The KAG (Knowledge Augmented Generation) project, under the OpenSPG organization, is a framework designed to enhance logical reasoning and Q&A capabilities in domain-specific knowledge bases. It addresses limitations of traditional RAG models by integrating structured and unstructured data into a unified knowledge graph and employing mixed reasoning techniques. The project is active, with recent updates focusing on user experience enhancements and future plans for domain-specific improvements.
kag_config.yaml
for examples, indicating active development with significant line changes.Timespan | Opened | Closed | Comments | Labeled | Milestones |
---|---|---|---|---|---|
7 Days | 8 | 14 | 8 | 8 | 1 |
30 Days | 34 | 25 | 91 | 33 | 1 |
90 Days | 67 | 45 | 178 | 65 | 1 |
All Time | 68 | 46 | - | - | - |
Like all software activity quantification, these numbers are imperfect but sometimes useful. Comments, Labels, and Milestones refer to those issues opened in the timespan in question.
Developer | Avatar | Branches | PRs | Commits | Files | Changes |
---|---|---|---|---|---|---|
None (zhuzhongshu123) | 6 | 33/32/0 | 37 | 88 | 174978 | |
Xinhong Zhang (northmachine) | 7 | 1/0/0 | 37 | 456 | 84222 | |
Donghai (youdonghai) | 2 | 1/0/1 | 14 | 64 | 8850 | |
royzhao | 4 | 0/0/0 | 32 | 130 | 8517 | |
田常@蚂蚁 | 5 | 3/2/0 | 17 | 51 | 1411 | |
None (xionghuaidong) | 1 | 1/1/0 | 2 | 10 | 285 | |
FishJoy | 2 | 0/0/0 | 6 | 1 | 80 | |
quanqing | 1 | 0/0/0 | 1 | 1 | 13 | |
matthewhyx | 1 | 0/0/0 | 1 | 1 | 9 | |
Chasing | 1 | 2/1/1 | 1 | 1 | 6 |
PRs: created by that dev and opened/merged/closed-unmerged during the period
Risk | Level (1-5) | Rationale |
---|---|---|
Delivery | 3 | The project shows active development with significant feature enhancements and bug fixes, as seen in PR#174 and PR#88. However, the high volume of changes and unresolved issues, such as those in #143 and #104, pose risks to delivery timelines. The disparity between opened and closed issues over longer periods indicates potential challenges in maintaining delivery schedules. |
Velocity | 3 | The project demonstrates commendable velocity with active participation from multiple developers, as evidenced by the high number of commits and pull requests. However, the accumulation of unresolved issues and the complexity of ongoing refactors like PR#174 could slow down progress if not managed effectively. |
Dependency | 4 | The reliance on external libraries like Neo4j and the potential changes in their APIs introduce dependency risks. Issues such as integration failures (#143) highlight challenges in managing dependencies effectively, which could impact overall project stability. |
Team | 2 | The team shows strong engagement with both users and technical challenges, as seen in the active issue discussions and collaborative problem-solving. However, the low number of comments on issues might imply limited discussion or collaboration, which could affect team dynamics if not addressed. |
Code Quality | 3 | While there is a focus on enhancing functionality and resolving issues, the high volume of changes across multiple branches raises concerns about code quality. The lack of comprehensive testing or documentation updates in some PRs (e.g., PR#116) suggests potential risks to code quality. |
Technical Debt | 3 | The project is actively managing technical debt through refactoring efforts like PR#174. However, the absence of detailed documentation for some changes could hinder future maintenance and understanding, potentially leading to technical debt accumulation. |
Test Coverage | 3 | The inclusion of new test cases in some PRs (e.g., PR#88) is a positive step towards improving test coverage. However, the lack of comprehensive testing for other changes (e.g., PR#116) suggests that test coverage may still be insufficient to catch all bugs and regressions. |
Error Handling | 4 | Error handling is addressed through logging in various components, but the extensive use of logging without specific error recovery strategies may not be sufficient for robust error handling. Issues like context limit errors (#104) highlight potential gaps in error handling mechanisms. |
Recent GitHub issue activity for the OpenSPG/KAG project shows a mix of feature requests, bug reports, and user inquiries, indicating active engagement from both the development team and the community. Notably, several issues have been closed recently, suggesting ongoing maintenance and resolution efforts.
Feature Requests and Enhancements: Several issues (#171, #152, #130) focus on enhancing user experience and functionality, such as integrating a visual query builder and syntax highlighting for schemas. These suggest a focus on improving accessibility and usability for non-technical users.
Technical Challenges: Issues like #143 and #104 highlight technical challenges users face, such as integration failures with specific data formats or models, and context limit errors during processing. These indicate areas where the system's robustness could be improved.
Schema and Model Integration: There are multiple discussions (#126, #93) around schema definitions and model performance, reflecting ongoing efforts to refine how KAG integrates with various data structures and machine learning models.
System Performance and Errors: Issues like #151 and #100 point to performance bottlenecks and inconsistencies in query results across different projects, suggesting a need for optimization in handling large datasets or complex queries.
Community Engagement: The presence of detailed user feedback and collaborative problem-solving (e.g., comments on #94, #53) indicates a strong community involvement in the project's development process.
These issues reflect a blend of strategic enhancements, technical troubleshooting, and user-driven feature requests that collectively shape the project's roadmap.
#177: update(kag) update kag_config.yaml for examples
kag_config.yaml
for various examples, with significant line changes across multiple files. The frequent updates and merges from the base branch suggest active development. However, the high number of line changes (+665, -506) could introduce potential integration issues that need careful review.#174: refactor(all): kag v0.6
#141: feat(builder): update outline splitter
#88: feat(solver): support math operator
#118: fix(solver): fix graph p zh name
#116: keep consistent with 'ner.py' to avoid errors when language='zh'
#71: feat(builder): add namespace for extracted subgraphs
#64: Update Readme
#176: feat(common): remove config key check
#173: chore(kag): merge master
#172 & #169 & #168 & #167 & #166 & #165 & #164 & #163 & #159 & #158 & #157 & #156 & #155 & #154 & #153 & #149 & #148 & #147 & #146 & #145 & #144 & #142 & #140 & #139 & #138 & #137 & #136 & #135 & #134 & #133 & #132 & #131 & #128
Overall, the OpenSPG/KAG project shows signs of active development with a mix of strategic enhancements and routine maintenance tasks being addressed through its pull requests.
logic_node_parser.py
Structure and Organization: The file is well-organized into classes representing different types of logic nodes (GetSPONode
, FilterNode
, CountNode
, etc.). Each class encapsulates the logic for parsing and handling specific operations, which is a good practice for maintainability and readability.
Code Quality:
parse_node
, parse_node_spo
, etc.) is appropriate as these methods do not rely on instance-specific data.NotImplementedError
exceptions for methods like to_dsl()
, indicating that subclasses should implement these methods. This is a good design choice to enforce implementation in derived classes.Error Handling: The code raises RuntimeError
when parsing fails, which is clear and provides useful error messages. However, using custom exception classes could provide more context-specific error handling.
Potential Improvements:
kag_retriever.py
Structure and Organization: The file defines the DefaultRetriever
class, which extends ChunkRetrieverABC
. It is well-structured with methods clearly separated by functionality (e.g., entity recognition, score calculation).
Code Quality:
@retry
from the tenacity
library is a robust way to handle transient errors in network calls.Error Handling: The code logs errors using Python's logging module, which is a good practice for tracking issues without interrupting execution flow. However, more granular logging levels (e.g., info, warning) could be used to differentiate between types of log messages.
Potential Improvements:
calculate_combined_scores
could benefit from additional inline comments explaining the logic behind calculations.main_solver.py
Structure and Organization: This file serves as an entry point for invoking the solver pipeline. It is concise and straightforward.
Code Quality:
project_id
, task_id
, etc.) makes the code easy to follow.invoke
) orchestrates various components effectively but lacks detailed comments or docstrings.Error Handling: There is no explicit error handling in this file. It would be beneficial to add try-except blocks around critical operations to handle potential failures gracefully.
Potential Improvements:
invoke
method and its parameters would enhance clarity.kag_extractor.py
Structure and Organization: The file defines the KAGExtractor
class with methods for named entity recognition, standardization, and triple extraction. It follows a logical flow from initialization to extraction processes.
Code Quality:
input_types
, output_types
) provides a clear interface for expected input/output formats.@retry
, indicating resilience against transient failures during remote service calls.Error Handling: Exceptions are logged, but there is room for improvement by categorizing different types of exceptions (e.g., network vs. processing errors).
Potential Improvements:
kag_config.yaml
Structure and Organization: As a configuration file, it likely contains key-value pairs setting up parameters for various components. It should be organized logically with sections clearly delineated.
Code Quality:
Potential Improvements:
Overall, the source code files demonstrate good practices in terms of structure and organization but could benefit from enhanced documentation and error handling strategies.
田常@蚂蚁 (caszkgui)
Chasing (zzzcccxx)
zhuzhongshu123
huaidong.xhd (xionghuaidong)
Xinhong Zhang (northmachine)
Donghai (youdonghai)
royzhao
FishJoy (fishjoy)
matthewhyx
quanqing (sjnn12138)