AI curriculum

Course outline for Neuro-Symbolic AI

A fluent recommendation can violate explicit requirements, while a rule system can reason correctly from a false premise. Combine candidate model-extracted skill facts with reviewed domain rules and separate constraint checks. Compare accept, reject, and escalate decisions against supplied evidence.

About Neuro-Symbolic AI

A fluent recommendation can violate explicit requirements, while a rule system can reason correctly from a false premise. Combine candidate model-extracted skill facts with reviewed domain rules and separate constraint checks. Compare accept, reject, and escalate decisions against supplied evidence.

Neuro-Symbolic AI Course Objectives

  • Assign neural proposal and symbolic checking roles in a small pipeline.
  • Represent explicit facts, graph relationships, and reviewed rules.
  • Separate ontology entailment from record and business-constraint validation.
  • Trace accepted and rejected suggestions to premises and checks.
  • Abstain on missing or contradictory evidence and compare error consequences.

Pre-requisites

  • Familiarity with language-model interactions and knowledge representation.
  • Basic programming, application contracts, and logical reasoning skills.

Before this course

Complete the required courses or bring equivalent experience. Recommended courses add useful depth; they are not enrolment gates.

Required preparation

Recommended preparation

Can integrate a model interaction with explicit domain facts and constraints; ontology, graph, and evaluation skills deepen the hybrid system.

Find your place in the learning map

Lab Setup

  • Programming runtime, test runner, a supplied hybrid-pipeline starter, and a small local rule or graph library.
  • Synthetic profiles, candidate extraction outputs, prepared rules, and labeled comparison cases.
  • A local model is optional; no advanced probabilistic-symbolic package or live hiring data is required.

Detailed Course Outline

Module 1: Assign complementary reasoning roles

  • Symbolic AI: Represent explicit facts and domain rules for reviewable conclusions while recognizing that correct deduction still depends on true premises.
  • Neural AI: Treat model-extracted skills and recommendations as candidate proposals whose evidence must be checked before acceptance into the decision pipeline.
  • Rule-based reasoning: Apply reviewed role requirements to accepted premises and trace conclusions to rules without assuming deterministic execution guarantees factual correctness.

Practical outcome: Define a proposal/check boundary and a small reviewed rule set for synthetic role requirements.

Module 2: Connect facts to a hybrid pipeline

  • Knowledge graphs: Preserve skill relationships and their supporting evidence in a bounded model rather than promoting every extracted relationship to fact.
  • Ontologies: Define domain classes and relationships while keeping ontology entailment distinct from record validation and business-constraint enforcement.
  • LLM + symbolic systems: Connect neural proposals to reviewed facts and symbolic checks through explicit boundaries that retain evidence and reject unsupported inputs.

Practical outcome: Map candidate skill facts into a bounded knowledge model, preserve their evidence, and distinguish ontology inference from validation.

Module 3: Check, abstain, and compare decisions

  • Constraint checking: Validate record requirements and business restrictions separately from ontology inference, identifying invalid suggestions through explicit acceptance checks.
  • Hybrid reasoning: Compare premise-linked hybrid decisions with model-only fixtures, reporting false acceptances, false rejections, abstentions, and review effort.
  • Abstention and escalation: Withhold decisions on missing or contradictory evidence and assign review using the consequences of acceptance, rejection, and escalation.

Practical outcome: Produce premise-linked decisions and an accept/reject/escalate loss table for missing, conflicting, and invalid inputs.

Practical exercise

  • Build a local hybrid decision pipeline from supplied extraction fixtures, synthetic profiles, and reviewed role rules.
  • Accept supported valid facts; reject a constraint violation and escalate missing or contradictory evidence.
  • Inject a false extracted premise and show why deterministic rules alone cannot guarantee a true conclusion.
  • Compare model-only fixture recommendations and hybrid decisions on six labeled cases, reporting false acceptances, false rejections, abstentions, and review effort.

What you will produce

Build a premise-traceable hybrid decision prototype with constraint checks and explicit abstention.

How the work is checked

  • Candidate facts retain evidence and are not automatically trusted.
  • Valid, invalid, missing, and contradictory cases produce the documented decisions.
  • A false premise demonstrates the limit of deterministic rule correctness.
  • Six-case results distinguish error types, abstention, and review effort.

Six-hour bounded rule-system lab; not calibrated uncertainty, general probabilistic-symbolic integration, or a guarantee that hybrid systems cannot produce false conclusions.

When another approach is better

  • Use deterministic rules alone when inputs are already structured and reliable.
  • Avoid forced recommendations when domain rules or evidence are incomplete and a reviewer is needed.

How we train

Contact us for full course details, including duration, delivery options and lab requirements.

Ask about exercises, instructor feedback and the prior knowledge you need. Tool-specific courses marked provisional may become modules in a broader course.

Discuss your learning goals