AI-Assisted Rapid Prototyping | Desktop Dashboard Design

AI-Assisted Rapid Prototyping | Desktop Dashboard Design

AI-Assisted Rapid Prototyping | Desktop Dashboard Design

Designing and validating a scalable dashboard system through AI-accelerated prototyping using Claude and V0

AI Warehouse Management

B2B AI Warehouse Management Dashboard Design

Case study | 6 min read or 1 min skim

Overview

At 25M, I worked on an early-stage AI-powered warehouse platform focused on operational performance and SLA management. This case study highlights my role in defining the information architecture, dashboard hierarchy, and rapid prototyping workflow for a scalable analytics system.


Due to confidentiality, the product name and client details are redacted. This narrative focuses on how operational intelligence and performance metrics were structured into a decision-oriented desktop dashboard.

Design Challenge

The platform needed to evolve across three layers: performance visibility, operational inquiry tools, and administrative configuration.

The challenge was to design a cohesive system that:

  • Provided a high-level KPI snapshot across all customers

  • Enabled deeper operational investigation (tracking + order status inquiries)

  • Supported configurable administrative controls for scaling across warehouses and teams

Timeline

  • Design Sprint from Thursday-Tuesday

  • Internal team meeting every Tuesday

  • Design Partner meeting every Thursday

Q4 - 2025

Team

Product Designer-Me

Engineers

Product Manager

Design Lead

Skills

Sketching

Rapid Prototype

Industry

Enterprise SaaS

Warehouse Management

Analytics Platform

Tools

Figma

Claude (AI)

V0 (AI)

The Problem

Problem Statement

The team had clear functional requirements across three phases, but no structured information hierarchy to connect them.


How might we design a scalable warehouse intelligence platform that:

  • Translates SLA-based KPIs into clear risk states

  • Allows users to move seamlessly from monitoring → investigation → configuration

  • Supports both high-level visibility and granular operational workflows

  • Remains modular enough to expand as backend logic evolves

Compliance does not equal engagement.

The real problem wasn’t logistics, it was motivation, cognitive load, and emotional friction.

Compliance does not equal engagement. The real problem wasn’t logistics, it was motivation, cognitive load, and emotional friction.

The Solution

Translating Complexity into Decision Architecture

I designed a three-layer operational intelligence system that connects visibility, investigation, and configuration into one cohesive workflow.


Rather than treating the deliverables as separate features, I structured the platform as a progressive decision architecture:

Monitor → Investigate → Configure

I designed a three-layer operational intelligence system that connects visibility, investigation, and configuration into one cohesive workflow.


Rather than treating the deliverables as separate features, I structured the platform as a progressive decision architecture:

Monitor → Investigate → Configure

I designed a three-layer operational intelligence system that connects visibility, investigation, and configuration into one cohesive workflow.


Rather than treating the deliverables as separate features, I structured the platform as a progressive decision architecture:


Monitor → Investigate → Configure

Phase 1 - High Level Customer KPI Summary Dashboard


I designed a modular KPI dashboard that translated SLA thresholds into intuitive performance states. The system included:

  • An executive-level operational snapshot across all customers

  • A sortable, filterable customer KPI table

  • SLA-based threshold indicators (On Track, At Risk, Critical)

  • Weekly reporting for trend visibility

Phase 2 — AI Prompt Library (Investigation Layer)

To support operational inquiry, I designed an AI-powered Prompt Library interface that allowed users to:

  • Locate shipments via tracking number

  • Run order status inquiries


This layer enabled users to move from passive monitoring to active investigation — using AI as an operational assistant.

Phase 3 — “Order Status” Settings Preferences

Phase 3 — “Warehouse” Settings Preferences

Phase 3 - “Warehouse Teams” Settings Preferences

Phase 3 — “Customers” Settings Preferences

Phase 3 — “Customers” Settings Preferences

Phase 3 — Administrative Controls (Configuration Layer)


Finally, I designed the system configuration surfaces to ensure scalability across warehouses and teams. This included:

  • Order Status settings

  • Warehouse management (assigning and managing locations)

  • Warehouse team management

  • Reporting configuration


This layer ensured the platform was not only viewable and usable — but configurable and adaptable as operational needs evolve.

THE PROCESS

THE PROCESS

Discover

Clarifying Decision Context Before Designing

Before moving into visuals, I clarified:

  • Who is the primary dashboard user?

  • What decisions must be made from each page?

  • What might the user experience looks like?

  • What are the interaction behaviour of each button/click?


Understanding that there are three phases to tackle:


Phase 1 Deliverables: High Level view of all customers KPIs

• Add summary view of KPIs across all customers
• Implement sortable customer KPI table
• Add SLA-based filters and threshold indicators
• Enable weekly reporting view


Phase 2 Deliverables: Prompt Library Design

  • Tracking Number Inquiry (locate shipment via tracking ID)

  • Order Status Inquiries


Phase 3 Deliverables: Administrative Controls

• Order Status settings (customize and review orders)
• Warehouse management page (assign, add, manage locations)
• Warehouse team management
• Weekly reporting configuration

Leveraging the Existing Design System

All screens were built using the company’s original design system to maintain visual consistency and accelerate iteration.

Leveraging established design system to design new screens

Define

Translating SLA Documentation into Dashboard Logic

One of the early design requirements was to integrate additional SLA-driven metrics into the dashboard.

The team shared a redacted SLA document outlining fulfillment thresholds, dispatch timelines, receiving windows, returns processing, merchant response times, and peak handling conditions.

Rather than directly placing these metrics onto the UI, I:

  • Grouped related SLA metrics into logical clusters

  • Identified which metrics to use and their order

One of the early design requirements was to integrate additional SLA-driven metrics into the dashboard.


The team shared a redacted SLA document outlining fulfillment thresholds, dispatch timelines, receiving windows, returns processing, merchant response times, and peak handling conditions.


Rather than directly placing these metrics onto the UI, I:

  • Grouped related SLA metrics into logical clusters

  • Identified which metrics to use and their order

Screenshot 3: Additional Metrics Cards that I've designed

In addition to required metrics, I proposed additional SLA insights that could strengthen decision visibility. These included aggregated SLA miss indicators and contextual performance breakdowns.

Develop

AI-Accelerated Prototyping as a Design System Tool

To move quickly within tight sprint timelines, I incorporated AI tools into my workflow.

I tested both V0 and Claude for layout exploration and structural prototyping. I leaned toward V0 for early visual iteration because the output resembled realistic dashboard layouts, making stakeholder discussions more concrete.

AI Tool #1 - V0

V0

Strong visual UI output closer to production-ready layouts

Easier to visualize dashboard structure quickly

AI Tool #2 - Claude

Claude

Stronger at logical structuring and information hierarchy

Better for defining data relationships

Screenshot 5: V0 Output

Screenshot 6: Claude Output

Prompt Strategy

Output quality depended entirely on prompt structure. My workflow:


  1. Define structural logic in ChatGPT

  2. Convert into platform-specific prompts

  3. Test across V0 and Claude

  4. Use the html.to.design Figma plugin to convert layouts into editable files

  5. Refine manually in Figma with proper auto-layout and responsiveness


This ensured AI accelerated exploration without replacing design judgment. Again, these prototypes were intentionally fast and iterative, optimized for alignment rather than polish.

Screenshot 7: Prompting with V0

Screenshot 8: Prompting with V0

Screenshot 9: Using html.to.design - a Figma's plugin to paste the design created by V0 onto my Figma file

Develop

Integrating AI Into the Product Experience

Beyond dashboard metrics, I also needed to consider how AI would appear within the product itself.


A key question was:

How should the system proactively signal which customers require monitoring?

We explored the idea of an AI Assistant embedded within the dashboard to surface risk insights and highlight accounts that required attention.


Placement and visibility were critical. The assistant needed to feel integrated into operational workflow rather than a separate tool.

Screenshot 9: Using html.to.design - a Figma's plugin to paste the design created by V0 onto my Figma file

Reflection

Impact & Key Takeaways

Impact

  • Design Partner were satisfied with the designs


Key takeaways
• Define hierarchy before designing visuals
• Validate feasibility with engineering early
• Use AI as an exploration engine


This project strengthened my ability to translate backend ambiguity into structured decision systems.


Learnings

AI significantly accelerated my layout exploration and structural iteration. However, clarity still depended on thoughtful prompting, human curation, and product reasoning. The result was not just a dashboard interface, but a scalable framework for operational intelligence.

Deliver

Moodboard

Posty uses a warm, nature-inspired palette paired with the modern Mulish typeface to convey transparency, sustainability, and approachability. The colors balance clarity with optimism, while Mulish ensures a clean, friendly user experience.

Posty

Mulish Medium 30px

Mulish Medium 16px

Mulish Medium 14px

Thanks for stopping by

vyvee.design@gmail.com

Playground

Vibes Coding

About Me

Linkedln

Current Listening

Made with sooo many matcha

© 2026 Vee Mai

Thanks for stopping by

vyvee.design@gmail.com

Playground

Vibes Coding

About Me

Linkedln

Current Listening

Made with sooo many matcha

© 2026 Vee Mai

Thanks for stopping by

vyvee.design@gmail.com

Playground

Vibes Coding

About Me

Linkedln

Current Listening

Made with sooo many matcha

© 2026 Vee Mai

Thanks for stopping by

vyvee.design@gmail.com

Playground

Vibes Coding

About Me

Linkedln

Current Listening

Made with sooo many matcha

© 2026 Vee Mai