ALLAH Names

 

World’s first solar super-panel

 World's first solar super panel, unveiled by Japan : More power than 20 nuclear reactors  

The future is knocking on our door, all the time, too. But when it comes to technology, it seems that when we think everything has been invented, there is always some company which surprises us. And this is still happening in the renewable energy sector, where Japan is experiencing a radical change. Imagine for a moment that any surface can generate clean energy, from the roofs of buildings to bus stops and shop windows. This is what Japan is trying to do with its new super solar panel, what a great deal! An innovation which wants to transform everything we know today as renewable energy. Renewable energy in Japan will receive a seismic shift via perovskite solar cells, the latest development which would change the way solar energy is viewed. Lightweight, flexible and adaptable, these solar cells will provide a more viable means to producing energy within a city, responding to shortages of land and sustainable issues. 

This panel is created with a material called “perovskite”, which allows the creation of solar cells which are much more efficient, light and flexible than traditional ones (which we remember are made of silicon). Japan is currently utilizing its competitive advantages to lead the rest of the world into the new renewable energy age. Under its revised energy plan, the Ministry of Industry now prioritizes PSCs on Section 0 of its plan wherein Japan aims to develop PSC sections generating 20 gigawatts of electricity equivalent to 20 nuclear reactors by fiscal 2040. Imagine a future in which cities are supplied with clean energy thanks to solar panels that can be placed on any surface, from the roofs of buildings to bus stops or even on cars. Well, that future is getting closer thanks to Japan and its new perovskite-based super solar panel.

The strategy was designed to be closely aligned with the country’s commitment to net-zero emissions by 2050. At the centre of this strategy is Japan’s position as the second-largest iodine producer in the world, a necessary ingredient in the manufacturing of perovskite solar cells. This would allow an independent supply chain within Japan’s territory, enabling the country to improve its economic security, reduce dependence on foreign origins, and provide forward-looking developments for its domestic industries. Since the disaster which occurred in Fukushima in 2011, they have worked very hard to reduce their dependence on nuclear energy and have a clear objective: to lead a transition to renewable energy. And the best thing is that they are doing everything in their power to achieve this. Their government has updated its energy plan, making the construction of new power plants a priority. Japan was once the world’s leader in solar panel manufacturing, but its share has fallen to below 1% because of the subsidized competition from Chinese manufacturers. However, Japan can claim that it is again in a stronger position by PSC technology. Supported by the government, Sekisui Chemical Co. is now developing advanced PSC modules for their future application to a broad market in the 2030s.

So, with their goal of reaching 0 carbon emissions by 2050, this is key. And another point where they play to their advantage is that they have several strategies developed with Iod (an essential material for manufacturing perovskite solar cells). All this makes PSCs very different in the sense that they can totally redefine how and where solar energy can be collected. This makes traditional silicon-based panels quite impractical in countries which are densely populated, like Japan, when only large spaces can accommodate them. With high adaptability and lightness, bendability, and flexibility in manufacturing, PSCs can be integrated with urban environments easily. They can be installed on walls of buildings and windows, on car roofs and on streetlights, allowing these surfaces to be utilized for energy harvesting.

With government support and the development of PSC (perovskite crystal structure) technology, Japan is looking to regain its position lost to china. Companies such as Sekisui Chemical Co. are already working on these “next generation” solar panels. This invention solves the problem of space limitation in Japan to generate maximum energy in urban areas. The flexibility of PSCs will also allow hybrid systems, wind and solar energy systems, to be installed, further improving renewable energy efficiency. However, obstacles are still in place. Durability limit and high upfront cost are two of the significant concerns for PSCs today, but the technology is improving steadily, with predictions that costs will fall to JPY 10/W by 2040. The solar panels we use today are made of silicon, and although they are quite efficient, their main problem is that they need a lot of space to be installed, so in countries with a lot of available land this is not a problem. However, if we talk about smaller countries and where the population is much greater than the land (as is the case in Japan), traditional panels are not practical at all. The solar energy scene in Japan has evolved rapidly. Today, the solar electricity output accounts for almost 10% of the total energy production in the country, compared with the previous year’s share of only 1.9% in 2014.

The key to PSC is that they are much more flexible and lighter to manufacture, so they can be placed anywhere where traditional panels do not fit (such as on the roof of cars). So this invention would be solving one of the biggest problems Japan has, which is the lack of free space to set up solar energy farms. This way they could combine this energy with other types of renewable energy (such as wind energy) to achieve much greater efficiency. The current energy plan further aims to push this share by setting the target at 36%-38% of renewable energy sources consumption by 2030 and expects PSC technology to play big in crossing those figures by 2040. The predictions made by the government estimates regarding the cost with time states that PSCs are less expensive with JPY 20/W as of 2025 around which time it will also be lowered significantly after that.

With PSC technology, Japan makes serious commitment towards sustainable development. By harnessing its renewable natural resources and encouraging innovation, it positions itself as one of the leading nations in the globe for renewable energy. PSC technology will momentarily be affordable; hence, it will provide energy solutions to Japan while serving as a guide for other countries to prove the premise that wind and solar can create a greener world. These marks are critically relevant for making PSCs available to a broader audience and using them for more diversified applications. CE certified modules designed for durability and safety are geared to meet the demands of both domestic and commercial users. Of course, they are still facing many challenges, and although it is a very promising technology, there are two main problems that have not yet been solved. The first is that they are less durable than traditional panels and the second is that they have a high initial cost (but this is expected to improve over time as research is carried out on this new component).

Muhammad (Peace be upon him) Names

 

ALLAH Names

 

Largest and richest gold mine in the world

 The world's Biggest gold mine in the world is worth £30bn 

Gold mining has been a big industry for centuries, with some of the world’s richest deposits found deep underground. Countries with huge gold reserves rely on mining to drive their economies, and demand for the precious metal remains high across the world. Some mines produce only a small amount of gold each year, but others extract thousands of tonnes over their lifetimes.  No gold mine, however, is as productive or valuable as the one in a remote mountain region of Indonesia. The Grasberg mine, located in Indonesia, is the biggest gold mine in the world. It is also the second largest copper mine in the world; the ore mined at Grasberg produces relatively high grades of both metals. The mine contains high grades of both metals. Copper is the primary commodity, with 2.8 billion tonnes of provable copper deposits still available, but another major precious metal mined at Grasberg is silver, with 2.9 million ounces of silver sold in 2016.

The Grasberg mine, located in Papua, Indonesia, is the largest and richest gold mine in the world, producing around 48 tonnes of gold every year. To keep up with demand, the mine operates on a scale unlike any other, with a workforce of around 20,000 people and its own airport, seaport, roads, housing, schools, and a hospital. It is also one of the biggest copper mines globally, with the ore extracted from Grasberg containing high grades of both metals. Grasberg is owned by PT Freeport Indonesia, a joint venture between the Indonesian government and American mining giant Freeport-McMoRan. The facility is located near Puncak Jaya, the highest mountain in Papua, in an area rich in mineral deposits formed by shifting tectonic plates.  For decades, the mine’s most distinctive feature was its mile-wide open pit, but surface deposits have now been largely depleted, shifting production underground.

As the world’s largest gold mine, the Grasberg facility employs a staggering 19,500 workers as of 2021. In order to support the operations and workforce, Grasberg has seaport, 119 km of access roads, a tramway, a hospital, employee housing and schools, along with a number of other support facilities. The mine even reportedly has its own airport. Grasberg now operates three major underground mines, known as Grasberg Block Cave, Deep Mill Level Zone, and Big Gossan. The defining feature of the Grasberg facility is the open-pit mine, with an incredible mile-wide crater. For years, millions of tonnes of ore were dug out from this pit but it has now largely been exhausted. Production is currently centred around underground mining, and the facility has four concentrators to process the huge amount of ore mined every day.

In 2023, Grasberg produced 52.9 tonnes of gold (1.7 million ounces), 680,000 tonnes of copper and 190 tonnes of silver, making it one of the world’s most profitable mining operations. Grasberg’s huge scale means it requires major infrastructure to function. The mine has a dedicated airport to transport workers and equipment in and out of the remote site, as well as a 103-mile pipeline that carries ore to the Amamapare port for processing and export. The mine still holds gold reserves worth an estimated $40 billion (£31 billion), ensuring that it will remain a major producer for years to come. In particular, the Grasberg Block Cave, a recent addition, is expected to see significant growth over next five years, with production reaching an estimated 130,000 metric tons of ore per day. Reserves at Grasberg are estimated to be worth $40 billion and, in 2016 alone, an incredible 1,061,000 ounces of gold was produced. 

   

The mine’s history dates back to 1936, when Dutch geologist Jean Jacques Dozy discovered mineral-rich rocks in the region. However, large-scale mining didn’t begin until the 1960s, when Freeport-McMoRan secured the rights to develop the site. Since then, Grasberg has seen continuous expansion, with billions invested in new tunnels, roads and transport systems. Grasberg is located in Papua, the most eastern province of Indonesia, near Puncak Jaya (the highest mountain in Papua). The area is found in the centre of a collision of the Indo-Australian and Pacific tectonic plates. The confluence of the plate activity gives the area its mineral-rich deposits which help make it the biggest gold mine in the world.

As of 2018, the majority stake in the mine is owned by the Indonesian government, following a long period of disputed claims regarding ownership. The site is operated under licence by the American firm Freeport-McMoRan. Despite its economic importance, Grasberg has also faced controversy. Environmental concerns have been raised over high levels of sediment and heavy metals entering local rivers, while political tensions in the region have led to security issues and attacks on the mine by separatist groups. There have also been worker strikes and disputes over pay and conditions. Despite these challenges, the mine remains one of Indonesia’s most valuable assets, and the government has extended Freeport-McMoRan’s mining lease until 2041. With gold, silver and copper all seeing high prices in 2021 the mine no doubt remains an incredible resource for the companies involved.