Alexander, as I understand it low torque is actually desirable for a turntable. The low torque combined with the rotational inertia of the platter + record forms a low-pass filter that IIRC reduces wow and flutter.
On appliance quality in general, this is why I've learned to buy based on quality and reliability and not just on price. Manufacturers have to build what sells. Buying based only on price forces any manufacturer that wants to stay in business to shave off just as many pennies as the other manufacturers, and (no big surprise) product quality suffers. You (hopefully) get what you pay for. I try to find product reviews on e.g. Amazon and Consumer Reports and avoid buying junk, so manufacturers lose business by building too junky products.
We all like to bellyache about how poorly made our fridges (or stoves, washers, or other white goods) but I wonder what the reality is like for the engineers on the other side of the fence? I sure would like to hear from someone who did their time designing this stuff to find out what the reality is. Do they put stuff out knowing that it will fail? Do they do a warranty cost benefit to using parts they know may attract a lot of warranty costs? And balance this against the potential bad reputation that the product name will attract if too many failures get noticed? I think that the Manufacturers calculate this stuff to the last penny. Which puts to shame any sales blather about quality in manufacturing. The true maximum profit sweet spot must be to produce something less than quality, at a sticker price that sells, and accept the monkey derision?
If you are (or has been) one of those engineers, I'm sure you have a point of view that many of us would love to hear!!!
There is normally a tube running from the bottom of the freezer compartment to the drip pan under the fridge. It provideds a path for water during the defrost cycle of the freezer. If the tube is clogged, the water will enter the fridge and pool in the bottom or the crisper drawers. The tube is probably hidden under the freezer bottom tray. Remove the tray (tools probably required)and run a piepiece of wire through it to open the line. You may have to let the fridge manually defrost if the tube is plugged w/ ice
In a case like this I often wonder if a basic design FMEA had been performed. How often do we see something so simple slip through the design process? Often I wonder if work like this was actually done by a design engineer or if it was done by someone that wasn't really qualified to design a part like this. Engineering is a profession and when designs like this are used in products I believe it gives the entire industry a black eye.
I have a Whirlpool and there are some condensation weirdnesses that I can't figure out. My crisper drawers slowly fill with water. Everything else works fine. So I drain the crisper drawers once a month and everything is fine. But it's not right. The fridge is seven years old.
Wow, that is really creative!! The long standing, centuries old (The ancient Egyptians even figured this out) standing tradition of having TWO bearings per motor was improved upon and cost reduced. McMaster has that bearing for $0.29.
Multiple bearings virtually eliminate the excessive moment load currently being placed on the journal bearing.
Two ABEC-5 bearings cost around $7.50. So they saved 14 bucks making the refrigerator.
Personally I would be willing to pay an extra $14 to have these on my refrigerator...
Are they robots or androids? We're not exactly sure. Each talking, gesturing Geminoid looks exactly like a real individual, starting with their creator, professor Hiroshi Ishiguro of Osaka University in Japan.
For industrial control applications, or even a simple assembly line, that machine can go almost 24/7 without a break. But what happens when the task is a little more complex? That’s where the “smart” machine would come in. The smart machine is one that has some simple (or complex in some cases) processing capability to be able to adapt to changing conditions. Such machines are suited for a host of applications, including automotive, aerospace, defense, medical, computers and electronics, telecommunications, consumer goods, and so on. This discussion will examine what’s possible with smart machines, and what tradeoffs need to be made to implement such a solution.