Request to Measure (RTM) Research Program

Upstream Coherence Measurement Stratum (UCMS)

Independence Methodology Real-Time Cases Capability Codes Candidate Operators Adjacent Research University Package Domains

Program Overview & Mission

The UCMS Request to Measure (RTM) Research Program invites facility managers, national laboratories, and academic institutions to collaborate on non-invasive, multi-domain system characterization.

Using proprietary internal operators, UCMS evaluates stress-event coherence, operational recoverability, and system health from raw structural, energy, and environmental telemetry. Our operational framework requires zero proprietary software or algorithm installation on host systems. Host partners provide raw time-series exports; UCMS performs computation internally and returns actionable diagnostic insights.

[ Host Facility / Dataset ] —> ( Raw Telemetry Export ) —> [ UCMS Internal Processing ] —> [ Diagnostic Report ]

Collaboration Framework

Practical Answers for Institutions

The following answers define the engagement boundary. They are not a substitute for a written agreement.

Key principle: The institution administers the approved research engagement; the founder provides the bounded measurement framework and agreed technical support. Participation does not require disclosure of protected operator calculations or transfer of ownership of the underlying intellectual property.

What the university receives

  • A defined measurement protocol
  • A technical report
  • An interpretation of the results within the agreed scope
  • The underlying data or outputs it is authorized to retain
  • A coverage record, baseline comparison, and limitations statement

What the university provides

  • An eligible existing dataset
  • A research question
  • An academic lead
  • Agreed time and institutional support
  • Authorization to use the data for the stated purpose

What remains protected

  • Frozen operators
  • Implementation details
  • Other designated intellectual property
  • Subject to a written agreement that defines access and permitted use

Who administers the program?

The host institution handles research oversight, student supervision, data governance, and publication review within the agreed boundaries. The founder does not run the university’s program.

What if the measurement does not produce a meaningful result?

That outcome is acceptable. A bounded engagement is credible only if it can return an inconclusive or negative result rather than manufacture a positive finding. Stopping conditions are defined before execution.

Important clarification: The academic pathways described (undergraduate capstone, graduate project, faculty-sponsored program) are options for structuring research, not established university partnerships or accredited programs. Any actual engagement requires separate institutional agreement.

Research Independence, Public Benefit, and Commercial Separation

The proposed Standard Coherence Fidelity Layer (SCFL) research program is intended to advance the independent measurement, characterization, and validation of coherence in complex systems.

The program is being developed toward an independently governed nonprofit structure dedicated to research, methodological validation, and the public benefit.

Institutional participation is not a commercial engagement. Universities, research centers, and other participating organizations will not be asked to provide research access, institutional data, or scientific labor in exchange for an expectation of commercial partnership.

Participating institutions will retain control over their data and will participate under mutually agreed terms governing confidentiality, research permissions, publication, attribution, and intellectual property.

No institutional dataset, contribution, or research result will be transferred to a commercial enterprise for private exploitation merely because an institution participated in the program. Any proposed commercial use of jointly generated results or institution-controlled materials must be addressed through applicable agreements, permissions, and governance procedures.

The research program will seek independent evaluation, including findings that challenge, qualify, or fail to support SCFL’s underlying propositions. Participation does not imply endorsement of the framework or acceptance of its validity.

The long-term objective is to establish a credible, independently administered research program through which qualified institutions can evaluate SCFL using bounded, reproducible experiments on appropriate datasets, without assuming responsibility for administering the broader program.

The program’s purpose is to determine what can be measured, what the measurements establish, where their limitations lie, and whether the resulting knowledge can serve the public interest.

Commercial applications may exist alongside this work, but institutional research participation will not itself constitute authorization for commercial exploitation.

Methodology

A Request to Measure engagement follows a bounded, documented process. The goal is to produce interpretable structural measurements under controlled conditions so that an institution can independently assess whether the outputs contribute information beyond an agreed baseline.

1. Scope Definition

Scope is fixed before execution. Expansion is a separate decision, not an automatic continuation.

2. Data Handling

3. Execution

  1. Dataset transfer via secure method agreed by both parties.
  2. Controlled execution of the frozen measurement specification (no source-code transfer required).
  3. Internal processing produces structural state outputs, temporal observations where supported, and integrity checks.
  4. Delivery of an independent report identifying findings, coverage, and limitations.
  5. Optional unblinding and comparison against institutional ground truth.

4. Outputs

The minimum package includes:

5. Independent Assessment

Researchers may examine the data, select baselines, analyze authorized outputs, and report findings under the agreed protocol. Negative or inconclusive results are acceptable outcomes. The measurement is evaluated against pre-agreed criteria rather than against a predetermined conclusion.

Boundary: The institution administers the research engagement. The founder provides the bounded measurement framework and agreed technical support. Participation does not require disclosure of protected operator calculations or transfer of ownership of the underlying intellectual property.

Real-Time and Near Real-Time Perspective Cases

The majority of the dozens of prior test cases have been historical and retrospective. Those reconstructions have been useful for method development, but the current need is for real-time or near real-time perspective cases.

Why this matters: Historical analysis can show that structural change was readable in recorded data. Real-time or near real-time engagements test whether the same measurement can be produced while the system is still operating, under the latency, data quality, and decision constraints that institutions actually face.

What a real-time or near real-time engagement tests

Relationship to historical work

Historical cases remain valuable for establishing baseline behavior, stress-event response, and method integrity. They do not, by themselves, answer whether the measurement can be produced prospectively. Real-time or near real-time cases are therefore a distinct and currently higher-priority class of engagement.

A bounded Request to Measure pilot can be designed as either a retrospective analysis of an existing record or a near real-time run on an active data stream. Both are valid. The program now explicitly seeks the latter where suitable datasets and institutional partners exist.

Candidate Operators

The frozen SCFL operator set is protected. This section lists candidate operators that have been identified for evaluation. Listing a candidate does not imply that it is part of the frozen specification, that it has been validated, or that it is available for use outside agreed research protocols.

Status: Candidate. Subject to integrity checks, controlled testing, and version control before any consideration for inclusion in a frozen specification.

Current Candidates

The candidate list is maintained separately from the frozen operator set. Entries will be added here as they are identified for evaluation. Each entry should note:

No candidates are listed on this page at this time. The list will be updated as evaluation proceeds.

Operator testing is distinct from extensive measurement work. See the note under Capability Codes for the distinction.

Partial Attribution of Sources

Partial attribution. Prior work in the development of coherence measurement standards has drawn on both public and private sources. The listing below is not exhaustive. We thank the institutions, agencies, and data providers whose records, reports, and datasets have supported retrospective analysis and the refinement of measurement methods. Additional sources remain under documentation.

Investigation Reports

Oversight Reports

Financial Statements and Regulatory Filings

Government Datasets

Note: Flint, Fukushima, and the three hospital reconstructions are included in the prior work. Specific source repositories for those cases are under continued documentation.

This partial attribution identifies selected sources that have informed the measurement program. It does not imply endorsement by any listed agency or institution, nor does it represent a claim of ongoing data access.

RTM Research Prospect List — Capability Code Legend

These codes support preliminary screening of institutions for bounded SCFL/RTM research experiments. They indicate potentially relevant research capabilities, not confirmed dataset access or prior participation.

Code Research Capability Potential Research Area
GRIDPower systems and electrical gridsGrid stability, load transitions, interdependencies, and recovery
HOSPHospitals and health systemsOperational coordination, hospital system dependencies, and continuity of care
INFRAInfrastructure and structural monitoringBridges, buildings, transportation systems, and structural integrity
INDIndustrial operations and telemetryManufacturing, process control, industrial operations, and integrated systems
FINFinance and systemic riskFinancial networks, institutional dependencies, and systemic disruptions
CLIMClimate, environmental, and Earth systemsEnvironmental transitions, ecosystem interactions, and recovery dynamics
BIOBiological, physiological, and population healthPhysiological coherence, biological systems, and population-level patterns
ORGOrganizational and institutional performanceOrganizational coordination, institutional dependencies, and operational resilience
AIArtificial intelligence and computingDistributed systems, computational infrastructure, and AI-system interdependencies
CIVCivil systems and critical interdependenceSupply chains, water, food systems, and essential-service dependencies

How to Interpret the Codes

Measurement Work vs. Operator Testing

These are not the same activity.

  • Extensive measurement refers to application of the framework to datasets or cases in a domain — producing structural readings, temporal observations, and comparisons against available baselines.
  • Operator testing refers to evaluation of the frozen operators themselves — integrity, behavior under controlled conditions, sensitivity, and version-controlled checks.

Domains in which both extensive measurement and operator testing have been conducted include power systems / grid (GRID), financial and organizational cases (FIN, ORG), hospital and healthcare reconstructions (HOSP), biological and physiological systems (BIO), and selected infrastructure and structural cases (INFRA). Other domains listed in the codes have supported measurement or exploratory work but have not necessarily undergone the same level of operator testing.

The capability codes remain screening tools. They do not indicate that every listed domain has received equal measurement depth or operator testing.

University-Hosted Structural Integrity Scan

Institutions can be preliminarily matched using the Capability Codes.

A bounded, in-situ SCFL Measurement Package for universities. The university supplies or identifies an existing dataset, the measurement process runs within its own environment, and the university receives a defined set of structural observations and outputs. You retain control of the calculation engine.

Important distinction: This is not a request to adopt SCFL as a theory, validate an entire research program, or build software. It is a limited, controlled measurement engagement on one dataset, one question, and one execution.

The Package

The university provides

  • An existing dataset
  • A designated research or technical contact
  • A secure computing environment
  • Permission to analyze an agreed period or population of observations

SCFL provides

  • A bounded measurement protocol
  • Approved data mapping
  • Controlled execution of the protected operators
  • A defined output specification

The university receives

  • A structural measurement report
  • Time-resolved observations where supported
  • Identified changes in measured relationships
  • Limitations statement
  • A reproducible record of what was actually measured

The university can examine the outputs without receiving operator definitions or the internal calculation sequence. In-situ measurement does not require transferring ownership of the method.

Proposed Pilot Specification (Deliberately Narrow)

A reasonable initial scope is one dataset, one question, one execution, and one report. Duration is set after the dataset is identified.

What the University Sees (Inspectable Evidence)

The deliverable is more than a graph or a single score. Specified outputs include:

The meaning of reported measurements can be disclosed without disclosing the proprietary procedure used to calculate them. The boundary is deliberate: proprietary computation remains internal; evidence remains inspectable.

Suitable University Datasets

Initial preference is for engineering or infrastructure datasets. Examples:

Campus infrastructure

Building-management systems, chilled-water plants, electrical loads, HVAC telemetry, pump systems, and other instrumented facilities.

Civil & structural engineering

Structural-health monitoring, vibration measurements, load tests, fatigue experiments, and sensor networks.

Energy & power systems

Grid simulations, power-system testbeds, microgrids, inverter data, and operational time series.

A university is not automatically the data owner. The initial request asks only for a dataset the institution is authorized to provide for this purpose.

University Research Program Models

The bounded SCFL measurement package can become the basis of a university research program that uses existing datasets to evaluate a new measurement capability without requiring students or faculty to receive proprietary operators.

Three possible models offer different benefits and different levels of institutional commitment.

1. Undergraduate Capstone or Senior Design

Typical duration: one academic semester

Students work with an approved dataset and a tightly specified measurement task. They examine data quality, prepare comparison baselines, interpret authorized SCFL outputs, and assess whether the results add useful information.

Student deliverables: technical report, reproducible baseline analysis, comparison of results, and presentation to faculty.

Benefit: low-commitment way to establish an initial university relationship and test the usability of the output package.

2. Graduate Research Project

Typical duration: one or more semesters

A master's student or doctoral researcher investigates a more demanding question: whether SCFL measurements discriminate among different structural conditions, remain stable under specified data perturbations, or reveal changes not captured by conventional indicators.

Research deliverables: formal protocol, controlled comparisons, sensitivity analysis, documented limitations, and potentially a thesis or paper.

Benefit: stronger independent scrutiny and potentially more credible evidence than a demonstration alone.

The research must be designed so that students can evaluate the claims without needing unrestricted access to the proprietary operators.

3. Faculty-Sponsored Research Program

Typical duration: multiple semesters or years

A faculty member or laboratory hosts a continuing program in structural measurement, using SCFL as a defined research instrument across carefully selected datasets.

Program deliverables: multiple studies, documented protocols, independent assessment, and a growing body of results.

Benefit: possibility of a continuing research relationship, a credible external research record, and future commercial applications.

This model requires more commitment, governance, and potentially funding, so it is pursued after a successful initial pilot.

What Students Can Study Without Receiving Operators

This is the key to making the program academically legitimate. Students investigate questions that can be answered independently of the protected calculations:

  • Incremental information: Does the output provide information that the dataset’s conventional indicators do not already convey?
  • Discrimination: Does it distinguish between known structural conditions and appropriate comparison cases?
  • Robustness: How sensitive are the findings to missing observations, sampling choices, or permitted data perturbations?
  • Temporal interpretation: Do changes in the measurements correspond to documented changes in the system?
  • Reproducibility: Can the same authorized inputs and configuration reproduce the reported outputs?
  • Limitations: Under what conditions is the measurement uninformative, ambiguous, or inappropriate?

These questions create real student research rather than a marketing exercise. A negative or inconclusive result is an acceptable outcome.

Intellectual-Property Boundary

  • University dataset: Existing authorized data and documented reference conditions
  • Protected SCFL execution: Controlled measurement engine; no source-code transfer required
  • Research outputs: Approved measurements, comparison data, limitations, and execution records
  • Student and faculty investigation: Independent analysis of what the measurements show and do not show

The operator implementation is retained. Students receive enough output documentation to interpret the measurements and test agreed claims. Any publication arrangement must preserve academic integrity while protecting genuinely confidential implementation details. Restrictions that prevent students from completing a thesis or publishing required findings must be negotiated upfront.

Preferred Starting Route

Start with one faculty-sponsored undergraduate capstone, with a graduate researcher or faculty adviser overseeing the methodology if available.

  1. Identify one faculty member with an appropriate existing dataset.
  2. Agree on one bounded research question and the comparison baseline.
  3. Execute the protected measurement and provide the defined outputs.
  4. Let the students independently assess those outputs.
  5. Produce a technical report and, if the evidence warrants it, a jointly agreed public methods note.
  6. Use the result to seek a funded graduate project or continuing research partnership.

This provides an entry point without establishing a permanent laboratory, hiring a research team, or disclosing the frozen operator set at the outset.

Note: A capstone is not automatically a funded research engagement. Some projects require a university fee, a sponsored-project agreement, or an industry liaison; others may be undertaken without a sponsor. The exact arrangement depends on the institution.

Recommended framing: Approach this as a sponsored applied-research opportunity, not as a request for students to build SCFL. Supply the measurement capability and bounded research question; the university supplies the research environment and independent scrutiny.

Institutional Administration Model

Full discussion document: Rules of Engagement & Institutional Research Program Q&A (Institutional Discussion Draft)

The founder should not become the administrator of a distributed research program on top of being the originator of SCFL, its principal intellectual contributor, its commercial advocate, and the person responsible for protecting its operators. That would create a bottleneck. Design the structure so that intellectual stewardship is retained while an established institution assumes responsibility for research-program administration.

1. Roles

You — Founder and Scientific Originator

  • Stewardship of the SCFL/UCMS framework and frozen operators
  • Definition of measurement boundaries and permitted use
  • Approval of authorized changes to the measurement specification
  • Strategic partnerships, commercialization, and intellectual-property oversight

Host Institution — Program Administrator

  • Faculty recruitment and project allocation
  • Research agreements, budgets, and administrative coordination
  • Student supervision, research ethics, and institutional compliance
  • Dataset intake, project scheduling, records, and reporting
  • Publication workflows and coordination with participating institutions

Participating Laboratories and Students

  • Supply or identify suitable datasets
  • Execute approved research protocols
  • Conduct comparison analyses and independent assessments
  • Produce technical reports, theses, and eligible publications

The host does not necessarily need to own SCFL. It administers the research program under an agreement that defines its authority, responsibilities, and limits.

2. What Kind of Facility to Seek

Seek an existing unit that already administers external research collaborations, not an informal departmental favor.

The administrator and the scientific host can be different organizations. An institute can manage the program while individual university laboratories perform the research.

3. Bounded Administrative Mandate

Create a small, explicitly bounded administrative mandate rather than asking an institution to adopt the whole SCFL research agenda. The host would be responsible for:

You remain responsible for the intellectual boundaries of SCFL, but not the daily administration of individual projects. Administrative scope, staffing, funding, authority, liability, and intellectual-property arrangements must be agreed explicitly.

4. How to Make This Attractive to a Host

Frame the opportunity as the establishment of an administered, multi-project applied-research program in upstream structural measurement. The institution is not asked to validate all of SCFL in advance. It is invited to determine whether the proposed program merits hosting and to begin with one bounded demonstration.

The initial proposal requests:

5. Funding

An institution may be willing to host research but unwilling to administer a continuing program without funding. Make administrative capacity part of the initial proposal. Potential structures include a sponsored-research agreement, a foundation grant, a program-related charitable grant where eligible, or an external sponsor paying the institution’s agreed administrative and research costs. The host’s fee and founder compensation or licensing arrangements should be separately specified and transparent.

6. Strategic Consequence

A cross-domain research program cannot depend indefinitely on one person personally coordinating every dataset, student, faculty member, agreement, and report. The structure needs to become transferable even while the measurement method remains protected.

Institutional proposition: The founder provides the measurement framework and retains intellectual stewardship. An established research institution administers the program, coordinates independent investigators, and manages the research process. Participating laboratories evaluate bounded applications under agreed protocols.

The immediate objective is to find one institution willing to take responsibility for the program, rather than merely lend a dataset. The next practical step is a two-page Host Institution Proposal that defines the administrative mandate, minimum staffing and funding, the first pilot, governance boundaries, and what the institution gains from hosting the program.

Research Domains & Target Facilities

Domain fit can be screened using the Capability Code Legend.

Domain A: Structural & Environmental Physics

Objective: Evaluate structural dynamics, strain, and vibration coherence during extreme environmental or operational events.

Desired Measurements: High-rate accelerometry, tilt/displacement, ambient vibration spectra, structural strain, temperature gradients.

Target Facilities:

  • CSMIP / CESMD Facilities
  • Streicker Bridge SHM (Princeton)
  • Community Seismic Network (Caltech)
  • Factor Building (UCLA)

Domain B: Multi-Energy Grids & Microgrids

Objective: Measure power quality, phase dynamics, and load recoverability under distribution disturbances or grid events.

Desired Measurements: High-frequency PMU/synchrophasor data, bus voltage/frequency transients, real/reactive power logs, inverter response.

Target Facilities:

  • Smart Grid Center / RELLIS (TAMU/TEES)
  • DERConnect / Microgrid (UC San Diego)
  • UT Austin Campus Microgrid
  • ARIES / ESIF (National Lab of the Rockies)

Domain C: Coupled Infrastructure

Objective: Analyze cross-domain propagation across building thermal dynamics, critical services, and district utility feeds.

Desired Measurements: Concurrent sub-metering, chilled water/steam delta-T, central plant load variations, BMS time-series.

Target Facilities:

  • Texas Medical Center / TECO District Energy
  • Smart & Connected Homes Testbed (TAMU)
  • FLEXLAB (LBNL)
  • CITRC (Idaho National Laboratory)

Blind Real-Time & Retrospective Testing Requirements

Document Reference: RTM-REQ-2026-01

Inquiry Type: Blind Diagnostic Capabilities Evaluation

1. Protocol Purpose

This protocol establishes the operational terms for a Blind Evaluation. UCMS processes raw, unlabelled time-series data provided by the host facility without prior knowledge of internal fault logs or event timestamps. The goal is to independently detect, isolate, and characterize system state transitions and anomalies.

2. Data Requirements & Anonymization

  • Accepted Formats: CSV, Parquet, HDF5, MiniSEED.
  • Anonymization: Partners may redact exact equipment IDs, site names, or GPS locations.
  • Provided Metadata: Sensor type, physical units, timestamp sequence (UTC/local), relative layout.
  • Withheld Information (Blind Validation): Specific event timestamps, fault logs, or maintenance records.

3. Execution Steps

  1. Transfer: Partner transmits dataset via secure file transfer.
  2. Internal Processing: UCMS executes proprietary calculations offline.
  3. Reporting: UCMS delivers an independent report identifying event timestamps and coherence metrics.
  4. Unblinding & Review: Results are compared against partner ground-truth operational logs.