WEBVTT
Kind: captions
Language: en

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These days, if you want to install some sort
of security camera system, you can just run

00:00:04.100 --> 00:00:09.410
to your favorite big box store or wholesale
club, buy a kit with 4 cameras and a DVR,

00:00:09.410 --> 00:00:13.870
and within hours have a working CCTV system
capable of recording days or weeks or even

00:00:13.870 --> 00:00:18.110
months worth of HD, or sometimes 4K security
footage.

00:00:18.110 --> 00:00:21.841
Now we can even access them remotely over
the Internet, or put them in doorbells, or

00:00:21.841 --> 00:00:25.720
backup the footage to the cloud, or any number
of things which, depending on your point of

00:00:25.720 --> 00:00:28.420
view, you may find interesting or…

00:00:28.420 --> 00:00:29.640
concerning.

00:00:29.640 --> 00:00:30.680
But…

00:00:30.960 --> 00:00:34.260
Not that long ago, we only had the world of
analog video.

00:00:34.260 --> 00:00:38.770
Sure, videocassette recorders were widely
available, but even with the most generous

00:00:38.770 --> 00:00:42.980
of tape lengths and the slowest of recording
times, you’re not going to be able to get

00:00:42.980 --> 00:00:45.900
more than 10 hours or so out of a tape.

00:00:45.900 --> 00:00:51.360
That’s not great for security cameras, particularly
if you want to be able to record footage over

00:00:51.360 --> 00:00:54.040
a weekend when no one is at the office.

00:00:54.040 --> 00:00:58.579
But this video is running at 30 frames per
second and for surveillance footage, that’s

00:00:58.579 --> 00:01:00.430
probably more than we need.

00:01:00.430 --> 00:01:04.739
If there were a way that we could reduce the
frame rate, we could get more time out of

00:01:04.739 --> 00:01:06.130
one tape.

00:01:06.130 --> 00:01:11.190
If we recorded, maybe, only two frames per
second, we’d still have a pretty good record

00:01:11.190 --> 00:01:14.840
of what happened, and we could get 15 times
as much footage.

00:01:14.840 --> 00:01:19.860
Well, that idea did come to fruition in the
form of the time-lapse VCR.

00:01:19.860 --> 00:01:23.540
I’ve known about these things for years,
but there have always been some nagging questions

00:01:23.540 --> 00:01:25.690
in my mind about how they work.

00:01:25.690 --> 00:01:28.920
For example, most VCRs just kinda…

00:01:28.920 --> 00:01:31.280
suck at showing a still image.

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If you hit pause on this one, you’ll inevitably
get some sort of snowy garbage at the top

00:01:36.060 --> 00:01:37.060
or the bottom.

00:01:37.060 --> 00:01:41.500
In later years, a digital frame buffer would
grab a snapshot of whatever you were playing

00:01:41.500 --> 00:01:46.780
so that there could be a nice clean still
frame, but a time lapse VCR that’s RECORDING

00:01:46.780 --> 00:01:49.140
footage, how does that work?

00:01:49.140 --> 00:01:53.750
Now I could do some research and try to find
out exactly how a time lapse VCR is doing

00:01:53.750 --> 00:01:57.790
all the magic stuff it does, but it sure would
be great to just have one that I could poke

00:01:57.790 --> 00:01:58.960
around with.

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Oh right!

00:02:00.280 --> 00:02:03.520
This is a Sony SVT-3050.

00:02:03.530 --> 00:02:07.560
You can tell that this is a legitimate piece
of A/V equipment because of its two-tone beige

00:02:07.560 --> 00:02:09.740
and brightly colored transport buttons.

00:02:09.740 --> 00:02:10.789
Oh yeah.

00:02:10.789 --> 00:02:11.789
Matte black?

00:02:11.789 --> 00:02:14.230
Heh, this is where it’s at.

00:02:14.230 --> 00:02:18.470
Seriously, why was so much professional A/V
equipment from the this time period made in

00:02:18.470 --> 00:02:20.160
this particular color scheme?

00:02:20.160 --> 00:02:23.440
It’s like it’s trying its best to be plain.

00:02:23.440 --> 00:02:28.080
From the front, this looks like any normal
VCR save for its relatively few buttons

00:02:28.080 --> 00:02:29.760
(most are hidden behind the door)

00:02:29.760 --> 00:02:32.900
and surprising
omission of the VHS logo even though this

00:02:32.900 --> 00:02:35.020
uses VHS cassettes.

00:02:35.020 --> 00:02:38.360
Are we bitter about something, Sony?

00:02:39.320 --> 00:02:43.260
We’ll get to that in a minute because there
is some mystery as to why the label’s missing,

00:02:43.260 --> 00:02:45.830
but what gets weirder is when you come ‘round
to the back.

00:02:45.830 --> 00:02:49.900
For starters, you won’t find standard coaxial
jacks for a television tuner.

00:02:49.900 --> 00:02:53.270
Nor will you find standard RCA jacks for composite
video.

00:02:53.270 --> 00:02:58.240
Instead, you’ll find BNC connections, which
were and are to this day very common in

00:02:58.240 --> 00:03:00.120
security camera applications.

00:03:00.130 --> 00:03:05.060
You’ll also find a bunch of screw terminals
for various things like timers and alarms.

00:03:05.060 --> 00:03:09.989
For example, the unit can send out an alarm
signal if the tape becomes jammed or it runs

00:03:09.989 --> 00:03:10.989
out of tape.

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And it can also accept an alarm input to start
recording.

00:03:14.270 --> 00:03:18.290
When I got my hands on this, the first thing
I did (as would anyone, I presume) was to

00:03:18.290 --> 00:03:19.320
open the case.

00:03:19.320 --> 00:03:21.580
I wanted to see just what’s inside this
thing!

00:03:22.240 --> 00:03:22.840
Oh.

00:03:22.840 --> 00:03:24.700
There’s a circuit board in the way.

00:03:24.700 --> 00:03:26.900
No matter, we’ll just pop that up, and look
at that!

00:03:26.909 --> 00:03:30.599
There are little pegs made specifically for
holding the board up and out of the way for

00:03:30.599 --> 00:03:31.599
servicing.

00:03:31.599 --> 00:03:32.959
That’s neat.

00:03:32.959 --> 00:03:37.010
Under the board was a completely normal looking
VHS transport.

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Real talk, if you are into old VCRs like I
am, you actually should open them up before

00:03:41.470 --> 00:03:46.020
you test them to make sure nothing is stuck
which might cause it to eat a tape.

00:03:46.020 --> 00:03:50.580
This one indeed had something preventing the
take-up spool from turning, and after exercising

00:03:50.580 --> 00:03:52.340
it a bit the problem went away.

00:03:52.340 --> 00:03:55.549
But, had I not checked, it may have ruined
a tape.

00:03:55.549 --> 00:04:01.019
These are the sorts of life changing tips
you can find only here on Technology Connections!

00:04:01.019 --> 00:04:04.879
One of the more curious things in here is
the use of a modular power supply.

00:04:04.879 --> 00:04:10.269
You probably noticed the standard IEC C13/14
connector on the back, and it’s clear that

00:04:10.269 --> 00:04:14.150
it wouldn’t be very difficult to swap out
this power supply for another.

00:04:14.150 --> 00:04:17.959
This not only makes repair easier, but it
also means that the same chassis could be

00:04:17.959 --> 00:04:19.459
used in many markets.

00:04:19.459 --> 00:04:23.879
OK, so with it operational, I popped a tape
in and starting messing with the playback.

00:04:23.880 --> 00:04:29.760
On any speed but the normal 2 hours, the tape
simply juddered forward one step at a time.

00:04:30.400 --> 00:04:31.720
Is that really it?

00:04:31.720 --> 00:04:36.280
I had imagined that maybe the head drum would
spin at a slower speed, or that the machine

00:04:36.280 --> 00:04:40.229
would behave in some other strange way, but
it appeared that this was simply stepping

00:04:40.229 --> 00:04:42.469
forward one frame at a time.

00:04:42.469 --> 00:04:46.279
Lots of VCRs can do that… so what makes
this special?

00:04:46.279 --> 00:04:50.400
Well, keen eyes may notice that the quality
of that still frame is perfect.

00:04:50.400 --> 00:04:54.469
There’s no snow, there’s no jitter, and
there isn’t even any sign that that’s

00:04:54.469 --> 00:04:56.339
a digital frame buffer.

00:04:56.339 --> 00:05:00.139
To be sure that this wasn’t playing tricks on
me, I touched the spinning head drum while

00:05:00.139 --> 00:05:05.589
watching the screen of the TV, and sure enough
the picture was distorted along with my touch.

00:05:05.589 --> 00:05:09.229
So, this picture is coming live from that
tape.

00:05:09.229 --> 00:05:14.089
That alone isn’t so surprising, as many
high-end VCRs with four heads can do that.

00:05:14.089 --> 00:05:17.880
But what is a little more interesting is that
it not only has to do that when playing a tape,

00:05:17.880 --> 00:05:20.729
but it also has to do it when recording.

00:05:20.729 --> 00:05:25.400
After much searching, I found a great source
describing how time-lapse VCRs work, and one

00:05:25.400 --> 00:05:30.400
of the more remarkable things about them is
how precisely they can move the tape itself.

00:05:30.400 --> 00:05:34.779
See, in normal recording and playback, the
tape is continuously moving at a rate of about

00:05:34.779 --> 00:05:38.889
1.3 inches per second, or 3.3 centimeters
per second.

00:05:38.889 --> 00:05:43.479
This means that with each sweep of the recording
or playback heads, which happens 60 times

00:05:43.479 --> 00:05:49.199
a second on an NTSC machine, the tape has
actually moved roughly half a millimeter.

00:05:49.199 --> 00:05:52.919
That means that the end point of the sweep
is about half a millimeter to the right of

00:05:52.919 --> 00:05:55.969
the beginning, imparting a slight angle to
the track.

00:05:55.969 --> 00:06:00.289
That’s why a two-head VCR can’t display
a nice still frame.

00:06:00.289 --> 00:06:05.039
Without getting too deep into explaining analog
video, each head is responsible for one half

00:06:05.039 --> 00:06:07.139
of the frame, or one field.

00:06:07.140 --> 00:06:12.820
With a two head VCR, if the tape stops, then
the heads are suddenly misaligned a little bit.

00:06:12.820 --> 00:06:17.620
One head will start showing the correct thing,
but it will drift into the adjacent track.

00:06:17.629 --> 00:06:19.930
The same thing happens when the next head
sweeps.

00:06:19.930 --> 00:06:24.610
In essence it’s always reading the wrong
thing for at least some part of the frame,

00:06:24.610 --> 00:06:27.839
and the result is a noisy, incomplete picture

00:06:27.839 --> 00:06:32.300
But a 4 head VCR actually has two heads passing
by with each sweep.

00:06:32.300 --> 00:06:37.469
It’s capable of reading either the odd or
even fields at any time, and can switch between

00:06:37.469 --> 00:06:38.849
them on the fly.

00:06:38.849 --> 00:06:44.090
This allows it to perfectly display either
the odd or even field without noise bars.

00:06:44.090 --> 00:06:47.220
There’s a great link in the description
if you’d like to learn a little more about

00:06:47.220 --> 00:06:48.319
the specifics here.

00:06:48.319 --> 00:06:53.020
Anyway, that’s all fine and good, but what’s
most interesting here is how the machine records

00:06:53.020 --> 00:06:54.270
onto the tape.

00:06:54.270 --> 00:06:58.719
It needs to get that correct angle otherwise
the signals will be completely out of spec

00:06:58.719 --> 00:07:03.720
from VHS, and it won’t be able to play them
in fast motion for the purpose of searching

00:07:03.720 --> 00:07:06.259
for the moment that your restaurant was robbed.

00:07:06.259 --> 00:07:07.379
Or whatever.

00:07:07.379 --> 00:07:11.949
And that is what makes this more advanced
than your average 4 head VCR.

00:07:11.949 --> 00:07:16.899
When recording, the heads are completely inactive
except for when they write that single field

00:07:16.899 --> 00:07:18.259
onto the tape.

00:07:18.259 --> 00:07:21.099
Most of the time they’re simply spinning
for the fun of it.

00:07:21.099 --> 00:07:22.379
And here’s the kicker.

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The writing action is perfectly synchronized
so that it happens just as the tape is being

00:07:26.990 --> 00:07:29.479
advanced to the next position.

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This means that the machine actually is recording
in a completely normal fashion.

00:07:33.729 --> 00:07:38.939
But, it is able to start and stop the tape
with such precision that although it’s recording

00:07:38.939 --> 00:07:43.349
up to 86 times slower than normal, the signals
on the tape are unaffected.

00:07:43.349 --> 00:07:44.830
Take a look at this slow motion footage.

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I’ve placed a marker on the tape so that
we can see it advance.

00:07:48.189 --> 00:07:53.430
The tape is completely stationary, but the
moment that head is aligned with it, it moves.

00:07:53.430 --> 00:07:56.690
And as soon as the next head is in position,
it stops.

00:07:56.690 --> 00:08:01.110
This extremely precise control of the tape’s
movement, along with the idling of the recording

00:08:01.110 --> 00:08:05.659
heads until the moment that next frame is
to be recorded, enables the machine to make

00:08:05.659 --> 00:08:09.029
intermittent, single-field recordings onto
the tape.

00:08:09.029 --> 00:08:10.029
Pretty neat.

00:08:10.029 --> 00:08:12.060
Now here’s where things get a little weird.

00:08:12.060 --> 00:08:15.029
Keen viewers will have noticed that there
is an audio input on here.

00:08:15.029 --> 00:08:20.520
If you’re familiar with how audio is stored
on a non-HiFi VHS tape, you’ll know that

00:08:20.520 --> 00:08:25.509
it’s recorded linearly on the edge of the
tape, just like a normal audio cassette.

00:08:25.509 --> 00:08:28.930
How would audio work if the tape is moving
in steps?

00:08:28.930 --> 00:08:34.300
Well, the machine can only record audio in
the normal 2 hour mode, and the 12 and 24

00:08:34.300 --> 00:08:35.560
hour time lapse modes.

00:08:35.560 --> 00:08:38.329
It can’t record audio in the slower speeds.

00:08:38.329 --> 00:08:42.340
But, this means that when recording in the
12 and 24 hour modes,

00:08:42.340 --> 00:08:44.829
the tape isn’t advancing in steps.

00:08:44.829 --> 00:08:48.560
Instead, it’s continuously moving very slowly.

00:08:48.560 --> 00:08:52.889
The images are still stored in a reduced frame
rate, but the continuous motion of the tape

00:08:52.889 --> 00:08:56.820
enables sound, albeit very very terrible sounding
sound.

00:08:56.820 --> 00:08:58.389
So, the same thing happens.

00:08:58.389 --> 00:09:04.430
The heads only write in individual bursts
for each frame, but we get an odd consequence now.

00:09:04.430 --> 00:09:09.779
See, if I want to play the tape back with
sound, it can’t play the tape back very well.

00:09:09.779 --> 00:09:14.160
It’s certainly not awful, but there are
noise bars and other anomalies.

00:09:14.160 --> 00:09:18.610
If we want perfect quality, we need to switch
the sound off, and then it returns to the

00:09:18.610 --> 00:09:20.830
stepping mode that it was using before.

00:09:20.830 --> 00:09:25.320
And this may give us a clue as to why the
machine is missing a VHS badge.

00:09:25.320 --> 00:09:30.819
Technically, the format specifications aren’t
being broken if it is recording in steps like this.

00:09:30.819 --> 00:09:35.940
It is recording a normal SP signal on the
tape, it’s just doing it intermittently,

00:09:35.940 --> 00:09:37.600
one field at a time.

00:09:37.600 --> 00:09:42.860
But this weird extra super duper slow speed
doesn’t conform to that standard.

00:09:42.860 --> 00:09:44.500
Is this THE reason?

00:09:44.500 --> 00:09:46.020
I can’t say for certain.

00:09:46.160 --> 00:09:53.340
The S-VHS variant of this machine, the Sony
SVT-3050P, does have an S-VHS badge on the

00:09:53.340 --> 00:09:57.600
front, and it, too can record audio in 12
and 24 hour modes.

00:09:57.600 --> 00:10:00.880
So… the missing logo may remain a mystery.

00:10:00.889 --> 00:10:02.420
But we’re not done yet.

00:10:02.420 --> 00:10:05.830
Did you notice that “Faroudja laboratories”
mark on the back?

00:10:05.830 --> 00:10:07.649
Yeah, that got me curious.

00:10:07.649 --> 00:10:10.410
Who are they and what do they want with my
VCR?

00:10:10.410 --> 00:10:15.170
Well, Faroudja Labs was quite famous for analog
video processing technologies, in particular

00:10:15.170 --> 00:10:17.579
devices called line doublers.

00:10:17.579 --> 00:10:22.259
These could take a low resolution image, and
double the number of horizontal lines of resolution,

00:10:22.259 --> 00:10:24.610
to give it an apparent resolution bump.

00:10:24.610 --> 00:10:28.449
This device would really benefit from a line
doubler, because it records just one field

00:10:28.449 --> 00:10:29.750
at a time.

00:10:29.750 --> 00:10:34.199
Each still frame is only half the resolution
of a normal television signal, and for something

00:10:34.199 --> 00:10:38.480
like security cameras where you might want
to be able to identify who is stealing your

00:10:38.480 --> 00:10:40.970
stuff, that’s not good.

00:10:40.970 --> 00:10:45.279
Now I’ll admit, you can’t get more detail
out of an image than was already there, so

00:10:45.279 --> 00:10:50.089
the extent to which a line doubler may help
with tasks like identifiability is up for

00:10:50.089 --> 00:10:53.720
debate, but it’s clear that this technology
is helping.

00:10:53.720 --> 00:10:58.460
Part of why these still frames seem remarkably
clear may simply be due to Faroudja’s video

00:10:58.460 --> 00:11:00.189
processing prowess.

00:11:00.189 --> 00:11:04.560
Now I can’t say for certain that there is
a line doubler in here, but knowing what Faroudja

00:11:04.560 --> 00:11:07.290
had done in the past, it seems very likely.

00:11:07.290 --> 00:11:11.230
At the very least, something of theirs is
making this a very sharp picture for what

00:11:11.230 --> 00:11:12.610
the raw signal is.

00:11:12.610 --> 00:11:16.269
So, that pretty much wraps up how a time-lapse
VCR works.

00:11:16.269 --> 00:11:19.430
It’s a lot less magical than I thought it
might be.

00:11:19.430 --> 00:11:22.250
More or less it’s just a standard VCR.

00:11:22.250 --> 00:11:25.550
There were some special considerations to
using it, however.

00:11:25.550 --> 00:11:29.269
With a normal video tape, the tape is only
touching the spinning head drum for a few

00:11:29.269 --> 00:11:30.790
seconds at a time.

00:11:30.790 --> 00:11:34.879
But with this machine, on the slower recording
speeds, it might be touching that drum for

00:11:34.879 --> 00:11:38.860
a few minutes at a time, and this could quickly
wear out the tape.

00:11:38.860 --> 00:11:42.860
For this reason, manufacturers would recommend
that you discard your tapes after a certain

00:11:42.860 --> 00:11:44.399
number of uses.

00:11:44.399 --> 00:11:48.540
Some would say to only use a tape twice if
it was recorded with the slowest speed.

00:11:48.540 --> 00:11:52.680
When these were in common use, you’d need
to balance the desired detail of the recording

00:11:52.680 --> 00:11:56.580
with your business hours and when the tapes
could be changed, and how long of an archive

00:11:56.580 --> 00:12:00.690
you need to keep (for legal purposes, usually
at least a month of recordings).

00:12:00.690 --> 00:12:05.600
So, you’d need to have something like 10
tapes on hand, use them in a rotation, and

00:12:05.600 --> 00:12:08.990
discard them after they’d been used perhaps
a dozen times.

00:12:08.990 --> 00:12:13.680
For a 72 hour recording, this would let you
use 10 tapes for perhaps a year before needing

00:12:13.680 --> 00:12:15.050
to replace them.

00:12:15.050 --> 00:12:20.550
And of course, a 24/7 duty cycle for a VCR
isn’t the kindest thing.

00:12:20.550 --> 00:12:25.080
It was recommended that you replace the video
heads on this at least every 10,000 hours

00:12:25.080 --> 00:12:27.740
(which works out to pretty much every year).

00:12:27.740 --> 00:12:33.050
You can still find the drum, the 2N4N-Q, for
sale from people who specialize in security

00:12:33.050 --> 00:12:34.110
equipment.

00:12:34.110 --> 00:12:38.199
And it looks like this machine has had its
heads changed at least once.

00:12:38.199 --> 00:12:43.470
Poking through the menu shows that it’s
been powered on for 25,716 hours, but the

00:12:43.470 --> 00:12:46.480
video heads only have 314 hours on them.

00:12:46.480 --> 00:12:51.339
Now, it could be that this machine was set
up to only record in an alarm condition.

00:12:51.339 --> 00:12:56.779
This may be the original head, and it was
simply idle the vast majority of the time.

00:12:56.779 --> 00:13:01.110
There doesn’t seem to be a way to determine
if that counter has been reset, so I suppose

00:13:01.110 --> 00:13:02.520
I’ll never know for sure.

00:13:02.520 --> 00:13:06.769
But before I go, I haven’t answered one
particular question about these things.

00:13:06.769 --> 00:13:09.720
What happens when you have multiple cameras?

00:13:09.720 --> 00:13:13.180
Well, that’s a fairly deep rabbit hole so
I’ll be brief.

00:13:13.180 --> 00:13:15.730
One option was to use what’s called a quad.

00:13:15.730 --> 00:13:20.449
This splits the incoming signal of four cameras
into a single display showing all four at

00:13:20.449 --> 00:13:21.870
one time.

00:13:21.870 --> 00:13:26.670
The major disadvantage here was the very poor
resolution of the recorded video, as each

00:13:26.670 --> 00:13:29.259
camera only got one quarter of the screen.

00:13:29.259 --> 00:13:30.949
Another option was a switcher.

00:13:30.949 --> 00:13:35.060
This would simply cycle through each of your
cameras one at a time, showing Cam 1,

00:13:35.060 --> 00:13:35.980
then Cam 2,

00:13:35.980 --> 00:13:37.060
then Cam 3

00:13:37.060 --> 00:13:38.100
and so on.

00:13:38.100 --> 00:13:42.009
You’d get a full resolution image, but you
couldn’t see what was happening on any of

00:13:42.009 --> 00:13:44.700
the other cameras when one was being shown.

00:13:44.700 --> 00:13:48.340
It also makes reviewing recorded footage a
little…

00:13:48.340 --> 00:13:49.640
nauseating.

00:13:49.650 --> 00:13:53.800
The coolest solution, albeit the most expensive
one, was a multiplexer.

00:13:53.800 --> 00:13:58.199
These would combine the signals from all of
the cameras, and send them over a single wire

00:13:58.199 --> 00:14:02.500
by rapidly switching between them, and using
the vertical blanking interval to signal which

00:14:02.500 --> 00:14:04.259
camera is which.

00:14:04.259 --> 00:14:08.480
When you want to see just one, the multiplexer
would use a frame buffer to show only that

00:14:08.480 --> 00:14:10.959
one camera at a reduced frame rate.

00:14:10.959 --> 00:14:14.910
The beautiful thing was that this also worked
with a time-lapse VCR like this one.

00:14:14.910 --> 00:14:20.430
But, you’d have to synchronize the multiplexer
with the VCR (using the switch out terminal),

00:14:20.430 --> 00:14:23.879
and you’d also have to deal with an effective
frame rate that’s even worse than what the

00:14:23.879 --> 00:14:25.839
VCR is natively recording.

00:14:25.839 --> 00:14:30.420
See, if the VCR is recording 4 cameras, and
it’s recording at a rate of 4 frames per

00:14:30.420 --> 00:14:35.499
second, those four frames are split between
the four cameras, meaning that each camera

00:14:35.500 --> 00:14:38.180
only gets a recording once per second.

00:14:38.180 --> 00:14:42.990
So, while you did get to record four cameras
on one tape with the full resolution, you

00:14:42.990 --> 00:14:46.200
would get a seriously reduced update frequency.

00:14:46.209 --> 00:14:51.410
That was a significant trade-off, but it was
cheaper than having a dedicated VCR for each camera.

00:14:51.410 --> 00:14:55.430
If I ever get my hands on a multiplexer, I’ll
revisit this video because I’d love to see

00:14:55.430 --> 00:14:56.860
how it all works.

00:14:56.860 --> 00:15:01.560
I’d be curious to know what exactly it stores
in the blanking interval, and it may be fun

00:15:01.560 --> 00:15:05.380
to set up a CCTV system using vintage equipment
like this.

00:15:05.380 --> 00:15:09.360
But for now, I hope you enjoyed this video
on the time-lapse VCR.

00:15:09.360 --> 00:15:14.050
It’s a lot simpler than I thought it might
be, although it ended up being far more mysterious

00:15:14.050 --> 00:15:15.440
than at first it seemed.

00:15:15.440 --> 00:15:19.600
As I’m sure you know by now, I end my videos
with a thank you to my amazing patrons, but

00:15:19.600 --> 00:15:24.459
this time I have more than one reason to thank
them, and someone else to thank, too.

00:15:24.459 --> 00:15:26.779
This video topic was a viewer suggestion!

00:15:26.779 --> 00:15:30.649
A friendly gecko named Torrance reached out
to me and wanted to know a little bit about

00:15:30.649 --> 00:15:32.329
these time-lapse VCRs.

00:15:32.329 --> 00:15:36.610
I’ve always been curious myself, and thanks
to the people who support the channel on Patreon,

00:15:36.610 --> 00:15:39.680
I was able to go and buy one and poke around
with it.

00:15:39.680 --> 00:15:43.360
And in addition to their generous financial
support, this time around the Patreon crew

00:15:43.360 --> 00:15:46.959
came to my rescue by helping me figure something
out about this machine.

00:15:46.959 --> 00:15:51.830
I was under a very mistaken assumption about
how this thing was making such a great still-frame,

00:15:51.830 --> 00:15:56.310
and thankfully you sent me some great resources
(including one linked below) that made me

00:15:56.310 --> 00:15:59.130
realize I was really overthinking this!

00:15:59.130 --> 00:16:03.040
So, if you’d like to send in a video topic
suggestion, please do!

00:16:03.040 --> 00:16:07.660
You can leave them here in the comments, you
can reach me on Twitter @TechConnectify, or

00:16:07.660 --> 00:16:10.740
you can check out the Technology Connections
subreddit linked below.

00:16:10.740 --> 00:16:14.000
Down there you’ll also find a link to my
Patreon page.

00:16:14.019 --> 00:16:18.070
With direct viewer support, this channel has
really taken off and there are very exciting

00:16:18.070 --> 00:16:20.269
changes coming pretty soon.

00:16:20.269 --> 00:16:24.189
If you’d like to make a pledge of your own
and get perks like early video access, occasional

00:16:24.189 --> 00:16:29.440
behind the scenes footage, and general updates
before anyone else, please check out my Patreon page.

00:16:29.440 --> 00:16:32.160
Thanks for your consideration, and I’ll
see you next time!

00:16:33.160 --> 00:16:35.560
♫ violently smooth jazz ♫

00:16:36.360 --> 00:16:41.139
...because of its two-tone beige and brightly
colored transport (unintelligible babbling)

00:16:41.820 --> 00:16:42.520
Hu huh!

00:16:42.980 --> 00:16:43.480
Huh huh!

00:16:43.720 --> 00:16:44.880
[And other weird noises]

00:16:47.420 --> 00:16:50.540
...to make sure nothing is stuck and might
cause it to eat a pa…

00:16:50.540 --> 00:16:52.560
(laughs)

00:16:52.560 --> 00:16:54.019
Eat a pastry!

00:16:54.019 --> 00:16:57.339
Did you notice that Faroudja Laboratories
mark on that back?

00:16:57.339 --> 00:16:58.449
Well that got me…

00:16:58.449 --> 00:17:00.460
Is it laboratories or technologies?

00:17:02.720 --> 00:17:03.500
It’s both!

00:17:03.500 --> 00:17:04.540
OK…

00:17:04.540 --> 00:17:06.420
With a normal videotape, the tape

00:17:06.600 --> 00:17:07.720
(pauses)

00:17:07.720 --> 00:17:09.400
Yeah, dang it that was right.

00:17:09.400 --> 00:17:10.380
Mmhmm!

00:17:10.380 --> 00:17:11.760
Say the lines as written, please.

00:17:11.840 --> 00:17:15.600
It’s a lot simpler than I thought it might
be, although it ended up….

00:17:15.820 --> 00:17:16.820
(sigh)

00:17:18.540 --> 00:17:21.780
[very high pitched squeaky sounds]

