The Difference between Wetback and Dryback Boilers - The Boiling Point

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Language: en

00:00:00.089
welcome to the boiling point you know in
00:00:02.270 00:00:02.280 the boiler business we have one or two
00:00:04.100 00:00:04.110 boilers you've got fire two boilers and
00:00:06.440 00:00:06.450 many times while we're out we're
00:00:08.810 00:00:08.820 listening to things like wet back and
00:00:10.910 00:00:10.920 dry back so today I thought we'd talk a
00:00:13.070 00:00:13.080 little bit about the difference between
00:00:14.390 00:00:14.400 the wet back and the drive back boiler
00:00:29.870 00:00:29.880 welcome to the boiling point we're gonna
00:00:31.910 00:00:31.920 go to class today like we normally do
00:00:33.860 00:00:33.870 when we talk to drilled Blaine and we're
00:00:35.600 00:00:35.610 going to talk a little bit about the
00:00:36.650 00:00:36.660 drab back boiler versus the wet back
00:00:39.049 00:00:39.059 boiler now drilled it's Oaks day today
00:00:41.240 00:00:41.250 when we are actually filming this it's
00:00:43.220 00:00:43.230 Derby time here Louisville Kentucky
00:00:45.650 00:00:45.660 drilled was actually at the track
00:00:47.360 00:00:47.370 yesterday usually he loses how did you
00:00:50.240 00:00:50.250 do hit one superfecta made for the day
00:00:53.689 00:00:53.699 perfect perfect paper the drinks and
00:00:56.150 00:00:56.160 everything else cuz usually that bill is
00:00:57.680 00:00:57.690 a lot higher then then what what are you
00:01:02.240 00:01:02.250 actually bet so anyway well we go into
00:01:05.029 00:01:05.039 this we're going to talk dry back verse
00:01:07.070 00:01:07.080 wet back boilers drilled this is a topic
00:01:10.400 00:01:10.410 that I know when I'm out and talking
00:01:11.930 00:01:11.940 with folks and you're out talking with
00:01:13.580 00:01:13.590 folks that they have a lot of questions
00:01:15.139 00:01:15.149 about so let's kind of clarify some
00:01:17.420 00:01:17.430 things why don't you go through it
00:01:18.650 00:01:18.660 alright yeah I'm kind of excited to talk
00:01:20.749 00:01:20.759 about this because I repeat this a lot
00:01:22.850 00:01:22.860 to a lot of different customers so I
00:01:24.380 00:01:24.390 wanted to kind of go through some of the
00:01:25.820 00:01:25.830 the clarifications between the dry vac
00:01:28.700 00:01:28.710 the wet back the engineering of it all
00:01:31.160 00:01:31.170 efficiency efficiencies obviously it's a
00:01:34.969 00:01:34.979 lot of times confusing to everyone
00:01:36.580 00:01:36.590 because there's a lot of ways to enhance
00:01:38.960 00:01:38.970 the boiler the boiler being just a heat
00:01:40.969 00:01:40.979 exchanger I'm going to quickly kind of
00:01:42.830 00:01:42.840 go through this part of it with the
00:01:44.630 00:01:44.640 victory energy design this is their
00:01:46.249 00:01:46.259 center fire drive back a preferred
00:01:49.429 00:01:49.439 design I like this one a lot it's
00:01:52.130 00:01:52.140 engineered to optimize the water
00:01:54.890 00:01:54.900 circulation and that has a lot of
00:01:56.359 00:01:56.369 benefits particularly in process
00:01:57.920 00:01:57.930 environments the way you're able to
00:01:59.960 00:01:59.970 manage the water mm-hmm
00:02:02.240 00:02:02.250 also it's engineered to promote good
00:02:04.429 00:02:04.439 heat transfer especially from the
00:02:06.530 00:02:06.540 standpoint of the durability where you
00:02:08.630 00:02:08.640 have good even flow it has a downdraft
00:02:11.090 00:02:11.100 design which is unique to it versus
00:02:13.280 00:02:13.290 other types of drive back spray so it's
00:02:15.140 00:02:15.150 very durable design and it will it I'm
00:02:17.539 00:02:17.549 assuming that there's some maintenance
00:02:19.039 00:02:19.049 issues obviously with it that not in
00:02:21.110 00:02:21.120 that much maintenance there no there's
00:02:22.520 00:02:22.530 not a lot of maintenance and I'm going
00:02:24.259 00:02:24.269 to get into some of the details of that
00:02:25.729 00:02:25.739 as we go through actual construction
00:02:27.650 00:02:27.660 concepts of dry backs so it's built for
00:02:31.490 00:02:31.500 long term performance can't say that all
00:02:34.009 00:02:34.019 dry backs are that a lot of the dry back
00:02:36.289 00:02:36.299 designs aren't the best designs for say
00:02:38.569 00:02:38.579 a process environment where this design
00:02:40.939 00:02:40.949 is very suitable for that
00:02:44.229 00:02:44.239 also when I talked about mentioned
00:02:46.580 00:02:46.590 efficiency earlier people always confuse
00:02:48.860 00:02:48.870 say thermal efficiency with perhaps
00:02:50.690 00:02:50.700 combustion efficiency or they say
00:02:52.940 00:02:52.950 overall boiler efficiency the true the
00:02:55.160 00:02:55.170 truth efficiency that you're trying to
00:02:56.539 00:02:56.549 come up with is a fuel to steam
00:02:58.009 00:02:58.019 efficiency how much gas am i using how
00:02:59.809 00:02:59.819 much steam am i getting that's the
00:03:01.520 00:03:01.530 ultimate result and the heat exchanger
00:03:03.860 00:03:03.870 is only a one piece of that you may
00:03:06.830 00:03:06.840 design it you know to five square feet
00:03:08.449 00:03:08.459 you may be using cxi d tubes or
00:03:12.550 00:03:12.560 turbulator 's and things like that to
00:03:14.690 00:03:14.700 enhance the heat transfer but at the end
00:03:17.000 00:03:17.010 of the day it's how much fuel went in
00:03:18.830 00:03:18.840 and how much steam came out and the heat
00:03:21.619 00:03:21.629 exchanger itself is only responsible for
00:03:24.199 00:03:24.209 so much of that a typical 5 hour 5 foot
00:03:27.020 00:03:27.030 square foot design versus another 5
00:03:28.759 00:03:28.769 squit 4 square foot design is going to
00:03:31.039 00:03:31.049 be 80% period if you add extended
00:03:35.000 00:03:35.010 heating surface tubes you can enhance
00:03:37.339 00:03:37.349 that a couple of points because the heat
00:03:40.159 00:03:40.169 transfer is better versus just a smooth
00:03:42.470 00:03:42.480 two you increase the laminar flow the
00:03:44.539 00:03:44.549 tumbling same thing like when you use a
00:03:46.190 00:03:46.200 turbulator you get the heat turning over
00:03:48.259 00:03:48.269 get the tube working completely right
00:03:50.270 00:03:50.280 now the XID - that's kind of a it's not
00:03:53.210 00:03:53.220 a new technology but it has allowed us
00:03:55.339 00:03:55.349 in the boiler industry to be able to do
00:03:57.349 00:03:57.359 some more things if I absolutely we've
00:03:59.839 00:03:59.849 been designing with this for you know
00:04:01.729 00:04:01.739 more than 12 years right a lot of people
00:04:04.369 00:04:04.379 had shied away from it early on because
00:04:06.559 00:04:06.569 the combustion systems were struggling
00:04:08.149 00:04:08.159 with the back pressure on that is the
00:04:10.520 00:04:10.530 one thing about getting some back
00:04:11.659 00:04:11.669 pressure and decreasing that flow
00:04:13.039 00:04:13.049 through the unit allows that heat
00:04:14.390 00:04:14.400 exchanger to work better okay so you
00:04:16.279 00:04:16.289 literally you do get a benefit in where
00:04:19.219 00:04:19.229 you increase the surface so you actually
00:04:21.110 00:04:21.120 incorporate that into the designs 23 25
00:04:23.839 00:04:23.849 percent additional surface so you can
00:04:25.339 00:04:25.349 make the boiler a little bit smaller
00:04:26.719 00:04:26.729 mm-hmm or that additional surface also
00:04:30.800 00:04:30.810 increases the productivity of the tube
00:04:32.600 00:04:32.610 about 85% okay so you could lower the
00:04:35.540 00:04:35.550 surface potentially and utilize the
00:04:38.390 00:04:38.400 calculations of the edge your efficiency
00:04:40.129 00:04:40.139 of the tube right but one of the other
00:04:42.140 00:04:42.150 things we like to do in our designs and
00:04:44.680 00:04:44.690 the dry backs utilizing the center fire
00:04:47.360 00:04:47.370 is we have more productivity in the
00:04:51.409 00:04:51.419 furnace we'd like to do 55 60 percent of
00:04:54.230 00:04:54.240 the work in the furnace let's get
00:04:55.399 00:04:55.409 started
00:04:55.900 00:04:55.910 early and not wait to catch up in the
00:04:58.840 00:04:58.850 tubes particularly in a process
00:05:00.850 00:05:00.860 environment I want to get the heat into
00:05:02.380 00:05:02.390 the water as quickly as possible and not
00:05:05.110 00:05:05.120 have to rely on the tubes to finish the
00:05:06.970 00:05:06.980 job
00:05:07.450 00:05:07.460 right typical boilers and they do this
00:05:10.150 00:05:10.160 because if you do less productivity in
00:05:12.400 00:05:12.410 the furnace you can make a smaller
00:05:13.450 00:05:13.460 furnace furnaces are expensive to make
00:05:15.190 00:05:15.200 and so if you do 45% of the work and
00:05:17.650 00:05:17.660 then you just catch it up with the tubes
00:05:19.030 00:05:19.040 and that works in a lot of general
00:05:21.340 00:05:21.350 lumbering heating applications but we
00:05:23.890 00:05:23.900 have a lot of critical process customers
00:05:25.990 00:05:26.000 and when they say hey I need heat they
00:05:27.970 00:05:27.980 mean I need it right now and I don't
00:05:29.380 00:05:29.390 want to wait till later right so we tend
00:05:31.570 00:05:31.580 to lean on these kind of designs and
00:05:33.430 00:05:33.440 incorporate the extended surface tubing
00:05:35.590 00:05:35.600 in that these are even in our rental
00:05:37.750 00:05:37.760 fleet we use those that dry back design
00:05:40.180 00:05:40.190 is absolutely the other thing to note
00:05:42.760 00:05:42.770 with dry backs and this is not special
00:05:45.430 00:05:45.440 to this centerfire design or any one
00:05:47.410 00:05:47.420 manufacturer but you will tend to use
00:05:49.690 00:05:49.700 less fuel possibly up to 10% less fuel
00:05:53.280 00:05:53.290 utilizing a dry back and the reason that
00:05:56.470 00:05:56.480 is you've got this large heat sink in
00:05:58.870 00:05:58.880 the boiler so that when it actually
00:06:01.140 00:06:01.150 cycles off that heat sink will maintain
00:06:05.500 00:06:05.510 pressure longer before the burner comes
00:06:07.720 00:06:07.730 back on because the most efficient
00:06:09.730 00:06:09.740 boiler is the one that's not running no
00:06:11.860 00:06:11.870 fuels getting used right so if we can
00:06:14.230 00:06:14.240 keep that burner off longer and hold
00:06:16.120 00:06:16.130 setpoint you actually save fuel over
00:06:18.790 00:06:18.800 time sure so that's one of the benefits
00:06:21.040 00:06:21.050 I'm going to kind of show the
00:06:22.960 00:06:22.970 construction process of a dry back
00:06:24.640 00:06:24.650 because it's real confusing for people
00:06:26.380 00:06:26.390 often to compare what is a dry back
00:06:28.720 00:06:28.730 versus a wet back it's real hard to
00:06:30.220 00:06:30.230 grasp in your head on the wet back until
00:06:32.170 00:06:32.180 you see some of this and we'll show that
00:06:33.550 00:06:33.560 later in this video so here you have the
00:06:38.050 00:06:38.060 center fire design the first pass is
00:06:39.820 00:06:39.830 always the furnace we're going to come
00:06:41.530 00:06:41.540 back around in the second pass here we
00:06:43.810 00:06:43.820 have a corrugated furnace and then you
00:06:45.430 00:06:45.440 have a turn section here in the design
00:06:47.980 00:06:47.990 and the center fire design we like this
00:06:50.110 00:06:50.120 because that we like the thermal stress
00:06:52.690 00:06:52.700 on this one because as it turns down and
00:06:56.440 00:06:56.450 then get comes back over it's a much
00:06:58.870 00:06:58.880 more uniform and even flow kind of a
00:07:01.210 00:07:01.220 circular heating flow plus when we put
00:07:04.180 00:07:04.190 the make up water the return water back
00:07:06.700 00:07:06.710 in we're not putting it in the hottest
00:07:09.110 00:07:09.120 area so it reduces sledging and things
00:07:11.090 00:07:11.100 like that that can cause additional
00:07:12.920 00:07:12.930 problems hmm here we're just showing
00:07:15.830 00:07:15.840 what disengaging area actually is and
00:07:17.870 00:07:17.880 steamed space so you have storage in
00:07:20.180 00:07:20.190 here where steam is actually in this
00:07:22.520 00:07:22.530 chamber but the disengaging area is a
00:07:24.890 00:07:24.900 big deal as well that's what allows the
00:07:27.110 00:07:27.120 amount of heat to be made up quickly
00:07:28.670 00:07:28.680 okay and then these things the outlets
00:07:35.480 00:07:35.490 and the manholes in these things are
00:07:37.189 00:07:37.199 pretty typical between whether it's a
00:07:39.080 00:07:39.090 dry back or a wet back that does it very
00:07:40.879 00:07:40.889 much right
00:07:42.400 00:07:42.410 same thing with doors and so forth now
00:07:48.830 00:07:48.840 the dry back and the reason why we like
00:07:50.600 00:07:50.610 the centerfire as much as anything is
00:07:52.930 00:07:52.940 everyone will tell you that dry backs
00:07:55.310 00:07:55.320 are high maintenance and that's true for
00:07:57.590 00:07:57.600 designs that aren't like this and the
00:08:00.020 00:08:00.030 reason that is is the dry backs of other
00:08:02.629 00:08:02.639 designs where they have multiple passes
00:08:05.150 00:08:05.160 going from bottom to top there are
00:08:06.920 00:08:06.930 multiple pieces in the door your
00:08:09.500 00:08:09.510 shelving you have different materials
00:08:11.840 00:08:11.850 and you get a lot of expansion and
00:08:14.120 00:08:14.130 contraction that leads to cracking and
00:08:15.860 00:08:15.870 maintenance okay all of our dry vac
00:08:18.230 00:08:18.240 designs that with the center fire
00:08:19.700 00:08:19.710 concept whether it be a 2 or 3 which is
00:08:22.640 00:08:22.650 the preferred engineering that we like
00:08:24.800 00:08:24.810 to do this is a 3 pass it's kind of a
00:08:27.110 00:08:27.120 keystone design single piece if it were
00:08:29.029 00:08:29.039 to pass it would come straight across
00:08:30.950 00:08:30.960 and be a half moon it's still a
00:08:33.050 00:08:33.060 one-piece design we use a special
00:08:35.540 00:08:35.550 material with a 0 expansion modulus up
00:08:38.390 00:08:38.400 to about 3,000 degrees and because we do
00:08:41.029 00:08:41.039 more work in the furnace the door sees
00:08:42.949 00:08:42.959 the least amount of heat we usually show
00:08:45.290 00:08:45.300 about 600 degrees less than a typical 4
00:08:47.750 00:08:47.760 pass design ok now we're moving on talk
00:08:51.170 00:08:51.180 about the web map design you know I
00:08:53.600 00:08:53.610 talked highly of the dry vac design we
00:08:55.790 00:08:55.800 also produce wet back designs right so
00:08:58.100 00:08:58.110 for us it's not a prejudice where we
00:09:00.920 00:09:00.930 have to lean on one or the other we make
00:09:03.530 00:09:03.540 these they fit in a lot of great
00:09:05.600 00:09:05.610 applications I like this design pretty
00:09:08.180 00:09:08.190 well especially this to pass with this
00:09:09.860 00:09:09.870 integral heat exchanger so that you can
00:09:13.699 00:09:13.709 have less space you don't have to have
00:09:15.199 00:09:15.209 the economizer up high so this is a
00:09:17.210 00:09:17.220 unique design for us and all the to pass
00:09:19.340 00:09:19.350 wet backs that we do and be in a
00:09:21.650 00:09:21.660 two-piece wet backs kind of you
00:09:22.920 00:09:22.930 as well you can also have this in a
00:09:25.800 00:09:25.810 three pass but the two passes
00:09:27.120 00:09:27.130 automatically come with it
00:09:28.470 00:09:28.480 and I'm going to get into kind of the
00:09:30.030 00:09:30.040 construction of the wetback it's a
00:09:32.519 00:09:32.529 little more difficult to understand but
00:09:34.350 00:09:34.360 here's what the extended surface heat
00:09:36.269 00:09:36.279 exchanger would look like to be right
00:09:37.829 00:09:37.839 inside the shell save you some space
00:09:40.380 00:09:40.390 typical economizers obviously are on top
00:09:43.170 00:09:43.180 of the stack so right when you're saying
00:09:44.940 00:09:44.950 that that's actually inside here yeah as
00:09:47.130 00:09:47.140 we go through the this extended surface
00:09:50.070 00:09:50.080 heat exchanger then we exit the stack
00:09:51.900 00:09:51.910 right so it does save some space it
00:09:54.660 00:09:54.670 doesn't have to ship in a separate piece
00:09:56.040 00:09:56.050 it's a pretty unique design okay we also
00:09:59.160 00:09:59.170 can do the same thing in a three pass in
00:10:01.380 00:10:01.390 this one it's not being shown but we
00:10:03.210 00:10:03.220 would come back through in the third
00:10:04.440 00:10:04.450 pass and it would be integrated in here
00:10:06.090 00:10:06.100 prior to the stack so we kind of get
00:10:07.769 00:10:07.779 into the wet pack wet back design here
00:10:10.380 00:10:10.390 then and kind of show how how it is
00:10:12.660 00:10:12.670 actually made compared to what the dry
00:10:14.579 00:10:14.589 back arrest and this one is a little bit
00:10:17.100 00:10:17.110 difficult to grasp I love this
00:10:19.800 00:10:19.810 presentation because it illustrates it
00:10:21.360 00:10:21.370 pretty well this is the internal wetback
00:10:25.079 00:10:25.089 furnace mm-hmm and the reason why you'll
00:10:28.860 00:10:28.870 see here in a minute why we call it a
00:10:31.079 00:10:31.089 wetback or a water back we make we use
00:10:34.500 00:10:34.510 the first pass of the furnace we come we
00:10:36.810 00:10:36.820 turn through this turn section without
00:10:38.790 00:10:38.800 actually getting to the rear wall the
00:10:40.829 00:10:40.839 rear wall is separate okay which you can
00:10:43.320 00:10:43.330 see here so here you have this internal
00:10:46.019 00:10:46.029 furnace water is between the actual rear
00:10:49.650 00:10:49.660 wall and that furnace we have stay rods
00:10:52.500 00:10:52.510 that have to hold it into place you've
00:10:54.449 00:10:54.459 got a small plug opening that you can
00:10:56.880 00:10:56.890 crawl through to get in this furnace
00:10:58.410 00:10:58.420 okay I can't Carr all through it but
00:11:00.780 00:11:00.790 little people who can edit whether we're
00:11:02.610 00:11:02.620 hit if I got in there it would be a
00:11:05.490 00:11:05.500 freak show because I'm a little
00:11:06.900 00:11:06.910 claustrophobic you up so but one thing
00:11:10.350 00:11:10.360 to be concerned about here and this is
00:11:13.350 00:11:13.360 what I was talking about with the dry
00:11:14.430 00:11:14.440 backs being able to stay off longer all
00:11:17.610 00:11:17.620 of the heat is integrated directly into
00:11:19.560 00:11:19.570 water and there are some benefits to
00:11:21.030 00:11:21.040 that but when you're modulating up and
00:11:23.370 00:11:23.380 down a lot and what and the burner is
00:11:25.949 00:11:25.959 going off you like that rock there to
00:11:28.290 00:11:28.300 keep it off as long as a candle to use
00:11:30.210 00:11:30.220 less fuel there's a very durable system
00:11:33.560 00:11:33.570 not unlike the dry back but
00:11:36.420 00:11:36.430 the durability of this is pretty
00:11:38.370 00:11:38.380 exceptional because of all that
00:11:39.600 00:11:39.610 integration but I'm always cautious when
00:11:42.810 00:11:42.820 people they want to increase the size of
00:11:45.330 00:11:45.340 the materials and all that and this is a
00:11:47.670 00:11:47.680 heat exchanger so the way they last is
00:11:50.040 00:11:50.050 to get the heat exchanged properly you
00:11:52.170 00:11:52.180 can get away with a little more on the
00:11:53.550 00:11:53.560 tubes in the tube sheets but this
00:11:55.830 00:11:55.840 furnace when you start getting up above
00:11:58.110 00:11:58.120 say 200 psi gets a little unwieldly
00:12:01.170 00:12:01.180 because it's also its own pressure
00:12:03.090 00:12:03.100 vessel so we might be an inch and a half
00:12:05.310 00:12:05.320 thick here versus an inch and a quarter
00:12:07.170 00:12:07.180 and a two hundred psi design and that's
00:12:09.870 00:12:09.880 not in proportion to the rest of the
00:12:12.900 00:12:12.910 unit so if it's not properly heated or
00:12:15.930 00:12:15.940 it's cycling a lot this can be a failure
00:12:19.320 00:12:19.330 point and a very expensive one with the
00:12:22.170 00:12:22.180 dry back not having that internal
00:12:24.150 00:12:24.160 furnace we can easily do 300 psi not
00:12:27.270 00:12:27.280 have to worry about that because there's
00:12:28.890 00:12:28.900 nothing that's out of balance in the
00:12:30.780 00:12:30.790 heat transfer and then just to clarify
00:12:32.940 00:12:32.950 again you've got your gases coming
00:12:34.800 00:12:34.810 through through the furnace it's and
00:12:37.500 00:12:37.510 they're staying in here to get through
00:12:39.270 00:12:39.280 this yeah they're going to get in here
00:12:40.980 00:12:40.990 and come back through here right and
00:12:42.870 00:12:42.880 again illustrate the water is actually
00:12:45.390 00:12:45.400 in this area right okay so there's a
00:12:48.840 00:12:48.850 really just like it just like in a dry
00:12:51.690 00:12:51.700 bag right but in the dry back you have
00:12:54.150 00:12:54.160 the big door on the outside and the wet
00:12:55.650 00:12:55.660 back you of the small little plug okay
00:12:58.470 00:12:58.480 so here is what it looks like as you
00:13:00.870 00:13:00.880 come down through here the second pass
00:13:02.910 00:13:02.920 of tubes is coming back over top of the
00:13:05.250 00:13:05.260 furnace this is a low offset furnace
00:13:06.990 00:13:07.000 like like a traditional like a
00:13:09.210 00:13:09.220 traditional dry back right and then they
00:13:11.610 00:13:11.620 come through turn again turn again and
00:13:14.040 00:13:14.050 get smoke back to now onto the third
00:13:15.390 00:13:15.400 pass mm-hmm and then here you again have
00:13:20.310 00:13:20.320 your steam chest and you're disengaging
00:13:22.590 00:13:22.600 surface right mm-hmm and then the same
00:13:27.510 00:13:27.520 things that you would see on the drives
00:13:29.880 00:13:29.890 are nothing really different right but
00:13:32.910 00:13:32.920 when you get to the rear door it is it
00:13:36.030 00:13:36.040 is uniquely different okay and here you
00:13:38.490 00:13:38.500 have the small plug it's leading into
00:13:41.340 00:13:41.350 the furnace that you have to crawl
00:13:43.500 00:13:43.510 through if you have any tube stuff
00:13:45.420 00:13:45.430 someone's got to crawl into that little
00:13:47.370 00:13:47.380 furnace and do the tube work
00:13:49.950 00:13:49.960 versus standing outside the door sure
00:13:52.530 00:13:52.540 and rolling the tubes right so special
00:13:55.230 00:13:55.240 little dude does this all right so small
00:14:02.970 00:14:02.980 hinged or there's not much refractory
00:14:04.470 00:14:04.480 there like I said and refractory can be
00:14:06.540 00:14:06.550 a repair issue the one piece design that
00:14:09.060 00:14:09.070 we use does not have that kind of
00:14:11.100 00:14:11.110 trouble when you have the multi piece
00:14:12.840 00:14:12.850 you should be concerned it's going to
00:14:14.100 00:14:14.110 cost you some money in every few years
00:14:16.110 00:14:16.120 right now you have said we a lot and
00:14:19.560 00:14:19.570 what we like to do and we do have an
00:14:23.370 00:14:23.380 announcement to make that we have
00:14:25.110 00:14:25.120 selected victory energy as a partner of
00:14:28.590 00:14:28.600 ours to actually make the fire tube
00:14:31.290 00:14:31.300 boilers for us so brick once you maybe
00:14:33.810 00:14:33.820 go through a little bit of the stocking
00:14:35.190 00:14:35.200 program yeah we regularly stock and we
00:14:38.400 00:14:38.410 stock a morning generic fashion since
00:14:40.050 00:14:40.060 they could go anywhere in the US at any
00:14:41.790 00:14:41.800 time even though when we design for
00:14:44.490 00:14:44.500 stationary units we use a lot of higher
00:14:47.250 00:14:47.260 technology a little more efficient this
00:14:49.110 00:14:49.120 is more for emergency requirements but
00:14:51.270 00:14:51.280 the standard units are all three pass we
00:14:53.280 00:14:53.290 do utilize the XID technology and most
00:14:55.560 00:14:55.570 of all the units are low NOx that tends
00:14:58.680 00:14:58.690 to be the situation throughout the
00:15:00.840 00:15:00.850 country everybody's looking to go to 30
00:15:02.460 00:15:02.470 ppm so free pass dry vac low NOx is
00:15:06.000 00:15:06.010 typical we are going to have a standard
00:15:07.590 00:15:07.600 power flame burner on it with linkage we
00:15:10.260 00:15:10.270 can upgrade them to say a parallel
00:15:12.480 00:15:12.490 positioning or a higher efficiency
00:15:14.520 00:15:14.530 burner but this is the standard package
00:15:16.620 00:15:16.630 we carry them in most of the size that
00:15:19.290 00:15:19.300 would be typical package range from 50
00:15:21.330 00:15:21.340 all the way to 800 horsepower keep the
00:15:23.550 00:15:23.560 larger units at a little bit higher
00:15:25.170 00:15:25.180 pressure they tend to be in more process
00:15:27.180 00:15:27.190 environments now you'd have more than
00:15:29.070 00:15:29.080 one of each size yeah we typically among
00:15:32.370 00:15:32.380 this group will usually have a couple of
00:15:34.860 00:15:34.870 dozen units in stock ready to go so if
00:15:37.650 00:15:37.660 you have an emergency of that
00:15:38.910 00:15:38.920 requirement give us a call they're
00:15:41.940 00:15:41.950 always available well there you have it
00:15:43.920 00:15:43.930 the difference between the drive back
00:15:45.710 00:15:45.720 and and the wet back drill appreciates
00:15:48.630 00:15:48.640 you hanging out with us and we'll see
00:15:50.460 00:15:50.470 you next time on the boiling point well
00:15:53.100 00:15:53.110 appreciate Gerald stopping by and
00:15:54.270 00:15:54.280 talking to us a little bit about the
00:15:55.590 00:15:55.600 difference between the dry vac boiler
00:15:57.000 00:15:57.010 and the wetback boiler hopefully you
00:15:59.040 00:15:59.050 have a little bit better explanation of
00:16:00.990 00:16:01.000 the two
00:16:01.480 00:16:01.490 we're really excited about the
00:16:03.189 00:16:03.199 relationship between victory energy and
00:16:05.230 00:16:05.240 where and make sure you give us a call
00:16:07.239 00:16:07.249 if you ever need a boiler make sure you
00:16:10.059 00:16:10.069 like us on Facebook and follow us on
00:16:12.069 00:16:12.079 Twitter if you don't mind subscribe to
00:16:14.350 00:16:14.360 the YouTube channel and share the videos
00:16:16.480 00:16:16.490 and we'll see you next time on the
00:16:18.369 00:16:18.379 boiling point
00:16:36.610 00:16:36.620 you
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