A
AI-Driven Severance Maximization Planner
4.25
Derivation Chain
Step 1
AI-driven reduction in new hiring
→
Step 2
Increased voluntary resignation consideration among 40-50s middle managers due to AI replacement anxiety
→
Step 3
Need to optimize severance, unemployment benefits, and pension amounts based on resignation timing and method
Problem
Office workers aged 45-55 facing department downsizing due to AI adoption cannot determine which path—recommended resignation, voluntary resignation, or early retirement—maximizes their combined severance pay, unemployment benefits, and pension. Labor consultant consultations cost 100,000-300,000 KRW (approx. $75-$225) per case, and online information only offers general guidance without calculations tailored to their tenure, salary, and pension enrollment history. A wrong choice can result in differences of millions to tens of millions of KRW (approx. $7,500-$75,000), yet most workers simply accept the company's proposed terms.
Solution
Users input their tenure, monthly salary, severance interim settlement history, National Pension enrollment period, and early retirement compensation conditions on the web. The service automatically calculates three scenarios—recommended resignation, voluntary resignation, and early retirement—showing (1) after-tax severance pay, (2) unemployment benefit eligibility, duration, and total amount, and (3) differences by National Pension withdrawal timing, then presents the optimal path in a comparison table. Differentiation: No existing service provides an integrated simulation of the legal and financial differences across resignation types.
NUMR-V Scores
NUMR-V Scoring System
| N Novelty | 1-5 | How uncommon the service is in market context. |
| U Urgency | 1-5 | How urgently users need this problem solved now. |
| M Market | 1-5 | Market size and growth potential from proxy indicators. |
| R Realizability | 1-5 | Buildability for a small team with realistic constraints. |
| V Validation | 1-5 | Validation signal quality from competition and demand data. |
N=.15 U=.20 M=.15 R=.30 V=.20
Feasibility (68%)
Data Availability
18.3/25
Feasibility Breakdown
| Tech Complexity | / 40 | Difficulty of core implementation stack. |
| Data Availability | / 25 | Practical availability and cost of required data. |
| MVP Timeline | / 20 | Expected time to ship a usable MVP. |
| API Bonus | / 15 | Bonus for viable public API leverage. |
Market Validation (74/100)
Validation Breakdown
| Competition | / 20 | Signal quality from competitor landscape. |
| Market Demand | / 20 | Demand proxies from search and mention patterns. |
| Timing | / 20 | Fit with current shifts in tech, behavior, and regulation. |
| Revenue Signals | / 15 | Reference evidence for monetization viability. |
| Pick-Axe Fit | / 15 | How well the concept serves participants in a trend. |
| Solo Buildability | / 10 | Practicality for lean-team implementation. |
Technical Requirements
Frontend [medium]
Backend [medium]
Data Pipeline [low]