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On the front lines of AI automation, cooperation is key

Researcher at Boston Dynamics tests AI robot's ability to balance and course-correct [Source: Boston Dynamics]

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Over the winding course of the last two or so decades, the world as a whole has experienced wave after wave of cycles of technological development and disruption. Uninterrupted telecommunications, handheld computing, robotics, and artificial intelligence have progressed and proliferated in ways that were not broadly anticipated, and they did so at a pace often faster than predicted.

Recently on the minds of many prominent academic philosophers and less-than-academic laypersons are topics of human-AI interaction both in the present and future. Far more publicly visible is the popular coverage and “discourse” that has over the last several years latched onto a near-universal Zeitgeist of fear and anxiety about artificial intelligence, robotics, and how their cooperation might hasten or enable the obsolescence of purely biological humans.

Yes, Elon has a company for it

Elon Musk is in no way ignorant of these plausible existential risks, and is personally involved in at least two current ventures attempting to better direct scientific and technological resources towards rational solutions and mediation. OpenAI, begun in 2015 as an non-profit for open source artificial intelligence research and development, currently has an endowment of approximately $1 billion and Musk reports spending at least a couple hours of his notoriously busy week with the company. Not one to ever solely tackle the abstract, Musk also cofounded Neuralink, a nanotechnology company hoping to develop a “high bandwidth interface for the nervous system”, in early 2017.  Neuralink’s hope is to ensure that humans remain competitive with ever-improving artificial intelligence, particularly once AI reaches a level of general intelligence at or above that of humans.

 

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Together, OpenAI and Neuralink provide a cohesive narrative. While OpenAI hopes to prevent artificial intelligence from developing or being used in such a way that it harms humanity, the company simultaneously argues that it is “hard to fathom how much human-level AI could benefit society”. Even so, AI with general capabilities equal to or greater than those of humans would inherently create a sort of societal redundancy, whereby AI would combine most of the benefits of human intelligence with the many ways computers are superior to biological computation. The lack of biological limitations would immediately place any AI ahead of any human with comparable capabilities, without even beginning to explore the reality that AI can logically be improved over time through software and hardware updates in ways that humans simply cannot compete with. Neuralink hopes to slip around this logical problem by directly supplementing the human mind with technological elements that might eventually allow for the effortless and intuitive integration of biological and artificial intelligence.

Researcher at Boston Dynamics tests AI’s ability to course-correct [Source: Boston Dynamics]

The idea is admittedly Gibsonian upon first examination, in spite of the fact that the concept has almost never been explored thoroughly, even in fiction. A crude idea of what such a technological might feel like can be found by examining less direct examples like Tony Stark’s Jarvis, or even modern day pocketable AI like Siri and Google Assistant. While the immediate thought of having Apple’s Siri as the voice in your head might give some (including the author) spine-tingling shivers of sheer terror, the reality would almost certainly be far more slick. Assuming artificial intelligence continues to rapidly improve and eventually becomes capable of passing the Turing Test, imagine instead the utility and genius of Jarvis directly interfaced with your mind. Rather than using the painfully slow and imprecise bottleneck of human speech, this intelligent and conscious assistant would communicate with you far faster than any human could communicate otherwise. Such an interface would further allow humans to communicate and interact with each other far more efficiently and effectively.

Regardless, talk of superintelligent AI implants is all but highly speculative in the present and is highly unlikely to exist in the near future, barring any sort of paradigmatic and exponential leaps in science and technology over the next few years. The current reality of AI in the eyes of the general public revolves around nonsensical and uninformed fearmongering, largely due to bad reporting on complex scientific research.

The threats of workplace automation

Far more pressing, although considerably less publicized, is the threat of robotic automation of specific tasks and jobs typically performed by humans. This technologically-based economic displacement has regularly occurred throughout the history of humanity, but robotic automation has the potential to completely disrupt economic systems based upon capitalism. Without prompt and aggressive responses to the growing threat of automation, fears of increased economic inequality are arguably warranted. In its current nascent state, automation technology is focused largely on manufacturing.

Somewhat ironically, over the course of the development and construction of Tesla’s Gigafactory 1, cofounder Elon Musk has taken to discussing the highly automated factory as the cornerstone of manufacturing affordable EVs at extremely high volumes.

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Tesla Gigafactory photos from July 2017 reveal new land being graded for expansion

Even more ironically, the pursuit of a high level of automation in the Gigafactory and the company’s Fremont facilities has been partially motivated by extremely high demand for Tesla’s Model 3, of which fully autonomous self-driving capabilities have been a major source of excitement and publicity. Musk and Tesla eventually hope to offer true autonomy to recently manufactured vehicles by way of a software update, and the company eventually wants to introduce a “Tesla Network” where an owner’s car can be allowed to act as a self-driving taxi when not in use, thus logically earning its owner money. While today’s “gig economy” has enabled some form of flexibility and freedom, it has also allowed for large corporations to more easily exploit its workers. Furthermore, companies like Uber and Lyft are aggressively engaged in the development of their own autonomous driving systems, given the potentially lucrative margins autonomous taxi services might offer their shareholders.

In relatively free economies that encourage competition between corporate entities, even the most empathetic and philanthropic companies must inherently remain competitive to ensure their continued existences. In the likely event that technology continues to expand and improve its affordable alternatives to human labor, the only conceivable methods of safeguarding humanity involve universal corporate cooperation to forego profit margins and the desires of shareholders, aggressive and intelligent government regulation, or the improvement humans in order for them to remain competitive. For reasons too broad to discuss here, the first two methods are arguably very unlikely to happen to or to at least occur in a beneficial manner.

While the actual social and economic issues that are behind and will be created by the issue of automation are vast, abstract, and horrifyingly complex, the third option, however, just might work in the interim. Elon Musk has storied and largely successful history of exploiting the competitive market in order to introduce products that seek to intrinsically benefit humanity as a whole. While financially assisted by NASA, SpaceX managed to efficiently develop a uniquely affordable launch vehicle that has since captured a large market share of the launch industry. The eventual profits from this and other interconnected goals will fund and attempt to make humanity multiplanetary, thus protecting our species from single-planet mass extinction events. Tesla pursued the development of high quality electric vehicles that consumers then chose to purchase in volumes that outclassed their competitors, which allowed them to fund the development of a mass-market EV that might rapidly hasten humanity’s move away from gasoline-driven cars. SolarCity, now a part of Tesla, pursued different economic models that worked to make solar installations viable for private homes. With SolarCity now integrated into Tesla’s Energy branch, the company will be able to sell beautiful, long-lasting solar roofs and affordable electric vehicles at the same time, to the same customer.

To put it simply, Elon Musk strives to create uniquely capable and affordable products that strategically benefit humanity. If a company can create an exceptionally competitive product that also happens to benefit the world and the consumer, then a lightly regulated economy can in fact be manipulated into accomplishing abstract, philanthropic, and long-term goals. Neuralink and OpenAI are arguably the most difficult challenges yet for Musk’s strategy, given the chronic immaturity of both the science and technology needed in relation to their purposes. From a theoretical perspective, however, the potential draw of products and knowledge the companies might create are obvious. A true high-bandwidth neural interface for humans could provide a vast array of beneficial uses, ranging from memory improvement to things like the ability to instantaneously learn new skills. The reality that the project will undoubtedly require a better understanding of human consciousness is also certain to be a major source of intrigue for the general public, as well as those interested in studying neuroscience and medicine in general.

Success on the front lines

While the prospect of a future of highly intelligent AI and equally capable robotics is daunting and easily exploited to strike fear into the hearts of non-experts, there are plenty of reasons to remain optimistic that the worst-case scenarios often treated as inevitable are highly unlikely. Enter an unusual and controversial piece of technology: Google Glass. Initially released in 2013 as a developer-focused experiment, the device immediately rose into the publicly eye after several unfortunate occurrences, gaining a considerable degree of mockery and disapproval. While its failure as a consumer technology was effectively guaranteed shortly after its limited release, the device has since become an invaluable tool and steady niche market for manufacturing companies and several other industries. More recently, Google became aware of this growing niche use-case and worked with the companies using it to develop a new, enterprise-focused version of Glass, which was publicly acknowledged and released earlier this year.

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The most extraordinary aspect of this already-intriguing story is the reception the device has received at the companies that have been trialling it over the last several years. Not only has the relatively simple augmented reality device become a sign of things to come for the future of manufacturing workers, the companies that have taken to it have begun to report truly amazing benefits realized through its use. It has been credited with cutting necessary training times from 10 days to 3 days, making the completion of tedious and complex tasks as much as 25-30% faster, improving the efficiency of warehouse workers by more than half, and drastically lowering error rates when using torque wrenches.

AGCO, a massive agriculture-focused manufacturing company, plans to aggressively grow the number of workers using the devices on their factory floors. DHL has begun the process of incorporating Glass Enterprise Edition into the workflow of every single one of their 2000+ distribution facilities around the world. The device has also shown significant utility in fields related to health care, and is being trialled by Sutter Health, based in Northern California. The success seen with Glass in these fields flies in the face of automation fear-mongering, particularly given the common attribution of manufacturing jobs as those most at risk from automation. The fact that high-profile economic advisers of massive corporations believe that “combinations of humans and machines outperform either working alone [for many jobs]” is a testimony to the potential of humans augmented by computers. Even if or when robotic alternatives become more affordable than human workers, it is clear that augmenting humans can result in efficiency and effectiveness that can easily rival purely autonomous systems of manufacturing, particularly for more complex tasks. At some point, it becomes the only rational path forward when automating tasks might cost a company tens or hundreds of thousands of dollars up front per worker, while adopting forms of worker augmentation could be expected to cost $1,000-$5,000 each (Glass EE is about $1,500).

The future is bright

There are still plenty of reasons to retain hope for the future of human-robot and human-AI cooperation and coexistence. While it is impossible to deny that there will always be uncertainty about what might or what could occur, real world examples of the reality of those relationships suggest that the future could be bright. Just recently, OpenAI revealed that it has developed AI capable of beating the best known humans of a highly complex modern video game, Defense of the Ancients 2 (Dota 2). Future goals for the AI include building a full five-person team of AIs, and eventually integrating the AIs they develop into teams of humans in the hope of surpassing either humans or AI working by themselves. The corollaries with the success of Google Glass EE are obvious, but the consequences of OpenAI successfully pursuing human-AI cooperation in complex and unintuitive environments would be vastly more significant. While cooperative human-AI gaming might not seem consequential, even if successful, it opens the door for the development of more tangible, realistic applications.

Of course, it is still rational and arguably necessary to work to safeguard humanity from the potentially worrisome outcomes, and companies like OpenAI and Neuralink will undoubtedly continue to pursue their ultimate goals of doing so. At the worst, they can be expected to develop technologies and knowledge that have the potential to benefit humanity as a whole. Neutral, cooperative AI would be truly incredible on its own, as would a truly high bandwidth, multipurpose neural interface for humans. Whatever outcomes the future holds, humanity is clearly standing on the edge of many a precipice of far-reaching technological disruption. Stay tuned.

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Eric Ralph is Teslarati's senior spaceflight reporter and has been covering the industry in some capacity for almost half a decade, largely spurred in 2016 by a trip to Mexico to watch Elon Musk reveal SpaceX's plans for Mars in person. Aside from spreading interest and excitement about spaceflight far and wide, his primary goal is to cover humanity's ongoing efforts to expand beyond Earth to the Moon, Mars, and elsewhere.

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Elon Musk

The Boring Company clears final Nashville hurdle: Music City loop is full speed ahead

The Boring Company has cleared its final Nashville hurdles, putting the Music City Loop on track for 2026.

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The Boring Company has cleared one of its most significant regulatory milestones yet, securing a key easement from the Music City Center in Nashville just days ago, the latest in a series of approvals that have pushed the Music City Loop project firmly into construction reality.

On March 24, 2026, the Convention Center Authority voted to grant The Boring Company access to an easement along the west side of the Music City Center property, allowing tunneling beneath the privately owned venue. The move follows a unanimous 7-0 vote by the Metro Nashville Airport Authority on February 18, and a joint state and federal approval from the Tennessee Department of Transportation and the Federal Highway Administration on February 25. Together, these green lights have cleared the path for a roughly 10-mile underground tunnel connecting downtown Nashville to Nashville International Airport, with potential extensions into midtown along West End Avenue.

Music City Loop could highlight The Boring Company’s real disruption

Nashville was selected by The Boring Company largely because of its rapid population growth and the strain that growth has placed on surface infrastructure. Traffic has become a persistent problem for residents, convention visitors, and airport travelers alike. The Music City Loop promises an approximately 8-minute underground transit time between downtown and the Nashville International Airport (BNA), removing thousands of vehicles from surface roads daily while operating as a fully electric, zero-emissions system at no cost to taxpayers.

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The project fits squarely within a broader vision Musk has championed for years. In responding to a breakdown of the Loop’s construction costs, Musk posted on X: “Tunnels are so underrated.” The comment reflected a longstanding belief that underground transit represents one of the most cost-effective and scalable infrastructure solutions available. The Boring Company has claimed it can build 13 miles of twin tunnels in Nashville for between $240 million and $300 million total, a fraction of what comparable projects cost elsewhere in the country.

The Las Vegas Loop, The Boring Company’s first operational system, has served as a proof of concept. During the CONEXPO trade show in March 2026, the Vegas Loop transported approximately 82,000 passengers over five days at the Las Vegas Convention Center, demonstrating the system’s capacity during large-scale events. Nashville draws millions of convention visitors and tourists each year, and local business leaders have pointed to that same capacity as a major draw for supporting the project.

The Music City Loop was first announced in July 2025. Construction began within hours of the February 25 state approval, with The Boring Company’s Prufrock tunneling machine already in the ground the same evening. The first operational segment is targeted for late 2026, with the full route expected to be complete by 2029. The project represents one of the largest privately funded infrastructure efforts currently underway in the United States.

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Elon Musk’s $10 Trillion robot: Inside Tesla’s push to mass produce Optimus

Tesla’s surging Optimus job listings reveal a company sprinting from prototype to one million robot production.

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Tesla is accelerating its push to bring the Optimus humanoid robot to high volume production, and its recent job listings tells the story as clearly as any earnings call.

With well over 100 Optimus related job openings now posted across its U.S. facilities, Tesla is signaling a critical pivot for the program, moving it from a captivating tech demo to a serious manufacturing endeavor. Roles span the full spectrum of the product lifecycle, from Robotics Software Engineers and Manufacturing Engineers to Mechanical Integration Engineers and AI Engineers focused on world modeling and video generation. One active listing for a Software Engineer on the Optimus team asks candidates to build scalable and reliable data pipelines for Optimus manufacturing lines and develop automation tools that accelerate analysis and visualization for mass manufacturing.

Tesla is racing toward a one million unit annual production target. The clearest signal yet that Tesla is treating Optimus as its primary business came on January 28, 2026, during the company’s Q4 2025 earnings call. Musk announced that Tesla is ending production of the Model S and Model X, and will repurpose those lines at its Fremont, California factory to build Optimus humanoid robots.

A production intent prototype of Optimus Version 3 is planned to be ready in early 2026, after which Tesla intends to build a one million unit production line with a targeted production start by the end of 2026. To support that ramp, Tesla broke ground on a massive new Optimus manufacturing facility at Gigafactory Texas in late 2025, with ambitions to eventually reach 10 million units per year.

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Tesla Giga Texas to feature massive Optimus V4 production line

The business case for scaling this aggressively is rooted in labor economics. Musk has stated that “Optimus has the potential to be the biggest product of all time,” reasoning that if Tesla can produce capable humanoid robots at scale and reasonable cost, every task currently performed by human labor becomes a potential application. In a separate statement, Musk framed Optimus’s long term importance even more bluntly, saying it could surpass Tesla’s vehicle business in scale with the potential to generate $10 trillion in revenue.

The industries Tesla is targeting first are those most burdened by repetitive physical labor. Early applications include manufacturing assembly, material handling and quality inspection, as well as logistics tasks like loading, unloading, sorting, and transporting goods in warehouses and distribution centers. Longer term, Tesla’s vision is for Optimus to penetrate household, medical, and logistics scenarios at the scale of a smartphone rollout.

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Elon Musk’s Boring Co. Tunnel Vision Challenge ends with a surprise for Louisiana, Maryland and Dallas

The Boring Company stunned three cities today, awarding New Orleans, Baltimore, and Dallas free underground Loop tunnels.

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Elon Musk’s The Boring Company (TBC) announced today that it is building free underground Loop tunnels in three American cities: New Orleans, Louisiana; Baltimore, Maryland; and Dallas, Texas. The company had promised one winner when it launched the Tunnel Vision Challenge in January. After receiving 487 submissions, it selected three, committing to fund and construct all of them pending a feasibility review, entirely at its own expense. For a company that has faced years of skepticism over the gap between its promises and its delivered projects, choosing to expand its commitment rather than narrow it is a notable shift in both scale and accountability.

All three projects will now enter a rigorous, fully funded diligence phase that includes meetings with elected officials, regulators, community and business leaders, geotechnical borings, and a complete investigation of subsurface utilities and infrastructure. TBC confirmed that all costs associated with this diligence process are 100% funded by the company. If all three projects pass feasibility, all three get built. If only one clears the bar, that one gets built. The company’s willingness to fund the due diligence regardless of outcome removes one of the most common early-stage barriers that kills promising infrastructure proposals before they leave a spreadsheet.

Beyond the three winners, TBC announced it will continue working with two additional entrants it found compelling enough to pursue independently: the Hendersonville Utility Tunnel in Hendersonville, Tennessee, and the Morgan’s Wonderland Tunnel in San Antonio, Texas, which would notably serve one of the nation’s premier theme parks built specifically for guests with special needs.

The challenge also coincides with TBC’s most active construction period to date. The company recently began drilling on the Music City Loop near the Tennessee State Capitol in Nashville, and in February it broke ground on a Loop in Dubai. Musk has long argued that the fundamental problem with urban infrastructure is cost and bureaucratic inertia, not engineering. “The key to solving traffic is making going 3D either up or down,” he said in 2018, a conviction now reflected in a company structure built to absorb the financial risk that typically stalls public projects for years.

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Music City Loop could highlight The Boring Company’s real disruption

The Tunnel Vision Challenge’s most underappreciated element may be what it produced beyond three winners. Submissions came from individuals, companies, and governments across states including Alaska, Arkansas, Colorado, Kansas, Louisiana, Maryland, New York, and Texas, as well as from international entrants. Musk captured the underlying logic years ago when he said, “Traffic is driving me nuts. I’m going to build a tunnel boring machine and just start digging.” Today, three American cities are counting on exactly that.

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