Enterprise AI Strategy & Advisory
Shape and prioritize AI opportunities across people, processes, and products, with clear value, readiness, and execution paths.
Smarter People focuses on the individual experience of work. We help employees and customers find the right information faster, understand context, make better-informed decisions, complete routine interactions with less effort, and adopt AI confidently. The goal is to improve individual productivity by reducing cognitive load and time lost to search, interpretation, and repetitive work, giving people more capacity for judgment, creativity, customer interaction, and higher-value work.
A legacy application is a connected operating system of code, data, jobs, screens, rules, interfaces, reports and years of operational learning. Failures occur when those relationships are missed—not when developers type too slowly.
Confirm business objective, source estate, target direction, evidence, deployment and success criteria.
Build the source graph, functional understanding, dependency views and risk profile.
Transform a bounded representative module and measure automation, exceptions and quality.
Scale across modules and waves using shared patterns, quality gates and programme governance.
Refresh target intelligence, train customer teams and transition ownership at an agreed pace.
Representative proof wave
The proof module should represent the source patterns, dependencies, target architecture and validation difficulty that matter at scale.
Clear but non-trivial module boundary
Representative business rules and data interactions
Known upstream and downstream dependencies
Available build, test and reconciliation path
Relevant target architecture patterns
Acceptable operational and release risk

Shared accountability
Delivery succeeds when target decisions, evidence, access, environments and acceptance responsibilities are explicit.
Provide approved source, environments and supporting artefacts
Define target architecture and non-functional constraints
Nominate application and business SMEs
Approve critical rules, deltas, exceptions and production release
Provide representative data and acceptance environments
Deploy and configure the modernization platform
Build the system intelligence and specifications
Operate agentic transformation and validation
Manage issues, exceptions, traceability and evidence
Deliver target outputs and support knowledge transfer
Agentic lifecycle
Once scope, specification and target architecture are approved, specialized agents perform the migration. Human experts control decisions and exceptions rather than manually rewriting the target application.
Build structural and behavioural truth from code, data, jobs, interfaces, documents and tests.
Translate approved target architecture, mappings, rules and acceptance criteria into ASF.
Agents transform, generate, compile and remediate within approved constraints.
Check architecture, functionality, interfaces, data and behavioural evidence continuously.
Carry migration knowledge into the target graph for impact-aware engineering.
Shape and prioritize AI opportunities across people, processes, and products, with clear value, readiness, and execution paths.
Reconstruct complex applications, define the target state, and execute controlled modernization or software transformation with ASIMOV.
Carry modernized system knowledge forward into new features and services so the application can evolve without immediately rebuilding architectural debt.
Use business and engineering evidence to decide where to invest, consolidate, re-engineer, maintain, or retire across the product portfolio.
Start a fitment workshop
The workshop identifies the right entry point: documentation, migration readiness, proof wave, full modernization, rationalization or Maintain.
The first deliverable is not a generic demo. It is a clear fitment decision and evidence plan.
Shape and prioritize AI opportunities across people, processes, and products, with clear value, readiness, and execution paths.
Reconstruct complex applications, define the target state, and execute controlled modernization or software transformation with ASIMOV.
Carry modernized system knowledge forward into new features and services so the application can evolve without immediately rebuilding architectural debt.
Use business and engineering evidence to decide where to invest, consolidate, re-engineer, maintain, or retire across the product portfolio.
Shape and prioritize AI opportunities across people, processes, and products, with clear value, readiness, and execution paths.
Help people find, synthesize, compare, and apply enterprise knowledge with role-aware, source-grounded assistance.
Make routine service easier for users and lighter for service teams through grounded answers, approved actions, and context-aware human handoff.
Redesign how roles work with AI, build practical skills and confidence, and measure whether adoption is creating real productivity value.
Create reusable enterprise context so people and the AI assistants they use work from connected, governed organizational knowledge.
Shape and prioritize AI opportunities across people, processes, and products, with clear value, readiness, and execution paths.
Reconstruct complex applications, define the target state, and execute controlled modernization or software transformation with ASIMOV.
Carry modernized system knowledge forward into new features and services so the application can evolve without immediately rebuilding architectural debt.
Use business and engineering evidence to decide where to invest, consolidate, re-engineer, maintain, or retire across the product portfolio.
Documented Smarter Products engagements span brownfield modeling, continuous engineering, and program-scale modernization.
A 2M+ line codebase modeled in approximately 2-3 weeks; impact analysis across a 1.6M-line application graph completed in about eight minutes.
93.4% test coverage generated from the model, with 23% fewer defects reported on the same team and codebase after adoption.
15M+ lines modernized across mainframe, Java, and desktop systems.
We start with knowledge friction, cognitive load, and repetitive effort rather than leading with chatbot or automation features.
Semantic Engineering, SKG, and ECL create reusable grounding so people get more consistent answers across AI experiences.
Copilots support knowledge and decisions; SPEX is brought in only where a user interaction needs governed action or deeper engineering.
We integrate with the productivity, service, knowledge, and business platforms people already use instead of creating another destination.
KAPS, AI Prism, role-based enablement, and SPEX adoption capabilities connect opportunity selection, user support, evidence, and scale.
The combined experience of approximately 5,000 engineers and a proven platform set stands behind each rollout, so what works for one team can extend across functions with the same grounding and governance.
ASIMOV is Accion Labs’ delivery-led agentic modernization platform for complex enterprise applications. It reconstructs system knowledge, controls source-to-target transformation through specifications and specialized agents, validates results and retains the knowledge in a target graph.
No. Coding assistants help developers complete engineering tasks. ASIMOV governs and executes the modernization lifecycle across system discovery, target mapping, autonomous migration, continuous validation and delivery evidence.
That is not the primary proposition. ASIMOV is applied through an accountable engineering engagement. Accion Labs deploys and configures the platform, operates the migration factory, manages quality gates and owns the agreed delivery outputs.
Within the normal migration cycle, specialized agents transform, generate, compile, test and remediate the code. ASIMOV engineers improve the agents, prompts, transformation patterns and validation rules. Human experts govern architecture, ambiguity, exceptions and release acceptance.
Modernization risk is driven by relationships. The graph connects code, functions, data, jobs, APIs, reports, rules, journeys, tests, documents and target components for dependency analysis, impact assessment, target mapping, traceability and validation.
The target graph carries forward transformed components, dependencies, business rules, source-to-target mappings, specifications, decisions, tests and validation evidence. It becomes a living engineering asset for maintenance and future change.
The ASIMOV Specification Format is the controlled, machine-consumable and human-reviewable layer that combines selected scope, target architecture, migration decisions, approved deltas, transformation rules and validation criteria.
Yes. Approved foundation models can be used as execution engines. The durable value lies in the graph intelligence, specifications, orchestration, playbooks, controls, validation and accumulated modernization knowledge.
Validation can include specification and architecture conformance, compilation, static analysis, unit and integration testing, regression, API and data reconciliation, business-rule traceability, exception reporting and human approval gates.
No. Compilation proves syntactic and build compatibility. It does not prove functional equivalence, data correctness, integration behavior, performance, security or business intent.
No responsible modernization system should make unconditional guarantees. ASIMOV improves assurance through connected system understanding, continuous validation, evidence and accountable exception handling.
Yes. ASIMOV can run in a customer cloud, private tenant, on-premises or restricted environment where source code, graph data and generated artifacts remain inside the approved trust boundary.
Yes, subject to fitment and infrastructure. Approved language models and supporting services can be hosted inside the customer environment when security, model and performance requirements permit.
ASIMOV is technology-agnostic in architecture, but every source-target combination is validated during fitment. Program experience includes Java, COBOL and AS400, Delphi, VB.NET, .NET and React modernization patterns.
Start with a fitment workshop and a representative application or module. The outcome is a recommended path: documentation, discovery, migration readiness, proof wave, full modernization, rationalization or Maintain.
Commercials can be structured as fixed-scope discovery, module or wave-based execution, modernization-factory capacity, platform plus engineering services, customer-environment deployment or lifecycle support. A proof wave improves predictability.
Lines of code indicate scale but are not sufficient. Dependencies, target redesign, business-rule ambiguity, test readiness, integration footprint, validation depth and deployment constraints materially affect effort.