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Why Better Technology Won't Fix a Broken Workflow

Avery Chi
Made4Vital

AI, automation, and enterprise software give organizations an extraordinary amount of leverage. Work that once required hours can happen in minutes. Information buried across systems can be analyzed almost instantly. Complex workflows can be coordinated across teams with far less manual intervention.

That leverage creates a temptation to start with the technology.

A team sees an AI capability and looks for somewhere to deploy it. A department buys a new platform because the existing process feels inefficient. Leadership decides that a workflow should be automated before anyone has fully mapped why the workflow is slow in the first place.

I have seen sophisticated technology perform exactly as designed and still fail to create the expected business value. In many of those cases, the underlying problem was never technical. Ownership was unclear, the process itself was poorly designed, teams were working toward different outcomes, or the organization had never agreed on what success should look like.

Technology amplifies the system around it. When that system is well understood, the results can be powerful. When it is poorly understood, technology can simply help an organization reproduce its problems faster and at greater scale.

Start With the Problem the Business Actually Has

Before choosing a technology, teams need a shared understanding of the problem they are trying to solve.

That sounds obvious, yet problem statements inside large organizations are often surprisingly vague. "We need better automation," "we need AI," or "this process takes too long" may describe a frustration without identifying its cause.

A slow process can have many sources. Perhaps employees are entering the same information into several systems. Maybe approvals sit untouched because nobody clearly owns the next decision. Data may arrive late or in inconsistent formats. A team could be performing manual work because an upstream process was designed around an exception that no longer exists.

Each situation points toward a different solution.

The work therefore begins with understanding how the process operates today: where information originates, how decisions are made, where handoffs occur, who owns each outcome, and where people have created workarounds.

That same discipline appears in McKinsey's work on intelligent process automation, which emphasizes defining the target operating model and desired end state before determining how automation should contribute.

In my enterprise implementation work, I saw this repeatedly during discovery. A client might initially describe the need as a system requirement, another workflow, another field, another notification, another automation. But once we traced how the work actually moved through the organization, the real issue was sometimes somewhere else entirely. A decision had no clear owner. Two teams were using the same term to mean different things. An approval existed because of an old process nobody had revisited. Or users had created manual workarounds around a system that technically already had the capability they needed. The technology question became much easier once we could separate the requested feature from the underlying business problem.

I find one question particularly useful: If we implemented the technology perfectly, what would actually be different?

The answer should describe a business outcome. A customer receives a decision sooner. An analyst spends less time reconciling information. A risk team detects an issue earlier. An engineering team reduces recovery time. If the answer is primarily that the organization will have a new system, the objective probably needs more work.

Map Ownership and Dependencies Before You Automate

Enterprise workflows rarely belong to one system or one team. A process that appears straightforward on a diagram may depend on data from another department, an approval controlled by a different function, a policy maintained elsewhere, and a downstream system that expects information in a specific format.

Automation exposes those dependencies very quickly.

Imagine automating an incident-management workflow. The technology may route alerts perfectly, generate summaries, assign tickets, and recommend actions. The process can still stall when teams disagree about severity, nobody owns a particular class of incident, or escalation rules do not reflect how decisions are actually made.

Adding AI raises the stakes because software is increasingly participating in activities that previously depended entirely on people. Organizations need clarity around who is responsible for reviewing outputs, handling exceptions, approving actions, and responding when the system behaves unexpectedly.

The NIST AI Risk Management Framework addresses this directly by treating governance, roles, responsibilities, measurement, and risk management as interconnected parts of AI deployment. Its accompanying AI RMF Playbook specifically recommends defining human roles and responsibilities for oversight of AI systems.

Those questions belong in implementation design from the beginning.

When I map a future-state workflow, I want to understand several things clearly:

  • who owns the business outcome
  • which decisions will change
  • what information each decision requires
  • where human judgment remains necessary
  • how exceptions will be handled
  • which other systems and teams are affected
  • how the organization will know whether the new workflow is working

That exercise often reveals that part of the solution has nothing to do with technology. A responsibility needs to move. A policy needs to change. A redundant approval needs to disappear. Two teams need to agree on a shared definition.

Resolving those issues first gives the technology a much stronger foundation.

Measure the Change, Not the Deployment

Technology programs naturally generate technical milestones: configuration completed, integrations connected, users provisioned, workflows activated, models deployed.

Those milestones matter. They tell you whether the implementation is functioning. They do not tell you whether the business improved.

A platform can launch on schedule while employees continue using spreadsheets. An automated workflow can complete successfully while simply accelerating an unnecessary process. An AI system can produce technically impressive outputs that people ignore because they do not trust them or do not understand how those outputs fit into their decisions.

This is why the desired outcome has to be defined early enough to shape the implementation.

That distinction became especially clear to me in enterprise software implementations. Reaching go-live was important, but it was never the same thing as creating value. A workflow could be configured correctly, integrations could be functioning, and users could have access to the platform while the organization still relied on old spreadsheets, side processes, or manual follow-up.

The more meaningful questions came after deployment: Are people actually using the workflow as intended? Has the unnecessary work disappeared? Are decisions happening faster or with better information? Has the system changed the way the business operates, or has it simply been added on top of the old way of working?

If the goal is reducing incident resolution time, measure that. If the goal is eliminating repetitive analysis, measure how much manual effort actually disappears. If the goal is improving risk detection, determine whether the organization identifies meaningful issues earlier.

AI will continue becoming more capable, and enterprise platforms will continue offering more automation. Organizations therefore have more leverage available to them than ever before.

The advantage will go to teams that know where to apply it.

When teams understand where the friction is coming from, who owns the outcome, and which dependencies actually matter, technology becomes much easier to apply well. Without that clarity, even a successful implementation can simply make an inefficient system move faster.

The organizations that get the most from AI will be the ones willing to slow down long enough to understand what is actually happening before they automate it.

That means looking closely at the process, the people involved, the decisions being made, and the outcome the business is trying to improve. When those pieces are clear, technology can create real leverage. When they are not, it often adds another layer of complexity to a problem that was never fully understood.

About the Author: Hailin "Avery" Chi is an enterprise technology and business solutions professional with more than six years of experience helping organizations implement SaaS platforms across governance, risk, operational resilience, and incident management. As an Implementation Consultant and Solutions Architect, she works at the intersection of technology, business requirements, implementation strategy, and stakeholder engagement, helping organizations translate complex operational needs into scalable solutions. She is also the founder of Made4Vital, where her work focuses on how AI, automation, and structured business systems can create meaningful enterprise leverage.

Hailin "Avery" Chi is an Implementation Consultant, Solutions Architect, and the Founder of Made4Vital

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Why Better Technology Won't Fix a Broken Workflow

Avery Chi
Made4Vital

AI, automation, and enterprise software give organizations an extraordinary amount of leverage. Work that once required hours can happen in minutes. Information buried across systems can be analyzed almost instantly. Complex workflows can be coordinated across teams with far less manual intervention.

That leverage creates a temptation to start with the technology.

A team sees an AI capability and looks for somewhere to deploy it. A department buys a new platform because the existing process feels inefficient. Leadership decides that a workflow should be automated before anyone has fully mapped why the workflow is slow in the first place.

I have seen sophisticated technology perform exactly as designed and still fail to create the expected business value. In many of those cases, the underlying problem was never technical. Ownership was unclear, the process itself was poorly designed, teams were working toward different outcomes, or the organization had never agreed on what success should look like.

Technology amplifies the system around it. When that system is well understood, the results can be powerful. When it is poorly understood, technology can simply help an organization reproduce its problems faster and at greater scale.

Start With the Problem the Business Actually Has

Before choosing a technology, teams need a shared understanding of the problem they are trying to solve.

That sounds obvious, yet problem statements inside large organizations are often surprisingly vague. "We need better automation," "we need AI," or "this process takes too long" may describe a frustration without identifying its cause.

A slow process can have many sources. Perhaps employees are entering the same information into several systems. Maybe approvals sit untouched because nobody clearly owns the next decision. Data may arrive late or in inconsistent formats. A team could be performing manual work because an upstream process was designed around an exception that no longer exists.

Each situation points toward a different solution.

The work therefore begins with understanding how the process operates today: where information originates, how decisions are made, where handoffs occur, who owns each outcome, and where people have created workarounds.

That same discipline appears in McKinsey's work on intelligent process automation, which emphasizes defining the target operating model and desired end state before determining how automation should contribute.

In my enterprise implementation work, I saw this repeatedly during discovery. A client might initially describe the need as a system requirement, another workflow, another field, another notification, another automation. But once we traced how the work actually moved through the organization, the real issue was sometimes somewhere else entirely. A decision had no clear owner. Two teams were using the same term to mean different things. An approval existed because of an old process nobody had revisited. Or users had created manual workarounds around a system that technically already had the capability they needed. The technology question became much easier once we could separate the requested feature from the underlying business problem.

I find one question particularly useful: If we implemented the technology perfectly, what would actually be different?

The answer should describe a business outcome. A customer receives a decision sooner. An analyst spends less time reconciling information. A risk team detects an issue earlier. An engineering team reduces recovery time. If the answer is primarily that the organization will have a new system, the objective probably needs more work.

Map Ownership and Dependencies Before You Automate

Enterprise workflows rarely belong to one system or one team. A process that appears straightforward on a diagram may depend on data from another department, an approval controlled by a different function, a policy maintained elsewhere, and a downstream system that expects information in a specific format.

Automation exposes those dependencies very quickly.

Imagine automating an incident-management workflow. The technology may route alerts perfectly, generate summaries, assign tickets, and recommend actions. The process can still stall when teams disagree about severity, nobody owns a particular class of incident, or escalation rules do not reflect how decisions are actually made.

Adding AI raises the stakes because software is increasingly participating in activities that previously depended entirely on people. Organizations need clarity around who is responsible for reviewing outputs, handling exceptions, approving actions, and responding when the system behaves unexpectedly.

The NIST AI Risk Management Framework addresses this directly by treating governance, roles, responsibilities, measurement, and risk management as interconnected parts of AI deployment. Its accompanying AI RMF Playbook specifically recommends defining human roles and responsibilities for oversight of AI systems.

Those questions belong in implementation design from the beginning.

When I map a future-state workflow, I want to understand several things clearly:

  • who owns the business outcome
  • which decisions will change
  • what information each decision requires
  • where human judgment remains necessary
  • how exceptions will be handled
  • which other systems and teams are affected
  • how the organization will know whether the new workflow is working

That exercise often reveals that part of the solution has nothing to do with technology. A responsibility needs to move. A policy needs to change. A redundant approval needs to disappear. Two teams need to agree on a shared definition.

Resolving those issues first gives the technology a much stronger foundation.

Measure the Change, Not the Deployment

Technology programs naturally generate technical milestones: configuration completed, integrations connected, users provisioned, workflows activated, models deployed.

Those milestones matter. They tell you whether the implementation is functioning. They do not tell you whether the business improved.

A platform can launch on schedule while employees continue using spreadsheets. An automated workflow can complete successfully while simply accelerating an unnecessary process. An AI system can produce technically impressive outputs that people ignore because they do not trust them or do not understand how those outputs fit into their decisions.

This is why the desired outcome has to be defined early enough to shape the implementation.

That distinction became especially clear to me in enterprise software implementations. Reaching go-live was important, but it was never the same thing as creating value. A workflow could be configured correctly, integrations could be functioning, and users could have access to the platform while the organization still relied on old spreadsheets, side processes, or manual follow-up.

The more meaningful questions came after deployment: Are people actually using the workflow as intended? Has the unnecessary work disappeared? Are decisions happening faster or with better information? Has the system changed the way the business operates, or has it simply been added on top of the old way of working?

If the goal is reducing incident resolution time, measure that. If the goal is eliminating repetitive analysis, measure how much manual effort actually disappears. If the goal is improving risk detection, determine whether the organization identifies meaningful issues earlier.

AI will continue becoming more capable, and enterprise platforms will continue offering more automation. Organizations therefore have more leverage available to them than ever before.

The advantage will go to teams that know where to apply it.

When teams understand where the friction is coming from, who owns the outcome, and which dependencies actually matter, technology becomes much easier to apply well. Without that clarity, even a successful implementation can simply make an inefficient system move faster.

The organizations that get the most from AI will be the ones willing to slow down long enough to understand what is actually happening before they automate it.

That means looking closely at the process, the people involved, the decisions being made, and the outcome the business is trying to improve. When those pieces are clear, technology can create real leverage. When they are not, it often adds another layer of complexity to a problem that was never fully understood.

About the Author: Hailin "Avery" Chi is an enterprise technology and business solutions professional with more than six years of experience helping organizations implement SaaS platforms across governance, risk, operational resilience, and incident management. As an Implementation Consultant and Solutions Architect, she works at the intersection of technology, business requirements, implementation strategy, and stakeholder engagement, helping organizations translate complex operational needs into scalable solutions. She is also the founder of Made4Vital, where her work focuses on how AI, automation, and structured business systems can create meaningful enterprise leverage.

Hailin "Avery" Chi is an Implementation Consultant, Solutions Architect, and the Founder of Made4Vital

Hot Topics

The Latest

For decades, traditional observability tools have forced IT professionals to sift through endless dashboards, turning a flood of alerts into actionable insight and driving widespread burnout. While enterprises adopted AI to eliminate this friction, most still deploy it reactively rather than proactively ... As systems become more complex and IT moves to the center of business strategy, a reactive posture is unsustainable ...

Ask an operations team what they monitor and you will hear a familiar list: latency, errors, throughput, uptime. Those signals still matter for AI, but they no longer answer the most important question. As Krishna Sai, CTO of SolarWinds, puts it: "Traditional observability tells you a system is running. AI observability tells you whether it's still reasoning soundly. Those are completely different questions" ...

AI observability serves several roles across an organization. AI engineers use it to build, evaluate, and improve AI systems. SREs use it to operate those systems reliably and efficiently in production, including managing their cost. Leaders need it to connect AI behavior and operational performance to business outcomes. The common need is a clear understanding of whether AI systems are delivering the intended result ...

Part 4 outlines the challenges enterprise face when adopting AI observability. The main challenge is that AI complexity compounds at every stage of maturity. LLM-based applications introduce new behavior, dependencies, and quality considerations, while Agentic AI adds further failure modes as systems make decisions and take actions ...

Part 3 reports on the current state of AI observability. Most experts agree: enterprises are moving faster with AI than they are with the operational discipline needed to run it safely ...

When discussing AI Observability, one of the first questions that arises: Is this just an extension of traditional observability or is this a whole new type of tool? Part 2 compares traditional observability with AI observability ...

In this extensive 14-part series that will post over the next three weeks, experts across observability and AI will provide insight and opinions on the need for AI Observability, the challenges, the benefits, the current state, and predictions for the future ...

Amid rising complexity, organizations are moving quickly toward agent-driven operations: AgenticOps, according to The Impact of Agentic AI on Network Operations, a new report from Cisco ...

AI, automation, and enterprise software give organizations an extraordinary amount of leverage. Work that once required hours can happen in minutes. Information buried across systems can be analyzed almost instantly. Complex workflows can be coordinated across teams with far less manual intervention. That leverage creates a temptation to start with the technology ...

Everyone wants to talk about models. Compute clusters. Benchmark scores that climb a fraction of a point and make headlines anyway. It's an easy conversation to have because it's measurable. But it's also increasingly beside the point ...