Didn't say you were, but you asked what your time was worth, and I thought that a fair assessment.I don't imagine ever selling these.
Didn't say you were, but you asked what your time was worth, and I thought that a fair assessment.I don't imagine ever selling these.
Well since you are a 13 year old Polish girl with one leg longer than the other, and whose father beats her terribly, You'll probably get a few more dollars than the other guys, just for sympathy.
Seriously though, I wouldn't have told what the costs where, but based on what you stated they were, I'd say 3 to 5 times the costs of the materials should be the final price.
Oh...I was asking as I thought they were something being added to your list of speakers you would make for sale.I don't imagine ever selling these.
Oh...I was asking as I thought they were something being added to your list of speakers you would make for sale.
Well since you are a 13 year old Polish girl with one leg longer than the other, and whose father beats her terribly, You'll probably get a few more dollars than the other guys, just for sympathy.
Nah, lots of girls lie about their age.Has anyone found it odd that I've been 13 years old for nearly 15 years?
I'm just surprised you admit to being Polish. Not that there's anything wrong with that.Has anyone found it odd that I've been 13 years old for nearly 15 years?
Huh... i always thought the parts should be physically separated more than that.
Capacitors and resistors don't care about proximity at all, though in some cases they are influenced by vibration (which I'll deal with when mounting inside the enclosure). Inductors are very sensitive to being close other inductors, magnets, voice coils, iron blocks, or anything which conducts or blocks stray magnetism - they are essentially electromagnets. As such, it is critical to separate any two inductors and when remotely close to each other they should have their magnetic fields oriented on different three-dimensional planes. It is also critical to keep them away from the speaker magnet, or at least measure and test the values when mounted on or near a magnet to compensate for the impact of the magnet on the performance.
In this case, I have an inductor, capacitor, and resistor. They will be mounted at the rear of the enclosure, far from the speaker magnet. The power won't ever be high enough cause any real rise in temperature, so being pressed together shouldn't contribute to heat overrun.
They look great!As I mentioned, I received a couple of very affordable 3/4" soft dome tweeters and went ahead and installed them on these speakers.
I simply made small blocks of MDF and glued some finished masonite to the front and used a router to round over the sides and front face. Once the mounts were complete, I installed the tweeters and placed the assemblies on top of the enclosures directly above the 5" fullrange drivers. With a simple 6dB crossover (single capacitor) which provides a 9kHz crossover point, I moved the tweeters slightly to the left and right until I go the perfect balance where the cancelations were just right. In a serious system I would have made 12dB crossovers for both the fullrange and tweeter, but in this case I got more than sufficient results for my office listening position, which is pretty much immobile.
Here's what it looks like:
View attachment 9357
And when I measure the frequency response from the location of my head while seated I get this:
View attachment 9358
The measurement includes all the reflections off the monitors, desk, seat back, and front wall. I find that to be very pleasing, and the slightly dull sound is gone and instead I have a very pleasing and airy top end without any issues.
If I were doing this properly for a customer, I would mount the tweeter in the main speaker baffle and design a proper crossover, but I'd still go with a very high crossover frequency, like something between 7 and 10kHz.
They look great!