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IKEA Vilasund and Backabro Review – IKEA’s 2014 New Sofabeds

[sg_popup id=”3″ event=”onload”][/sg_popup]Much to everyone’s surprised, IKEA released another 2 series of sofabeds mid this year(2014); let’s not forget that there were already 2 new models last year (friheten and moheda);

The 2 new sofa beds are called IKEA Vilasund and IKEA Backabro, both comes in a 3 seater and a sectional with storage compartment (Manstad’s style).

The IKEA Vilasund Sofabed with Chaise Lounge

So when we entered the store and did our routinely checking for new products, the IKEA Vilasund 3 seater did catch our eye as we looked at each other, and back at the sofa again

Chuck: “This Kivik looks… weird”
Henry: “I don’t think that’s a Kivik bro.”

This was in fact, the IKEA Vilasund 3 seat sofa bed which we weren’t so impressed with but guess what we found a couple of metres away..

 

The IKEA Vilasund 2 Seat Sofabed with Chaise

It was mind blowing – it was essentially combining the comfort of the Kivik with the aesthetics and function of the Manstad sofa bed. We knew we had to get our asses on that thing.

The verdict? The IKEA Vilasund is surprisingly more comfy than the Manstad to say the least, arguably even better than the IKEA Friheten Sofa Bed. The grey material used here is like the itchy Kivik, but since it is fully slipcovered – we can slip it into a more comfortable cover that works better with your living space. And the best part is that you can place the chaise lounge section to the left or right of the sofa, and switch whenever you like.

The only complaint (mine) or praise (from Henry’s) is that we have the same unnaturally low armrests as per the IKEA Kivik Sofa Series review and another peeve that would be the “faux” partition line that sort of divides the seat and back cushion into two even though it is actually one, long piece.

Price: A$999 in Australia
Colours: Beige, Light Beige and Grey
Size/Dimension (W x D x H): 242 x 150/88 x 71 cm
Design: 7.5
Comfort: 8
Function: 8
Overall score: 8 out of 10.

 

The IKEA Backabro Sofa Bed with Chaise Lounge

Needless to say, IKEA tends to make things with pretty predictable patterns. Firstly, the Fagelbo (the sofa bed prior to the Manstad) was a tad inconvenient to use with its sideway-opening chaise so it was improved to the Manstad. I’m of course only speculating, but it makes sense and soon with the growing popularity of the Manstad, they brought out the newer sofa beds (in 2012-2013): the IKEA Friheten, Moheda Lugnvik.

We can see that the Friheten is a newer Manstad with just a lower armrest on one side (so taller people can rest their legs comfortably across the sofa bed); the Moheda is an “Ektorp-ish” Sofa bed for those who like rounded arms and the Lugnvik is just the scaled down version of their sofa beds.

So with the Backabro, it’s essentially the same as the Vilasund – but again an Ektorp-ish version, just like the Moheda. In fact, it’s essentially a Moheda but more comfy. The back cushions are spongy and it really just gives us a better vibe overall. We still aren’t happy with the arms, but that’s why the IKEA Vilasund exists.

Price: A$999 in Australia
Colours: Beige, Brown, Natural and Grey
Size/Dimension (W x D x H): 248 x 150/88 x 71 cm
Design: 6
Comfort: 8
Function: 8
Overall score: 7.5 out of 10.

Last but not least, the awesome thing about these new sofa beds is that they come completely slipcovered! Hooray for long lasting sofas!

Update: Looking for slipcovers for the Backabro or Vilasund models? Comfort Works now has them here:

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  • by Balancingimpow
    Posted October 27, 2024 4:34 PM 0Likes

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    Understanding Vibration Diagnostics for Dynamic Shaft Balancing
    Vibration diagnostics plays a crucial role in optimizing the performance and lifespan of rotating machinery. Specifically, dynamic shaft balancing is essential for machines such as turbines, centrifuges, crushers, and fans. The primary focus of this process is to identify and rectify imbalances that lead to vibrations, which can cause mechanical failures if left unaddressed. This article delves into the principles of vibration diagnostics, particularly in the context of dynamic balancing, to ensure smooth machinery operation.

    Static vs. Dynamic Balance
    To comprehend vibration diagnostics, it is essential to distinguish between static and dynamic balancing. Static balance refers to a scenario where a rotor, when at rest, has its center of gravity offset from the axis of rotation. This imbalance results in a gravitational force that moves the rotor to a position where the heavier part is oriented downwards. Typically, static balancing involves adding or removing mass around a single plane to align the rotor’s center of gravity with its rotation axis, addressing unbalances in one dimension.
    In contrast, dynamic balance occurs during the rotation of the rotor and entails errors in two different planes. In this situation, two varying mass displacements create additional vibrations. This means that traditional static balancing cannot fully resolve the issue since it typically addresses one dimension only. Herein lies the significance of vibration diagnostics; it enables the detection and correction of these multidimensional imbalances, ensuring optimal operation.

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    The first step in dynamic balancing involves measuring the initial vibrations of the rotor. Vibration sensors are attached to the rotor, and as the rotor spins, baseline vibration data is recorded. This initial measurement establishes a reference point for subsequent evaluations.
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    Next, a known calibration weight is installed on the rotor in a specific plane. The rotor is restarted, and the system records the changes in vibration levels. This data is important for evaluating the effect of added weight on rotor vibrations.
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    Following the initial assessment, the calibration weight is moved to different positions on the rotor, and vibrations are re-measured. This process helps identify how various placements of weight influence the overall balance of the rotor.
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    After thorough measurements and analysis, final compensating weights are determined and installed at the exact points required for balance. The rotor is then started again, and the system verifies whether the vibration levels have reduced to acceptable limits.

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    When employing vibration diagnostics, it is vital to accurately calculate the angles and mass of corrective weights. The process begins by measuring the angle in the direction of rotation during initial tests. The trial weight position serves as a reference point for future corrections. Then, the angles where corrective weights are to be placed are determined, ensuring that they counteract the vibrations effectively.
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    Industrial Applications of Vibration Diagnostics
    Various sectors benefit significantly from vibration diagnostics and dynamic shaft balancing. Industries such as manufacturing, aviation, and energy are heavily reliant on well-balanced machinery for operational efficiency and safety. An imbalance can lead to increased wear or catastrophic failures, which can be both costly and dangerous.
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