Ai4
Enterprise AI projects collapse primarily from undefined success metrics, diffused ownership, and poor data quality rather than flawed mathematical modeling.
AI-assisted summary of Shoot for the Target, Not the Stars With Fancy Quant — original source. Check the original for full context.
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## Background Published on YouTube by Ai4 on August 26, 2025, this talk features Dimitri Bianco, Quant Founder at Fancy Quant. The session explores why organizations overspend on AI and machine learning initiatives with disappointing returns, outlining strategies to achieve small wins and establish modeling as a permanent core competency.
## TL;DR Dimitri Bianco examines why 70% to 85% of enterprise AI and machine learning initiatives fail to achieve positive ROI, attributing these breakdowns to flawed planning, communication chasms, inadequate data quality, and skill mismatches. He warns against multi-year monolithic automation traps and hollow vendor promises, urging leaders instead to target high-leverage, bite-sized wins such as using LLMs for regulatory model documentation. To succeed, organizations must establish single-threaded ownership across the entire modeling pipeline, respect the foundational dimensions of data quality, and invest in continuous employee education. Ultimately, transforming AI into a sustainable business driver requires a disciplined 'crawl, walk, jog, run' progression backed by technical rigor, validation governance, and clear business alignment.
## Atmosphere & style The presentation carries a pragmatic, refreshingly candid tone delivered with the hard-won perspective of an experienced quantitative practitioner cutting through modern corporate hype. Bianco uses sharp, relatable war stories—from exposing vendor consulting traps to recounting textbook-laden backpacks—to ground theoretical management concepts in real-world friction. The talk feels like an urgent yet constructive wake-up call, balancing frank critiques of organizational dysfunctions with methodical, empowering guidance for practitioners and executives alike.
## Key takeaways - [00:04](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=4s) AI and machine learning initiatives face a staggering 70% to 85% failure rate, primarily driven not by technical non-completion but by poor economic ROI, budget blowouts, and schedule overruns. - [00:04](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=4s) Chasing the latest LLM hype for every enterprise use case is counterproductive; successful teams match the right quantitative and AI tools to specific business problems. - [01:55](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=115s) Planning collapses when executives issue vague mandates without defining success metrics upfront and when teams underestimate the triad of time, internal skills, and infrastructure. - [04:12](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=252s) Organizations achieve higher ROI by decomposing workflows into bite-sized, high-leverage tasks (such as automating compliance dossiers) rather than pursuing monolithic, multi-year model automation moonshots. - [06:03](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=363s) Enterprise AI initiatives frequently 'die quietly' across departmental silos when single-threaded ownership is absent and shifting dependencies slip unmonitored. - [07:42](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=462s) Beware of vendor software traps that disguise expensive consulting engagements as turnkey tools, and never build models in an engineering silo without operational and end-user stakeholders. - [09:45](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=585s) Communication breakdowns are symmetrical: executives struggle to provide actionable business context, while technical teams often overwhelm stakeholders with mathematical jargon rather than validating core assumptions. - [12:11](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=731s) Conflicting internal definitions of deadlines and punitive blame cultures for technical setbacks destroy team morale and derail long-term AI capabilities. - [13:36](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=816s) Standard software methodologies like Agile often create friction when applied strictly to iterative, hypothesis-driven quantitative research. - [14:14](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=854s) Massive data volume cannot compensate for poor quality or lack of predictive signal; advanced algorithms and synthetic data techniques cannot replace foundational data readiness. - [16:09](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=969s) Retaining top-tier quantitative and AI talent requires providing intellectually engaging work and dedicated working hours for continuous learning in a fast-evolving field. - [17:46](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=1066s) Sustainable AI ROI follows a disciplined 'crawl, walk, jog, run' progression that embeds modeling, validation governance, and business alignment as permanent core competencies.
## Detailed walkthrough ### [00:04](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=4s) The Reality of AI Project Failures and LLM Hype
Dimitri Bianco opens by introducing his background in quantitative finance, framing the term "quant" for the audience. In Wall Street lore and Hollywood depictions, quants are the individuals brought into trading floors to build the underlying mathematics, statistical tests, and models. In modern tech parlance, that translates directly to machine learning engineers, AI engineers, and quantitative researchers. While the broader tech and conference circuit remains fixated on large language models (LLMs), Bianco urges attendees to take a step back and recognize that artificial intelligence spans a vastly wider landscape of tools. Chasing LLMs for every enterprise problem is akin to relentlessly "hammering the square peg" into a round hole, inspiring the session's theme: "Shoot for the target, not for the stars."
```mermaid flowchart TD accTitle: Tech vs AI Project Failure Rates and Root Causes subgraph Rates["Failure Rates"] TP["Standard Tech Projects<br/><b>25% – 50% Failure</b>"] AP["AI / ML Projects<br/><b>70% – 85% Failure</b>"] end
subgraph Drivers["Core Drivers of Failure"] P["Poor Planning & Vague Goals"] O["Diffused / Missing Ownership"] C["Two-Way Communication Breakdown"] R["Resource & Skill Misalignment"] end
Rates --> Drivers ```
While standard software and enterprise tech projects already carry a high failure rate of 25% to 50%, AI initiatives experience an alarming failure rate between 70% and 85%. Crucially, Bianco clarifies that "failure" does not simply mean a team abandoned a project before crossing the finish line. Rather, it is fundamentally a failure of return on investment (ROI). Delivering a model or pipeline that had a $500,000 budget and a set deadline by spending $2 million is an operational completion, but an economic catastrophe. These breakdowns consistently trace back to four interconnected fundamentals: planning, communication, data, and skills.
- Typical enterprise technology project failure rate: 25% to 50%. - AI and machine learning initiative failure rate: 70% to 85% (measured primarily by poor ROI and massive cost/schedule overruns). - The four recurring failure pillars: planning, communication, data, and skills.
---
[01:55](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=115s) Planning Pitfalls: Vague Goals, Vanishing Ownership, and Resource Miscalculations
Proper planning is the foundation of project viability, yet executives frequently return from industry events dazzled by emerging tech, demanding that teams immediately "build me AI" without identifying a coherent business problem or a measurable use case. Even when models are successfully trained and deployed to production, business stakeholders often gripe that the project fell short simply because nobody bothered to define success metrics at the outset. When expectations are not anchored to clear numbers from day one, even technically sound systems are branded as failures.
```mermaid flowchart LR accTitle: The Resource Triad for AI Initiatives subgraph Resources["The Resource Triad"] direction TB T["<b>Time</b><br/>Almost universally underestimated"] P["<b>People</b><br/>In-house skill gaps & learning curve"] Tech["<b>Technology</b><br/>Infrastructure & vendor patchwork"] end
Requirements["Vague Executive Mandate"] --> Resources Resources --> Risk["Slipped Deadlines & Scope Creep"] ```
A major contributor to planning collapse is the failure to properly map the resource triad: time, people, and technology. Bianco highlights that teams almost universally misjudge the time component of an AI roadmap because unforeseen technical hurdles, data hygiene issues, and infrastructure roadblocks inevitably surface. Furthermore, organizations frequently fall victim to vendor sales pitches promising plug-and-play AI platforms that will magically solve every enterprise issue, only to discover midway through execution that they lack both the appropriate data architecture and the internal personnel required to operationalize the software.
- Success definitions must be established prior to development; hitting technical milestones means nothing if the business unit had unspoken, unmeasured expectations. - Project ownership must clearly delineate who owns the delivery, who owns the success metrics, and who owns the downstream business integration. - The time required for model delivery is almost guaranteed to be underestimated due to hidden technical and infrastructural hurdles.
---
[04:12](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=252s) The Multi-Year Automation Trap vs. Bite-Sized Wins
To illustrate the danger of over-ambitious planning, Bianco shares a cautionary war story from a major financial firm. Long before the recent explosion of generative AI, leadership launched a massive initiative intended to completely automate the quantitative model development lifecycle and eliminate the need for manual development workflows. The organization spent five to seven years and fortunes of capital pursuing this grand vision. The endeavor ended abruptly when a incoming CEO reviewed the astronomical spend, saw negligible return, and grew furious at the squandered resources. The fundamental error was that executive leadership treated complex quantitative modeling as a trivial, single-step procedure rather than an intricate, iterative discipline involving hypothesis testing, high-dimensional statistical exploration, and continuous validation.
```mermaid flowchart LR accTitle: Monolithic Automation Trap vs. Bite-Sized Documentation Win subgraph Failed["The Flawed Giant Bet"] M1["Automate Full Model Development"] --> F1["5–7 Years & Fortunes Spent"] --> F2["Executive Backlash & Cancellation"] end
subgraph Successful["Bite-Sized Strategic Win"] S1["Quant Writes 1,000–2,000 Lines of Code"] --> S2["LLM Formats Scrappy Notes to Template"] --> S3["Generates 70–80 Page Regulated Dossier"] end ```
In contrast to monolithic moonshots, Bianco champions decomposing problems into bite-sized, high-leverage workflows. For example, quants at major banks routinely write 1,000 to 2,000 lines of complex code, perform statistical distributions checks, and navigate high dimensionality, but they are also burdened with regulatory documentation. Because banking is an intensely regulated industry, a single model dossier can run 70 to 80 pages long. Forward-thinking institutions now task LLMs with ingesting an engineer's running notes and draft outputs, reformatting that information directly into compliance-approved templates for human review. Choosing targeted operational friction points over sweeping, vague aspirations like "improve customer experience" produces tangible, high-ROI outcomes.
- Monolithic planning failure: A multi-million-dollar, 5-to-7-year initiative aimed at automating entire model development workflows was shut down after failing to recognize the real-world complexity of the discipline. - Practical application: Highly regulated banks require 70 to 80 pages of model documentation; using LLMs to convert code annotations into standard reporting templates automates a massive operational bottleneck. - Broad corporate slogans like "improve customer experience" lack mechanistic problem definitions and cannot serve as actionable engineering targets.
---
[06:03](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=363s) The Silent Death of Projects and Diffused Accountability
When ownership is left unassigned, even minor project frictions rapidly devolve into interdepartmental feuding. When a model stalls or data lags, teams reflexively point fingers: data engineering blames IT infrastructure, quants blame low-quality input data, and business leaders blame the technical teams for missing delivery dates. These disputes arise not from insurmountable technical obstacles, but because no single party is held accountable for tracking milestones and driving cross-functional alignment. The resulting administrative friction burns out staff, spawns endless status meetings, and wastes months of corporate investment.
Bianco points out that an alarming number of enterprise AI projects do not fail with a bang—they simply "die quietly." An enthusiastic leader rallies a technical team around an AI concept, but progress halts when the data department estimates a three-to-four-month turnaround to provide the necessary tables. As corporate priorities inevitably pivot, the data team sidelines the ticket, and the quantitative team deprioritizes the model while waiting in limbo. Months later, during an executive or board review, leadership asks for an update on the flagship initiative, leaving managers scrambling to explain why the project evaporated without anyone formally raising an alarm.
```mermaid flowchart TD accTitle: How Projects Die Quietly Across Silos A["Lead Gets Excited & Launches AI Initiative"] --> B["Data Team Requests 3–4 Months for Pipeline"] B --> C["Corporate Priorities Shift"] C --> D["Data Team Silently Drops Extraction"] D --> E["Quant Team Shelves Model Indefinitely"] E --> F["Board Inquires on Delivery Status Months Later"] F --> G["Mad Scramble to Justify Project Disappearance"] ```
- Diffused ownership breeds inter-departmental blame games over data quality, computing power, and scheduling delays. - "Quiet project deaths" occur when dependency timelines stretch out, secondary teams shift focus, and nobody retains explicit responsibility to push deliverables across organizational silos. - Rigorous project management and transparent single-threaded ownership are essential to prevent initiatives from languishing in limbo.
---
[07:42](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=462s) Vendor Tool Traps, Self-Learning Curves, and Departmental Blind Spots
Walking through conference exhibition floors reveals vendor booths uniformly claiming their proprietary AI software can resolve any corporate ailment. Bianco recounts a telling conversation with a vendor rep: after explaining he was an independent practitioner without a company to sell to, the vendor insisted they could still help him. When pressed on what their product actually did, the vendor simply answered, "We do AI." When Bianco asked what that meant in practice, the vendor explained that they would come in, review his operations and data, identify his business problems, and then build a bespoke system—an engagement Bianco observes is just an extraordinarily expensive consulting assignment disguised as enterprise software.
Attempting to assemble modern architectures by stitching together best-of-breed vendors—combining disparate platforms for data management, cloud infrastructure, and project tracking—often results in an unmaintainable patchwork. Bianco emphasizes that external tooling must be balanced against the internal learning curve. When foundational models rapidly shift (such as moving through successive generations of frontier models like ChatGPT), organizations cannot assume their developers will assimilate the new paradigms overnight. Furthermore, building in an engineering vacuum without operational stakeholders is fatal; bringing an operations team into the room only after a model is built inevitably surfaces practical reasons why the tool cannot be deployed in production.
- Beware of ambiguous vendor claims that masquerade expensive, open-ended consulting engagements as turnkey software platforms. - Complex vendor stacks create severe integration headaches when organizations attempt to patch disparate infrastructure, data, and tracking suites together. - Technological transitions carry a steep internal self-learning curve; technical staff cannot instantaneously adapt to major AI paradigm shifts. - Cross-functional inclusion is mandatory: leaving operations or end-users out of initial design reviews guarantees that downstream teams will reject the finished tool due to real-world edge cases.
---
[09:45](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=585s) Bridging the Communication Chasm and Respecting Model Assumptions
Communication within an AI initiative is a two-way street that frequently breaks down on both sides. Executive leaders frequently complain that their data scientists and engineers fail to articulate essential project status updates in clear business language. However, Bianco notes that executives rarely evaluate their own communication toward the technical staff. When technical leads conduct multi-hour presentations dense with mathematical theory, business leaders leave baffled; conversely, when executives present high-level business logic that seems crystal clear to them, engineers often walk away struggling to understand why the feature is necessary or how it translates into architectural requirements.
```mermaid flowchart LR accTitle: Two-Way Communication Chasm Between Business and Tech subgraph Business["Business & Executive Leadership"] B1["High-Level Strategy & Commercial Needs"] B2["Frustration with Mathematical Jargon"] end
subgraph Technical["Quant & Engineering Teams"] T1["High-Dimensional Math & Statistical Validation"] T2["Frustration with Vague Functional Specs"] end
Business <-->|"Must Translate Assumptions & Constraints"| Technical ```
Beyond vocabulary mismatches, communication breakdowns around data infrastructure, skill sets, and model assumptions pose severe risks. Bianco draws a direct parallel to the 2007–2008 global financial crisis: quantitative models collapsed not because the math was inherently defective, but because the real-world assumptions baked into those models broke down. Market participants were chasing profits while the lines of communication regarding underlying systemic risks went silent. In enterprise settings today, similar breakdowns occur when leadership overpromises internal capabilities, forcing companies to scramble for expensive emergency contractors when the technical staff hits an architectural wall.
- Communication failures are symmetrical: non-technical managers struggle to convey actionable context, while technical quants overwhelm stakeholders with four-hour mathematical deep dives. - Parallels to the 2007–2008 financial crash: models failed because underlying operational and statistical assumptions were ignored while departments prioritized short-term financial gains over risk transparency. - Unvetted skill assessments cause severe budget overruns when teams overpromise on AI expertise and must later hire expensive outside consultants to salvage execution.
---
[12:11](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=731s) The Three Definitions of a "Deadline" and the Culture of Failure
Organizational culture determines how AI initiatives navigate schedules, setbacks, and technical friction. Bianco shares an experience at an enterprise plagued by conflicting internal semantics, where different departments operated under three distinct definitions of a "deadline": 1. *The Nice-to-Have Date*: A soft target where missing the cutoff (e.g., January 5th) carried no urgency or operational consequence. 2. *The Do-or-Die Commitment*: Bianco’s personal quant camp, which viewed the agreed date as an inviolable, non-negotiable operational necessity. 3. *The Rolling Negotiation Point*: A flexible marker treated merely as an invitation to convene a meeting as the date approached to negotiate a later timeline.
```mermaid flowchart TD accTitle: Three Conflicting Definitions of a Deadline subgraph CultureGap["Cultural Alignment Breakdown"] D1["<b>Definition 1: Nice-to-Have</b><br/>Missed dates carry no consequence"] D2["<b>Definition 2: Do-or-Die</b><br/>Absolute commitment to ship on schedule"] D3["<b>Definition 3: Rolling Negotiation</b><br/>A marker to reschedule as it nears"] end
CultureGap --> Fail["Total Timeline Collapse & Executive Disillusionment"] ```
When disparate corporate divisions collaborate with conflicting understandings of a deadline, overall project failure is preordained; teams are simply floating arbitrary numbers without shared accountability. This cultural dysfunction extends directly to how organizations process technical failure. When leadership assembles an eager team to build an ambitious AI solution, but starves them of adequate infrastructure, clean data, realistic budgets, or properly scoped timelines, the initiative inevitably stalls. If leadership responds by simply declaring the project an embarrassment and blaming the engineering staff, it destroys team morale and sabotages the organization's broader, long-term AI capabilities.
- Conflicting operational definitions of deadlines (soft target vs. hard cutoff vs. renegotiation point) undermine cross-departmental delivery and guarantee project slip. - Punitive responses to project setbacks overlook systemic corporate shortcomings—such as poor data provisioning, insufficient headcount, and unrealistic budgets. - Treating technical failures as individual engineering shortcomings rather than systemic planning deficiencies breeds an organizational culture of risk-aversion and employee burnout.
[13:36](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=816s) Company Culture, Process, and the Friction of Agile
Retaining top talent is impossible if the internal environment is broken. Drawing a parallel to Meta's aggressive recruitment efforts, throwing a roster of industry "all-stars" together onto one team does not guarantee success if there is no unified culture or alignment on shared expectations. When high-caliber professionals come from diverse organizational backgrounds, establishing cohesion is an immense hurdle that leadership must actively address.
Beyond high-level culture, daily processes dictate team morale and productivity. Addressing the standard development workflows used in the software world, Dimitri shares his candid aversion to Agile methodology: "I hate agile. I'm sorry if you're in tech. I can't do it." While acknowledging that some exceptional tech teams thrive under Agile frameworks, he emphasizes that it often clashes with research-driven quant workflows. Equally critical to team sustainability is meaningful recognition: establishing genuine practices for acknowledging hard work, celebrating milestones, and treating contributors with respect.
[14:14](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=854s) Data Reality: Why Volume Doesn't Equal Value and AI Can't Build Without Materials
Without the right data, building effective models is impossible. Dimitri recalls an engagement at a firm where he implemented a straightforward logistic regression to solve an operational challenge. Leadership pushed back, asking, "Why isn't this an AI solution? Why isn't this an XGBoost model?" The reality was simple: the firm lacked both the data volume and data quality required to support a complex machine learning architecture.
To evaluate data readiness, Dimitri relies on the Six Sigma dimensions of data quality: accuracy, completeness, consistency, timeliness, validity, uniqueness, integrity, and reliability. He cautions against the belief that mathematical shortcuts can compensate for missing fundamentals. There is no automated AI tool or kernel density estimation technique capable of generating synthetic data that magically yields a top-tier model. Dimitri compares this misconception to physical construction: "You can't expect a home builder to build a house if they don't have the materials." Furthermore, firms often brag about having 10 million records, 100 million records, or four terabytes of storage, but massive datasets are useless if they contain redundant records and lack unique, predictive signal.
[15:30](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=930s) The End-to-End Modeling Pipeline and Ownership
Effective model implementation requires structuring the entire lifecycle into an interconnected, iterative pipeline. The process must originate with the business units clearly defining the core problem. That specification passes to data engineering to source and prepare inputs, moves to model development teams to engineer the algorithms, proceeds to model validation teams for rigorous risk management testing, and transitions to tech teams for deployment, before looping back to the business for continuous feedback.
```mermaid flowchart LR accTitle: End-to-End Quantitative Modeling Pipeline subgraph S1["Problem & Ingestion"] A["Business Problem Definition"] --> B["Data Engineering"] end subgraph S2["Development & Validation"] B --> C["Model Development"] C --> D["Model Validation & Risk"] end subgraph S3["Production & Loop"] D --> E["Tech & Implementation"] E --> F["Business Feedback Loop"] F -.-> A end ```
Establishing strict, unambiguous ownership across each link in this chain allows organizations to pinpoint operational bottlenecks immediately and resolve friction before projects stall.
[16:09](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=969s) Talent Retention and Making Time for Continuous Learning
Acquiring and retaining elite quantitative and research talent requires more than financial incentives. While large tech firms frequently attempt to lure talent by throwing money at candidates, sustainable retention hinges on intellectual fulfillment. Model developers and quantitative researchers often value stimulating research projects and opportunities to expand their skill sets far more than an extra $5,000 or $10,000 in base compensation.
Fostering an authentic learning environment requires dedicated time, not superficial gestures. Dimitri shares an anecdote about a previous employer that purchased a collection of reference books, placed them on an office bookshelf, and expected the team's skills to improve autonomously:
- Leadership later complained that nobody was reading the books, even accusing Dimitri of ignoring them. - Dimitri opened his backpack to reveal six technical textbooks he was actively carrying around. - He explained that the team was given zero dedicated bandwidth during the workday to study because leadership was constantly rushing them to meet tight deadlines in pursuit of short-term ROI. - Dimitri points out the impracticality of this approach in a fast-moving AI landscape: an engineer who graduated in 2010 cannot be expected to master 2025 generative AI and LLM architectures if the organization allocates no working hours for continuous education.
[17:46](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=1066s) Crawl, Walk, Jog, Run: Making Modeling a Core Competency
Achieving a positive return on AI and ML investments requires disciplined progression: an organization must learn to crawl, then walk, then jog, before it can ever run. Too many enterprises attempt to bypass the fundamentals entirely, aiming to sprint a marathon with minimal internal talent, inadequate data readiness, and an over-reliance on third-party vendor tools.
To avoid falling into the industry benchmark where 70% to 85% of AI/ML projects fail to reach completion, businesses must integrate modeling as a permanent core competency. This requires unifying three key pillars into everyday operations: - **Technical Execution**: Grounding model development in appropriate, high-quality data rather than buzzwords. - **Governance & Risk Management**: Establishing rigorous model validation protocols. - **Business Alignment**: Ensuring business stakeholders properly scope problem definitions and provide active feedback.
## Notable quotes > [00:04](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=4s) Shoot for the target, not for the stars. — Dimitri Bianco
> [01:55](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=115s) build me AI — Dimitri Bianco
> [04:12](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=252s) improve customer experience — Dimitri Bianco
> [06:03](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=363s) die quietly — Dimitri Bianco
> [07:42](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=462s) We do AI. — Vendor Representative
> [13:36](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=816s) I hate agile. I'm sorry if you're in tech. I can't do it. — Dimitri Bianco
> [14:14](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=854s) Why isn't this an AI solution? Why isn't this an XGBoost model? — Corporate Leadership
> [14:14](https://www.youtube.com/watch?v=0xC6tmtyDr8&t=854s) You can't expect a home builder to build a house if they don't have the materials. — Dimitri Bianco
## Mentioned Dimitri Bianco, Fancy Quant, Ai4, Wall Street, ChatGPT, Meta, XGBoost, Six Sigma
## Video description Dimitri Bianco, Quant Founder, Fancy Quant
Abstracts
Are you spending too much money on AI/ML initiatives only to fall short on generating meaningful solutions? Generating positive ROI on AI/ML is all about building core competencies and getting small wins. Many firms are chasing the AI hype without clear goals or paths to get meaningful results. I will provide insights on getting small wins and how to build AI as a core part of the business instead of a special project.
[Source](https://www.youtube.com/watch?v=0xC6tmtyDr8)