Henderson: AI implementation in video security applications should consider the factor of architecture from end-to-end, edge-to-cloud perspective. With the increasing processing power and algorithm development at edge devices in recent years, the AI-enabled camera can run advanced video analytics to extract valuable, actionable insights from captured data. By enabling AI functionality in the camera, the AI workloads can be split into camera devices and cloud data centers for operating efficiency, to provide a faster response (less latency) and to reduce bandwidth consumption. For example, in a situation where a security system needs instant response and action after analyzing a face or a number plate, sending data to the cloud and waiting for its answer is not feasible.
This is why edge analytics is becoming an area of significant investment for video security systems. It offers low transmission bandwidth consumption as only necessary data is sent to the cloud. Enabling AI at the camera ensures quicker alerts in case of threat detection, allowing faster data-driven analysis and decision-making. Edge-based analytics also come with lower hardware and deployment costs as less on-premises server resources are needed for the security solution.Henderson: These AI capabilities become even more essential as large-scale projects such as smart cities are growing and having more advanced functionality. Such trends lead to the development of new applications and AI-enabled camera solutions.
Multi-imager camerasHenderson: New video security cameras are now being designed to process multiple video streams and higher resolutions (4K and above) to provide AI algorithms with the large dataset of detailed images and videos required for them to analyze. In addition to this, increasing amounts of metadata are captured and stored on the device to enable operators to quickly search and find relevant video footage. Much of the processing now occurs on the device level. Implementing AI at the camera brings unique challenges as it may have power constraints, performance limits, durability issues and environmental impacts. Here are some factors that camera manufacturers should consider while designing their AI-enabled cameras.
Henderson: With more computing power from new chipsets enabling deep neural network processing on the camera itself for edge intelligence, memory and storage technologies need to keep up with these evolving changes in processing and workload requirements.
Micron’s memory and storage solutions for AI-enabled camera offer:
LPDDR4 and LPDDR5 for edge computing
High-performance and low-power memory
Offer from 4Gb-128Gb densities
Support wide temperature for industrial use cases (-40°C to +95°C)
e.MMC for code/application storage
High-capacity and high-performance storage
Offer from 32GB to 256GB densities
Support wide temperature for industrial use cases (-40°C to +85°C)
Industrial microSD card for data storage
Storage solution optimized for AI workloads
Offer from 64GB to 1.5TB
Ability to concurrently handle 4K video recording and up to 8 AI event/second capturing
Provide a 2 million hour mean time to failure (MTTF) rating
Support wide temperature (-25°C to +85°C)