MBBs have deep expertise in process optimization and structured problem-solving, and their role in structured problem-framing approach is paramount, let’s understand this especially in AI solution implementations in high-touch environments like Contact Centers.
The problems of Mis-framing leading to ineffective Solutions
Contact Center Chatbot Deployment
Scenario:
A contact center faces long customer waiting times. To quickly reduce Average Speed of Answer (ASA), leadership launches an AI chatbot to handle frequently asked inquiries, aiming to ease pressure on live agents and thereby reducing ASA.
Surface Level Problem statement:
The project team stated the problem as “We have long wait times because our agents are overwhelmed. Let’s implement a chatbot to handle FAQ’s and reduce wait times by 50%.”
While investing 100,000’s of dollars to develop an AI chatbot, train it on FAQ’s, and deploying it as a FPOC for all customer inquiries. The chatbot in itself was technically proficient, using NLP and ML algorithms to interpret customer requests.
What was missed:
The team did not perform a thorough root cause analysis. Key problems included understaffing staffing during peak hours (only 60% of required agents), inadequate training programs that left agents unprepared for complex product inquiries, fragmented knowledge management systems that forced agents to search multiple databases, and high employee churn (45% annually) from workplace stress and limited career advancement opportunities.
The Effects of Mis-Framing on AI Performance
Following the chatbot deployment, AI gave generic responses to complex customer issues, causing greater frustration among those needing detailed technical support. Instead of reducing call volume, the chatbot generated additional calls from customers seeking clarification on the AI’s responses or requested immediate escalation to human agents.
Findings based on BSI Analysis:
The pre-implementation baseline, calculated with the Bottleneck Severity Index formula (BSI = Volume × Cycle Time × (1 - First Time Right%) × Severity), showed:
• Volume: 1,200 calls per day
• Cycle Time: 8.5 minutes average handle time
• First Time Right: 65%
• Severity: 3.2 (scale of 1-5)
• Baseline BSI: 11,424
Post-chatbot implementation revealed:
• Volume: 1,350 calls per day (increased due to chatbot escalations)
• Cycle Time: 11.2 minutes (longer due to frustrated customers)
• First Time Right: 58% (decreased due to inadequate agent preparation)
• Severity: 3.8 (higher customer frustration)
• New BSI: 20,365 (78% increase)
The AI solution made matters worse: with customer complaints increased, call deflection remained below 15%, and net promoter score (NPS) declined further, and the organization having to face increased operational costs due to higher call volumes and longer resolution times.
In addition to the above consequences, wastage of resources and loss of stakeholder trusts add to the negative impact of mis-framing on AI effectiveness.
Suggested Practical strategies for MBBs to improve problem framing in AI projects
a. Engaging in structure problem statement development using LSS thinking and tools
o Use SIPOC and VOC to clarify process boundaries and understand demand drivers
o Defining CTQ’s and linking them to customer pain points rather than convenience metrics like ASA.
b. Apply BSI for comprehensive bottleneck assessment
o Train the project teams in evaluating each BSI component
Component
Key MBB Questions
Volume
Is the call volume avoidable or failure demand (e.g., repeat issues, unclear policies)?
Cycle Time
Are agents slowed down due to poor tools or unclear procedures?
First Time Right %
What’s the root cause of low FTR? Training, systems, or information gaps?
Severity
Are we prioritizing automation for high-impact or low-impact queries?
o Trend Analysis: Ongoing BSI monitoring to spot patterns and predict bottlenecks before they become critical. This enables teams to address root causes proactively instead of reacting to symptoms.
o Use Pareto analysis of BSI to identify Top drivers and guide the AI strategy accordingly.
c. Facilitating structured problem definition workshops and fostering stakeholder engagement
o Run problem framing workshops that bring together diverse perspectives and stakeholders (operations, IT, HR, training and customer experience.)
o Use tools like affinity diagrams and root cause analysis techniques to identify underlying issues that may not be apparent to any single stakeholder group and before confirming the need for AI.
o Translating insights into well-structured problem statements (what is wrong, where, when, to what extent and impact on CTQ.)
o Making use of the RACI matrix to ensure comprehensive problem understanding.
• Inform: Keep executive leadership aware of project progress and findings
• Consult: Gather input from frontline agents, customers, and IT teams
• Responsible: Include customer service managers, training coordinators along with operations teams and customer experience specialists in problem definition sessions
• Accountable: Work closely with the project sponsor on the project approvals.
d. Deploy Control Measures Before Automating
o Test hypotheses through small-scale pilots that test technical functionality and business impact of the proposed solution before scaling AI.
o The pilots need to monitor impact on Leading Indicators (FTR, Escalation Rate, Post-Chat Survey Scores) to validate alignment of proposed solution with identified root causes.
Hence the mis-framing of problems in AI initiatives may lead to technically accurate but operationally ineffective solutions, wherein MBBs are mandated with the task of diagnosis with discipline.
Using BSI as a key metric identifies real process friction points and thereby guiding the organization to ask the right questions before investing in AI, and ensuring the final solution addresses the true constraints, improve customer experience, and deliver sustainable business value.