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Rare Fruit Sold for $1,000 in Indonesia

In this AP photo taken on November 25, 2017, a cut Musang King durian is shown by a vendor during the International Durian Cultural Tourism Festival in Bentong, Malaysia.
In this AP photo taken on November 25, 2017, a cut Musang King durian is shown by a vendor during the International Durian Cultural Tourism Festival in Bentong, Malaysia.
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Rare Fruit Sold for $1,000 in Indonesia

In this AP photo taken on November 25, 2017, a cut Musang King durian is shown by a vendor during the International Durian Cultural Tourism Festival in Bentong, Malaysia.
In this AP photo taken on November 25, 2017, a cut Musang King durian is shown by a vendor during the International Durian Cultural Tourism Festival in Bentong, Malaysia.

A mall in an Indonesian town displayed some rare Durian fruits, which have the most powerful smell in the world and have a huge popularity in southeastern Asia. The special fruits are being sold for $1,000 apiece.

The German News Agency reported that the store located in Tasikmalaya, managed to sell two of this fruit known as "J Queen" from the first day, despite its high price -14 million rupees (over $1000) apiece - according to the Compas.com website.

The fruit price caused a significant debate in the town, where the minimum monthly wage is two million rupees (around $142).

The local media reported that some of the mall visitors came and took pictures with the singular fruit. A social media user said on Twitter: "I would rather buy a motorcycle. At least, I can use it for ten years."

Aka, discoverer of the royal type of the Durian fruit, said it has a very special peanut butter-like taste. It comes in a round form, unlike the regular Durian, which usually comes in an oval form.

Aka, 32, an Indonesian psychology graduate, explained that the "J-Queen" fruit has these unique characteristics because it is a hybrid of two good types of Durian in Indonesia.

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Fast-forming Alien Planet has Astronomers Intrigued

An artist's depiction of a planet and its host star with a misaligned disk of material, and a binary companion in the background, is shown in this undated handout image. NASA/JPL-Caltech/R. Hurt, K. Miller (Caltech/IPAC)/Handout via REUTERS
An artist's depiction of a planet and its host star with a misaligned disk of material, and a binary companion in the background, is shown in this undated handout image. NASA/JPL-Caltech/R. Hurt, K. Miller (Caltech/IPAC)/Handout via REUTERS
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Fast-forming Alien Planet has Astronomers Intrigued

An artist's depiction of a planet and its host star with a misaligned disk of material, and a binary companion in the background, is shown in this undated handout image. NASA/JPL-Caltech/R. Hurt, K. Miller (Caltech/IPAC)/Handout via REUTERS
An artist's depiction of a planet and its host star with a misaligned disk of material, and a binary companion in the background, is shown in this undated handout image. NASA/JPL-Caltech/R. Hurt, K. Miller (Caltech/IPAC)/Handout via REUTERS

Astronomers have spotted orbiting around a young star a newborn planet that took only 3 million years to form - quite swift in cosmic terms - in a discovery that challenges the current understanding of the speed of planetary formation.
This infant world, estimated at around 10 to 20 times the mass of Earth, is one of the youngest planets beyond our solar system - called exoplanets - ever discovered. It resides alongside the remnants of the disk of dense gas and dust circling the host star - called a protoplanetary disk - that provided the ingredients for the planet to form.
The star it orbits is expected to become a stellar type called an orange dwarf, less hot and less massive than our sun. The star's mass is about 70% that of the sun and it is about half as luminous. It is located in our Milky Way galaxy about 520 light-years from Earth, Reuters reported. A light-year is the distance light travels in a year, 5.9 trillion miles (9.5 trillion km).
"This discovery confirms that planets can be in a cohesive form within 3 million years, which was previously unclear as Earth took 10 to 20 million years to form," said Madyson Barber, a graduate student in the department of physics and astronomy at the University of North Carolina at Chapel Hill and lead author of the study published this week in the journal Nature.
"We don't really know how long it takes for planets to form," UNC astrophysicist and study co-author Andrew Mann added. "We know that giant planets must form faster than their disk dissipates because they need a lot of gas from the disk. But disks take 5 to 10 million years to dissipate. So do planets form in 1 million years? 5? 10?"
The planet, given the names IRAS 04125+2902 b and TIDYE-1b, orbits its star every 8.8 days at a distance about one-fifth that separating our solar system's innermost planet Mercury from the sun. Its mass is in between that of Earth, the largest of our solar system's rocky planets, and Neptune, the smallest of the gas planets. It is less dense than Earth and has a diameter about 11 times greater. Its chemical composition is not known.
The researchers suspect that the planet formed further away from its star and then migrated inward.
"Forming large planets close to the star is difficult because the protoplanetary disk dissipates away from closest to the star the fastest, meaning there's not enough material to form a large planet that close that quickly," Barber said.
The researchers detected it using what is called the "transit" method, observing a dip in the host star's brightness when the planet passes in front of it, from the perspective of a viewer on Earth. It was found by NASA's Transiting Exoplanet Survey Satellite, or TESS, space telescope.
"This is the youngest-known transiting planet. It is on par with the youngest planets known," Barber said.
Exoplanets not detected using this method sometimes are directly imaged using telescopes. But these typically are massive ones, around 10 times greater than our solar system's largest planet Jupiter.
Stars and planets form from clouds of interstellar gas and dust.
"To form a star-planet system, the cloud of gas and dust will collapse and spin into a flat environment, with the star at the center and the disk surrounding it. Planets will form in that disk. The disk will then dissipate starting from the inner region near the star," Barber said.
"It was previously thought that we wouldn't be able to find a transiting planet this young because the disk would be in the way. But for some reason that we aren't sure of, the outer disk is warped, leaving a perfect window to the star and allowing us to detect the transit," Barber added.