NCA-GENL Exam Prep

Study Guide

NVIDIA Certified Associate: Generative AI LLMs Study Guide

Use the saved domain outline to connect generative ai with llms and prompting, core machine learning, ai, and transformer foundations, nvidia tools, performance, and deployment, evaluation, experimentation, and data analysis to scenario-based questions and explanations.

How the Exam Is Structured

NVIDIA Certified Associate: Generative AI LLMs (NCA-GENL) validates generative ai with llms and prompting, core machine learning, ai, and transformer foundations, nvidia tools, performance, and deployment, evaluation, experimentation, and data analysis. The ExamPal practice bank includes 82 premium questions and 40 free questions mapped across the official blueprint.

DomainWeightFocus
Domain 1: Generative AI with LLMs and Prompting 40% Task 1.1: Explain foundational generative AI and LLM concepts; Generative AI vs traditional ML
Domain 2: Core Machine Learning, AI, and Transformer Foundations 25% Task 2.1: Explain core machine learning concepts; Learning paradigms
Domain 3: NVIDIA Tools, Performance, and Deployment 17% Task 3.1: Identify NVIDIA generative AI and inference technologies; NeMo Framework
Domain 4: Evaluation, Experimentation, and Data Analysis 10% Task 4.1: Evaluate generative AI system performance; Task-appropriate evaluation metrics
Domain 5: Trustworthy and Responsible Generative AI 8% Task 5.1: Explain principles of trustworthy AI; Trustworthy AI principles

40% of exam

Domain 1: Generative AI with LLMs and Prompting

Covers foundational generative AI and LLM concepts, prompting, retrieval-augmented generation, decoding, transfer learning, fine-tuning, and advanced NLP/LLM concepts. This domain emphasizes practical understanding of how LLMs work, how to interact with them effectively, and when to use them versus simpler approaches.

Task 1.1: Explain foundational generative AI and LLM concepts
Generative AI vs traditional ML
Common LLM use cases
LLM architecture types
When to use LLMs
Task 1.2: Apply prompting techniques for LLM interaction
Prompting styles

25% of exam

Domain 2: Core Machine Learning, AI, and Transformer Foundations

Covers core machine learning concepts, evaluation metrics, transformer architecture fundamentals, key transformer components, and experimentation/data-oriented AI workflows. This domain provides the foundational ML and transformer knowledge needed to understand and assess generative AI systems.

Task 2.1: Explain core machine learning concepts
Learning paradigms
Dataset splits
Loss function purpose
Overfitting and underfitting
Training accuracy limitations
Task 2.2: Interpret model evaluation metrics and validation methods

17% of exam

Domain 3: NVIDIA Tools, Performance, and Deployment

Covers NVIDIA generative AI and inference technologies, model optimization, scaling strategies, and software development/deployment practices for LLM systems. This domain focuses on practical deployment, performance, and infrastructure considerations in the NVIDIA ecosystem.

Task 3.1: Identify NVIDIA generative AI and inference technologies
NeMo Framework
TensorRT
Triton Inference Server
ONNX
NCCL
Task 3.2: Explain model optimization and efficient deployment techniques

10% of exam

Domain 4: Evaluation, Experimentation, and Data Analysis

Covers evaluation of generative AI systems, experiment design, and data analysis for model improvement. This domain emphasizes both automated and human evaluation, controlled experimentation, and using feedback and monitoring to improve outcomes.

Task 4.1: Evaluate generative AI system performance
Task-appropriate evaluation metrics
BLEU and ROUGE interpretation
Automated and human evaluation
Evaluation dimensions
Task 4.2: Design and interpret experiments for model comparison
A/B testing purpose

8% of exam

Domain 5: Trustworthy and Responsible Generative AI

Covers principles of trustworthy AI, bias and privacy risks, and techniques for improving safety and reliability in generative systems. This domain emphasizes governance, human oversight, guardrails, and risk reduction for high-stakes use cases.

Task 5.1: Explain principles of trustworthy AI
Trustworthy AI principles
Importance in generative systems
Governance and oversight
Utility, openness, and control
Task 5.2: Recognize bias, privacy, and risk in LLM systems
Protected attributes and bias

Key Terms to Know

These terms are loaded from the shared terminology pack and appear across the question explanations.

Attention mask
A masking mechanism that prevents attention to padding tokens or disallowed positions such as future tokens in causal models.
BERT
A bidirectional transformer-based language model that uses token, position, and segment information for NLP tasks.
BLEU
A machine translation evaluation metric based on n-gram overlap between generated text and reference text.
Catastrophic forgetting
The loss of previously learned knowledge when a model is fine-tuned on new task-specific data.
Distributed training
Training a model across multiple devices or nodes to accelerate computation and scale to larger workloads.
Dropout
A regularization technique that randomly sets some neuron outputs to zero during training to reduce overfitting.
Exploratory Data Analysis (EDA)
Initial analysis of a dataset to uncover patterns, anomalies, quality issues, class imbalance, and feature relationships before model training or fine-tuning.
Feed-forward network
The position-wise fully connected sublayer in each transformer block that applies nonlinear transformations to token representations.
Fine-tuning
Adapting a pre-trained language model to a specific downstream task or application using task-specific data.
Gradient accumulation
A technique that sums gradients across multiple mini-batches before performing a weight update to simulate larger batch sizes.
Inference optimization
Techniques and tools used to improve model serving efficiency, latency, throughput, and resource usage during prediction.
Internal covariate shift
Changes in the distribution of layer inputs during training that can make optimization less stable.
Knowledge distillation
A model compression technique where a smaller student model learns to mimic a larger teacher model.
Latency
The time delay between submitting a request to a model and receiving the response.
Layer normalization
A normalization method that stabilizes training by normalizing activations within a layer across features.
Learning rate scheduling
The process of adjusting the learning rate over time to improve optimization and training stability.
Mini-batch
A small subset of training data processed in one forward and backward pass during optimization.
Model portability
The ability to move and run a model across different tools, frameworks, or deployment environments.

Official Materials and Guidance

This page is built from NVIDIA official materials and ExamPal shared release pack, the shared syllabus, topic tree, terminology pack, free pack, and premium pack.

  • -Guidance: NVIDIA official certification page/outline saved locally
  • -Domain outline: Core ML/AI knowledge 30%; Software development 24%; Experimentation 22%; Data analysis/visualization 14%; Trustworthy AI 10%.