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Ouster's New L3 Chip and Cloud Studio: Making Lidar Easier to Use

Ouster has released the L3 chip and Studio cloud platform to simplify how organizations capture, process, and analyze lidar sensor data. The moves reflect a broader industry shift toward lowering cost

Martin HollowayPublished 3d ago5 min readBased on 4 sources
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Ouster's New L3 Chip and Cloud Studio: Making Lidar Easier to Use

Ouster's New L3 Chip and Cloud Studio: Making Lidar Easier to Use

Ouster, a company that makes lidar sensors (devices that use laser light to create 3D maps of surroundings), has just released two products: the L3 chip and Ouster Studio. The L3 chip is the company's third-generation custom processor designed to handle lidar data. Ouster Studio is a cloud-based platform where users can upload, organize, and analyze the 3D point cloud data captured by Ouster's sensors. Together, they represent the company's strategy to make lidar systems easier to deploy and use in real-world applications.

Ouster's investor relations materials confirm the L3 chip launch as part of a broader shift across the lidar industry. Manufacturers are under pressure to lower costs while keeping the range and accuracy that automotive and industrial customers demand.

What Ouster Studio Does

Ouster Studio works on both desktop computers and in web browsers. It lets teams upload lidar point clouds—essentially massive datasets of 3D coordinates captured by the sensors—organize them, and share them with colleagues. The platform also runs SLAM processing in the cloud; SLAM stands for Simultaneous Localization and Mapping, a technique that helps turn raw sensor data into navigable maps.

The problem Studio solves is a real one. Lidar sensors generate enormous amounts of data, and turning that raw data into something useful—a map you can actually read, or coordinates you can analyze—traditionally requires specialized software and a lot of computing power on a local machine. Studio moves that heavy computational work to the cloud, where servers can handle it, and lets you view and share results through any web browser.

This shift from local to cloud processing is similar to what happened with photo editing decades ago. Once, you needed expensive desktop software and a powerful computer to edit images. Now you can upload a photo to an online service and do most edits in your browser. For lidar, the same principle applies: fewer barriers for teams that want to work with this data but don't have deep lidar expertise.

From a technical standpoint, Ouster is building a vertically integrated ecosystem—meaning the company controls both the hardware (sensors) and the software platform (Studio) that processes data from those sensors. This strategy has worked well for companies in adjacent fields. The cloud-based SLAM processing is notable because it moves a computationally intensive job away from the sensor itself or a local computer and into shared infrastructure that can scale as needed.

The L3 Chip: Custom Silicon for Lidar

The L3 designation suggests this is Ouster's third custom-designed processor for lidar signal processing. Ouster has not disclosed the detailed technical specifications, but the timing reflects an industry-wide push toward specialized chips optimized for lidar calculations.

Lidar sensors produce raw electrical signals from laser reflections. Converting those signals into precise 3D coordinates in real time demands specialized processors—either custom chips (called ASICs) or programmable logic chips (called FPGAs). Building custom silicon is expensive, but becomes worthwhile when production volumes are large enough to spread that cost across many units. Automotive applications, where every dollar counts and volumes can be high, make custom silicon economically attractive.

The broader industry context has shifted over the past few years. Early lidar companies competed mainly on range and resolution—how far the sensor could see and how detailed the image. Today's market increasingly rewards solutions that lower the total cost of ownership, including not just the sensor itself but the software, integration work, and processing infrastructure needed to make it useful.

A Shift Toward Software and Services

Ouster went public in December 2020 through a SPAC merger (a shortcut to public markets that later became controversial). The company markets itself as a provider of digital lidar—a technology distinct from the analog lidar used by competitors like Velodyne.

The Studio platform launch signals that Ouster is moving beyond selling sensors as one-time purchases. Instead, the company is building software that generates ongoing revenue—customers pay subscriptions or usage fees for cloud services rather than just buying hardware once. We have seen this transition before in the technology industry. NVIDIA started as a graphics chip maker but shifted toward offering full computing platforms. Industrial equipment manufacturers increasingly sell analytics services on top of their sensors. The economic logic is clear: one sensor sale generates one revenue event, but ongoing data processing can generate recurring income.

What This Means for Users

For organizations choosing a lidar solution, Studio lowers the friction of getting started. There is no specialized software to install. The cloud backend handles heavy computation. Teams can collaborate on datasets without managing large file transfers across multiple locations or ensuring everyone has the same software versions.

The combination of custom silicon and cloud data processing reflects a maturing industry. Rather than buying individual components from different vendors and assembling them yourself, you can now get an integrated solution where the sensor, the processor, and the cloud platform work together from the start.

Whether this approach will win in the market depends on how well it solves real problems compared to other options. Some organizations may prefer the flexibility of choosing best-of-breed components from multiple vendors. Others will value the simplicity and integration of an all-in-one solution. That trade-off will play out differently depending on the specific use case.