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- 🇦🇪 Explaining the 7 Emirates of UAE
🇦🇪 Explaining the 7 Emirates of UAE
I visited Abu Dhabi recently and made some videos to explain this fascinating country... and they took off 🚀
Hey guys, Chris Madden here. If you ever want to stay ahead in all things AI and tech, you need to learn about its biggest global players. Last week’s biggest stories tackle some of them:
Explaining the seven emirates of the UAE, and how it helped the country become a global powerhouse
Showcasing the engineering marvel that is the Burj Khalifa, and why this kind of innovation represents the best in tech today
The guy behind the ex-NVIDIA team that plans on catapulting China at the forefront of the GPU race
The UAE videos were inspired from my time in Abu Dhabi at the Solana Conference, to my surprise they did really well! Let’s read about them in more detail below. 👇
🥇 FIRST PLACE
The Seven Emirates That Make Up the UAE — And Why They’re So Different
Views: 228,000
The UAE stands for The United Arab Emirates, but what exactly does it unite?
The UAE is a federation of seven emirates formed in December 1971 (six initially, with Ras Al Khaimah joining February 1972).
Abu Dhabi holds 84% of UAE's land and over 92 billion barrels of oil reserves—94% of the country's total.
Dubai, with far smaller oil reserves, diversified early into finance, logistics (Jebel Ali is among the world's largest ports), and tourism.
Each emirate maintains administrative autonomy while contributing to federal governance through the Federal Supreme Council.
Abu Dhabi invests oil wealth in aerospace, nuclear power, and clean-tech (Masdar City), while Dubai built itself as a commercial hub.
The smaller emirates—Sharjah, Ajman, Umm al-Quwain, Fujairah, and Ras Al Khaimah—developed distinct niches. Fujairah is the only emirate on the Gulf of Oman coast.
This federal structure enables coordinated foreign policy and defense while preserving individual economic strategies—a model that's driven rapid, differentiated growth across the federation.
Watch it in English here
🥈 SECOND PLACE
The Engineering Breakthroughs Behind the Burj Khalifa
Views: 8,920
At 828 meters, the Burj Khalifa is an engineering system designed by architect Adrian Smith and structural engineer Bill Baker to handle extreme wind forces and gravity loads.
The tower's "buttressed core"—a Y-shaped plan with three wings anchored to a hexagonal central core—creates exceptional torsional stiffness, with each wing buttressing the others. Its 27 setbacks disrupt wind vortices while creating terraces. Over 40 wind tunnel iterations ensured the tower can sway up to 1.5 meters at its peak in high winds without structural damage.
Foundation: 192 reinforced concrete piles (1.5m diameter, 43-50m deep) anchor the 500,000-ton structure through a 3.7m-thick concrete mat. High-performance concrete (C80/C60 grade) forms the core, while the 200+ meter spire uses structural steel to reduce weight.
This building represents a broader shift toward extreme ambition in regional architecture—proving that with sufficient engineering innovation, height limitations become more about vision than technical impossibility.
Watch this in English here
🥉 THIRD PLACE
A Former NVIDIA Executive Just Changed China’s GPU Race
Views: 6,321
Moore Threads' $1.1 billion IPO surged 400%+ on debut, led by Zhang Jianzhong—NVIDIA's former Global VP and China GM (2006-2020) who spent 14 years there.
With U.S. restrictions barring NVIDIA's advanced AI chips from China and Moore Threads on the U.S. Entity List since late 2023, China is backing this insider-led GPU challenger.
Founded October 2020, Moore Threads represents knowledge transfer at scale—the team is heavily staffed with ex-NVIDIA talent.
The company launched four GPU generations (Sudi, Chunxiao, Quyuan, Pinghu) while following NVIDIA's playbook: starting with consumer GPUs before pivoting to AI compute, which now constitutes ~80-95% of revenue.
The company achieved IPO approval in a record 88 days on Shanghai's STAR Market—a clear signal of Beijing's strategic priorities.
Competitors like Huawei's HiSilicon, Cambricon (shares up 100% YTD), Enflame Technology, and Biren Technology are creating a domestic GPU arms race.
The strategic question isn't whether these chips match NVIDIA's cutting-edge performance—it's whether China can build a parallel semiconductor ecosystem fast enough to support its AI ambitions independently.
HONORABLE MENTIONS
China Is Training the Next Generation of Robotics Engineers
Views: 2,914
Top Chinese universities are launching dedicated "embodied intelligence" majors to address a 1-million-person talent shortage in robotics.
Seven universities—including Shanghai Jiao Tong, Zhejiang, and Beijing Institute of Technology—have applied to offer the undergraduate major.
Beijing Institute of Technology will enroll 120 students annually: 70 for advanced degrees, 50 for direct workforce entry at Huawei, Tencent, and state aerospace groups.
This is strategic timing: China designated embodied intelligence a national priority, projecting the market at 400 billion yuan ($56.5B) by 2030.
Over 300 Chinese colleges already offer robotics engineering programs (since 2016). Monthly salaries for embodied AI engineers: 25,000-90,000 yuan.
By establishing formal degree pathways now, China positions itself to produce thousands of specialized robotics engineers annually just as humanoid robots reach commercial viability—while other countries debate policy frameworks.
The Rise of Insect-Sized Drones
Views: 2,900
Drones are getting smaller—and smarter.
Micro-drones weighing under an ounce can now deliver stable video, navigate using touch feedback, and run lightweight onboard AI for autonomous decision-making.
The implications stretch beyond novelty. Insect-sized drones can access environments humans can't: collapsed building interiors for search-and-rescue, industrial equipment for internal inspection, dense forest canopy for ecological monitoring, or complex infrastructure like sewer systems and ventilation networks.
As battery technology, miniaturized sensors, and edge AI converge, these devices become increasingly capable of operating independently in swarms—coordinating without central control to map spaces or locate targets.
The military and surveillance applications are obvious, but the immediate commercial use cases focus on inspection (reducing human risk in hazardous environments) and agricultural monitoring (precision crop analysis at scale).
The technology is moving from research labs to practical deployment faster than regulatory frameworks can adapt.



