Autoscaling in Blockchain: Streamlining Performance and Scalability for Efficient Networks
Autoscaling in blockchain helps with monitoring applications & adjusting the capacity independently to keep the operational and transactional cost of network low and...
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In today’s dynamic and fast-paced digital landscape, businesses, and organizations regularly face the challenge of managing fluctuating workloads and ensuring optimal performance without over-provisioning resources. This is where autoscaling comes into play. But autoscaling has so far eluded distributed data systems like blockchains due to its self-imposed block size/storage limits and/or vertical scalability. Other than private and consortium database systems, no public/decentralized blockchain has demonstrated its ability to autoscale. Because it most often leads to centralization unless the network scales linearly/horizontally like Shardeum for instance.
Auto-scaling is important for quite a few notable reasons. Firstly, when you build a decentralized network, it should ideally be able to self-govern the number of nodes with an optimal and dynamic incentive mechanism. Maintaining high efficiency while scaling to meet demand is what will help keep the cost of the network and ultimately the average transaction fees low. Secondly, auto-scaling helps to maximize decentralization and security. You can check out the interesting blog about autoscaling by Shardeum, the first public blockchain to do so. This blog will focus more on the educational aspect of autoscaling.
Autoscaling automatically allows systems and applications to adjust their computing resources based on real-time demand. By dynamically scaling resources up or down, autoscaling enables businesses to handle peak workloads efficiently, improve responsiveness, and optimize costs by eliminating the need for manual intervention.
Autoscaling works by automatically adjusting the computing resources of a system or application based on predefined rules and metrics. It typically involves the following steps:
Monitoring: Autoscaling continuously monitors metrics like CPU usage, memory utilization, network traffic, or request queue length to assess the current workload.
Thresholds: Thresholds or rules are defined to determine when autoscaling should be triggered. For example, additional resources may be needed if CPU usage exceeds a certain threshold.
Scaling actions: When a threshold is crossed, autoscaling triggers scaling actions. Scaling can be horizontal, adding more instances, or vertical, increasing the resources of existing instances.
Resource provisioning: Autoscaling dynamically provisions additional resources, such as virtual machines or containers, based on the scaling actions.
Load distribution: Autoscaling ensures that the workload is evenly distributed across the newly provisioned resources, maintaining optimal performance.
Scaling down: Autoscaling may scale down when the workload decreases by removing unnecessary resources to avoid over-provisioning and optimize costs.
A Glimpse into Autoscaling by Shardeum
Autoscaling on Shardeum will work by measuring the network load every cycle (60 seconds) and coming to consensus on the required number of validator nodes needed to process the current load. This is similar to the Bitcoin network coming to consensus on its difficulty level.
For example, when an application on Shardeum goes viral, the network will react by independently adding more active validator nodes from ‘standby node pool’ to increase throughput capacity. If traffic on the network goes down, it would shrink the number of active validators and keep the operations on the network sufficiently nimble. Since Shardeum is a decentralized blockchain, auto-scaling is self-executed with help of validators distributed across the world (i.e. without any need for intervention from an intermediary)
Why is Auto Scaling in Blockchain Important?
The answer to why autoscaling is important is multi-facted. Here’s a few factors:
Performance and Availability: Autoscaling allows systems to handle varying workloads effectively, ensuring optimal performance and responsiveness during peak usage periods while avoiding performance degradation during low-demand periods.
Cost Optimization/Avg Transaction Fee: Autoscaling enables efficient resource utilization by provisioning resources only when needed. It helps avoid overprovisioning, reducing infrastructure costs, and optimizing spending based on actual demand. It becomes even more critical for distributed smart contract platforms as the cost of maintaining the network will eventually decide the cost and predictability of unit transaction cost
Scalability: Autoscaling enables systems to scale seamlessly to accommodate increasing user traffic or workload without manual intervention. It allows businesses to respond to changes in demand rapidly, ensuring a smooth user experience and avoiding service disruptions.
Flexibility: Autoscaling provides the flexibility to scale up or down based on demand fluctuations, enabling businesses to adapt quickly to market dynamics and handle unexpected spikes in workload.
Types of Autoscaling
There are different types of autoscaling approaches based on how they respond to changes in workload:
Reactive Autoscaling
Reactive autoscaling is a type that responds to changes in real-time workload conditions. It involves dynamically adjusting the computing resources based on predefined thresholds or metrics. Additional resources are provisioned to handle the increased demand when the workload surpasses a threshold.
Conversely, excess resources are de-provisioned to optimize resource utilization when the workload decreases.
Reactive autoscaling ensures that the system can adapt to sudden spikes or drops in demand, maintaining performance and availability. Reactive autoscaling helps prevent performance degradation and ensures a responsive and efficient system by closely monitoring the workload in real time and taking immediate scaling actions.
Proactive or Predictive Autoscaling
Proactive or predictive autoscaling is an autoscaling approach that takes a more anticipatory approach to resource allocation. It leverages historical data, machine learning algorithms, or predictive models to forecast future workload patterns and adjust resources accordingly.
Proactive autoscaling can predict upcoming demand changes by analyzing past patterns, trends, and seasonality. Based on these predictions, the system can proactively scale resources before the demand increase occurs. This approach helps ensure sufficient resources are available in advance, minimizing performance bottlenecks and maintaining optimal performance. Proactive autoscaling can improve resource utilization, reduce response times, and enhance system efficiency by anticipating and addressing workload fluctuations.
Scheduled Autoscaling
Scheduled autoscaling is an approach to autoscaling that involves preplanned scaling actions based on a predetermined schedule. With scheduled Autoscaling, resource adjustments are made at specific times according to a predefined schedule. This approach is useful for handling predictable workload fluctuations, such as daily or weekly patterns.
For example, during periods of expected high demand, resources can be scaled up to ensure optimal performance, while during known periods of low demand, resources can be scaled down to reduce costs. By adhering to a predetermined schedule, scheduled Autoscaling provides predictability and cost optimization and ensures that resources are available when needed without requiring real-time monitoring or dynamic adjustments.
Benefits of Autoscaling in Blockchain
Autoscaling offers several benefits:
Lower Energy Consumption
Autoscaling helps lower energy consumption by optimizing resource allocation. It dynamically adjusts computing resources based on workload, preventing overprovisioning and idle resources. By provisioning resources only when needed, autoscaling reduces energy usage, promotes energy efficiency, and contributes to sustainable practices in IT infrastructure management.
Cost-effectiveness
Autoscaling brings cost-effectiveness by optimizing resource allocation. It allows businesses to scale resources based on demand, avoiding overprovisioning and unnecessary costs. With autoscaling, resources are provisioned dynamically, ensuring that the right amount of resources is available at the right time, optimizing spending, and maximizing cost-efficiency in cloud computing environments.
Better Load Management
Autoscaling enables better load management by dynamically adjusting resources in response to workload fluctuations. It ensures systems can handle increased user traffic without performance degradation or bottlenecks. By automatically scaling resources up or down, autoscaling optimizes load distribution, maintains optimal performance, and provides a smooth and responsive user experience.
Protection from Website or App Failures
Autoscaling protects from website or app failures by automatically redistributing the workload in case of a failure. If a component fails, Autoscaling detects the issue and reallocates the load to other instances, ensuring continuity of service. This redundancy and fault tolerance provided by autoscaling help mitigate the impact of failures and maintain service availability for users.
Dependability
Autoscaling enhances system dependability by ensuring optimal performance and availability. Autoscaling can handle workload fluctuations and maintain consistent service levels by automatically adjusting resources based on demand. This reliability and responsiveness make the system dependable, providing users with a seamless experience and minimizing disruptions even during peak usage or unexpected spikes in demand.
Conclusion
In conclusion, autoscaling offers numerous benefits, including lower energy consumption, cost-effectiveness, better load management, failure protection, and enhanced dependability. By dynamically adjusting computing resources based on demand, autoscaling optimizes resource allocation, improves performance, and ensures smooth operations. When it comes to public blockchains, the average transaction fee on the network will be constant and predictable only when the cost of operating and maintaining is kept low.
Further, it enables businesses to scale up or down seamlessly, adapting to changing workloads and avoiding underutilization or overprovisioning of resources. Autoscaling promotes efficiency, cost optimization, and responsiveness, allowing organizations to meet user demands effectively while maximizing resource utilization. As technology evolves, autoscaling remains a fundamental tool in achieving scalability, reliability, and optimal performance in the digital landscape.
Frequently Asked Questions (FAQs)
1. What is the Concept of Autoscaling?
Autoscaling is the capability of a system or application to automatically adjust its computing resources based on the current workload or demand. It dynamically provisions or de-provisions resources to ensure optimal performance, efficiency, and responsiveness without manual intervention. When it comes to public blockchains, the average transaction fee on the network will be constant and predictable only when the cost of operating and maintaining is kept low.
2. What is Autoscaling Used for?
Autoscaling is primarily used in cloud computing environments to handle fluctuating workloads effectively. It allows systems to scale resources up or down based on demand, ensuring optimal performance during peak periods and cost optimization during low-demand periods. Autoscaling improves the scalability, availability, and responsiveness of applications or services, enabling businesses to meet varying user demands efficiently and reliably. Shardeum, a L1 smart contract platform, is the first network to implement autoscaling on its blockchain.
3. How Does Shardeum Autoscale?
Since Shardeum scales linearly through dynamic state sharding, it can afford to incorporate autoscaling protocols on the network and overcome scalability trilemma. Autoscaling on Shardeum will work by measuring the network load every cycle (60 seconds) and coming to consensus on the required number of validator nodes needed to process the current load.
For example, when an application on Shardeum goes viral, the network will react by independently adding more active validator nodes from ‘standby node pool’ to increase throughput capacity. If traffic on the network goes down, it would shrink the number of active validators and keep the operations on the network sufficiently nimble. Since Shardeum is a decentralized blockchain, auto-scaling is self-executed with help of validators distributed across the world (i.e. without any need for intervention from an intermediary)
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