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A cap gun is a toy revolver that, when the trigger is pulled, produces an explosive sound like a gunshot and emits a small cloud of smoke. The caps, tiny dots of gunpowder in a plastic ring or a strip of paper inserted into the gun, produce these realistic effects. Cowboy-style cap guns were all the rage in the 1950s and 1960s during the golden age of westerns. This small American factory uses molds that the big toy companies of the time discarded long ago when they stopped making them. The detonators are small dots of gunpowder about 1/16 of an inch in diameter, sandwiched between two strips of paper.
Pulling the trigger releases a hammer that strikes the detonator, causing it to explode. This injection molding machine manufactures the grips, the faces of the gun handle. It shoots hot liquid plastic into 10 grip molds simultaneously. The plastic cools and solidifies in just a few seconds. The color and design of the handles vary depending on the model. The caps on this Rancher-style cap gun feature a bull's head. The rest of the gun is made of cast zinc. Workers load a zinc bar into a crucible heated to about 750°F. The bar melts in a couple of minutes. Molten zinc travels through heated tubes to a plunger, which injects the zinc into a gun parts mold. Zinc takes only 10 seconds to cool and harden. Then it's just a matter of separating the
pieces. The main body of the gun, which contains the right side of the barrel, the loading gate covering the primer box, the cylinder, the left side of the barrel, and toy bullets that are loaded into the cartridge but not fired. The trigger and hammer are cast in a separate mold. Each piece has flash, excess metal that forms at the joint between the two halves of the mold. After removing as much as they can with pliers, the workers file down the rest. Some of the burrs are quite thick , so they use a sander to remove them. The workers rinse the smoothed pieces in acid to clean the surface and then galvanize them with zinc. They immerse the pieces in a transparent liquid coating to make the matte surface shine. Now, assembly can begin. First
they install the spring that opens the loading hatch. They take the left side of the barrel, add the latch that keeps the loading door closed, and the spring that tensions said latch. Then the cylinder and finally the guide disc that rotates the cylinder when the trigger is pressed. They screw all of that to the main body, which contains the right side of the barrel. Next, they insert an orange plastic safety tip into the end of the barrel. The laws require this to prevent cap guns from being mistaken for real firearms. They hook the loading door spring to the latch to keep it closed. Then they install the hammer spring. and the hammer.
Two brass eyelets secure the rotating cylinder arm and the pusher, which feeds the caps one by one from the case to the impact position. The trigger spring maintains tension on both the pusher and the trigger. Next, they install the loading door. After attaching additional springs, the workers fix the top part of the hammer spring to the retaining pin on the hammer. Next, attach the lower part of the hammer spring to the retaining pin in the frame. Finally, the plastic grips, one for each side of the handle. Cast using antique molds, these pistols feature intricate engravings, a level of craftsmanship rarely seen in modern toys, something perhaps more appreciated by the parents of
cowboys in the Old West than by the little gunslingers themselves. Some people enjoy playing combat video games, while others prefer to exchange the controller for a fake weapon, dress up, and recreate the fantasy with those who share the same passion. It's called live-action role-playing, and it usually has a medieval or apocalyptic theme. These weapons look authentic. So much so that this company also sells them as film and theater accessories. But however threatening these axes and swords may seem, they couldn't even kill a fly because their blades are made of latex. In the weapons workshop, they begin the sword-making process by constructing the blade. After tracing a template onto a piece of flexible waterproof foam one
centimeter thick, they cut two halves of the blade with a multi-purpose knife. After cutting one of them in half, they glue on a rigid fiberglass core one centimeter thick. This makes the sword blade rigid enough for combat, yet flexible enough not to break. Next, they glue a strip of durable polyester fabric over the core. This acts as a reinforcement, preventing the tip of the core from protruding through the foam. Now they glue the second half of the sheet over the first, sandwiching the core. The glue is a rubber-based adhesive that bonds under pressure, which is applied with a heavy marble roller. Next, using a belt sander, they sculpt the cutting edges of the blade. Then they remove the foam residue with a rotary tool. They take a pyrography tool and
melt the foam at specific points to create the appearance of battle scars. They apply five to six layers of latex rubber using an aerosol spray. This forms a protective shield over the foam without hindering the flexibility of the sheet. Using an airbrush, they apply two coats of acrylic latex paint. First black, then silver. They apply a thick layer of black paint with a brush and then remove it. This washing, as it is called, creates the appearance of aged metal. And finally, they add light touches of silver acrylic paint to select points to highlight details. From foam to the main component of a lethal weapon in just a few simple steps. They finish their handcrafted work by stenciling the company logo with gold acrylic paint.
Now, for the sword handle, they drill a hole lengthwise through a walnut wood cylinder and glue a steel tube inside. Then they glue leather around the wood and wrap a leather ribbon around it for decoration. To give it a worn appearance, they lightly sand parts of the surface. To make ornate handles, an artist first carves the model in linden wood. Using that wooden model, they create a silicone mold. Then they pour rubber into the mold to cast a handle. For that leather-covered wooden handle, they only melt the upper and lower components into rubber. After trimming off the excess rubber, they paint it to look like metal. To assemble the sword, they glue the handle components to the core that protrudes from the
base of the blade. First, they place the guard. This prevents the opposing sword from sliding along the blade and cutting your hand. Next, the mango. And finally, the doorknob. This locks the end of the handle to prevent the sword from slipping out of your hand. Each sword created by this workshop comes with a scabbard, a protective leather sheath. They boil and wax the leather to make it rigid. The workshop also manufactures daggers and other realistic-looking weaponry. Everything you need to unleash the warrior within. During the medieval era, axes were more than just tools. They were terrifying weapons that could inflict very deep wounds with blades narrower and sharper than
utilitarian axes. Today, artisans still make medieval battle axes for the entertainment industry and to remind us of bloodier times. The medieval battle axe was a fearsome piece of work. With a single blow, he could pierce a knight's armor and mortally wound him. To produce an authentic replica for movies and television shows, the blacksmith consults reference books. Draw the design of the axe head on paper, sketching the details to the desired scale. Clean old carbon steel parts that you will forge weld to other metals. In total, there will be 75 metal strips of varying composition. To complete the metal mixture, cut an old Tighten the screw to hold the layers together and spot weld them. Sand the
soldered battery. Apply oil to the battery to prevent oxidation, as it is now exposed to intense heat to weld the metal layers together. Spread a mixture of borax and other minerals called flux over the surface. This will prevent rusting while the forging continues with a pneumatic hammer. The hammer strikes the layers together to form a solid laminated block. It is ready to be transformed into the cutting head of the axe. Repeated blows compress the metal in the center. Spread the flux mixture over the surface of the metal form, reheat it, and bend it into a C shape. After reheating, insert a layer of carbon steel in the center for the blade and flatten the C shape, leaving the handle section round.
By folding it in two and adding the extra layer, 75 strips have been forged in a single piece. Next, the mechanical hammer refines the handle part. Insert a steel stake called a tapered mandrel into the center of the piece. This forms an eye for inserting the wooden handle. Using the mechanical hammer, he now flattens the end of the axe blade considerably. It widens it to form a cutting edge. There is excess material that now needs to be removed with a plasma cutter. He cuts it and the result is impressive. The axe head has taken shape, but it needs some finishing touches. Hammer the handle area to flatten and widen it further. Submerge the axe head in water to cool it down. Next, thin the sheet with a
belt sander and rinse off the residue. He polishes it again to remove any hammer marks or rust flakes that may have appeared. Despite precautions, different metals react when immersed in acid, creating a spiral pattern on the surface. The first bath was contaminated with copper, so he polishes it and rinses the axe head again in clean acid. After heat treatment and tempering, polish the face of the axe and sharpen the edge. Next, he carves spiral grooves into a piece of oak that will serve as the handle of the medieval axe. A colleague stains the entire handle to accentuate the carved spirals and enhance the wood grain. Once dry, the blacksmith fits the axe head into the handle with wedges. A few taps against
a steel block improve the fit. Finally, he hammered upholstery tacks into the handle to simulate the rivets that reinforced the handles of medieval axes of yesteryear. This medieval axe is ready for action. The kind you see on camera. Medieval axe replicas are authentic props for any TV show or movie. If handled carefully, no one will get hurt. This edible money is a symbolic treat. In some parts of the world, chocolate coins are put in Christmas stockings to celebrate St. Nicholas's charity. They are also given to Jewish children during the Hanukkah holiday to teach them the value of money and charity.
Chocolate coins have no purchasing power, but they buy many grateful smiles from children. They start with giant chocolate bars. Each one is a 4.5 kg piece of pure chocolate. The worker transfers the large bars to a boiler. It's a kind of bain-marie. Hot water bubbles and emits steam inside a casing to heat and melt the chocolate. There are 2.25 tons of liquid chocolate in this kettle. The machine now pumps the chocolate through a long pipe with different cooling zones. The chocolate thickens, but not to the point of solidification, in a process called tempering. It causes the chocolate to form a precise crystalline structure to obtain the right texture and flavor. The thick liquid chocolate flows onto a conveyor belt that carries it under a wide sheet. The
blade levels it to a specific thickness and spreads it evenly, creating a long sheet of chocolate. The chocolate now begins to coagulate and harden. To speed up that process, it travels through a cooling tunnel approximately 14 meters long. This process transforms liquid chocolate into a soft solid. Next, they clean and prepare the die. It is a spring-loaded device that works like a cookie cutter to cut out round discs. But there is a big difference. Each cutter is long and tubular. So, as it pierces the chocolate discs, they accumulate inside. The scrap grid travels forward to be remelted in the process, so that not a single crumb of chocolate is wasted. At the end of the line, dozens of coin discs have been stacked on each
loader, and piles of leftover chocolate have accumulated in a container that will now be transferred back to the crucible. Now, it's time to print some chocolate money. To do this, they wrap the chocolate first and then engrave both the wrapper and the chocolate disc simultaneously. This is how it works. Sheets of bright gold aluminum foil travel between rollers to establish uniform tension. Further on, a forked arm moves two chocolate discs between sheets of aluminum foil. Piston-type blades move to wrap, cut, and fold the aluminum foil around the pieces. The bifurcated arm then delivers the aluminum-wrapped parts to a die-cutting press.
Stamp designs on both sides of coins, marking aluminum foil and chocolate. The chocolate, although solid, is still warm enough to receive the image. Removed from the machine, this is what the die heads look like. These are used to stamp chocolate coins with the markings of US pennies. As for the aluminum foil scraps, they don't end up in the garbage pile. Instead, they are collected in a container to be sent for recycling. They manufacture 150,000 coins wrapped in aluminum foil per day. To change the currency type, simply change the die heads.
Chocolate coins can be made in many sizes with a variety of different illustrations. The coins now spill onto a conveyor belt that carries them to a container. All that remains now is the packaging, which will be the traditional mesh bag. From start to finish, it takes less than an hour to make a chocolate coin. Gold dollars or $5 poker chips. Every day, it's a chocolate money jackpot at this factory. So there's never a shortage of food money, you just have to make decisions. Poker chip or chocolate penny. You could always flip a coin. Speaking of a childhood fantasy. Working in a chocolate factory. Okay, " How do you do it?" He's about to take a bite out of one of the best dream jobs of all time.
Just be careful with workplace hazards. Stomach pain, weight gain, and cavities. These delicious chocolate candies are made with melted chocolate flowing into molds. The master molds are first made of wood or plaster. They are then reproduced as copies in an epoxy material to allow them to be flexible and give them the desired shape. The epoxy sheets are first heated to 177 degrees Celsius. The epoxy sheet is then placed over the original molds. The sheet is heated and then removed. The suction of a vacuum system makes it adhere perfectly to the shapes of the molds. Here we see the epoxy adhering to the master molds. While still hot and malleable, the plastic needs to cool down. A jet of compressed air effectively lowers its
temperature. The mold undergoes a visual inspection to ensure its quality. And now we move on to chocolate. This melting unit, whose cover is fed with boiling water, works like a bain-marie and melts 1,500 kilos of chocolate in 12 hours at 40 degrees Celsius. The plastic molds, ready to be filled, are placed on a conveyor belt. The filling process is automatic. The liquid chocolate runs directly into the molds. This particular machine produces 400 hearts per minute. The hearts are filled with a mixture of chocolate, cream and coffee, which has been prepared for several minutes. The chocolate takes 20 minutes to set while the molds move along this conveyor belt. Once well hardened, the hearts reach the
point of demolding. The molds are turned upside down and a rod gently taps them on the bottom so that the chocolates come out without breaking. The chocolates fall onto a tray. As soon as they are emptied, the molds return to the beginning of the line to be filled again. During their transport on the line, the chocolates finish cooling and hardening. They will now be prepared for packaging. The packaging depends on the customer's preferences. Chocolates can be sold in bulk or placed in boxes. Here, 185 hearts are placed in each box. Like dark chocolate, white chocolate comes in blocks before it melts. Milk chocolate is usually delivered in the form of 3 cm tablets. Some chocolates are hollow. They
must be molded in two halves. These chocolate bears require special hand-applied decoration before pouring the liquid chocolate. This decoration is made of white chocolate with added coloring. In just 1 hour, they will manufacture 1,200 bears. They are made by joining two halves of hollow chocolate. The assembly is done using a refrigerated rotary machine. This machine rotates the molds 360 degrees on two axes and vibrates the chocolates to prevent the formation of air bubbles. The chocolates rotate for 5 minutes before being sent to the cooling belt, where they will remain for another 20 minutes. And now they're
ready. At this point, the bears are removed from the mold and sent to the packaging area. Each year, this company processes 500 tons of pure chocolate. Here, many thousands of products are manufactured using 400 different molds of various sizes. A central part of organizing a loved one's funeral is choosing a coffin. It is often an emotionally difficult decision, as it forces us to confront the reality of loss. Coffins are usually made of wood or metal and their style ranges from discreet to ornate. There are two styles of coffins. Full-body models have an undivided lid to display the deceased from head to toe. The perfectly tailored models have a split lid to show the deceased only from the waist up. This factory manufactures metal coffins constructed
from steel sheets. To form the lid, workers insert a sheet into a press. An internal die shapes the metal into a panel form. This requires 900 tons of pulling force, the equivalent of lifting 27 fully loaded trailers. After trimming the edges, the workers put the panel into an automatic folding machine. First, the machine folds both long sides upwards. Two 90 ° folds each. Second, fold both short sides upwards in the same way. Then, the workers weld the corner joints. They also assemble and weld the side panels, ends, and reinforced bottom of the coffin. These two were formed in the press, but with a different type of die, which stamps rather than stretches the steel into the required shape. For a
perfectly cut coffin, they cut the lid in half with a saw, and then weld steel to the cut end, forming a head to give it a neat, finished look. An automated belt sands all the welds to create a smooth finish. After cleaning, all the parts pass through a booth where 20 automatic spray guns coat them with powder paint. An electrical charge attracts the dust particles to the steel, ensuring a uniform layer, which is then baked in a giant oven for 20 minutes. Once the surface has cooled, the workers inspect the paint finish to ensure it is flawless. The workers apply hot melt glue to the inside along where the bottom and sides meet. This makes the body of the coffin airtight, and they perform a
water test to confirm it. The coffin is lined with crepe, a synthetic fabric that can be molded by applying intense heat. This specialized machine heats the material with an iron while toothed wheels gather it into decorative folds known as pleats. The intense heat gives the fabric a permanent shape. The seamstresses cut and sew the gathered fabric to create the lining components. Meanwhile, the workers assemble the steel fittings of the coffin, whether they are fixed handles or pivoting folding bars. They place a rubber gasket around the top edge to ensure a proper seal when closing the lid. Then they assemble the lid. The joint has holes for the steel hinges.
By this time, they have already placed most of the inner fabric onto a corrugated cardboard lining. Now it's time to install the steel base using an extendable rod. The height of the base is adjustable, allowing funeral directors to raise the deceased for better viewing. A mattress protector and a sheet are placed on the base. Clips at each end hold them in place. A pillow completes the interior. Each coffin undergoes a thorough final inspection. Then it is sent to the funeral home that requested it. The funeral home usually displays several sample pieces that showcase the range of styles, colors, hardware, and fabric options available for a loved one's casket. There's nothing children love more than sweets they
can stretch and pull. Which probably explains why gummy bears and licorice have always been favorites that stick to teeth. Except for parents who do not have a family dental plan. Everyone calls this red licorice, but it does n't actually contain licorice root. The ingredients are wheat, sugar and corn syrup, with red coloring and artificial and natural strawberry flavor. They cook the mixture for 2 hours at 102 °C. This slowly forms a thick paste. They cool it and then pass it through extruders. The extruders work like icing nozzles, shaping the paste into designs like the spirals we see here. A
knife lubricated with water cuts the continuous strips into lengths of 18 and 21 cm. The water also rinses away any buildup of licorice on the leaf. The cut licorice is placed on aluminum trays. The stacks of trays then go into an oven to dry for 8 hours at 60°C. As the excess moisture evaporates, the licorice shrinks. The workers weigh out the correct amount of licorice for each package. To make gummies, they use what they call printing boards, large sheets with embossed shapes. To make rubber worms, for example, they mount the worm board on a stamping machine. The machine then stamps the worm shapes onto trays of corn starch. This creates a series of cornstarch molds for the gummy worms. While that's happening,
another machine mixes gelatin, sugar, corn syrup, coloring, and flavoring, and cooks the mixture to 115 °C. A machine called a depositor pours the mixture into cornstarch worm molds. The molds then go into a refrigerated chamber. In 12 to 15 hours, the sweets cool and solidify. A machine then flips the trays to remove the sweets. The cornstarch molds disintegrate. As they fall, the machine sifts out the lumps and recycles the used corn starch for the trays of the next batch. The sweets go through a cleaner. As they rotate, air nozzles remove the corn starch. The next drum coats the sweets with mineral oil to make them shine. Children love gummy worms because they are sticky, slippery, and wriggling. But it's not just children who are
hooked on them. Many fishermen actually use them as bait. Before packaging the sweets, workers remove any that are stretched or stuck together. I wonder if they can eat the discarded ones. Jelly beans are a colorful candy, but unfortunately no one is exactly sure when or how they were invented. The jelly center is believed to date back to biblical times as a sweet called Turkish delight many centuries later. The outer layer was added, thus creating the jelly bean we know today. The gummy candy is very popular. Billions are sold at Easter alone. To make gummies, they heat liquid sugar in a large pot to 347°F. They add glucose, which is a more
concentrated sugar, and then starch. A stirring device mixes everything. Meanwhile, in another part of the factory, starch falls from a drum onto large trays. A leveler moves back and forth to even out the starch in the trays. The trays advance and a brush removes the excess starch. This will be recycled. A molding plate now presses down on the starch. Create 756 gummy bear impressions in the starch of each tray. The impressions on the starch will serve as molds for the center of the gummies. Nozzles inject the sugar and starch mixture cooked in the pot into the starch molds.
This system can make almost a million gummy centers per hour. Next, the conveyor belt takes the gummy centers to the drying room where they remain for 24 hours. This solidifies them. They become more chewable. Arms turn over trays of dried candy centers and starch, and tip them into a large drum to separate them. When the trays return to their position, they are refilled with starch and the molding process begins again. Meanwhile, the dried gummy centers, now separated from the starch, fall from the drum onto a metal mesh conveyor belt. It transports them to a steam conveyor belt that moistens them. This prepares them for the next step: the sugar coating. The
gummy centers enter a sanding drum that stirs them while nozzles spray them with sugar. Elsewhere in the factory, liquid sugar flows from a pot into a vat. A worker adds blue food coloring to the syrup and then mixes it. This mixture is called thickening syrup. Add the thickening syrup along with some flavoring to the gummy centers while they are rotating on a tilted turntable. After they turn a very sticky blue, the worker adds sugar to the tray. This process is repeated four times to form a layer around the rubbery center. The next day, when the gummies have hardened, they add hot syrup to the mixture and stir the gummies again. This gives the gummies a shine. There is a lot of sweetness here.
124,000 gummies in each tray. Now, add a little wax. And as the tray rotates, the rubber bands rub against each other, distributing the wax. This adds a shine to the finish. Then the tray stops rotating and the gummies are left to air dry for 24 hours to allow the icing to set. It's the finishing touch. After 3 and a half days, this large batch of gummies is ready. They move in a multicolored mass along a series of conveyor belts. They fall into a weighing system that divides them into portions for specific bag sizes. Then, a trapdoor opens and they fall through a chute into the packaging department. Once in the bag, the gummies are ready to sweeten your day. The caramel wafer is a classic American candy. Invented in 1847, it is a thin, light disc of
sugared caramel. Softer and faster dissolving than a hard candy. You can bite into it immediately or let it melt in your mouth. These caramel wafers come in eight flavors. The classic roll has a random assortment of 38 pieces. So part of the fun is choosing a roll that has more of your favorite flavors. The factory produces one flavor at a time. The first step is to add a mixture of food coloring and flavoring to the powdered sugar. This pink color and minty flavor produce the taste of wintergreen. The following ingredients are corn syrup and a binding solution of vegetable gums and gelatin dissolved in water. After mixing for about 8 minutes, they check the consistency of what is now caramel mass. If it is not thick, elastic,
or sticky enough, they add more binding solution until the dough is at the right consistency. Next, they divide the dough into pieces to feed the laminator. The first station in the wafer forming line. This black dough has a licorice flavor. A conveyor belt on the right returns the leftover dough from the end of the line for reuse in new wafers. The laminator compresses the scraps and leftovers, extruding them through a slot to form a sheet 50 cm wide by 2.5 cm thick. This yellow dough has a lemon flavor. A constant spray of corn starch prevents the dough from sticking to the equipment while the rollers compress and stretch it to flatten it to just 3 mm thick. The next station stamps the
company logo and then cuts the wafers. The cutter moves up and down 180 times per minute, slicing row after row of wafers, which fall through an opening onto a conveyor belt below. The conveyor belt carries the wafers to a multi-level tunnel dryer . They enter the dryer from the top level and, over the course of an hour, travel back and forth, passing through 13 times, covering a distance of 18 m. These green wafers have a lime flavor. The dryer temperature is 65°C, warm enough to remove about half of the moisture without melting the sugar. These brown wafers have a chocolate flavor. Once out of the dryer, they are rigid, so now they can be stacked on trays without sticking together.
Workers stack the trays in a drying room. It is air-conditioned and humidified with steam. Over the course of about 16 hours, the candy tablets dry out further until their moisture level drops to between 0.75 and 1%. The factory tests some samples by piercing them with a device called a penetrometer. This measures the force needed to penetrate the candy tablet to the point of breaking it. This ensures that the candies have reached the correct consistency. When the trays come out of the drying room, the workers empty them into a container that feeds the packaging line. As the candies move along, the colors blend together,
ensuring that each packaged roll has a random assortment of flavors. The tablets flow into channels, which place them on their sides. The workers take approximately two rolls and fill two feed channels that lead to the wrapping station. Another worker fills in the gaps to complete each roll with exactly 38 pieces. The wrapping machine cuts the printed translucent paper from a roll and applies a line of glue to one edge. In a matter of seconds, the machine lifts the roll, wraps it, seals the edges, and twists the ends to close them. As the sealed rolls move along a conveyor belt, heated blocks flatten the twisted ends. Each roll of candy pills weighs only 57 grams.
Workers pack 24 rolls per commercial box, and then pack the boxes into shipping containers. In addition to the traditional roll with assorted flavors, the factory also produces rolls exclusively made of chocolate. Although some aspects of production have been modernized over the years, the recipe hasn't changed much since the first pills came off the production line in 1847. Special effects in animated films bring to life characters and scenes that are entirely imaginary. A combination of different effects is usually required to give fantasy a realistic texture. From miniature scale models to computer-generated images, it's
all about the big picture. 3D animation and photographic tricks make this miniature town look big on the big screen. It all begins at the drawing table. An artist makes sketches of the various components of the fantasy village. Once he puts it on paper, the rest of the team can build it. Using one of the sketches as a reference, a sculptor carves foam into sections of a ceiling and glues the pieces together. This foam roof will then be used to make a mold. The mold maker builds a box around the roof, which is now gray due to the application of a non-stick substance. He pours liquid silicone rubber onto the foam roof of the box. After 12 hours, they disassemble the box and remove the foam to reveal the
mold. This mold will be used to cast several roof pieces for the miniature film set. They mix a two-part urethane solution and pour it into the mold. A chemical reaction causes the urethane to solidify and, in doing so, it takes the shape of the mold with all the details. After half an hour, he removes the cured urethane from the mold. It is a perfect copy of the original ceiling carving. They shape various roofs to achieve greater visual interest. Next, the team paints all the molded pieces of the miniature village set with realistic colors. The palette has been selected beforehand, but if it doesn't look good, adjustments can be made. For larger- scale structures, a technician places reflective dots in a
grid pattern. These points serve as reference points for laser scanning the image of the house on a computer. The technician transfers the image section by section. Once the image has been loaded onto the computer, the animators can really play with it. They can insert digital characters or superimpose a digital image over a filmed one to project a shadow. Meanwhile, another team member plants molded trees on plastic hills and shapes the landscape of the set. The trees and vegetation are on a very small scale because the landscape will be in the background. In the world of digital animation, clumps of moss can mimic bushes, and a hot glue gun is an indispensable tool. Once the buildings have been inserted into the set,
the team turns on the lights and checks the effect. They add accessories and sometimes remove others to improve the look of each scene. The technicians adjust the lighting, which can add visual depth and credibility to any scene. But it is even more critical from a small-scale view. Small rectangular mirrors attached to the lights allow for minute adjustments. The director of photography operates the camera remotely. Adjustments to the framing or depth of field of the shots can trick the eye and make the miniatures appear much larger. The computer records the camera movements so they can be repeated at any time.
Later, water will be digitally added to this riverbed. Next, the animated characters enter the scene with the help of computer-generated tricks. Today, virtual beings are a Hollywood phenomenon. Computer effects have propelled 3D animated characters to superstardom. But even for digital creatures, fame is not easy to achieve. It takes years of work and a large team of trained professionals to make them look good on the big screen. It all starts with a good old-fashioned sketchbook . Once the character is defined on paper, the artist sculpts it in clay. Then the technological magic begins by laser scanning the 3D character from all angles and uploading the image to the computer. Once captured, the digital artist envelops the character
in a digital wire structure. Manipulate the wire mesh to make the character move and breathe. After creating a dozen or more facial expressions, this machine makes physical copies of those faces. He repeatedly deposits layers of plastic to build a physical version of the image. They insert eyes into the sockets and then add some color to these faded plastic faces. An artist paints each of the faces following the same guidelines. Continuity is essential because the faces will be filmed and the images edited together to create the illusion of movement. It is a traditional animation technique called "stop motion" and these plastic models are called puppets. Next, a
seamstress makes a suit for one of the puppets. It has to look great because it will be used to promote the character to retailers who might sell it as a toy. They scan the fabric and wrap it around the digital character to give it the same outfit, and then add folds for a more realistic texture. The team lights the mini set for one of the big character scenes and plans the camera movements. It's a kind of dress rehearsal. One of the puppets acts as a double for the animated character. They move it in a process called preliminary placement. It is a critical step that ensures everyone is in sync. Cinematographers, lighting artists, and animators. Seeing the puppet in the room will help the animators place its digital counterpart within the various
visual elements. They literally cover all angles and leave nothing to chance. Now the physical merges with the virtual in a special effects trick called human motion capture. A man walks wearing a special suit covered in reflective dots. The computer recognizes the points to instantly transfer the man's movements to a digital version of the character. The digital artist uses those captured movements to manipulate the character and insert it into the scene. The effect is that of a digital character that moves exactly like a human being. They overlay digitized images of the set and combine them seamlessly into a single image. This digital overlay is called compositing. It allows animators to
accurately place the character in the scene. The blend of high-tech special effects with traditional animation techniques offers the best of both worlds. Combined, all these special effects tricks can generate star-quality 3D characters. They are virtual puppets and the animators are the puppeteers. And on the big screen, fantasy had never looked so real. Animatronics is the construction of robotic puppets that move realistically. Animatronic characters are often seen in science fiction films, as well as in theme parks and fairs. Please be advised that this segment contains images that may not be suitable for young viewers. When it comes to
the horror genre, the creepier the animatronic character, the better. Meet Crazy Kristen. She begins as a block of clay. Its creator sculpts its shape on a vertical table. Once its shape is complete, it switches to finer tools to elaborate its bloody features. Use water and a sponge to give your skin a realistic texture. Once the clay hardens, they place Crazy Kristen on her back and cover her with plaster. In about an hour, the plaster sets and they remove the sculpture, creating a mold from which they will produce multiple Crazy Kristens. The mold is quite heavy, so to make it easier to handle, they cut the body in two. Then they fill each cavity of the mold with liquid latex rubber. A 3 mm layer soon hardens against the wall of
the mold cavity. They suck out the remaining liquid latex. Meanwhile, they weld a steel skeleton, a grid for his ribcage, a strip for his spine, chains for his arm bones, ball bearings for his joints, and steel-reinforced rubber for his neck. So far, Crazy Kristen is just skin and bones. Now, she needs meat. They fill each cavity of the mold with expanding polyurethane foam. To control the expansion, they cover the top with a plastic sheet and guide the foam with their hands. The lower part of the body does not require an internal support structure because it is immobile. Only steel chains on the legs to keep them in place. Once the foam hardens, it is safe to remove Crazy Kristen's body from the
molds. They trim the excess latex along the perimeter. Then they sit their torso on a large rotating ball bearing mounted on a vertical metal base. They insert a couple of rods through the holes in the base. Each rod is bolted to a plate that rests on those ball-bearing joints in its skeleton. The other end is welded to the base. These cylinders are pneumatic, which means that air pressure opens and closes them, making Crazy Kristen shake. Everything is controlled by this digital device that they mount on a guitar amplifier. It sends electrical pulses that control the pneumatic cylinders. An actress records the screams and wails that accompany her. They transfer
the soundtrack to the digital control box. The box activates the sound effects along with the movement. It's time to apply makeup to Crazy Kristen. For their skin color, they use a mixture of equal parts house paint and liquid latex rubber. For their eyeballs, they use opaque, bone-white ink. Then they use an airbrush for the iris and paint the pupil with the end of the handle of a small brush. A few veins drawn with a red pen. Airbrushed ink on his mouthguard. And finally, clear epoxy over their eyes to make them look glassy. They put a wig on her, mount her lower body to the base, and complete her look with a straitjacket. Because crazy Kristen's home is the asylum.
