Ukishaandika "mala kwa mala" tu unanitoa hamu ya kujadiliana nawe.
Hujui herufi za Kiswahili, hapo hatujafika kwenye Kiingereza, sishangai hatuelewani.
Sasa naelewa kwa nini nikikupa link huwezi kusoma.
Bila shaka hujui kusoma Kiingereza.
Sasa unataka nikufundishe Kiingereza pia?
Nimekwambia naweza kujua kwamba 10 si square root ya 2 hata kama sijui square root ya 2, kwa sababu najua square root ya 2 ni lazima iwe ndogo kuliko 2.
Unajua hesabu? Unataka nikufundishe hesabu pia?
Kama kawaida yako unaendelea kuingiza concepts zingine ili uharibu lengo la swali, nasikitika bado wewe na Atheist wenzio mnashindwa kutoa majibu mpaka sasa. Anyway unalazimisha niifungue link, bila shaka maswali kutokana na kilichoandikwa kwenye maandishi hayo nitakuuliza wewe unipatie majibu.
NB: Kwenye notes za link yako nimeweka alama nyekundu kwenye sentensi ninazohitaji maelezo zaidi maana maelezo yake hayajitoshelezi yameeleeza generally without scientific proof, nimeweka pia alama ya kijani kwenye maswali ambayo nahitaji majibu yake.
NOTES FROM YOUR LINK
The planetary system we call home is
located in an outer spiral arm of the Milky Way galaxy (Unaweza kuniambia aliyeunda/kuumba hii outer spiral arm of the milky way galaxy? Ilitokeaje formation yake).
Our solar system consists of our star, the Sun, and everything bound to it by gravity — the planets Mercury, Venus, Earth, Mars, Jupiter, Saturn, Uranus and Neptune, dwarf planets such as Pluto, dozens of moons and millions of asteroids, comets and meteoroids.
Beyond our own solar system, there are more planets than stars in night sky. So far, we have discovered thousands of planetary systems orbiting other stars in the Milky Way, with more planets being found all the time. Most of the hundreds of billions of stars in our galaxy are thought to have planets of their own, and the Milky Way is but one of perhaps 100 billion galaxies in the universe.
While our planet is in some ways a mere speck in the vast cosmos, we have a lot of company out there. It seems that we live in a universe packed with planets — a web of countless stars accompanied by families of objects, perhaps some with life of their own.
Size and Distance
Our solar system extends much farther than the eight planets that orbit the Sun. The solar system also includes the
Kuiper Belt that lies past Neptune's orbit. (Naomba niambie aliyeunda/formation ya hii Kuiper Belt? ilitokeaje) This is a sparsely occupied ring of icy bodies, almost all smaller than the most popular Kuiper Belt Object, dwarf planet Pluto.

Pluto nearly fills the frame in this image from the Long Range Reconnaissance Imager (LORRI) aboard NASA's New Horizons spacecraft, taken on July 13, 2015, when the spacecraft was 476,000 miles (768,000 kilometers) from the surface. Image Credit: NASA/JHUAPL/SWRI
And beyond the fringes of the Kuiper belt is the Oort Cloud. This giant spherical shell surrounds our solar system. It has never been directly observed, but its existence is predicted based on mathematical models and observations of comets that likely originate there.
The Oort Cloud is made of icy pieces of space (Naomba niambie aliyeunda/kuumba hii Oort Cloud na icy pieces of space? vilitokeaje) debris the sizes of mountains and sometimes larger, orbiting our Sun as far as 1.6 light years away. This shell of material is thick, extending from 5,000 astronomical units to 100,000 astronomical units. One astronomical unit (or AU) is the distance from the Sun to Earth, or about 93 million miles (150 million kilometers). The Oort Cloud is the boundary of the Sun's gravitational influence, where orbiting objects can turn around and return closer to our Sun.
The Sun's heliosphere doesn't extend quite as far.
The heliosphere is the bubble created by the solar wind—a stream of electrically charged gas blowing outward from the Sun in all directions. (Nani aliyeunda/formation ya hiyo solar wind-a stream of electrically gas? vilitokeaje) The boundary where the solar wind is abruptly slowed by pressure from interstellar gases is called the termination shock. This edge occurs between 80-100 astronomical units.
Two NASA spacecraft, launched in 1977, have crossed the termination shock: Voyager 1 in 2004 and Voyager 2 in 2007. But it will be many thousands of years before the two Voyagers exit the Oort Cloud.
Formation
Our solar system formed about 4.5 billion years ago from a dense cloud of interstellar gas and dust (Unaweza kuniambia nani aliyeunda hiyo dence cloud of interstellar gas and dust, vilitokeaje?). The cloud collapsed,
possibly due to the(Hapa science haina uhakika ina-assume) shockwave of a nearby
exploding star, called a supernova (Nifahamishe pia aliyeunda hii nyota supernova/ilitokeaje?). When this dust cloud collapsed, it formed a solar nebula—a spinning, swirling disk of material.
At the center, gravity pulled more and more material in (Unaweza kuniambia aliyeunda gravity? ilitokeaje). Eventually the pressure in the core was so great that
hydrogen atoms (Nijuze pia formation ya hizi hydrogen atoms/zilitokeaje?) began to combine and form helium, releasing a tremendous amount of energy. With that, our Sun was born,
and it eventually amassed more than 99 percent of the available matter (Unaweza kuniambia formation ya hizi matter/zilitokeaje?).
Matter farther out in the disk was also clumping together.
These clumps smashed into one another, forming larger and larger objects. Some of them grew big enough for their gravity to shape them into spheres, becoming planets, dwarf planets and large moons (Hapa science ina-assume haioneshi how the formation occured, inasimulia kama hadisi hakuna scientific proof, kama ipo niambie viliwezaje kujiunda hivyo?). In other cases, planets did not form:
the asteroid belt is made of bits and pieces (Niambie formation ya bits and pieces/ vilijiundaje?) of the early solar system that could never quite come together into a planet. Other smaller leftover pieces became asteroids, comets, meteoroids, and small, irregular moons.
Structure
The order and arrangement of the planets and other bodies in our solar system is due to the way the solar system formed. Nearest the Sun, only rocky material could withstand the heat (Hapa science inasimulia kama hadisi tu as how it happened, unaweza kuniambia iliwezekanaje scientifically hiyo order and arrangement of the planets and other bodies ikawa hivyo/ilikuaje?. There must be a designer of that) when the solar system was young. For this reason, the first four planets—Mercury, Venus, Earth and Mars—are terrestrial planets. They're small with solid, rocky surfaces.
Meanwhile, materials we are used to seeing as ice, liquid or gas settled in the outer regions of the young solar system. Gravity pulled these materials together, and that is where we find gas giants Jupiter and Saturn and ice giants Uranus and Neptune.
Potential for Life
Our solar system is the only place we know of that harbors life, but the farther we explore the more we find potential for life in other places. Both Jupiter’s moon Europa and Saturn’s moon Enceladus have global saltwater oceans under thick, icy shells.
Moons
There are more than 150 known moons in our solar system and several more awaiting confirmation of discovery. Of the eight planets, Mercury and Venus are the only ones with no moons. The giant planets grab the most moons. Jupiter and Saturn have long lead our solar system’s moon counts. In some ways, the swarms of moons around these worlds resemble mini versions of our solar system. Pluto, smaller than our own moon, has five moons in its orbit, including the Charon, a moon so large it makes Pluto wobble. Even tiny asteroids can have moons. In 2017, scientists found
asteroid 3122 Florence had two tiny moons.
NB: Bado nahitaji majibu ya swali kwenye post #584