Structured CV representation
CVs are parsed into structured fields such as education, experience, skills, tools, industries, seniority signals, achievements, keywords, and role-specific evidence.
CVorah AI is built as a structured career intelligence engine: CV parsing, ATS-aware feature extraction, skill and keyword analysis, role-fit scoring, trained AI models, and privacy-first processing.
A generic AI wrapper sends text to a large language model and returns a rewritten answer. CVorah AI does more: it transforms a CV into structured career data, evaluates it through ATS-aware rules and model-based scoring, and produces explainable recommendations for career improvement.
CVs are parsed into structured fields such as education, experience, skills, tools, industries, seniority signals, achievements, keywords, and role-specific evidence.
Our model layer is designed around career-specific tasks such as CV quality scoring, skill extraction, role-fit estimation, ATS readability, and professional language improvement.
CVorah is designed to process career documents securely. User CVs are not sold, and they are not used to train external public models.
The platform combines deterministic logic, model-based inference, and career-domain rules.
Documents are normalized and prepared for parsing. The system extracts text, sections, ordering, formatting signals, and structural information.
The engine identifies skills, tools, job titles, seniority indicators, education signals, achievements, action verbs, measurable impact, and keyword density.
Career-specific models evaluate CV quality, ATS compatibility, keyword coverage, profile strength, missing skills, role alignment, and improvement priorities.
The final layer converts model outputs into practical recommendations: better wording, stronger keywords, role suggestions, skill gaps, and next career actions.
CVorah AI is designed with a modular model layer. Instead of relying only on one general-purpose prompt, we separate career intelligence into smaller tasks: parsing, classification, ranking, scoring, rewriting, and recommendation generation.
Our internal research workflow is designed around machine learning experimentation, including PyTorch-based model development for task-specific career intelligence modules.
CV scoring is treated as a multi-factor problem: structure, clarity, relevance, skill coverage, ATS readability, achievement strength, and role-specific keyword alignment.
The platform evaluates signals that applicant tracking systems and recruiters commonly rely on: section clarity, keyword match, clean formatting, role terminology, and measurable outcomes.
CV data is sensitive. A CV can reveal education, work history, location, skills, salary expectations, and career direction. That is why CVorah is designed around strict data minimization and controlled processing.
We do not sell user CVs, career profiles, or analysis results to third parties.
User CVs are not used to train external public AI models.
The platform is designed so users can request deletion of their data and control how their information is handled.
General-purpose AI can rewrite text, but career intelligence requires structured evaluation. A strong CV analysis system needs domain-specific scoring, ATS-aware constraints, role-fit logic, explainable skill-gap detection, and consistent evaluation criteria.
Produces text suggestions based mainly on prompt wording. Results may vary strongly depending on how the user asks the question.
Uses a structured pipeline: parsing, feature extraction, ATS-aware checks, role-fit analysis, scoring logic, and career-specific recommendation layers.
Instead of only saying “improve your CV,” CVorah identifies why: weak keywords, missing skills, vague achievements, unclear formatting, or low role alignment.
Section order, readability, formatting consistency, information hierarchy, and ATS-friendly layout.
Role-specific vocabulary, technical skills, industry terminology, and missing high-signal keywords.
Use of measurable achievements, impact statements, action verbs, responsibilities, outcomes, and clarity.
Alignment between the user profile and potential job families such as business analyst, data analyst, product analyst, HR, finance, marketing, or operations roles.
Missing tools, methods, certifications, or technical capabilities that may reduce competitiveness.
Detection of vague wording, passive descriptions, weak phrasing, unclear impact, and low recruiter clarity.