Mankind has always been curious, striving to understand why things behave in specific ways and trying to link their observations with predictions made in old age. Since prehistoric times, men have observed the heavens and tried to understand the changes in the position of the sun, moon, and stars.
In about 4000 BC, the Mesopotamians attempted to explain their observations and suggested that the Earth was at the center of our Universe and other heavenly bodies moved around it.
Meanwhile, the Greeks were the first civilization who developed theories based on their observations. Pythagoras concentrated on a mathematical view of the world, Aristotle and Plato worked on logical methods for examining the world around them. The Greeks first proposed that matter was made up of atoms, which are fundamental particles that could not be further divided or broken down.
But it wasn’t only the Greeks who played a vital role in scientific discoveries. Meanwhile, scientific theories were also developed in India, China, the Middle East, and South America. The contribution of Muslim scientists in developing early scientific ideas is enormous. Despite having their own cultural views, scientists from different parts of the world independently produced materials such as gunpowder, soap, paper, etc. However, in the 13th century, many of these scientific advancements were brought together in European universities, and they started to look more like science as we know it today.
The scientific advancements are transforming with increasing knowledge, changing societal norms/ concerns, advances in communication and technology, and the rise of the internet.
The founders of modern science inherited an excellent deal from their successors and built more theories on these established cornerstones. The sensitivity to selective methods and the idea of knowledge played a crucial role in allowing them to integrate all pieces of the puzzle. These pieces were lying around and were pulled together by the founders of modern science.
Science has come a long way in the last 150 years. We now have more powerful data analysis techniques and more sophisticated tools and equipment for making observations and running experiments, with a greater breadth and depth of scientific knowledge. And as the attitudes of the broader society have progressed, science has benefited from the expanding diversity of perspectives offered by its participants.
In the modern era, science has become deeply interwoven with society and played a massive part in making our lives better and safer. At the same time, scientific advancements are transforming with increasing knowledge, changing societal norms/ concerns, advances in communication and technology, and the rise of the internet.
Summing up the history, Scientia Pakistan brings its exclusive edition on the theme “history of science”. We have got exciting stories on advancements in the Islamic golden age, the Atom bomb and its adverse impacts on humankind, history of space travel, science, and the environment, significance of Quantum mechanics, the first industrial revolution, and much more. The cherry on the top is the exclusive interview with scientific historian Dr. Paul Halpern. We assure you that this edition will not dampen the spirits of science and history enthusiasts. Have an excellent read!
We, as humans, have been dreaming of traveling beyond the visible skies for a very long time. Even when we didn’t correctly understand space, it didn’t limit our imagination and desire to travel to heavenly bodies. The Sumerians, the Aztecs, and about every known civilization had their own stories of space travel.
So to understand the history of space exploration, we will summarize the significant historical events leading up to modern-day space exploration scenarios.
First Space Flights
Almost all space technologies find their roots in military applications; similarly, the technology that led to the advent of space travel was developed by German scientists during World War II. They tested the V-2 rocket, which became the first manufactured object in space, on 3 October 1942 with the launch of the A-4.
Once the means to travel to space were on hand, it began to develop further to realize space travel. In the Cold War era, the Soviets pioneered the technology of first sending man-made objects to space. The first satellite, Sputnik-1, was in space(1957); the Soviets set their eyes on sending the first human into space. They sent the first dog, Laika, into space(1959), analyzed the data and prepared for the next step, and successfully sent the first human into space. The first successful human spaceflight was Vostok 1 (“East 1”), carrying 27-year-old Russian cosmonaut Yuri Gagarin on 12 April 1961. The spacecraft completed one orbit around the globe, lasting about 1 hour and 48 minutes.
A replica of Sputnik 1 is stored in the National Air and Space Museum.
The U.S. first launched a person into space within a month of Vostok 1 with Alan Shepard’s suborbital flight in Mercury-Redstone 3. Orbital flight was achieved by the United States when John Glenn’s Mercury-Atlas 6 orbited the Earth on 20 February 1962.
Along with men, women also began to take part in space travel. Valentina Tereshkova, the first woman in space, orbited the Earth 48 times aboard Vostok 6 on 16 June 1963. US Astronaut Sally Ride became the first American woman to visit space in June 1983 when she traveled to space aboard the Space Shuttle Challenger.
China first launched a person into space 42 years after the launch of Vostok 1, on 15 October 2003, with the flight of Yang Liwei aboard the Shenzhou 5 (Spaceboat 5) spacecraft.
Landing on the Moon
The fascinating heavenly body in our sky is the Moon. So it was only logical that after the success of reaching Earth’s orbit, we wanted to visit the Moon! During the Cold War era, when the Soviets beat the US to space, the next race was to put the first man on the Moon! This time, the Americans were successful in achieving this feat. On July 20, 1969, the Apollo mission astronaut Neil Armstrong took “one giant leap for mankind” as he stepped onto the Moon. Six Apollo missions were sent to explore the Moon between 1969 and 1972.
The Apollo 11 Command and Service Modules (CSM) are photographed from the Lunar Module (LM) in lunar orbit during the Apollo 11 lunar landing mission. Credit: NASA
Space Transportation System
After the success of the Apollo missions and the end of the Cold War era, the enthusiasm for space travel didn’t completely vanish, but did somewhat fade out. The US continued to explore advanced technologies for human space travel. One of the major ones that was realized was the Space Shuttle. In April 1981, the launch of the space shuttle Columbia ushered in a period of reliance on the reusable shuttle for most civilian and military space missions.
The Space Shuttle played a great part in the launch of the first space telescope, the Hubble telescope. The Hubble opened up new horizons of the cosmos to humanity. The discoveries of new galaxies, exoplanets, and stars fueled the curiosity of scientists to explore the Universe further! Furthermore, Hubble established the importance of a space telescope far above the atmosphere of Earth, in space itself, to enable us to look into space and study our Universe.
The new JWST (James Webb Space Telescope) was launched on 25 December 2021 into Earth’s orbit. It is the largest optical telescope in space and conducts infrared astronomy. This feature allows it to view objects too old, distant, or faint for the Hubble Space Telescope. This enables investigations across many fields of astronomy and cosmology, such as the observation of the first stars, the formation of the first galaxies, and detailed atmospheric characterization of potentially habitable exoplanets.
Twenty-four successful shuttle launches fulfilled many scientific and military requirements. Until Jan. 28, 1986, when just 73 seconds after liftoff, the space shuttle Challenger exploded. The crew of seven was killed, including Christa McAuliffe, a teacher from New Hampshire who would have been the first civilian in space.
This partly led to the gradual retirement of the space shuttle from the US space program.
Since the space shuttle, advanced space transportation systems have developed, namely the Russian Soyuz, being one of the most reliable vehicles transporting cargo and astronauts to and from the ISS. Many US private space companies started to test their vehicles to decrease reliance on the Soyuz! SpaceX’s Dragon is the most flown space transportation system after the Soyuz to the ISS.
Columbia aboard the STS-1 on its maiden flight on 12 April 1981. Credit: NASA
Space Stations
Space stations marked the next phase of space exploration. The first space station in Earth orbit was the Soviet Salyut 1 station, launched in 1971. This was followed by NASA’s Skylab space station, the first orbital laboratory in which astronauts and scientists studied Earth and the effects of spaceflight on the human body.
From November 2, 2000, when its first crew took up residence, to its completion in 2011, the International Space Station (ISS) served as a base for humans living and working in space permanently. It will continue to be used in this way until at least 2024.
The station has been continuously occupied since the arrival of Expedition 1 in November 2000. The station is serviced by various visiting spacecraft: the Russian Soyuz and Progress; the American Dragon and Cygnus; the Japanese H-II Transfer Vehicle; and formerly the Space Shuttle and the European Automated Transfer Vehicle. It has been visited by astronauts, cosmonauts, and space tourists from 17 nations.
Private Space Sector
The last decade has witnessed a series of rises in private space companies. These companies have opened doors of vast opportunities for space exploration that have enabled humans to fast-track the development of space technologies. These companies not only provide solutions to the national space companies with their expertise and technologies, but they have also developed their own ventures targeting various space industry sectors, including space tourism.
Richard Branson’s Virgin Galactic was the first private space company to aim to realize the space tourism sector. After multiple test flights of their space vehicle, Virgin Galactic’s VSS Unity entered outer space in December 2018 as part of its testing process, bringing the possibility of regular commercial spaceflights. In 2019, Beth Moses, Virgin Galactic’s Chief Astronaut Officer, became the first woman to fly to space on a commercial vehicle.
SpaceX is also one of the leading private companies pioneering modern-day space travel. From sending automated vehicles since 2012 with cargo to the ISS, the first crewed flight launched on May 30, 2020, and carried astronauts Doug Hurley and Robert Behnken to the ISS. Since then, there have been six crewed space flights to the ISS.
SpaceX Crew-7 is planned to be the seventh crewed operational NASA Commercial Crew flight of a Crew Dragon spacecraft and the thirteenth overall crewed orbital flight. The mission is planned for launch in August 2023
Inspiration4 was a 2021 human spaceflight mission operated by SpaceX on behalf of Shift4 Payments CEO Jared Isaacman, a privately chartered spaceflight by Jared! The mission launched the Crew Dragon Resilience on 16 September 2021. It became the first crewed orbital mission with no professional astronauts on board!
Elon Musk’s plans for Mars are very elaborate, and he has the vision to make a Martian colony. He has fast-tracked many technologies necessary to take humans to Mars, and his company is truly revolutionizing the space sector.
Jeff Bezos’ Blue Origin is also among the private space companies taking leap steps in Space tourism. After 15 flights of its space vehicle “Shepard,” Blue Origin sent the crewed mission with four passengers aboard the NS-16 flight on 20 July 2021. Jeff Bezos, Mark Bezos, Wally Funk und Oliver Daemen. At 82 years old, Funk was the oldest person; at 18, Daemen was the youngest to travel into space. To date, Blue Origin has flown six commercial crewed flights.
Presently, the high costs of space tourism and its accessibility to common people remain the biggest challenges for private companies. This can change based on the increasing number of private space companies entering the space tourism sector.
Mars- The Next Frontier
We have sent many space missions consisting of satellites to Saturn, Jupiter, and Pluto, along with sample return missions to Asteroids as well (Hayabusa and OSIRIS-REx). We even sent two probes, Voyager 1 and Voyager 2, into deep space. In August 2012, Voyager 1 became the first human-built spacecraft to enter interstellar space! All in the pursuit of understanding the aspects of these heavenly bodies and space as well.
However, the most visited heavenly body other than the Moon is Mars, the red planet. It has been a part of our mythological stories and legends for a long time! It is one of the most sought-after celestial objects in the sky. Its close position with Earth in the solar system got it the title “Earth’s sister planet” and has intrigued scientists with its interesting atmospheric and geological factors. Due to these factors, once humans visited the Moon, the next logical interest was the exploration of Mars.
The first mission to explore Mars was the Mars Pathfinder. It was launched on December 4, 1996, and landed on Mars Ares Vallis on July 4, 1997. It was designed as a technology demonstration of a new way to deliver an instrumented lander and the first-ever robotic rover to the surface of the red planet.
As of December 2022, there are three operational rovers on the surface of Mars: the Curiosity and Perseverance rovers, both operated by the American space agency NASA, and the Zhurong rover, part of the Tianwen-1 mission by the China National Space Administration (CNSA). There was data about the geology and atmosphere of Mars. NASA is even planning to bring back a soil sample of Mars that the Perseverance rover has collected.
The upcoming missions to Mars are the ESA’s ExoMars and India’s Mars Orbiter Mission 2.
All these missions will help us to understand Mars from an aspect that one day, we will send the first human-crewed mission to the red planet!
The Artemis Program & Lunar Gateway
The Moon was the place to visit in the Cold War era that ushered in the space race. This decade has seen the start of a new space race. The Moon has become the destination for many space missions due to a couple of main reasons. The Moon has an abundance of REMs (Rare Earth Minerals) and other precious minerals. This caught the interest of many Government and Private space companies to pursue the prospect of mining the Moon. The other reason is deep space exploration. As Mars missions begin to take shape, the Moon can become a base to send future missions to Mars and into deep space. With the absence of an atmosphere & gravity similar to Earth, the launch costs can be greatly reduced on the Moon.
The Artemis program is NASA’s series of missions to enable humanity’s return to the Moon. NASA will collaborate with US commercial and international partners to establish the first long-term human-robotic presence on and around the Moon. The Gateway, a vital component of NASA’s Artemis program, will serve as a multi-purpose outpost orbiting the Moon that provides essential support for a long-term human return to the lunar surface and a staging point for deep space exploration.
We covered the aspects of Artemis and the Lunar Gateway in detail in our article: Here.
After looking back at the history of Space exploration, it can be said with certainty that we have come a long way since we started to get out of Earth’s orbit. We have taken the next steps to becoming a space-faring species, and it’s about time to become a multi-planetary species. The future of space exploration is bright, and we live in interesting times! It might take a decade to advance our present technology into more reliable systems that take us to Mars (and even beyond) to visit it, settle there, and develop a Martian society!
Let’s hope we take the next giant leap for mankind as a unified human race with equal opportunities for all nations to contribute and develop together in space exploration.
Curiosity of man knows no bounds. People are always intrigued by the grandeur of space, but not many people can understand all the complex physical processes. Astrophysics is a branch of science that deals with the properties of heavenly bodies and the physical processes that govern their dynamics. In order to explain theories and scientific laws to the general public, science authors usually use simple language. Sci-fi writers also contribute to this. They often use astrophysical theories and laws in their writings.
The sci-fi genre has become popular in the past decades. 11 out of 20 top-grossing films made in 2010 were of the same genre. Similarly, in 2020, 29 films were produced in the same genre, making up 20.33% of the market share. Senior vice president Bruce Nichols of Houghton Mifflin Harcourt publishers said in his podcast: “the entire genre has gone mainstream and some absolutely terrific writers are contributing to it, more than ever before.” Similarly, hundreds of authors have also contributed to the sci-fi genre.
Here are the top 6 books related to space, astronomy, and astrophysics, both sci-fi and non-fiction, which break down very complicated astrophysical phenomena into an easily understandable language that everyone should read.
Cosmos
Cosmos
Cosmos was written in 1980 by Carl Sagan, a NASA astronomer. He was also the one to design the first mission to Mars. I place this book at the top of the list for several reasons; it has Tons of information is simple to understand and tries to answer a few of the biggest questions in the history of scientific discovery. This book has given me the ability to think differently. Here are a few takeaways from the book:
We must never stop learning, questioning and exploring. A whole universe is there to explore. The more one explores, the more one knows about the general understanding of nature at work. Better understanding will lead to better ideas and theories of nature.
We must not assume our place as a special one in the universe. We are sitting on a planet revolving around an average-sized star, existing in an average-sized galaxy somewhere in the universe.
Aliens may be out there but they may not look like green people with antennas on their heads or laser blasters. There may exist microbial life out there somewhere.
One of my favourite quotes from the book is:
“The nitrogen in our DNA, the calcium in our teeth, the iron in ourblood, the carbon in our apple pies were made in the interiorsof collapsing stars. We are made of starstuff.”
Recommended 10/10!
Astrophysics for people in a hurry
Astrophysics for people in a hurry
The Cosmos and Astrophysics for people in a hurry are targeted to audiences with mere astrophysical understanding. Astrophysics for people in a hurry is written by Neil Degrasse Tyson, a planetary astrophysicist and director of Hyden planetarium and a host to a famous show at National Geographic, “The Cosmos”.
Nature of space and time, laws of physics, contents of the universe, the space in between galaxies, Earth, planets and planets around other stars, the author explains very complex processes and phenomena in very simple language that even someone with absolutely no background in astronomy can easily understand. Highly recommended to people in a hurry and need a quick overview of the Cosmos.
Score: 8/10.
Theory of everything.
Theory of everything
Stephan Hawking, one of the most brilliant minds of the 21st century, was a mathematician and a theoretical physicist who contributed to understanding gravity, black holes, general relativity and properties of the universe, etc.
This book is a series of his seven lectures in which he discussed the mysterious black holes, the expanding universe, the origin of the universe and the big bang. He started with the idea of the universe as described by the famous philosopher Aristotle and then the work of Edwin Hubble, who discovered the universe’s expansion. He then discusses the theories on the universe’s origin and the nature of the universe’s most mysterious objects, the black holes.
Hawking further described the formulation of a single detailed equation that defines every physical aspect of the Universe. The author mentioned that this would not be an easy task to perform. At first, partial theories have to be constructed. These theories will then be combined into what he calls “The theory of everything (TOE)’’. However, this merger is yet to happen. TOE is based on two theoretical frameworks: general relativity (GR) and quantum mechanics.
The former deals with understanding gravity, large-scale structures such as galaxies, galaxy clusters, and regions with high mass content in the universe. Whereas the latter deals with the smallest of scales and objects i.e. atoms and sub-atomic particles. Quantum mechanics and GR have been successfully proven in their respective regimes; however, scientists have yet failed to combine them. Scientists are still trying to find ways to overcome this issue by looking into the underlying theoretical network of quantum mechanics and its components.
The book presents the most complex physical theories and processes in such a simple way that it is easily understandable by a layperson.
Score: 7/10.
Three body problem
Three body problem
My personal favourite Sci-Fi novel, written by Chinese author Cixin Liu, this book made it to the top sellers in the sci-fi genre and received Hugo and Nebula Awards. This is the first of the trilogy.
The plot revolves around a Chinese astrophysicist whose father, also an astrophysicist, was killed during the Chinese revolution. She established contact with an extraterrestrial life form, who were dealing with their fate as their solar system consisted of 3 suns. Since the three-body problem is chaotic in nature, so are the lives of the alien civilization. Upon receiving the message, the technologically advanced aliens left their system to invade the Earth and save their species, which exists in a stable solar system.
The book is packed with relatively complex futuristic concepts and requires some good grip on the basics of physics. A point lost for the cold writing style and complex scientific concepts.
Overall score is 7/10.
Hitchhiker’s guide to the galaxy
Hitchhiker’s guide to the galaxy
Made it to the BBC’s top 100 books a person should read before dying, this is a sci-fi comedy written by Douglas Adams. The story revolves around “Arthur Dent” whose house was about to be demolished by the road builders. His alien friend, whom he never knew about, tells him that the Earth is about to be destroyed by aliens to establish a Hyperspatial express route. Arthur was saved by his alien friend moments before the Earth was destroyed.
Don’t panic! A phrase that was written on the cover of Hitchhiker’s Guide to the Galaxy because this keeps intergalactic travellers from panicking. In 2018, SpaceX launched a Tesla Roadster into space with the exact phrase being displayed on its centre screen. Remember it was written in 1979, but if you are a sci-fi enthusiast – packed with comedy – this book will catch your attention.
Score: 7.5/10.
Divided Species
Divided Species
This one receives my special praise as this is the only space-related sci-fi book set in Karachi, Pakistan. My home city! The book covers a story of a young boy from Karachi who ends up meeting extraterrestrials. The outer space beings were on a mission to search for essential mineral resources hidden in the centre of Karachi.
The story takes place in the city’s famous regions, immersing a reader like me in the book. The book packs suspense, comedy, science fiction and thrill nicely. The best part of the book is that it covers the life of an ordinary person from Karachi, to which I can relate a lot. The book is available in famous bookstores in Pakistan. You can also find it online here link.
I would totally recommend this book with a score of 8/10.
The list, however, doesn’t stop here. These are merely a few books I would recommend to people to read. Especially to those who are looking to read about the cosmos. Some countless authors and books have contributed to this field. Reading about sci-fi allows us to broaden our thinking capacity and provides us with a way to escape from reality.
Moreover, reading non-fiction will increase our knowledge and understanding of the cosmos and the processes and dynamics of space itself. A mix of both fiction and non-fiction will help you understand a lot about the cosmos.
The world is undergoing transformation, and the number of industries is rising exponentially; why and how is this occurring? How have things evolved between the 19th century and the present day? How is everything getting less difficult as time goes on? Let’s start a tour to explore the facts!
First Industrial Revolution
The First Industrial Revolution was a period of economic and social change that started in the late 18th century and prevailed until the mid-19th century. It was characterized by a shift from manual labor to machine-based manufacturing and significant advancements in transportation and communication. This period of change profoundly impacted the world, shaping the modern economy and laying the foundation for future industrial revolutions.
The First Industrial Revolution in Great Britain quickly spread to other parts of Europe and North America. It was driven by several factors, including technological advancements, population growth, and increased trade. One of the key technological advancements of the time was the invention of the steam engine by James Watt in 1775.
The Industrial Revolution was a period of rapid industrialization.
Time period (1760s-1840s)
The Industrial Revolution was a period of rapid industrialization. The period from the 1760s to 1840s is considered the height of this revolution, during which the world saw significant manufacturing, transportation, and communication advancements.
The most notable of these was the steam engine, invented by James Watt in the 1770s. This invention revolutionized how power was generated, making it possible for machines to operate in factories, mines, and mills. The spinning jenny and the power loom, invented in the 1760s and 1780s, respectively, also increased the efficiency of textile production.
Another significant development was the growth of transportation and communication. The invention of the steamboat by Robert Fulton in 1807 and the steam locomotive by George Stephenson in 1814 significantly improved the speed and efficiency of transportation.
The building of canals, such as the Erie Canal in the United States and the Bridgewater Canal in England, also facilitated the transportation of goods. The invention of the telegraph by Samuel Morse in 1844 revolutionized communication, making it possible to transmit messages over long distances quickly and efficiently.
Impacts on society and livelihhoods
The first industrial revolution also significantly impacted society and the economy. The rise of industrialization led to the growth of urbanization as people moved from rural areas to cities in search of work. The increasing demand for labor led to the growth of the working class, and the rise of the factory system led to the decline of the traditional cottage industry. This led to the growth of international trade and the rise of capitalist economies.
However, the first industrial revolution also had adverse effects, particularly on the working class. The factory system resulted in poor working conditions, long hours, and low wages. The rise of industrialization also led to the displacement of many skilled craftsmen and the growth of poverty and unemployment. One of the key and most devastating adverse effects of this period is pollution and environmental degradation.
The advancements and innovations of this period had far-reaching effects that continue reshaping the world today.
Significance of the First Industrial Revolution
The first industrial revolution marked a central turning point in how goods were produced and society and economy were organized. The advancements and innovations of this period had far-reaching effects that continue reshaping the world today. Some of the most significant impacts of the first industrial revolution include:
Technological advancements
This revolution led to the development of new machines and technologies that significantly increased manufacturing efficiency. The steam engine, spinning jenny, and power loom are some of the most notable inventions of this era that revolutionized the way power was generated, and goods were produced. These advancements laid the foundation for the mechanization of industry, which continues to shape the way goods are produced today.
Economic growth
This period also led to the growth of international trade and the rise of capitalist economies. The increasing demand for goods led to the growth of industry and the creation of new markets and opportunities for trade. The growth of industry also led to the growth of the working class and the rise of the factory system. The first industrial revolution also marked the beginning of the shift from an agrarian-based economy to an industrial one.
Urbanization
The first industrial revolution resulted in a sharp rate of urbanization as people moved from rural areas to cities in search of work. Cities overgrew due to industrialization and the growth of the working class. This led to the development of new infrastructure, such as roads, transportation systems, and housing.
Social changes
The first industrial revolution also led to significant social changes. The rise of the working class led to the labor movement’s growth, and the factory system led to the decline of the traditional cottage industry. The first industrial revolution also led to the growth of poverty and unemployment, particularly among the skilled craftsmen who were displaced by the new machines.
Environmental degradation
The first industrial revolution also led to significant environmental degradation. The growth of industry and the use of new technologies led to air and water pollution and the degradation of natural resources. The environmental impacts of the first industrial revolution continue to be felt today and have led to the development of new technologies and policies to reduce pollution and protect the environment.
In conclusion, it was a significant event in world history that had far-reaching effects on society, the economy, and the environment. The advancements and innovations of the first industrial revolution continue to shape the world today and have led to the development of new technologies and policies aimed at reducing pollution and protecting the environment.
Causes of the First Industrial Revolution
Some of the critical causes of the first industrial revolution include:
Scientific and technological advancements
The first industrial revolution was driven by scientific and technological advancements that made it possible to create new machines and improve existing ones. Advances in metallurgy, chemistry, and engineering made it possible to create new machines, such as the steam engine, spinning jenny, and power loom, that significantly increased manufacturing efficiency.
Natural resources
The first industrial revolution was also driven by the availability of natural resources, such as coal and iron. The growth of the coal mining and iron industry was essential for the mechanization of industry, as these resources were used to power the new machines and to create new products.
Capital and investment
The first industrial revolution was also driven by the availability of capital and investment. The growth of trade and commerce created new opportunities for investment and the development of new industries. Banks and other financial institutions also played a crucial role in providing the capital necessary for the industry’s growth.
Economic and political conditions
The growth of the population and the rise of the middle class created new markets and opportunities for trade. The growth of industry also led to uplift working class, and the rise of the factory system declined traditional cottage industry.
Entrepreneurship and innovation
This period was also driven by the entrepreneurship and innovation of individuals and companies. Inventors and entrepreneurs such as James Watt, Robert Fulton, and George Stephenson played a crucial role in creating new machines and technologies that revolutionized industry and transportation.
In conclusion, the first industrial revolution was caused by many factors, including scientific and technological advancements, natural resources, capital and investment, economic and political conditions, and entrepreneurship and innovation. These factors came together to create new machines and technologies that significantly increased manufacturing efficiency and facilitated transportation and communication growth, leading to a significant change in how goods were produced and society and the economy were organized.
Impact of the First Industrial Revolution
Advances in technology and machinery
The first industrial revolution, which took place from the mid-18th century to the mid-19th century, was closely related to advances in technology and machinery. The development of new machines and technologies played a crucial role in the mechanization of industry, significantly increasing manufacturing efficiency and leading to significant changes in the way goods were produced. Some of the key ways in which the first industrial revolution was related to advances in technology and machinery include:
Steam engine: The invention of the steam engine by James Watt in the 1770s was one of the most significant technological advancements of the first industrial revolution. The steam engine made it possible to generate power and operate machines in factories, mines, and mills, significantly increasing manufacturing efficiency.
Spinning jenny and power loom: The spinning jenny, invented by James Hargreaves in 1764, and the power loom, invented by Edmund Cartwright in 1784, revolutionized the textile industry by significantly increasing the efficiency of textile production. These machines made it possible to produce large quantities of textiles quickly and at a lower cost.
Transportation: The first industrial revolution also saw significant advancements in transportation with the invention of the steamboat by Robert Fulton in 1807 and the steam locomotive by George Stephenson in 1814. These machines significantly improved the speed and efficiency of transportation, making it possible to move goods and people over long distances quickly and efficiently.
Communication: The invention of the telegraph by Samuel Morse in 1844 revolutionized communication by making it possible to transmit messages over long distances quickly and efficiently. This technology significantly improved the speed and efficiency of communication and facilitated the growth of international trade and commerce.
Manufacturing process: The first industrial revolution also saw significant improvements in the manufacturing process. The use of machines and new technologies made it possible to produce goods in large quantities and at a lower cost. This significantly increased manufacturing efficiency and led to a significant reduction in the cost of goods.
In conclusion, the first industrial revolution was closely related to advances in technology and machinery. The development of new machines and technologies, such as the steam engine, spinning jenny, and power loom, greatly increased manufacturing efficiency and significantly changed how goods were produced. The advancements in transportation and communication also greatly facilitated the growth of international trade and commerce. The first industrial revolution laid the foundation for the mechanization of industry, which continues to shape the world today.
Social and political factors
The changes brought about by the first industrial revolution significantly impacted society and politics, leading to the growth of new social groups and political movements. Some of the key ways in which the first industrial revolution was related to social and political factors include:
Urbanization: The first industrial revolution led to the growth of urbanization as people moved from rural areas to cities in search of work. Cities overgrew due to industrialization, leading to the development of new infrastructure, such as roads, transportation systems, and housing. This also led to the growth of the working class and the rise of new social groups.
Working class: The growth of industry and the factory system led to the growth of the working class. The working class, made up of factory workers and other industrial laborers, was primarily made up of unskilled and poorly paid workers who worked long hours in poor conditions. The rise of the working class led to the growth of the labor movement and the rise of new political movements.
Labor movement: The growth of the working class and the poor working conditions in the factories led to the growth of the labor movement. The labor movement, made up of trade unions and other worker organizations, sought to improve the working conditions and wages of the working class. This led to the rise of new political movements and the development of new social policies aimed at improving the lives of the working class.
Political changes: The growth of industry and the rise of the working class led to the development of new political ideologies, such as socialism and communism, which sought to improve the lives of the working class. This also led to the rise of new political parties and the development of new social policies aimed at improving the lives of the working class.
Social changes: The rise of the working class and the decline of the traditional cottage industry led to the growth of poverty and unemployment, particularly among the skilled craftsmen who were displaced by the new machines. The growth of industry also led to the growth of the middle class, which played an essential role in shaping the political and social landscape of the time.
Conclusion
The legacy of the first industrial revolution continues to shape the world today, and its impacts are still being felt in the present. The first industrial revolution was driven by a combination of factors such as scientific and technological advancements, natural resources, capital and investment, economic and political conditions, and entrepreneurship and innovation. It represents a turning point in world history, and it’s essential to understand its impacts to understand how the world developed into what it is today.
The cosmos is divided into two scales: The very large (Classical) and the very small (Quantum). Attempts to describe these two worlds have been made relentlessly over the last few centuries. Astronomers and physicists alike have presented their understanding of the universe. Newton explained the laws of motion and gravity, and the laws of Thermodynamics explained the energy and heat transfer in a system.
Einstein’s theories of Special and General relativity explained space-time and gravity; Quantum mechanics and the Standard Model of physics explained the fundamental particles and forces of nature; string theory attempted to present a unified theory, and many more.
In a world where time warps and particles dance to the tune of probability lies the intersection of two of the greatest theories in physics: The Theory of Relativity and Quantum Mechanics. Relativity explains the behavior of objects at a classical level, covering gargantuan objects like Quasars to everyday objects like a car, the motion of the planets, the collision of galaxies, and the workings of the ever-expanding Universe.
Quantum mechanics explains the workings of the Quantum world, from the entanglement of two quantum objects to the fundamental forces of nature and fundamental particles. Without these two theories, our understanding of the Universe would be little to none. Even almost a century later, experiments still prove many different aspects of these two fundamental theories.
As ground-breaking as these theories might be, physicists have found them to be incompatible with each other. And this conflict has been brewing for almost over a century.
Many physicists aspire to merge quantum mechanics and general relativity to comprehend the laws of quantum gravity. Solving the paradox would significantly deepen our understanding of the natural world. From the symphony of galaxies to the mechanics of fundamental particles, unifying these two theories will answer all the questions and solve the mysteries of the Universe.
Everything should be made as simple as possible, but not simpler. ~Albert Einstein
Relativity (Theory of the Big stuff)
Our story began in 1905 when a patent clerk presented a radical view of the Universe.
The special theory of relativity
The Special theory of relativity attempts to explain how speed affects space, time, and mass. It also says that mass is interchangeable with energy as defined by the infamous equation
𝐸 =𝑚𝑐2.
According to this equation, as an object approaches light speed, its mass becomes infinite, and the energy needed to move it increases, making it impossible for matter to exceed light speed.
An important aspect of Special relativity is Time Dilation. It can describe as “When an object is moving very fast, time slows down than when it is at rest.” The effect is not as apparent when the speeds are not extremely large. However, for a traveler moving at the speed of light, time should stop according to relativity.
Due to limitations, humans can’t travel near the speed of light, so this phenomenon is yet to be tested. However, this was experienced at a much smaller level when astronaut Scott Kelly spent nearly a year on the International Space Station while his twin brother, Mark Kelly, was on Earth. Mark was said to have aged a little faster than his brother due to time dilation; however, the difference was negligible.
Einstein proposed that gravity is, in fact, the curvature of the space-time fabric.
The general theory of relativity
In 1915, Einstein gave his General Theory of Relativity, expanding on topics like gravity and space-time. Einstein proposed that the Universe is made up of 4 dimensions and space and time are interwoven to form a space-time fabric continuum. According to him, time is relative. A person experiencing the same phenomenon from the North Pole will experience it at a different time than someone experiencing it around the Equator.
Previously, gravity was thought to be a force (due to Newton’s theory), but Einstein proposed that gravity is, in fact, the curvature of the space-time fabric. Let’s take this example: Imagine a trampoline with a taut fabric. When you place a heavy object on it, there is a depression created in the fabric. If you place a ball on this trampoline, the ball will automatically roll toward the depression.
Now let’s apply this example to a much larger scale. Planets have a mass, which creates a bump in the fabric of space-time, and so does the moon. As the moon revolves around the Earth, it gravitates towards the depression created by Earth in the fabric of space-time. This attraction is gravity. According to Einstein, gravity is not a force. Any object with mass will disturb the space-time field, causing other objects to gravitate toward it.
Another important aspect is Gravitational lensing. According to it, light bends around heavy objects. Astronomers observe this phenomenon as light bends around galaxies, black holes, and other heavy objects.
Einstein’s theories became one of the most successful theories of all time. The General Theory of Relativity is renowned as one of the greatest scientific achievements of the 20th century. Its ingenuity, depth, and accuracy in predictions surpass all others. Einstein replaced Newton’s law of gravity, which stated gravity as “action-at-a-distance,” with a new idea of gravity as a bend in space-time. This laid the basis for contemporary understandings of the universe, including black holes and the Big Bang theory of the universe’s development.
Quantum Mechanics (Theory of the Small stuff)
Subsequently, in the 20th century, physicists like Planck, Bohr, and Einstein laid the groundwork for Quantum mechanics. It attempts to explain the nature and workings of the quantum world. The quantum theory’s biggest achievement is the Standard model.
The Standard Model gives us an understanding of the building blocks of nature. The particles are broken down into two: Fermions and Bosons. Fermions are matter particles and encompass all the matter present in this Universe. Fermions are broken down into Quarks and Leptons. Whereas the Bosons are the force carrier particles. They are responsible for the four fundamental forces: Strong force, Weak force, Electromagnetic force, and Gravitational force.
The theory also provides a mathematical framework to predict the probabilities of various outcomes in quantum systems, such as particles’ position, momentum, and energy. The theory is known for its counterintuitive predictions, such as the superposition of states and entanglement. It is essential for understanding many phenomena in physics, chemistry, and technology.
The theory of quantum mechanics is a defining achievement in modern science and has proven to be one of the most successful theories in history. All experiments have agreed with its predictions, and despite numerous attempts, its validity has never been challenged.
The current theory of quantum mechanics, known as the Standard Model of particle physics, has successfully explained the universe through four fundamental forces and demonstrated that three of these forces are different expressions of the same force. It has accurately predicted the existence of 17 particles, which were later discovered through particle accelerators.
Despite its triumphs, quantum mechanics also presents physicists with several counterintuitive truths, such as “spooky action at a distance.” This occurs when two particles become so interconnected that a measurement of one particle instantly affects the other particle’s state, regardless of their distance.
Clash of Titans
The Theory of Relativity deals with the laws of gravity and large-scale structures of the universe. At the same time, Quantum Mechanics explains the behavior of matter and energy at the atomic and subatomic levels. However, they are incompatible with each other in their predictions for the behavior of particles at these very small scales.
Nature
Relativity considers objects as indivisible masses in space-time, while Quantum Mechanics views matter as probability waves rather than localized particles. Relativity predicts definite outcomes, but Quantum Mechanics provides only probabilities. When applying Relativity to the scale described by Quantum Mechanics, the results are not meaningful.
Space time continuum
General Relativity describes space as continuous, while Quantum Mechanics views it as quantized or granular. Einstein’s 1915 theory of General Relativity explains gravity as a continuous force that shapes the geometry of spacetime. In contrast, quantum mechanics regards forces as discontinuous and made up of ‘quanta’. As a result, there is no equivalent concept of a gravitational field in conventional quantum mechanics, unlike the other three fundamental forces.
The division between General Relativity and Quantum Mechanics can be considered “smooth” versus “chunky”. General Relativity is continuous and deterministic, meaning every cause has a specific local effect. On the other hand, quantum mechanics involves probabilistic, discontinuous events that occur in “quantum leaps” through the interaction of subatomic particles. Quantum mechanics permits connections not allowed by classical physics.
The black hole information paradox
General Relativity and Quantum Mechanics have conflicting views on black holes. General Relativity says that objects entering a black hole will be destroyed, erasing all information except spin, charge, and mass. On the other hand, Quantum Mechanics states that information cannot be destroyed. This creates the black hole information paradox. According to Hawking, the information about objects entering a black hole is lost.
It cannot be predicted through Hawking radiation because the interior of the black hole is cut off from the external universe by the event horizon. The loss of information violates energy conservation and quantum mechanics, which requires micro-reversibility. The violation of micro-reversibility also destroys energy conservation. Thus, if the information is lost, quantum mechanics needs to be modified, and if it’s not, general relativity must be adjusted to allow the escape of information through Hawking radiation.
Solution
The Theory of Relativity and Quantum Mechanics are two pillars of modern physics, but they clash in their description of reality at the smallest scales. This is why physicists have been trying to develop a unified theory that can reconcile these two theories, known as quantum gravity, for many years.
Quantum Gravity is a theoretical framework that aims to reconcile the principles of quantum mechanics and general relativity to create a comprehensive description of the behavior of matter, energy, and gravity at all scales, from the smallest subatomic particles to the largest structures in the universe.
It is considered one of the most challenging problems in theoretical physics because the principles of general relativity and quantum mechanics are so fundamentally different. Attempts to merge these two theories have been ongoing for many years, and various theories have been proposed, including string theory, loop quantum gravity, and non-commutative geometry. However, a complete and universally accepted theory of quantum gravity has yet to be established.
The development of a successful theory of quantum gravity has necessary implications for our understanding of the universe. It could answer questions such as what happened during the Big Bang, what happened in the first few moments of the universe, what happens inside black holes, and whether the universe has a quantum origin.
In the 20th century, several key discoveries about the universe were made, including Stephen Hawking’s work on black hole decay through radiation and Cosmic Microwave Background radiation. These findings showed that matter exhibits quantum behavior but moves following classical spacetime, leading to the development of semi-classical gravity, a bridge between quantum mechanics and general relativity.
Black holes located in the universe’s outer reaches could hold the key to unifying these theories, a belief held by Hawking himself in his “theory of everything.” The intense gravitational pull of black holes, which can even trap light, could reveal how macroscopic and nanoscopic particles interact.
Hawking’s work on string theory and Hawking radiation, a type of radiation emitted by black holes, brought him close to bridging the gap between quantum mechanics and general relativity. Despite being too small to observe, Hawking radiation provides insight into what a unified theory may look like.
Potential solutions to quantum gravity and various mathematical dualities have been debated for years. It remains uncertain if our fundamental understanding of physics needs to be revised. A unified theory of quantum astronomy could revolutionize our understanding of the universe and lead to a new era of theoretical physics and cosmology.
Key Takeaway
The quest for uncovering the mysteries of the universe is a journey that may take science many more years to complete. Despite numerous attempts, the intersection between relativity and quantum mechanics remains a mystery. Nevertheless, the journey toward uncovering the truth has begun.
Science isn’t just about finding answers but also about raising new questions. The most compelling theories are the ones that inspire further inquiry, leading to a never-ending cycle of discovery and exploration, much like the infinite nature of space-time.
Environmental science is a discipline that integrates ecology with biology, chemistry, geology, and meteorology with a dash of physics and engineering to study our surroundings and the interaction of humans with these surroundings.
It cannot be called a purely biological field because only its subfield ecology is related to the study of the ecosystem and the delicate balance that is maintained to support this intricate reliance of life forms on each other.
The rest of the subfields, like geology and meteorology, focus on the physical and structural aspects of the earth and its environment, for example, the chemical and physical compositions of matter that makes up the environment and how these molecules interact and impact the surroundings,
Environmental sciences thus integrate chemistry in the sense of studying compositions and interactions, biology in the sense of studying life and its relationship with its environment, and physics because of studying the properties of matter that make up the environment into a new field of earth science.
History
Environmental sciences are not a new field; they go back many centuries. However, discoveries are still at their peak today because of the changing dynamics of the earth’s atmosphere, climate, resources, and wildlife due to human impact on these factors.
Dr. Rex N. Olinaires is considered the father of Environmental sciences. He was a professor at the University of the Philippines and his work was on water sanitation and its impact on the spread of microorganisms. He highlighted the fact that poor sanitation is the root cause of all environmental pollution.
The Industrial Revolution in the 1960s was basically a turning point for scientists studying nature to realize that human activities adversely impacted wildlife and the environment. This led to studying these impacts, the study of the environment and mechanisms to cope with environmental problems.
The realization of replacing traditional plastics with bioplastics is an example of one of the most groundbreaking research in environmental sciences.
Major Discoveries
It is interesting to note that the field of environmental science deals with problems created by Man himself. Human beings exploited the natural resources of this planet to industrialize and manufacture goods for their own benefit. They exploited the resources to the point of damage to the natural ecology and environment of the planet.
The next set of discoveries and research has basically been focused on solving these environmental problems and aiming for enhanced sustainability.
Earlier discoveries were more about using the environment for human industrial purposes, for example, the extraction and purification of natural power resources, processing of these resources to find useful products, and understanding the plants and animals of this planet and how they survive in their habitat.
Their relationship with each other in the community and their habitat in their environment were the main research topics.
The realization that the environment can have a direct impact on humans’ quality of life came a bit late down the road
Earlier environmental science research also focused on applying technology to understand the atmosphere, climate, structure, and composition of the earth and its water bodies and how everything worlds and is interconnected.
The realization that the environment can have a direct impact on humans’ quality of life came a bit late down the road; when resource exploitation crossed limits, the industrial revolution became unaware of its effects, and human health started deteriorating.
Pollution, wildlife extinction, global warming and climate change then became hot topics for environmentalists, and research focused on eliminating these problems for sustainability.
Significant alternatives like renewable energy resources, a ban on hunting, fish farming, and other wildlife exploitation activities, waste management and recycling, microbiology, and biotechnology applications for tackling environmental challenges became the center for research.
The realization of replacing traditional plastics with bioplastics is an example of one of the most groundbreaking research in environmental sciences. Using natural polymers makes bioplastics environment-friendly and does not ‘build up’ in the food chain either. Scientists are further looking for similar innovative ideas.
Every year universities and organizations collaborate to find solutions for environmental sustainability. One such example is the FICS competition by NUST in collaboration with PepsiCo. In this competition, students and their supervisors were required to submit proposals to find innovative and creative solutions to tackle plastic waste in the country in a sustainable way. The winner would receive funding for their project by Pepsi Co.
Let’s take two examples of titles of research articles from Nature Magazine from the year 2023 to get an idea of the kind of research under focus.
An interesting story focuses on the importance of honeybees as pollinators and contributors to the planet’s biodiversity. The effects that pesticides have on their epigenetics are causing their population to decline.
Although this article highlights aspects of molecular biology by showing how chemicals in pesticides alter gene and protein expression, it is a good example of the effect of human activities on wildlife and, therefore, the environment.
According to another report published in Nature, the impacts of human activities and water pollution on the coral reef have been explicitly discussed as how the coral reef has adapted to its new environment. This interesting article focuses on the ability of nature to adapt to change and heal with time if given a chance.
Conclusion
The environment will continue to be a topic of interest to humans because of our dependence on it and its resources. To stay on this earth, we must deal with the environmental challenges we have created. The ultimate goal is sustainability and better quality of life for humans.
With the power to cause havoc and pronounced destruction, the atomic bomb was a contentious invention of mankind. The impact of a mere nuclear reaction took away the lives of many and demolished entire cities (Hiroshima and Nagasaki): the effects of which prevail to date. Possessing a nuclear weapon may signify the power to some; others may beg to differ. Behind closed doors, the study of the radioactivity phenomenon, the behavior of alpha particles, and the properties of materials when irradiated by the “Nuclear Group” formed the basis of the worse that was to come: Atomic Bombs.
“No one who saw it could forget it, a foul and awesome display” – Kenneth Bainbridge
Beginning of an era
A letter of warning from the Nobel Prize laureate Albert Einstein, in October 1939 to Franklin Roosevelt, the US president, hinted at the possibility of Nazi Germans developing a nuclear weapon. The US government launched “The Manhattan Project” on the severity of the issue in August 1942. Major General Leslie Groves led the operation and gathered Ingenious scientists and researchers from across educational institutions and research labs. Private corporations such as DuPont provided all the necessary assistance and components needed to make atom bombs. For safety purposes, the facility was located on the outskirts of the desert in New Mexico.
The intensity and determination to accomplish the project were evident by the fact that, at a point, there were approximately 130,000 Americans across thirty-seven facilities working for the success of the Manhattan project. The first nuclear bomb was tested at a military facility in New Mexico amid the early morning darkness. The impact was significant, and the explosion was bright. Though it might look like an apparent success, using these nuclear bombs was inevitable.
Once it became discernible that Japan would not surrender in the war, Harry S Truman, the president of the United States, ordered the use of nuclear bombs on Japan. Though he was warned by US armed forces that the destruction post-nuclear bomb was inevitable and catastrophic, Truman was determined to ensure Japan’s surrender.
6th August 1945 was a dark day in the history of Japan when an American B-29 bomber, “Enola Gay”, dropped the first atomic bomb on the Japanese city of Hiroshima.
The darkest day
6th August 1945 was a dark day in the history of Japan when an American B-29 bomber, “Enola Gay”, dropped the first atomic bomb on the Japanese city of Hiroshima. The explosion resulted in approximately 140,000 causalities, followed by radiation poisoning that persisted months later. Truman hoped that Japan would surrender after this attack, but Japan did otherwise. The reaction instigated Truman, and he called for another nuclear attack on Nagasaki (Japan), just three days after the first nuclear attack. The second round of bombing resulted in 210,000 people losing their lives with inexorable vandalization.
Wrecked Cities: Hiroshima and Nagasaki
Hiroshima and Nagasaki saw the most devastating aftermath of the nuclear attack, the effects of which still exist. Apart from the pernicious loss of lives, a large population developed medical conditions such as cancer and leukemia post-exposure to radiation. The bombing of Nagasaki caused the surface temperature to rise to 4000 degrees Celsius, followed by a downpouring of radioactive rain. It dismantled 70% of buildings, accompanied by a lack of immediate relief to mitigate the capacity of damage caused.
Several years post the 1945 disaster, the number of patients who developed chronic diseases, blood cancer, respiratory disorders, and DNA mutations increased. Perhaps the children were the greatest group of individuals affected by leukemia. Children became prone to developmental disorders, intellectual disabilities, and stunted growth.
Ramifications of Nuclear Power
When it comes to energy, perhaps one of the most heated debate topics is the provision of nuclear energy and its effects on mankind. Do the perils of Nuclear Energy outweigh its possible benefits? Let’s have a look!
The brighter side
Nuclear power does not produce direct carbon dioxide in terms of energy production. Less carbon dioxide means less contribution to global warming. Moreover, nuclear power plants produce a significant amount of energy at a steady rate which is essential to keep up with the increasing energy demands. Furthermore, the entire setup and development of nuclear power generates jobs and have a higher mean average salary. In addition to this, nuclear power does provide the provision of national security for any country possessing nuclear weapons.
A matter of concern
However, constructing a nuclear power plant requires a lot of energy and manpower. Massive amount of radioactive waste is produced, a side effect of nuclear power plants. This radioactive waste can remain active and release radiation for several years. Workers working in the plant may be exposed to frequent radiation that imparts health problems such as chronic diseases and cancers. The thermal radiation post-nuclear explosion can cause significant skin burns. The shock waves produced as a result of a nuclear explosion can damage the ears and the lungs.
Raidan exposure
Although nuclear power operations are highly organized and tailored for safety protocols, natural disasters (earthquakes), human errors, leakage, and mechanical inconsistencies can cause contamination and release of radioactive matter. For instance, a core meltdown, else known as the “beyond design basis,” causes a reactor to emit radiation (ionizing radiation) into the environment. Workers are at the greatest level of exposure to such radiation and may develop conditions such as acute radiation syndrome (ARS).
Waterbodies at risk!
Environmental impacts of nuclear power are inevitable. Usually, nuclear facilities are located near water bodies (lakes, rivers) as water is needed to cool the nuclear reactors. However, the cooling water, post usage, alters the conditions of the water bodies. Temperature changes in water can affect aquatic life adversely. Water that is too cold or too warm can potentially kill or harm these aquatic beings. It may affect their movement, food availability, feeding patterns, sleep cycle, and the underwater ecosystem.
Underground mining
Moreover, nuclear facilities require uranium for their operation. Uranium is mined, and these mining activities can pollute nearby lakes and underground water, cause loss of habitat, and change soil composition (ph changes). Furthermore, underground mining poses a significant threat to the lives of miners. Vast quantities of radon gas, a radioactive gas, are released during this process which is associated with lung cancer. Dust emitted can result in medical conditions such as pneumoconiosis.
Climate Change
Nuclear plants are highly prone to climatic changes. Alterations in air and water temperature, wind speed, and precipitation rates hamper the efficiency of nuclear facilities and risk their safety. Floods and hurricanes can reduce the water supply to nuclear plants and damage them, causing a decrease in energy production, financial losses, and potential contamination of drinking water supplies.
Explosion Disasters
Post-nuclear explosion, the smoke and dust rise to a higher level of the atmosphere, causing a significant drop in land temperatures by blocking sunlight. Such temperature variations can result in a shorter growing season and potentially decrease overall agricultural production and fish stocks. It is an alarming situation as it can be followed by episodes of famine and food shortages.
As Albert Einstein said:
“The release of atomic energy has not created a new problem. It has merely made more urgent the necessity of solving an existing one”
The classic Golden Age of Islamic biography was an era of incredible scientific, social, cultural, philosophical, and economic buoyancy in the history of Islam, which traditionally dates from the 8th century to the 14th century CE. This Golden Era is thought to have begun during the reign of Abbasid caliph Haroon al-Rashid (786 – 809 CE) when he established the House of Wisdom in Baghdad- the biggest and the most prestigious Educational Capital of the world and the heart of remarkable Muslim scholarship which recruited renowned scholars from all over the globe including Muslims, Christians, and Jews.
They collaborated peacefully there to produce world-class intellectuals and polymaths in all the fields of knowledge-be religious studies, philosophy, biological sciences, chemistry, mathematics, physics, earth sciences, astronomy, industry, technology, law, literature, art, architecture, politics, economy, or sociology. This Islamic Empire of knowledge brought many cultures together under one umbrella beyond their races, colors, demographic distribution, or religion, which is the true essence of Islam.
Scientific Advances in Islamic Golden Age
Biology and Medicine
Bu Ali Sina (Latinized as Avicenna), is known as the father of Medicine. His contributions to biology and medical sciences have set up the profound basis of modern medicine, and his book The Canon of Medicine is still part of the operational curriculum of medical sciences in the west. He also discovered the causes of contagious diseases and introduced the concept of quarantine to limit the spread of contagious diseases; he laid the foundations of sub-fields of medicine such as experimental medicine and evidence-based medicine, trial methodologies like clinical trials, control trials, and efficacy testing.
Bu Ali Sina also introduced clinical pharmacology and separated it from medicine. His other significant contributions include the explanation of microorganisms like bacteria and viruses, research-based studies on the contagiousness of tuberculosis, water and soil-borne diseases, skin diseases (STDs), sexually transmitted diseases, perversions, and the ailments of the nervous system.
Other Muslim physicians of the golden age also have made miraculous contributions in the fields of physiology, ophthalmology, pharmacology, surgery, anatomy, pathology and medicine. With their inventive approaches, they were the pioneers in opening up hospitals, including medical schools and psychiatric clinics, the invention of surgical instruments and procedures, including dissections and postmortem autopsies, and comprehensively elaborated diagrams of human anatomy and physiology.
The notable among the best physicians and researchers of the golden age who led the edge in the field of medicine and biology are Al-Kindi, Al-Razi (Latinized as Rhazes), Abu al-Qasim (Abulcasis), Ibn Zuhr (Avenzoar), Ibn al-Nafis, Ibn al-Lubudi, Ibn Khatima, Ibn al-Khatib, Mansur Ibn Ilyas and Al Zahrawi.
Chemistry
Jabir bin Hayyan (Latinized as Geber) is known as the Father of Chemistry, who pioneered the use of the scientific method in the field of chemical sciences. He also introduced the Lusterware, alembic, retort, still, and chemical processes of filtration, distillation, crystallization, liquefaction, purification, sublimation, oxidization, and evaporation. He also has another feather in his cap of preparing sulphuric acid and nitric acid, the strongest known acids, and laid the foundation of acid-base in chemistry.
Another influential Muslim chemist of this era was Al Razi, whose contributions shook the basis of Aristotle’s and Galen’s chemistry. Invention of kerosene oil and kerosene lamps, soaps, distilled petroleum, and antiseptics experimentally proved the qualities of matter like oiliness, inflammability, sulfurousness, and salinity.
For the first time in the history of chemistry the Muslim alchemists separated the concept of organic and inorganic chemistry, they made major contributions in metallurgy and the use of acids and making salts. A huge number of laboratory apparatus was made during this golden era, and metallurgy was introduced extensively.
Some of the very basic laws of physics have been put forward by Muslim physicists of the Golden Age. Photo MVSLIM
Physics
Some of the very basic laws of physics have been put forward by Muslim physicists of the Golden Age, like the law of inertia, momentum, the law of gravitation, and even the precursors to Newton’s laws of motion were also conceptualized by Muslims.
One of the groundbreaking inventions of the Golden Ages of Islam was the pinhole camera invented by a renowned Muslim optician Ibn Al Haitham, a polymath, in the 11th century who is also considered a pioneer of modern optics, experimental Physics and regarded as The Father of Optics due to his exceptional achievements. Ibn al Haitham also developed the methodology of the scientific method to answer scientific queries systematically.
Many inventions have been produced by Muslim engineers and inventors, like the very first flying machine was constructed by Abbas Ibn Al Firnas.
Renowned Muslim physicists of this era are Ibn al-Haytham, Bu Ali Sina, Hibat Allah Abu al-Barakat al-Baghdadi, Ibn Bajjah (Latinized Avempace), Jafar Muhammad Ibn Musa, Ibn Shakir, and al-Khazini.
Astronomy
The successors and predecessors of the Maragha School of Baghdad were thought to be the pioneers of many astronomical discoveries and inventions, including the construction of the first observatory, the evidence of Earth’s rotation on its axis, the collection of astronomical data and correction of the previous astronomical concepts, resolving considerable problems in the Ptolemaic Model, development of astrolabes, invention of numerous astronomical equipment and laying the foundations of celestial mechanics and astrophysics.
The eminent astronomy scholars of this era are Ibn Al-Shatir, Nasir Al-Din Al-Tusi, Ali Qushji, Al-Birjandi, Ibn Al-Haytham, and Mo’ayyeduddin Urdi.
Geography
The drawings and illustrations of the world map by Muslim cartographers and geographers of the golden age were so mind-blowing and accurate that they are still in use today with nominal amendments.
The famous three-meter world map designed by Al-Idrisi, an Andalusian cartographer, is regarded as the complete and calculated world description. This map was part and parcel of the travelers as it contained quite detailed descriptions of the whole Islamic world as well as Africa, the Far East and the Christian north.
Mathematics
The field of mathematical sciences owes a tremendous debt to the Islamic Golden Era. The historical achievements of Golden age Muslim mathematicians are the developments of algebra and algorithms by Muhammad Ibn Musa al Khwarizmi, spherical trigonometry, the use of decimal point notation in numerals by Sind Ibn Ali, the introduction of crypt-analysis and frequency analysis by Al Kindi.
The introduction of algebraic and integral calculus, proof by mathematical induction, analytical geometry, and formula for infinitesimal by Ibn Al-Haytham, the first confutations of Euclidean geometry and the parallel postulate by Nasir al-Din al-Tusi, algebraic geometry by Omar Khayyam, the concept of non-Euclidean geometry by Sadr al-Din, the development of symbolism in algebra by Abu al-Hassan Ibn Ali al-Qalasadi, and numerous other advances in algebra, arithmetic, calculus, cryptography, geometry, number theory, and trigonometry was the marvelous accomplishments of Golden Age Muslim mathematicians.
Many machines were invented during this era of renovation and many basic automatics were first introduced by the great Muslim inventors.
Technology
Many machines were invented during this era of renovation and many basic automatics were first introduced by the great Muslim inventors. Among these machines, the revolutionary crank-connecting rod system was installed in machines that converted the rotary motion to linear motion, thus raising heavy objects with much ease. This cutting-edge technology, discovered by Al-Jazari in the 12th century CE, expanded globally and became essential to everything big and small, from the bicycle to the internal combustion engine.
Agronomy & Agriculture
Arab Agricultural Revolution is a notable advancement in the field of agricultural sciences during this era. Many novel techniques of plantation and innovative methodologies were invented to yield the increased production of crop plants.
Muslim engineers introduced fossil fuels, hydropower, tidal power, and wind power to run the power mills and factories.
The development of the scientific approach to agriculture was determined by Muslim Agriculturalists and their approach was majorly based on three elements; crop rotation system, systematic irrigation techniques, and introducing the diversity of crops, which were priory cataloged according to the land type, water requirement and possible seasonal effects.
Exotic crop varieties from around the world, such as sorghum from Africa, citrus fruits from China, rice, cotton, and sugar cane from India, were introduced to the Arab soil, which generally had never experienced the growth of such plants. The experimented farming successfully imparted a sudden boost to the economy, urban growth, vegetation cover, and employment opportunities, ultimately raising the quality standards of Arab life.
Industrial Revolution
Muslim engineers introduced fossil fuels, hydropower, tidal power, and wind power to run the power mills and factories. A wide variety of mills was employed by the Muslim industrialists, including steel mills, sawmills, hullers, grist mills, stamp mills, windmills, ship mills, sugar mills, and tidal mills. By the start of the 11th century, the huge variety of mills started operating throughout the Islamic World, from Al- Andalusia, Spain, and North Africa to Central Asia and the Middle East.
Other than these, distillation technologies, the discovery of acids, pharmaceuticals, perfumery, the silk industry, textiles, weaponry, the mining of minerals, the invention of astronomical instruments, and the use of ceramics are amazing additions by Muslims. The invention of crankshafts, water turbines, the installation of gears in mills, and the concept of dams and water reservoirs to store water were also notable inventions among countless others by Muslim Engineers of this era.
These novel mechanized advancements made it possible to carry out many industrial tasks efficiently in less time, reducing manual input, which ultimately pedaled up the revolution in the industry. This whole wave of revolution was transferred very rapidly from the center of the Muslim world to Europe, Asia and Africa.
Conclusion
The struggle for learning and excellence in learning are the fundamentals of Islamic values. Our forefathers were the great harbingers of knowledge and research who led the world in all the fields of knowledge. The sky was the limit for them that’s why they are still shining. They have a profound impact on today’s education and learning. The whole western world has recognized that the scholars of the Islamic golden age were the best successors and predecessors of intellectualism the world has ever witnessed. We must follow in their footsteps to bring back the glory that once belonged to Muslims.
Astronomy, the new and the old perspectives, has always been the source of unbelievable news and unusual mysteries. It leaves its followers in awe and amazement with its each novel discovery. The race to find bewildering enigmas of space capacities is constantly in progress. It won’t be wrong if we document the year 2022, as the year of amazing spatial discoveries.
ENCHANTING SPACE IMAGERY
Telescopes used to visualize the atmosphere beyond the boundaries of Earth; see it thoroughly and depict the undistorted imagery of space. The notable amongst them is Hubble Space Telescope.
JWST (James Webb Space Telescope)
The James Webb Space Telescope is the largest and the most powerful telescope which uses complex mechanics to see the panorama of the universe, unveils the spell bounding cosmic mysteries, and manifests the clarion of space imagery.
The distinctive gold-plated JWST has been introduced by Joe Biden, the President of the USA, whose phenomenal development is the joint effort of Canadian and European space agencies in collaboration with NASA. This accounts to be one of the most expensive and complex missions ever introduced in space with a worth of $10 billion. It was neither an easy construction nor so elementary to be installed. Its manufacturing took approximately 20 years, facing multiple setbacks in its operational journey.
The first images and information that beamed back to Earth by JWST proved that the lifelong efforts didn’t go in vain. The astronomers were awestruck by the mindboggling imagery and data received. Those images are just the notions of what is following next.
The James Webb Space Telescope’s view of the spectacular Phantom Galaxy. (Image credit: ESA/Webb, NASA & CSA, J. Lee and the PHANGS-JWST Team)
It is speculated that JWST might renounce all other space telescopes and will prove to be the most authentic source of cosmic data which will fuel thousands of research papers worldwide. In no time and without any doubts it will revolutionize the whole present picture of universe in coming years.
RECENT BREAKTHROUGHS
The Glimpse of the Most Distant and The Ancient Galaxies
Galaxies, the gigantic assortment of heavenly masses spread across the sky. They have billions of stars, planetary systems, asteroids, comets, meteorites and massive clouds of dust and gases. Our Milky Way galaxy is an enormous array of celestial bodies.
A team of astronomers has reported the recent discovery of some of the earliest galaxies visualized by NASA’s James Webb Space Telescope which are thought to be created 400 million years after the Big Bang. The data collected earlier unveiled some of the records of such faint galaxies but now, with the JWST’s spectroscopic observations, their fingerprints have been confirmed.
11th of July, 2022 is documented as the day of remarkable discovery in the history of space studies. It was a live broadcast from White House when President United States, Joe Biden witnessed the commixture of thousands of galaxies by himself and was overwhelmed at the glimpses.
The region of the sky studied by the James Webb Space Telescope Advanced Deep Extragalactic Survey (JADES). (Image credit: NASA, ESA, CSA, and M. Zamani (ESA/Webb). Science: B. Robertson (UCSC), S. Tacchella (Cambridge), E. Curtis-Lake (Hertfordshire), S. Carniani (Scuola Normale Superiore), and the JADES Collaboration.)
JWST has provided the pictorial data of the most distant celestial collections in the midst of December 2022. Almost four distant galaxies have been observed by JWST one amongst them is the far off reddish galaxy expected to be 13.8 billion years old-the most ancient one. Researchers speculated that the newly discovered galaxies are extremely beyond the distances they have anticipated before the JWST’s observed data.
Discovery of Exoplanets
Exoplanets, beyond the borders of our solar system, dwell massive number of colossal planets. They orbit stars other than sun. They might be Gas Giants, Neptunian, Super Earth or terrestrial.
The first exoplanets were discovered in 1990s and today there are over 3000 known planetary bodies orbiting around the stars. Among them only a few have been pictured directly. Most of the exoplanets are so far-flung to be detected easily. But thanks to JWST, in September 2022, the direct image of an exoplanet was captured. Moreover, NASA confirmed the presence of over 5000 exoplanets including super-Earths, gas giants and dwarf planets beyond our solar system. This great discovery has rippled the overall momentum of space studies and astronomy.
Webb’s first images of an alien world, HIP 65426b, are shown at the bottom of a wider image showing the planet’s host star. The images were taken at different wavelengths of infrared light. (Image credit: NASA/ESA/CSA, A Carter (UCSC), the ERS 1386 team, and A. Pagan (STScI).)
Titan’s Clouds
Images taken by JWST in early November 2022, researchers spotted some exciting floating entities on, probably, the northern hemisphere of Saturn’s alien moon named Titan.
Titan captivates scientists and researchers of astronomy for multiple reasons. Firstly, the intense ultraviolet radiations coming from the sun create a huge buildup of organic molecules in Titan’s nitrogenous and methane-rich atmosphere. This dense and hazy atmosphere obscures its surface drowned in expanded stretches of dunes, along with lakes, rivers and seas of liquid hydrocarbons like ethane and methane. Secondly, the scientists suspect that deep underneath the Titan’s surface, there might be the reservoirs of a salty liquid water ocean, making Titan a habitable for extraterrestrial life.
Images of Saturn’s moon Titan, captured by the James Webb Space Telescope’s NIRCam instrument Nov. 4, 2022. Left: Image using F212N, a 2.12-micron filter sensitive to Titan’s lower atmosphere. The bright spots are prominent clouds in the northern hemisphere. Right: Color composite image using a combination of NIRCam filters. Several prominent surface features are labeled: Kraken Mare is thought to be a methane sea; Belet is composed of dark-colored sand dunes; Adiri is a bright albedo feature. (Image credit: SCIENCE: NASA, ESA, CSA, Webb Titan GTO Team IMAGE PROCESSING: Alyssa Pagan (STScI))
Clouds on Titan might be a dime a dozen to any casual observer. But to the astronomers, clouds revealed a lot about the atmosphere of Titan. As Titan is the only moon in our solar system to have a dense atmosphere of nitrogen and methane that is stretched about 370 miles (600 kilometers) into the space, 10 times taller than the altitude of Earth’s atmosphere, according to NASA. So, clouds will help a lot to study about not only the atmosphere of Titan but also why Titan has atmosphere which other moons, in the solar system, are devoid of.
These clouds also validate the weather patterns which predict the appearance of clouds in the northern hemisphere of Titan during its summer season, the time when that region is entirely bathed in sunlight.
The year 2022 was the year of ground-breaking explorations and cosmic revelations. It will surely open the massive avenues to the new realms of astonishing astronomical discoveries. It was a just the beginning with the wonder-scope JWST. More is yet to come.
Are there intelligent beings elsewhere in our Galaxy? If not, where are all the Aliens? This question gives rise to one of the most profound paradoxes in history, known as The Fermi Paradox.
Named after the Italian-American physicist Enrico Fermi, this paradox is one of the biggest unsettled questions in astrobiology. The idea started when, in 1950, Fermi asked his co-workers over lunch where are the extraterrestrials. If there are billions and billions of stars and probably even more planets, indeed, we are not the only intelligent beings in the universe. Then why have we not already been in contact with the outers?
People have debated this for many years. Various articles and books have been published arguing if aliens do really exist, we should have been aware of them already. If we have not found any trace of life outside Earth yet, then they possibly do not exist. Let us look deeply into these claims and explore some solutions scientists have put forth over the years.
Possibility of life outside Earth
The expectation that the universe should be teeming with intelligent life is linked to models like the Drake equation. It suggests that even if the probability of intelligent life at a given site is small, the sheer multitude of possible sites should yield many potentially observable civilizations.
It is not the size of the universe that is important per se, but the fact that it is big enough to contain a vast number of habitable planets. We do not know precisely how many such planets are out there, but one recent estimate suggests that our galaxy might contain as many as 100 billion Earth-like planets.
The Fermi argument extends in a way by saying that it is highly likely that some of these planets will have intelligent life forms that might have developed advanced technology. But then again, we have no sign of extraterrestrial communication whatsoever.
Scientists have tackled the paradox through different scenarios based on logical reasoning. Following are a few arguments in some theories that are documented.
Problems with interstellar communication
Communication is not as accessible, as one would think!
SETI (Search for Extraterrestrial Intelligence) is a non-profit research organization that monitors electromagnetic radiation for signs of communication from other planets. Although it has been trying to listen for the last 6 decades, all efforts went in vain. Part of the failure lies in the fact that we have only sampled a small portion of the universe.
Let us understand this with an analogy: if you went to the beach with a glass and scooped up some water, would you expect to find fish in it? Probably not; that does not mean there are no fish in the ocean. It just means we have not collected enough water to find those fish. The same is true with SETI; they have not checked out enough of the universe to conclude if there is someone out there.
“If we ever hope to pick up the signal from out there, we need to build a radio telescope the size of the metropolitan area of Chicago, which is twenty-five thousand eight hundred square kilometres. Then, it would be possible to detect a radio signal hundreds of light-years away. The only problem is such a telescope in our economy would cost more than 60 trillion dollars,” says Keith Cooper, a famous science journalist, in his book ‘The Contact Paradox’.
Moreover, communication is only achievable when we assume that out there civilization is as advanced as ours is. However, the Copernican Principle that asserts that we are not unique in any way suggests that the odds are far too slim that another planet is at precisely the same point in its development. The calculations hint that the signal would have to traverse a distance of more than ten million light years for more than two millennia before we receive a response. Hence, we will not get a response, even at light speed, before the year 4000 C.E.
Communication is only achievable when we assume that civilization is as advanced as ours. Credit: AAS Nova
This implies that the universe is incredibly vast. It would take centuries to establish the first contact, as far as the math is concerned.
Rare Earth hypothesis
The Rare Earth Hypothesis deals with the notion that planets like Earth are scarce. Life and the evolution of complexity require a combination of astrophysical and geological conditions that are uncommon in our Universe. In other words, we are pretty special and unique. Thus, a complex ET life is an improbable phenomenon which is likely to be rare throughout the universe.
In 2000, Peter D. Ward and Donald published a book titled “Rare Earth: Why Complex Uncommon in the Universe”. In their book, the authors indicated eighteen factors that allow complex life to evolve until they obtain intelligence. Most of them are very unlikely, and their relative independence implies that their probabilities must factorize, making the resulting probability for intelligence to evolve elsewhere than Earth very low.
Dark forest theory
This possible answer to the Fermi paradox says that the aliens out there are silent simply because they do not wish to be on the receiving end of possible destruction by another civilization. Just like hunters moving cautiously through a dark forest, they all must remain quiet; otherwise, they will be found and killed.
This would also explain why we have not found any mundane alien radio signals despite a century of being able to pick them up. Just as we accidentally send our radio signals, meant for us, out into space, another civilization would be likely to as well. One possibility is that other civilizations are so frightened of being detected that they deliberately avoid sending such evidence into space.
Nonetheless, the possibility of an alien civilization that has a similar risk aversion level and reasoning process as we do must be taken into account.
Indifferent theory
With billions of years of history at play, it might not be the case where we are at technological parity with all the other forms of life that might be out there. Alien life might simply be so far beyond us that they could regard us as insignificant as we do when we think of an ant. Why do you not try to talk to the insects in your garden? The gap is too significant. They might not talk to us because they think we have nothing interesting to say. You understand what they want ideally, and they have no hope of understanding you, so the communication is, frankly, pointless.
Conclusion
When I infer in the light of these arguments is finding a substantial probability that we are alone in our galaxy or even in our observable universe.
Where are they? — Probably exceptionally far away, and quite possibly beyond the cosmological horizon and forever unreachable. But as of now, we are simply not listening to them correctly. Perhaps, in the near future, if we follow a more practical approach, which can provide certainty about intelligent life somewhere other than Earth. However, to be honest, for now, it looks more as if the aliens are just inanimate characters in science fiction movies.
References:
Musso, P. (2001, August). On the last terms of Drake Equation: the problem of energy sources and the” Rare Earth Hypothesis”. In Exo-/Astro-Biology (Vol. 496, pp. 379-382).
“The Fermi Paradox Revisited” article in Smithsonian magazine.
