The installation is interactive and immersive. Users are brought into the underwater world. With feather fan blowing cool wind and tickling them as they pass by. Their eyes are entertained by the beautiful wobbling colourful feather robots that roam around and tickle their feet. Lastly the glowing cups could be pulled to release various scents. A soft water music will be playing in the backgrounf. All these made up for a visually entertaining, high sensory involvement installation.
The user experience could be exciting, unpredictable and beautiful.
They are impressed with our installation. Our classmates think our robots are cute. We also gifted Cheryl one of them too. Valuable suggestions are given by Cheryl’s professional friends on how to further expand this project into a workable product beneficial to the society. The robot’s cute appealing features and ability to move away once when touched can be translated into a relationship educational toy. Parents could use this robots to teach their children on how humans behavior are. People who seem friendly could be dangerous and who appears to be friends may not be. It also teaches child in more western-education manner as this robot is more “open-minded” and roam around and explore the place. Another idea is the scents trails could be used to lead blind people in the event when fire or harsh snow condition occurs. As it will be hard for them to feel their way around in snow and when the environment is very chaotic. A very strong scent could lead them to the emergency stairs and save their life. Both features could be read further in our pdf.
I felt really proud for my team! We all played a part and do our best for our installation. I’m really happy with the way things turned out.
Our installation will be held in the dark. The overall theme is mostly white with a speck of colours to give off a light playful feel underwater.
First, The motor is stuck to the foam base and wired up to the battery and switch. All these are covered by a cup. A white led protruded into the balloon and everything is taped together before testing out.
It quite therapeutic for me to stare at this spinning continuously. Its like a solo waltz.
This is how it moves without the cup and foam. Its a lot lighter so it wiggly randomly like a sea anemone.
After figuring out the way to make it move like a sea anemone, we moved on to package it prettily by covering exposed wires with white tape and batteries with paper. We used a party stem to tie the balloon to it and inserted it between the batteries. Natasya thought of a way to connect the white led to the bottom of the battery. She extended the battery wire by connecting it with longer wire then she tied the balloon’s end with rubber band. The whole thing is inserted the conical stem. It worked well.
We also tried using a smaller conical bowl n see how the robot moved. Its very unpredictable. It rotated on the spot, sometimes wobbles away. It achieved our main goal of making the robot move away when touches just like how sea anemone escape from starfish. I added the feather elements on the robot as we are inspired by feather starfish. It tickles people feet as they pass by hehe. The tail at the end is fibre optic. We realised that it give a dimmer light, which is more suitable than the harsh white light. Hence we replaced the white light. The dimmer light produce beautiful sparkles in the dark and it look like the tiny robots are dancing underwater.
We planned to make 5 robots with varying balloons size and feathers for each robot. As we tested out the more weight the robot has, the less it move. Hence having variation create interesting interaction like some active, one drunk and one lazily spinning on the spot. We even planned to name the robots we make as they are really cute and act differently hahaha!
One big family~
For the scents, we joined everything together in this manner. This is a draft version.
This is how our final looks like. I painted the cups in glow in the dark orange paint in spots to make it look like nemo. I tried charging it in the sun for days but it didn’t work. Hence we decided to use black light and shine on it. It glows instantly! Black light is so magically <3
These luminous cups represent the light-detecting eyes which glows as the environment become darker. It also serves as an attraction to trick preys into thinking our avatar as a fish. There’s a tiny stinging bub at the end to stimulate how anemone sting and stun prey to capture them.
Our avatar’s chemoreceptors are able to detect the faintest scent from prey. The sea contains various scents that pass by our avatar. Only the most distinct scent from its prey will attract it among the other creatures in the sea that appear to have a fainter smell.
Our SO is the middle lemony citrus smell. Amelia made this by combining scent oil with corn starch powder to create the powder. The D smell is the baby powder and the SD is cinnamon.
Natasya came up with the feather wall idea. Motor, batteries and more feathers are used in this. Amelia cut the wood and drilled hole for the feathers to be slot in. As we used one thin and thick wood, we explored which one we should give more power. In the end we decided to have the thicker stick have 4 batteries to make it move faster like the thin stick.
It feels good being tickled by this :3
We installed the feather fan in different heights so the sensory feel contact different part of the user’s body.
Hi! It has finally boiled down to our final assignment which will be an installation involving senses of our fused animal called Grenas. It is a combinations of different elements from starfish, nemo and sea anemone.
I researched on possible experiments that expressed the mechanism of starfish like how its tube feets repelled water to propelled and move the limbs.
I tested it out and the process is quite slow. I thought the ice cube sink down and won’t come up. However after a while it goes back up. I thought this is like an automated short-lived Cartesian diver.
The next experiment i tried is the first experiment in this video. The mechanism is quite like how the starfish’s tube feet operate. When i showed Cheryl my experiments, she mentioned that it moved just like how the anemone blooping about trying to escape from the starfish. I feel so too. Hence i find this experiment has more potential to advance.
Initially i used a bottle cap like how the tutorial video does but the whole thing barely moved. Hence i used a smaller and lighter cap and blowed up the balloon to a very large size then it moved for a long time. This is the longest the balloon lasted.
Next i explored with an even lighter base: paper. It was released in the midair so it could fly!
Base is gone for this. U could see how crazy it moved around my house.
I tried a different approach and result is quite similar to the previous experiment.
We showed the experiments to Cheryl.
U can see our teacher, Cheryl, inside. The most passionate teacher i ever seen. She is always filming our class experiments that she always run out of memory in her phone haha!
We tried out with different surfaces and it still doesn’t move as lively as my house experiments.
I searched for other alternatives to make our balloon last longer and encountered this wobble robot. Hence i thought why not use this as the way its wobble is very anemone-like.
In the meantime, Amelia explored the smell sense for our installation. She thought of making the scent fly out like party popper. She modified a bit and make it like this.
This assignment we are tasked to make a product that produce 3 sound qualities.
I just knew this is my chance to explore magnets. I don’t know how i’m gonna make sound with it but magnets will be my main medium.
This is my initial draft sketch before exploring online.
Upon researching, i found this really cool video and that’s where my source of inspiration come about.
I tried making it but failed. I couldn’t make the CD spin continuously and have that “free energy” flowing through it. Mine is like a spoiled old car that spin only a bit then pause. Spin, pause, spin pause. Even when i increased the amount of magnets, it still the same. Probably spin just a bit more only haha.
I explored a lighter material using plastic container lid and bottom. Using the middle one in the photo give a better result. As the container bottom is lighter and has a smooth protruded center, it aids in the spinning, making it turn longer. Although there is still pauses in between, this is the best i could go for.
I had various ideas to make use of the spinning motion. I could make it like a swing ride, have something attached to the base, so when they collide, they would produce sound in a way like wind chime. I also thought of adding bristles along the side of the rotating disc, the bristles will brush along the edge of the container and produce sound. Basically there will be layers of different sounds.
When i went to art friend, i saw this interesting globe ball that can be separated into half. I thought it would be fun to test it out like a roly poly toy. With this new toy, i thought of various ideas like having a slide circulating the globe. Thus, when the rotating disc hit at certain point, there will be a mechanism that release a ball and it would slide down the slide, producing an echo and Doppler effect. However i feel that this is too time-consuming when i had other assignments to do too. Hence i decided to create different layers of sound instead.
I explored with different materials and textures to see which give the result i wanted.
I wanted sounds that goes well with each other and create a sci-fi music like at 6:48-7:00.
This is my first prototype which i presented in class.
Lots of layers inside.
Now let’s hear the sound individually in each layers.
First up is the capsule that contains a bead and a decorative piece.
Secondly is the capsule rolling around on very crumpled aluminium foil.
I made the shadow of “Ben” Grimm’s face! So cool!
Thirdly is a smoother surface of aluminium foil.
Lastly, is the beads circulating in the slightly rubbery lid.
This is what the capsule sound like without any foils.
Comments from Mrs Cherly: The sounds are very delicate. Maybe can try to extrude out the lid using wire mesh, so the sounds can project out.
Personally, i like soft low pitch sounds. However i feel that my sounds doesn’t have a clear distinct separation with each other because they are all trapped under the thick cardboard lid, a poor conductor of sound. After seeing the class presentation, i realized i should make my sounds louder. Hence off to the next prototype.
Following Mrs Cherly’s advice, i changed the material of lid to a thinner cardboard and extrude it out. I feel that changing into a thinner layer of material has the same effect as protruding out the lid. Hence i decided to go with a thinner layer instead. Ultimately, i choose a pvc sheet so that the inner layers could be seen as well.
Besides playing around with different textures of foil, i also tried experimenting with different beads.
They look so pretty together! It look like i’m doing jewelry photography.
With this i created a new planet, Yiruto! The tiniest, noisiest planet the mankind ever discover on this universe!
Rolling the bell on foil.
Rolling the bell on foil in bowl container.
Beads and decorative “stars” on top of a rubber lid in a bowl container. Occasionally the metallic beads will bounce up and come in contact with the container and circulate on top of the lid. The friction between the container with the bead produce a unique vibrating high pitch sound.
Witness Yiruto’s Revolving Moments!
After a final consultation with Mrs Cherly, She advised me to lift up the foil a bit so there’s room for the bead to circulate.
How a metallic bead sound make a difference.
Upgrade Version of Yiruto in Action
When testing out different bells, i realized some bells are conductor of magnets. This is the strongest among all the bells i tested. There’s a whole new approach of making sound in this video.
Personally, i like the sound of the first version of Yiruto. The chiming bell sound is louder and create a beautiful sound with some occasionally vibrating beads. Then again, the second version fit my sci-fi theme better. Although i feel that the echoy sound could be better improve to fit my theme.
Yesterday we did kinaesthetic workshop in the dance room. The class performed movements like how our research animals would move. I came late so i missed out on it. So, this is me acting like a sea star in my room.
Since sea star move very slowly and there’s no food nearby, i will just suntan in my room.
The brown slightly wiggly line is how starfish moves. With their eyes and touch receptors, they can sense if a prey is nearby. In this case, it’s a sea anemone. They will get closer by “crawling” using their tube feet. As they move really slow, i drew short wiggly lines to express the small movement they make.
This is my sea star paper sculpture. There’s a little narrative going on in this piece. Firstly, there’s one limb on the starfish that is the most prominent. Its the limb with the eye. I made it very pointy so its like the eye directing the starfish, saying “I found sea anemone over there! Hurry, move closer and eat it up!” There’s how the rest of the legs are made to move in the direction of the eye. My starfish has lost a limb. Can you tell which leg is it?
Im really excited for this project when i learned that we have to get our inspiration from animals. We drew lots and i got teamed up with Natasya and Amelia. Each of us had to research on an animal within the classified relationship of symbiosis, mutualism, commensalism, parasitism, etc. Our team decided to work on Sea Anemone and Nemo. Since this is a mutualism relationship, i decided to add some spice by introducing a new relationship. This is what i researched upon.
Eeeeekkkk! When the sea anemone wiggling away to escape, i was so grossed out. That aside, i never knew sea anemone and starfish could move. Hence, the animal i’m researching will be Patrick! The big boss in a predator-prey relationship. I realized parasitism doesn’t quite explain their relationship well because for it to be parasitism the organisms would have
to live in, on, or near each other while one creature benefits and one is harmed.
This video explains everything we have to know about starfish’s anatomy, movement, etc. My job here is done.
Hahaha! Just kidding.
I will explain a bit more on the structure, movement, hunting and senses of starfish.
Sea star or more familiarly known as star fish is an echinoderm, which is an invertebrate that has a proportional radial body. They lack brains and have absolutely no blood. They live by pumping seawater through their bodies to deliver nutrients, oxygen, and other essential fluids. But even without actual red blood, the starfish still has a circulatory system with a heart that constantly beats at a rate of 6 times in one minute. They have tough leathery skin, which protects them from most predators, and many wear striking colors that camouflage them or scare off potential attackers.
Sea stars are like zombies. They can rip off their limbs and in some cases, entire bodies, with the purpose of either escaping from predator or reproducing asexually. They can regenerate their limbs by housing most or all of their vital organs in their arms. Some require the central body to be intact to regenerate, but a few species can grow an entirely new sea star just from a portion of a severed limb.
I wish corn also have regeneration ability so i can eat non-stop. Why only creatures have this ability and not crops? Like that farmers don’t have to work so hard under the harsh sun.
The ring in the center is the Ring Canal. It’s in the central part of the starfish. A Radial Canal runs down the length of each ray, with a row of ampullae and tube feet on each side of it. The ampullae prevents water from flowing back to the radial canal. Also coming off the Ring Canal is the madreporite. The madreporite is like a sieve or strainer, and filters out particles in the water. It allows the water to enter the water vascular system from outside the starfish.
Starfishes are slow-moving creatures, some can actually just cover a distance of less than 10 inches in a single minute. Beneath it, there are numerous rows of small tubes which serves as the feet of the starfish. The vascular system of the starfishes regulates the pressure of the water that exits the legs. As water goes out, the legs are lifted upwards while some of the legs create suction to adhere on their next small steps. At the tip of each tube foot is a suction cup which is only used when walking up sheer surfaces. In a way, their legs actually do the walking motion but they release water and latch on to the surface of the ocean to create traction.
You can see the stark difference in speed between starfish and nemo. And i think the starfish just pooed…
Cool fact: Starfish can make glue
Their feet can form a glue that will bond indefinitely with a rock or prey item, with an adjacent tube releasing a solvent to undo the bond once the star is ready to move on.
Most starfish have eyes on the tips of their arms. It’s a tiny red nub, barely half a millimetre wide. It’s usually exposed, but the starfish can retract it into the arm if danger threatens.
These eyespots are not as complex as other animal’s eyes because they are only contains light-collecting units called ommatidia and lack of any lenses to focus light onto the underlying cells. Each eye has a fairly large visual field that extends over 210 degrees horizontally and 170 degrees vertically. Since the starfish has five of these eyes at the end of its flexible arms, it can probably see in every direction at once. However, its vision is rather poor. It’s colour-blind, and sees the world only in shades of light and dark. Its light-detecting cells work very slowly, so fast-moving objects are invisible to it. Starfish doesn’t need to see colours, details, or speedy objects, because it mostly uses its eyes to detect coral reefs.
On each limb, there may be 10000 over tube feet attached underneath. These tube feet are very sensitive to touch and sensation. These touch receptors can sense pressure, temperature and pain much and also help in determining the temperature of the water so that they can move away from the temperatures that are not suitable for them.
The spines on their backs are also equipped with chemoreceptors, which give them the extremely well-developed sense of smell they use to hunt prey and avoid predators. They can even determine the direction from which it is coming. The starfish then sets off to catch its prey, slowly and deliberately, following the direction of one arm.
Starfishes begin hunting their prey through their keen senses. They can actually detect the presence of a prey’s odor. So when their senses detect prey, the legs begin to act and move to that direction.They are usually slow predators that take advantage of other animals that are slower than them or stationary. If the prey is larger than the size of their mouths such as clams, they use their tiny, suction-cupped tube feet to pry open them. Using pressure exerted by the water vascular system, the cardiac stomach can be pushed outside of the sea star’s body and inserted inside a shellfish. The stomach then envelops the prey to digest it, and finally withdraws back into the body.
In conclusion, sea stars are cute creepily creatures.
We went to Dialogue in the Dark for our class outing. It was my first time going there. I thought it was dine in the dark concept, so i was really looking forward to eating but turned out it was different from what i expected. Haha! Still it was a fun experience.
First off, we begin our journey by getting our walking stick and being briefed upon. We feel our way in the dark, touching the wall as we go. It got dark pretty soon until i can’t even see what’s in front of me. I got a bit scared and feeling my way through the many edges of the long corridor wasn’t helpful at all. Then i began to hear birds singing and water flowing sound. It slowly calm me down. However i wished the audio is better and the birds sound more real. Moving on, i stepped on some rocky path with small pebbles and touched the pandan leaves. It smelled quite good. Then we all sat on the bench listening to the tour guide talking. It was quite squeezed at that time. Then one of my favourite part is the bridge because it swayed randomly. I’m suspecting my teammate for shaking the bridge but that’s all add to the fun bits.
We came across Sir Stamford Raffles which im sorry to say it’s the most unmemorable part in the whole trip that i forgotten to add it in my sculpture. We have to feel the protruded letters on the wall and pieced them up and it formed “Sir Stamford” i think. Now it’s the popular destination: the boat ride! We all got packed in the boat and it starts to move. I can feel the strong wind blowing and water splashes as we passed by many different spots like the Clark Quay, under tunnel, etc. The tour guide narration was helpful for us to visualized better as the soundscape changes.
Leaving the boat, here comes my favourite spot; crossing the traffic junction. I stood nearest to the post so i get to pressed the button. Somehow its felt so strange. Something i been doing all my life yet i felt excited like a little kid when i had a chance to press the button in the dark. We waited for the traffic light to turn red and heard all the cars stopped then we felt the tactile floor and crossed from one to another. That’s was my most exciting moment; without the tour guide telling us what to do and i get to roam free and explore on my own. Then we tried to feel our way around bicycle and car. I got trapped near the bicycle for a while before freeing myself.
Moving on, we touched cold metal shuttle and i felt a telephone and played with the buttons. We came into the market and there’s carts of fruits and spices so i felt the texture and smelled it. However i couldn’t smell anything. Well well, at least i got most of the fruit and spices correct. Hehe. Before stepping into the cafe, there’s bells ring as if signalling our arrival. It brought me to Paris with that bell chimes. It felt like some “atas” cafe. It has some peppery, spicy smell wafting in the air.The space got so big in to cafe as compared to the previous locations. I ordered and paid for my green tea. It took me a while to find and poke the straw into the hole of my packet drink. Then we sat at the sofa and chitchatted with the tour guide. As we leave, the light from the outside seem to pierced my eyes as it got adjusted to the dark.
We are told to construct a sculpture based on the spaces at different areas we experienced.
I curled the entrance because we are briefed in an enclosed area. As we passed through the narrow alley, with lots of turns and edges, i felt a bit trapped because i still have not gotten used to the dark. For the park, i decided to focus on the bridge and pandan leaves, so there are overhanging curls for the leaves. The bridge is a bit swaying sometimes so i made irregular crease to show the swaying motion coming from the sides of the bridge and the straight narrow path is the bridge itself. On the boat ride we all sat close to each other, i used the strips and crumpled it a bit here and there. We passed through different soundscapes on the boat, so there are different space like it felt smaller as we pass through the tunnel and bigger in Clark Quay. The holes represent the wind blowing. For the road, i used small slits to show me trapped in the bicycle. For the market, i crumpled that line because whenever i go to market, it will always be crowded and all my senses are focused on figuring out the fruits. As i got to the cafe, i realized there’s not much space to show the spaciousness in it. If i had more paper, i would still leave it untouched to show huge void of space i felt in the room. I felt small as i leave so i cut jaggedly to show the light piercing into my eyes, making me want to hide.
Sound waves travel faster through denser medium. That’s why sound travel faster in water than air. But even more influential than a conducting medium’s density is its elasticity. Elasticity refers to how well a medium can return to its initial form after being disturbed by a force. Steel has high elasticity. It bounces right back to its original shape after an applied force is removed. At the particle level, the molecules in elastic materials transfer energy more efficiently, so sound waves travel faster through steel than through water or air.
I found this video pretty cool. We can play different instruments through air.
She is the daughters of Mnemosyne and is called the “Giver of delight”. In late Classical times she was named muse of lyric poetry and depicted holding a flute.
When the crests or troughs of two interfering waves meet, their amplitudes add together. This principle is known as constructive interference. When the opposite happens, and it’s called destructive interference. When the crest and trough of two interfering waves meet, one amplitude subtracts from the other.
This is how a tuning fork works.The piano tuner strikes the tuning fork, and at the same time strikes the appropriate key on the piano. If their frequencies are perfectly aligned, so is the sound of both; but, more likely, there will be interference, both constructive and destructive. In the case of constructive interference, their combined sound will become louder than the individual sounds of either; and when the interference is destructive, the sound of both together will be softer than that produced by either the fork or the key.
It is the most quietest room in the world designed to completely absorb reflections of either sound or electromagnetic waves. They are also insulated from exterior sources of noise. I wish i can go inside to hear my blood flowing and what sound my body make.
The human ear is divided into 3 parts such as the outer ear, the middle ear and the inner ear. The outer ear is comprised of the auricle and the ear canal. They channel sound waves toward the eardrum. The eardrum passes along the sound vibrations to the ‘ossicles’, the three smallest bones in the human body, then divert it to the fluid-filled, ‘labyrinth’-like structure in the inner ear called the ‘cochlea’, where the true hearing organs reside. The sensory organ for hearing is the “Organ of Corti” containing about 15,000-20,000 specialized sensory cells, each with a tiny hair capable of picking up minute vibrations in the cochlear fluid. Various hairs are specialized to detect sounds at various frequencies, and turn them into nerve signals to be sent to the brain.
It interesting to see how our ears operate like various instruments put together to produce music in our brain. With the ear drum taking on the drum role, the ossicles on the tuning fork and the hairs inside the cochlea is the shaker. Its lacking a ukulele to make a chill hipster band.
Sometimes our ears are blocked when we are ascending up in the sky on the airplane or diving underwater. It is caused by the change of barometer pressure in the Eustachian Tube. The Eustachian tube connects the middle ear to the back of the nose. This tube opens and closes while we swallow or yawn. This movement helps equalize the pressure between the middle ear and the outside environment. If it does not work properly, negative pressure develops in the middle ear leading to ear problems like a blocked ear. When this happen, we can try to yawn to open the tube.
HOW IS FROG SIMILAR TO HUMAN?
Cheryl post this question to us and im quite amazed at my findings with this cute little creature.
Both frogs and humans have many of the same organs. Frogs and humans have lungs, stomachs, a heart, a brain and livers.
They do have eardrums and an inner ear like us. The frog ear is called a tympanum and the size of the tympanum and the distance between them are relative to the frequency and wavelength of the species male call. Their eardrum works like a regular eardrum with one very special adaptation…it is actually connected to their lungs. The lungs vibrate and are almost as sensitive to hearing as the eardrum. This allows frogs to make really loud sounds without hurting their own eardrums!
In the early 20th century biologists discovered that African clawed frogs were unusually sensitive to human chorionic gonadotropin (HCG), a hormone produced by pregnant women. Doctors would inject a frog with a woman’s urine, and if she was pregnant, the frog would ovulate and produce eggs in 8 to 10 hours.