Infrastructure Modernization

Focus: Infrastructure Consolidation, Enterprise Redundancy, & Fiscal Stewardship

Executive Overview

Challenge & Strategic Alignment

Fragmented Governance: Legacy core infrastructure was highly individualized and siloed across separate departments. The absence of uniform configuration standards and access controls posed a significant security and administrative risk to the college.

Severe Spatial Constraints: The loss of the college's largest, most robust server room forced a physical relocation of remaining hardware into smaller, less resilient secondary campus spaces, requiring an immediate and drastic reduction in physical rack footprint.

Aging Hardware & Technical Debt: Much of the existing department-level hardware running active services was past its operational lifecycle, creating an immediate need for sustainable capital procurement and modern deployment standards.

Leadership & Execution Strategy

Fiscal Stewardship & Open-Source Architecture: Evaluated enterprise virtualization paths amid an environment of skyrocketing commercial hypervisor costs (such as VMware's shifting pricing models). Strategically selected and deployed enterprise-grade Proxmox VE coupled with a Ceph shared storage architecture, delivering high availability while saving significant institutional capital.

Operational Change Management: Managed the ongoing transition of legacy departmental servers. Navigated the shift smoothly by auditing services individually, executing careful data migrations, and rebuilding legacy workloads from scratch to optimize them for modern cloud-native environments.

Team Upskilling & Professional Development: Championed a culture of continuous learning by securing and coordinating paid, specialized Proxmox training for the systems administration team. This targeted upskilling empowered staff to confidently build, maintain, and automate deployments within the new ecosystem.

Risk Mitigation & Disaster Recovery: Engineered a robust, highly available environment by situating the two 5-node clusters across physically distant campus zones to forestall localized environmental, power, or chilled water disruptions, backed by a strict 3-2-1 data backup methodology.

Measurable Impact & Outcomes

Footprint Reduction: Successfully mitigated the data center closure by eliminating the need for roughly 15 physical server racks, which are actively being consolidated into a highly dense, efficient hyperconverged cluster footprint.

Capital Cost Avoidance: Diverted substantial recurring software licensing expenditures by leveraging an open-source enterprise hypervisor layer, directly reinvesting those savings into advanced staff training and high-performance hardware procurement.

Elevated Operational Maturity: Established a uniform, centralized access control standard and a predictable service delivery lifecycle, shifting the IT team from reactive department-level troubleshooting to proactive, enterprise-level infrastructure management.

Research Computing Infrastructure Optimization

Focus: Strategic Resource Reallocation, Cross-Functional Partnerships, & Facility Risk Mitigation

Executive Overview

Challenge & Strategic Alignment

Facility & Capital Constraints: A significant investment in new server hardware remains un-deployed for two years due to local power, cooling, and physical space limitations, resulting in idle capital and delayed lifecycle enhancements for researchers.

Shared Resource Volatility: Transitioning researchers to the primary university-wide HPC system ("Hazel") offers modern architecture but introduces compute queue constraints, as resources are shared across the entire institution.

Complex Data Pipelines: Modern bioinformatics pipelines require seamless, high-throughput access to massive genomic data sets, necessitating a robust balance between raw compute performance and scalable local data storage.

Leadership & Execution Strategy

Strategic Pivot & Asset Repurposing: Spearheaded the evaluation of an alternative infrastructure roadmap to bypass facility limitations. Collaborated on plans to pivot the un-deployed hardware—repurposing advanced storage arrays to serve as a massive localized repository for large datasets while exploring an agile virtualization cluster for core BRC services.

Institutional Partner Negotiation: Formulated a strategic negotiation framework with the university-wide HPC administration. Advocated for the BRC's entry into a partner program that would absorb the new hardware into the greater university core in exchange for a dedicated queue and isolated compute resources, guaranteeing faculty consistent performance.

Team Upskilling & Professional Development: Championed a culture of continuous learning by securing and coordinating paid, specialized Proxmox training for the systems administration team. This targeted upskilling empowered staff to confidently build, maintain, and automate deployments within the new ecosystem.

Stakeholder Alignment & Mapping: Partnered closely with the Director of the BRC and active researchers to audit and identify specific software dependencies and data pipeline requirements, ensuring a frictionless workflow transition during infrastructure migrations.

Measurable Impact & Outcomes

Capital Activation: Developed a viable path to extract maximum utility from previously stranded server and storage investments, aligning past expenditures with active operational needs.

Scalable Compute Availability: Diverted substantial recurring software licensing expenditures by leveraging an open-source enterprise hypervisor layer, directly reinvesting those savings into advanced staff training and high-performance hardware procurement.

Elevated Operational Maturity: Established a uniform, centralized access control standard and a predictable service delivery lifecycle, shifting the IT team from reactive department-level troubleshooting to proactive, enterprise-level infrastructure management.

Organizational Change Management & Structural Realignment

Focus: Workforce Transformation, Operational Redundancy, & Stakeholder Buy-In

Executive Overview

Challenge & Strategic Alignment

Operational Vulnerability & Silos: Essential infrastructure and support domains lacked adequate redundancy. Mission-critical systems frequently relied on single individuals for administrative access, institutional knowledge, and incident mitigation, exposing the college to severe business continuity risks.

Organizational Anxiety & Inertia: Coming on the heels of both a personnel centralization and the sudden departure of department leadership, the team faced operational anxiety and role ambiguity, necessitating an empathetic but decisive leadership intervention.

Misaligned Scopes of Work: Fragmented departmental legacies left several team members executing duties outside their core scopes of work, causing hidden resource strains while leaving minor operational gaps unaddressed.

Leadership & Execution Strategy

Human-Centered Intake & Auditing: Neutralized team anxiety by conducting comprehensive 1:1 interviews with every team member. Utilized a standardized framework to audit active responsibilities, identify out-of-scope tasks, map geographic operational footprints, and capture individual professional development goals.

Collaborative Iteration & Stress-Testing: Rather than imposing a top-down structure, stress-tested the draft organizational chart through targeted internal feedback loops. Engaged the newest team member to evaluate clarity from a fresh perspective, and collaborated with the longest-serving engineer to leverage deep institutional memory, refining the structure before final submission.

Proactive Stakeholder Governance: Upon securing executive approval, systematically met with academic department heads across the College of Sciences. Transparently shared the strategic vision, detailed the service boundaries of the new chart, and established clear channels for cross-functional accountability.

Measurable Impact & Outcomes

Elimination of Key-Person Dependencies: Institutionalized operational redundancy across mission-critical services. Enforced mandatory cross-training, shared credential management, and collaborative documentation so that no single server or service depended on a single point of failure.

Optimized Resource Allocation: Balanced the division's workload by reassigning out-of-scope duties to proper functional areas, maximizing the team's collective strengths while systematically closing operational gaps.

Cultural Stabilization & Alignment: Measure progress in transforming a fragmented, anxious unit into a cohesive, service-oriented IT culture with clear pathways for career growth, establishing a scalable blueprint for governance that directly aligns with institutional objectives.

Artificial Intelligence Evaluation & Governance

Focus: Regulatory Compliance, Information Security, & Admin Oversight

Executive Overview

Challenge & Strategic Alignment

Data Privacy & Exfiltration Risks: The unmanaged adoption of public generative AI models posed severe risks regarding data ingestion and ownership. A lack of explicit guardrails risked exposing proprietary research data or sensitive institutional information to public model training sets.

Complex Multi-Vendor Compliance: Aligning multiple disparate platforms (OpenAI, Anthropic, Google, Microsoft) with rigid university Security & Compliance (S&C) standards required a meticulous audit of varying end-user license agreements and data-retention policies.

Lack of Centralized Oversight: Fragmented, individual-level procurement of AI tools left the college without administrative visibility, centralized billing capabilities, or the ability to enforce feature-level security restrictions.

Leadership & Execution Strategy

Rigorous Security & Compliance Negotiation: Successfully advocated for and secured operational approval from university S&C for the deployment of major AI tools. Enforced an unyielding compliance baseline that explicitly barred any product or tier failing to guarantee that ingested institutional data would remain private and excluded from public model training.

Data Classification & Guardrails: Established a clear operational policy restricting AI tool ingestion exclusively to "Green Data" (information containing zero identifiable or protected records). Implemented a strict exception-handling review process for advanced, data-retaining tiers like ChatGPT Pro.

Enterprise Workspace Architecture: Architected and deployed unified enterprise workspaces for platforms like ChatGPT and Claude. This structure consolidated researchers into a secure environment, equipping the College of Sciences with administrative oversight, central billing, and granular feature-level access control.

Strategic Procurement Modeling: Standardized a multi-tiered access and procurement framework. Successfully leveraged pre-existing, university-funded enterprise licensing for foundational tools (Copilot/Gemini) while establishing authorized, researcher-funded procurement channels for specialized development tools (Cursor), ensuring operational agility without straining the core division budget.

Measurable Impact & Outcomes

Secure AI Enablement: Safely unlocked cutting-edge generative AI capabilities for the Bioinformatics Research Center and broader College of Sciences researchers, effectively reducing unmanaged "Shadow IT" adoption.

Absolute Intellectual Property Protection: Mitigated critical institutional risk by ensuring that 100% of authorized AI usage complies with strict non-training, data-privacy mandates.

Centralized Governance & Control: Replaced fragmented ad-hoc usage with a fully auditable administrative environment, giving IT leadership full visibility into platform utilization, compliance alignment, and centralized user provisioning.

Knowledge Management & Operational Standardization

Focus: Tribal Knowledge Mitigation, Process Automation, & Cross-Functional Consistency

Executive Overview

Challenge & Strategic Alignment

Tribal Knowledge & Single Points of Failure: Core operational workflows—such as enterprise-wide network imaging and Active Directory (AD) provisioning—were unmapped and undocumented, depending entirely on the individual memory of a single administrator.

Inconsistent & Broken Service Delivery: Without a unified standard, college-wide system deployments were frequently incomplete or broken, creating operational friction for faculty and students while increasing the volume of tier-one support tickets.

Complex Environmental Hurdles: Successful deployment required navigating highly specific, granular technical variables—such as custom BIOS configurations to authorize PXE Boot sequences within the campus network—that were prone to human error without explicit checklists.

Leadership & Execution Strategy

Empathetic Auditing & Process Mapping: Directly intervened by embedding with the core administrator during a live, multi-system deployment. Shadowed the lifecycle step-by-step to capture nuanced technical dependencies, followed by a dedicated, deep-dive evaluation session to refine and validate the recorded technical notes.

End-to-End SOP Engineering: Authoritative author of a definitive, operational blueprint covering the entire enterprise lifecycle: from precise physical hardware and BIOS staging protocols to secure network booting, Active Directory staging, and uniform core software delivery.

Centralized Knowledge Portal Architecture: Designed and launched a secure, internal Standard Operating Procedure repository embedded within the IT division's web portal. This centralized hub serves as a single source of truth, democratizing critical technical data previously gated behind individual silos.

Consensus-Driven Calibration: Facilitated a dedicated team-wide review session to stress-test the document collectively, ensuring full departmental alignment, driving team compliance, and embedding documentation into the daily operational culture.

Measurable Impact & Outcomes

Elevated Service Reliability: Standardized college-wide imaging processes, successfully mitigating the frequency of incomplete configurations and ensuring that all newly deployed endpoints meet baseline security and software compliance.

Reduction in Operational Friction: Drastically minimized ad-hoc, cross-team baseline inquiries by providing immediate, self-service access to deployment protocols, freeing up senior engineering hours for high-value strategic projects.

Enhanced Workforce Agility: ransformed a highly specialized, single-person dependency into an accessible team competency, empowering lower-tier technicians and cross-functional team members to confidently execute advanced deployments.

Academic Technology Enhancement & Learning Space Design

Focus: Pedagogy-First Classrooms, Cross-Functional Capital Projects, & Instructional Continuity

Executive Overview

Challenge & Strategic Alignment

Pedagogical Communication Gaps: Traditional remote lecture capture methods often force STEM faculty to choose between sharing a screen or maintaining eye contact, obscuring natural facial expressions and diminishing the student experience during complex mathematical annotations.

Complex Environmental Constraints: Deploying a specialized lightboard recording system requires rigid environmental tolerances—including precise noise floors for audio capture, strict lighting placement to eliminate glass glare, and dedicated power routing—which legacy campus spaces could not support.

Cross-Disciplinary Translation: Capital building projects often suffer from communication gaps between the technical requirements of high-end instructional media and the standard execution workflows of architectural and facilities teams.

Leadership & Execution Strategy

Cross-Functional Capital Project Management: Bridged the gap between academic technology requirements and physical construction teams. Collaborated directly with the lead architect, utilizing construction and contracting literacy to embed critical infrastructure—including double-walled acoustic soundproofing, tailored HVAC airflow mitigations, and targeted electrical drops—directly into the initial design phase.

Technical Engineering & System Integration: Led the physical assembly, calibration, and network configuration of the complex Lightboard Studio system, running extensive validation testing to guarantee optimal video capture, backlighting contrast, and audio fidelity.

Multimedia Instructional Design: Lowered the barrier to entry for faculty by developing and distributing a comprehensive suite of written and video-based Standard Operating Procedures. This proactive training strategy mitigated technical anxiety and streamlined self-service studio operations for incoming educators.

Measurable Impact & Outcomes

Sustained High Asset Utilization: Successfully launched an innovative academic space that achieved immediate and sustained adoption, maintaining a constant booking rotation among faculty members across the department.

Enhanced Learning Quality: Enabled educators to deliver high-impact, live-annotated lectures that preserve the critical face-to-face connection between student and teacher, significantly elevating the remote instructional standard.

Mitigation of Capital Project Risk: Eliminated the risk of post-construction retrofitting and costly change orders by ensuring all technical tolerances were met perfectly during the initial physical build phase.