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    <title>topic Photon: Why Your Databricks SQL is Suddenly 3x Faster in MVP Articles</title>
    <link>https://community.databricks.com/t5/mvp-articles/photon-why-your-databricks-sql-is-suddenly-3x-faster/m-p/151651#M126</link>
    <description>&lt;P&gt;If you’ve been working with newer clusters in &lt;STRONG&gt;Databricks&lt;/STRONG&gt;, chances are you’ve noticed the term &lt;EM&gt;Photon&lt;/EM&gt; appearing in your cluster configuration or query profiles. At first glance, it might look like just another performance feature—but in reality, Photon represents a &lt;STRONG&gt;fundamental shift in how queries are executed&lt;/STRONG&gt;.&lt;/P&gt;&lt;P&gt;This isn’t just an incremental improvement. Photon is a &lt;STRONG&gt;completely redesigned execution engine&lt;/STRONG&gt;, built from the ground up in &lt;STRONG&gt;C++&lt;/STRONG&gt;, and it’s one of the key reasons why many workloads are now running &lt;STRONG&gt;2x–5x faster&lt;/STRONG&gt; without any code changes.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;What Exactly is Photon?&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Photon is a &lt;STRONG&gt;high-performance vectorized query engine&lt;/STRONG&gt; designed to accelerate SQL and DataFrame workloads in Databricks.&lt;/P&gt;&lt;P&gt;Traditionally, &lt;STRONG&gt;Apache Spark&lt;/STRONG&gt; (Apache Spark) executes queries using a JVM-based engine. While powerful, it has limitations when it comes to fully utilizing modern CPU capabilities.&lt;/P&gt;&lt;P&gt;Photon changes that by:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Moving execution closer to &lt;STRONG&gt;native hardware (C++)&lt;/STRONG&gt;&lt;/LI&gt;&lt;LI&gt;Leveraging &lt;STRONG&gt;modern CPU optimizations&lt;/STRONG&gt;&lt;/LI&gt;&lt;LI&gt;Reducing overhead from the JVM layer&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;The result? &lt;STRONG&gt;Faster queries, lower latency, and better resource utilization&lt;/STRONG&gt;.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why Photon Feels So Fast&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Let’s break down what’s really happening under the hood.&lt;/P&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Vectorized Execution (The Real Game-Changer)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Traditional execution processes data &lt;STRONG&gt;row by row&lt;/STRONG&gt;:&lt;/P&gt;&lt;P&gt;Row 1 → Process Row 2 → Process Row 3 → Process&lt;/P&gt;&lt;P&gt;Photon flips this model to &lt;STRONG&gt;columnar batch processing&lt;/STRONG&gt;:&lt;/P&gt;&lt;P&gt;Batch of 1000 values → Process together&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why this matters:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Better CPU cache utilization&lt;/LI&gt;&lt;LI&gt;Fewer function calls&lt;/LI&gt;&lt;LI&gt;Exploits SIMD (Single Instruction, Multiple Data)&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;In simple terms: &lt;STRONG&gt;the CPU does more work per cycle&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;This is where a huge chunk of that &lt;STRONG&gt;3x performance gain&lt;/STRONG&gt; comes from.&lt;/P&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Native C++ Engine (Goodbye JVM Bottlenecks)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Photon is written in &lt;STRONG&gt;C++ instead of Java/Scala&lt;/STRONG&gt;, which allows it to:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Eliminate JVM overhead&lt;/LI&gt;&lt;LI&gt;Reduce garbage collection pauses&lt;/LI&gt;&lt;LI&gt;Execute closer to the hardware&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;&lt;STRONG&gt;What this means for you:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Faster joins&lt;/LI&gt;&lt;LI&gt;Faster aggregations&lt;/LI&gt;&lt;LI&gt;Lower query latency&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;This is especially noticeable in:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Large aggregations&lt;/LI&gt;&lt;LI&gt;Complex joins&lt;/LI&gt;&lt;LI&gt;BI dashboard queries&lt;/LI&gt;&lt;/UL&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Seamless Integration with Spark (No Code Changes Required)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;One of the most powerful aspects of Photon is:&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;You don’t need to rewrite anything&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;It works with:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Spark SQL&lt;/LI&gt;&lt;LI&gt;DataFrame APIs&lt;/LI&gt;&lt;LI&gt;Existing pipelines&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;So your existing code like:&lt;/P&gt;&lt;P&gt;SELECT region, SUM(sales) FROM catalog.schema.sales_table GROUP BY region&lt;/P&gt;&lt;P&gt;…automatically benefits from Photon when enabled.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;This makes it:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Developer-friendly&lt;/LI&gt;&lt;LI&gt;Low-risk to adopt&lt;/LI&gt;&lt;LI&gt;Instant performance upgrade&lt;/LI&gt;&lt;/UL&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Deep Optimization for Delta Lake&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Photon is tightly integrated with &lt;STRONG&gt;Delta Lake&lt;/STRONG&gt;, which is the backbone of the Lakehouse architecture.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why this matters:&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Photon understands:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Delta file formats&lt;/LI&gt;&lt;LI&gt;Metadata&lt;/LI&gt;&lt;LI&gt;Statistics&lt;/LI&gt;&lt;LI&gt;Data skipping&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;So it can:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Read less data&lt;/LI&gt;&lt;LI&gt;Skip unnecessary files&lt;/LI&gt;&lt;LI&gt;Optimize I/O operations&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;Result: &lt;STRONG&gt;Blazing-fast Lakehouse queries&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;&lt;span class="lia-inline-image-display-wrapper lia-image-align-inline" image-alt="po.PNG" style="width: 999px;"&gt;&lt;img src="https://community.databricks.com/t5/image/serverpage/image-id/25123iF29F2E157ECC4125/image-size/large?v=v2&amp;amp;px=999" role="button" title="po.PNG" alt="po.PNG" /&gt;&lt;/span&gt;&lt;/STRONG&gt;&lt;/P&gt;</description>
    <pubDate>Sun, 22 Mar 2026 19:48:00 GMT</pubDate>
    <dc:creator>Abiola-David</dc:creator>
    <dc:date>2026-03-22T19:48:00Z</dc:date>
    <item>
      <title>Photon: Why Your Databricks SQL is Suddenly 3x Faster</title>
      <link>https://community.databricks.com/t5/mvp-articles/photon-why-your-databricks-sql-is-suddenly-3x-faster/m-p/151651#M126</link>
      <description>&lt;P&gt;If you’ve been working with newer clusters in &lt;STRONG&gt;Databricks&lt;/STRONG&gt;, chances are you’ve noticed the term &lt;EM&gt;Photon&lt;/EM&gt; appearing in your cluster configuration or query profiles. At first glance, it might look like just another performance feature—but in reality, Photon represents a &lt;STRONG&gt;fundamental shift in how queries are executed&lt;/STRONG&gt;.&lt;/P&gt;&lt;P&gt;This isn’t just an incremental improvement. Photon is a &lt;STRONG&gt;completely redesigned execution engine&lt;/STRONG&gt;, built from the ground up in &lt;STRONG&gt;C++&lt;/STRONG&gt;, and it’s one of the key reasons why many workloads are now running &lt;STRONG&gt;2x–5x faster&lt;/STRONG&gt; without any code changes.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;What Exactly is Photon?&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Photon is a &lt;STRONG&gt;high-performance vectorized query engine&lt;/STRONG&gt; designed to accelerate SQL and DataFrame workloads in Databricks.&lt;/P&gt;&lt;P&gt;Traditionally, &lt;STRONG&gt;Apache Spark&lt;/STRONG&gt; (Apache Spark) executes queries using a JVM-based engine. While powerful, it has limitations when it comes to fully utilizing modern CPU capabilities.&lt;/P&gt;&lt;P&gt;Photon changes that by:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Moving execution closer to &lt;STRONG&gt;native hardware (C++)&lt;/STRONG&gt;&lt;/LI&gt;&lt;LI&gt;Leveraging &lt;STRONG&gt;modern CPU optimizations&lt;/STRONG&gt;&lt;/LI&gt;&lt;LI&gt;Reducing overhead from the JVM layer&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;The result? &lt;STRONG&gt;Faster queries, lower latency, and better resource utilization&lt;/STRONG&gt;.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why Photon Feels So Fast&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Let’s break down what’s really happening under the hood.&lt;/P&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Vectorized Execution (The Real Game-Changer)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Traditional execution processes data &lt;STRONG&gt;row by row&lt;/STRONG&gt;:&lt;/P&gt;&lt;P&gt;Row 1 → Process Row 2 → Process Row 3 → Process&lt;/P&gt;&lt;P&gt;Photon flips this model to &lt;STRONG&gt;columnar batch processing&lt;/STRONG&gt;:&lt;/P&gt;&lt;P&gt;Batch of 1000 values → Process together&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why this matters:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Better CPU cache utilization&lt;/LI&gt;&lt;LI&gt;Fewer function calls&lt;/LI&gt;&lt;LI&gt;Exploits SIMD (Single Instruction, Multiple Data)&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;In simple terms: &lt;STRONG&gt;the CPU does more work per cycle&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;This is where a huge chunk of that &lt;STRONG&gt;3x performance gain&lt;/STRONG&gt; comes from.&lt;/P&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Native C++ Engine (Goodbye JVM Bottlenecks)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Photon is written in &lt;STRONG&gt;C++ instead of Java/Scala&lt;/STRONG&gt;, which allows it to:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Eliminate JVM overhead&lt;/LI&gt;&lt;LI&gt;Reduce garbage collection pauses&lt;/LI&gt;&lt;LI&gt;Execute closer to the hardware&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;&lt;STRONG&gt;What this means for you:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Faster joins&lt;/LI&gt;&lt;LI&gt;Faster aggregations&lt;/LI&gt;&lt;LI&gt;Lower query latency&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;This is especially noticeable in:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Large aggregations&lt;/LI&gt;&lt;LI&gt;Complex joins&lt;/LI&gt;&lt;LI&gt;BI dashboard queries&lt;/LI&gt;&lt;/UL&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Seamless Integration with Spark (No Code Changes Required)&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;One of the most powerful aspects of Photon is:&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;You don’t need to rewrite anything&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;It works with:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Spark SQL&lt;/LI&gt;&lt;LI&gt;DataFrame APIs&lt;/LI&gt;&lt;LI&gt;Existing pipelines&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;So your existing code like:&lt;/P&gt;&lt;P&gt;SELECT region, SUM(sales) FROM catalog.schema.sales_table GROUP BY region&lt;/P&gt;&lt;P&gt;…automatically benefits from Photon when enabled.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;This makes it:&lt;/STRONG&gt;&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Developer-friendly&lt;/LI&gt;&lt;LI&gt;Low-risk to adopt&lt;/LI&gt;&lt;LI&gt;Instant performance upgrade&lt;/LI&gt;&lt;/UL&gt;&lt;OL&gt;&lt;LI&gt;&lt;STRONG&gt;Deep Optimization for Delta Lake&lt;/STRONG&gt;&lt;/LI&gt;&lt;/OL&gt;&lt;P&gt;Photon is tightly integrated with &lt;STRONG&gt;Delta Lake&lt;/STRONG&gt;, which is the backbone of the Lakehouse architecture.&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;Why this matters:&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;Photon understands:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Delta file formats&lt;/LI&gt;&lt;LI&gt;Metadata&lt;/LI&gt;&lt;LI&gt;Statistics&lt;/LI&gt;&lt;LI&gt;Data skipping&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;So it can:&lt;/P&gt;&lt;UL&gt;&lt;LI&gt;Read less data&lt;/LI&gt;&lt;LI&gt;Skip unnecessary files&lt;/LI&gt;&lt;LI&gt;Optimize I/O operations&lt;/LI&gt;&lt;/UL&gt;&lt;P&gt;Result: &lt;STRONG&gt;Blazing-fast Lakehouse queries&lt;/STRONG&gt;&lt;/P&gt;&lt;P&gt;&lt;STRONG&gt;&lt;span class="lia-inline-image-display-wrapper lia-image-align-inline" image-alt="po.PNG" style="width: 999px;"&gt;&lt;img src="https://community.databricks.com/t5/image/serverpage/image-id/25123iF29F2E157ECC4125/image-size/large?v=v2&amp;amp;px=999" role="button" title="po.PNG" alt="po.PNG" /&gt;&lt;/span&gt;&lt;/STRONG&gt;&lt;/P&gt;</description>
      <pubDate>Sun, 22 Mar 2026 19:48:00 GMT</pubDate>
      <guid>https://community.databricks.com/t5/mvp-articles/photon-why-your-databricks-sql-is-suddenly-3x-faster/m-p/151651#M126</guid>
      <dc:creator>Abiola-David</dc:creator>
      <dc:date>2026-03-22T19:48:00Z</dc:date>
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