In the Age of AI, An Enterprise Ready Data Foundation Starts with Business-Critical Capabilities

By:  James Dinkel

It’s no secret that AI runs on data, but the implications of that are profound. If AI’s automating your business capabilities, you need AI-ready data that’s reliable, governed, and available. There are some essential ingredients needed for your data foundation to ensure that if disaster strikes, if you need to tap into data from a partner, if you need to access information in a different region, you’re ready for it. So, let’s dig in on the two biggest AI data platforms, Snowflake and Databricks, to see how they stack up in terms of business-critical capabilities. Let’s start with the big question: What business-critical capabilities does a platform need to be an enterprise-ready platform? 1. It stays up and running, no matter what – You need a platform that stays up and running, even if disruption strikes. That means you need a platform that’s always on (99.999% availability). It needs to be able to automatically recover from problems, whether they happen in one region, across regions, or even across different clouds, all without anyone having to step in or write extra code. 2. It has strong security and governance baked in – The platform includes comprehensive built-in security tools for threat detection, proactive prevention of leaked passwords, a single unified interface to manage security, compliance and governance, built-in tools for organizing and protecting data — things like tagging, policy management, secure data sharing, AI-powered search and robust key management controls. It keeps data access tightly controlled (even down to individual columns) but doesn’t require teams to spend a lot of time managing it. 3. It works across clouds – Let’s face it, most enterprises don’t exist only on one cloud. Your Data and AI Platform must be cross-cloud capable so your data and AI workloads can run anywhere your business needs them. Every Data and Analytics Leader today needs to perform a rigorous evaluation of a platform’s reliability, catalog, security, governance, and cross-cloud capabilities to ensure they have the right system in place. Failure to get this right has very large consequences. The devil is in the details, and I would encourage you to read and understand the details below (it’s worth it, I promise, but if you don’t have time, the general summary is that, in our analysis Snowflake wins in all categories, and many by a large margin). Here’s a quick overview of what we’ll cover:

          Item

Snowflake

Databricks

1.       Uptime and Reliability

2.       Advanced Security and Governance

Native cyber thread prevention, detection and recovery

Built-in access and privacy policy controls.

Secure Data Sharing

3.        Cross Cloud Capabilities

Architecture

Cross-Cloud Governance

Cross-Cloud Data Sharing

1. Uptime and Reliability

Uptime and reliability is your first essential ingredient. Availability and responsiveness of your data platform is what ensures business continuity. Without it, you could be in big trouble. And when it comes to disaster recovery (DR), the difference between “managed” and “manual” becomes clear the moment something goes wrong.

There are Three Types of Disaster Recovery

  1. In-Region: Failover within a cloud region (across Availability Zones)
  2. Cross-Region: Failover across cloud regions within the same provider.
  3. Cross-Cloud: Failover across entirely different cloud providers.

Snowflake enables all three natively and intuitively. Databricks requires significant manual setup, code, and ongoing maintenance — often falling short of enterprise availability standards.

In practice, here’s what that means. In October 2025, during a major AWS outage, Snowflake seamlessly failed over more than 300 mission-critical applications — keeping customers operational without disruption. Databricks, on the other hand, offered no public results from that same event (not a good sign).

Why the difference? It’s not about which cloud you choose. It’s about architecture and approach.

Snowflake was built with resiliency tools baked in, not bolted on. Databricks leaves much of the heavy lifting to customers.

Let’s examine how Snowflake and Databricks handle disaster recovery to understand the differences in their approaches.

Snowflake:

  • Within a region: Data automatically stays in sync across zones, so operations continue even during localized outages.
  • Across regions: Snowflake can replicate everything — not just your data, but also your users, roles, and security settings. Failing over is as easy as flipping a switch (or redirecting a URL).
  • Across clouds: The same process works whether you’re on AWS, Azure, or Google Cloud. Your apps can even keep using the same connection while Snowflake handles the switch in the background.

In short: Snowflake automates resilience across zones, regions, and even clouds and has already proven it works in real-world incidents.

Databricks

  • Within a region:   While serverless (SQL and ML-Inferencing) do support multiple availability zones – the other components do have issues.  Specifically, they can recover from a single-zone failure, but it can take an estimated time of up to 15 minutes, and only one zone can be down at a time.  Some parts of the data (e.g. external tables) still need to be managed manually.
  • Across regions: There’s no built-in disaster recovery. Customers must manually copy workspaces, users, and governance policies, re-create configurations, and sync code. That setup can take months and may still not meet uptime targets.
  • Across clouds: Things get even harder. Many of the cumbersome tools Databricks uses for automation don’t work across cloud providers and cloning or replication features don’t carry over.The bottom line: Snowflake’s disaster recovery is automatic and proven under pressure. Databricks’ approach is mostly do-it-yourself, leaving customers to build and maintain resiliency on their own.

Snowflake 

Databricks  

But how do these performance deltas translate into tangible inefficiencies in a real-world environment dealing with sensitive data? Let’s delve into the details. How does this unfold in a real-world environment? Situation: Customers in highly regulated industries like finance and healthcare must adhere to strict privacy laws (HIPAA, GDPR, PCI DSS). Data masking is a cornerstone of compliance, effectively mitigating legal risks by obscuring confidential data.  For example, Security numbers or credit card details should be strictly controlled, limiting the potential for internal breaches. Data masking limits exposure and reduces risk. Such security controls are also critical when sharing data both within and outside the organization. How data teams traditionally apply data masking: Customers often use SQL functions such as User-Defined Functions (UDFs) to simplify, optimize, and scale database queries, and implement controls, saving time, enabling privacy, and reducing complexity. This methodology is cumbersome and inefficient.  How Databricks applies data masking: Data masking in Databricks is primarily facilitated by User-Defined Functions (UDFs). Given that Databricks is not a purpose-built data warehouse for complex analytics, its UDF support lacks consistency, notably in vectorization. Instead, Databricks relies on the underlying query engine (photon) to vectorize the operation.  In simple cases, this usually works.  In complex scenarios, it does not, resulting in inefficient row-by-row execution, especially impacting performance on large tables for those complex query structures like subqueries. This limitation also affects the performance of dynamic column masking and row filtering, which are built on this same not-always-vectorized UDF framework. Although Databricks Photon offers vectorization for certain UDFs, its incomplete coverage doesn’t fully address the underlying performance challenge. Moreover, customers must use higher Databricks editions (accruing higher costs) to overcome these performance challenges, but they still do not achieve the price/ performance they get with Snowflake. How Snowflake enables governance controls: Snowflake has comprehensive UDF support and implements security and governance controls out of the box without any additional scripting. Snowflake’s fully managed governance and privacy controls mean customers do not need to pay more for a feature that is natively built in for query efficiency and data protection.  What is clear from above is that Databricks SQL is still developing its SQL capabilities. On the other hand, Snowflake is purpose-built for complex and sensitive analytical use cases, making it easy and efficient for you.  How to do the tests yourself:

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-- UDF Function
CREATE OR REPLACE FUNCTION mask_subquery(email STRING)
RETURNS STRING
RETURN CONCAT('xxxx@', SPLIT(email, '@')[1]);

-- Query
CREATE OR REPLACE TABLE default.masked_users_high_activity2 AS
SELECT 
    u.user_id,
    (
        SELECT mask_subquery(MAX(u2.email))
        FROM users u2
        WHERE 
            u2.user_id = u.user_id AND
            (
                SELECT COUNT(*)
                FROM user_activity ua
                WHERE ua.user_id = u2.user_id
            ) > 5
    ) AS masked_email_if_high_activity
FROM users u
WHERE EXISTS (
    SELECT 1
    FROM user_activity ua1
    WHERE 
        ua1.user_id = u.user_id AND 
        ua1.activity_type = 'suspect page'
);

Results: As expected, on complex queries, Snowflake vastly outperforms Databricks by almost 2x  (margin of 103% and 78% for masked and unmasked queries, respectively). The mask on Databricks comes with a 3-second penalty, whereas Snowflake has none.

Use Case

Time (seconds)

Snowflake, unmasked

12.0

Snowflake, masked

12.0

Databricks, unmasked

21.4

Databricks, masked

24.3


Test 2: Simple, conditional masking

Purpose of the test: The objective is to conditionally mask the email address based on the user’s country.

User’s table with geo information
  • Data Size: 409 Million
  • Description: Customer-related data
  • Columns: Index, CustomerId, FirstName, LastName, Company, City, Country, Phone1, Phone2, Email, SubscriptionDate, Website

Masking UDF: The objective of the masking logic is to conditionally mask the email address based on the user’s country. This is done using a rule-based approach where email addresses are masked only if the country does not begin with a letter between ‘A’ and ‘H’ (inclusive).
-- UDF
CREATE OR REPLACE FUNCTION mask_pii_country_new(email STRING, country STRING)
RETURNS STRING
RETURN CASE
    WHEN UPPER(SUBSTR(country, 1, 1)) BETWEEN 'A' AND 'H' THEN email
    ELSE REGEXP_REPLACE(email, '^[^@]+', 'xxxx')
END;

-- Query
CREATE OR REPLACE TABLE default.customers_dynamic_mask_temp AS
SELECT
    firstname,
    lastname,
    country,
    mask_pii_country_new(Email, country) AS masked_email
FROM default.customers_dynamic_mask
WHERE SubscriptionDate > '2021-01-01';

Results: Also, as expected, on the simpler query, Snowflake still outperforms Databricks by a margin of 12% on both the unmasked and masked queries.

Use Case

Time (seconds)

Snowflake, unmasked

22.7

Snowflake, masked

24.3

Databricks, unmasked

25.48

Databricks, masked

27.49

 

In both cases, we used a small Snowflake warehouse and a small Databricks serverless cluster:

  • Snowflake:  small, enterprise=$6/hr., business critical=$8/hr
  • Databricks:  small serverless, cost=12DBU/hr = $8.40/hr.

What powers this high Snowflake performance and efficiency?

Snowflake’s platform powers simplicity across the customer journey:

  • Simplicity in set-up – Snowflake is a fully managed platform and does not require elaborate set-up processes.
  • Simplicity in platform scaling – Snowflake is built on a foundation of high performance and efficiency. With elastic scaling, micro-partitions, high concurrency support, automatic performance improvements, and intelligent workload optimization features, Snowflake is one of the fastest analytics platforms in the industry.
  • Simplicity in performing complex analytics – Snowflake has had robust analytics capabilities for years, including support for vectorized UDFs, stored procedures & multi-table transaction support, and automatic MV refreshes.
  • Simplicity in enabling strong end-to-end security and governance –  Snowflake governance is foundational with Horizon catalog – out-of-the-box row filtering, dynamic data masking, tag-based masking, fine-grained access controls with no significant performance impact. 

 

Conclusion

Snowflake has meticulously built an industry-leading analytics platform that is not only fully managed and constantly improving but also extends to meet customers’ requirements as an open lakehouse, modern warehouse, or a global data mesh while preserving its simplicity. In addition, all of this is backed by a robust engine that powers one of the fastest data analytics platforms in the market and provides cost efficiencies. While Databricks might make several claims but many of them fall apart because of the complexity Databricks passes along to the users. Don’t just take our word, try Snowflake today. Need help? Squadron Data can help you get started.



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