AI Analysis
The package exhibits moderate risks related to shell execution and code obfuscation, raising concerns about its intended use. While there is no clear evidence of malicious activity, the opaque nature of some code segments warrants caution.
- Potential for command injection via os.system and subprocess calls
- Unusual code formatting suggesting possible obfuscation
Per-check LLM notes
- Network: The network call to an SMTP server might be legitimate if the package is designed for email functionality, but it should be verified for unexpected usage.
- Shell: Direct use of os.system and subprocess calls can pose risks if not properly sanitized, especially when executing external commands like 'nvidia-smi'. This could indicate potential for command injection or unintended execution.
- Obfuscation: The code snippets suggest potential obfuscation around model evaluation and performance measurement, which could be benign but raises suspicion due to the unusual formatting.
- Credentials: No patterns indicative of credential harvesting were found.
- Metadata: The maintainer's information is sparse, indicating potential lack of transparency.
Package Quality Overall: Low (2.8/10)
No test suite detected
No test files or test-runner configuration detected
Some documentation present
Detailed PyPI description (4803 chars)
No contributing guide or governance files found
No CONTRIBUTING, CODE_OF_CONDUCT, or governance files found
Partial type annotation coverage
350 type-annotated function signatures detected in source
Unable to verify contributor count: no GitHub repository found
No GitHub repository linked — contributor count unavailable
Heuristic Checks
Found 1 network call pattern(s)
n to SMTP server with smtplib.SMTP(smtp_server, smtp_port) as server: server.startt
Found 6 obfuscation pattern(s)
el.to(torch_device) model.eval() warmups = max(int(warmup_runs or 0), 0) def _exee == "forward": model.eval() with torch.no_grad(): fc = FlopCountert was_training: model.eval() return float(fc.get_total_flops()) def get_model_flong = model.training model.eval() try: # Use no_grad instead of inference_mode ts_training: model.eval() def estimate_training_memory( model: torch.nn.Modules_training: model.eval() total_bytes = param_bytes + grad_bytes + optimizer_st
Found 6 shell execution pattern(s)
"nt": # Windows os.system("cls") else: # macOS and Linux os.syste# macOS and Linux os.system("clear") except Exception as e: vp.printf(f"Errostartup fails. process = subprocess.Popen( [sys.executable, script_path], cwd=os.getcwtry: result = subprocess.run( [ "nvidia-smi",] process = subprocess.Popen( terminal_cmd, cwd=wmd] process = subprocess.Popen( terminal_cmd, cwd=w
No credential harvesting patterns detected
No typosquatting candidates detected
Email domain looks legitimate: gmail.com>
All external links appear legitimate
No GitHub repository linked
No GitHub repository link found
2 maintainer concern(s) found
Author name is missing or very shortAuthor "" appears to have only 1 package on PyPI (new or inactive account)
No known vulnerabilities found in OSV database.
AI App Starter Prompt
Create a predictive maintenance tool for industrial machinery using the 'araras' Python package. This tool will analyze historical data from various sensors attached to different machines to predict potential failures before they occur. The application should be able to ingest real-time sensor data, process it through a series of machine learning models provided by the 'araras' package, and generate alerts when a machine shows signs of impending failure. Key Features: 1. Real-time Data Ingestion: The tool should be capable of collecting live data from multiple sensors attached to various machines. 2. Data Preprocessing: Implement data cleaning and transformation steps using 'araras' utilities to prepare the raw sensor data for analysis. 3. Model Training & Evaluation: Utilize 'araras' to train several machine learning models on historical data. These models should be evaluated based on accuracy, precision, recall, and F1-score. 4. Predictive Analytics: Once trained, use these models to predict the likelihood of future machine failures based on incoming sensor data. 5. Alert System: If any machine has a high probability of failing according to the model predictions, the system should trigger an alert via email or SMS. 6. Dashboard: Develop a simple web-based dashboard using Flask or Django where users can visualize the health status of all machines in real-time. 7. Documentation: Provide comprehensive documentation detailing how each part of the system works, including setup instructions and explanations of the machine learning models used. The 'araras' package plays a crucial role in this project by providing the necessary tools for data preprocessing, model training, evaluation, and prediction. It simplifies the process of applying advanced machine learning techniques to real-world problems, making it easier to develop efficient and accurate predictive maintenance solutions.
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