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From 10 Terabytes to Zero Parameter: The LLM 2.0 Revolution��Vincent Granville, PhD�Chief AI Architect �BondingAI.io�vincent@BondingAI.io� �February 16th, 2026

No-GPU Full Context Secure Multi-LLM

with Real-Time Fine-Tuning & Explainable AI�

MLtechniques.com – xLLM, by Vincent Granville

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Agenda�

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  1. Why xLLM? What is it?
  2. xLLM Innovative Features
  3. xLLM Architecture and Evaluation
  4. Agents & Case Studies

- Text Clustering, Categorization

- Data Synthesis (best synthetic data + eval)

- Predictive Analytics

- Anomaly Detection

- Medical Data (ECG compression, patterns)

  • No-Blackbox DNNs & Alternatives
  • References

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Part 1�Why xLLM? �What is it?��

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Extreme LLM (xLLM) in a Nutshell

  • Mixture of experts
      • Specialized sub-LLM and/or sub-LLMs for authorized users
      • LLM router to manage the sub-LLMs
      • User selects sun-LLM, agents, and hyperparameters
      • Each sub-LLM built with its own taxonomy and contextual environment

  • No neural network, no training
      • Thus, low cost, easy to fine-tune in real-time, in-memory LLM, on-premises
      • Self-tuned based on favorite hyperparameters, intuitive parameters
      • No GPU, no latency, exhaustive concise results, local implementation
  • Concise results
      • Multiple sections: links, related content, x-embeddings based on E-PMI metric
      • Output with relevancy score attached to each item in each section; User offered choices for deeper or alternate queries
      • Great for professional users. Not just a “prompt box”; many options in the UI, like a mini-browser
  • Case studies
      • Corporate datal lake corpus (AB-Inbev)
      • Nvidia PDF repository
      • Wolfram corpus: 15k webpages, 5k categories

MLtechniques.com - xLLM, by Vincent Granville

xLLM for Enterprises to build own LLMs faster, at lower cost, with increased accuracy, security, explainable AI

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Prompt Results – Card Format (web API)

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Prompt Results – Card Format (web API)

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Prompt Results – Listing Format (1)

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Prompt Results – Listing Format (2)

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Prompt Results – Structured Text Format

  • Text entities retrieved from corpus via contextual chunking / indexation
      • Blended with images, datasets, exact URLs/references and so on (multimodal)
      • Featuring categories, tags, related content, titles, timestamps, links, and so on
      • Structured output based on hierarchical chunking and multi-indexing, augmented with auto-tagging, acronyms / synonyms dictionary, and un-stemming
      • Multiple relevancy scores based on multiple types of multi-tokens, then normalized
      • Exact vs broad search, negative keywords, variable weights attached to prompt multi-tokens, search by recency.
      • Auto-correct, stemmer, stopwords specific to corpus; “real estate” or “San Francisco” are single tokens. Chunks visibility (for any given chunk) depends on user privileges.

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Prompt Results – Response Generation

  • Based on structured output (see previous slides)
    • Generic template prompts with premade auto-filled response matched against user prompts
    • Light, fast proprietary DNN, no TensorFlow, Python or Keras, explainable AI.

  • Proprietary non-Blackbox DNN with explainable AI (patent-pending)
      • With equalizer, stabilizer and other proprietary features to accelerate convergence and increase stability
      • Chaotic gradient descent with temperature decay
      • Sub-epochs, sub-layers, original universal function
      • Global optimization or one sub-layer at a time within an epoch
      • Pre-tabulated functions, generic partial derivatives

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Part 2 �xLLM Innovative Features��

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Backend Features

  • Smart crawling to retrieve embedded structure
      • Breadcrumbs (enterprise corpus), concept associations (related links)
      • Metadata, tags, taxonomy, long contextual environment
      • PDF parser (TOC, index, glossaries, synonyms, titles, tables, images)
  • X-embeddings
      • Variable-length embeddings stored as sparse nested hashes
      • Multi-token: “data~science” on top of single tokens “data” and “science”
      • Contextual token: “data^science”, both words in same paragraph but not adjacent
      • PMI (pointwise mutual information) instead of dot product / cosine distance
      • Parametric weights attached to tokens (no loss function to optimize)

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Retrieved Taxonomy: Wolfram Example

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Retrieved Context: Enterprise Example

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Backend Features (Cont.)

  • Home-made libraries
      • Issues with Python libraries (singularize, autocorrect, “Feller” changed to “seller”)
      • Minimize stemming and text transforms; keep plural if found in corpus
      • Important: accented characters, separators (punctuation), capital letters
      • Ad-hoc lists: home-made stopwords, do-not-singularize, do-not-autocorrect
  • Backend tables (specific to each sub-LLM)
      • X-embeddings not the most important table; taxonomy more important
      • Compression mechanism: sorted n-grams
      • Backend parameters

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Backend Features (Cont.)

  • Chunking & Indexing
      • Chunks called text entities: webpage, subsection (PDF), or JSON entity
      • Indexed for fast retrieval of full content, and for easy content linking
      • Chunks of variable length, hierarchical chunking and multi-index, content de-duping
      • Auto-tagging. Use relative font size and other elements to generate contextual fields. In short: font intelligence module for contextualization.
  • NLP
      • Python with workarounds + homemade
      • Weighted graph tokens: multi-tokens found in the context/taxonomy elements
      • Customized pointwise mutual information (PMI), instead of cosine similarity

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Frontend Features

  • User Interface
      • Many options, not just a prompt box. Negative search, search by tag/category/recency, exact/broad search
      • Chat mode or structured output; suggested prompts (no prompt engineering)
      • User can choose agents, sub-LLM, or fine-tuning in real time
      • End-user debugging with catch-all parameter set
  • Relevancy & trustworthiness multi-scores to rank response chunks
      • Goal: too many results to show to user prompt, which ones to display?
      • Graph tokens and multi-tokens with 2+ words: boost score
      • Text entity with 2+ multi-token intersection with prompt, get higher score
      • Rare multi-tokens get extra boost
      • Longer text entities get extra boost

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Relevancy scores

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Frontend Features (Cont.)

  • Distillation
      • If multi-tokens A~B~C and A~B have same count, show results from A~B~C, not A~B
  • Acronyms and synonyms
      • If A and B are synonyms, A in prompt but not in corpus, and B in corpus, map A to B in the prompt to retrieve B in the corpus (Goal: trying to be exhaustive)
  • Self-tuning Most popular front-end parameters used to build default parameters
  • Prompt cleanup with stopwords list / stemmer different from backend list
  • Stemming and un-stemming, auto-correct
  • Caching

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Distillation

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Proprietary JSON-based PDF Parser

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Part 3�xLLM Architecture and Evaluation��

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General Overview

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Backend: Overview

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Frontend: Overview

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Path from Prompt to Results

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Path from Crawl to Backend Tables

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Details: Indexation

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Detail: Relevancy Algorithm

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Detail: Sorted N-Grams

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Database: Nested Hashes (like JSON)

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Evaluation

  • User-based (automated)
      • Collect favorite hyperparameters chosen by users
      • Use smart grid search to set default hyperparameters based on user favorites
      • Fine-tune on one or few sub-LLMs (like LoRA) before full optimization on (say) 200 sub-LLMs. You may fine-tune all sub-LLMs in parallel.
  • Taxonomy-based (automated)
      • Pretend that the taxonomy backend table comes from external sources
      • Assign categories to webpages based on this “external” taxonomy
      • For each webpage, compare externally assigned to native category

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Evaluation (Cont.)

  • Evaluation challenges
      • We are dealing with unsupervised learning: there is no perfect output except for trivial cases
      • Quality depends on user (professional users and laymen have different criteria)
      • How do you measure exhaustivity, depth, and recency?
      • Output value versus grammatical capabilities
      • How do you integrate xLLM relevancy scores attached to each item, to evaluate output quality? No other LLM return these scores

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Taxonomy-Based Evaluation

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Part 4 �xLLM for Clustering, Data Synthetization, Predictive Analytics,�Anomaly Detection,�Medical Data��

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Interlude – Adaptive Loss Function (ALF)

  • Adaptive loss function converging to model evaluation metric
      • Boosts quality measured using model evaluation, reduces gradient descent failures

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xLLM for Data Synthesis (NoGAN with ALF)

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NoGAN Tabular Data Synthetization

  • Real data: 2 concentric circles
  • Synthesized, NoGAN synthesizer: blue dots. Constrained synthetization to keep loss above some threshold
  • As the loss function gets more granular, the synthesized data gets more similar to the real data (the training set)
  • Best evaluation metric: full joint Kolmogorov-Smirnov distance in any dimension (dimension-adjusted)

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NoGAN Base Version in a Nutshell

  • Train the “model” with training data:
      • Bin each feature separately based on empirical quantiles evenly spaced out
      • Create static multivariate bins (hyperrectangles), based on above slices
      • Let pk be the proportion of training set observations in hyperrectangle Bk
  • Generate N synthetic observations:
      • For each k, generate a count nk attached to hyperrectangle Bk

(n1, n2, n3, …) ~ Multinomial(N; p1, p2, p3, …)

      • For each k, generate nk vectors uniformly distributed on Bk

The synthetic data is the collection of the above vectors, with n1+ n2 + n3 + … = N.

MLtechniques.com - NoGAN Synthesizer, by Vincent Granville

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Why is NoGAN so fast?

  • The training set data is visited only once, sequentially, as follows.
  • For each observation in the training set:
      • Create a new static hyperrectangle if the current observation is not in any hyperrectangle built so far, and set the number of observations to 1 for that hyperrectangle
      • Otherwise increase by 1 the observation count for the corresponding hyperrectangle
  • The hyperrectangle structure is a key-value pair table
      • The key is the coordinate vector of the hyperrectangle in the feature space
      • The value is the number of training set observations in that hyperrectangle
  • Categorical features are efficiently handled with smart encoding

MLtechniques.com - NoGAN Synthesizer, by Vincent Granville

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GAN: Vendor Comparison

  • Circle dataset: all vendors rate their synthetization as excellent

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xLLM for Predictions

  • Case study – media industry
      • Predicting article performance (pageviews) based on title keywords and category
      • 4000 articles; pageview is normalized and time-adjusted
  • Evaluation and Loss function (identical)
      • Based on comparing predicted with observed quantiles, using 5 quantiles (see code)
      • Good proxy to Kolmogorov-Smirnov distance

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xLLM for Predictions – Model

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xLLM for Predictions – Category Encoding

  • Create new codes sequentially as you browse the training set.
  • Aggregate codes with few observations into bundles.
  • Create two key-value mappings. Ex:
      • Category_to_Code[‘Blog’, ‘William’] = 5
      • Code_to_category[5] = [‘Blog’, ‘William’]
  • Replace the categorical features by the newly created feature, “Code”.
  • Number of codes ≤ number of obs.

MLtechniques.com - NoGAN Synthesizer, by Vincent Granville

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xLLM for Predictions – Results

  • Observed vs predicted normalized pageview count

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xLLM for Clustering

  • Case study – media industry
      • Identifying patterns / clusters in popular articles based on title keywords
      • 4000 articles; pageview is normalized and time-adjusted
  • Methodology
      • Group multi-tokens into clusters based on a similarity metric, with hierarchical clustering and k-medoids
      • Let S(t) be the set of articles containing the multi-token t in the title
      • For each multi-token group G, the list L(G) of articles belonging to G is

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xLLM for Clustering (Cont.)

  • Similarity between two multi-tokens t1, t2

  • Remarks
      • Multi-token clusters are non-overlapping, but article clusters may overlap
      • Sklearn clustering methods require a distance matrix as input; the matrix (derived from the similarity metric) is huge but extremely sparse.
      • In my implementation, s(t1, t2) is computed and stored only if it is strictly positive. Using connected components for clustering, it is far more efficient than Sklearn.

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xLLM for Clustering – Sample Structure

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xLLM for Clustering – Sample Cluster

  • Cluster of popular articles linked to multi-token cluster with 3 elements, including one contextual multi-token: “Machine^vs” (pv stands for normalized pageview)

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Interlude – Fast Nearest Neighbor Search

  • Red dot: prompt-derived embeddings
  • Blue dot: backend table embedding
  • Over time, arrows link red dots to their nearest blue dots
  • Alternative to vector search

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xLLM for Anomaly Detection (Cybersecurity)

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  • Automatically Excel doc processing
  • Multiple tabs per spreadsheet
  • Automated SQL queries joining fields across multiple tabs
  • Time series and geospatial output
  • Automated flagging
  • Animated US maps

- colored zip codes to show risk level: green, red, orange

- one video frame per time unit

- dot size represents fraud intensity (volume)

  • Data source: click logs / web logs

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xLLM for Anomaly Detection – Animated Map

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xLLM for Anomaly Detection – Gif version

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xLLM for Anomaly Detection – Hourly Data

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xLLM for Medical Data – Compression

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xLLM for Medical Data – Sample ECG

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  • Source: PhysioNet.org

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xLLM for Medical Data – Pattern Analysis

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Part 5 �No-Blackbox DNNs�and Alternatives��

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Proprietary DNN (Part 1)

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Proprietary DNN (Part 2)

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Proprietary DNN (GOF on Synth. Data)

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DNN Weight Ghosting and Watermarking (1)

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DNN Weight Ghosting and Watermarking (2)

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DNN – Pred. vs True Weights, Synth. Data

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Alternative to DNN – Rejected Model

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Alternative to DNN – Final Model

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  • Input data with 10,000 dimensions
  • Origins: exact interpolation
  • Works if number of dimensions > number of observations
  • Works with > 25% noise in data
  • Works with 60% distillation rate
  • Bening overfitting
  • Works with numerical, categorical and text data

  • 100% correct prediction on “training set”
  • No gradient descent, no loss function
  • Simple global optimum obtained with closed-form expression
  • 96% correct prediction for next token on NVIDIA corpus
  • Attention mechanism built in

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Alternative to DNN – Nvidia Case Study

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Alternative to DNN – Nvidia Case Study

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Next “Token” Prediction – DNA Sequencing

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  • Next token prediction: the mother of all LLMs
  • Here: predict next DNA sub-sequence to generate synthetic genomic data
  • Alphabet has 4 letters
  • Left: Scatterplot comparing observed vs synthetic ECDFs
  • Blue = predictive model; Orange = baseline

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Part 6 �References��

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References

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