EXECUTION INFRASTRUCTURE FOR AI-NATIVE ORGANIZATIONS

AI is transforming work. TAB makes sure work actually gets executed.

TAB detects execution gaps, restores stalled work, and routes recovery to the person, system, or agent best positioned to act — without replacing existing workflows.

Read the Thesis

Built for enterprise pilots. Designed around real operational environments.

01 — WHERE TAB STANDS

The infrastructure is built. The proof is not. That is the point.

An honest read for both sides of the table — what exists today, what remains unproven, and why engagement now is what converts one into the other.

WHAT IS READY

The technical infrastructure exists.

  • Core engine: friction-event detection across connected systems
  • Recovery routing through existing channels (Slack, Jira, email)
  • Adaptive wrapper expressing the fixed core per environment
  • Anonymous-by-architecture data model

WHAT IS NOT YET PROVEN

The risk that funding removes.

  • Pilot proof: 3–5 live environments validating recovery into value
  • Native connector depth (Salesforce, HubSpot, Linear, dbt)
  • The friction-event metric as a repeatable industry benchmark

WHY NOW

The window is the validation, not the build.

FOR DESIGN PARTNERS

Shape the recovery model inside your environment before it hardens. Your seams define the category.

FOR INVESTORS

Fund the validation, not more R&D. The infrastructure exists; the risk left is concentrated and removable.

PILOT-FIT STUDIO

Turn one stalled workflow into a testable pilot.

Describe the operating environment. TAB maps the breakdown, the minimum intervention, and a four-week measurement plan.

01Diagnose the stall
02Design Detect · Coordinate · Recover
03Define proof before deployment

01 — THE THESIS

The AI layer is growing. The execution layer is missing.

SaaS optimized work inside tools. TAB recovers the work that falls between them.

Every team has a tool. No one has the workflow.

SaaS gave each team a purpose-built app, but work crosses teams, systems, and agents. No tool owns the handoff — so the handoff is where work dies.

Dashboards observe. They don’t recover.

Monitoring tools surface metrics and alerts, but watching a stalled workflow doesn’t restart it. Visibility without recovery is just a faster way to watch work fail.

Automation fixes the repeatable. The rest still stalls.

RPA and workflow tools handle the path you already mapped. The work that stalls is the unplanned, the ambiguous, the cross-system — the work no automation was built for.

Abstract render of friction: jagged glass shards meeting fluid mercury, representing the gap between intent and action.

Failures live between intent and action — across people, permissions, tools and teams. The missing layer is not another app. It is the infrastructure that coordinates and recovers across them.

02 — PRODUCT ARCHITECTURE

One execution layer across the organization.

TAB sits as a horizontal coordination and recovery layer — connecting leadership, managers, employees, enterprise systems and AI agents without replacing any of them.

It observes in context, detects the exact breakdown, and triggers recovery inside the environments work already happens in.

Leadership
Managers
TABcoordination & recovery layer
CORE ENGINE
Employees
Enterprise Systems
AI Agents

Diagram: TAB forms a horizontal layer spanning leadership, managers, employees, enterprise systems and AI agents, acting as the coordination and recovery interface between them.

03 — CAPABILITIES

The execution loop: observe, detect, recover, learn.

01

Detect

TAB measures friction events in the workflow, in-flow — not people. Aggregate and anonymous by architecture. It counts events, not people; it bypasses, not alerts.

02

Coordinate

TAB routes the right action to the right actor — human, manager, or AI — inside existing tools, permissions and environments.

03

Recover

Stalled work is picked up and returned with continuity preserved — context, status and next step intact across systems and handoffs.

04

Learn

Each recovery trains the layer. Recurring breakdowns surface as structural patterns, not individual signals.

04 — THE DIFFERENTIATOR

The infrastructure stays constant. The operating layer adapts.

SELECT A USE CASE

ADAPTIVE WRAPPER

Customer Operations

Recovery embedded in case workflows; handoffs restored before SLA breach; AI suggestions routed inside approved tools.

SLA-aware recoveryCase-context routingChannel-native handoffs

FIXED CORE ENGINE

Core Engine

  • Observation logic
  • Breakdown detection
  • Recovery orchestration
  • Continuity model

Same core engine. Different operational expression.

05 — USE CASES

One core engine. Three places execution breaks.

The infrastructure stays constant. Hover a use case to see how its adaptive wrapper recovers stalled work — without replacing the tools your teams already use.

FIXED CORE

Core Engine

  • Observation logic
  • Breakdown detection
  • Recovery orchestration
  • Continuity model

NOW EXPRESSING

IT Governance

Same core engine. Different recovery expression.

05 — HOW IT WORKS

A closed loop, not a dashboard.

01

Observe context

TAB reads the operational context where work already happens — tools, roles, handoffs and status.

02

Detect the exact breakdown

It identifies the specific point where execution has stalled — not a score, an event.

03

Trigger the lowest-friction recovery

It routes the smallest action that unblocks work to the right actor, in-flow.

04

Return work with continuity

Work resumes with context, status and next step preserved across systems.

OUTCOME METRICS

Time to first action
Recovery rate from stalled moments
Reduction in dropped handoffs
AI adoption inside approved workflows

Pilot metrics are currently being defined with design partners.

SEE THE MECHANICS

Where the seams get recovered.

TAB sits across the handoffs between your existing systems. When a cross-tool handoff stalls, the layer intercepts it, routes the smallest action that unblocks it, and returns work with continuity — anonymous by design.

CRM
ITSM
Tickets
Pipelines
TAB
CORE ENGINE
1DETECT
2ROUTE
3RETURN
· Observe in context· Anonymous by architecture· No new system to adopt
Sales
DevOps
Support
Analytics

Diagram: source systems (CRM, ITSM, Tickets, Pipelines) hand off work down through the TAB coordination and recovery layer, which detects friction events, routes the smallest unblocking action, and returns continuity to destination systems (Sales, DevOps, Support, Analytics). The layer observes in context, is anonymous by architecture, and requires no new system to adopt.

1Friction event detected

A cross-tool handoff stalls — the seam between two systems goes silent. TAB sees it where work already happens.

2Smallest action routed

The layer triggers the minimal step that unblocks the handoff — not a new task, not a new dashboard to watch.

3Continuity returned

Work resumes inside the destination tool with full context intact. No context switch, no rework.

06 — WHY NOW

Every company is becoming AI-native. Most are not execution-ready.

SaaS gave every team its own app. It never gave the organization a way to execute across them. The next bottleneck is not intelligence — it is the infrastructure to act on it.

+14%Productivity gain on average

Stanford/MIT randomized trial of 5,179 contact-center agents — AI assistance raised productivity +14% on average and +34% for novice and struggling workers, with improved retention (Brynjolfsson et al.).

20%Global employee engagement

Gallup 2026 — global engagement at 20%, an estimated ~$10T in lost productivity.

$2.97BDEX market by 2031

DEX market growing from $1.32B (2023) toward $2.97B (2031), with Gartner projecting enterprise adoption rising from 15% to 50% by 2027.

SaaS tools were built to optimize work inside each team. None were built to recover the work that falls between them. As AI multiplies what each tool can do, the seams widen — and the cost of dropped handoffs compounds. The fix is not another app. It is infrastructure: a layer that detects the gaps and routes recovery across the entire stack.

07 — WHY NOT EXISTING TOOLS

Existing tools weren’t built for the seams.

Automation moves data. Assistants generate inside a conversation. Monitoring watches people. None of them recover stalled work.

Automation platforms

Workato · Zapier · n8n

Move work between systems on a trigger. They don’t detect when execution has stalled, and they can’t recover a handoff that fell through the seams.

AI assistants

Copilot · ChatGPT · Claude

Generate inside a single conversation. They don’t hold the organizational context around the task — the permissions, the roles, the handoffs where work disappears.

Employee monitoring

Productivity surveillance

Watch people to measure effort. TAB measures friction events, not people — aggregate and anonymous, built to bypass breakdowns rather than surveil behavior.

08 — ROADMAP

From pilot to category.

NOW

Pilot

Embedded pilots with 3–5 enterprise design partners across customer operations and AI transformation. Validate breakdown detection and recovery in live environments.

NEXT 6 MONTHS

Embed

Deepen integrations across the environments work already happens in. Move from detection toward autonomous recovery inside approved guardrails.

12 MONTHS

Scale

Repeatable deployment across functions. Turn pilot evidence into a category — execution infrastructure for AI-native organizations.

09 — EARLY VALIDATION

Validation where execution breaks first.

US design partnership

A live design partnership embedded in a trading workflow, validating execution recovery in a high-stakes, high-friction environment.

Call-center field research

Field research focused on extreme early attrition and the operational friction that drives it — the seam where execution breaks first.

Behavior-first AI prototypes

Prototypes testing intervention timing, trust and low-friction recovery — proving the loop can act without surveillance.

Early-stage validation. Pilot metrics are currently being defined with design partners.

10 — OPERATIONAL METRICS

The numbers behind execution recovery.

A measurable loop, not a dashboard of opinions. These are the operational metrics TAB is built to move — and the validation footprint behind them.

CORE LOOP · TARGET≤30sTarget recovery-loop latency
DETECTROUTERETURN

From friction-event detection to a routed recovery action — the core execution metric TAB is engineered around. The loop that turns intelligence into done.

3–5Enterprise design partners

Active discussions across customer operations and AI transformation.

11Friction event types catalogued

A taxonomy derived from field research where execution breaks first.

40+Operational workflows mapped

Cross-system handoffs documented across pilot environments.

0Surveillance surface

No employee monitoring, sentiment detection, or behavioral scoring — by design.

Design targets and current validation footprint. Pilot KPIs are being formalized with design partners. All measurements are aggregate and anonymous.

11 — FOUNDER

DD

Built by a systems architect focused on the gap between knowing and doing.

Danya Dotan combines behavioral science, systems thinking and AI product design. Her work focuses on execution recovery, operational continuity, human–AI collaboration and the infrastructure organizations need to adopt AI through trust rather than surveillance.

Danya Dotan · Founder, TAB@Work

11 — BUILD WITH US

Build the execution layer with us.

We’re looking for the operators and investors who see the same bottleneck.

3–5 enterprise design partnersLive pilot environmentsGo-to-market & platform support