THE DOCUMENTS
DOW-UAP-D130, “AAWSAP DIRD Technological Approaches to Controlling External Devices March 23 2010”; DOW-UAP-D136, “AAWSAP DIRD Biosensors and BioMEMS A Survey of the Present Field March 31 2010”; DOW-UAP-D144, “AAWSAP DIRD Cockpits in the Era of Breakthrough Flight November 1 2010”; DOW-UAP-D150, “AAWSAP DIRD Quantum Computing and Utilizing Organic Molecules in Automation Technology December 10 2010”; and DOW-UAP-D151, “AAWSAP DIRD Cognitive Limits on Simultaneous Control of Multiple Unmanned Spacecraft December 15 2010”: five Department of War records from the U.S. Department of War’s PURSUE Release 06, published at war.gov/ufo on 18 September 2026. The titles are the release’s, from the file names, AAWSAP DIRD and the dates included; the printed titles match except on two: DOW-UAP-D130’s cover continues in the Absence of Limb-Operated Interfaces, and DOW-UAP-D136’s puts a colon after BioMEMS. Each Defense Intelligence Reference Document cover carries the Defense Intelligence Agency seal, a date, an ICOD date and a control number: DOW-UAP-D130, 23 March 2010, ICOD 1 December 2009, DIA-08-1003-012; DOW-UAP-D136, 31 March 2010, ICOD 1 December 2009, DIA-08-1003-020; DOW-UAP-D144, 01 November 2010, ICOD 8 July 2010, DIA-08-1011-002; DOW-UAP-D150, 10 December 2010, ICOD 10 December 2010, DIA-08-1102-005; DOW-UAP-D151, 15 December 2010, ICOD 8 September 2010, DIA-08-1101-001. They run to 36, 45, 57, 54 and 31 pages. The first two carry the series line Acquisition Threat Support and the Acquisition Support Division (DWO-3) as preparing office; the other three, Defense Futures, the Technology Warning Division (DWO-4) and a ruled box defining the document type. On each front-matter page (p. 2; p. 3 of DOW-UAP-D151, whose p. 2 is blank) two names are withheld behind labels, with no black bar and no exemption code: an author label overprinted below Author:, and AAP Person 1 in a thin-ruled box before AAWSA Program Manager. This briefing cites PDF pages.
Why this one is worth your time
Two of these papers sit on subjects a reader of this series might expect to touch unidentified craft: a cockpit for a vehicle that hovers, reaches orbit and flies faster than light, and machines controlled by thought. Neither mentions them. What they carry is a set of forecasts about people and machines, stated with their own limits, and a thread the release itself draws through them: one author label on three papers.
What the documents say
D130, controlling machines without hands. The Introduction sets its endpoint as thought-based operation of remote machinery during normal human activity, without a shielded room, without keeping still and without a handheld device (p. 5). It surveys noninvasive methods (EEG, MEG, EMG, fMRI and NIRS) and invasive ones, from the cochlear implant to cortical arrays, and says it concludes, “mainly by eliminating other approaches”, that noninvasive electrical monitoring is the most promising commercial technology in the near term and that invasive single-neuron connections are the most probable in the long term (pp. 5 to 6). Its Conclusions give the near term as EMG-based sensors that should surpass traditional electro-mechanical interfaces “in the next 5 years”, and the far term as optical interfaces or electrode arrays encased in engineered neural tissue (pp. 33 to 34). The one line on aviation is at p. 15: an EMG system could be used to untie a pilot from the cockpit. It closes by saying that the field should be monitored regularly for advances (p. 34). The instrument figures, electrode designs and animal and human trial details on pp. 7 to 29 are summarised here and not reproduced.
D136, biosensors and biomedical microdevices. The paper calls itself a survey of the present field and opens on implantable devices already in clinical use (p. 6). It reviews micromachines that reposition brain electrodes, drug-delivery pumps, blood pH, oxygen and glucose sensors, neural interfaces, retinal and therapeutic stimulators, lab-on-a-chip devices and microcantilever sensors, across 36 figures (pp. 4 to 5, 7 to 44). Among its findings are two limits: no self-contained implantable continuous monitoring sensor has succeeded for long-term use “despite decades of work” (p. 19), and thought-controlled devices are feasible in laboratories “even if they are at present not practical” (p. 30). One paragraph records military interest in reading a soldier’s readiness from blood chemistry and says that remote readout to a command centre is still science fiction but “reflects real desires of the military.” (p. 16); NASA appears as a sponsor of space-flight cell-culture work (p. 40). Its Conclusion describes the field and makes no recommendation (p. 45).
D144, a cockpit for breakthrough flight. The Introduction says the report responds to a request to explore forefront science for future cockpits of craft propelled by any “unspecified advanced or breakthrough propulsion physics”, and names its main reference, the 2009 book Frontiers of Propulsion Science (p. 5). It assumes control over gravitational and inertial forces, faster-than-light speeds, and star flight bounded, for scope, by “a 100-light-year radius around our Sun” (p. 6). From those assumptions it draws a craft with six degrees of freedom and a double hull that shields the crew from its accelerations, and so, it says, likely no windows (pp. 7, 11, 15). It holds that at such speeds automated flight controls will have to take precedence over the pilot’s manual control (p. 18); that humans are not to be reengineered, the cockpit being adapted to them instead (p. 23); and that brain-machine interfaces are limited to non-invasive techniques (p. 33). Chapter 3 sets out a provisional single-pilot cockpit with four flight modes from full manual to fully autonomous (p. 37). The paper says its predictions are “informed conjectures or, at best, well-reasoned speculations” (p. 7), and its Chapter 4 finds it “probably premature” to research cockpits for propulsion physics at all (p. 48).
D150, quantum and DNA computing for space travel. The Summary argues that long missions will need onboard computing to avoid sending data back to Earth, and that silicon semiconductors are “not likely to produce a radiation-hard or small and portable” supercomputer without mission-specific alteration (p. 6). It forecasts ion-trap quantum computers solving real-world problems within 10 years but impractical for space travel, optical computers on a 20-year horizon, hybrid quantum-dot designs on a 40-year one, and DNA computers able to repair damage from cosmic radiation on the 40-year timeline (p. 6). The body reviews quantum computing hardware, with long sections on graphene quantum dots, then DNA tiles, origami, logic gates and molecular walkers (pp. 8 to 45). Its Conclusion names four advances for the 40-year horizon and says optical and DNA machines built in the next 10 to 20 years will lack readiness for space travel (p. 47). The paper’s own word for where such machines would sit is the “astro-arsenal” (pp. 7, 47). Automation, the last word of the title, appears only in the title (pp. 1, 2, 6).
D151, how many craft one pilot can hold. The Summary imagines a crewed mission to the outer solar system 40 years ahead with a fleet of support craft, and asks whether there is a cognitive limit to the number of objects one remote pilot can track (p. 5). Finding “zero peer-reviewed articles in the major journals” on remote piloting of several spacecraft in the last 30 years (p. 6), it reviews air traffic control and unmanned-vehicle studies instead (pp. 13 to 26). Its answer, stated in the Summary and again in the Conclusions, is 16 craft for simple destination selection, 7 for moderately complex tasks and 4 for complex heterogeneous craft (pp. 5, 28). It calls for “an intensive research program” (p. 6) and expects physiological classification of overload to reach near perfect accuracy within five years of specific studies starting (p. 28).
What the release’s labels show. The release prints the same author label, AAP Person 73, on D130 (p. 2), D150 (p. 2) and D151 (p. 3), seen on the 200 dpi images; D136 carries AAP Person 65 and D144 AAP Person 82. That is the release’s labelling. The pages do not say what a label stands for, and this briefing does not go further.
What the documents do not say
None of the five uses UAP, UFO, unidentified, extraterrestrial or alien (case-insensitive, substring and whole word, every page in the issued text layer; D144 and D150 also carry supplementary OCR this project added, which returns none of them either). Anomalous appears in none as a word. The stem anomal returns three hits in D151, all on p. 13, where the paper glosses anomalies as the air traffic control term for errors in flight control; two in D144, recovery time for anomalies in a checklist and an anomaly or emergency response list (pp. 31, 41); and one in D150, inside a physics reference title (p. 50). D130 and D136 return none.
In D144, breakthrough flight is a matter of propulsion physics. The paper returns 56 hits for breakthrough (44 whole word), and the paper glosses the term through its source book as flight methods sufficiently advanced to enable human voyages to other star systems (p. 6). It names no observed vehicle and no sighting; its illustrated craft, the caption says, is a combination of three 1960s science fiction vehicles (p. 8). D130 uses breakthrough once, for a path in hemodynamic response research (p. 31), and cockpit and pilot once each, in the p. 15 sentence. D151’s pilots control aircraft under air traffic control, military unmanned vehicles and hypothetical support spacecraft; its closest phrase to a vanishing object is support craft that, unmonitored, could “disappear one day during the mission like a Martian probe.” (p. 6).
None names a threat or an adversary in its body. D150 returns no hit for threat or military; its cryptography is a technical driver (p. 11). D151 places unmanned-vehicle control mainly in military operations (p. 23) but assesses no threat.
D151 attributes its figure of 4 to a study by Ruff that carries no reference number and has no entry in its reference list (pp. 25, 29 to 31). The page that yields its figure of 16 notes that the cruise-missile scenario behind it involves minimal interaction between the missiles (p. 25); the Summary and Conclusions repeat 16 without that note (pp. 5, 28). D136 carries no reference list at all: References and Bibliography return no hits, and its sources are named inline or in figure captions. D150’s title says Automation Technology, and its body never uses the word.
The front matter of each paper replaces the author’s name with a label. D136’s own text reports that several of the technologies it reviews have been researched by its author (p. 9). No page of the five gives a tasking or contract number, an approval or a signature.
From the record
The paper concludes that noninvasive electrical monitoring of neural activity,
DOW-UAP-D130, p. 5, the Introduction’s statement of the paper’s conclusion; the sentence continues: primarily reading combined action of muscles and neurons, is the most promising commercial technology in the near term.
anywhere such a wireless system would work. Such a system could be used to untie a
DOW-UAP-D130, p. 15, under EMG; the line closes the sentence on control stations reached through a lightweight wireless system and opens the next, which continues: pilot from the cockpit.
Crude forms of these thought-controlled devices have been shown in research
DOW-UAP-D136, p. 30, directly after the passage on decoding motor-cortex signals to drive a robotic limb; the sentence continues: laboratories to be feasible, even if they are at present not practical.
To be explicit, the physics and engineering to create such situations do not yet exist.
DOW-UAP-D144, p. 15, a complete sentence under the figure of the inertial frame bias drive, before the paper places the related physics at steps one and two of the scientific method
Regardless of the sophistication of the technology, a weak link in these systems is the
DOW-UAP-D144, p. 33, under Brain-Machine Interface; the sentence continues: human mind itself; that is, thoughts can wander.
Simple organic computing based on DNA tiles will be realized in the next 20 years. On the
DOW-UAP-D150, p. 6, the last paragraph of the Summary; the line holds one sentence whole and opens the next, which continues: 40-year time horizon, useful DNA-based devices will be essential space exploration tools.
on the number of craft that can be simultaneously controlled are 16 for simple
DOW-UAP-D151, p. 28, Chapter 6, Conclusions; the sentence begins: We have shown the research progress in both areas, and the cognitive limits
operator’s ability to hold a big picture. We note that this scenario involves minimal
DOW-UAP-D151, p. 25, the cruise-missile study behind the figure of 16; the line closes the sentence on 70 per cent utilisation and opens the next, which continues: interaction between the missiles, such as flight path conflicts.
Where the case connects
D130 and D151 share a source without citing each other: D130’s reference 16, on operator capacity for supervisory control of autonomous vehicles (pp. 12, 35), is in D151’s reference list (p. 31). D150 cites no other paper in the release.
The release prints AAP Person 65 on D136 and on DOW-UAP-D119, the biomaterials paper, as Release 06 Briefing 11 notes. Release 06 Briefing 22 covers DOW-UAP-D128, the human tissue paper.
The release files these papers under the same AAWSAP prefix as the contract records DOW-UAP-D110 to D116, which Release 06 Briefing 10 covers. D110 lists “human interface” as the ninth of its twelve study areas (D110 p. 1). That D130, D144 and D151 answer that area is an inference from their subjects; no page of the five names a study area or a contract. Release 06 Briefing 24 covers the release as a whole.
Read it yourself
DOW-UAP-D130, “AAWSAP DIRD Technological Approaches to Controlling External Devices March 23 2010”, DOW-UAP-D136, “AAWSAP DIRD Biosensors and BioMEMS A Survey of the Present Field March 31 2010”, DOW-UAP-D144, “AAWSAP DIRD Cockpits in the Era of Breakthrough Flight November 1 2010”, DOW-UAP-D150, “AAWSAP DIRD Quantum Computing and Utilizing Organic Molecules in Automation Technology December 10 2010”, and DOW-UAP-D151, “AAWSAP DIRD Cognitive Limits on Simultaneous Control of Multiple Unmanned Spacecraft December 15 2010”, are hosted at war.gov in PURSUE Release 06. Each paper’s introduction or summary is on pages 5 to 7 of the PDF.
Read the files. Decide for yourself.
Related wiki entries
The wiki entries below give background on the programme and publisher behind this briefing, and on the subjects it touches.
References and further reading
- DOW-UAP-D130, “AAWSAP DIRD Technological Approaches to Controlling External Devices March 23 2010”, PURSUE Release 06, U.S. Department of War, hosted at war.gov/ufo
- DOW-UAP-D136, “AAWSAP DIRD Biosensors and BioMEMS A Survey of the Present Field March 31 2010”, PURSUE Release 06, U.S. Department of War, hosted at war.gov/ufo
- DOW-UAP-D144, “AAWSAP DIRD Cockpits in the Era of Breakthrough Flight November 1 2010”, PURSUE Release 06, U.S. Department of War, hosted at war.gov/ufo
- DOW-UAP-D150, “AAWSAP DIRD Quantum Computing and Utilizing Organic Molecules in Automation Technology December 10 2010”, PURSUE Release 06, U.S. Department of War, hosted at war.gov/ufo
- DOW-UAP-D151, “AAWSAP DIRD Cognitive Limits on Simultaneous Control of Multiple Unmanned Spacecraft December 15 2010”, PURSUE Release 06, U.S. Department of War, hosted at war.gov/ufo
- Presidential Unsealing and Reporting System for UAP Encounters (PURSUE), U.S. Department of War, war.gov/ufo
- AARO UAP Records, All-domain Anomaly Resolution Office, aaro.mil/UAP-Records
- Signals from the Periphery, Release 06 Briefing 10, on the contract file, DOW-UAP-D110 to D116
- Signals from the Periphery, Release 06 Briefing 11, on DOW-UAP-D119 and the other materials papers
- Signals from the Periphery, Release 06 Briefing 22, on DOW-UAP-D128, the human tissue paper
- Signals from the Periphery, Release 06 Briefing 24, on the release as a whole