AI Analysis
The package shows signs of potential risks due to its use of shell commands and unconventional code formatting, although there is no strong evidence of malicious intent.
- High shell risk due to use of os.system and subprocess
- Unusual code formatting possibly indicating obfuscation
Per-check LLM notes
- Network: The network calls seem to be fetching necessary resources, which is common for packages that require external datasets or models.
- Shell: Use of os.system and subprocess indicates the package might execute commands on the host system, which could pose a risk if not properly sanitized or controlled.
- Obfuscation: The code appears to be using standard practices for setting up models in PyTorch, with some unusual formatting that may indicate obfuscation but is not strongly indicative of malicious intent.
- Credentials: No patterns suggesting credential harvesting were detected.
Package Quality Overall: Low (3.6/10)
No test suite detected
No test files or test-runner configuration detected
Some documentation present
Detailed PyPI description (7158 chars)
No contributing guide or governance files found
No CONTRIBUTING, CODE_OF_CONDUCT, or governance files found
Partial type annotation coverage
109 type-annotated function signatures detected in source
Limited contributor diversity
1 unique contributor(s) across 100 commits in atomgptlab/alignnSingle author but highly active (100 commits)
Heuristic Checks
Found 2 network call pattern(s)
est_path): response = requests.get(url, stream=True) total_size_in_bytes = int(responseile(path): response = requests.get(url, stream=True) total_size_in_bytes = int(response
Found 6 obfuscation pattern(s)
elf.device) model.eval() self.model = model else: m) ) ff_model.eval() ff_model.to(self.device) self.ff_model = f) prop_model.eval() prop_model.to(self.device) self.prop_model): self.model = model.eval().to(device).to(dtype) self.Z = np.asarray(atomic_nudict(state) model.eval() specs.append( PropertySpec(ate_dict(state) model.eval() self._models[name] = model return model
Found 5 shell execution pattern(s)
om/txie-93/cgcnn.git" os.system(cmd) cwd = os.getcwd() os.chdir(cgcnn_folder) lots("atom_init.json"): os.system(cmd) f = open("id_prop.csv", "w") for i in dataset:+ local_name ) os.system(cmd) os.chdir(cwd) t2 = time.time() print("Time:try: VERSION = ( subprocess.check_output(["git", "rev-parse", "HEAD"]).decode().strip() ) except_path, "w") as f: p = subprocess.run(cmd, stdout=f, stderr=subprocess.STDOUT) return p.return
No credential harvesting patterns detected
No typosquatting candidates detected
Email domain looks legitimate: nist.gov
All external links appear legitimate
Repository atomgptlab/alignn appears legitimate
1 maintainer concern(s) found
Author "Kamal Choudhary, Brian DeCost" 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 Python-based molecular alignment and analysis tool using the 'alignn' package. This tool will allow users to input molecular structures and analyze them based on their alignment and structural properties. Here's a detailed breakdown of the project requirements: 1. **Project Overview**: Develop a command-line interface (CLI) application that accepts molecular structure files (e.g., .mol, .sdf) as inputs and performs alignment and analysis tasks. 2. **Features**: - **Molecule Input**: Allow users to upload one or multiple molecular structure files. - **Alignment**: Use 'alignn' to perform structural alignment of molecules, finding the best match between them based on geometric and topological similarities. - **Analysis**: Provide detailed analysis of aligned molecules, including but not limited to bond lengths, angles, and torsions. - **Visualization**: Integrate a simple visualization component to display aligned molecules side-by-side or overlaid for comparison. - **Output**: Generate a report summarizing the alignment results, key differences, and similarities between the molecules. 3. **Implementation Steps**: - Step 1: Set up your development environment with Python and install necessary packages including 'alignn'. - Step 2: Design the CLI interface allowing file uploads and specifying alignment options. - Step 3: Implement the alignment functionality using 'alignn', ensuring it supports various molecular file formats. - Step 4: Develop the analysis module to extract meaningful data from the aligned structures. - Step 5: Create visual representations of the aligned molecules using a plotting library such as Matplotlib or Plotly. - Step 6: Generate a comprehensive output report detailing the alignment process and findings. 4. **Utilization of 'alignn'**: The 'alignn' package will be crucial for performing the alignment task. Users should be able to choose different alignment methods provided by 'alignn' to suit their specific needs, such as global or local alignments. Additionally, leverage 'alignn' for any additional functionalities like scoring alignments or generating alignment matrices. Your goal is to create a versatile and user-friendly tool that can be easily integrated into existing workflows for molecular scientists and researchers.
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