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I felt, if I laid out all possible scenarios in a diagram like this, it would 'shout' at me if I was missing a scenario/path a SMS message could take. ![]() It identifies at the bottom of the chart which method gets invoked based on the path taken from top to bottom. I recalled a good example in the book 'Groovy in Action', they used a NSD to identify how a method is invoked in a Groovy Class, depending on if the class instance is a Groovy Object, a Closure or an instance of Groovy interceptable. While technically correct, I felt it did not deliver what I was looking for, which is a complete snapshot of all possible scenarios laid out, guaranteeing that no scenario was missing. A logical approach would be to draw a flowchart outlining each possible path that ends in a response. I had to make sure that each and every possible scenario is handled by the system resulting in a successful or an error response. ![]() Each SMS has a response based on conditions such as, which phone was used to text, if the keyword was sent before from that phone, if a user had access to request a resource, etc. While working on an SMS solution where the system responds to individual SMS text messages, each controlled by a single keyword. #STRUCTORIZER ONLINE FREE#Needless to say, we're free to implement our own scanners, JAX-RS annotated resources and even Google Guice binders.If you can use a flowchart synonymously with a Nassi Schniederman diagram (NSD), why would you want to use it? Flow-charts are widely supported in many tools and any algorithm can be possibly drawn with it, why would you need a NSD? I felt the need for it. #STRUCTORIZER ONLINE CODE#The code above scans the package for Spring-annotated beans and adds them as components to the container JVM. New SourceCodeComponentFinderStrategy(new File("/path/to/base"), 150)) įinally, we start the finder: componentFinder.findComponents() New ReferencedTypesSupportingTypesStrategy() We can even plug in custom resolution strategies: ComponentFinder componentFinder = new ComponentFinder( Resolution strategies affect things such as which components will be added to the model, depth of dependency tree traversal etc. Next, we need to create a ComponentFinder configured with one or more resolution strategies. To utilize this feature, we need to add yet another dependency: Componentsįor existing code-bases using the Spring framework, Structurizr provides an automated way of extracting Spring-annotated components and adding them to the architectural artifacts. Rendering the resulting diagram via PlantUML produces: 7. #STRUCTORIZER ONLINE PASSWORD#We recommend using a longer, stronger password though, and using a. Passwords must be at least 12 characters including one number ( 0-9 ), one lowercase letter ( a-z) and one uppercase letter ( A-Z ). ![]() createContainerView(paymentTerminal, "F5", "Container View") We provide free access to our paid cloud service for open source projects and academic establishments. Next, we define relationships between these newly created elements: f5.uses(jvm1, "route") įinally, create a container view that can be fed to a renderer: ContainerView view = workspace.getViews() "JVM-3", "JVM-3", "Java Virtual Machine") Ĭontainer oracle = paymentTerminal.addContainer( "JVM-2", "JVM-2", "Java Virtual Machine") Ĭontainer jvm3 = paymentTerminal.addContainer( ![]() "JVM-1", "JVM-1", "Java Virtual Machine") Ĭontainer jvm2 = paymentTerminal.addContainer( "Payment Load Balancer", "Payment Load Balancer", "F5") Ĭontainer jvm1 = paymentTerminal.addContainer( In a C4 model, containers can be web applications, mobile apps, desktop applications, databases and file systems: pretty much anything that holds code and/or data.įirst, we create some containers for our payment terminal: Container f5 = paymentTerminal.addContainer( #STRUCTORIZER ONLINE SOFTWARE#Let's extend our software system by adding some containers. ![]()
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