Server-Based Object Execution Console for Remote Code Development
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Solution Overview
Problem
Developing and executing object-oriented computer programming code that relies on pre-existing objects is complex and time-consuming, requiring significant effort to set up and maintain computing environments, especially when changes are made or additional objects are introduced.
Innovation Solution
A system and method where programming code is executed on a server that stores running objects, allowing users to input code through a remote console, with the server processing the code using these objects and transmitting the execution results back for display, thereby decoupling the code execution from the local environment.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If a limited computing environment is set up to execute code relying on pre-existing objects, then the code can be executed with proper object access, but the setup time and effort become disproportionate for simple tasks
Solution Approach 1:
The system pre-loads and maintains a runtime environment with all necessary pre-existing objects in memory before code execution is needed. This preliminary preparation eliminates the need for time-consuming setup when users want to execute code, as the environment is already ready with all required objects accessible.
Solution Approach 2:
The runtime environment is designed as a universal platform that can execute any code relying on any pre-existing objects from different sources and class libraries. This multi-functional environment serves multiple purposes: executing code, testing modifications, and learning APIs, all without requiring separate setup procedures.
2Reliability
If the computing environment is deployed to execute code, then the code can run with proper object dependencies, but any code change requires redeployment, wasting computing resources
Solution Approach 1:
The runtime environment is designed to be dynamic rather than static. It automatically detects code changes and dynamically reloads only the modified components while maintaining the rest of the pre-existing objects in memory. This dynamic adaptation allows code modifications to be executed immediately without full redeployment, reducing computing resource waste.
Solution Approach 2:
The pre-existing objects remain continuously loaded in the runtime environment, maintaining their operational state. When code changes, only the specific code segments needing updates are reloaded, while the objects continue to function without interruption. This continuous operation eliminates the need to repeatedly load and unload the same objects, conserving computing resources.
3Adaptability or versatility
If additional objects are introduced to the code, then the code functionality is enhanced, but a whole new environment with new dependencies must be set up and deployed
Solution Approach 1:
The system merges multiple pre-existing objects from different sources, class libraries, and applications into a single unified runtime environment. This consolidated environment manages all objects and their dependencies centrally, allowing code to access any object without requiring separate environment setups for each object group.
Solution Approach 2:
The runtime environment acts as an intermediary layer between the user's code and the diverse pre-existing objects. It provides a unified interface and dependency management system that abstracts away the complexity of individual object sources, allowing users to introduce additional objects without directly managing the underlying environmental complexity.
4Productivity
If code is finalized in a limited environment, then the code is ready for deployment, but a wholly different environment must be set up just to test the code
Solution Approach 1:
The runtime environment is designed as a universal platform that serves multiple functions throughout the software development lifecycle. It can be used for initial code execution, testing code modifications, validating additional objects, and final deployment verification. This multi-functional capability eliminates the need to switch between different environments for different development stages.
Solution Approach 2:
The system creates an equipotential development environment where the same runtime context is maintained across all development activities. The pre-existing objects and their dependencies remain in the same state and configuration whether the user is writing new code, testing modifications, or preparing for deployment, eliminating environmental discrepancies between different development phases.
Data Source
AI summary
Methods, computer-readable media, and systems are provided for executing programming code. In one embodiment, a server may store running objects to be used by the programming code. The server may provide a code development console through which the programming code may be input at a remote terminal. The server may receive the programming code inputted into the code development console, execute the programming code by using operations of the running objects, and transmit an execution result of the programming code to the remote terminal for display in the code development console.