Snowflake SnowPro Advanced Data Engineer Quick Facts (2025)
Get a comprehensive overview and expert guidance for the SnowPro Advanced Data Engineer Certification exam (DEA-C01), including key domains, exam format, preparation tips, and career benefits to help you pass with confidence.
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Table of Contents
Table of Contents
Snowflake SnowPro Advanced Data Engineer Quick Facts
The Snowflake SnowPro Advanced Data Engineer certification empowers professionals to design, optimize, and maintain data engineering solutions with confidence. This overview brings clarity to the exam domains and ensures you feel prepared to showcase your expertise with Snowflake’s modern data platform.
How does the SnowPro Advanced Data Engineer certification elevate your Snowflake expertise?
The SnowPro Advanced Data Engineer certification validates your ability to design and manage scalable data pipelines, optimize performance, ensure security, and implement advanced data transformations within Snowflake. Tailored for experienced data professionals, this credential highlights your ability to apply best practices across ingestion, storage, transformation, and governance. By earning this certification, candidates demonstrate mastery in engineering data-driven solutions that power analytics, machine learning, and enterprise data strategies.
Exam Domains Covered (Click to expand breakdown)
Exam Domain Breakdown
Domain 1: Data Movement (27% of the exam)
Section: Given a data set, load data into Snowflake.
Outline considerations for data loading
Define data loading features and potential impact
Section summary: This section focuses on the critical process of efficiently loading data into Snowflake. You will deepen your understanding of methods for ingesting diverse datasets while considering cost, performance, and architectural best practices. Key areas include choosing the right loading strategy depending on data size and frequency, as well as managing metadata and monitoring job execution.
You will also explore the potential impact of different loading features, ensuring that you can balance operational efficiency with enterprise requirements. This section ensures you recognize not just how to load information but also how to design ingestion processes that maximize elasticity and minimize bottlenecks.
Section: Ingest data of various formats through the mechanics of Snowflake.
Required data formats
Outline stages
Section summary: This section emphasizes ingesting structured and semi-structured data formats into Snowflake using native capabilities. Topics include handling CSV, JSON, parquet, and AVRO files, along with recognition of how Snowflake manages these data types seamlessly.
You will also focus on stages within Snowflake such as user, table, and internal stages, along with external cloud storage staging. Expect to strengthen your understanding of how staging layers simplify the ingestion process while optimizing for scale.
Section: Troubleshoot data ingestion.
Identify causes of ingestion errors
Determine resolutions for ingestion errors
Section summary: This section explores techniques for diagnosing issues that arise during the ingest process. You’ll practice looking at system logs, error messages, and identifying common root causes such as mismatched file formats or permissions.
The second focus is on resolutions and applying best practices for keeping data ingestion resilient. You’ll learn how to streamline pipelines by addressing schema mismatches, retry strategies, and proper use of copy options for consistent data flow.
Section: Design, build and troubleshoot continuous data pipelines.
Stages
Tasks
Streams
Snowpipe (Auto ingest compared to Rest API)
Section summary: This section highlights the design and orchestration of continuous data pipelines. You’ll work with the tools that Snowflake provides to support continuous data capture, including streams and tasks, which allow for incremental processing.
It also emphasizes Snowpipe as a mechanism for near-real-time ingestion. You’ll learn to compare auto-ingest configurations with REST API approaches, ensuring the correct design choice for balancing latency and complexity in a pipeline.
Section: Analyze and differentiate types of data pipelines.
Create User-Defined Functions (UDFs) and stored procedures including Snowpark
Design and use the Snowflake SQL API
Section summary: This section introduces extended capabilities for creating modular, reusable data pipelines. UDFs, stored procedures, and Snowpark enable engineers to enrich or transform data programmatically while integrating with broader data processes.
You’ll also examine how to incorporate the SQL API into robust solutions, blending API-driven workflows with Snowflake-native capabilities. The emphasis is on understanding design tradeoffs between declarative SQL and more programmatic approaches.
Section: Install, configure, and use connectors to connect to Snowflake.
Section summary: This section ensures you can integrate Snowflake with other tools and platforms using various connectors such as JDBC, ODBC, and streaming connectors. These integration points are vital for maintaining compatibility and supporting enterprise-wide architectures.
In practice, connectors serve as bridges to external platforms for analysis, ingest, or application connectivity. By mastering their configuration, you ensure seamless end-to-end pipeline experiences.
Section: Design and build data sharing solutions.
Implement a data share
Create a secure view
Implement row level filtering
Section summary: This section deepens your understanding of secure data sharing. You’ll learn how to set up shares and securely deliver governed datasets to partners or across business units without duplicating data.
Practical areas include creating secure views and applying row-level filters to meet fine-grained access requirements. The focus is on enabling collaboration while maintaining complete control over data access and visibility.
Section: Outline when to use external tables and define how they work.
Partitioning external tables
Materialized views
Partitioned data unloading
Section summary: This section focuses on extending Snowflake functionality to external tables, which allow the query of data residing outside of native storage. You’ll learn when to appropriately configure external tables to address governance and performance needs.
Complementing this is a review of related features such as materialized views for accelerating performance and partitioned unloading work to handle large output sets efficiently. The emphasis is on seeing external data as a first-class component of the data architecture.
Domain 2: Performance Optimization (22% of the exam)
Section: Troubleshoot underperforming queries.
Identify underperforming queries
Outline telemetry around the operation
Increase efficiency
Identify the root cause
Section summary: This section builds the skills needed to identify and resolve performance issues. You’ll analyze queries, interpret execution plans, and identify patterns that indicate inefficiency.
Equally important is learning to apply telemetry and monitoring data for deeper insight. The result is developing proactive approaches to not just recognize underperformance but also resolve it quickly and sustainably.
Section: Given a scenario, configure a solution for the best performance.
Section summary: This section refines your decision-making skills around performance-related configuration. You’ll compare strategies between scaling out and scaling up, configuring warehouses to match workloads, and applying clustering appropriately.
The goal is to understand how multiple performance services such as search optimization or query acceleration can elevate responsiveness. Overall, you’ll learn to align each feature with the workload and enterprise goals.
Section: Outline and use caching features.
Section summary: This section helps you fully leverage Snowflake’s caching layers to accelerate performance. You’ll learn how different cache layers work, from query result caching to local storage, and when each is applied.
Practical use cases for caching include improving query experience while reducing compute cost. This ensures not only efficiency but also a superior user experience.
Section: Monitor continuous data pipelines.
Snowpipe
Tasks
Streams
Section summary: This section focuses on monitoring and ensuring the health of continuous pipelines. You will learn how monitoring with Snowpipe or tasks offers clear visibility into backlogs, throughput, and latency.
With streams actively involved in change data capture, this monitoring allows you to validate end-to-end functionality of near-real-time architectures. The emphasis is on reliability and predictability in pipeline performance.
Domain 3: Storage and Data Protection (12% of the exam)
Section: Implement data recovery features in Snowflake.
Time Travel
Fail-safe
Section summary: This section highlights the built-in protection mechanisms that Snowflake offers. Time Travel enables reverting to historical states of data, while Fail-safe provides an extra safeguard beyond user-controlled recovery windows.
Together, these capabilities ensure resilience and support compliance, making it possible to respond quickly to potential data loss or accidental deletion scenarios.
Section: Outline the impact of streams on Time Travel.
Section summary: This section explores how streams interact with Snowflake’s Time Travel features. Streams allow for continuous change tracking, and their relationship with Time Travel ensures that even historical modifications can be accurately tracked.
By examining this interaction, you’ll understand how to preserve consistency across both immediate ingestion and retrospective recovery requirements.
Section: Use system functions to analyze micro-partitions.
Clustering depth
Cluster keys
Section summary: This section provides detailed insights into how Snowflake stores and organizes data. You’ll learn system functions that reveal clustering depth and how cluster keys support performance at scale.
This analysis enables deeper optimization, particularly when scaling to very large datasets, ensuring efficient pruning and query responsiveness.
Section: Use Time Travel and cloning to create new development environments.
Clone objects
Validate changes before promoting
Rollback changes
Section summary: This section emphasizes the power of cloning and Time Travel for agile data development. Engineers can instantly and cost-effectively replicate production environments for testing or development.
The ability to validate and rollback changes makes experiment-driven workflows extremely efficient. This ensures confidence and quality while promoting changes to higher environments.
Section summary: This section provides a foundation in Snowflake’s layered security model. You’ll review authentication methods and how RBAC applies permissions cleanly and efficiently across an organization.
Column-level security and dynamic masking give even more precision, enabling businesses to share data safely while maintaining compliance.
Section: Outline the system defined roles and when they should be applied.
Purpose of system defined roles
Best practices for applying roles
Differences between SECURITYADMIN, USERADMIN, and SYSADMIN
Section summary: This section explains the purpose of built-in system roles within Snowflake. By understanding the responsibilities of SECURITYADMIN, USERADMIN, and SYSADMIN, you’ll be able to assign authority safely and productively.
Best practices ensure privileges are distributed responsibly, promoting separation of duties and protecting core operations without introducing risk.
Section: Manage data governance.
Options for column level security including Dynamic Data Masking and external tokenization
Options for row level security using row access policies
Use DDL required to manage these controls
Apply masking policies to data
Understand object tagging
Section summary: This section shifts the focus to identifying governance patterns for sensitive or regulated data. You’ll evaluate methods such as row and column-level security along with tagging for downstream governance integration.
By mastering DDL for access controls, you gain hands-on insight into enforcing governance strategies directly in Snowflake. The result is trusted and secure data governance aligned with organizational requirements.
Domain 5: Data Transformation (27% of the exam)
Section: Define User-Defined Functions (UDFs) and outline how to use them.
Snowpark UDFs (Java, Python, Scala)
Secure UDFs
SQL UDFs
JavaScript UDFs
User-Defined Table Functions (UDTFs)
Section summary: This section dives into extensibility provided by UDFs in Snowflake. You’ll compare different formats such as SQL-based, JavaScript, and Snowpark UDFs to enhance transformation logic.
The primary focus is on how these UDFs can encapsulate business rules or transformation steps that traditional SQL cannot handle easily.
Section: Define and create external functions.
Secure external functions
Integration requirements
Section summary: This section introduces the ability to connect and query external services through external functions. You’ll understand security and integration considerations while designing real-time callouts to APIs during queries.
This delivers a powerful approach to blending Snowflake workloads with wider API-driven architectures.
Section: Design, build, and leverage stored procedures.
Snowpark stored procedures (Java, Python, Scala)
SQL Scripting stored procedures
JavaScript stored procedures
Transaction management
Section summary: This section offers a deeper focus on creating reusable stored procedures for advanced processing. From Snowpark powered designs to JavaScript and SQL scripting, stored procedures extend engineering capabilities within data workflows.
Transaction management is included here, equipping engineers for consistency across multi-step data operations.
Section: Handle and transform semi-structured data.
Traverse and transform semi-structured data into structured
Transform structured data into semi-structured
Understand how to work with unstructured data
Section summary: This section highlights Snowflake’s ability to work seamlessly across structured and semi-structured data. You’ll practice transforming JSON, XML, or Parquet data, optimizing queries for readability and high performance.
Additionally, you’ll expand your proficiency in bridging structured and unstructured approaches, enabling flexibility in the way data-driven applications are supported.
Section: Use Snowpark for data transformation.
Understand Snowpark architecture
Query and filter data using the Snowpark library
Perform data transformations with Snowpark (aggregations)
Manipulate Snowpark DataFrames
Section summary: This section emphasizes the role of Snowpark in delivering more programmatic control over data operations. By combining familiar programming languages with DataFrame constructs, it provides developers with added flexibility.
From querying to complex transformations and aggregations, Snowpark adds powerful capabilities for building pipelines or machine learning features within Snowflake.
Who Should Pursue the Snowflake SnowPro Advanced Data Engineer Certification?
The Snowflake SnowPro Advanced Data Engineer certification is perfect for data professionals who want to validate and showcase their ability to engineer scalable, high-performing, and secure data solutions on Snowflake. It is designed for:
Data Engineers with at least a couple of years of relevant project experience
Software Engineers or Developers building scalable data pipelines or applications
Cloud Data Professionals already familiar with Snowflake at the Core level and ready to advance into specialized, technical roles
If you’re eager to demonstrate your mastery in Snowflake data loading, performance optimization, transformation, and security best practices, then this certification is an excellent next step.
What types of job opportunities can this Snowflake certification open up?
Becoming a SnowPro Advanced: Data Engineer certified professional can significantly elevate your career opportunities. Employers today look for data engineers fluent in modern, cloud-native data platforms, and Snowflake has become a top choice across industries.
Roles you can target include:
Senior Data Engineer
Data Platform Architect
Cloud Solution Engineer (specializing in Snowflake)
Data Pipeline Developer
Analytics Engineer
Additionally, this certification signals to employers that you can own complex, end-to-end engineering solutions—an increasingly critical skill in evolving data-driven environments.
What is the exam code for the Snowflake SnowPro Advanced Data Engineer test?
The current version of the exam is identified as DEA-C01. This naming convention is used across Snowflake certifications to indicate the exact version and ensures you’re preparing with the right training and study resources. Always confirm you’re using materials that align specifically to DEA-C01 for accurate coverage of topics.
How many questions are included in the SnowPro Advanced: Data Engineer exam?
Candidates are required to complete 65 questions on the exam. These are presented in multiple-choice and multiple-select formats. Each question is carefully designed around scenario-based examples drawn from real-world Snowflake use cases. This ensures the exam is not just about memorization, but about practical application of data engineering principles in Snowflake.
How much time do I get for the SnowPro Advanced Data Engineer test?
You will have 115 minutes to complete the exam. With 65 questions to answer, this provides nearly two minutes per question, allowing sufficient time to thoroughly read and evaluate each scenario. Managing your time well is important, especially since the exam places emphasis on understanding complex engineering decisions.
What score do I need to pass the Snowflake DEA-C01 certification?
The Snowflake SnowPro Advanced Data Engineer requires a scaled passing score of 750 on a range from 0 to 1000. Scaled scoring ensures fairness, as questions can vary slightly in difficulty across exam versions. Importantly, you do not need to pass each domain individually—your final scaled score determines your success.
How much is the exam fee for Snowflake’s SnowPro Advanced: Data Engineer certification?
The registration fee is 375 USD. This investment can easily return value with expanded job opportunities and proof of mastery in one of the fastest growing data platforms. Keep in mind that many employers encourage or reimburse Snowflake certifications, recognizing how directly they improve technical delivery.
Which languages are available for this Snowflake exam?
The test is available in English. While Snowflake continues to expand globally, English ensures consistency across training material, documentation, and certification. If English is not your first language, you can request additional testing time when booking through Pearson VUE’s accommodation system.
What are the content domains of the SnowPro Advanced: Data Engineer exam?
The exam is divided into five carefully weighted domains, which reflect core responsibilities for a Snowflake data engineer:
Data Movement (25-30%) – covers loading, ingestion, streaming, connectors, and data sharing
Storage and Data Protection (10-15%) – covers Time Travel, Fail-safe, cloning, and micro-partition analysis
Security (10-15%) – covers authentication methods, RBAC, masking, and governance
Data Transformation (25-30%) – covers UDFs, stored procedures, Snowpark, and handling semi-structured data
By balancing your study focus across these domains, you’ll better prepare for the broad scope of scenarios presented in the exam.
Are there any prerequisites for the Snowflake Advanced Data Engineer certification?
Yes, candidates must first hold the SnowPro Core Certified credential in good standing. This ensures you have mastered the fundamentals upon which this advanced exam builds. If you have not yet earned your Core certification, that’s the best starting point on your Snowflake journey.
Is the SnowPro Advanced Data Engineer exam considered difficult?
This exam focuses on advanced, scenario-based problem solving, which requires both conceptual knowledge and practical Snowflake experience. The good news is that the exam is predictable in its scope: the domains and objectives published in the Exam Guide directly map to what you’ll be tested on. While it requires disciplined preparation, the skills you validate will make you significantly more valuable in the job market.
What format can I expect from the DEA-C01 exam questions?
The 65 questions are a combination of multiple-choice (one correct answer) and multiple-select (two or more correct answers). Additionally, the exam often frames questions through a case-based or scenario-driven lens, which aligns with how data engineering decisions are made in real work environments.
What is the best way to prepare for the Snowflake Advanced: Data Engineer test?
The best preparation is a balance of structured study and hands-on practice. Snowflake recommends using the official study guide, lab guides, and webinars. In addition, supplementing your preparation with top-rated Snowflake SnowPro Advanced Data Engineer practice exams can significantly improve your readiness. These practice tests accurately simulate the style, difficulty, and timing of the real exam, giving you confidence for exam day.
What types of data engineering knowledge are tested on the exam?
You’ll be assessed on a broad spectrum of advanced engineering responsibilities including data ingestion, streaming pipelines, workload optimization, cloning for development/testing, and implementing secure access controls. You’ll also be expected to transform both structured and semi-structured data using Snowpark, UDFs, stored procedures, and SQL scripting.
How long is the SnowPro Advanced: Data Engineer certification valid?
Once earned, the credential remains valid for 2 years. After expiration, you will need to recertify with the current version of the Advanced Data Engineer exam. Maintaining your certification ensures you remain up to date with Snowflake’s rapid innovation and product evolution.
What kind of professional background should I have before attempting DEA-C01?
Snowflake recommends at least 2+ years of professional data engineering experience, with applied work in Snowflake environments. You should be comfortable with SQL, APIs, semi-structured data, and understand cloud-native concepts. Programming skills in Python, Scala, or Java are helpful when working with Snowpark for advanced transformations.
Is programming knowledge required for the Snowflake SnowPro Advanced Data Engineer?
While not mandatory, programming knowledge is a big advantage. The exam includes topics on Snowpark stored procedures in Java, Scala, or Python, as well as UDFs for advanced transformations. If you are exclusively SQL-focused, you can still pass, but having exposure to at least one programming language enhances both exam performance and real-world skills.
How does this Snowflake credential compare to other certifications?
The SnowPro Advanced: Data Engineer is considered a specialized certification at the advanced level. Compared to the SnowPro Core, which validates Snowflake fundamentals, this credential signals deep ability to not only operate within Snowflake but to design, optimize, and secure complex pipelines. It’s highly valued by employers and puts you in a different tier than more general cloud certifications.
Is hands-on Snowflake practice necessary before the exam?
Absolutely. The DEA-C01 exam scenarios reflect real engineering workflows such as stream ingestion, clustering performance evaluation, and pipeline monitoring. Spending time configuring stages, Snowpipe, Time Travel, and Snowpark transformations will give you insights that go beyond theoretical study.
Where can I officially register for the Snowflake SnowPro Advanced: Data Engineer certification?
You can register online through the official Snowflake certification page. Once registered, you can choose whether to sit for your exam with online proctoring or at an in-person Pearson VUE testing center.
The Snowflake SnowPro Advanced Data Engineer certification is one of the most respected data credentials available today. It proves your readiness to handle end-to-end, enterprise-grade workloads in Snowflake and sets you apart as a trusted expert in the data engineering world. With preparation, hands-on practice, and the right study approach, you’ll be ready to proudly showcase this achievement on your career journey.