How to build scalable artificial intelligence models
prasathsankar7
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10 slides
Oct 18, 2024
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About This Presentation
Building scalable AI models involves efficiently handling large data, using distributed computing, and optimizing algorithms to maintain performance as the system grows. Key factors include infrastructure, modular design, and leveraging cloud technologies. Scalability ensures AI can adapt to increas...
Building scalable AI models involves efficiently handling large data, using distributed computing, and optimizing algorithms to maintain performance as the system grows. Key factors include infrastructure, modular design, and leveraging cloud technologies. Scalability ensures AI can adapt to increasing workloads seamlessly.
Size: 8.61 MB
Language: en
Added: Oct 18, 2024
Slides: 10 pages
Slide Content
How to Build Scalable
Artificial
Intelligence
Models
@iabac.org
Introduction to AI Scalability1.
Key Factors for Building Scalable AI Models2.
Architectures for Scalability3.
Tools and Technologies for Scalable AI4.
Best Practices in Building Scalable AI Models5.
Real-World Examples6.
Conclusion and Q&A7.
@iabac.org
Agenda
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Introduction to AI Scalability
What is Scalability in AI?
The ability of AI models to maintain or
improve performance as the data volume
or computational demand grows.
Why is Scalability Important?
Scalability ensures that AI models can
handle increasing loads, adapt to more
complex tasks, and serve larger user bases
without a drop in efficiency.
Data: High-quality, diverse, and large
datasets are essential for scalability.
Algorithm Efficiency: Choosing the right
algorithms to optimize resource usage (CPU,
memory, etc.).
Infrastructure: Cloud platforms, distributed
computing, and efficient data storage
solutions.
Model Optimization: Techniques like model
parallelism, data parallelism, and load
balancing.
@iabac.org
Key Factors for Building Scalable AI Models
Data
Algorithm
Efficiency
Infrastructure
Model
Optimization
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Architectures for Scalability
Distributed Computing: Using clusters of machines to distribute the
workload (e.g., Hadoop, Spark).
Cloud-Based AI: Leveraging cloud platforms (e.g., AWS, Google Cloud,
Azure) to scale resources dynamically.
Microservices Architecture: Breaking down AI systems into smaller,
independent services that can scale separately.
Microservices ArchitectureDistributed Computing Cloud-Based AI
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Tools and Technologies for Scalable AI
Kubernetes: For orchestrating scalable, containerized applications.
TensorFlow Distributed: For distributed machine learning model
training.
PyTorch with DDP (Distributed Data Parallel): Helps with parallel
training across nodes.
Apache Spark and Hadoop: Distributed computing frameworks for
handling large-scale data processing.
ElasticSearch and Kafka: For real-time data streams and high-volume
search queries.
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Best Practices in Building Scalable AI Models
Data Pipeline Management: Automate and optimize the data
ingestion process to handle growing datasets.
Modular AI Design: Create AI systems with modular components that
can scale independently.
Model Compression and Pruning: Reduce model size and complexity
without sacrificing accuracy.
Monitor Performance and Resource Usage: Implement continuous
monitoring and logging systems to track AI performance as it scales.
Batching and Caching: Reduce redundancy in computations through
batching and caching techniques.
Google Search: AI models that scale to
handle billions of searches daily.
Amazon Personalization: Recommender
systems for millions of users, processing
large volumes of data in real-time.
Netflix Content Recommendation:
Scalable AI used to recommend
personalized content to millions of global
users.
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Real-World Examples
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Challenges in Scaling AI Models
Data Bottlenecks: Slow access to large
datasets or data quality issues.
Model Drift: Performance degradation as
models encounter new data.
Infrastructure Costs: Rising costs of
computational power as models scale.
Maintaining Accuracy: Balancing model
performance and speed at scale.