BROWSER COMPUTE
DECISION SCIENCE / 001

Turn operational uncertainty
into better decisions.

Simulate demand, test staffing strategies and understand the trade-offs between service quality, customer abandonment and cost.

DISCRETE-EVENT SIMULATIONSEEDED MONTE CARLOREPRODUCIBLE ANALYSIS
01 — OVERVIEW

Performance snapshot

● Ready to analyze80 runs · 8-hour shift
SERVICE LEVEL◎
—
Customers served within SLA
TOTAL EXPECTED COST$
—
Across an 8-hour shift
AVERAGE WAIT◷
—
Among served customers
CUSTOMER ABANDONMENT↘
—
Expected customers lost
02 — INTELLIGENCE

Staffing frontier

Each point uses the same simulated arrival cohorts for fair comparison.

ECONOMIC TRADE-OFF

Expected shift cost ⓘ

TOTAL COST
Run simulation to view the optimization curve.
CUSTOMER EXPERIENCE

Service-level performance ⓘ

SLA ATTAINMENT
Choose a service-level target and compare options.
03 — DECISION SUPPORT

Recommended strategy

WAITING FOR RUN

Use Run simulation to find the cheapest staffing level that achieves your SLA target.

04 — UNCERTAINTY

Variability across simulations

P10–P90 BAND

Replicated simulation output will appear here.

P10–P90 is the middle 80% of simulated outcomes. It is not a guarantee or a confidence interval for future performance.
05 — ALL ALTERNATIVES

Staffing comparison

AGENTSSLAAVG WAITLOST / SHIFTUTILIZATIONTOTAL COSTFLAG
Run the simulation to generate comparison data.
HOW IT WORKS

Transparent by design.

This model assumes hourly Poisson arrivals, triangular service duration, first-come-first-served queues, fixed customer patience and fixed staffing. It simulates an 8-hour shift with optional overtime, compares identical sampled cohorts across staffing levels and reports cost in illustrative USD.

Important: This is a planning sandbox with synthetic demand, not an AI predictor or a validated production forecast. Check assumptions against actual operations before making decisions. For zero-arrival shifts the modeled SLA is defined as 100%.