When you're looking at static-control flooring, make sure that you view
an end-user environment completely different than you look at a manufacturing production environment.
These are very different spaces.
If you're looking at the use of static-control flooring in an end-user environment–
maybe it's a 9-1-1 call center, maybe it's a server room, a computer room, a data center, or war room–
then you should be looking at flooring from the perspective of
will it prevent static on people wearing regular shoes
If it's an ESD-protected environment where components are handled ,
you're going to be looking at it as a grounding mechanism using static-control shoes.
Second distinction in an end-user environment: you need to worry about safety.
The reason you need to worry about safety is there are no monitors used to determine
whether people's shoes are too conductive.
There are actually grounding standards that we can utilize and that we can require
in some cases our contractors, our general contractors and our installers to follow.
So the three main standards: one is put up by a group called ATIS
which is the Association of Telecommunications People,
so it's going to be people like Lucent, Alcatel, Cisco–
anyone building product that is used in the communications world.
The second group is Motorola themselves,
the people who make the wireless communication devices,
and then the last standard that we refer to is put out by the FAA,
and what's interesting, these three standards are all basically unrelated
and yet when it comes to flooring they all agree on what type of electrical properties the flooring should have.
So we've got three documents out.
We have FAA019e.
We have Motorola r56
We have ATIS 0600321.
All these documents are all available on ESDtile.com
Now let's get into safety a little bit, just so everybody understands
why we should even be thinking about it.
In electricity there's a number of laws, just like Newton's Law and whatever other law you want to refer to.
In electricity we have one called Ohm's Law
and Ohm's Law is basically an equation that uses three variables:
voltage, current and resistance.
When we talk about protecting ourselves from short circuits of electricity–in other words
from being part of a circuit that's very dangerous–
one of the things that can protect us is resistance.
Maybe a good analogy for you to think about is
if we were going to be pulling the charge away very rapidly
that would be the equivalent of standing in a couple of inches of water
as you walk up to the circuit breaker in your house
Obviously everyone knows you don't do that.
With the other end, we don't want the floor to drain static electricity so slowly that
it behaves like the carpet in your living room
because obviously we all know the carpet in our living rooms charges us up.
So when we look at floors what we're actually trying to do
is find a floor that somewhere is in between two inches of water and the carpet and your living room.
Something in the middle there–
in our industry, we call that the sweet spot–
and fortunately, we have these documents–
the ATIS document, the Motorola document, the FAA document–
to guide us and if you look at all these documents
they tell you specifically what that ohms rating is supposed to be and what it's not supposed to be.
So we have three options right now in the world of carpet.
We have what's called computer grade carpet,
we have what's called ESD grade carpet tile,
and then we have what's called operational equipment grade.
ESD grade carpet tile has been in use for probably 20 years
and these three standards that I mentioned before–ATIS, Motorola and FAA–
have recently revised their electrical specifications
and they no longer approve ESD grade carpet tile because it's too conductive
and by too conductive I mean that the ohms rating of the ESD grade carpet tile starts out too low.
It starts out of 25,000 ohms and goes up to a million ohms.
What we're looking for is something that starts out at a million ohms
and goes up to about a hundred million ohms.
We don't like computer grade carpet tile for these spaces
because we've discovered it only prevents people from getting static shocks.
It does not prevent circuit boards inside of servers from being disrupted by static charges
and that's because when you eliminate a shock hazard using the floor,
all you're doing is preventing the floor from generating charges over 3,500 volts.
Computer equipment is sensitive to 20, 40, 50, very low numbers of volts.
That brings us to the third type of carpet,
what we're calling operational equipment grade carpet,
and what this carpet is made to do is to drain static electricity but to do it at a controlled rate
and to do it with an ohms rating that allows you the possibility of touching voltage
and the floor not being so conductive that it's going to become a harmful path to ground.
So you'll read some of these documents that I mentioned
and they'll say "safe for use around energized equipment."
All they mean when they say energized equipment is something that's plugged into the wall.
Could be a printer, could be your computer, could be a console in a call center.
Anything that's plugged into the wall, if its operating it's energized.
What we're trying to do is find flooring that eliminates static electricity
but can be used around energized equipment
So criteria for end-user:
we want a static dissipative floor, we want the floor to prevent static electricity,
regardless of footwear.
In an electronics handling environment, we want a conductive floor,
we want that floor to work in conjunction with some kind of conductive or static dissipative footwear.