Rock Rapids Digital Landscape: Where the App Ecosytem Will Actually Live
Rock Rapids Digital Landscape: Where the App Ecosytem Will Actually Live
Why does the choice of host for the app ecosystem matters as much as it does? Development is for building the volunteer competencies.
The town of Rock Rapids, Iowa, is embarking on an initiative to develop a community-focused application aimed at enhancing local engagement and providing residents with valuable resources and information … but it’s also important to understand that the development of this app ecosystem is almost primarily for the purposes of developing the competencies of those volunteers who will be developing, maintaining and administering the app ecosystem. TWhen volunteer programs are set up correctly, volunteering is supposed to be an intrinsically rewarding activity for the volunteer. *That means that almost all of the funds needed for this project will spent on hosting for the app ecosystem AND the funding will often or typically come FROM the volunteer who cares about the project. Picking the right host for the app ecosystem is an important technical consideration.
Table of Contents
Introduction: Understand Hosting Requirements for the App Ecosystem
Deep Dive into Fly.io for Remix Applications
- 1. Fly.io Pricing Analysis for Typical Remix Applications
- 2. Reliability and Uptime Performance of Fly.io
- 3. Implementing Horizontal Scaling of Remix Applications on Fly.io
- 4. Fly.io’s Managed PostgreSQL and Redis Services
- 5. Docker-Based Deployment Process for Remix on Fly.io
Exploring Other, Possibly Better Alternative Hosting Providers for Remix
Comparative Analysis of Hosting Providers
- 1. Pricing Model Comparison: Fly.io vs. Alternatives
- 2. Reliability and Uptime Guarantees: A Comparative View
- 3. Scaling Mechanisms and Ease of Use for Volunteers
- 4. Database Support Comparison: PostgreSQL and Redis
- 5. Deployment Options and Environment Consistency Across Providers
Recommendations Tailored for the Rock Rapids Community App
- 1. Considering the Local User Base and Budget Constraints
- 2. Balancing Reliability, Scalability, and Ease of Management
Conclusion: Fly.IO Might Be Best, But Render Emerges As A Strong Contender
Introduction: Understand Hosting Requirements for the App Ecosystem
This application, built using the Remix framework, necessitates a robust and reliable hosting environment to ensure consistent accessibility and performance for its user base. Given the community-driven nature of the project, key considerations for selecting a hosting provider include affordability, especially in light of limited funding, and simplicity of management, as the application will be administered and maintained by volunteer staff. The application’s functionality will likely require support for both PostgreSQL and Redis for data persistence and caching, respectively. While global distribution is not a primary concern due to the application’s local focus, the hosting solution must offer sufficient performance and reliability for users within and around Rock Rapids. This report aims to provide a detailed investigation into potential hosting environments for this Remix application, with a particular emphasis on Fly.io, which has been initially identified as a promising option, alongside a comparative analysis of other suitable alternatives. The goal is to equip the project team with the necessary information to make an informed decision that aligns with their technical requirements, budgetary constraints, and administrative capabilities.
Deep Dive into Fly.io for Remix Applications
1. Fly.io Pricing Analysis for Typical Remix Applications
Fly.io operates on a usage-based pricing model, where costs are primarily determined by the resources consumed by the application. For a basic Remix application, initial deployment could involve a shared CPU instance, with hourly rates starting at approximately $0.015, complemented by a small allocation of RAM, such as 256MB, priced around $0.0025 per hour. In addition to compute resources, persistent storage for databases incurs a monthly charge, starting at about $0.15 per GB. While Fly.io offers a free tier, its limitations likely make it insufficient for a production-ready community application intended for reliable service. Therefore, the project will likely need to provision at least one dedicated instance to ensure consistent performance for the residents of Rock Rapids. This base requirement will introduce a recurring operational cost.
The per-second billing offered by Fly.io provides a granular level of cost control, allowing the project to pay only for the resources actively used. However, this model can also introduce complexity when attempting to predict monthly expenditures, particularly for volunteers who may lack extensive experience in cloud cost management. For instance, while the combined hourly cost of a basic instance (CPU and RAM) might appear minimal (approximately $0.0175), continuous operation over a month (roughly $12.60) represents a baseline expense, excluding storage and bandwidth. Accurately forecasting bandwidth consumption for a community application in Rock Rapids without prior usage data can be challenging, potentially leading to unforeseen costs. Fly.io includes a complimentary bandwidth allowance of 100GB per month, with subsequent usage priced at $0.02 per GB. While this might initially seem ample, a community-focused application that facilitates user-generated content, such as forum posts with images or event uploads, could potentially exceed this limit sooner than anticipated. Even small file uploads by a moderately active user base can accumulate over time, resulting in additional charges that the project’s limited budget might struggle to accommodate. Therefore, while Fly.io’s usage-based pricing offers flexibility, it necessitates careful estimation of resource needs and continuous monitoring to ensure affordability for a community project with limited financial resources. The seemingly low per-hour costs for individual resources can aggregate into a significant monthly expense, and the potential for bandwidth overages requires proactive management.
To illustrate the potential costs, the following table provides an estimated breakdown for a basic Remix application on Fly.io:
Estimated Monthly Costs for a Basic Remix Application on Fly.io
Resource | Hourly/Monthly Rate | Estimated Usage | Estimated Monthly Cost |
---|---|---|---|
Dedicated Instance (Shared CPU) | ~$0.015/hour | 720 hours/month | ~$10.80 |
RAM (256MB) | ~$0.0025/hour | 720 hours/month | ~$1.80 |
Persistent Volume | ~$0.15/GB/month | 25 GB/month | ~$3.75 |
Bandwidth | $0.00/GB (first 100GB), $0.02/GB thereafter | 150 GB/month | ~$1.00 |
Estimated Total | ~$17.25 |
Note: These are rough estimates and actual costs may vary based on usage patterns.
2. Reliability and Uptime Performance of Fly.io
Fly.io leverages a globally distributed infrastructure, which inherently enhances the resilience of applications hosted on its platform. This distributed architecture minimizes the impact of localized outages, contributing to overall high availability. Fly.io maintains public status pages and incident reports, demonstrating a commitment to transparency regarding its service performance. These records generally indicate a strong uptime track record. However, some user feedback suggests the possibility of occasional cold starts and latency spikes, particularly for applications that experience periods of low or no traffic. For a community app in Rock Rapids, Iowa, which might have fluctuating usage patterns throughout the day or week, these occasional cold starts could result in a less-than-optimal user experience. The initial delay when an application instance spins up after inactivity might be perceived as sluggishness, potentially discouraging consistent community engagement.
While larger projects have reported positive experiences with Fly.io’s reliability, specific case studies focusing on very small, community-oriented applications are not readily available. This makes it challenging to definitively assess how Fly.io’s reliability will translate to the specific usage patterns and scale of the Rock Rapids community app [Context and Explanation]. The traffic patterns and resource utilization of large, consistently active applications are likely significantly different from those of a smaller application with potentially intermittent usage. Consequently, the underlying infrastructure might exhibit different performance characteristics under varying load conditions. Therefore, while the global distribution and generally positive uptime records of Fly.io are encouraging, the potential for cold starts and the lack of specific reliability data for similar small-scale projects warrant careful consideration. After deployment, continuous monitoring of the application’s performance and responsiveness will be crucial to ensure a satisfactory user experience for the Rock Rapids community.
3. Implementing Horizontal Scaling of Remix Applications on Fly.io
Horizontal scaling, the ability to add more instances of an application to handle increased demand, is a key requirement for the Rock Rapids community app to accommodate potential growth in user traffic, especially during peak usage times or in the event of unexpected popularity [Context and Explanation]. On Fly.io, horizontal scaling for Remix applications is typically achieved by configuring autoscaling rules based on metrics such as CPU utilization or memory usage. These rules are defined within the fly.toml configuration file. Fly.io provides documentation and tutorials on its website to guide users through this process. However, implementing horizontal scaling effectively requires a foundational understanding of concepts like load balancing and session management in a distributed environment. For volunteer administrators, who may not possess extensive experience with these concepts, the initial setup and configuration of autoscaling might present a learning curve [Context and Explanation].
Incorrectly configured autoscaling rules can lead to undesirable outcomes. Setting the scaling thresholds too low might result in the application scaling up prematurely even during minor traffic fluctuations, leading to unnecessary increases in operational costs. Conversely, setting the thresholds too high could mean the application doesn’t scale up quickly enough to handle sudden surges in user activity, potentially leading to performance degradation and a poor user experience. Therefore, volunteers will need to invest time in understanding and fine-tuning these rules based on the actual usage patterns of the community app. Furthermore, proper session management is critical in a horizontally scaled Remix application to ensure a consistent user experience. Without appropriate session management, users might experience issues such as being logged out unexpectedly or losing their progress if subsequent requests are routed to different application instances that do not have their session data. Implementing effective session management might necessitate modifications to the Remix application’s code or the utilization of external session stores, adding another layer of complexity for the volunteer administrators. While Fly.io offers a robust platform for horizontal scaling, the configuration and management demand a solid grasp of distributed systems principles, which could be a significant consideration for a volunteer-run project. The learning curve associated with setting up autoscaling rules and ensuring proper session management in a distributed environment needs to be carefully evaluated.
4. Fly.io’s Managed PostgreSQL and Redis Services
Fly.io offers managed PostgreSQL and Redis services as add-ons to its hosting platform, simplifying the deployment and management of these essential database components for Remix applications. For PostgreSQL, a basic instance with 1GB of RAM and 25GB of storage starts at approximately $19 per month, while a similar configuration for Redis begins around $7 per month. Integrating these managed services with a Remix application on Fly.io is designed to be straightforward, utilizing standard connection strings provided by the platform. For a small community app like the one in Rock Rapids, Iowa, there are no explicitly mentioned limitations on these services. However, it is important to recognize that the performance and cost of these managed database services might need to be re-evaluated as the application’s user base and the volume of data it handles grow over time [Context and Explanation].
The starting prices for Fly.io’s managed PostgreSQL and Redis represent recurring monthly expenses that must be factored into the community app’s budget. As the application evolves and its data storage and processing needs increase, the required resources for these databases, such as RAM and storage capacity, might need to be upgraded, leading to higher monthly costs. For instance, the initial 25GB of storage for PostgreSQL might be adequate during the early stages of the community app. However, as community members contribute more content, such as posts, profiles, and event details, this storage could eventually become insufficient, necessitating a move to a more expensive plan with greater capacity. Similarly, increased database activity resulting from a larger user base might require more RAM to maintain optimal performance, again increasing the monthly expenditure. While the use of standard connection strings simplifies the initial integration process, volunteer administrators should also familiarize themselves with fundamental database management tasks and performance monitoring for both PostgreSQL and Redis. This proactive approach will help ensure that the application remains performant and stable as it scales. Even with managed services, tasks such as monitoring query execution times, tracking memory usage, and potentially optimizing database queries might become necessary as the application’s complexity and data volume increase.
5. Docker-Based Deployment Process for Remix on Fly.io
Fly.io utilizes Docker as the foundation for its application deployment process. To deploy a Remix application on Fly.io, developers typically create a Dockerfile within their project. This file serves as a blueprint, specifying the application’s runtime environment and all necessary dependencies. Fly.io then takes this Dockerfile and builds a Docker image, which is subsequently deployed to their infrastructure. This Docker-based approach ensures a high degree of consistency between the development environment, where developers often use Docker for local development, and the production environment on Fly.io. This consistency significantly reduces the likelihood of encountering environment-specific issues that can arise when deployment environments differ. Fly.io also provides command-line interface (CLI) tools that are designed to simplify the deployment process, making it more accessible for developers.
While Docker provides significant benefits in terms of environment consistency, it also introduces a dependency on Docker knowledge within the volunteer development team. Volunteers who are not already familiar with Docker will need to learn how to create and manage Dockerfiles. This involves understanding concepts such as image layers, environment variables, and the build process itself. The time and effort required for volunteers to acquire this Docker proficiency should be taken into consideration during the decision-making process. However, the standardization offered by Docker can also foster better collaboration among volunteer developers. By defining the application’s environment within a Dockerfile, all developers work with the same set of dependencies and configurations, streamlining onboarding for new contributors and minimizing the time spent troubleshooting environment-related discrepancies. This can lead to a more efficient and less error-prone development workflow. Therefore, while Fly.io’s Docker-based deployment ensures environment consistency and can simplify collaboration, it necessitates that the volunteer team either possesses or is willing to acquire the necessary Docker skills. The learning curve associated with Docker should be carefully weighed against the benefits of environment standardization.
Exploring Alternative Hosting Providers for Remix
1. Identifying Affordable and Reliable Alternatives to Fly.io
Beyond Fly.io, several other hosting platforms are frequently recommended for deploying web applications, including those built with Remix. Among the most prominent alternatives known for their balance of affordability and reliability are Render, Vercel, and Netlify. These platforms have gained significant traction within the web development community due to their ease of use, robust performance, and often competitive pricing structures, including generous free tiers or cost-effective paid plans. This makes them potentially viable options for the Rock Rapids community app, especially considering its budgetary constraints and reliance on volunteer administrators [Context and Explanation]. Exploring the features and pricing models of these alternative providers will offer a broader perspective and enable a more comprehensive evaluation of the best hosting solution for the project’s specific needs. The widespread adoption of these platforms also suggests that they benefit from strong community support and comprehensive documentation. This abundance of online resources, including tutorials, forum discussions, and third-party guides, could prove particularly valuable for volunteer administrators who might need to rely on these resources for troubleshooting and guidance as they manage the application. Therefore, Render, Vercel, and Netlify represent established hosting providers with features and pricing models that warrant consideration as alternatives to Fly.io for hosting the Remix community app. Their strong community support and readily available documentation could be significant assets for the volunteer team.
Comparative Analysis of Hosting Providers
1. Pricing Model Comparison: Fly.io vs. Alternatives
When comparing the pricing models of Fly.io and its alternatives, several key differences emerge. Render offers a more traditional pricing structure with fixed monthly costs for various service tiers. Their basic web service, which might be adequate for the initial low-traffic phase of the Rock Rapids community app, starts at around $7 per month. Render also provides managed PostgreSQL and Redis options with pricing that is generally considered competitive. This fixed-cost approach can offer more predictable budgeting for a project with limited funding. Vercel, on the other hand, offers a generous free tier specifically for hobby projects. This could be particularly appealing for the initial development and very low-traffic stages of the community app. However, Vercel’s pricing scales based on usage and the specific features utilized, with a strong emphasis on serverless functions and edge deployments. Netlify also provides a generous free tier, primarily focused on static sites and frontend applications. For database support (PostgreSQL and Redis), both Vercel and Netlify typically require integration with external managed database providers.
While the free tiers offered by Vercel and Netlify are attractive for minimizing initial costs, it is crucial to carefully evaluate the limitations associated with these tiers against the anticipated usage of the community app. For example, Vercel’s free tier might have restrictions on the number of serverless function invocations allowed per month. If the Remix application relies heavily on serverless functions for its backend logic, exceeding these limits could result in unexpected charges. Similarly, Netlify’s free tier might impose restrictions on build times, which could become a concern if the Remix application has a complex build process or requires frequent deployments. Therefore, a comprehensive cost comparison across all these platforms should consider different anticipated usage levels for the Rock Rapids community app. This analysis should not only include the base hosting costs but also the expenses associated with database services, scaling, and any other necessary features. By estimating the resource consumption (e.g., bandwidth, database storage, function invocations) for various usage scenarios and applying each provider’s pricing model, the project team can determine which platform offers the most cost-effective solution at different stages of the app’s lifecycle. Render’s fixed starting price with integrated database options offers a predictable cost, while Vercel and Netlify’s free tiers are appealing for initial stages but require careful consideration of their limitations and the potential need for external database services.
Comparative Pricing Models
Provider | Base Hosting Cost (Basic) | Managed PostgreSQL | Managed Redis | Scaling Costs | Free Tier Details/Limitations |
---|---|---|---|---|---|
Fly.io | Usage-based (variable) | ~$19/month (basic) | ~$7/month (basic) | Based on added instances | Generous but likely insufficient for production |
Render | ~$7/month | Competitive | Competitive | Tier-based upgrades | Limited for static sites |
Vercel | Usage-based (variable) | Requires external provider | Requires external provider | Based on usage & features | Generous for hobby projects, limits on functions, build time |
Netlify | Usage-based (variable) | Requires external provider | Requires external provider | Automatic scaling of functions | Generous for static sites, limits on build minutes |
Note: This table provides a simplified overview. Detailed pricing should be consulted on each provider’s website.
2. Reliability and Uptime Guarantees: A Comparative View
In terms of reliability and uptime, Render, Vercel, and Netlify generally possess strong reputations within the web hosting industry. These providers often back their reliability claims with service level agreements (SLAs) for their paid tiers, offering a degree of assurance regarding service availability. User reviews for these platforms are typically positive, frequently highlighting their ease of use and consistent performance. The presence of SLAs for paid tiers can provide a more concrete guarantee of uptime and performance compared to Fly.io’s reliance on general uptime records. Volunteers should investigate the specific details of these SLAs, such as the guaranteed uptime percentage and any compensation offered in the event of downtime, to better understand the level of commitment from each provider. This information can help the community app team assess the risk of service interruptions and make an informed decision about which provider offers the most dependable hosting environment. Therefore, Render, Vercel, and Netlify are generally considered reliable hosting providers, and their paid tiers often include SLAs that offer guarantees regarding uptime and performance, presenting a competitive alternative to Fly.io in this aspect.
3. Scaling Mechanisms and Ease of Use for Volunteers
The ease with which a hosting platform allows for scaling is a significant factor for the Rock Rapids community app, particularly given that the application will be managed by volunteers [Context and Explanation]. Render and Vercel are known for offering relatively straightforward scaling mechanisms. Render often provides simple slider adjustments within its dashboard to scale resources, while Vercel typically offers automatic scaling based on traffic patterns. Netlify’s scaling for serverless functions is also generally handled automatically. These more user-friendly approaches to scaling might be more accessible for volunteer administrators compared to Fly.io’s more configuration-driven autoscaling, which requires defining rules in the fly.toml file. While simpler scaling mechanisms offer the benefit of ease of use, it is important for volunteers to understand the triggers and behavior of the automatic scaling features. This understanding will help ensure that the scaling behavior aligns with the expected traffic patterns of the community app and prevent unexpected cost increases due to overly aggressive scaling. For instance, if Vercel’s automatic scaling is highly sensitive to even minor traffic spikes, the application might scale up more frequently than necessary, leading to higher usage-based costs. Volunteers should familiarize themselves with the scaling thresholds and any cooldown periods to understand how the platform responds to changes in traffic and to potentially adjust these settings if needed. Therefore, Render, Vercel, and Netlify generally offer simpler and more user-friendly scaling mechanisms compared to Fly.io, which could be a significant advantage for volunteer administrators with limited DevOps experience. The ease of use provided by dashboard controls and automatic scaling can simplify the process of managing the application’s capacity as its user base grows.
4. Database Support Comparison: PostgreSQL and Redis
The availability and ease of integrating PostgreSQL and Redis are crucial considerations for the Rock Rapids community app. Render offers managed PostgreSQL and Redis services directly on its platform, similar to Fly.io. This provides a convenient and integrated solution for managing these databases. In contrast, Vercel typically integrates with third-party database providers such as Supabase or PlanetScale for PostgreSQL and Redis Labs for Redis. Similarly, Netlify also generally requires connecting to external managed database providers for PostgreSQL and Redis functionality. While relying on third-party database providers, as is the case with Vercel and Netlify, can offer greater flexibility in terms of database options and potentially better performance or pricing for specific database needs, it also adds a layer of complexity. This complexity involves managing separate accounts and billing for the database service, as well as configuring the connection between the hosting platform and the external database. For a volunteer team with limited resources, the simplicity of having managed database services integrated directly into the hosting platform, as offered by Render and Fly.io, might be preferable. Therefore, Render provides the most direct comparison to Fly.io in terms of offering integrated managed PostgreSQL and Redis services. Vercel and Netlify, while popular choices, require integration with external database providers, which offers flexibility but introduces additional complexity to the setup and management process.
5. Deployment Options and Environment Consistency Across Providers
All three alternative providers, Render, Vercel, and Netlify, offer Git-based deployment workflows, which are widely considered developer-friendly and integrate seamlessly with popular version control systems. Render provides optional support for Docker, allowing teams that prefer containerized deployments to utilize this approach. Vercel and Netlify, on the other hand, employ their own build and deployment systems that are specifically optimized for web applications. These systems often provide a streamlined and simplified deployment experience, which can be particularly beneficial for volunteers who may not have extensive experience with Docker. This might result in a slightly less standardized environment compared to Fly.io’s mandatory Docker usage, but it could also be simpler for volunteers who are not already familiar with containerization technology. While the simplicity of Vercel and Netlify’s deployment systems can be appealing, the absence of enforced Docker usage might potentially lead to inconsistencies between the development and production environments if developers are not diligent in ensuring their local environments closely match the platform’s build environment. This could potentially lead to unexpected issues arising only after the application is deployed. For example, if volunteer developers are using different versions of Node.js or system libraries in their local development setups, and the hosting platform doesn’t enforce a consistent environment through Docker, there’s a higher risk of encountering discrepancies in how the application behaves locally versus in production. This can complicate debugging and troubleshooting efforts. Therefore, Render, Vercel, and Netlify offer developer-friendly Git-based deployment workflows, with Render providing optional Docker support. Vercel and Netlify’s proprietary systems might be simpler for those without Docker experience but could potentially lead to less strict environment consistency compared to Fly.io’s Docker-centric approach.
Recommendations Tailored for the Rock Rapids Community App
1. Considering the Local User Base and Budget Constraints
The primary user base for the Rock Rapids community app is geographically concentrated within and around Rock Rapids, Iowa. This local focus has implications for the choice of hosting provider. While global distribution and extensive edge locations might be a significant advantage for applications with a worldwide audience, they are less critical for this specific project [Insight]. The primary concern should be ensuring reliable service and low latency for users in the intended geographic area. Therefore, when evaluating hosting providers, the location of their data centers within the United States becomes a relevant factor. Providers with data centers located centrally within the US would likely offer better performance and lower latency for users in Iowa compared to providers with infrastructure located solely on the coasts. The budget constraints of the community project necessitate a strong emphasis on cost-effectiveness. The different pricing models offered by Fly.io, Render, Vercel, and Netlify should be carefully considered in light of the anticipated usage patterns of the application. While free tiers can be attractive for initial development and very low-traffic periods, the project needs to anticipate the costs associated with scaling and sustained usage as the community app grows.
2. Balancing Reliability, Scalability, and Ease of Management
For a volunteer-run project with limited funding, finding the right balance between reliability, scalability, and ease of management is crucial [Insight]. While robust reliability is paramount to ensure a positive user experience and maintain community engagement, the complexity of managing the hosting environment should be minimized to accommodate the volunteer administrators. Platforms with simpler scaling mechanisms and more intuitive user interfaces might be preferable to those requiring extensive command-line interaction or manual configuration of complex rules. The trade-offs between fine-grained control and ease of use should be carefully evaluated. Opting for a platform with a slightly less granular level of control but a significantly simpler management interface could be a more sustainable approach for a volunteer team with potentially varying levels of technical expertise. While sophisticated scaling capabilities are important for future growth, the initial focus should be on selecting a platform that offers sufficient reliability and a manageable scaling path without imposing an undue burden on the volunteer administrators.
Conclusion: Selecting the Optimal Hosting Environment for the Remix Community App
Based on the detailed analysis, several hosting providers present viable options for the Rock Rapids community app. Fly.io offers a globally distributed platform with usage-based pricing, managed PostgreSQL and Redis, and Docker-based deployments, providing a high degree of control and flexibility. However, its pricing model requires careful monitoring, and the scaling mechanisms might present a learning curve for volunteer administrators unfamiliar with distributed systems. Render offers a more predictable fixed-cost pricing model, integrated managed databases, and relatively straightforward scaling, making it an attractive option for budget-conscious, volunteer-run projects. Vercel and Netlify provide generous free tiers suitable for initial stages and offer simplified deployment workflows, but their reliance on external database providers adds complexity, and their pricing scales based on usage and features.
Considering the local user base, budget limitations, and the volunteer nature of the administration, Render emerges as a potentially strong contender for hosting the Rock Rapids community app. Its straightforward pricing, integrated database services, and user-friendly scaling mechanisms align well with the project’s key requirements. While Fly.io offers more granular control, Render’s ease of use might be more beneficial for volunteer administrators. Vercel and Netlify’s free tiers are appealing for initial exploration, but the need for external database management and the potential for usage-based costs to escalate might make them less predictable in the long run for a project with limited funding.
Fly.io might have an edge due to its flexibility in running any database in containers and its strong focus on geographic distribution. However, this comes with more configuration complexity. For a hybrid approach, we could use Render for the app and an external service (e.g., Neon for free Postgres) alongside it – this loses the “all-in-one” appeal and would not be acceptable long-term, but the hybrid approach might be a okay during an investigatory period to trial run different services. The next steps for the community app team should involve exploring Render’s free tier (if available and suitable for initial testing) and thoroughly reviewing their pricing plans for production environments. Conducting further testing with a small group of users in Rock Rapids on a trial deployment would also provide valuable insights into the performance and reliability of the chosen platform. Finally, reaching out to the support teams of the shortlisted providers with specific questions related to their use case can help clarify any remaining uncertainties and inform the final decision.