WEBVTT 00:00.720 --> 00:03.180 Welcome to the Lockpick Village. 00:03.180 --> 00:12.020 We are the open organization of lockpickers, an international non-profit organization dedicated to teaching hobbyist lockpicking, sometimes called locksport. 00:12.020 --> 00:19.980 This is the tool introduction to lockpicking talk, where we will teach you real lockpicking over the course of the next 20 to 25 minutes. 00:20.120 --> 00:23.060 To begin with, though, we have some rules. 00:23.060 --> 00:29.180 Because we are the good guys, the white hat hackers, ethical locksporters, we have two rules that we're very serious about. 00:29.180 --> 00:35.600 First, don't pick locks that you don't own, which includes the locks in your apartment or the other institutions that you're at. 00:35.600 --> 00:38.380 And also, don't pick locks upon which you rely. 00:38.380 --> 00:46.500 We want lockpicking to improve your safety and improve your ability to control your surroundings, not damage the locks or damage your personal safety. 00:46.500 --> 00:52.360 So follow those two rules, help us improve the impression of lockpickers, and help yourself stay out of trouble. 00:52.960 --> 01:00.220 The type of lockpicking we're talking about today is pin tumbler lockpicking, and it has two tools involved. 01:00.220 --> 01:02.220 Not one, not three or more. 01:02.220 --> 01:07.100 It's two hands with two different tools doing two different tasks inside the lock. 01:07.100 --> 01:13.700 In Hollywood, you'll see them stick any old thing, a piece of chewing gum, a pen, inside the lock, and what do you know? 01:13.700 --> 01:14.780 It just falls open. 01:14.780 --> 01:19.920 In the real world, though, picking this type of lock takes two different tools with two different tasks. 01:19.920 --> 01:26.740 I show you this slide here so that you can see it at least once right before we talk about how it's actually done. 01:26.740 --> 01:37.300 As for the type of lock, that pin tumbler lock, well, that's the famous lock profile that you've seen just about every day if you're in North America and many places outside North America. 01:37.300 --> 01:52.240 Whether you see that shape in a deadbolt or a padlock or any time that you see that familiar curvy shape, that's the pin tumbler lock, and since about 1865, it has been what we mean when we say lock in North America. 01:52.420 --> 01:57.620 You're used to seeing it from the outside, which you're probably less used to seeing is the inside. 01:57.620 --> 02:00.300 Let's go past that front face and look behind it. 02:00.300 --> 02:01.900 Here's your x-ray view. 02:02.440 --> 02:04.440 And some vocabulary terms. 02:04.820 --> 02:06.340 There's a lot of terms here. 02:06.340 --> 02:13.580 The one I want you to focus on is that one right in the middle, that blue pin, which we call the driver pin. 02:13.920 --> 02:26.840 Obviously, they're not red and blue in real life, and we can't really refer to them as one pin, two pin, red pin, blue pin, nor can we refer to them as top and bottom pin because in Europe, when they have these types of locks, they can often be inverted. 02:26.840 --> 02:29.640 And since they've been doing this longer than we have, they win. 02:29.640 --> 02:30.820 We don't call them top and bottom. 02:30.820 --> 02:32.460 We give them functional names. 02:32.460 --> 02:37.180 And the driver pin, the driver pin's job is to push down on that key pin. 02:37.180 --> 02:44.020 The key pin holds the driver pin up, and the spring makes sure that gravity doesn't affect what happens with those pins. 02:44.200 --> 02:52.860 If you want to think about it, the driver pin is the lock because it's the piece that's half in and half out of that plug, that yellow plug that turns. 02:53.440 --> 03:06.460 If the driver pin sits right there, then the lock stays locked in the spring, and the key pin are just there to make sure that unless and until the proper key is entered, that driver pin is in the way. 03:07.060 --> 03:09.260 We talked about the driver pin being in the way. 03:09.260 --> 03:13.380 What we mean is it's at this dotted line called the shear line. 03:13.380 --> 03:15.380 The shear line isn't a part of a lock. 03:15.400 --> 03:23.100 It's a place or it's really an absence of thing, which is the separation between, again, the plug that turns and the housing that doesn't. 03:23.100 --> 03:29.500 As long as there's something at that shear line, usually the driver pin, the lock is locked, won't turn, and won't open. 03:30.680 --> 03:36.420 Here's what it looks like when you try to turn the lock with the driver pin still in place. 03:36.880 --> 03:40.120 It wobbles a little bit, but it doesn't open. 03:40.120 --> 03:45.680 Think of that driver pin as saying, no, no, still no, try again, I'm locked. 03:46.040 --> 03:49.560 The way to change that is with a key. 03:49.560 --> 04:03.700 All the key's job is to displace, fill up that space, so that the key pin rises up, which in turn pushes the driver pin up, and as soon as the driver pin is past that shear line, and there is nothing at the shear line, i.e. 04:03.700 --> 04:13.700 the key pin is all the way in and the driver pin is all the way out, there's nothing blocking the plug, the plug can turn, and the lock can open. 04:14.080 --> 04:27.300 If you take multiple driver pins, multiple key pins, and multiple springs, and you all put those in a lock body, you have a real honest-to-goodness, bought-it-at-the-hardware store lock. 04:27.900 --> 04:29.580 This is the lock at rest. 04:29.580 --> 04:31.220 A few things you'll notice about it. 04:31.220 --> 04:38.680 First, the driver pins are all in line at the shear line, and they're all identical. 04:38.800 --> 04:46.700 Also, the springs are all identical up here, even though they look like they're different sizes, they're just doing what springs do in filling up space. 04:46.960 --> 04:50.100 The key pins are where the difference comes in. 04:50.100 --> 04:52.500 Key pins, some are short, some are tall. 04:52.600 --> 05:00.940 That's where the variation lock-to-lock comes from, and by definition the key for that lock is the reciprocal of each of those key pins. 05:01.720 --> 05:22.800 Notice that the pins don't fall all the way down to the bottom of the lock, because the hole that each pin is drilled into is just the right size to make sure that even though this area down here looks like it's just empty space, it's actually a little notched so that the pins don't fall all the way down to the bottom and that there's room for the key. 05:22.800 --> 05:34.540 Now, if you have the right key for the lock, it slides in, you'll watch the driver pins go up and down, the key pins go up and down, and when it's finished, there's a nice, clear shear line. 05:34.540 --> 05:39.800 You pull the key back out, everything returns to its resting state, and the lock is locked again. 05:40.520 --> 05:50.580 One more time, the springs give way, and then they push everything back down to its new resting state with a clear shear line. 05:51.200 --> 05:55.780 If you have a key that is almost right, you have a lock that is almost locked. 05:55.780 --> 06:10.240 In this case, this key is right in the first position, third, fourth, and fifth position, but the second position, it doesn't lift the key pin quite high enough, which means the driver pin isn't lifting quite high enough, and there is still one driver pin at the shear line. 06:10.260 --> 06:14.160 This lock is almost open, but almost is not good enough. 06:14.160 --> 06:15.480 It's still locked. 06:15.480 --> 06:24.680 You can have the alternate problem, where now we have a key that is a little too high in that second position, which means it's pushed that key pin up above the shear line. 06:24.680 --> 06:30.420 Key pins are just as happy as driver pins to block the shear line and prevent that lock from opening. 06:31.560 --> 06:35.340 But of course, where we're going, we don't need keys. 06:35.340 --> 06:38.780 So if you came here just to learn about keys, then you can go. 06:38.780 --> 06:41.260 You know everything there is to know about pin tumbler keys. 06:41.760 --> 06:47.940 If you want to learn about lockpicking, then kick your brain into overdrive, because this is the complicated part here. 06:48.740 --> 06:52.480 In a perfect world, lockpicking would not be possible. 06:52.480 --> 07:04.980 Now, that wouldn't be a perfect world for all of us that love teaching lockpicking and love doing lockpicking, but when I say a perfect world, I mean mathematically perfect, where things roll off the production line exactly the way they were designed. 07:04.980 --> 07:06.840 Here is a schematic view of a lock. 07:06.840 --> 07:14.200 We've taken that plug, and we've taken all the springs, key pins, and driver pins out of it, and we're just looking at the holes that they go into. 07:14.440 --> 07:33.140 You'll notice that those holes are perfectly in line, which means when you try to give that plug a turn after you've filled it with springs, driver pins, and key pins, each one of those driver pins that is right on the shear line, every single one of them says together and in unison, 07:33.140 --> 07:39.240 no, stop, go no further, the right key isn't in here, this lock will remain locked. 07:39.240 --> 07:41.040 And they agree on that. 07:41.720 --> 07:59.000 And that would be great if such a lock existed, because it would be unpickable, reason being the only way to open the lock would be to lift each and every one to the right height at the right time, and if you can do that, then you have what's called a key. 08:00.000 --> 08:05.480 In the real world, however, no lock is perfect. 08:06.160 --> 08:10.180 So what you see here is the downsides of mass production. 08:10.220 --> 08:17.640 Cheap locks, not bad locks, just inexpensive locks built with different priorities in mind, cost effectiveness being one of them. 08:17.640 --> 08:26.320 So here you see the chipping, the marring, the misalignments, the rusting, that comes from a real world piece of equipment. 08:26.320 --> 08:34.180 As a result, if you put keypins into it, then you'll see that they don't all align. 08:34.280 --> 08:42.640 In fact, up here at the top, the holes have drifted fairly far to the left, and down here at the bottom, the holes have begun to drift to the right. 08:42.680 --> 08:50.880 Of these one, two, three, four, five, six pins, only about one of them is in the center where it's intended to be. 08:50.880 --> 08:53.680 All the rest of them wobble a little bit. 08:55.120 --> 08:58.180 So, here's what it looks like in the real world. 08:58.180 --> 09:05.500 We've taken this plug again, and we've redrawn it to be schematic of what you'd see in a real lock in the real world. 09:05.500 --> 09:08.740 It was manufactured off a real manufacturing line. 09:08.740 --> 09:14.400 And you'll see that all the holes are still there, but now they wander a little bit. 09:14.480 --> 09:23.280 We put this dotted line here to make it a little bit more obvious, and you can see that the one, two, three, fourth pin here is the most out of line. 09:23.280 --> 09:27.620 If they are not perfectly in line, then by definition one of them has to be the most out of line. 09:27.700 --> 09:46.260 In this case, in this particular example of a lock, it's the fourth pin that is the furthest to the right, which means if we were to give that plug a turn, well, it wouldn't open because it's not that bad, but what it would do is it would stop on the one and only one driver pin that is actually in the way, 09:46.260 --> 09:47.960 which is the one furthest to the right. 09:47.960 --> 09:57.040 So you can think of it as five pins, but now instead of agreeing whether the lock should stay closed, four of them are silent. 09:57.040 --> 09:59.860 They don't even notice the plug is being turned. 09:59.900 --> 10:03.380 One and only one of them is saying stop, go no further. 10:03.420 --> 10:14.560 In other words, you've paid for five pins worth of security, and you're only getting this one pin worth of security right now because of manufacturing tolerances in the lock. 10:14.560 --> 10:31.680 So it stands to reason that if this is the one and only one pin that is blocking your progress, if you could reach inside the lock with some sort of lock pick and lift up on that key pin, it would lift up on the driver pin, and if you managed to get that driver pin above the shear line, 10:31.680 --> 10:35.280 then nothing would be stopping the lock from turning, and it would turn. 10:35.280 --> 10:36.440 How far would it turn? 10:36.440 --> 10:37.480 Not a lot. 10:37.500 --> 10:42.380 Just until it stopped at the next pin that was in the way. 10:42.380 --> 10:44.880 On this diagram, it might be the first one. 10:44.880 --> 10:47.120 You have to figure that out for yourself. 10:47.120 --> 10:49.600 Lock by lock, pin by pin. 10:49.660 --> 10:51.900 Remember, these are not intentional. 10:51.900 --> 10:57.620 These are manufacturing defects or manufacturing tolerances, but that's the nature of hacking. 10:57.620 --> 11:01.940 Given an inch, or given a fraction of a millimeter, we will take a mile . 11:01.940 --> 11:07.160 This allows us to pick each pin individually using only one lock pick. 11:08.080 --> 11:11.980 So let's go look back at that attempt without a key . 11:11.980 --> 11:17.160 If you turn the plug, the plug turns a little bit and then stops on that driver pin. 11:17.160 --> 11:19.200 We call that the binding pin. 11:19.240 --> 11:24.360 If you can find the binding pin, then your job is to solve the binding pin. 11:24.360 --> 11:32.480 Lift up on it just enough such that the key pin pushes the driver pin above that shear line, and watch what happens. 11:32.480 --> 11:33.560 Something magical. 11:33.560 --> 11:38.840 The plug turns under the driver pin, and the driver pin can't go home again. 11:39.300 --> 11:40.960 One more time. 11:41.260 --> 11:48.200 Once the driver pin goes above the shear line, the door closes behind it, and it traps it up there. 11:48.880 --> 11:51.760 In other words, it's mechanical autosave. 11:51.760 --> 11:53.880 It's like a ratchet mechanism. 11:53.940 --> 11:55.800 Not designed that way. 11:55.880 --> 12:06.840 It's an effect of the manufacturing tolerances, and we're going to exploit the heck out of it to allow us to set multiple pins in a row until there are no more to set and the lock falls open. 12:07.980 --> 12:09.860 Here's what it looks like in practice. 12:09.860 --> 12:12.300 We're first going to tension the lock. 12:12.300 --> 12:17.520 If there's no tension, then you're not picking the lock, you're just lifting up pins and they'll fall right back down. 12:17.520 --> 12:20.880 You need to tension the lock to create that bind in the first place. 12:20.880 --> 12:24.680 Once you've created the bind, your next job, find the bind. 12:24.680 --> 12:40.440 Go through the pins sequentially, lift up on each one until you find one that has a little bit of a grind , crunch, creak, something , anything other than the squishiness that says it's not the binding pin, it's just the spring. 12:40.580 --> 12:46.620 This may take a little bit of practice, keeping track of where you are in the lock and learning how to feel the subtle differences between the pins. 12:46.620 --> 12:48.340 That's the skill of lock picking. 12:48.580 --> 13:00.160 But as you get better at it, you'll be able to find each binding pin , push it up just the right amount, get the click, get the feedback, get the little bit of turn of the lock that tells you it's set, and then you'll go on to the next one. 13:00.160 --> 13:06.080 Do that for as many pins as there are in the lock, and the lock will just fall open. 13:06.080 --> 13:16.800 This is not like a big safe lock where you've got it open at the end, because you've been turning since the very beginning and taking away each and every obstacle to the turning. 13:17.040 --> 13:32.600 So, if you just put the tension in, start turning, that same constant steady pressure will serve you all the way through the end, and every time you set a pin , the lock will turn just a little bit more, until when you've removed all the pins in the way, 13:32.600 --> 13:35.220 it will just fall open. 13:36.260 --> 13:44.640 Now let's take a look at one of the most common problems in lockpicking that will stop you cold, especially if you don't know to be on the lookout for it. 13:44.640 --> 13:52.540 We call it overlifting, and that's when you replace one problem with another by putting the key pin up above the shear line, where the driver pin normally is. 13:52.540 --> 14:07.620 You see, this person picking along had a short one in the fourth position, and another short one in the third position, which means when it comes time to pick the last one with a little bit taller key pin, they lift it too high and it gets bound above the shear line. 14:07.620 --> 14:14.340 The only way to get out of this position is to release your tension down here, shake the etch-a-sketch, and lose all your progress. 14:14.400 --> 14:22.980 So, just like getting a haircut or salting the soup, you can always go back and do more, it's very hard to go back and do less. 14:22.980 --> 14:30.500 So, light hands, small movements, remember how small these pieces are, and avoid overlifting, you'll save yourself a lot of trouble. 14:30.500 --> 14:38.440 And of course, if you do get stuck, that's okay, shake it out, shake your hands out, shake the lock out, start over, you'll do better next time. 14:39.700 --> 14:48.540 We've talked a lot about what this hand is doing, using the lock pick, but let's talk about the unsung hero, the turning tool. 14:48.540 --> 15:03.800 A lot of very intelligent pickers will tell you very seriously that in all practicality, the turning tool is what picks the lock, because the turning tool is responsible for putting that all important, constant, steady pressure on the lock. 15:04.780 --> 15:19.840 As far as how to apply that pressure, well, first, we like using that big finger, the precision digit, and put it far out on the turning tool, so that you can use leverage and amplify any feedback you get. 15:20.060 --> 15:22.900 Next question, how much turning pressure? 15:22.900 --> 15:29.180 And I will tell you, honestly, there is good reasons to do light pressure, and there's good reasons to do heavy pressure. 15:29.180 --> 15:33.140 And someone who tells you one or the other isn't wrong, they're weighing different things. 15:33.280 --> 15:37.760 We at the Lock Pick Village tend to tell novice lock pickers, start off with light pressure. 15:37.760 --> 15:44.600 That has a lot more to do with not damaging the locks or the equipment than it does with being the most effective way to pick locks. 15:44.600 --> 15:51.200 A lot of very good lock pickers tend to use quite heavy tension, but very carefully modulated heavy tension. 15:51.200 --> 15:54.820 They use the right amount of tension to get the feedback from the lock. 15:54.820 --> 16:02.840 So, experiment with the tension levels, but most importantly, don't put on more than you can confidently, comfortably, and safely use. 16:03.760 --> 16:08.040 As for the type of picks, you'll probably have a lot of picks in your kit. 16:08.900 --> 16:10.520 We call this one the hook. 16:10.520 --> 16:14.460 We call this one the half diamond, because apparently triangle is too hard to say. 16:14.460 --> 16:17.080 This is sometimes called a rake, a snake rake. 16:17.080 --> 16:20.380 There's lots of varieties of cool little wiggly ones. 16:20.380 --> 16:33.820 When you're just starting off, we recommend starting with these two, either the half diamond or the hook, because they tend to promote the best practice and give you the most accuracy in picking one pin at a time. 16:36.680 --> 16:42.940 Now, as you're starting off, there's a tendency to figure out how you want to lift in the lock. 16:42.940 --> 16:46.920 You can put it against the bottom, you can put it against your finger, you can float it in midair. 16:46.920 --> 16:54.600 Whatever works for you, mindful of the task that you're trying to do, which is feel very small things in a lock and get it to turn. 16:54.600 --> 17:01.880 So don't add any more friction to the lock than you need to and don't rub up against the sides or other material in the lock more than you need to. 17:01.880 --> 17:03.720 But mostly it's a matter of personal choice. 17:04.160 --> 17:11.100 Except that, if you're doing something like this rocking lifting, I want you to make sure that lifting doesn't turn into crowbar. 17:11.100 --> 17:25.540 These are precision tools, and if you're really digging, especially if you're using really heavy tension, and you start getting really firm binds, there's a tendency to start crowbarring and the pick starts to bend, which means it's no good for anyone. 17:25.540 --> 17:29.360 If these are your tools, then that's too bad because you're out of tools. 17:29.360 --> 17:38.000 If there are tools, it's almost worse because then not only can we use it, but no one else can use it either, and it makes it harder to put on lockpick villages like we love to do. 17:38.440 --> 17:41.700 So , as you're picking, be gentle. 17:41.700 --> 17:43.320 Remember these are precision tools. 17:43.320 --> 17:56.240 I put up a picture of the bunny here, not because I think you're children, but because I know I've thrown a lot of complex information at you, and if I show you a picture of a crying bunny, you'll remember, be gentle, ease up, use the tools with precision. 17:56.840 --> 18:04.140 Now, if you're just starting lockpicking, there's a great activity that everyone would benefit from, and that's this. 18:04.560 --> 18:06.060 Pull the turning tool out of the lock. 18:06.060 --> 18:08.500 Just for this one time, don't try to pick the lock. 18:08.500 --> 18:10.620 What I want you to do is feel the tension. 18:10.620 --> 18:15.580 Think of this as a tension taste test, or as a springiness taste test. 18:15.580 --> 18:21.920 Reach into the lock with the pick of your choice, and on that one pin, just lift up on that pin. 18:21.920 --> 18:27.280 This is especially great if you have a lock where you've taken all the other pins out, and there's just one to focus on. 18:27.280 --> 18:29.920 But you can do it with other locks, too, with a little bit of cleverness. 18:29.940 --> 18:35.000 Just lift up on that pin and feel what a springy pin feels like without any tension. 18:35.260 --> 18:40.440 Then, and only then, add the turning tool so that you have a little bit of tension. 18:40.440 --> 18:44.760 And now, if there's only one pin in the lock, you've created a binding pin. 18:44.760 --> 18:47.440 Now go in and try that one on for size. 18:47.440 --> 18:51.860 Feel that binding, grinding, crunching, scraping. 18:52.360 --> 19:02.300 Characterize it however you want, but being able to tell the difference between that binding pin and the unbinding pin without tension is the essence of lockpicking. 19:02.480 --> 19:05.880 And zeroing in on that feeling will make you a much better lockpicker. 19:06.060 --> 19:16.060 Of course, the most important part of lockpicking is practicing, and at Tool, we've gone to a lot of effort to create practice locks specifically designed for learning lockpicking. 19:16.340 --> 19:23.720 If you're at one of our lockpick villages, we have multiple locks that have some of the pins pulled out of them. 19:23.720 --> 19:28.140 So you can go from a one-pin lock all the way up to a six-pin lock and learn as you go. 19:28.140 --> 19:30.480 But you don't need tool locks to practice. 19:30.480 --> 19:32.580 You can get locks at your hardware store. 19:32.580 --> 19:34.520 You might find padlocks like this. 19:34.520 --> 19:35.680 They work fine. 19:35.680 --> 19:38.660 They're cheap locks, but they'll teach you enough about lockpicking. 19:38.660 --> 19:42.760 You can also find just regular door deadbolt locks. 19:42.820 --> 19:51.000 It doesn't matter what type of locks that you get as long as you sit down with them, you practice with them, and you have enough of them that you have the variety. 19:51.000 --> 19:53.180 So you're not learning how to pick a particular lock. 19:53.180 --> 19:55.000 You're learning how to pick locks in general. 19:55.040 --> 20:00.220 Because you're at home, I wanted to run you through some frequently asked questions that we often hear. 20:00.220 --> 20:02.460 See if we can get you set up on the right path. 20:02.660 --> 20:05.380 Preston, how do you hold the lock? 20:05.380 --> 20:13.120 What we like to do is turn the lock so the top part is deep in the web of your hand, and then you can close these two knuckles here over the lock. 20:13.160 --> 20:22.680 Holds it fairly gently, but securely, and then if you stick out that index finger, the turning tool will just rest right against that index finger, giving you the right amount of pressure. 20:22.780 --> 20:24.100 How do I hold the pick? 20:24.100 --> 20:25.860 Well, think of it like a scalpel. 20:25.860 --> 20:28.360 This is a surgical tool, so hold it like a scalpel. 20:28.360 --> 20:30.660 That pencil grip works great. 20:32.380 --> 20:41.580 This one doesn't work so good because you've got a little bit too much grip, and people tend to start digging too hard. 20:41.580 --> 20:44.020 And then, of course, holding it like a shiv is right out. 20:44.020 --> 20:45.480 That's dangerous and weird. 20:45.480 --> 20:46.500 Avoid that. 20:46.880 --> 20:59.340 And if you happen to have locks that are out of their housing, so that you can see the back of the lock, which people don't typically see, we want to make sure that you know that the pick goes in this part, this shiny silver front. 20:59.340 --> 21:02.560 If you can see the back that looks like that, that's the wrong end of the lock. 21:02.560 --> 21:03.520 Go in the front. 21:03.520 --> 21:05.320 You'll have a lot more luck. 21:05.720 --> 21:08.640 Now, lock picking, not supposed to be easy. 21:08.640 --> 21:09.880 This is new. 21:09.960 --> 21:15.160 This is a skill-based exercise that Evolution has done nothing to prepare you to. 21:15.300 --> 21:19.040 So, I want to make sure that as you're doing this, be nice to yourself. 21:19.300 --> 21:19.880 Relax. 21:19.880 --> 21:22.480 If you want to have a beer, talk to somebody. 21:23.860 --> 21:25.140 That's all part of the fun. 21:25.140 --> 21:27.300 That's what we do when we're doing tool meetups. 21:27.380 --> 21:31.400 We sit around, we chat with each other, we relax, we have fun with it. 21:31.740 --> 21:37.460 And if you don't know what that animal is, now you have seen a baby wombat and your day is better. 21:37.520 --> 21:47.340 And then, traditionally in lock sport, no matter what the lock is, whether it's a practice lock or it's a project lock that you've been working on for weeks, when you get it open, say open. 21:47.360 --> 21:48.160 Own it. 21:48.240 --> 21:48.960 Celebrate it. 21:48.960 --> 21:52.560 All locks you open are worth celebrating, and we want you to have fun with it. 21:52.880 --> 21:57.520 Lastly, if this sounds like fun to you, we are a membership organization. 21:57.520 --> 22:03.320 We have members all over the United States, Canada, UK, Australia, and many other countries. 22:03.320 --> 22:09.800 We would love you to join, be a part of the organization from your home or in person as soon as we can. 22:09.820 --> 22:25.120 So go check out members.tool.us And of course, if you can't wait to get lockpicking and you want to get your hands on lockpicking gear as soon as you can, then tool.us slash equipment has exactly the gear that we like to train people on, and we'd love you to get started on it too. 22:25.280 --> 22:32.300 So, happy lockpicking, practice, be gentle, celebrate your wins, and we'll see you at the next Lockpick Village.