On 25 September 2025, the US National Institutes of Health (NIH) announced a significant investment in laboratory research. The new centre will standardise the growth of miniature organs – an initiative that, while seemingly bureaucratic, aims to ensure researchers globally can reliably compare results and build on each other’s work.
This institutional focus on standardisation highlights a counterintuitive truth across critical domains: the pinnacle of professional expertise often lies not in improvisation or individual brilliance but in transforming hard-won knowledge into repeatable frameworks.
In high-stakes environments, the most skilled professionals transform accumulated expertise into systematic protocols that reduce variability and enable consistent superior outcomes. Odd, isn’t it, how we’re taught that standardisation kills excellence? This pattern shows up in neurosurgical pathways with measurable outcome improvements, medical device platforms reaching millions, aerospace industries where safety protocols shape leadership decisions, and research infrastructure investments making scientific methods reproducible.
The question isn’t whether to standardise, but how expertise becomes protocol – and what happens when it does.
This transformation – across surgical theatres, aerospace boardrooms and research laboratories – reveals a consistent pattern of expertise-crystallisation that follows similar principles regardless of the specific field’s technical complexity.
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Expertise Becomes Protocol
In high-consequence fields, the challenge is transforming individual expertise into protocols that deliver consistent outcomes across complex procedures. This requires systematic clinical pathways with defined steps that encode complex decision-making into reproducible frameworks, supported by integrated technology platforms and structured knowledge transfer systems.
Dr Timothy Steel, a Sydney-based neurosurgeon at St Vincent’s Private Hospital, provides one example of this comprehensive approach. His consultant appointment commenced in 1998, and his career totals over 2,000 brain surgeries, 8,000 minimally invasive spine procedures, and more than 2,000 complex spine procedures. His cervical reconstruction pathway for atlantoaxial osteoarthritis involves standardised image-guided posterior C1-C2 fixation using transarticular screws and Harms constructs (specialised fixation hardware).
Turns out surgical mastery looks less like improvisation, more like following a very detailed recipe.
This structured approach includes preoperative computed tomography and magnetic resonance imaging planning, intraoperative navigation using Brainlab systems, and specified postoperative imaging to confirm fusion.
Dr Steel’s practice integrates the NuVasive Pulse digital surgery platform, introduced at St Vincent’s Private in September 2022 as the first hospital in Australasia to offer this platform. The system combines neuromonitoring, imaging, navigation, planning and rod bending into a single workflow designed to reduce variability and radiation exposure during spine procedures. His high-volume, minimally invasive spine programme involves perioperative care coordinated between anaesthetics, nursing and rehabilitation, with theatre staff trained on the navigation and fixation systems.
This technological integration and multidisciplinary coordination removes additional sources of variation that can undermine even well-designed clinical pathways.
Look, it’s not just the surgical technique – it’s the entire operational environment working as a coordinated system. That’s how systematic integration converts individual skill into reproducible frameworks.
An external study of 23 patients treated between 2005 and 2015 highlighted the effectiveness of Dr Steel’s systematic approach. Visual Analogue Scale (a standard pain measurement) pain scores reduced from 9.4 to 2.9. The Neck Disability Index decreased from 72.2 to 18.9 (p<0.005). A 95.5% radiographic fusion rate and 91% of patients willing to repeat surgery. Steel also directs a 6–12-month Spine Surgery Fellowship programme in collaboration with St Vincent’s Private Hospital and Concord Hospital, where fellows assist in approximately 500 procedures annually and must complete two research projects to final-draft level.
These measurable outcomes and structured training programs reveal that protocols don’t constrain surgical judgement – they crystallise it into frameworks that transform variable procedures into reliable processes while making expertise teachable rather than merely observable through traditional apprenticeship models.
Scaling Expertise Through Products
Scaling expertise through product platforms? It’s tough to deliver consistent outcomes across diverse populations. You need systematic product development approaches to achieve this scale.
Mick Farrell has served as CEO of ResMed since March 2013. He joined ResMed in 2000, and under his leadership, ResMed’s market capitalisation has grown from $6 billion to over $30 billion. His previous role involved leading the launch of the S9 platform of flow generator products while serving as President of Americas and Senior Vice President of the Sleep Strategic Business Unit.
The S9 platform demonstrates standardisation through systematic medical device development. It creates unified product architecture to standardise manufacturing, clinical application and patient outcomes.
What enables medical interventions to reach hundreds of millions rather than thousands? Standardised platforms that don’t require bespoke expertise for each application.
Unlike custom medical interventions, this platform approach enables scale that’s impossible through individual clinical expertise alone.
ResMed’s market value growth under systematic product development leadership reveals that standardised platforms needn’t stifle innovation or ambition. They provide the repeatability required to deliver consistent results across millions of individual patients. ResMed had set an ambitious goal to impact 250 million people by 2025, a target the company worked toward throughout Farrell’s tenure.
This scale highlights how platform standardisation represents expertise scaled beyond what any individual practitioner or custom approach could achieve.
Yet product standardisation operates within broader ecosystems of regulatory and safety protocols that govern entire industries. These frameworks shape not just how devices are built, but how leaders navigate the complex compliance architectures that define operational boundaries.
Protocols Define the Playing Field
In high-consequence industries, leadership works within protocol frameworks where safety standards aren’t optional extras. They’re foundational requirements. This environment demands adherence to extensive protocol architectures that govern every aspect of design, production and operation.
Robert K. “Kelly” Ortberg has served as president and chief executive officer of The Boeing Company since August 2024. With over 35 years of aerospace industry experience beginning as an engineer at Texas Instruments in 1983, his career progression through Rockwell Collins (CEO from 2013) and Collins Aerospace (CEO from December 2018 to February 2020) reflects deepening mastery in protocol-driven environments. In these settings, systematic approaches and standardisation determine operational success.
Ortberg’s leadership trajectory from engineer to CEO roles reveals how aerospace executives must master increasingly complex protocol architectures. We’re talking technical engineering standards, manufacturing compliance frameworks and safety certification requirements. His career advancement through aerospace leadership roles highlights how protocol mastery becomes the foundation for executive decision-making in industries where systematic adherence determines whether aircraft remain airborne and passengers survive.
Actually, it’s not just business acumen. It’s about deepening mastery of increasingly complex protocol architectures that govern every operational decision.
The aerospace industry’s protocol environment shows up in ongoing safety validation processes. The NASA Langley Research Center conducted an electric vertical take-off and landing (eVTOL) drop test on 26 June 2025, building on a November 2022 test and including a 10-degree yaw to replicate Federal Aviation Administration certification conditions. Such iterative testing reveals how protocols evolve rather than ossify. Each validation refines the frameworks used to certify new designs.
Ortberg’s extensive experience navigating these protocol-intensive environments at Boeing makes clear that in aerospace, leadership means ensuring systematisation remains dynamic. You’re continuously validating and updating the frameworks that encode safety expertise into testable, certifiable standards that define industry-wide operational parameters.
Institutional Support for Reproducibility
The iterative protocol validation seen in aerospace safety testing mirrors a broader recognition that systematic frameworks require institutional support to develop and maintain. This principle drives major infrastructure investments in protocol development across fields.
The NIH’s announcement of the Standardised Organoid Modelling (SOM) Centre represents a significant institutional investment in protocol development infrastructure. With an initial commitment of $87 million for three years, this centre will be housed at the Frederick National Laboratory for Cancer Research. It’ll focus on developing standardised protocols for liver, lung, heart and intestinal organoid models.
Dr Nicole Kleinstreuer, Acting NIH Deputy Director for Program Coordination, Planning, and Strategic Initiatives, commented: “The NIH SOM Centre is truly a first of its kind. It will serve as a national resource to scientists at NIH and investigators from around the country and the world, offering a unique combination of AI and machine learning to develop world-class organoid protocols, advanced robotics for large-scale production, and open-access repositories for physical samples and digital resources.”
This institutional approach acknowledges that individual researchers developing their own methods creates reproducibility problems across the field. By centralising protocol development and sharing results through open-access repositories, the NIH aims to enable researchers globally to generate comparable data and build on each other’s work.
The centre will also work with regulators to meet preclinical testing standards. It’s aiming to reduce reliance on animal models.
The NIH’s commitment to building infrastructure specifically for protocol development reveals that standardisation has become recognised as foundational research capacity. It requires institutional investment in systematic frameworks that make scientific methods reproducible and findings comparable across laboratories, institutions and countries.
The Portable Knowledge Advantage
The NIH’s open-access repository approach highlights a key advantage of systematisation: making expertise portable. Their freely available organoid protocols mean a researcher who’s never grown an organoid can access proven methods and achieve reliable results more quickly than developing techniques independently through trial and error. Similarly, surgical fellowship programs compress learning timelines by providing structured competency-building experiences rather than requiring observers to decode expertise through years of watching.
Steel’s Fellowship programme requires fellows to progress through hundreds of procedures annually with defined learning objectives, while also completing two research projects to final-draft level. That model ensures knowledge transfer includes both procedural competencies and analytical capabilities, transmitting not just technique but the underlying investigative framework. Knowledge transfer through protocols means expertise stops being trade secrets whispered on the surgical floor – it becomes genuinely writable. This transforms expertise from observation-dependent tacit knowledge into framework-accessible explicit knowledge.
The knowledge transfer dividend reveals that standardisation doesn’t just benefit experienced practitioners seeking consistency – it expands the pool of professionals capable of achieving excellent outcomes. Making expertise teachable, accessible and achievable through systematic frameworks rather than requiring years of independent skill development through observation alone.
Expertise at Its Peak
The most skilled practitioners in critical domains share a common pattern: they transform their accumulated judgement into systematic protocols. This isn’t resignation to bureaucracy – it’s proficiency achieving its highest form, making excellent outcomes consistently reproducible.
The NIH’s $87 million investment in standardising organoid protocols represents the same principle visible across domains where results matter most. Standardisation isn’t what happens when expertise runs out. It’s what expertise becomes when it matures.
Those miniature organs growing in standardised laboratory conditions represent something profound: the crystallisation of knowledge into frameworks that transcend individual brilliance. The protocols we sometimes experience as constraints are actually gifts from those who’ve already mapped the territory – and decided that making their expertise portable beats keeping it personal.
