As you might expect, one of the things we hear a lot from some people is “How can you charge $200 for a pedal that I can buy the parts for, for less than $50, and make it myself?”

Right, let’s get comfy and pick this apart piece by piece. I’ll do my best to remain objective and not end up in a socio political rant about ethics, but you know, if you poke the bear sometimes you get bitten! But, I’ll try to keep my muzzle on and remain professional! lololz.

Let’s take the Thirty Something. A pedal that we sell for $239 USD. The first thing you have to remember is that Brian didn’t wake up one day and have it all mapped inside his head, he didn’t just do a “Let It Be” and have it ready from a dream. I kid you not that Brian took almost 3 years to design that circuit, it went through more prototypes than any other Wampler I know of (and I’m pretty certain I’m up to speed on this stuff), it was tweaked, changed, restarted, thrown in the bin so many times I actually stopped asking about it. When it was finally ready I remember Brian saying “I’m still not 100% happy with it, but I just can’t see how I can make it any closer”. That being said, when it arrived in Wildling territory and I plugged it in, I was staggered how it reacted and how it felt. I still think it remains the benchmark in AIAB pedals, it does the job perfectly. And I was brought up playing Edge, Queen, The Beatles and Hank Marvin songs… so, I’m kinda fussy with VOX tones.

Thinking about that, and thinking about how Brian is considered in his field, can you begin to imagine how much investment that is? To import a design engineer and have them work at something on and off for 3 years would be hundreds of thousands of dollars, I can’t comprehend how much it would be, but just think about that minute, that is a lot of R&D work, and you know, with a large family to support and employees to pay, that kind of work doesn’t pass unnoticed by the company accountant. R&D aside, then you have to imagine that once again, the designs of everything else doesn’t appear out of thin air, the pedal logo needs designing, the box art, the manual, the marketing, the demo videos, the promo shots… it’s actually quite ridiculous when you think about it, costs a bloody fortune.

Here is a picture I took for the marketing for the release of the Thirty Something. I am very lucky that I live near Manson's Guitar Shop and have a great relationship with them (they stock us). I go in, take over a corner of the shop, use their stock guitars as backing and then spend a long time photoshopping the picture to make it look like this. It all adds up! 

Now, we get to parts. Brian is RIDICOUSLY fussy about parts. He will only use parts that fulfil his requirements, and there was a stage at one point in time when we were ditching 2/3rds of a certain part because they didn’t come up to scratch - mere mortals like me can’t hear the difference, but let’s face it, I’m not Brian Wampler, his ears are better than mine and I expect most of yours as well, so you have to budget that as well.

So, let’s get back to the meat of this. You will find websites all over the internet that ‘kindly’ reverse every pedal ever made and post the schematic for all to plagiarise, errmmm, I mean “study". So, once we’ve spent ages designing and marketing a pedal and released it, someone can then probably go to their favorite online parts store and order the parts, an enclosure and get pretty close to how the original is. I say pretty close, because I can guarantee that the components won’t be to the spec Brian demands, it won’t be laid out as well and let’s face it, I expect the basic soldering won’t be that good. We stand by our 5 year guarantee, I bet the places the parts are bought from don’t! 

Let’s now look at this from another angle. And throughout this, I’m not going to mention any prices, because people will jump on it, but just think about where we are and what we are doing in this, and where you can buy it. We are not a retailer. We do not sell to the general public (we do offer direct sales through our site, but they account for next to nothing in term of units moved compared to our international sales team). We are a manufacturer. We manufacture a product, and then sell it to people who sell it through their own stores. Sometimes we sell it to a distributor who then sells it to a dealer… taking local and international taxes, shipping, the price goes up. Then I must mention the 5 year guarantee again… So, if you want to try a product in store, have that store stay open to offer you a service, you see where we, and everyone else, is coming from. Having said that, some pedals are overpriced for what they are. I’m not going to mention anything or anyone specifically here, but there are pedals out there that are basic reworked clones, with minimal R&D, with a crappy box, labelled with one of those crappy Embosser Label Maker gun things that are for sale direct from manufacturers that are silly prices, but that’s their conscience, not ours! 

Made in USA. What does that mean? You may have noticed we’ve shifted from Made in USA to Built in USA. Why I hear you ask? (and to be fair, it’s another question we get asked a lot at the moment.) Well, to be able to say “Made in USA” with complete honesty means that every component is made in the USA, and as far as I know (and I like to think I’m up to speed) most parts are impossible to source, let alone in the numbers we need them, from the USA. So, we source parts – as does EVERYONE else, from around the world - we just wear that information on our sleeves. The same burden of consistency and quality is applied, and we use only the very best. I would say that if a pedal is sourced from USA components (if it was actually possible) you’d be looking at a pedal that is at least 3 or 4 times the price, and you can imagine how many of them we’d sell! (worth noting that technically, it’s illegal for any pedal company to say “Made in the USA” due to the reasons above. We just found this out recently and changed the wording to be in accordance with US law).

When you think about a $199.97 pedal (also: inflation. www.usinflationcalculator.com a pedal that costs $199 today would have sold for $107 in 1990. Ever since 2007, we’ve had a main price of about $199 unless it’s a deluxe pedal. Accounting for inflation, that pedal SHOULD cost $235.10 in 2017, yet we’ve never raised that 199 price), remove the dealer margin, shipping, taxes and everything else (I’m not going to even go to how we manage to sell our stuff for virtually the same price all over the world, give or take $30 or so dollars) then start to think about production costs, there isn’t a lot of room to think about R&D and then the guarantee period. Now do the same with a pedal that is $149, $129 or $99 - think about how much it costs to build and how many compromises have to be made in those price reductions – kinda makes you wonder doesn’t it. Strip it back, work it out, and then you think about the Built in USA (as our stuff is) you’ll see that not only are we bringing you a quality USA product, but paying quality USA salary for the guys who design, build, test, market, sell and repair (which isn’t very often thankfully) our stuff… Then look at the guys who will sell you a clone of a pedal that is still in production for $50. Do you think that will give you the same pedal? Do you think that will encourage companies like us to continue to make quality products that will inspire you to sound the best you can do?

 

We get a lot of questions about breadboarding. It is an essential for any DIYer. Using software from 123d.circuits.io, we are able to give you the following tutorial on how to build a voltage amplifier circuit, or as many guitarists call it, a JFET booster. This is a basic breadboard layout. The battery, of course, represents your power supply, but any power supply will work.

The top and bottom two rows are all connected horizontally.

In the middle section, the holes are all connected vertically. This is important to remember, as this is key to how our signal will flow.

First thing we will do is run power into the board. We accomplish this by running a wire from the positive lead on the battery snap to one of the top rows. It can be any hole in that line, we just chose the closest. That entire row is now 9 volts power. And you do the same with the negative feed to the other row. That entire row becomes our ground.

If you are building a circuit using op amps, you will want to run power to both sides of the board. This is done by using a jumper wire from the positive row and the ground to the bottom two rows.

We are going to need an input and an output jack. Heat up that soldering gun. You will need to solder wire to the lugs on the jack. Notice how the negative lug is connected to the ring? This is where you will connect ground. The positive lug, which is connected to the tip, carries your signal into the signal chain.

We will now run a wire from the positive lug to one of our columns in the middle section. You would then run a wire from the negative lug to ground.

Now that we have the basics in place, we want to start this circuit out with a J201 JFET transistor. Notice how the three legs fit in three different rows.

Next we will need to add a .022 capacitor to the input.

Next we will place a 1k resistor in parallel, in the same row, with the capacitor.

Now we want to run a jumper wire to the first leg of the JFET.

The middle pin of the JFET can be given many different values dependent on what frequency response you want or how much gain you desire from the circuit. You can use any size resistor, however we will use a 1k resistor for this demo. We need to attach one end of the resistor to ground and the other to a hole in the middle section. We will then run a jumper to the middle leg of the transistor.

Now we need to run power to the JFET. We do this by attaching it to out 9v line and then to a hole in the middle. Again we need to use a jumper wire to get to the third leg of the JFET.

This is a little tricky here. As this resistor value will be dependent on what is needed to get a 4.5 reading on a voltage meter.

To check your voltage, you will need to attach the black probe to ground, and the red probe to the powered pin of the JFET. Then trade in resistors until you get a reading of 4.5 minimum.

It does not need to be 4.5 exactly, but I don’t like to go below that. Generally 4.5-5 volt is where you would like to be.

Okay, so the transistor has power and is working, but we need sound. Now we will add a capacitor where the power is coming in at the JFET. So we will connect it with the jumper wire that is going to the third pin on the transistor.

The other leg of the capacitor is where the sound will be coming out to your output jack. (Remember, when connecting your jacks to hook your negative to ground)

Warning: When you connect this breadboard to your amp it is going to be very loud compared to your usual guitar signal. This is because we have not added a volume pot yet. So let’s add a potentiometer. There are two types, wired and plug-in. For this demo we will use a wired type. We will be using a 500k for this circuit.

We will connect the third lug to the output of the capacitor. The first lug will go to ground and the second lug will go to a random hole in the board and then out to our output jack.

You may notice an added resistor in the diagram there. Very observant grasshopper. That is a 1 meg resistor that we forgot to add. It is attached to the first leg of the transistor, and then jumpered to ground. Our bad. So if we were to translate this to a schematic it would look like this.

As you can see, it would run input to capacitor to resistor to ground to JFET to ground. R5 is going to change in value as you bias it to reach 4.5 volts, then the signal continues to our capacitor (c4) to our volume pot to negative to our output. And so we just breadboarded a JFET booster. Well done!! :)