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TMTPost · AGIUpdated Nov 1 17:07

From Efficiency to Effectiveness: How Real AI Organizations Use Silicon-Based Computing Power to Compensate for the Limits of Human Cognition

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GritMeng argues that modern institutions are trapped in a predicament of "everyone working desperately yet canceling each other out," the root cause of which is not employees' lack of effort but the cross-mismatch of supply and demand caused by horizontal exclusivity and vertical completeness of shared resources under tightly coupled business models. The author claims that their system has operated in a fully automated closed loop for 18 consecutive years within a hundred-billion-scale industrial network, maintaining over 95% of "human-out-of-the-loop" closed loops, and advocates using a five-dimensional complex giant system to govern AI's takeover of underlying computation, leaving humans outside the loop to define problems.

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By GritMeng

If you walk into the vast majority of sizable institutions today—whether tech giants, financial institutions, large hospitals, research institutes, or industrial giants—you will see a strikingly similar picture:

The building is brightly lit, every department is working overtime, and at the year-end review, the KPI assessments of R&D, product, marketing, operations, risk control, and finance are almost all high scores; to improve management, the institution has spent heavily to introduce a full suite of digital software, and in the past two years has kept pace with the times by deploying large language models and various agents.

By common sense, with people this diligent and tools this advanced, the whole organization should be sweeping all before it. Yet the objective business results are that the net profit margins of many institutions keep declining, return on invested capital (ROIC) has fallen into the thin-profit range of 3% to 6%, key strategic projects are repeatedly delayed, and the organization remains full of cross-departmental coordination friction, endless meetings, and lingering anxiety and involution.

Faced with this situation, the top leader often feels that middle management lacks execution and that departmental walls are too thick; frontline employees feel that the top is out of touch with reality and that assessment metrics conflict with one another; HR is troubled by being unable to recruit talent with a holistic view. Everyone feels wronged, and everyone is exhausted.

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The reason organizations fall into the dilemma of "everyone working desperately yet canceling each other out" is by no means that people are not trying hard enough, nor that human nature has turned bad, but that the vast majority of modern institutions today have already entered a "strongly coupled business model," while we are still using the past approach of chopped-up division of labor to force the limited flesh-and-blood brains of humans to bear a highly coupled complex network.

1. Why does every coupled-state business model hit the same dead knot?

Seeing traditional management methods failing frequently today, many people easily swing to the other extreme, believing that the reductionism of the past was wrong, that bureaucracy was wrong, and that standard process management was also wrong. This view is not fair.

If we follow the thread of human historical evolution, the primary contradiction humanity faced over the past few centuries was low productivity, and the most urgent task then was to improve "efficiency" at single points. In that historical stage, the reductionism pioneered by Descartes and Newton, Adam Smith's division of labor theory, and the bureaucracy and standard operating procedures (SOP) of modern organizations pushed single-point efficiency to the pinnacle of human history. Reductionism and bureaucracy were not only not wrong back then; they fulfilled their historical mission extremely well.

But the reason the dilemma arises today is that single-point efficiency has been mined to its limit, while the business models of modern institutions have evolved into an interconnected, deeply coupled whole. The primary contradiction facing organizations has shifted from improving local "efficiency" to improving overall "effectiveness."

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The first law is horizontal spatial exclusivity. The organization's capital budget, core technical backbone, computing clusters, operating rooms, and customer channels are shared; once allocated to Task A, they cannot simultaneously be split off for Task B.

The second law is vertical barrel completeness. For any business goal to truly land and close the loop, multiple elements such as R&D, compliance, marketing, and finance must be ready at the same time, and the time when it can truly start and be completed depends strictly on the shortest stave that arrives last.

When "horizontal exclusivity" and "vertical completeness" intertwine, traditional management intuition falls into an invisible trap:

Suppose an institution is advancing two projects at the same time. Project One is a routine business; the core expert team A and the marketing support resource B it needs are all ready today, and with just three days of input it can go live and generate cash flow; Project Two is a strategic key project with extremely high priority; it also needs that same core expert team A, but it additionally needs to wait for an external qualification approval C, and this approval C will take at least three months to complete the process.

According to the most commonsensical rule in traditional bureaucracy—"allocate resources in order of priority": Step one, the organization first satisfies the high-priority Project Two, allocating and locking core expert team A to Project Two in advance; Step two, although Project Two has obtained core expert A, it cannot substantively advance because it lacks approval C, and this most precious group of experts can only wait idle in Project Two for three months; Step three, Project One, which could have closed the loop and cashed out today, is forced to halt and wait because core expert A is locked up; Step four, both projects are dragged to be handled in a pile three months later.

The project that can only meet completeness conditions later occupies shared resources early; while the project that could have closed the loop and produced output earlier is instead forced to wait for far-off resources. This is cross mismatch of supply and demand.

Following this simplest coupling model downward, the five-layer chain reaction that plagues every coupled-state organization clearly emerges:

Simply equating "importance" with "occupying resources early" will objectively create a structural deadlock in which "things that should have been accomplished early are delayed, while things that should have waited instead take up the path."

The KPI conflicts among departments are not at all subjective departmentalism or clashes of stance; they are physical couplings that interlock along a shared resource network. Subjective clashes of stance can be resolved through meetings and communication and compromise, but objective physical couplings cannot be resolved through meetings and compromise.

When core resources are occupied by some and left unused, while there is a shortage of people to do work that could be accomplished, managers will inevitably step in. However, the human carbon-based brain's working memory can handle only 4±1 independent variables simultaneously; natural language is strictly one-dimensional and linear (with a transmission bandwidth of less than 50 bits per second). When managers try to use one-dimensional meeting minutes to intervene in a three-dimensional coupled network with dependencies more than a dozen layers deep, not only will high-dimensional relationships be largely lost in transmission, but also, when you reach in to revive this one local part before your eyes, the dozens of invisible chains of association behind it will collapse in a chain reaction like dominoes.

This cross mismatch occurs simultaneously at three levels: monthly strategy, weekly tactics, and daily frontline execution. When execution at the bottom slips, the data aggregated into top-level reports and big screens loses accuracy at the source.

An institution with a scale of tens of billions of yuan, every year because of this mutual cancellation of internal forces, wastes hundreds of millions or even more than a billion yuan in net profit on expediting costs, idle resources, loss of effective output, and delay and breach of contract.

Once we see this physical process clearly, we can loosen the bonds on ourselves and those around us: even if we hired all the smartest people in the world into the company, as long as they are still made to rely on carbon-based flesh brains and one-dimensional meetings and spreadsheets for manual coordination, it would absolutely not be possible to calculate it all. This is precisely the fundamental reason why the whole society today so urgently calls for AI and for silicon-based computing power.

II. The puzzle pieces found by pathfinders over the past decades are all correct; all that is missing is a bridge that completes the closed loop

Looking back over the past decades, a group of Chinese scientists, entrepreneurs, and industrial scholars truly rooted in reality had long perceived the bottleneck of traditional departmentalized management under coupled business models, and in their respective battlefields they explored extremely valuable breakthrough principles.

Why is it that the directions they pointed out were correct, yet many later followers still stumbled when imitating and learning? Because complex coupled systems have severe computational irreducibility—standing outside and observing, one always sees only partial cross-sections; only by personally diving into the mire and running the closed loop of millions of nodes through once will the complete structure emerge in one's mind.

Today, when we look back from the complete structure of a hundred-billion-level coupled network that has run fully automatically in a closed loop for 18 consecutive years, we can clearly see: each of them accurately identified a key puzzle piece of the future "intelligent organization":

Scientific master plan: Mr. Qian Xuesen and Academician Guo Lei. Mr. Qian pointed out that when facing open complex giant systems, one must take the path of "meta-synthesis from qualitative to quantitative" and establish an overall design department and great wisdom. Academician Guo Lei clarified that systems science is "the science of science (meta-science)." These two scientists fixed the endgame structure at the highest level.

Hardcore manufacturing: Wang Chuanfu, Zeng Yuqun, Zhang Rujing, and Liang Mong Song. BYD's Wang Chuanfu brought strongly coupled links into the same system through vertical integration and established a cross-disciplinary shared "technology fish pond" to eliminate boundary friction; CATL's Zeng Yuqun vigorously promoted "extreme manufacturing," pushing the defect rate toward one in a billion and proving that full-link real-time perception and closed-loop algorithm control must be used to lock down process fluctuations; in the chip field, Zhang Rujing and Liang Mong Song proved that in ultra-long causal chains, there is absolutely no such thing as "single-point departmental optimum" detached from global constraints.

Organizational collaboration: Ren Zhengfei, Zhang Ruimin, and Zhang Yiming. Ren Zhengfei moved the power to perceive and pull resources forward to the front line; Zhang Ruimin used "human-unit integration" to eliminate the cancellation of internal forces; Zhang Yiming advocated "provide context, not control." All of these precisely grasped the key to reducing the loss of cross-brain communication.

Digital insight: Wang Jian, Zeng Ming, and An Xiaopeng. They pointed directly at the core of complex system governance—human beings must exit the cumbersome first-order calculation loop, realize "humans outside the calculation loop," and use the automatic flow of data to dissolve uncertainty.

How can we build the engineering bridge across the river beneath the feet of these pathfinders? The method is actually very pure: on the premise of not affecting the delivery dates promised for high-priority long-term goals, use algorithms to dynamically swap shared resources that were occupied and left idle early to projects that can complete a closed loop with full kits right now. Build this "cross-period resource swap" mechanism on the five-dimensional foundation of point, line, boundary, state, and change, and the pursuits of all practical achievers over the past decades can meet seamlessly on this bridge.

Since we need to rely on silicon-based computing power to compensate for the limits of the human 4±1 flesh brain, we need to clarify: what exactly is AI?

Any system that uses silicon-based computing power to compensate for the limits of human cognitive bandwidth and completes perception, inference, and decision control in complex spaces is AI. EDA, which arranges tens of billions of transistors in chip design, CAE, which performs physical simulation in engineering, and solvers in operations research are all engineering AI that upholds modern civilization.

And at the top of this AI landscape, when we reduce open complex giant systems to five-dimensional manifolds, calculate 2 million strongly coupled nodes through in one go within a few minutes, and maintain more than 95% "humans outside the loop" closed-loop operation for 18 consecutive years in a hundred-billion-level industrial network—this kind of AI that can thoroughly calculate open complex giant systems through is precisely the most complex system-level AI humanity has built to date.

Having clarified the panoramic picture, let us now look at why large language models (LLMs) have become smarter:

From the perspective of mathematical structure, the mechanism of LLMs is still "one-dimensional linear word-by-word probability generation." Early models were prone to distortion because they tried to jump directly from A to B in large steps, and the large number of implicit constraints in between would be lost. Today's large models have learned the method of "approximating curves with straight lines" from calculus—they shorten the reasoning step length to an extreme, turning it into continuous micro-step advancement, one small step at a time. Countless tiny steps linked together can trace an extremely smooth curve on the surface of a complex manifold. More importantly, they compress hundreds of years of human literature in full into the same high-dimensional space, enabling barrier-free "cross-domain" work.

When a person who has closed the loop in practice and holds a complete three-dimensional structure in their mind works in collaboration with a large language model: the human provides insight into the essence, defines the problem, and builds the overall skeleton; the large language model follows the skeleton to conduct interdisciplinary retrieval, micro-step reasoning, and fill in the blanks. Human cognitive bandwidth is instantly amplified hundreds or thousands of times.

Once we understand these things, we can avoid four structural pitfalls in the current industry's application:

Prioritizing huge investment in building a top-level "visualized control tower big screen." Without a downward hard reverse-writing control channel, the big screen will only degenerate into an open-loop rearview mirror for display functions.

Relying on "cross-departmental committee voting" or "business writes documents, IT writes code" to design architecture. Multi-party compromise makes it difficult to derive globally logically self-consistent rules, and verbal transmission will inevitably cause loss of high-order coupling relationships.

Following the underlying structure, a complete puzzle of mutually empowering silicon-based tools emerges clearly: large language models serve as cross-domain cognitive exoskeletons and front-end semantic interaction; statistical machine learning serves as local prediction probes; operations research solvers and professional software perform decoupled local extremum calculations; knowledge graphs and databases manage the static ledger. Finally, the five-dimensional complex giant system governs the AI stationed at the core, and through a lock-free concurrent architecture, completes global orthogonal decoupling and instruction reverse-writing of millions of nodes within milliseconds.

IV. Adjust the HR and staffing system, find and protect the organization's "load-bearing walls"

When the silicon-based tool matrix takes over daily calculations, the most important question in the organization returns to people: what kind of people should those who remain outside the loop to define problems, build structures, and hold the steering wheel be?

Traditional HR systems measure people with only one ruler—whoever maximizes local KPIs gets the largest bonus. This leads to two types of people gaining power: "first-order test-takers" who keep their heads down and slam the accelerator, and "refined egoists" who see through gaps in the rules and engage in local arbitrage. Meanwhile, those who point out hidden system risks are instead easily marginalized.

Today, when silicon-based computing power compensates for first-order problem-solving, what organizations truly lack are five-dimensional mental talents who can jump out of the chessboard to examine the problem and redefine problems and structures: the fine hairs on the skin (residual sensitivity), the brake pads in the heart (embodied baseline damping), the old scars in the body (emotional cache), the new abacus in hand (fluid intelligence), and the eyes looking up at the sky (second-order metacognition).

In more than twenty years of practice, I have deeply felt a fact: people who truly have rigid brake pads in their hearts and second-order metacognition above their heads often do not, at their core, value money that much.

Because if he were to commit fraud in order to obtain a large bonus, his body would produce real pain and unease, and he could not take benefits that violate the baseline; while a person with high-order metacognition derives his highest pleasure from penetrating appearances to see the laws clearly and personally building clean, self-consistent structures. Such people are the "load-bearing walls" on which the organization truly depends for survival amid raging storms.

To move toward a wisdom organization, the HR system needs to complete three fundamental adjustments:

Shift of focus: from "using bonuses to stimulate test-takers" to "identifying load-bearing walls who can hold the baseline and redefine problems."

Cultivate the soil: give them a protective umbrella against exclusion by vested interests, as well as complete definition rights.

V. What a true wisdom organization is, and the five operating laws that sustain it endlessly

We named it a "wisdom organization" because the original starting point of any organization has never been machine code, but the first survival boundary drawn by humans; while "intelligence" merely means that silicon-based tools calculate quickly. Only by orthogonally fusing "carbon-based baseline and metacognition" with "the computing power compensation of the silicon-based tool matrix" can it truly deserve what Mr. Qian Xuesen called "great wisdom."

Combined with 18 years of closed-loop empirical evidence in a hundred-billion-level network, the wisdom organization operates stably according to the following five basic laws:

Single-brain constitution-making and multi-brain co-governance: during the 0-to-1 creation period, the chief designer completes a logically self-consistent "single-brain constitution-making"; during the 1-to-N operation period, the perception end opens to all employees, the first 1/2 tactical plan sets quota guardrails, and the latter 1/2 operational execution grants frontline autonomy.

Dual diagnostic mechanism: trace backward along the causal lineage chain. Local delays are judged as "the world has deviated," and the silicon-based engine performs first-order self-healing; when drastic changes make the rules unsolvable, it is judged as "the model is wrong," and the carbon-based load-bearing wall is awakened to rewrite the underlying rules.

Reverse foundation-building and the medical school model: strategy governs from top to bottom, and capabilities sink from bottom to top to the atomic-level resource batch. Transformation empowerment adopts a mentoring model, helping the organization cultivate its own teams that understand both business and algorithms, possessing lifelong self-sustaining anti-entropy capability.

Dual-leader system resonating in the same direction: the top leader (administrative commander-in-chief) sets the direction and grants authorization; the chief designer (load-bearing wall) builds the structure and runs the closed loop. The two superimpose without any angle between them, dissolving the immune resistance to organizational change.

The long dark night stems from the fact that we once had to use limited flesh-and-blood brains to fight infinite complexity within the chopped-up old grids; but when we use large language models to expand cognition, use five-dimensional system AI to take over the underlying closed-loop calculations, and let those who can hold the baseline and are not solely profit-driven stand steadily on the organization's load-bearing walls, the dawn belonging to the wisdom organization has already shone into reality.

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TMTPost · AGI