NVIDIA • NCA-GENL
Validates foundational competencies in developing, integrating, and maintaining AI-driven applications using generative AI and large language models with NVIDIA solutions.
Questions
971
Duration
60 minutes
Passing Score
Not publicly disclosed
Difficulty
AssociateLast Updated
Jan 2025
The NVIDIA-Certified Associate: Generative AI LLMs (NCA-GENL) is an entry-level credential that validates foundational competencies in developing, integrating, and maintaining AI-driven applications using generative AI and large language models (LLMs) with NVIDIA's ecosystem of tools and frameworks. The certification covers a broad range of topics spanning core machine learning theory, transformer architectures, prompt engineering, LLM deployment, and responsible AI practices, with particular emphasis on NVIDIA-specific technologies such as NeMo, Triton Inference Server, TensorRT, RAPIDS, and BioNeMo.
The credential is designed to confirm that practitioners can work across the full LLM application lifecycle—from data preprocessing and feature engineering through model fine-tuning, experimentation, and production deployment. It also assesses proficiency with GPU-accelerated data science tools including cuDF, cuGraph, and XGBoost on NVIDIA hardware, positioning it as a technically grounded certification rather than a purely conceptual one.
This certification is well-suited for professionals in roles such as AI/ML engineers, data scientists, generative AI specialists, LLM engineers, cloud solution architects, AI DevOps engineers, and software engineers who are integrating LLM capabilities into production applications. It is particularly relevant for those who work with or plan to work with NVIDIA's AI platform and want a vendor-recognized credential to validate their skills.
Candidates typically have some practical exposure to machine learning workflows and Python-based AI development, and are looking to formalize their knowledge of generative AI fundamentals and NVIDIA tooling at an associate level before potentially pursuing the NVIDIA-Certified Professional: Generative AI LLMs credential.
NVIDIA recommends that candidates have a basic understanding of generative AI concepts and large language models before attempting the exam. Practically speaking, familiarity with Python programming, common AI/ML frameworks such as PyTorch or TensorFlow, and general machine learning fundamentals (neural networks, training pipelines, model evaluation metrics) is strongly advisable.
There are no formally enforced prerequisites or required training courses, but candidates without hands-on experience in data preprocessing, NLP, or LLM integration are likely to find the exam challenging. Exposure to NVIDIA tools like NeMo or Triton Inference Server, even at a basic level, will also be beneficial given the weight these technologies carry across multiple exam domains.
The NCA-GENL exam consists of approximately 50 multiple-choice questions to be completed within a 60-minute time limit. The exam is delivered online with remote proctoring, making it accessible from any location with a stable internet connection. The exam is offered in English and costs $125 USD to register.
NVIDIA has not published a specific minimum passing score percentage. Upon passing, candidates receive a digital badge and an optional certificate valid for two years from the date of issuance. Recertification requires retaking the exam before the credential expires. No unscored survey questions have been officially documented for this exam.
Earning the NCA-GENL credential signals to employers that a candidate has validated, vendor-recognized skills in generative AI and LLM application development using one of the most widely deployed AI hardware and software platforms in the industry. It is particularly valuable for professionals targeting roles such as AI engineer, LLM integration specialist, ML platform engineer, or generative AI solutions architect at organizations building on NVIDIA's infrastructure stack.
As enterprise adoption of LLM-powered applications accelerates, NVIDIA-certified professionals are positioned well in a competitive job market. The certification complements broader cloud AI credentials (such as those from AWS, Google Cloud, or Azure) and serves as a stepping stone toward the NVIDIA-Certified Professional: Generative AI LLMs credential for those seeking deeper specialization. While NVIDIA does not publish salary data tied to this specific certification, AI/ML engineers with LLM specialization and recognized credentials typically command salaries in the $130,000–$200,000+ range in the United States, depending on experience and role scope.
5 sample questions with correct answers and explanations. Start a practice session to test yourself across all 971 questions.
1. A developer is configuring TensorRT-LLM profiling verbosity to inspect tactic choices and kernel parameters. Which setting provides the most detailed profiling information?
Explanation
--profiling_verbosity detailed provides the most detailed profiling information, allowing inspection of tactic choices and kernel parameters in the generated TensorRT engine. 'layer_names_only' shows only layer names, 'none' disables profiling, and 'basic' is not a valid option. Detailed profiling is useful for performance analysis and optimization.
2. An engineer is configuring TensorRT-LLM build parameters. They want to set the maximum number of requests the engine can process simultaneously. Which parameter controls this?
Explanation
--max_batch_size sets the maximum number of requests the engine can schedule simultaneously, with a default value of 2048. This determines how many inference requests can be batched together. --max_input_len sets maximum input length per request, --max_seq_len sets maximum total sequence length (input + output), and --max_num_tokens sets maximum batched input tokens after padding removal.
3. What is the central idea behind LoRA's approach to model updates?
Explanation
The central idea of LoRA is to approximate the update to a large parameter model using a low-dimension update that contains most of the gradient signal but requires much less computation time and memory. This is achieved through rank decomposition.
4. An ML engineer is computing feature importance for their model. They want to use GPU-accelerated SHAP values. Which RAPIDS component provides this?
Explanation
RAPIDS ships with GPU-accelerated SHAP for XGBoost, providing speedups of 20x or more over CPU implementations. SHAP values explain individual predictions by attributing the prediction to each feature. This enables interpretable ML at scale. The GPU acceleration is particularly valuable for computing SHAP values across many predictions.
5. What type of knowledge base limitation does RAG typically have?
Explanation
RAG is prone to hallucinations since it typically relies only on unstructured, general data. Adding structured data along with unstructured data can help reduce this limitation and improve grounding quality.
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