Membuktikan Eksperimen Anime Dr Stone di Dunia Nyata!

Fajrul Fx
15 Mar 202313:18

Summary

TLDRThe video script details an experiment inspired by 'Dr. Stone', aiming to recreate two types of batteries: an acidic battery and a manganese battery. The acidic battery, invented by French physicist Gaston Planté in 1859, uses sulfuric acid and lead rods, rechargeable and commonly used in everyday life. The manganese battery, a one-time use dry cell, is made with zinc, manganese, and carbon. The video demonstrates the process of making and testing these batteries, proving their functionality by powering a small motor, thus showcasing the scientific principles behind battery creation.

Takeaways

  • 🔬 The script discusses the human race's struggle to restore civilization using science, highlighting the invention of batteries as a crucial component in various technologies.
  • 📱 The video aims to demonstrate the experiment of making a battery similar to those in the anime 'Dr. Stone', exploring the scientific principles behind it.
  • 🔋 Two types of batteries are discussed: the rechargeable lead-acid battery and the single-use manganese battery, with the former used for storing energy from water wheels and the latter for mobile phones.
  • 👨‍🔬 The lead-acid battery was invented by French physicist Gaston Planté in 1859 and is notable for being rechargeable and widely adopted in everyday applications.
  • 🧪 The script describes the simple composition of the lead-acid battery, using sulfuric acid as the electrolyte and lead as the electrode material.
  • 💡 Safety precautions are emphasized when handling sulfuric acid, including wearing gloves, a mask, and goggles to prevent harm.
  • 🔌 The process of charging the lead-acid battery is demonstrated, showing the chemical reactions that occur and the storage of energy within the battery.
  • 🔋 The successful creation of a working battery is confirmed by measuring its voltage and testing its ability to power a small motor, proving the experiment's success.
  • 🌿 The script also covers the creation of a manganese battery, using zinc, manganese, and carbon as materials, which is simpler than the lead-acid battery.
  • 🔬 The principle of the manganese battery is explained, contrasting it with the lead-acid battery by highlighting its single-use nature due to the irreversible chemical reaction.
  • 📺 The video concludes by expressing excitement for the upcoming 'Dr. Stone' season 3, hinting at further experiments and scientific discussions to be covered.

Q & A

  • What is the main focus of the video script?

    -The main focus of the video script is to demonstrate the process of making two types of batteries, the lead-acid battery and the manganese battery, as seen in the anime 'Dr. Stone', and to discuss the scientific principles behind them.

  • What are the two types of batteries created by Senku and his team in 'Dr. Stone'?

    -The two types of batteries created by Senku and his team are the lead-acid battery, which is used to store energy from a water wheel, and the manganese battery, which is a dry single-use battery used in their phone.

  • Who discovered the lead-acid battery and when?

    -The lead-acid battery was discovered in 1859 by French physicist Gaston Planté.

  • What are the main components used to make the lead-acid battery in the script?

    -The main components used to make the lead-acid battery are sulfuric acid as the electrolyte and lead as the electrode material.

  • What safety precautions are mentioned in the script for handling sulfuric acid?

    -The script mentions wearing gloves, a mask, and goggles as safety precautions when handling sulfuric acid to prevent any harm or accidents.

  • How is the lead-acid battery charged in the script?

    -The lead-acid battery is charged by connecting it to a power source, which causes a chemical reaction where electrons move from the positive to the negative terminal, storing energy in the process.

  • What is the voltage reading of the lead-acid battery after being charged in the script?

    -After being charged, the lead-acid battery shows a voltage reading of 2.10 volts.

  • How is the manganese battery different from the lead-acid battery as described in the script?

    -The manganese battery, unlike the rechargeable lead-acid battery, is a single-use battery. It uses zinc, manganese, and carbon as its main components and cannot be recharged once the chemical reaction has taken place.

  • What is the voltage potential of the manganese battery after it is assembled and tested in the script?

    -The voltage potential of the manganese battery after assembly and testing is 1.39 volts.

  • What does the success of the battery experiments in the script demonstrate?

    -The success of the battery experiments demonstrates that the processes shown in 'Dr. Stone' are feasible and that it is possible to create functional batteries using simple materials and principles.

  • What is the significance of the battery experiments in the context of 'Dr. Stone' season 3?

    -The battery experiments are significant as they foreshadow the scientific and technological advancements that Senku and his team will achieve in 'Dr. Stone' season 3, which is set to release soon after the events of the video script.

Outlines

00:00

🔬 Experimenting with Historical Battery Technology

The script introduces an experiment to recreate a battery as seen in the anime 'Dr. Stone', aiming to demonstrate the scientific principles behind it. The video discusses the significance of the battery in human civilization and technology, highlighting its role from the Stone Age to modern times. The first type of battery featured is the lead-acid battery, invented by French physicist Gaston Planté in 1859. This battery is rechargeable and has widespread applications, including in vehicles. The script describes the process of creating a lead-acid battery using sulfuric acid and lead rods, emphasizing safety precautions when handling the chemicals. The experiment involves assembling the battery and testing its voltage, with the goal of proving its functionality by powering an LED and a small motor, thus validating the principles shown in 'Dr. Stone'.

05:03

🔋 Constructing a Manganese Dry Cell Battery

The second part of the script details the construction of a manganese dry cell battery, another type created by Senku and his team in 'Dr. Stone'. This battery is a one-time use, dry cell variant, commonly found in everyday life. The script explains the simplicity of making this battery, which involves zinc, manganese, and carbon as primary materials. The process includes shaping the zinc into a foil-like form, combining it with manganese, and adding a carbon layer. The script emphasizes the practical demonstration of creating this battery, showcasing its successful creation and testing its voltage with a multimeter. The experiment concludes with the battery successfully powering a small dynamo, proving its ability to store electrical energy.

10:07

🔬 Exploring the Science Behind 'Dr. Stone' Batteries

The final paragraph summarizes the experiments conducted to recreate the batteries from 'Dr. Stone', reflecting on the simplicity and effectiveness of the methods shown in the anime. It contrasts the lead-acid battery, which uses metal plating and sulfuric acid for a rechargeable system, with the manganese dry cell battery, which is a single-use system. The script highlights the success of the experiments, confirming that the principles depicted in 'Dr. Stone' are not only real but also remarkably straightforward. It ends with an anticipation for the upcoming season of 'Dr. Stone' and a teaser for future experiments and discussions on the science presented in the anime.

Mindmap

Keywords

💡Battery

A battery is a device that stores chemical energy and makes it available in an electrical form. In the video, the creation of batteries is a central theme, showcasing how they are fundamental components in various technologies. The script describes the process of making two types of batteries: an acidic battery and a manganese battery, which are integral to the storyline of the video.

💡Acidic Battery

An acidic battery, specifically a lead-acid battery, is a type of rechargeable battery that uses a dilute sulfuric acid solution as its electrolyte. In the video script, the creation of an acidic battery is demonstrated, which is a significant step in the narrative as it shows the practical application of scientific principles to create a device that can store energy.

💡Lead-Acid Battery

A lead-acid battery is a type of rechargeable battery in which lead and lead dioxide serve as the electrodes. The script mentions the creation of a lead-acid battery, emphasizing its historical significance as the first rechargeable battery and its widespread use in everyday life, such as in car batteries.

💡Manganese Battery

A manganese battery, as discussed in the script, is a type of dry cell battery that uses manganese dioxide as the cathode material. This type of battery is highlighted in the video as a one-time-use battery, contrasting with the rechargeable nature of the acidic battery. It is used to demonstrate the simplicity of creating a battery that can store energy for use in devices like a phone.

💡Electrode

An electrode is a conductor through which electric current enters or leaves an electrochemical cell. In the video, electrodes are essential components of the batteries being made. The script describes using materials like zinc and manganese for electrodes, which are critical for the chemical reactions that allow the battery to store and release electrical energy.

💡Electrolyte

An electrolyte is a medium that allows the flow of ions, which is necessary for the operation of batteries. In the video, sulfuric acid is used as an electrolyte in the acidic battery. The script explains that the electrolyte facilitates the chemical reactions that enable the battery to function.

💡Rechargeable

Rechargeable refers to the ability of a battery to be recharged and used multiple times. The script contrasts rechargeable batteries, like the acidic battery, with non-rechargeable ones, highlighting the importance of this feature for practical and sustainable energy storage.

💡Chemical Reaction

A chemical reaction is a process that leads to the transformation of one set of chemical substances to another. The video script describes chemical reactions that occur within batteries, such as the conversion of manganese dioxide in a manganese battery, which is crucial for understanding how batteries produce electricity.

💡Energy Storage

Energy storage is the capture of energy produced at one time for use at a later time. The video's theme revolves around energy storage, as batteries are devices that store energy. The script illustrates this concept through the practical experiments of making batteries that can store electrical energy for use in devices.

💡Voltage

Voltage, measured in volts, is the electrical potential difference between two points. In the script, voltage is used to indicate the electrical potential of the batteries. The video demonstrates measuring voltage to confirm that the batteries are functioning correctly, showing a voltage of 2.10 volts as evidence that the battery is storing energy.

💡Dokter Stone

Dokter Stone is a reference to the anime 'Dr. Stone,' where the protagonist Senku creates various technologies, including batteries, to restore civilization. The video script uses the show as a context for the experiments, demonstrating the creation of batteries similar to those depicted in the series, thus connecting the practical science of battery-making with the fictional narrative.

Highlights

Human civilization uses science to create advanced technology from scratch, including batteries, which are important components in various technologies.

The video demonstrates an experiment to create a battery similar to those in the anime 'Dr. Stone', exploring its feasibility and scientific principles.

Two types of batteries are made by Senku and the Science Kingdom: a rechargeable acid-lead battery and a one-time-use manganese battery.

The acid-lead battery, invented by French physicist Gaston Planté in 1859, is the first rechargeable battery and is widely used in everyday life.

The acid-lead battery uses sulfuric acid and lead rods as its main components, which are simple to source and use.

Safety precautions are emphasized when handling sulfuric acid, including wearing gloves, a mask, and goggles.

The process of assembling the acid-lead battery is shown, including the use of a 3D-printed case for a neat appearance.

The battery's voltage is tested before and after charging, with a successful charge indicated by a voltage of 2.10 volts.

The charged battery is used to power a small motor, demonstrating that the homemade battery can store and provide electrical energy.

The process of making a manganese battery is shown, which is simpler and uses zinc, manganese, and carbon as its main components.

The manganese battery is a one-time-use battery, unlike the rechargeable acid-lead battery.

The video demonstrates the successful creation of a working manganese battery, proving the feasibility of the methods shown in 'Dr. Stone'.

The video concludes with excitement for the upcoming 'Dr. Stone' season 3, which is expected to feature more interesting experiments and scientific discussions.

The video encourages viewers to support the channel through memberships or donations for more content like this.

The video provides a practical demonstration of the scientific principles behind battery creation, making it accessible and understandable.

The video concludes with a reminder that the experiments shown are simple yet effective, reflecting the ingenuity displayed in 'Dr. Stone'.

Transcripts

play00:01

dalam perjuangan untuk mengembalikan

play00:03

peradaban manusia menggunakan sains

play00:06

sainko membuat berbagai macam teknologi

play00:09

canggih dari nol

play00:13

salah satu yang dia buat adalah baterai

play00:16

yang ini menjadi salah satu komponen

play00:18

penting dalam berbagai teknologi lain

play00:21

yang nantinya dia kembangkan Seperti

play00:24

contohnya untuk membuat handphone di

play00:28

zaman batu

play00:30

di video kali ini kita akan coba untuk

play00:32

membuktikan eksperimen membuat baterai

play00:35

seperti yang ada di dokter Stone itu

play00:39

apakah beneran bisa atau tidak sekaligus

play00:44

juga ini nanti kita akan bahas secara

play00:46

prinsip sainsnya apa sih yang sebenarnya

play00:48

terjadi di situ

play00:52

By the way kalau kalian suka dengan

play00:54

video di channel ini kalian bisa

play00:56

mendukung channel ini secara lebih loh

play00:59

baik itu melalui join membership atau

play01:01

dukungan saweria

play01:06

season 1 ada 2 jenis baterai yang dibuat

play01:09

oleh senku dan tim science Kingdom

play01:12

pertama adalah baterai asam timbal yang

play01:15

digunakan untuk menyimpan energi dari

play01:18

kincir air yang telah mereka buat yang

play01:21

mana jenis baterai ini adalah baterai

play01:24

yang bisa digunakan

play01:25

berkali-kali dan yang kedua yang mereka

play01:28

buat adalah baterai mangan ini adalah

play01:31

baterai kering sekali pakai yang ini

play01:34

digunakan pada teleponnya

play01:40

kita mulai dari yang pertama untuk

play01:42

eksperimen baterai asam timbal baterai

play01:46

asam timbal atau baterai ditemukan pada

play01:49

tahun

play01:51

1859 oleh Fisikawan Prancis Gaston

play01:54

plante yang ini merupakan jenis baterai

play01:57

pertama yang bisa dipakai dan diisi

play02:00

ulang berkali-kali

play02:03

baterai ini telah di adopsi dalam

play02:05

berbagai keperluan kita sehari-hari dan

play02:08

Pasti kalian pun mungkin udah sering

play02:10

lihat karena sistem ini juga yang

play02:13

digunakan pada aki aki motor aki mobil

play02:17

itu mereka menggunakan sistem ini

play02:21

dan yang digunakan untuk membuat baterai

play02:24

asam timbal ini sangatlah simple

play02:27

cairannya menggunakan bahan asam sulfat

play02:30

dan elektrodanya atau batangnya ini

play02:33

menggunakan bahan timbal

play02:37

sendiri untuk asam sulfatnya dia dapat

play02:39

dari Danau asam yang untuk mengambilnya

play02:42

mereka harus bertaruh nyawa oke di sini

play02:46

langsung aja kita praktekkan ya

play02:48

teman-teman dan di sini untuk Bahannya

play02:50

yang pasti udah ada asam sulfat sama

play02:53

udah ada batang timbalnya ini sebagai

play02:55

bahan yang paling utama sementara yang

play02:58

lain-lainnya ini kayak cuman tambahan

play03:00

aja lah ya untuk asam sulfatnya sendiri

play03:03

ini aku memakai air aki atau air zoor

play03:07

merah istilahnya yang ini itu adalah

play03:09

memiliki kandungan asam sulfat sebesar

play03:12

30% sebenarnya ini nggak yang sampai

play03:16

berbahaya-berhaya banget sih teman-teman

play03:18

cuman tetap kalau kita eksperimen dengan

play03:21

bahan-bahan kimia apalagi asam sulfat

play03:23

itu aslinya adalah asam yang cukup

play03:26

berbahaya di sini makanya pakai sarung

play03:28

tangan pakai masker sama pakai kacamata

play03:31

juga buat jaga-jaga aja daripada nanti

play03:34

nggak bisa bikin video lagi kan

play03:36

oke di sini akan langsung aku pasang aja

play03:40

untuk timbalnya tak masukin ke dalam

play03:43

sini Sebenarnya ini sistemnya bisa kayak

play03:46

gimanapun bebas ya teman-teman cuman di

play03:48

sini biar agak lebih rapi aku pakai 3D

play03:51

printer tak bikin kayak gini biar ini

play03:53

tinggal nyemplungin aja dan ini tinggal

play03:56

aku masukin seperti ini

play04:00

dan

play04:03

[Musik]

play04:05

seperti inilah sistem LED acid bettery

play04:09

asam timbal yang kita buat teman-teman

play04:11

udah cuman ini sebenarnya masih belum

play04:14

selesai karena nanti masih perlu kita

play04:16

charge dulu untuk baterai seperti ini

play04:20

pertama kita cek dulu mungkin ya dari

play04:23

segi voltasenya tegangannya kalau kita

play04:27

lihat di sini nah seperti terlihat di

play04:30

sini teman-teman ini masih nol ya

play04:33

tegangannya dari baterai ini karena

play04:35

belum kita cas kan nah kemudian aku akan

play04:39

ngecas baterai ini kita jepit dulu pakai

play04:43

buaya

play04:47

[Musik]

play04:48

seperti ini dan kita akan ngecas di sini

play04:58

[Musik]

play05:03

oke

play05:05

seperti yang terlihat di bawah sini

play05:07

teman-teman ini terjadi ada

play05:10

gelembung-gelembung sedikit gitu ya kita

play05:12

tunggu dulu aja untuk prosesnya di sini

play05:15

aku pakai tegangan 5 volt kecil aja

play05:22

nah ketika sistem baterai ini dialiri

play05:25

listrik alias dicas ini akan terjadi

play05:28

reaksi dimana elektron Akan berpindah

play05:31

dari kutub positif ke kutub negatif

play05:34

dengan serangkaian reaksi kimia dan

play05:37

kutub positifnya nanti akan berubah

play05:39

menjadi pbo2 timbal oksida dan di

play05:43

sinilah nanti energinya itu dia

play05:45

tersimpan

play05:47

kita tunggu bentar dulu aja ini

play05:49

teman-teman sampai

play05:51

pecah lah ya nggak perlu yang sampai

play05:53

full-full banget cuman

play05:55

yang penting udah pecah saja baterainya

play06:03

baterainya beneran bisa berhasil atau

play06:06

tidak Kita akan uji dari nilai

play06:08

voltasenya di sini

play06:16

dan kelihatan ya di situ sekarang udah

play06:19

ada voltasenya

play06:21

2,10

play06:23

volt Wow yang artinya baterai ini

play06:27

sistemnya udah bekerja teman-teman

play06:30

sekarang akan aku uji make Rasengan

play06:35

By the way ini Rasengan yang udah pernah

play06:37

aku bikin untuk video sebelumnya nanti

play06:39

mungkin bisa dicek juga teman-teman

play06:43

di sini kan ada motornya nih Aku akan

play06:45

mencoba untuk memutarnya menggunakan

play06:47

tenaga dari baterai yang baru aja kita

play06:51

charge ini tadi

play06:53

Apakah bisa

play06:56

yo

play07:00

dan ini Real teman-teman ternyata

play07:03

baterai yang baru aja kita bikin baru

play07:06

aja kita charge ini beneran bisa bekerja

play07:10

real energinya tersimpan energi

play07:13

listriknya tersimpan dalam baterai dan

play07:15

energinya pun ini bisa kita pakai untuk

play07:19

memutar motor ini memutar Rasengan ini

play07:22

yang artinya

play07:24

eksperimen ini berhasil senku itu emang

play07:28

Mantep banget temen-temen

play07:33

proses pembuatan baterai mangan di

play07:35

dokter Stone ditunjukkan dengan sangat

play07:38

sederhana dan memang sesederhana itulah

play07:42

proses untuk membuat baterai mangan ini

play07:45

seperti yang ditunjukkan oleh gen

play07:48

asagiri di sini bikin baterai mangan itu

play07:51

udah kayak bikin onigiri sebagai rumput

play07:55

lautnya di sini pakai bahan zinc alias

play07:58

seng nasinya pakai bahan mangan lalu

play08:02

ditambah Arang di atasnya

play08:05

baterai-baterai sekali pakai yang sering

play08:07

kita temui di kehidupan sehari-hari itu

play08:09

kebanyakan pakai jenis baterai mangan

play08:12

entah itu baterai ABC biasa atau baterai

play08:16

Alkaline itu dasarnya dari sistem mangan

play08:20

baterai seperti yang ada di dokter Stone

play08:22

ini cuman pastinya udah disesuaiin lagi

play08:25

lah formulasinya biar bisa lebih optimal

play08:28

ketika digunakan Nah di sini kita akan

play08:31

langsung praktekin aja di sini aku udah

play08:33

ada beberapa bahan-bahannya yang pasti

play08:35

di sini ada lempengan zinc nya terus

play08:38

udah ada mangan dan juga

play08:41

karbon seperti ini teman-teman untuk

play08:44

zingnya sendiri aku udah mencoba untuk

play08:46

nyari Zing yang bentuknya itu kayak foil

play08:50

yang gampang ditekuk-tekuk biar gampang

play08:52

dibentuk kayak yang ada di dokter Stone

play08:55

cuman aku nggak nemu temen-temen nemunya

play08:57

adalah yang bentuk lempengan kayak gini

play09:00

yang Rada susah sebenarnya untuk

play09:02

dibentuk-bentuk ditekuk-tekuk jadinya

play09:05

mungkin ini secara visualnya secara

play09:07

bentuk baterainya ini akan sedikit

play09:10

berbeda walaupun Enggak apa-apa karena

play09:12

yang penting adalah secara prinsipnya

play09:14

ini tetap sama nah kita langsung bikin

play09:17

aja di sini akan aku tekuk aja untuk

play09:20

baterainya

play09:26

gini aja udah cukup lah ya

play09:35

Oke kita harus kasih penahannya ini

play09:38

bagian pinggirnya tak kasih Solasi aja

play09:45

[Musik]

play09:49

nah wadahnya udah siap sekarang tinggal

play09:52

aku siapkan mangannya dan taruh ke dalam

play09:55

sini seperti ini Tinggal dimasukin aja

play09:58

lah ya pokoknya di sini

play10:06

oke mangannya udah dan proses yang

play10:10

terakhir ini adalah Kita cuman perlu

play10:12

untuk memasukkan karbon ini ke dalam

play10:16

baterai ini Tinggal dimasukin aja tapi

play10:18

jangan sampai terlalu ke bawah yang

play10:20

sampai nempel-nempel Ya

play10:23

baterainya ini udah jadi teman-teman

play10:25

walaupun bentuknya cuman kayak gini

play10:29

Ini adalah sebuah baterai nih sebagai

play10:33

buktinya kita langsung uji aja

play10:35

menggunakan multimeter

play10:39

untuk melakukan pengetesan di sini

play10:41

satunya kita capit di karbonnya dan

play10:45

satunya lagi kita tempelin di lempengnya

play10:48

dan di sini bisa kita lihat dari hasil

play10:50

pembacaan multimeternya kita dapat nilai

play10:54

bahwa baterai ini udah memiliki

play10:56

potensial 1,39 volt dan selanjutnya biar

play11:01

lebih real kalau ini bener-bener baterai

play11:04

menyimpan energi kita akan praktekkan

play11:06

lagi di alat Rasengan kita teman-teman

play11:09

Oke ini udah siap Kita coba

play11:16

[Tertawa]

play11:22

dan ternyata di sini baterainya

play11:25

benar-benar bisa bekerja dan ini dia

play11:27

bisa memutar dinamo yang artinya ini

play11:32

benar-benar baterai dengan proses yang

play11:35

sesimple ini ini persis seperti yang ada

play11:38

di dokter Stone walaupun bentuknya ya

play11:41

Ada Beda lah ya ini radang ngasal

play11:43

bentuknya cuman ini tetap dengan prinsip

play11:45

yang sama

play11:49

mekanisme kerja dari baterai mangan

play11:52

baterai ini zizing mangan baterai ini

play11:54

itu agak berbeda dengan baterai Lite

play11:58

acid yang ada di awal tadi teman-teman

play12:00

kalau itu kan sistemnya dia memanfaatkan

play12:03

transfer elektron antara logam timbal

play12:06

dan cairan asam sulfat dan itu juga

play12:08

prosesnya bisa terjadi berkali-kali

play12:11

ketika udah habis bisa dicas lagi dan

play12:14

seterusnya sementara pada baterai ini

play12:16

itu sistemnya cuman bisa sekali pakai

play12:20

karena ketika elektronnya udah berpindah

play12:22

dari kutub negatif ke kutub positif ini

play12:24

udah nggak bisa dibalik lagi reaksinya

play12:27

dan yang pasti dari sini Kita bisa

play12:29

bilang kalau eksperimen yang ada di

play12:32

dokter Stone itu real dan bikin baterai

play12:35

ternyata sesimpel itu teman-teman

play12:38

jadi makin nggak sabar aku untuk melihat

play12:42

aksi-aksi dari Senko di dokter Stone

play12:46

season 3 yang akan segera rilis sebulan

play12:49

lagi karena ketayangan di bulan April

play12:51

2023 itu dokter Stone season 3 udah

play12:54

rilis nggak sabar aku nah nanti kalau di

play12:58

season 3 dokter Stone season 3 The

play13:00

eksperimen menarik juga nanti kita akan

play13:02

praktekkan akan kita bahas juga sains

play13:05

yang ada di animenya Oke kita ketemu

play13:08

lagi di video selanjutnya Dadah Terima

play13:10

kasih

play13:16

[Musik]

Rate This

5.0 / 5 (0 votes)

相关标签
DIY ScienceBatteriesDr. StoneElectricityExperimentsInnovationTechnologyEducationalChemistrySustainable Energy
您是否需要英文摘要?