Nested Container Builds for Validated Software Dependencies
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Solution Overview
Problem
Existing software development processes rely heavily on third-party software modules that are difficult to validate for modern coding, security, and licensing requirements, making it challenging to ensure the functionality, integrity, and predictability of the build process.
Innovation Solution
An automated, nested build environment that explores dependencies between software modules, compiles source code for each dependency, and builds them in separate containers, allowing for validation and debugging at every level, with a repository to store validated source code for reuse.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If pre-compiled third-party software modules are downloaded and incorporated into the build, then the build process is faster and code reuse is promoted, but the ability to validate security, licensing, and coding standards is limited
Solution Approach 1:
The system segments the build process into multiple independent container environments. Each container is dedicated to building specific software modules from source code, allowing parallel execution and isolated validation. This segmentation enables both fast builds (through parallel processing) and comprehensive validation (through controlled environments), resolving the contradiction between build speed and validation capability.
Solution Approach 2:
The patent introduces an intermediary build system that acts as a mediator between third-party software providers and the main build process. This intermediary system downloads source code, builds modules in isolated containers, validates them against security and licensing standards, and then incorporates the validated artifacts. This intermediary layer enables comprehensive validation while maintaining build efficiency, resolving the contradiction between using pre-compiled modules and validating requirements.
2Reliability
If source code for third-party modules is downloaded and built in separate containers, then validation and debugging capability is improved, but the build process complexity increases
Solution Approach 1:
The system implements a universal container template that can be reused across multiple build scenarios. The same container image, configuration files, and build scripts serve multiple purposes: downloading source code, compiling modules, running tests, and validating security standards. This universality reduces the actual complexity introduced by multi-container building, as the same infrastructure handles diverse validation requirements, resolving the contradiction between validation capability and process complexity.
Solution Approach 2:
The build system implements self-service mechanisms where containers automatically download their own dependencies, configure their own environments, and execute their own build processes based on metadata extracted from the source code. This automation reduces the manual complexity of managing multiple containers, as the system self-organizes the build process, resolving the contradiction between comprehensive validation and process complexity.
3Reliability
If all software modules are built from source code in the main build environment, then security and licensing standards are ensured, but the build time and computational resources increase
Solution Approach 1:
The system performs preliminary actions by pre-building software modules in separate containers before they are needed in the main build process. These pre-built artifacts are validated for security and licensing compliance, then cached and reused in subsequent builds. This preliminary action ensures standard compliance while reducing build time, as validated artifacts are reused rather than rebuilt, resolving the contradiction between standard compliance and build time.
Solution Approach 2:
The system maintains continuity of useful action by implementing a caching mechanism that preserves validated build artifacts across multiple build cycles. Once source code is downloaded and built in a container with validated compliance, the resulting artifact continues to be usable in future builds without re-validation. This continuous reuse of validated artifacts maintains security and licensing standards while significantly reducing repetitive build time, resolving the contradiction between standard compliance and build efficiency.
Data Source
AI summary
A main build environment may create a container for the main source code and any required utilities when building a software application. This container may be populated with an operating system, a configuration that includes instructions for performing the build, toolchains needed for the build, and/or other utilities. If any dependencies on third-party software modules exist, the build environment may create a new container and import the source code for the software module instead of simply importing the precompiled software modules into the build environment. The new container may similarly include toolchains and a configuration specific to building the software module. The software module may then be built within its separate container to generate an executable artifact that may be uploaded/imported into the main build environment during the main build process. Software dependencies can thus be built as part of the main build process from source code.