Part I · The Problem
The Confronting Unknowns Framework
June 15, 2026 · 6 min read
Abstract
The Confronting Unknowns Framework carries uncertainty through a four-stage loop: Detect, Identify, Respond, Explain (D-I-R-E). Each stage targets the uncertainty left by the one before it.
The Confronting Unknowns Framework () proposes treating anomalous events as a pipeline of four interdependent stages:
Detect, Identify, Respond, and Explain. ()
It differs from legacy approaches in that uncertainty, rather than being forced to dissolve into a resolved/unresolved dichotomy, is made explicit and carried all the way from detecting to explaining anomalies to the audiences who need them: operational commanders, congressional staff, journalists, as well as the wider public who watch the same skies. As shown in Figure 4 below, data flows left-to-right through Detect → Identify → Respond → Explain. At each junction, the downstream stage targets uncertainty in the previous stage to offer iterative improvement, whether by increasing the sophistication of the analysis or offering more concrete actions and outcomes, or both.
Figure 4. The Confronting Unknowns Framework, in which data flows through Detect, Identify, Respond, and Explain stages.
Our perspective is that central to thoughtful emergency responses is the ability to retain a sense of proportion for what could be causing an event, without jumping to conclusion. Supporting CUF is a set of hypotheses and a suggested approach to managing it. See Identifying Unknowns, Part II: Detect & Identify.
Detect: Is Something There?
Military radars are optimized for known profiles: aircraft with expected signatures, speeds, and altitudes. Air traffic control tracks cooperative targets broadcasting transponder signals. Weather radars, satellite constellations, and maritime monitoring systems observe the relevant domains but were never designed to correlate their data around anomalous events. Indeed, most of the sensor stack inherited the mission of an earlier era. Post-Sputnik radars were tuned to detect intercontinental ballistic missiles.
None of these systems was tasked to characterize objects whose —the geometry of motion—did not match the threat the system was built to detect. That’s why we have the paradox of capable sensors but face siloed data, processing pipelines tuned to suppress the signals that matter here, and retention policies that discard potentially relevant information before anyone thinks to look for it.
Capable sensors, siloed data, and processing pipelines are tuned to suppress the signals that matter here, and retention policies discard relevant information before anyone thinks to look for it.
Identify: What Is It?
The conventional approach sorts anomalous events into “resolved” and “unresolved.” This is useful for top-line bookkeeping but poorly suited to events that develop over time, involve partial evidence from multiple modalities, or demand decisions before definitive attribution. A radar track that is 60% consistent with a commercial drone, 25% consistent with an atmospheric artifact, and 15% consistent with something genuinely unusual is poorly summarized by the “unresolved” label.
Respond: What To Do, and Who Decides?
Respond is the stage where identification becomes action: who is notified, who decides, on what evidence, and with what authority. The New Jersey incursions showed what happens when none of that is settled in advance. No agency held the seam between the , , , , and state emergency management, because the event never crossed any single agency's threshold for a credible threat, and so the response was improvised in public.
This paper treats response in three places rather than one. The Crisis Playbook later in this Part gives senior decision-makers a structured way to act in the first hours of an incident: classify the situation, work a pre-designated contact chain, guard against decision traps, and select a proportionate, authorized response. Part III: Respond & Explain examines how the New Jersey response broke down and what an aligned response would have looked like.
Part IV: An Action Agenda for New Unknowns translates both into an action agenda for readiness and interagency coordination.
Explain: What To Say, By Whom and When?
When communication is treated as an afterthought it becomes the most consequential signal of all. The information vacuum The measurement of information vacuums is ongoing and includes work among some of the authors [14]. in 2024 was filled by a Congressman’s claim of an Iranian mothership, a loose-nuke theory that migrated from a podcast to mainstream media, and a mass-hysteria narrative that dismissed credible eyewitnesses alongside dubious ones. The framework provides a fourth option with Explain: follow a structured protocol that preserves evidence, manages uncertainty, and communicates clearly under uncertainty.
Following are tables that recommend strategies for different demographics. Policymakers should review Table 1 below, Operators refer to Table 2, Researchers to Table 3, and Communicators to Table 4.
A radar track that reads as 60% consistent with a commercial drone, 25% consistent with an atmospheric artifact, and 15% consistent with something genuinely anomalous cannot simply be labelled ‘unresolved’.
Table 1. Strategy for policymakers.
| For Policymakers | |
|---|---|
| The New Jersey incursions were not a failure because anyone refused to act; they were a failure because no one owned the boundary between FAA, DHS, FBI, DoD, and state emergency management. The single highest-leverage federal action is to designate an inter-agency communication protocol for anomalous aerospace incursions, analogous to the playbooks that already exist for pandemics, nuclear incidents, and natural disasters. State-level capacity-building (, , ) is constructive but will fragment the problem further without a federal-state coordination layer. Various pending bills cut in opposite directions: the UAP would build institutional capacity, while would dissolve . The unmanaged contradiction between and HR 8197 is the federal-level analogue of the December 2024 boundary problem. | |
| Actions | Impact |
| 1. Fund named research tracks at //. 2. Direct and to establish crisis protocols. 3. Initiate a ""-style historical ledger accounting. | Validates academic participation, fosters emergency readiness, and builds public trust. |
Table 2. Strategy for Operators.
| For Operators | |
|---|---|
| Pilots, controllers, radar techs, and teams are, in most cases, doing their jobs competently inside systems that were never built to talk to each other. Preservation of the raw record (calibration state, ancillary telemetry, chain of custody) before triage is incredibly useful. First responders and frontline operators should expect, and prepare to answer honestly, questions such as, “How do you know it's not a danger if you don't know what it is?” | |
| Actions | Impact |
| 1. Enforce raw sensor data and metadata preservation before triage or transfer. 2. Explicitly log multi-sensor confirmations, recognizing that the correlated product may classify differently than any single input. 3. Utilize a spectrum of explanatory hypotheses, so handoffs carry calibrated uncertainty rather than premature label. 4. Generate a releasable tear-line summary for cross-agency handoffs. | Eliminates data loss, prevents , and builds an auditable operational picture. |
Table 3. Strategy for Researchers.
| For Researchers | |
|---|---|
| The empirical record visible from outside government is fragmentary: the New York Times videos in 2017, congressional testimony, thousands of narrative reports from contemporary and historical organizations like Americans for Safe Aerospace (ASA), National Aviation Reporting Center on Anomalous Phenomena (NARCAP), Mutual Network (), etc., and the open-source residue of incidents like Langley and Barksdale. No civilian science agency offers a competitive grant category under which UAP-relevant work can be submitted by its actual name. The result is a research community that exists but is institutionally invisible. There are falsifiable studies that could materially affect our understanding without requiring declassification such as re-analysis of weather radar archives during known incursions or developing atmospheric-optics models for the most common misidentification modes. | |
| Actions | Impact |
| 1. Execute observational feasibility studies. 2. Build pipeline-first artificial intelligence () models using commercial foundations. 3. Focus on cross-disciplinary Focused Research Organization (FRO) structures. | Maximizes data collection efficiency and delivers falsifiable, peer-reviewed data. |
Table 4. Strategy for Communicators.
| For Communicators | |
|---|---|
| The most useful intervention is also the least dramatic: maintain the distinction between the phenomena and the institutional response, because conflating them is precisely what produces both premature debunking and conspiratorial drift. Journalists, response communicators, and the public inherited a fragmented information environment: a State Senator calls for a limited state of emergency and a Congressman invokes an Iranian mothership in the same week[15]—“what is in the sky” and “what is happening in government” became indistinguishable in the news feed. | |
| Actions | Impact |
| 1. Implement the . 2. Pre-draft intermediate "unknown" response templates. 3. Train public affairs officers and platforms. | Minimizes speculation, manages , and raises incoming reporting signals. |
Try it: the D·I·R·E loop
Select a stage to see the question it answers, how it fails, and what the next stage inherits when it does. Each stage fails when its neighbour fails — the loop is only as strong as its weakest handoff.
The question
Is something there? Capture and preserve the evidence.
How it fails
A real event is missed, or a sensor artifact is logged as real. Nothing downstream can recover evidence that was never captured cleanly.
What the next stage inherits
Identify inherits whatever Detect preserved — gaps, noise, and all. Missing metadata becomes irreducible uncertainty in the hypothesis ranking.
- Detect: Is something there? Capture and preserve the evidence. How it fails: A real event is missed, or a sensor artifact is logged as real. Nothing downstream can recover evidence that was never captured cleanly. What the next stage inherits: Identify inherits whatever Detect preserved — gaps, noise, and all. Missing metadata becomes irreducible uncertainty in the hypothesis ranking.
- Identify: What is it? Rank hypotheses under explicit uncertainty. How it fails: Ambiguous evidence is forced into a premature verdict, collapsing a live probability distribution into a false certainty. What the next stage inherits: Respond inherits the ranking. A distribution flattened too early sends decision-makers a confidence the evidence never supported.
- Respond: What to do — and who decides? How it fails: Action outruns or lags the evidence: an overreaction to noise, or paralysis in the face of a genuine hazard. What the next stage inherits: Explain inherits the decisions taken. Actions that don't match the stated uncertainty are the hardest thing to communicate honestly.
- Explain: What to say, by whom, and when? How it fails: The public account overstates or understates what is known. Trust erodes, and the next detection arrives into a more skeptical world. What the next stage inherits: Detect inherits the credibility. A botched explanation suppresses the very reports the next cycle depends on — the loop closes.
Every observation is weighed across five hypotheses, not sorted into “explained” or “unexplained.”
- Data or Sensor Artifact
The apparent event is primarily a product of sensor behavior, processing error, or interpretation failure.
- Natural Physical Source
A known, real physical phenomenon from atmospheric, astronomical, oceanic, or geophysical causes.
- Human-Made Physical Source (unclassified)
A real object consistent with conventional or commercially accessible technology.
- Human-Made Physical Source (classified)
A real object associated with restricted state or defense activity.
- Unknown Physical Phenomenon
A real physical phenomenon not adequately explained by H1–H4: the open residual that holds probability for explanations not yet named.
Suggested citation
The Confronting Unknowns ’26 Program (2026). The Confronting Unknowns Framework. In Confronting Unknowns. Sensemaking. https://sensemaking.wtf/work/cu26-p01-ch03
From the program
Explore the program at MIT’s Independent Activities Period