Microsoft Azure Cosmos DB Reviews

I find SQL API suitable. I used it in my last project. Previously, I worked for a client called EPS, which has a product called BOS (brokerage operation support system). There I have used the SQL API.

I have used it in a product called BOS, and we achieved many things with Microsoft Azure Cosmos DB, which helped improve our products efficiently.

It helps in many ways in my current projects such as brokerage operation, which shifts multiple data in different regions. It helps significantly in storing and retrieving data from different countries for shipping details, shipping ID, and all data records in different countries.

Microsoft Azure Cosmos DB is a fully managed globally distributed NoSQL database. It is highly available with low latency and scalability. It supports multiple data models and APIs, making it flexible for different applications. Its features include multi-model support, global distribution, automatic scaling, and support for multiple APIs such as SQL API, MongoDB API, Gremlin, and Cassandra.

We can use Microsoft Azure Cosmos DB for storing and managing all types of data manipulations including inserting, fetching, and updating records. These operations can be performed efficiently.

The storage in Microsoft Azure Cosmos DB is globally distributed and highly efficient. Storing and retrieving data is much faster and more efficient.

It is cloud-friendly and easy to use. We can easily insert data and retrieve information from this cloud platform. The UI is better, faster, and efficient.

It supports various types of APIs and is a fully managed, globally distributed database that helps in different regions. Microsoft Azure Cosmos DB is a distributed and multi-model NoSQL database that supports SQL, MongoDB, and other platforms. Its scaling is managed using the request per unit, and it has auto-scaling based on business requirements.

The features include support for multiple NoSQL data models such as documents in JSON format, key-value store, graph database, wide column store, and MongoDB compatibility. In the document model, we can use the SQL API, while in the key-value store, we can use the table API. The Graph database is used for Gremlin.

It has a large capacity of up to 12 GB per physical partition per container. I have used up to three to four GB.

Its latency is high and impressive. The support is very high, with read-write latency at 10 ms per second.

It handles large-scale operations efficiently, such as tracking views, logs, or events. It has high write throughput and handles partition issues and storage growth effectively.

There are some disadvantages as it is costly compared to other NoSQL databases. It has a complex pricing model and has a strict partitioning strategy. There are limited SQL query capabilities in Microsoft Azure Cosmos DB.

It is more expensive than other server cloud service providers with its request units pricing model.

I have one year of working experience with Microsoft Azure Cosmos DB in my current organization.

The solution scales very well.

I'm not sure about technical support. I haven't worked with them. 

Before Microsoft Azure Cosmos DB, I used SSMS and MySQL server management. For cloud solutions, I have only used Microsoft Azure Cosmos DB.

Initially, we logged into the Azure portal and create a new Microsoft Azure Cosmos DB account. Then we chose an API such as SQL API or MongoDB. We set up account details, subscription, region, and enable geographical replication and multi-write regions. After that, we created a database and specify the name and provisional throughput. Then we created a container inside, providing the container ID, partition key, and index policy.

It took around 15 to 20 days for full-fledged training.

Initially, it took approximately three months to get comfortable for learning purposes. I encountered some difficulties while learning, however, through the project, I learned many things.

It's fully cloud-based, so there is no maintenance.

We have six developers for deployment and related tasks in Microsoft Azure Cosmos DB.

AWS is another choice available. I find Microsoft Azure Cosmos DB better suited for my needs.

Microsoft Azure Cosmos DB and AWS DynamoDB are basically the same, however, Microsoft Azure Cosmos DB supports multi-region support and can replicate and auto-replicate the data. It is highly manageable, which is why I chose Microsoft Azure Cosmos DB.

I definitely recommend Microsoft Azure Cosmos DB. It handles large amounts of data, is highly reliable, and operates in a very fast and efficient way. Users can deploy their applications in the cloud, and it supports various APIs. On a scale of one to ten, I rate Microsoft Azure Cosmos DB a nine out of ten.

I was using Microsoft Azure Cosmos DB to store unstructured data.

It is easy to learn how to use Azure Cosmos DB.

Azure Cosmos DB enhances search result quality by enabling rapid data retrieval within its collections. It can handle large amounts of data efficiently.

Azure Cosmos DB offers numerous advantages, including flexibility, cost-effectiveness relative to performance, and a pre-existing infrastructure on Azure. Its support for multiple data models, extensive document database capabilities, and fully managed maintenance provided by Azure make it a compelling choice with immediately apparent benefits.

Microsoft Azure Cosmos DB simplifies the process of saving and retrieving data. The only requirement is to create the collection and streamline data management.

There should be a simpler way for data migration. Currently, we need to write scripts to update data in bulk and ensure proper connectivity for migration with .NET, which seems hectic and risky.

I have used Cosmos DB in my previous project for around one year.

Azure Cosmos DB offers high availability, at approximately 99.9 percent, with good latency.

Azure Cosmos DB handles scalability well. It is easy to scale up the workloads.

Dynamic scaling enhances cost-efficiency and usability by automatically adjusting resources to meet demand. This means the system scales up capacity when needed and scales down when not in use, preventing unnecessary expenses.

I have used MongoDB, but not extensively. If working with Node, I would recommend Mongo, but in a Microsoft environment, I recommend Cosmos.

The initial deployment was manageable. It took around five to seven hours to deploy Cosmos to a working condition fully.

At that time, we had a team of four people managing the infrastructure and deployments.

I would rate Microsoft Azure Cosmos DB a seven out of ten.

New users should be familiar with DocumentDB since most people are only aware of relational databases, but Cosmos is different.

I have been using Microsoft Azure Cosmos DB for the last five years for IoT-based data saving and other purposes. We use non-structural data for various reasons. For instance, we are using artificial intelligence to save multiple data sets coming from different sources.

It is a managed service, so we do not want to worry about other aspects.

One valuable feature of Microsoft Azure Cosmos DB is partitioning. Its performance is very nice. I use it mostly on the Microsoft backend, particularly .NET and .NET Core technology. From deployment and accessibility aspects, there is significant performance improvement.

Additionally, consistency is noteworthy. For example, we have people spread across multiple locations. If they update data in Australia, we can access it in another location within a fraction of a second. That is an impressive feature of Microsoft Azure Cosmos DB.

It is very good from the optimization and usage point of view. It is very user-friendly. Microsoft also provides support from the performance aspect. They support us from the optimization and scalability aspects.

The query searching functionality has some complexities and could be more user-friendly. Improvements in this area would be very helpful.

We have multiple applications. Our applications are running in different environments such as AWS and Azure. We are able to give flexibility to AWS to access this data from Microsoft Azure Cosmos DB. We have created an interface between them through APIs. Through the APIs, the AWS applications can consume the data from Microsoft Azure Cosmos DB, but we have seen some slowness or latency, whereas with Azure, we see better performance. Our AWS is in the Eastern zone, and people in the Western zone have some latency.

I have used the solution for five years.

We are seeing some latency issues with AWS. It offers good availability. 

Being serverless, the scalability is very good.

We pay for the support. We are happy with their support. If we face any challenges initially, they provide us with a resource to answer all our questions.

Positive

Previously, we used MongoDB and DynamoDB, though not extensively. Because of client preferences and their use of Azure, we chose Microsoft Azure Cosmos DB. DynamoDB uses clusters, which affect costs.

The initial setup can be somewhat tedious. We have to set up things, run them, see the results, and fine-tune them.

The initial setup took more than one month. After that, everything became automated. Now, if we want to deploy it in another location, the operational team typically takes one week. They verify whether everything is working properly or not. By using the automated scripts, we can deploy it at other locations.

We have a separate team for configuration. We also get support from Microsoft.

Its price is in the middle, neither too low nor too high.

We are happy with the usage of Microsoft Azure Cosmos DB for our use case. In terms of learning, it is of medium complexity. It is neither very tough nor very easy.

Overall, I would rate Microsoft Azure Cosmos DB an eight out of ten.

We use Cosmos DB as our primary data store for all the different software services we offer.

Using Cosmos DB requires a shift in mindset due to the inherent differences between NoSQL and traditional relational databases. Those familiar with SQL Server, for example, will need to adjust to the fundamental differences between the systems. While there's an initial learning curve, Cosmos DB ultimately offers significant flexibility.

Cosmos DB offers several immediate and long-term benefits. First, it eliminates the need for extensive upfront database design, as its flexible schema allows for easy adjustments to data management. Second, it significantly reduces maintenance requirements compared to relational databases, which demand constant attention to tasks like index management and addressing issues arising from large table sizes. Cosmos DB avoids these issues, resulting in substantial cost savings over time.

Cosmos DB significantly reduced our total cost of ownership by approximately 40 percent due to recent design changes, specifically a feature called partition-based scaling.

The onboarding process for Cosmos DB is quick, due to the comprehensive documentation.

As a NoSQL database, it offers schema flexibility which simplifies design and reduces initial engineering overhead. This allows for rapid product delivery, especially for initial versions. The change feed is instrumental to our design and handling of data changes. Recent additions like partition-based scaling have significantly reduced costs of over $25,000 per month with minimal effort. These are just a few of the top features we appreciate about Cosmos DB.

We encountered an issue with Cosmos DB's recently introduced hierarchical partition feature. After enabling it, we discovered that the web-based Cosmos Explorer tool sometimes fails when hierarchical partitioning is disabled. Although it usually works, we occasionally encountered situations where we couldn't query and manually inspect data in the Cosmos Data Explorer within Azure. We believe this is a significant issue and anticipate a fix will be released soon, although it may already be resolved.

I have been using Cosmos DB for ten years.

Cosmos DB has demonstrated excellent stability with no issues encountered.

Cosmos DB is extremely easy to scale up, and changes usually take just a few seconds to a few minutes.

The customer service was quick and to the point during our limited interaction. The correct information was conveyed without the typical pain associated with support systems, where someone with little product knowledge addresses issues.

Positive

The deployment is straightforward and generally takes about fifteen minutes to complete. Initial database provisioning requires five to ten minutes, followed by a minute or two to create the necessary tables and containers.

The deployment process is automated using ARM templates, allowing developers to initiate deployments by clicking buttons within the Azure DevOps tools.

Using partition-based scaling, we achieved about 40 percent savings in costs for Cosmos DB.

The Cosmos DB pricing model, initially quite complicated, became clear after consulting with Azure Advisor, allowing us to proceed with confidence.

I rate Cosmos DB ten out of ten.

While there is a learning curve when transitioning from traditional SQL databases to NoSQL databases, this is not specific to Cosmos DB. Regardless of the provider, understanding NoSQL requires a shift in approaching data storage and retrieval, particularly for those familiar with relational databases. This inherent learning curve stems from the fundamental differences between the two database types and necessitates learning new concepts and techniques for effectively working with NoSQL databases.

No maintenance is required.

For newcomers, it is crucial to understand that despite the SQL API, Cosmos DB is not a traditional SQL database. Many issues arise when trying to apply relational database principles. Understanding NoSQL databases' limitations and adapting to the mindset required is essential.

I develop applications. I developed an application where I had to search the Azure Cosmos DB database for values related to suspicious entities. It involved retrieving, sorting, and manually searching data through queries.

Azure Cosmos DB helped improve the quality of our search results. We could see its benefits immediately after the deployment.

The availability and latency of Azure Cosmos DB are excellent. It handles large data insertions efficiently without any problems related to scalability. It scales workloads very well.

The library of Azure Cosmos DB is like JPA, but it is not exactly JPA. We could not integrate that.

The size of the continuation token in Azure Cosmos DB should be static rather than increasing with more data, as it can lead to application crashes. They should use a static key size.

If we want to update some data, we cannot use the SQL command line. It is not like SQL Server or any other relational database. We have to send the JSON file or send the text to the Azure portal.  These are the only two options. We cannot use the normal SQL statement.

I have been using it since December 2021.

The scalability is very good. We performed performance tests, inserting objects with more than 10,000 records without any issues, although, on the application side, we started to see high memory consumption. That is because, with larger JSON files, you will have more objects in the Java application. These things consume memory, but there are no issues regarding scalability.

I have not contacted their support.

Neutral

I have experience with MongoDB but only for personal studies. I only learned the basic things.

It was easy because we have Terraform embedded in the Jenkins pipeline. Once I deploy the application, it connects with Azure Cosmos DB. It is already configured, so I do not have to worry about this part.

It took us about one month to get onboarded and understand the basic functionalities. 

It does not require any maintenance at our end.

We usually have a team of three to four people.

I am not aware of the price, but a challenge that I have faced occasionally is that running longer queries requires more RUs, so I have to ask someone with permissions to execute the queries.

I would advise learning more about queries and select statements. You can use that on the Java side and Cosmos SDK.

It is easier to learn if you already know relational databases. You can use some of that knowledge to work with Azure Cosmos DB. Also, if you know JPA, it would not be so difficult to work with the Cosmos SDK for Java application development. Inserting data is also simple.

It is at a medium level in terms of ease of use. There is documentation for gathering the information. Azure Cosmos DB does not have any constraints for the column names. If you want to create a specific query, you can find information related to that in Microsoft documentation. You can find queries to solve specific problems.

I would rate Azure Cosmos DB an eight out of ten.

We use it as a data storage platform for several proprietary applications that we have designed and built and now support. We generally use it to be able to scale so that our customers can search a sizable amount of data. We have millions of records that include an extensive amount of text.

We implemented Azure Cosmos DB for our tokenization process. We had originally built a data dictionary to be able to tokenize different words within our MongoDB collection, but over a period of three years or so, we found that there were some limitations to doing that. The data dictionary needed to be updated, so we turned to the vector search feature because it essentially allows us to measure the similarity between words. Those sorts of comparisons could be done very easily. There is the ability to tokenize words, which we then use in the search functionality provided for the users of our applications. It has helped us improve the search functionality of our applications.

I landed on it as an architectural component of one of our first solutions. I went in expecting its benefits. It delivered the benefits of being able to quickly scale and being able to support semi-structured, unstructured, and structured data sets or data properties. All of these aspects are supported. We were able to realize its benefits early on.

We have used the vector database with Azure AI services. It works fine. They are embedded vectors. We are running some text through Azure AI. It then returns these embedded vectors, and we store those. We are able to use those vector values or vectors to determine the similarity between various words that are being searched in our applications.

The Azure Cosmos DB's ability to search through large amounts of data is excellent. It is fantastic. We have benefited from it. It is great.

There are a number of different APIs or data storage supported in Azure Cosmos DB. Specifically, we are using the MongoDB API, so we leverage it in that way. I like the flexibility that it offers. My team does not have to spend time building out database tables. We can get going fairly quickly with being able to read and write data into a MongoDB collection that is hosted inside Azure Cosmos DB.

I found it very easy to use. We have been using it for five years, so it is quite flexible for us. The ease of use is quite high for us.

It is easy to use, but optimization has been a mixed experience. It has been more of trying to figure out how to do so. We have not found much support there, so we have to come up with our own way of optimizing it in different ways. That is one area of improvement. We would like to have more tools that support the optimization of Azure Cosmos DB. There are not many tools out there. We have had to develop our own tools internally, such as a clean plan or query plan, and look at the index usage, throughput, and those sorts of things. The portal experience for optimizing and monitoring the service needs a few enhancements.

I am looking at it through the lens of MongoDB API. There are four or five other APIs that are supported in Azure Cosmos DB. The MongoDB API experience could be improved substantially by having a more user-friendly set of administrative tools so that I can go out there and query the documents that are part of the collection. Currently, I am working around that by using third-party tools like 3T. I also use MongoDB's Compass client tool. They can make this part of managing the database or the collection a lot easier by providing some built-in toolsets, similar to what is offered by Azure with Azure Data Studio. That is a big area for improvement. 

We should also be able to better manage the cost. There have been some improvements there, but there is still room for improvement in terms of how costs are managed through the Azure portal relative to Azure Cosmos DB. To me, it is one of the more expensive services out there depending on how it is being leveraged.

One of the key limitations is that only so many vectors can be supported. It does not work very well with the large amount of text that has to be embedded in the vectors. That is one limitation we have run into with the feature set.

It has been five years. 

The SLA is pretty good. We have been able to at least get past 99.9%. We are probably closer to 99.99%. So, overall, it has done well over the five years. Just like with most things, there were a few instances where it crashed or was not available. Those instances are memorable, but they are few and very far apart.

Its latency is good. The availability is also good.

Its scalability is good. However, redundancy does not work very well. Redundancy is having a set of backups. It is also a part of high availability. We have used some of the redundancy features in Azure Cosmos DB, and it created problems for us consistently. We recently had to move away from having a redundant copy of the data and just having a single copy. Of course, we have adequate backups.

Through the lens of MongoDB API, the scalability can be better. However, the limitations are core to the actual platform. MongoDB is not designed to scale horizontally, so that is how Azure offers it. It scales vertically which means that I can go and request more compute and more memory RUs for the instance that I am using. If I was supporting multiple workloads that had different read/ write patterns, it would work, but it is not designed to do that well at its core, as I understand it. It is less of a function of Azure Cosmos DB and more of a function of MongoDB itself.

The dynamic scaling has helped decrease our organization’s overhead costs. We are able to scale up during business hours, or when there is demand, we scale automatically. There are some tools that we have built and some processes that do that. We can also scale down during non-business hours or when the demand drops for the database or the data store. It has helped to manage scaling costs.

I contacted their support this year when we had some issues. When it comes to customer service, it always comes down to the person you get on the phone or who picks up your ticket. 

Regarding Azure Cosmos DB, we felt frustrated when we needed that support from Microsoft. It has not been there because the things that we are dealing with are generally more complex than most customers would have to deal with. At times, the representatives or engineers we got or who picked up the tickets we submitted did not have the breadth of experience needed to support us or resolve the issues. So, we resolve the issues ourselves the best we can.

Negative

We use some of the alternatives because it does not solve everything. There is no such thing as one perfect data store. We use Azure SQL instances. We use SQL and VM in Azure. We have started doing a lot more Postgres, which is the flavor of the time. Everybody seems to be moving to Postgres all of a sudden.

Synapse is another tool. It is another Azure service that we use. It just depends on what type of data we are using and what makes sense in terms of the implementation of the application. Those are some of the alternatives that we have used.

Its deployment is easy. Setting up the service is easy. You make a decision around where you want to deploy and those sorts of things. There is a lot of pointing and clicking. That was very easy.

Taking it to production was a lot harder. It was a lift to get the data loaded into Azure Cosmos DB. At the time, there were about 750,000 resumes that we uploaded for a customer, so it took a lot of time. We had to build a custom app to load those documents on data records into Azure Cosmos DB. We had two people working on it for two weeks. We probably spent somewhere around 60 hours around the lift to get that all loaded up and going in Azure Cosmos DB.

It took us about 18 months to feel fully confident in working with this and reach a level where we can go and teach others. We feel that we have got a firm grasp of the service after about 18 months of production support.

Its maintenance has been taken care of by Microsoft. However, at the end of last year going into this year, there were a few disruptions with the service that hampered our customers or users. There have been times when the service went down, or the service was upgraded but the SDK or NuGet packages used to support or connect to Azure Cosmos DB were not in sync. Overall, Microsoft takes care of the maintenance.

It was all done in-house. We had two people involved in it, myself and my lead developer. It was mainly about loading data into Azure Cosmos DB. That was a big lift.

Azure Cosmos DB helped decrease our organization’s total cost of ownership. It is hard to provide the numbers, but managing the data store is easier for us with Azure Cosmos DB with the MongoDB API because there is no need for a DBA. We do not have a DBA on the team who is just taking care of the indexes and making sure that the database is healthy. It pretty much just runs. If we had a DBA in the team specifically for MongoDB, we would be paying about 150,000 dollars a year. We have to somewhere in the neighborhood of 50,000 dollars for the service in Azure. In terms of the total cost of ownership, it saves us about 100,000 dollars.

Pricing, at times, is not super clear because they use the request unit (RU) model. To manage not just Azure Cosmos DB but what you are receiving for the dollars paid is not easy. It is very abstract. They could do a better job of connecting Azure Cosmos DB with the value or some variation of that. 

Overall, I would rate Azure Cosmos DB an eight out of ten.

It has not been a direct approach for me because all of my enterprise-level applications are deployed in MongoDB. At some point, we usually face issues where we need multi-directional and different contexts to connect with the database. Sometimes we use SQL and need to retrieve data from the database. If using a typical MongoDB, this is not possible. Microsoft Azure Cosmos DB has bidirectional support for cross-platform connections, so we don't need to recreate our entire database structure in our application. We can work with the MongoDB driver and interact with Microsoft Azure Cosmos DB. The applications under my portfolio currently rely on that, mostly indirectly. We created the models, deployed our data, migrated it, and are using it heavily in Microsoft Azure Cosmos DB. 

Recently, we are building an AI-powered application where we heavily rely on Microsoft Azure Cosmos DB to bring data from ServiceNow, SAP, Salesforce, Cisco, and other customers we have at our organization. Reading and inserting data into Microsoft Azure Cosmos DB is a very smooth process.

Its scalability is great. Microsoft Azure Cosmos DB offers auto-scaling both horizontally and vertically. We haven't faced any issues.

For the third-party driver support they are currently providing, they need to ensure it stays up to date with the market throughout development. If MongoDB updates a particular feature in their drivers, we as developers expect that service and support to be available in Microsoft Azure Cosmos DB as quickly as possible in production.

Its scalability is good and depends on the traffic, with auto-scaling functionality ensuring we don't need to worry about database crashes or data loss during insertion. These problems were common when deploying our data on-premises. With Microsoft Azure Cosmos DB, we have overcome those struggles and are now operating smoothly.

It depends on the application. In some cases, we use Microsoft Azure Cosmos DB directly with Azure Functions to store customer details and manage the customer onboarding process through our enterprise applications. In several instances, operations happen directly with Microsoft Azure Cosmos DB.

For legacy applications built on MongoDB that need to transition to Microsoft Azure Cosmos DB, we take a different approach. If a company is migrating from on-premises systems to the cloud—whether it’s Microsoft Azure or AWS—sometimes it’s necessary to adopt different tools for the billing process and other infrastructural needs. In such cases, we may choose to use Microsoft Azure Cosmos DB to avoid having to restructure our entire legacy application. In these situations, we utilize MongoDB and its drivers as a mediator. These drivers interact with Microsoft Azure Cosmos DB to perform the necessary operations within the application.

On another note, when using Azure Functions, we typically handle cases such as creating, updating, or retrieving customer details. This process directly connects Azure Functions to Microsoft Azure Cosmos DB. Currently, we are managing these two different patterns effectively.

If you are an engineer with good experience in microservices and the Azure platform services, it's a one-day setup process, based on requirements. If you are new to the entire Azure platform and services, it can be a bottleneck. It takes time to understand the configurations and related aspects. If you're new, there is a learning curve. You need to understand which version you're using, what features are supported fully or partially, and which features are not supported. For example, when using MongoDB drivers to interact with Microsoft Azure Cosmos DB, understanding which version (4.1, 4.2, or 4.3) you're using and what features are supported by Microsoft Azure Cosmos DB for that particular version is important. Understanding query performance improvements based on supported features is crucial. For newcomers, it might take several days to understand and review documentation. For mid-level engineers with two or three years of experience, it's a straightforward, one-day process.

Pricing is a complex process at the enterprise level. While I'm not handling the pricing directly, through stakeholder meetings and conversations, we understood that having everything in a single platform with billing up and running for all required application services is beneficial. Microsoft Azure Cosmos DB comes into a single billing system for gold or silver partners, though I'm not familiar with specific company policies and terms and conditions as I'm not an infrastructure specialist.

I would rate Microsoft Azure Cosmos DB an eight out of ten.

We use Microsoft Azure Cosmos DB in our loyalty platform, which is based on our proprietary technology, Synapse LX. In loyalty, we need to enroll, score, and deliver rewards communications in near real-time. There are significant volume spikes in those activities, so our use case is to support the writing of information into our database. Cosmos DB is a no-SQL database that allows us to scale quickly and handle large volume spikes. It allows us to auto or manually scale in many different ways. It gives us much flexibility to handle that requirement and ensure we deliver the right customer experiences.

Cosmos DB is not difficult to use, but like anything, it requires careful planning and consideration of use cases. This is especially important when planning to implement it. From an optimization perspective, Microsoft has made significant efforts in the past 12 to 18 months to facilitate changes after initial implementation and optimize cost.

Cosmos DB provides excellent search result quality. Since implementing it, we have not encountered any issues with our searches.

After deploying Cosmos DB, we initially experienced some performance gains, followed by additional benefits that required a learning curve regarding tuning and configuration. As our understanding deepened, we were able to optimize it further.

In the last three months, Cosmos DB has helped reduce our total cost of ownership. Microsoft recently implemented a feature that allows us to achieve savings of up to 50 percent.

The most valuable aspect of Cosmos DB is its performance. It serves as the foundation for OpenAI's infrastructure, providing us with similar functionality. This not only prepares us for AI use cases but also efficiently supports our loyalty use cases. We can share information with our customers and deliver experiences without concern about performance.

For our Disaster Recovery plan, we currently use geo-replication. We'd like to avoid full DR replication if possible, as this would result in significant cost savings.

I have been using Microsoft Azure Cosmos DB for five years.

We have not had any stability issues with Cosmos DB.

Cosmos DB's scalability is excellent, which is the whole reason to use it for scalability and performance.

The dynamic scaling helps decrease our overhead costs.

The initial deployment was straightforward and consisted of two to three people.

Cosmos DB's pricing structure has significantly improved in recent months, both in terms of its pricing model and how charges are calculated. This has led to substantial cost savings for both us and our customers.

I rate Microsoft Azure Cosmos DB seven out of ten because of the disaster recovery requirements.

Cosmos DB presents a steep learning curve. I would rate it a five out of ten. The challenge lies not so much in understanding its concepts as in utilizing them effectively and efficiently.

It took us 12 to 18 months of focused attention to fully onboard our team. At that point, we began to understand. However, it wasn't until we went live and observed actual user activity that we truly grasped the whole picture. Testing is one thing, but experiencing real-world interactions provides invaluable insights and a deeper understanding.

Cosmos DB requires minimal maintenance, but monitoring its performance and optimizing it as needed is crucial.

Potential users should plan accordingly, as Cosmos DB is a NoSQL database that uses similar design principles. Consider the design and apply those principles beforehand to optimize performance from the start. Understanding your read-and-write ratio is crucial due to cost implications, so ensure you understand the balance between reading and writing to the database. All these factors matter as they can impact your costs, so consider them carefully.