Japan Gifts N3.6 Billion in Road Equipment to Nigeria

The central administration has obtained N3.6 billion worth of building machinery provided by the Japanese authorities.

In a press release, the Ministry of Works stated that the machinery provided to the Federal Roads Maintenance Agency (FERMA) would mark a significant step forward in the country’s efforts toward achieving sustainable infrastructure development.

The declaration, signed by the Ministry’s Director of Press, Mohammed Ahmed, cited the Minister of State for Works, Bello Muhammad Goronyo, Esq., who stated that “the generous support from Japan moves forward the dream of seamless, secure, and dependable transportation throughout the nation.”

Goronyo stated that roads serve as the vital arteries of Nigeria’s economy and everyday activities, with the machinery marking a significant advancement in their use and maintenance.

Worthed at £3.6 billion (three billion, six hundred million Nigerian naira), the provided machinery is anticipated to enhance FERMA’s ability to repair and restore Nigeria’s extensive highway system.

Goronyo highlighted that the contribution marks the beginning of a new phase in road upkeep, allowing engineers and technical staff to achieve quicker and longer-lasting results.

He further pointed out that Nigeria’s large highway system still plays a crucial role in trade, farming, medical services, and uniting the country, despite ongoing serious upkeep issues.

He also praised the actions of President Bola Ahmed Tinubu GCFR, who has placed infrastructure at the forefront and positioned it as a major factor in driving economic development through his Renewed Hope Agenda — a government that acknowledges infrastructure as a catalyst for progress.

“We imagine a future where traveling within Nigeria is smooth, safe, and reliable. This kind gesture brings us nearer to turning that dream into truth,” he added.

The President and citizens of Nigeria expressed deep appreciation through Goronyo to the Japanese government for its concrete assistance and steadfast dedication towards Nigeria’s progress.

He called on the management of FERMA and their engineering staff to guarantee that the machinery is utilized to the best of its potential, stating, “This equipment represents a significant resource, and its proper application will demonstrate our dedication to enhancing the standard of living for every Nigerian.”

He ended by pointing out that the installation of the machinery goes beyond a symbolic transfer, representing instead the start of a fresh phase in road upkeep that corresponds with Nigeria’s larger aim of achieving economic growth through improved infrastructure.

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Nanotech: The Key to a Greener Energy Future – Prof. Owusu Boadi (International Edition)


By Elizabeth PUNSU, Kumasi

The professor of chemistry and vice-dean of the Faculty of Physical and Computational Sciences at Kwame Nkrumah University of Science and Technology (KNUST), Prof. Nathaniel Owusu Boadi, has highlighted the significant impact that nanotechnology can have in promoting sustainable energy solutions in Ghana and throughout Africa.

During his Professorial Inaugural Lecture at KNUST, Professor Owusu Boadi highlighted that nanotechnology—which is frequently called ‘the science of the unseen’—is crucial for developing more effective, cost-efficient, and environmentally friendly energy solutions.

His lecture, titled
‘Heading towards inclusive renewable energy for everyone: utilizing the force of the unseen titans,’
tracked the development of nanomaterials from their early beginnings through to their advanced uses in contemporary energy solutions.

As he points out, nanotechnology has the potential to greatly boost the effectiveness of solar cells, increase battery efficiency, and refine fuel cell technology—elements crucial for shifting towards a more sustainable and robust energy industry.

“Even though Ghana and numerous African nations receive ample sunlight, access to solar power stays restricted because traditional silicon-based photovoltaic cells come at a steep price. However, nanomaterials present an encouraging substitute that might reduce expenses and boost effectiveness, thereby increasing the availability of solar energy,” he pointed out.

Professor Owusu Boadi urged the government to significantly increase investment in researching and developing nanomaterials for energy production.

He similarly called upon regulatory entities like the Environmental Protection Agency and the Ghana Standards Authority to develop scientifically grounded safety protocols for manufacturing, utilizing, and disposing of nanomaterials—ensuring these align with global best standards.

He also suggested forming a National Nanotechnology Research Center, which would be led by the Ministry of Environment, Science and Technology (MEST), working alongside the Ministry of Finance, educational institutions, and representatives from various industries.

He clarified that this center would promote locally developed innovations and help bring nanotechnology-based energy solutions to market, specifically addressing Ghana’s requirements.

Professor Owusu Boadi further emphasized the extensive uses of nanotechnology outside the realm of energy. Within the medical field, nanomaterials aid in early detection via improved diagnostic imagery and assist in regenerating tissues.

In environmental science, these applications are employed for purifying water and cleaning up hazardous waste. Additionally, the electronics sector benefits from more efficient semiconductors, as well as precise sensors; meanwhile, the textiles industry profits from smarter and antimicrobial fabrics.

Moreover, Professor Owusu Boadi noted that although Ghana has achieved significant progress in electrification with an 85.1% access rate as of 2022, numerous rural areas continue to struggle with unreliable power supply.

In Sub-Saharan Africa, approximately 600 million individuals still lack access to electricity. He stated that this disparity represents not only a challenge but also numerous opportunities.

“Through investment in nanotechnology, Ghana has the potential to spearhead the creation of sustainable, domestically-generated energy solutions. These efforts could not only bridge this gap but also establish the nation as a center for environmentally-friendly innovation,” he highlighted.

Professor Nathaniel Owusu Boadi – a chemistry professor and the Vice-Dean of the Faculty of Physical and Computational Sciences at KNUST.

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Zimbabwe’s Energy Minister Announces Plans for Domestic Solar Panel and Lithium Battery Production

The Energy and Power Development Minister, July Moyo, has announced intentions for Zimbabwe to start producing solar panels and lithium batteries. This initiative aims to prevent severe power shortages while promoting the use of clean, sustainable energy sources.

This initiative will entail partnerships among nearby educational institutions and global companies to leverage knowledge and technological resources for business manufacturing purposes.

At the recently concluded sixth International Renewable Energy Conference and Expo, Moyo stated that the Cabinet had already endorsed the project framework for implementing this innovation.

“We firmly believe that the future has arrived due to the advanced technologies at hand. Our aim is to collaborate with various universities, and just this week, the Cabinet endorsed a plan to join forces with Chinhoyi University of Technology for initiatives focused on solar power. This collaboration will encompass every facet of solar innovation, research, education, as well as possibly producing our own solar panels and investigating battery alternatives, considering our substantial lithium reserves,” according to statements from state-run media attributed to Moyo.

We think the chances are now accessible to all to join in.

An agreement known as a Memorandum of Understanding (MoU) has been reached with the International Solar Alliance (ISA) to set up a Solar Technology Application Resource Center (STAR-C) at Chinhoyi University of Technology (CUT).

The objective of this program is to enhance capabilities for deploying solar energy, as well as promoting research, development, and innovation in this sector, thereby strengthening the nation’s position in the realm of renewable energy.

As we consider these matters, solar or renewable energy should be framed within our economic landscape, which currently encompasses 17 distinct sectors.

“The major sectors include agriculture, mining, industry, and manufacturing. Given our involvement in renewable energy, we should concentrate on these domains and pinpoint potential within each of them,” Moyo added.

The minister restated that Zimbabwe needs to adopt clean energy.

We’re focusing on clean cooking solutions, aiming to free both men and women from the pervasive smoke generated by damp wood during the rainy season. Therefore, advocating for cleaner cooking methods is one of our primary objectives.

“Enhancing energy efficiency is not merely optional—it has become essential. This approach stands as one of the most economical methods for expanding energy availability, cutting down emissions, and boosting economic output across various industries,” stated Moyo.

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DRDO’s Powerful Waterjet Propulsion System Aces Initial Sea Trials

DRDO’s Powerful Waterjet Propulsion System Aces Initial Sea Trials

New Delhi [India], April 15 (ANI): The Defence Research and Development Organisation’s (DRDO) waterjet propulsion system with a capacity of 651 kilowatts, developed by Larsen Turbo as part of the Technology Development Fund initiative, has successfully undergone initial sea trials on board India’s Navy Fast Interceptor Craft.

On a post from X, they mentioned: “A significant achievement through @DRDO_India’s TDF program. The domestically created 651 kW waterjet propulsion system, engineered and produced by @LarsenToubro with over 70% local components, has successfully finished initial maritime tests onboard India’s Navy Fast Interceptor Craft.”


On April 13, India achieved a significant milestone as it became part of an exclusive group of nations like the U.S., China, and Russia, which possess the ability to intercept and destroy both conventional fixed-wing drones and swarming drone systems. This was accomplished through the deployment of a powerful 30-kilowatt laser system designed specifically for this purpose.

The successful testing of the Mk-II(A) Laser-Directed Energy Weapon (DEW) system took place at the National Open Air Range (NOAR) in Kurnool. This demonstration highlighted the capability to neutralize missiles, drones, and smaller projectiles using advanced technology. DRDO officials shared this information with ANI onsite.

India has joined the select and small group of countries that have developed high-powered Laser Directed Energy Weapons (DEWs).

In conversation with ANI, DRDO Chairman Samir V Kamat stated, “To my knowledge, the U.S., Russia, and China have showcased this ability. It appears that Israel is developing comparable technologies too. I believe we stand as either the fourth or fifth nation globally to exhibit this system.”

Kamat stated that this marks only the “start of the journey,” and mentioned that DRDO is developing several technologies aimed at achieving a “Star Wars-like capability.”

“This marks only the start of our journey. Given the collaboration between this laboratory and others within the DRDO, as well as with industries and academic institutions, I’m confident that we’ll reach our goals swiftly… Additionally, we’re developing various high-energy systems such as high-intensity microwaves and electromagnetic pulse devices. Therefore, we’re engaged in numerous technological advancements aimed at achieving capabilities akin to those seen in ‘Star Wars.’ Today’s demonstration showcased merely one aspect of these advanced technologies,” stated Kamat.

The indigenously created and developed Mk-II(A) DEW system showcased all its capabilities by targeting and neutralizing fixed-wing drones from a distance, countering an assault involving several drones, and demolishing enemy surveillance equipment and antennas.

The rapid engagement time, accuracy, and lethal impact achieved against the target within mere seconds have rendered it the most effective Counterdrone System.

The DRDO’s Centre for High Energy Systems and Sciences (CHESS) in Hyderabad collaborated with LRDE, IRDE, DLRL, various educational institutes, and local industries to develop this system. (ANI)

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Fitur Terbaik Samsung Galaxy S25 Series untuk Proyek Arsitektur Anda

Fitur Terbaik Samsung Galaxy S25 Series untuk Proyek Arsitektur Anda


Lifehack My ID

Fotografi arsitektur lebih dari sekedar merekam struktur bangunan. Ini merupakan suatu keterampilan untuk mengekspos bentuk, tekstur, serta narasi terselubung di baliknya.

Seiring dengan perkembangan teknologi, ponsel pintar saat ini telah menjadi perangkat yang sangat dipercaya oleh para fotografer, arsitek, serta pembuat konten.

Serangkaian Samsung Galaxy S25 membawa sejumlah fitur inovatif yang meringankan tahap tersebut, sehingga membolehkan setiap orang menciptakan foto arsitektur yang jernih, menakjubkan, serta kaya akan detil.

Pada artikel kali ini, kami akan membahas tentang keunggulan-keunggulan pada seri Samsung Galaxy S25, terutama model Galaxy S25 Ultra. Fitur tersebut mampu menyajikan pengalaman fotografi arsitektur dengan hasil yang serupa profesional serta sangat menarik secara langsung bagi para pengguna.


1. Kamera Ultra-Wide 50MP

Salah satu hambatan terbesar dalam fotografi arsitektur adalah mengabadikan seluruh bentuk bangunan tanpa mengorbankan ketajaman gambarnya.

Oleh karena itu, gedung seringkali mempunyai elemen-elemen unik yang sayang untuk dilewatkan saat difoto.

Samsung Galaxy S25 Ultra dilengkapi dengan sensor Ultra-Wide 50MP, sehingga memungkinkan pengguna mengambil gambar dengan sudut lebarnya tanpa terjadi deformasi.

Menurut Govinda Rumi, seorang fotografer arsitektur berpengalaman, “Sudah pernah saya coba kamera 50MP Ultra-Wide pada Galaxy S25 Ultra, dan hal yang paling mengesankan bagi saya adalah betapa sedikitnya distorsi di bagian pinggir gambar. Hal ini menjadikan hasil jepretan tampak lebih natural dan dramatis.”

Menggunakan campuran resolusi tinggi serta sensor yang ditingkatkan, pemakai bisa merekam hiasan pada struktur gedung secara lebih tajam, termasuk saat cahaya kurang memadai.

Ciri khas ini sungguh sempurna untuk orang-orang yang berminat menjelajahi struktur historis atau ikon kota dari sudut pandangan yang lebih luas.


2. Virtual Aperture

Samsung Galaxy S25 Ultra hadir dengan fungsi Virtual Aperture yang membolehkan pengguna menyetel pembukaan lensa antara f/1.4 sampai f/16.

Hal ini memungkinkan Anda mengatur kedalaman lapangan dengan leluasa, suatu aspek krusial dalam pembuatan gambar arsitektural berkesan dan penuh drama.

Misalkan saat menangkap foto sebuah katedral atau bangunan bertingkat tinggi, pengguna bisa memilih diafragma yang sempit (seperti f/16) guna menjaga tajamnya keseluruhan bangunan tersebut.

Untuk menghasilkan efek bokeh pada latar belakang dan menyoroti detil ornament, pengguna bisa menggunakan pembukaan diafragma yang lebar seperti contohnya f/1.4.

“Kebebasan mengatur kedalaman lapangan pandang ini sungguh bermanfaat ketika saya ingin memperjelas tekstur gedung sambil tetap menjaga latar belakang tidak terlalu mencolok,” jelas Govinda Rumi.


3. Expert RAW

Fotograf profesional umumnya menginginkan kontrol total terhadap kualitas gambar yang dihasilkan.

Menggunakan fitur Expert RAW pada Galaxy S25 Ultra, pemakai dapat mengambil foto dalam bentuk RAW yang memberikan kemungkinan untuk menyunting dengan lebih detail tanpa kehilangan kualitas citra.

Fitur ini juga memungkinkan pengguna mengatur ulang Keseimbangan Putih secara manual, contohnya dengan meningkatkan angka WB lebih dari 5.500K agar memberi kesan hangat pada struktur bersejarah seperti istana atau gereja lama.

Akhirknya? Gambar yang lebih berwarna-warni dan mencerminkan atmosfer sebenarnya dari struktur tersebut.


4. Gemini Live

Samsung Galaxy S25 Ultra tak sekadar unggul di bidang hardware, namun juga dilengkapi dengan teknologi artificial intelligence yang memudahkan penggunanya untuk mencapai performa optimal.

Dengan fasilitas Gemini Live, pemakai bisa mendapatkan data mengenai gedung yang diabadikan cukup dengan sekali sentuhan.

Sebagai contoh, ketika memotret Menara Eiffel, pemakai bisa mendapatkan informasi menarik atau riwayat dari struktur itu lewat pencarian berbasis kecerdasan buatan.

Ini menambahkan nilai ekstra ke fotografi arsitektur sebab tiap foto bisa membawa pesan atau latar belakang yang jauh lebih kaya.


5. Mode Malam

Pengambilan gambar arsitektur kerap kali dijalankan pada waktu malam guna merekam penerangan yang kreatif dari struktur tersebut.

Dengan peningkatan fitur Nightography pada Galaxy S25 Ultra, gambar dalam kondisi kurang cahaya masih tetap jernih dan memiliki noise yang berkurang.

Teknologi pemrosesan multiframe AI memungkinkan penggabungan berbagai paparan menjadi satu foto, menjaga detil dengan baik bahkan pada situasi cahaya redup.

Ini sungguh bermanfaat ketika Anda ingin memotret ikon seperti Times Square atau Candi Borobudur pada malam hari.

Samsung Galaxy S25 Ultra menghadirkan terobosan segar di bidang fotografi struktural. Menggunakan gabungan kamera ultra-lebar 50 megapiksel, Virtual Aperture, Expert RAW, AI Gemini Live, serta mode malam yang ditingkatkan, ponsel ini menyediakan paket komprehensif untuk para fotograf profesional, desainer arsitektur, hingga pecinta foto gedung.


(*)

Mysterious ‘Donut’ Structure Unveiled Deep Within Earth’s Core

Mysterious ‘Donut’ Structure Unveiled Deep Within Earth’s Core


  • Scientists identified a torus-like area at the upper boundary of the outer core.

  • This less dense area aids in agitating the molten metal, thereby producing the magnetic field.

Researchers have discovered an enormous ring-like formation hidden deep below the surface.

Scientists from the Australian National University utilized seismic waves created by
earthquakes
to gaze into the Earth’s enigmatic liquid center.

By following the trajectory of these waves throughout the Earth, scientists discovered a layer approximately hundreds of kilometers deep where their speed decreased by two percent compared to usual.

The doughnut-shaped formation encircles the Earth’s liquid outer core along an equatorial path, potentially playing a key role in generating our planet’s shielding magnetic field.

Professor Hrvoje Tkalčić, who led the research, states: “The magnetic field is an essential component required for sustaining life on Earth’s surface.”

Our planet consists of four primary layers.
the exterior crust, the partly molten mantle, a fluid metallic outer core, and a solid metallic inner core.

When the movement of tectonic plates in the crust creates earthquakes, these produce vibrations that spread out through all the other layers of the Earth.

Leveraging the global network of seismic monitoring stations,
Scientists can observe how the waves propagate and use this information to forecast the circumstances beneath the water’s surface.

Researchers typically focus on the large, strong wavefronts that circulate globally within the initial hour following an earthquake.

Nevertheless, Professor Tkalčić and his co-author Dr. Xiaolong Ma managed to identify this pattern by examining the subtle remnants of waves that persisted for several hours following the primary shock.

The technique demonstrated that seismic waves propagating close to the poles were traveling at a quicker pace compared to those nearer to the equator.

When they compared their findings with various models of the Earth’s interior, Professor Tkalčić and Dr Ma discovered that these observations were most accurately described by the existence of an extensive subterranean ‘torus’, essentially a doughnut-shaped area.

They forecast that this area is located solely at low latitudes and aligns with the equator close to the upper boundary of the outer core, where the liquid part interfaces with the mantle.

“We aren’t certain about the precise thickness of the doughnut, but we deduced that it extends several hundred kilometers below the core-mantle boundary,” states Professor Tkalčić.

Due to the vital importance of this area, their discovery might also hold significant consequences for understanding life on our planet and beyond.

The Earth’s outer core extends about 2,160 miles (3,480 km), which is somewhat bigger than the size of Mars.


Primarily composed of molten nickel and iron, convection currents combined with the planet’s spin drive the fluid metals in this region into elongated vertical whirls oriented from north to south, similar to colossal water tornadoes.

The rotating flows within these molten materials function akin to a dynamo, generating the Earth’s magnetic field.

As this donut-shaped area has risen to the upper part of the liquid outer core, it implies that it might contain an abundance of lighter elements such as silicon, sulfur, oxygen, hydrogen, or carbon.

Professor Tkalčić states: “Our discoveries are intriguing as this reduced speed within the liquid core suggests a significant presence of lightweight chemical elements in those areas, which would consequently decelerate the seismic waves.”


These lightweight components, along with variations in temperature, assist in agitating the fluid within the outer core.

Without that vigorous movement to power the planet’s internal dynamo, Earth’s magnetic field may not have come into existence.

In the absence of the magnetic field, the planet’s surface would face an unrelenting assault from charged particles.
From the sun, which has the power to damage the genetic material of living organisms.

This ring-like area could thus be an essential clue in understanding how life originated on Earth and what signs we should search for when identifying potentially livable exoplanets.

Dr. Tkalčić concludes: “Our findings might encourage further investigation into the magnetic fields of both our planet and others.”

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