flooring. We counted what we already had and we estimated that we needed another 50 sheets of the 18mm thick boards and another 85 sheets of the 11mm thick boards. They came on two pallets and we unloaded them over three days and put them all in our sheet storage room a.k.a Bedroom Two!

    85 Sheets of 11mm OSB and 50 Sheets of 18mm OSB boards

    OSB-Delivery

    85 Sheets of 11mm OSB and 50 Sheets of 18mm OSB boards

    OSB-Moved-to-Bedroom-2



    Mind you, the builder merchant did forget 1 sheet of the 11mm board and they had damaged the bottom sheet of 18mm with their forklift truck (or someone did). We will send them a request for a credit to be added to our account.
    85 Sheets of 11mm OSB and 50 Sheets of 18mm OSB boards

    Damaged-OSB


    The prices has risen considerably in just 18 months, we paid £17 for each 18mm type board last time and now we had to pay £23 each!! A 30% rise!! A few years ago, we only paid £13! Crazy World We Live On Now!
    So we are going to order all our standard plasterboard (which is not going on the walls but under the floor!) and Fermacell (an engineered high performance plasterboard) in the next week or so and beat the next price rises that are due in September.

  • We Had Our Delivery of Solar Panels

    At 11am this morning, we had our delivery of our new solar panels, all seventeen of them. They came flat on a large pallet, strapped down good and tight. Each panel measures 2metres by 1metre and they are capable to generate about 400watts on a good sunny day.

    We Had Our Delivery of Solar Panels

    Solar-Panels-have-arrived


    We inspected each one in turn for damage and electrically tested them and all works. For the last one, we left it outside in the sunshine and found several high powered resistors to measure what power we can get. The first resistor was a 22ohm and using two test meters, one to measure the current and the second one to measure the voltage, we were getting 38Volts and about 1.7Amps in bright sunshine. This works out at around 50watts, which is not very high at all. So, we switched over to our other resistor, 3.2ohm instead and rated at 100watts and watched the meters. Suddenly we were getting 33Volts and 4Amps which is over 120Watts which is much better. Then, Stephen told me to get my shadow off the corner of the panel and suddenly we got 35Volts and 9.2Amps which works out at well over 300Watts. That is much much better. In fact, we were so engrossed in the changing numbers as the Sun came and went in the hazy sky that we didn’t realise that our poor resistor was melting and boiling!!
    We Had Our Delivery of Solar Panels

    A-solar-panel

    We Had Our Delivery of Solar Panels

    Testing-a-solar-panel



    It is very interesting to realise that even a small shadow on the solar panel causes such a change to the performance and we have learnt first hand that you must avoid shadows as much as possible.
    We are now waiting for the metalwork to be delivered that will allow us to bolt the panels up on our roof. We are planning to put up seven panels up on the P roof, this faces slightly East of South (looks over our Patio) and a further ten panels up on the M roof which faces West of South (looks over the swimming lane) and each area will be “strung” together in series and the two sets of cables routed all the way back to our invertor “magic” box in the Utility Room. We will need to break into the Skylight to get the cables through but we will be careful and make sure it is all weather sealed and everything.

  • Energy Module Number Four has a leak (probably)!

    We discovered a very disturbing problem with one of our Energy Module when we were connecting our newly laid 22mm water pipe running from the Utility Room, to Tank Number Four that lies under the Kitchen and Bedroom One. We noticed that the water level was very low and after measuring it, there was only 130mm of water lying in the bottom, when there should have nearly 800mm depth of water. We are pretty sure that we had filled them up when we installed them years ago, but somehow, we have sprung a leak.

    But, because it was so long ago, we have to make sure we do have a leak actually. To check this out, we connected up our pump that is already located in the bottom of the Rain Water tank underneath the Garage and diverted the pipework into the house, by using one of the existing 22mm water pipe that is travelling from the Garage to the Utility Room (this pipe will be used for transferring the hot water from the Thermal Solar Panels sitting on top of the Garage) and then connected it to our 22mm pipe that goes off to this Energy Module.

    We included a water meter to measure the amount we transferred. We don’t mind using this source of water because it is free anyway, being pure rain water.
    We managed to get it running after the usual hiccups and we put in about 900litres before the end of the day, just to see if we lost it again overnight. We created a little float stick and put on a zero mark beforehand and it is now reading 83mm.

    Energy Module Number Four has a leak (probably)!

    Leak-measuring-gauge-on-25th


    But, in the morning, Tuesday morning, there was no signs of any leaks. So we continued to transfer more water and by lunch time at 1pm, we got the water level up to 250mm or about 2750litres extra for this experiment. We thought that maybe it needed more head of pressure to ‘force’ the leak.
    But again, 24 hours later, on Wednesday lunch time, it was still floating at the same 250mm mark.
    Energy Module Number Four has a leak (probably)!

    Leak-measuring-gauge-on-27th-after-second-fill


    So we waited another day and today, at lunch time, we checked the level and it is still holding steady. We are now going to give it a few days and weeks and keep an eye on it to see what happened.
    It must be a very very slow leak and we may be able to cope with that, especially that we have found online a possible solution where a suspended ‘blocking’ particles can plug various leaks in ponds or swimming pools etc. It is not the most ideal practical solution because the instructions says that the water needs to be constantly stirred, to keep the mixture thoroughly suspended, and as you can imagine, our tanks are fully enclosed, have multiple internal ‘baffles’ and are buried under the concrete slab and not very accessible. It only costs about £20 for a bottle so it is perhaps worth a try anyway.
    We have checked the other Energy Modules, and Number Five (the big one under the Great Room), Number Two (under Bedroom Two) and Number One (under Bedroom Three) are all still full. Only Number Three (under the Entertainment Room) is also showing only half full. We will have to do something similar with this Module too later on when we have established the various plumbing connections etc.

  • Second Half of Great Room’s Floor is Finished Including Ducting and Pipes Underneath

    We started the second stage of building the flooring for the Great Room by fetching down from our upstairs timber storage, 10 nice straight pieces. We then marked the 600mm markings on eight of them which will be where the support legs will go. Then, we laid out these eight lengths, ready to be our joists for the framework, putting them down on the concrete itself. We did this because we needed to get the air ducting laid and positioned so it connects to the exhaust air from the Conservatory and routed diagonally across the room and up to the First Floor to join into the main Air Duct that will travel through the house towards the Utility Room. This bridging section going underneath our floor needs to fit in between all the support legs, hence why we had marked out those positions and we soon realised that we had to shift things around a bit. The set of eight joists were spaced so that the bigger gap was next to the Kitchen side of the Great Room but we discovered that one of the joists and its support legs landed right over a joint in the concrete itself. So we moved everything over by 300mm so that the bigger gap is now over next to the Conservatory side of the room and that made it much neater. Then we could see that the metal ducting, two joined together making four lines stretching diagonally across the room was going through the support legs locations too. This meant another adjustment in our arrangement but this time, we shifted the support legs positions along the joists by 300mm which also turned out to be an advantage by avoiding another joint in the concrete slabs but in the other direction this time.

    So this allowed us to then construct another Air Splitter module that joined to the chimney that is coming down inside the wall between the large window and the Conservatory French doors, bringing the old exhaust air from that room. It was a case of carefully cutting and slicing several pieces of our chipboard pieces and shaping them so that we could plug in the set of four metal pipes into this module and draw the air away. It was quite fiddly but we managed it after a couple of days of work.

    Then of course, we had to remove all our CLS planks out of the way so we could lay down properly the eight metal pipes, join them to the four purple flexible pipes coming down inside the Kitchen wall and four double length joined and trimmed with small pieces of short pipes to finally connect to our new splitter module. We sealed all the joints with aluminium tape and Stixall glue.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    Conservatory-Air-crossing-GR-and-ascending-to-FF-void-1

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    Conservatory-Air-crossing-GR-and-ascending-to-FF-void-2


    We now have that particular air ducting completed and we can continue to build the floor framework over the top of it. It took us the next two days to complete that wooden structure, putting in eight joists and a collection of posts and noggings and it went in quite well. The metal tubes were successful in their location, only had to move a couple of legs a centimetre or two to avoid them.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-Floor-grid-complete

    Next, we put in the conduits for the temperature probes that surrounds the Energy Module, another six of them, to add to the other four plus the other local ones already in place so we can put in sensors to monitor the performance of this large tank. Then, all the water type pipes were laid in, four of them using 15mm direct water connections going to the external world in various forms and then two more thin irrigation waterlines going up to the Eves, so these were 20mm conduits to help feed this pipe through. Next, was the hot water twin pipes, travelling on its last stage of its long twisty journey around the house, to go diagonally across the room, next to the metal air ducts, poke through the kitchen wall and arrive inside the plumbing box located in the Kitchen where the sink and other water related services are.

    The cold water, the 32mm header tank water supply, then came across the room and join alongside the hot water to enter the same plumbing box and then finally, a single 15mm mains water pipe coming all the way from the Utility Room and also coming around to enter into the plumbing box too. This will provide fresh drinking water for the Kitchen.

    Finally, one more 15mm water pipe was inserted into the Energy Module, threaded down a sticking up 25mm pipe coming through the concrete and going back to the Utility Chamber to join with its twin, to get married to a larger 22mm pipe going off to the Utility Room. We also inserted a second 22mm water pipe alongside this one, but starting slightly further down the hall where our second largest Energy Module is located under the Kitchen and Bedroom One, both going all the way to the Utility Room.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-EM-Fill-connections

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    EM-Pipes-running-to-the-Utility-Room-1

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    EM-Pipes-running-to-the-Utility-Room-2


    The last job to do under the floorboards is to put in the air pipes to provide fresh air for this half of the Great Room, another eight air distributors located around the edge of the room, two along the Kitchen wall, three along the “A” wall and the final three along the Conservatory wall. These outlets are fed and grouped into four separate 50mm conduits that goes back to a splitter module which has a 100mm conduit connected to it and the other end coming from the Utility Chamber, ready to be connected to the main Air Duct.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-PA-Air-distribution-point

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-Hot-Cold-water-Fresh-Stale-air-all-in-one-place


    Finally, we carried on laying down the floorboards for the rest of the room, again, not glued down, or screwed either. We knocked each row securely against the rest of the floor, to encourage the joints to close up nice and tight. But the last row is only a half width piece and we have not cut an accurate piece to go into this space, but just laid down a couple of left-over half boards to fill the gap, to make it safe.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-Floor-finished

    One of the last task to do while we remembered, was to insert a collection of conduits and pipes around the windows so the wires and cables can carry on along all the Utility Channels. We did also the conduit that goes down into the bottom module underneath the window where the blind mechanism is to be located.

    Second Half of Great Room's Floor is Finished Including Ducting and Pipes Underneath

    GR-Window-conduits

    This concludes the work for the Great Room for the time being!! We won’t get back here until we have fully finished filling in the Roof Rafters and putting up the ceiling panels etc. After that, we can lift the floorboards and “throw” all the PU foam rubbish under it! Next, we will make a start on the Entertainment Room while we wait for this insulation PU foam pieces to arrive.

  • Taken the Plunge and Ordered Solar Panels and Batteries Plus Supporting Electronics

    After considerable discussions, we have decided to take the plunge and invest in some Green Energy solutions. We have ordered seventeen electric solar panels, measuring 2metres by 1metre high, rated at 405Watts per panel. This power rating isn’t set in stone as you can imagine when we got something like our Sun that keeps moving around, hazy skies, rain and the occasional solar eclipse producing shadows and affecting what power we can generate. The solar panel manufacturers all have to measure their panels using a standard 1000Watt testing rig but they also have to quote a so-called realistic figure as if we only got 800Watts per square metre, so these ratings that they have printed on the panels are only a guide and we could indeed, on rare occasions, get more!! But, big sigh, our Good Old British climate, we will likely only get 300 to 350Watts per panel on a very very clear blue sky day.
    So with our seventeen panels, seven on the P roof (overlooking our Patio) and a further ten on our M roof (overlooking our swimming lane), we could be producing 5 or even 6kiloWatts on a good bright sunny day when the Sun is right overhead. Otherwise, we would generate about 2kiloWatts on our P roof in the morning times and then 3kiloWatts later on in the afternoon and evening. We expect to generate about 10,000kWh per year.

    We ordered the panels from a UK stockist because the country now imports so many panels that it is not cheaper to buy direct from China these days. Hopefully, we will get those in a week or so.

    Another collection of items that we have ordered, is the mounting brackets and bars for fixing our solar panels on our roof, going through the slates but maintaining a waterproof seal etc. That is quite complicated shaped pieces of steel & aluminium and it costs almost as much as the solar panels for that mounting hardware.

    Next, we did go direct to a Chinese supplier for our batteries. It is not so common .. yet .. in this country, or rather, the batteries are being packaged into a single product and sold including installation fees added on top and it is many thousands to get hold of that type of batteries and the associated electronics. But, we like to do things ourselves but also, mostly, because we are wanting a much larger battery capacity and no one does a bigger system for a sensible price. So we are ordering 36 “cells”, each rated at 280 Amps Hour at 3.2Volts, measuring 72mm thick, 225mm high and 174mm long. They are about a third of the width of a typical car battery with both of them having about the same power capacity, which is amazing especially considering that they are much lighter and also have very good number of discharge and charge cycles. We are building two 50Volt battery sets, each having 16 cells, giving us about 30kiloWattHours capacity and one 12Volt set with four cells giving us nearly 4kiloWattHours. Each set will have a management computer overseer, to keep an eye on each separate cell and also the whole overall performance as well, protecting the batteries from any short circuits and other faults that may develop and shut the whole set off just in case. These computers are rated at 200Amps. The shipping will take six to eight weeks so sometime in late August or September.

    Another piece of equipment we ordered is a 5Kw hybrid inverter that takes two strings of electric solar panels and transforms those strings into both mains electricity to use generally and 50Volts to charge the two battery sets.. The box will take the power from the solar panels and either provide it as 240V mains electricity for general use and when the house is not using all of the power it will charge the batteries. If the house need more mains electricity than the solar can provide then the box will use the batteries to add extra output. It can be programmed to respond in various ways, depending on our requirements. This box will also act as a battery backup and will power our critical mains electricity usage (up to 5kW) if we have a power cut

    This is a major step for us to be taking right now, but, we really need to do something to help us avoid much of the enormous price increases we all are facing! But, we had always had plans to install solar panels, it is just coming much sooner than we thought, and the batteries have become much more affordable these days and be able to pay off the investments quite quickly.

    Spending less than £10,000 now will give us enough free power to mean that yearly electricity bills will be tiny for 20+ Years to come!