Saturday, July 9, 2016

UNAUTHORIZED ACCESS TO THIS UNITED STATES GOVERNMENT COMPUTER SYSTEM AND SOFTWARE IS PROHIBITED BY PUBLIC LAW 99-474 (THE COMPUTER FRAUD AND ABUSE ACT OF 1986) AND CAN RESULT IN ADMINISTRATIVE, DISCIPLINARY OR CRIMINAL PROCEEDINGS.

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Classified Instructions

C1510.9HOPNAV(U) ACOUSTIC INTELLIGENCE SPECIALIST PROGRAM 12/21/2015ActiveN2/N6YesYes
11
Confidential
C2501.5EOPNAVCRYPTOLOGIC TASKS ASSIGNED TO FLEET COMMANDERS IN CHIEF (U)6/24/1969ActiveN20NoNo
1
Confidential
C3000.5EOPNAVOPERATION OF NAVAL NUCLEAR POWERED SHIPS (U)7/6/1989ActiveN00NNoNo
1
Confidential
C3000.8NOPNAVSUBJECT IS CLASSIFIED11/16/2006ActiveN3ONNoNo
1
Confidential
C3128.3UOPNAVPORT VISITS BY U.S. NAVY SHIPS TO FOREIGN COUNTRIES (U)11/10/2008ActiveN30NNoNo
1
Confidential
C3305.1AOPNAVSURVIVAL, EVASION, RESISTANCE & ESCAPE (SERE) PROGRAM; DOCTRINE & POLICY CONCERNING (U)1/18/1977ActiveN31NoNo
1
Confidential
C3430.4DOPNAVNAVY ELECTRONIC WARFARE ORGANIZATION AND POLICY (U)4/19/1978ActiveN64NoNo
1
Confidential
C3501.184E CH-1OPNAVREQUIRED OPERATIONAL CAPABILITES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR FLEET F/A-18A/C STRIKE FIGHTER SQUADRONS (U)8/25/2014ActiveN882CNoNo
31
Confidential
C3501.215DOPNAVREQUIRED OPERATIONAL CAPBILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR THE FLEET HELICOPTER MINE COUNTERMEASURES SQUADRON COMMUNITY (U)10/31/2013ActiveN98NoNo
37
Confidential
C3501.236COPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR FLEET AIR RECONNAISSANCE SQUADRON ONE (VQ-1) (U)9/20/2013ActiveN2/N6NoNo
47
Confidential
C3501.244COPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR FLEET SH-60F/HH-60H HELICOPTER ANTI-SUBMARINE SQUADRONS (U)9/17/2010ActiveN882NoNo
23
Confidential
C3501.256COPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR SUBMARINE TENDERS (U)7/16/2014ActiveN97NoNo
64
Confidential
C3501.275COPNAVPROJECTED OPERATIONAL ENVIRONMENT AND REQUIRED OPERATIONAL CAPABILITIES FOR FLEET PATROL SQUADRONS (VP) (U)11/1/2013ActiveN98NoNo
67
Confidential
C3501.296BOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR RESERVE F/A-11 STRIKE FIGHTER SQUADRONS (U)3/31/2014ActiveN98NoNo
35
Confidential
C3501.2KOPNAVNAVAL WARFARE MISSION AREAS AND REQUIRED OPERATIONAL CAPABILITY/PROJECTED OPERATIONAL ENVIRONMENT (ROC/POE) STATEMENTS (U)1/22/2010ActiveN3/N5NoNo
199
Confidential
C3501.301BOPNAVREQUIRED OPERATIONAL CAPABILILTY AND PROJECTED OPERATIONAL ENVIRONMENT FOR ELECTRONIC ATTACK SQUADRON ONE TWO NINE11/24/2014ActiveN98NoNo
31
Confidential
C3501.303BOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR RESERVE EA-18G ELECTRONIC ATTACK SQUADRON TWO ZERO NINE (VAQ-209) (U)7/8/2014ActiveN98NoNo
44
Confidential
C3501.309AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR NUCLEAR ATTACK SUBMARINES (U)11/1/2010ActiveN87NoNo
48
Confidential
C3501.315AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT11/18/2013ActiveN98NoNo
28
Confidential
C3501.317AOPNAVREQUIRED OPERATIONAL CAPABILITY (ROC) AND PROJECTED OPERATIONAL ENVIRONMENT (POE) STATEMENTS FOR RESERVE COMMAND AND CONTROL SQUADRON SEVENTY SEVEN (VAW-77)3/27/2006ActiveN880C2ANoNo
1
Confidential
C3501.323AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FIGHTER SQUADRON COMPOSITE TWELVE4/1/2014ActiveN98NoNo
36
Confidential
C3501.339AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR PATROL SQUADRON THIRTY (U)3/18/2014ActiveN98NoNo
52
Confidential
C3501.340BOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR FLEET FA-18E/F STRIKE FIGHTER SQUADRONS (U)8/15/2014ActiveN98NoNo
44
Confidential
C3501.348COPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FLEET HELICOPTER MARITIME STRIKE CARRIER AIR  WING (U)4/2/2014ActiveN98NoNo
44
Confidential
C3501.353OPNAVREQUIRED OPERATIONAL CAPABILITY FOR FLEET UNMANNED PATROL SQUADRONS AND PROJECTED OPERATIONAL ENVIRONMENT FOR FLEET UNMANNED PATROL SQUADRON NINETEEN (VUP-19) STATEMENTS(U)10/16/2014ActiveN2/N6NoNo
47
Confidential
C3501.354OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OEPRATIONAL ENVIRONMENT FOR FLEET CARRIER AIR WING/EXPEDITIONARY/FORWARD DEPLOYED NAVAL FORCES EA-18G ELECTRONIC ATTACK SQUADRON (VAQ/EXP/FDNF) (U)1/5/2015ActiveN98NoNo
48
Confidential
C3501.356OPNAV(U) REQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIROMENT FOR FLEET F35C STRIKE FIGHTER SQUADRON4/16/2015ActiveN98NoNo
40
Confidential
C3501.357OPNAV(U) REQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FLEET HELICOPTER SEA COMBAT EXPEDITIONARY SQUADRONS5/18/2015ActiveN98NoNo
39
Confidential
C3501.361OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR NUCLEAR GUIDED MISSILE SUBMARINES (U)11/18/2010ActiveN87NoNo
39
Confidential
C3501.372AOPNAVREQUIRED OPERATIONAL CAPBALITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FIGHTER SQUADRON COMPOSITE THIRTEEN (U)2/19/2016ActiveN98NoNo
18
Confidential
C3501.376AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR NAVY TACTICAL MOBILE SYSTEMS (U)3/25/2014ActiveN98NoNo
40
Confidential
C3501.378AOPNAV(U) E-2D REQUIRED OPERATION CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR COMMAND AND CONTROL SQUADRONS5/15/2015ActiveN2/N6NoNo
27
Confidential
C3501.379AOPNAV(U) REQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR P-3C RESERVE FLEET PATROL SQUADRONS (VP)5/18/2015ActiveN98NoNo
62
Confidential
C3501.37DOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FLEET BALLISTIC MISSILE SUBMARINES (U)11/18/2010ActiveN87NoNo
30
Confidential
C3501.384OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR FLEET CARRIER AIR WING HELICOPTER SEA COMBAT SQUADRONS5/17/2011ActiveN8824NoNo
32
Confidential
C3501.385OPNAVDEFENSE READINESS REPORTING SYSTEM-NAVY BALLISTIC MISSILE DEFENSE SUPPLEMENT (U)5/27/2011ActiveN430NoNo
21
Confidential
C3501.392OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OEPRATIONAL CAPABILITY FOR HELICOPTER SEA COMBAT SQUADRONS EIGHT FOUR AND EIGHT FIVE (U)11/1/2013ActiveN98NoNo
37
Confidential
C3501.402OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR ATLANTIC AND PACIFIC FLEET AND RESERVE EXPEDITIONARY MH-60R HELICOPTER MARITIME (U)2/19/2016ActiveN98NoNo
51
Confidential
C3501.65FOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR MULTI-PURPOSE, NUCLEAR-POWERED AIRCRAFT CARRIER3/18/2014ActiveN98NoNo
290
Confidential
C3800.16AOPNAVCORRELATION OF FOREIGN LIAISON FUNCTIONS WITH INTELLIGENCE COLLECTION (U)8/29/1968ActiveN21ZNoNo
1
Confidential
C3886.1COPNAVREPORTING OF CRYPTOLOGIC CAPABILITIES ASSIGNED TO SHIPS AND OTHER UNITS OF THE OPERATING FORCES (U)11/22/2002ActiveN2CNoNo
1
Confidential
C4200.35SECNAVINTELLIGENCE-RELATED CONTRACTING (IRC) WITHIN THE DEPARTMENT OF THE NAVY (U)3/1/2001ActiveDUSN (PPOI) INTELNoNo
1
Confidential
C5510.93FOPNAV
1/10/2002ActiveN6/CMC (C4I)NoNo
33
Confidential
C8510.12FOPNAVLIGHTWEIGHT TORPEDO FLEET PEACETIME FIRING POLICY (U)3/8/2010ActiveN87NoNo
24
Confidential
C8510.14BOPNAVCLEARANCE AND AUTHORIZATION FOR USE OF SUBMARINES AS EXERCISE TARGETS (U)7/24/2014ActiveN97NoNo
8
Confidential
C8510.15C CH-3OPNAVHEAVYWEIGHT TORPEDO FLEET PEACETIME FIRING POLICY (U)7/16/2008ActiveN87NoNo
24
Confidential
C8550.5MOPNAVSERVICE MINE DISTRIBUTION AND SUPPORT GUIDANCE (U)6/29/1987ActiveN76NoNo
1
Confidential
C9010.298A w CH-1OPNAVAMPHIBIOUS ASSAULT SHIP (GENERAL PURPOSE) (LHA) SAIP PROJECT NO. 410.68; APPROVED CHARACTERISTICS FOR (U)9/23/1975ActiveN76NoNo
1
Confidential
C9010.306 w CH-1OPNAVAPPROVED CHARACTERISTICS FOR LANDING CRAFT MECHANIZED (LCM)-6, SAIP PROJECT 414.XX (U)6/19/1974ActiveN76NoNo
1
Confidential
C9010.317AOPNAVAPPROVED TOP LEVEL REQUIREMENTS (TLR) FOR LANDING SHIP DOCK (LSD 41 CLASS) SHIPS (U)7/17/1985ActiveN76NoNo
1
Confidential
C9010.319OPNAVLANDING CRAFT AIR CUSHION (LCAC) TOP LEVEL REQUIREMENTS (TLR); PROMULGATION OF (U)4/22/1980ActiveN76NoNo
1
Confidential
C9010.326AOPNAVTOP LEVEL REQUIREMENT FOR MINE COUNTERMEASURES SHIP (MCM-1 CLASS) (U)1/13/1987ActiveN75NoNo
1
Confidential
C9010.328 w CH-1OPNAVMULTI-PURPOSE AMPHIBIOUS ASSAULT SHIP (LHD 1) TOP LEVEL REQUIREMENTS (TLR); PROMULGATION OF (U)12/8/1983ActiveN76NoNo
1
Confidential
C9010.329 w CH-1OPNAVAPPROVED TOP LEVEL REQUIREMENTS (TLR) FOR COMBAT SUPPORT SHIP (AOE 6 CLASS) (U)10/25/1984ActiveN86NoNo
1
Confidential
C9010.332AOPNAVAPPROVED TOP LEVEL REQUIREMENT (TLR) FOR THE SEAWOLF CLASS (SSN 21) NUCLEAR ATTACK SUBMARINE (U)9/25/1991ActiveN77NoNo
1
Confidential
C9010.333OPNAVAPPROVED TOP LEVEL REQUIREMENTS (TLR) FOR LANDING SHIP DOCK (LSD 41 CARGO VARIANT) SHIPS (U)7/2/1986ActiveN76NoNo
1
Confidential
C9010.336AOPNAVTOP LEVEL REQUIREMENTS FOR COASTAL MINEHUNTER (MHC 51 CLASS) (U)11/28/1989ActiveN76NoNo
1
Confidential
C9010.340OPNAVT-AGOS 23 (SWATH-A) OCEAN SURVEILLANCE SHIP TOP LEVEL REQUIREMENTS (TLR) (U)12/8/1988ActiveN76NoNo
1
Confidential
C9010.341OPNAVT-AGS (MIZAR REPLACEMENT) OCEANOGRAPHIC SURVEY SHIP TOP LEVEL REQUIREMENTS (TLR) (U)4/17/1989ActiveN76NoNo
1
Confidential
F2300.44HOPNAVCOMMAND, CONTROL, COMMUNICATIONS AND COMPUTER REQUIREMENTS FOR NAVY SHIPS, MILITARY SEALIFT COMMAND SHIPS, COAST GUARD CUTTERS, TRANSPORTABLE FACILITIES, DESIGNATED CRAFT, PORTABLE RADIO USERS, MAJOR SHORE COMMUNICATION STATIONS, AND MARITIME OPERATIONS6/28/2011ActiveN2/N6NoNo
130
FOUO
F3100.6J CH-3OPNAVSPECIAL INCIDENT REPORTING (OPREP-3 PINNACLE, OPREP-3 NAVY BLUE, AND OPREP-3 NAVY UNIT SITREP) PROCEDURES10/4/2011ActiveN3/N5NoNo
193
FOUO
F3300.53COPNAVNAVY ANTITERRORISM PROGRAM5/26/2009ActiveN3/N5NoNo
97
FOUO
F3501.145DOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR FFG 7 (OLIVER HAZARD PERRY) CLASS GUIDED MISSILE FRIGATES4/9/2014ActiveN96NoNo
76
FOUO
F3501.249FOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR C-2A FLEET LOGISTICS SUPPORT SQUADRONS3/3/2016ActiveN98NoNo
24
FOUO
F3501.282COPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR STRIKE FIGHTER SQUADRON ONE ZERO SIX FLEET REPLACEMENT SQUADRON10/24/2014ActiveN98NoNo
17
FOUO
F3501.298COPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR CARRIER STRIKE GROUP STAFF7/17/2014ActiveN98NoNo
44
FOUO
F3501.304COPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR CYCLONE CLASS PATROL COASTAL SHIPS9/14/2015ActiveN96NoNo
41
FOUO
F3501.305BOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR NAVY C-20G SQUADRONS3/26/2014ActiveN98NoNo
27
FOUO
F3501.306DOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR NAVY C-130T SQUADRONS9/14/2015ActiveN98NoNo
24
FOUO
F3501.307BOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR NAVY C-9B SQUADRONS3/18/2014ActiveN98NoNo
24
FOUO
F3501.310COPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR WASP CLASS AMPHIBIOUS ASSAULT SHIPS (LHD 1)4/10/2014ActiveN95NoNo
177
FOUO
F3501.311B W CH-1OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED  OPERATIONAL ENVIRONMENT FOR DDG 51 (ARLEIGH BURKE) CLASS GUIDED MISSILE DESTROYERS9/10/2012ActiveN96NoNo
80
FOUO
F3501.318BOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR AMPHIBIOUS SQUADRON COMMANDERS8/27/2013ActiveN95NoNo
39
FOUO
F3501.319BOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR EXPEDITIONARY STRIKE GROUP STAFFS9/9/2011ActiveN8823NoNo
61
FOUO
F3501.322COPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR AIR TEST AND EVALUATION SQUADRON NINE (VX-9)6/20/2012ActiveN98NoNo
43
FOUO
F3501.341B CH-3OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR F/A-18 FLEET REPLACEMENT STRIKE FIGHTER SQUADRON ONE TWO TWO (VFA-122)10/11/2011ActiveN980PNoNo
16
FOUO
F3501.342BOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR NAVY C-40A SQUADRONS3/19/2014ActiveN98NoNo
23
FOUO
F3501.351OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR HELICOPTER MARITIME STRIKE SQUADRON FLEET REPLACEMENT SQUADRONS (HSM-40/41)4/16/2015ActiveN98NoNo
14
FOUO
F3501.355AOPNAVPROJECTED OPERATIONAL ENVIRONMENT AND REQUIRED OPERATIONAL CAPABILITIES FOR LPD-17 (SAN ANTONIO) CLASS AMPHIBIOUS TRANSPORT DOCK SHIPS4/14/2014ActiveN95NoNo
141
FOUO
F3501.358BOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR DESTROYER SQUADRON STAFFS 1, 2, 9, 21, 22, 23, 26, 28, and 311/6/2015ActiveN96NoNo
41
FOUO
F3501.362AOPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR HELICOPTER SEA COMBAT SQUADRONS TWO AND THREE (HSC-2/3)10/28/2013ActiveN98NoNo
26
FOUO
F3501.364OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR THE 175-FOOT COASTAL BUOY TENDER - KEEPER CLASS11/24/2010ActiveN86NoNo
56
FOUO
F3501.365OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR THE 225-FOOT SEAGOING BUOY TENDER - JUNIPER CLASS11/24/2010ActiveN86NoNo
58
FOUO
F3501.373OPNAVREQUIRED OPERATIONAL CAPABILITIES (ROC) AND PROJECTED OPERATIONAL ENVIRONMENT (POE) FOR JOINT MARITIME ASHORE SUPPORT TEAM (JMAST)9/30/2008ActiveN6NoNo
29
FOUO
F3501.390OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR AFLOAT FORWARD STAGING BASE (INTERIM) WARSHIP WITH COMBINED SAILOR AND GOVERNMENT CIVILIAN MARINER CREW5/30/2012ActiveN95NoNo
57
FOUO
F3501.393OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR FLEET READINESS CENTER NORTHWEST EA-18G VAN OPERATIONAL DETACHEMENTS10/16/2013ActiveN98NoNo
19
FOUO
F3501.394OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT STATEMENTS FOR STRIKE FIGHTER SQUADRON ONE ZERO ONE FLEET REPLACEMENT SQUADRON3/28/2014ActiveN98NoNo
17
FOUO
F3501.396OPNAVREQUIRED OPERATIONAL CAPABILITY AND PROJECTED OPERATIONAL ENVIRONMENT FOR HELICOPTER MINE COUNTERMEASURES REPLACEMENT SQUADRON TWELVE (HM-12)7/6/2015ActiveN98NoNo
17
FOUO
F3501.397OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR MOBILE LANDING PLATFORM 3 AFLOAT FORWARD STAGING BASE CLASS SHIPS9/29/2015ActiveN95NoNo
64
FOUO
F3501.398OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR AEGIS ASHORE MISSILE DEFENSE SYSTEM ROMANIA AND AEGIS ASHORE MISSILE DEFENSE FACILITY DEVESELU ROMANIA8/5/2015ActiveN96NoNo
25
FOUO
F3501.399OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR (ZUMWALT) CLASS GUIDED MISSILE DESTROYERS9/28/2015ActiveN96NoNo
78
FOUO
F3501.93DOPNAV(ROC) AND (POE) FOR NAVAL BEACH GROUPS AND THEIR ELEMENTS6/19/2001ActiveN753NoNo
88
FOUO
F3501.97H CH-1OPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENTS FOR EXPLOSIVE ORDNANCE GROUP FORCES4/20/2011ActiveN95NoNo
335
FOUO
F5440.78OPNAVMISSION, FUNCTIONS, AND TASKS OF COMMANDER, U. S. NAVAL FORCES, EUROPE/COMMANDER, U.S. SIXTH FLEET NAPLES, ITALY (COMUSNAVEUR/COMSIXTHFLT)8/26/2009ActiveDNS-3NoNo
6
FOUO
N3540.3DOPNAVNAVAL NUCLEAR PROPULSION EXAMINING BOARDS2/16/1990ActiveN00NNoNo
1
NOFORN
N4740.4BOPNAVTOWING OF UNMANNED DEFUELED NUCLEAR POWERED SHIPS AND REACTOR COMPARTMENT DISPOSAL PACAKAGES4/4/2002ActiveNOONNoNo
1
NOFORN
N4740.5AOPNAVOPEN-OCEAN TOWING OF MOORED TRAINING SHIPS7/12/2011ActiveN00NNoNo
5
NOFORN
N9080.3GOPNAVPROCEDURES FOR TESTS AND TRIALS OF NAVAL NUCLEAR POWERED SHIPS UNDER CONSTRUCTION, MODERNIZATION, CONVERSION, REFUELING AND OVERHAUL4/10/1990ActiveN00NNoNo
1
NOFORN
N9210.3 (Complete instruction)OPNAVSAFEGUARDING OF NAVAL NUCLEAR PROPULSION INFORMATION6/7/2010ActiveN00NNoNo
80
NOFORN
S3061.1EOPNAVTHE NAVY CAPABILITIES AND MOBILIZATION PLAN (NCMP) (U)6/3/1999ActiveN512NoNo
1
Secret
S3200.1OPNAVSIGNALS INTELLIGENCE (SIGINT) (U)9/11/1973ActiveN2NoNo
1
Secret
S3433.1OPNAVMILITARY DECEPTION (MILDEC) (U)8/4/1995ActiveN513NoNo
1
Secret
S3470.6OPNAVU.S. NAVY ARCTIC WARFARE PROGRAM (U)3/4/1983ActiveN096NoNo
1
Secret
S3501.105AOPNAV(ROC) AND (POE) FOR FLEET TACTICAL DECEPTION GROUP (FLTTACDECGRU) (U)5/30/1989ActiveN7NoNo
1
Secret
S3501.274AOPNAVREQUIRED OPERATIONAL CAPABILITIES AND PROJECTED OPERATIONAL ENVIRONMENT FOR SPECIAL PROJECT PATROL SQUADRON TWO (VPU-2) (U)9/20/2013ActiveN2/N6NoNo
53
Secret
S3501.284COPNAVREQUIRED OPERATIONAL CAPABILITIES (ROC) AND PROJECTED OPERATIONAL ENVIRONMENT (POE) FOR FLEET AIR RECONNAISSANCE SQUADRONS THREE AND FOUR (VQ-3/VQ-4)9/26/2006ActiveN88NoNo
1
Secret
S3821.8OPNAVU.S. NAVY FOREIGN MILITARY INTELLIGENCE COLLECTION ACTIVITIES (U)2/19/2013ActiveN2/N6NoNo
7
Secret
S3821.9OPNAVOPNAVINST S3821.97/16/2015ActiveN2/N6NoNo
14
Secret
S3840.10OPNAVOPERATIONAL INTELLIGENCE REPRESENTATION AT THE NATIONAL SECURITY AGENCY (NSA) AND PROCEDURES FOR REQUESTING NSA SUPPORT (U)9/25/1982ActiveN20NoNo
1
Secret
S3850.3SECNAVSUPPORT TO DEPARTMENT OF DEFENSE OFFENSIVE COUNTERINTELLIGENCE OPERATIONS (U)8/24/1988ActiveDUSN (PPOI) INTELNoNo
1
Secret
S3850.5OPNAVSUPPORT TO DEPARTMENT OF DEFENSE OFFENSIVE COUNTERINTELLIGENCE OPERATIONS (U)12/29/1988ActiveN2NoNo
1
Secret
S3882.2BOPNAVNAVY FOREIGN MATERIEL PROGRAM (NFMP) (U)12/27/2005ActiveN2NoNo
1
Secret
S8126.1ASECNAVNAVY NUCLEAR WEAPONS SECURITY POLICY1/31/2013ActiveDUSN (PPOI) SECURITYNoNo
1
Secret
S8950.2HOPNAVELECTROMAGNETIC AND ACOUSTIC SIGNATURE CONTROL FOR MINE WARFARE (U)12/8/2014ActiveN95NoNo
26
Secret
S9010.342OPNAVT-AGS (MIZAR REPLACEMENT) OCEANOGRAPHIC SURVEY SHIP TOP LEVEL REQUIREMENTS (TLR) (U)4/17/1989ActiveN76NoNo
1
Secret
https://doni.daps.dla.mil/classified.aspx  

space UNAUTHORIZED ACCESS TO THIS UNITED STATES GOVERNMENT COMPUTER SYSTEM AND SOFTWARE IS PROHIBITED BY PUBLIC LAW 99-474 (THE COMPUTER FRAUD AND ABUSE ACT OF 1986) AND CAN RESULT IN ADMINISTRATIVE, DISCIPLINARY OR CRIMINAL PROCEEDINGS.

"HOME MADE" Active Denial System (Directed Energy Weapon)


"But the real value of our attacks today lies in the psychological impact, not in the immediate casualties.  For one thing, our efforts against the System gained immeasurably in credibility.  More important, though, is what we taught the politicians and the bureaucrats.  They learned today that not one of them is beyond our reach.  They can huddle behind barbed wire and tanks in the city, or they can hide behind the concrete walls and alarm systems of their country estates, but we can still find them and kill them.  All the armed guards and bulletproof limousines in America cannot guarantee their safety.  That is a lesson they will not forget."
--- Excerpt from The Turner Diaries, by Dr. William L. Pierce.
Overview
The military has a non-lethal Directed Energy Weapon (DEW) called the "Active Denial System."  Which, despite all the hoopla and millions in tax-dollars, hasn't actually ever been deployed!  Their Active Denial System is basically a 100 kilowatt, 95 GHz gyrotron oscillator (CPI VGB-8095) feeding a high-gain (very narrow beamwidth), rotatable parabolic or phased-array antenna.  The idea is for the high-energy RF beam to rapidly heat the outside layer of skin (up to around 130°F), causing the target to flee the immediate area.  Due to its 3.2 millimeter wavelength, a 95 GHz beam can't penetrate more than about 0.4 millimeters of living tissue and the "blink" factor will help to protect your eyes.  And therein lies the entire problem...  Who wants a weapon that only annoys people?  We want one that will fry their insides!
The July 1989 issue of 73 Magazine has a really neat article entitled "ATV Transmitter from a Microwave Oven!" by David Pacholok, KA9BYI.  The article tells you how to construct a high-voltage power supply and frequency modulator circuit to control the 2.45 GHz magnetron used in a standard microwave oven.  The circuit is actually quite clever, and also fairly simple to build, but does requires the use of old television horizontal sweep tubes (6JE6, 6LQ6, or 6MJ6 - with 6MJ6s being the best) to control the current into the magnetron.  That's one big problem, as these tubes can be more difficult to find than Barack Hussein Obama's birth certificate.  Try checking your local TV repair store (Repair?  Huh?) and pick up as many as you can find, along with the matching 9-pin Novar sockets.  Most of the other parts, believe it or not, can still be picked up at Radio Shack.  Also, since the 73 article is quite thorough, the specific details of the magnetron's control circuit operation will not be covered here.  A copy of the article will appear on the website.
The goal for our project is to implement this same circuit into some type of "Poor Man's Active Denial System."  The idea being that using a microwave oven magnetron in Continuous Wave (CW) mode, instead of the normal 60 Hz "pulsed" mode, will result in a higher average output power.  This is much more desirable for "cooking" a target.  You may remember a MythBusters episode where they try to cook a turkey using a high-power pulsed marine (9.4 GHz) radar.  While radars do put out alot of radio frequency energy, it is only for a few microseconds.  Their overall average RF output power is actually quite low, so they can't really harm the living.
While not having anywhere near the range or insane RF output power level of the military version, this version of the Active Denial System is still quite useful for slowly (or covertly) heating a remote target.  It may also be possible to remotely induce fevers, cataracts, headaches, or other fatigue symptoms in a human target.  And, since the 2.45 GHz wavelength is quite long, it may even be possible to cause severe internal tissue, brain, or other organ damage.  RF heating of a person's heart can cause all sorts of problems, especially if they have a pacemaker.  Imagine being able to remotely induced a heart attack...
Other non-amateur radio related uses for high-powered, continuous wave 2.45 GHz energy:
  • Counter-IED Operations:  Heating an area with RF can cause plastic explosives to retain some energy which will allow them to be "viewed" via a thermal imaging system.  RF energy may also disable detonation or timer electronics.

  • Fight Global Warming:  There are too many people on the planet.  But, are there any White countries with overpopulation problems?  Nope!  Try using high-energy RF to remotely induce abortions or severly damage a shit-skin fetus.

  • SAM Spoofing:  Some surface-to-air missiles use high-power CW illumination for the missile to ride on.  Point your device at a military airplane and see if it shoots out any cool countermeasures.  Can also be used as a decoy to draw in anti-radiation missiles to places you want blown up.

  • Surveillance:  The Russians used to flood the U.S. embassy with high-power microwaves to try and pick up any "vibrations" in objects caused by people talking.  Also try flooding an area with 2.45 GHz and demodulating an odd harmonic (7.35, 12.25 GHz etc.) to extract audio via a modulated non-linear junction.

  • Preventing ACORN Fraud:  Prevent one of the most corrupt Democrat-supported organizations on the planet, ACORN, from partaking in voter or census fraud.  Zap 'em!

  • Counter-Body Armor:  Your house getting raided because you don't support Obama or own a gun Hollywood liberals don't like?  RF passes right through that fancy body armor.  The target's "flinch factor" can also give you extra time to aim or to expose vulnerable regions on your attacker.  Good for weeding out snipers too...

  • Increasing Home Values:  Thanks to "diversity," your once quiet neighborhood in probably being destroyed thanks to non-White invaders or other liberal scum.  Don't like your new neighbors?  Zap 'em!  Loud stereos?  Zap 'em!  Section 8 housing?  Zap 'em!  Corrupt politicians, lawyers, and bankers?  Zap 'em!

  • Countering Alarm Systems:  Most alarms systems don't like being in high-RF areas, especially video cameras.  You might be able to disable or even remotely trigger alarm systems using a device like this.  Really freaks dogs out too...

  • Frey Effect:  Properly pulsed high-power microwave energy can cause people to "hear" things.  Seriously.  Simple tones are the easiest, while speech requires a "pre-distortion" circuit.

  • Doppler Radar:  Tap the output of the magnetron via a directional coupler and run it into a mixer to detect phase shifts.  This is a good start for a homebrew, long-range Doppler radar.  Point it straight up and search for UFOs.
All that from the little box sitting in your kitchen.  Holy fuck!
Pictures & Construction
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Parts for the 120 VAC main input.
A high-amperage line filter, toggle switch, and fuse holder will be mounted inside a square electrical outlet box.  The filtered 120 VAC lines will be mounted on standoffs and distributed to the other transformers.
The little green blob with two leads is an input surge absorber from an old computer switching power supply.  It's used to reduce the large surge current when the power is initially applied.
The Radio Shack #273-1511 transformer will provide the 12.6 VAC for the two 6MJ6 tubes (filaments in series) we will be using.  It will also provide the +/- power supply for the op-amp in the control circuit.
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Rear view of the AC input power panel.
Try to use a single point ground to reduce any ground loops.
There are (optional) ferrite beads on the incoming 120 VAC hot, neutral, and ground leads.
A green neon lamp is used as a power indicator.
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Everything will be mounted to a large aluminium plate.
L-brackets are riveted to the plate, which will be used to mount the twelve electrolytic capacitors making up the high-voltage power supply's ripple capacitor.
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Secured electrolytic capacitor.
Twelve 650 µF / 450 VDC electrolytic capacitors will be used.
Put a piece of heatshrink tubing over the L-bracket and wrap the bottom of each capacitor with electrical tape.
Secure the capacitors using hose clamps.
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The twelve capacitors ready to go.
Proper high-voltage construction techniques would require a little more space between the capacitors and maybe also mount them on some type of insulator.  Oh well...
Wire the capacitors in series (+ to -) with a 100 kohm / 5W resistor across each one for voltage load sharing.
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Stock microwave oven transformer.
Its secondary provides 3.3 VAC for the magnetron's filament and the high-voltage winding provides around 1,800 VAC.
Note that one side of the high-voltage winding is connected to the frame of the transformer (ground).  This will need to be disconnected and properly isolated.
The magnetic shunts, which are normally installed in a microwave oven transformer, can stay.
On the two bottom spade connectors for the 120 VAC primary input, a resistor/capacitor snubber circuit is used to clamp any high-voltage spikes or kick-backs.
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Isolating the high-voltage secondary.
The grounded end was unsoldered and connected to a little stand-off terminal mounted on the transformer's protective cardboard.
Not all transformers will be the same, but they will all have one side of the high-voltage winding tied to ground, either with a screw or a solder tab.
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The case of the transformer was further isolated from the chassis ground using a rubber gasket sheet and nylon washers on the mounting bolts.
This is to help reduce any 60 Hz hum, if you'd ever wish to modulate the magnetron's output in the future, so it's not really a requirement.
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Overview of the 6MJ6's filament transformer (silver-colored - mounted on the electrical box) and also the grid voltage transformer (gold-colored).
The series 0.8 µF capacitor in the voltage-doubling circuit is isolated from ground by Zip-tying it to a plastic rod.
You can also see the high-voltage load sharing resistors (100 kohm / 5W) aross each of the electrolytic capacitors.  These will also help to dissipate any stray voltage when the power is off.
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High-voltage output from the capacitor bank.
Little spring clips were made to connect the 100 ohm resistors to the top cap (plate) on the two 6MJ6s.
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6MJ6s in place.
Optional spring retainers hold the tubes in place.
The tube on the lower-right is the "A" tube, the other is the "B" tube.
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Underside view of the mounting plate showing the tube socket wiring and grid voltage circuit.
The top socket is for the "A" tube, the other is for the "B" tube.
The 6MJ6's have their filaments wired in series so they can be driven directly with the 12.6 VAC secondary from a Radio Shack #273-1511 transformer.
Note the nylon insulation washers on the microwave oven transformer's mounting bolts (lower-left).
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Magnetron current meter, magnetron cathode current control (Ik), and the transmit-enable (XMIT) switch.
The meter is from an old Lab-Volt trainer used in schools.  Its full-scale reading is 500 mA DC.
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HVPR16-06 high-voltage diodes in the voltage doubler circuit.
Leaving the shunts in the microwave oven transformer also helps to suppress the large surge current when first powered on.  This is necessary to protect the diodes from any over-current transients.
Use two diodes in series, as shown, just to be safe.
HVPR16-06 Diode Specifications VR 6,000 Volts IF 550 mA VF10.00 Volts ads-20.jpg
The final high-voltage output connectors will be mounted in a fiberglass electrical box.  The magnetron connections will be via banana jacks.
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Connect the banana jacks like so.  Note that the direct filament winding on the microwave oven transformer usually goes to the magnetron's "FA" terminal.  Every schematic or datasheet shows them connected differently, so I don't know on that one...
Also note the isolated ground lug.  This ties back to the single point ground in the main incoming voltage electrical box.
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Completed high-voltage magnetron connection plate.
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Toshiba 2M172J magnetron mounted to the horn assembly built in GBPPR 'ZineIssue #55.
The horn has a mounting bracket in the rear to allow for mounting at the focal point of a parabolic dish.
A large 120 VAC fan provides continuous air flow over the magnetron's cooling fins.
Raytheon markets their Active Denial System for "riot control."
This one is designed for "Bolshevik control."
"'Nobody wants to be on the wrong side of Ari Emanuel, especially now that his brother is running the White House,' said one television executive, who asked for anonymity to preserve harmony with him."
--- June 9, 2009 quote about Ariel Emanuel, Jewish supremacist Rahm Emanuel's brother, in the New York Times (of all places).
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Current sink circuit board.
Differs slightly from the original 73 article due to not having all the same parts.  Should work fine though, except for amateur television transmissions.
A LF351 op-amp replaces the circuit's original LF357.  The LF351's voltage is regulated via (optional) 7812 and 7912 regulators.  An IRF510 N-channel MOSFET replaces the VN66AF.
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Mounting the control circuit board.
The two phono jack inputs are for external current control and modulation input.  These will be for upcoming projects.
The Input Select switch is on the lower-left.  The Modulation Input #1 is the phono jack below that, then the Modulation Input #2 (direct) phono jack.
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Final wiring showing the current meter, transmit switch, and 1 kohm current control potentiometer.
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Outside test setup.
Wasn't sure if it would work or not, but remarkably, everything did check out.
An Atari Lynx is used as a RF output indicator.
The high-voltage lines to the magnetron are run through vinyl tubing for extra insulation.
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Then it blew up...
Microwave oven transformers are not really designed for continuous current operations, or for use in "real" high-voltage power supplies.
As you can see here, the high-voltage secondary winding arced over.  Try to find a microwave oven transformer that is physically large or has been coated with some type of resin or sealant.
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Back up and running with a new microwave oven transformer.
This transformer has been coated with some sort of "goo" to help prevent high-voltage arcing.
All microwave oven transformers are basically the same, so swapping them out should be no problem.  They all seem to have slightly different mounting or wiring configurations, though.
A good secondary high-voltage winding on a microwave oven transformer will usually have a DC resistance between 50 and 120 ohms or so.  The filament winding will have very low DC resistance, often below 1 ohm.  You can use this to check the windings before hand.
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Is it bad when you can get a frequency counter reading, with no antenna, and standing behind the horn?
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Test setup of the Litton 2M167 magnetron used in the 2.45 GHz Magnetron to Coax Assembly article in GBPPR 'ZineIssue #46.
This magnetron is being run into a 50 ohm load for testing with a spectrum analyzer.
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Spectrum analyzer view of the magnetron's RF output transverted (2.278 GHz LO) to fit the range of an IFR service monitor.  The spectrum display is 1 MHz per division.
On the left, is the output of a Litton 2M167 magnetron.  The meter is reading a center frequency of "135.0 MHz," but this converts to an actual output frequency of 2.413 GHz.  Note the output is about 1 MHz lower than the center reading.  This magnetron was run into a 50 ohm load via a homebrew waveguide-to-coaxial adapter.
On the right, is the output of a Toshiba 2M172 magnetron.  The meter is reading "177.0 MHz," and the signal is about 1.5 MHz higher than the center frequency.  The final output frequency is around 2.4565 GHz.  This magnetron was run into an open horn, so there was alot of background RF noise, which raises the noise floor on the analyzer.
Bugs & Operating Notes
  1. It gets hot!  Very hot!  Both the 6MJ6 tubes and the magnetron.  Forced air cooling is a must!

  1. The filaments in the 6MJ6 tubes and the magnetron need to be warmed up prior to applying the plate voltage (i.e., flipping the "XMIT" switch).  Give it a good 30 seconds or so.

  1. The (stock) current control circuit appears to top out around 200 mA into the magnetron.  Some magnetrons will require higher current for a cleaner RF output spectrum.  Experiment with different magnetrons, if you can.

  1. Turn the magnetron's cathode current control (Ikdown before you activate the XMIT switch.  The magnetron seems to perform better with a slowly increasing cathode current.

  1. Mount the magnetron/horn assembly at the focal point of a 24 dB WiFi parabolic dish for an ERP output of around 100 kW or more!

  1. The magnetron's RF output signal tends to "jump" around a bit in frequency, especially if the current is too low.

  1. 2M167 Magnetron RF Output Power Test  A Bird 43 wattmeter with a "25 W / 400-1000 MHz" slug is reading around 5 watts (+37 dBm) and the magnetron is connected via a 20 dB directional coupler.  RF output power is then (potentially) around 500 watts (+57 dBm).  Not sure how much error is from the out-of-band Bird slug, though.
Microwave Oven Magnetron Current Recommendations Oven Manufacturer Operating Current (mA) Litton 160 - 300 Sharp 200 - 450 Tappan 250 - 325 Whirlpool 240 - 300 Sanyo 200 - 270 Amana RC-10 400 - 500 (1,000 Watts) Litton 70-40 600 - 650 (1,000 Watts) Litton 80-50 600 - - (1,300 Watts) Litton 550 500 - 600 (1,300 Watts) Sharp R-22 350 - 450 (1,000 Watts) Compiled from various repair notes.
Schematics

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Notes & Datasheets
  1. Higher resolution pictures and the original project article are available in GBPPR 'Zine Issue #62

  1. 6LQ6 Beam Pentode  The 6JE6 and the 6MJ6 are similar to the 6LQ6.  (282k PDF)  (Alternate)  (Pinout)  (Example Horizontal Sweep Schematic)

  1. LF351 JFET Op-Amp  (252k PDF)

  1. IRF510 N-Channel Power MOSFET  (1.0M PDF)

  1. Matsushita 2M167B 2.45 GHz CW Magnetron  (744k PDF)
 https://justpaste.it/19ha

Build a Real Ray Gun at Home (Homemade Ray Gun or Burning Pulse Laser Pistol)

Step 2: Make a Capacitor Bank

Picture of Make a Capacitor Bank
Capbank2.jpg
Use a soldering iron to remove the capacitors from the camera circuits. Gather an even number of capacitors with the same ratings. Most capacitors will have a label telling you their designed voltage and capacitance. In the bank you are making, you need all of the same type of capacitor. Keep in mind that the more capacitors you add, the less life your flash lamp will theoretically have (though I have used over 20 100uF capacitors and mine continually works, but to be safe you should use much less). The amount recommended is between 4 and 10 120uF capacitors.

Use the soldering iron to wire half of the capacitors in parallel. Do the same with the other half in a different row. Tape the two rows together and connect the two rows in series.

MAKE SURE that when you are connecting in parallel, + terminals are connected to other + terminals and - terminals are connected to other - terminals! Failure to regard polarity with these flash capacitors will lead to all sorts of nasty things! A stripe on the side of the capacitors indicates NEGATIVE polarity.

Save one disposable camera circuit with the capacitor still in it. We will need it later. 
 
 

Step 3: Power Section

Picture of Power Section
On the circuit that you saved with the capacitor still in it, there should be a charge button on the disposable camera circuit. Make sure that it is set to charge ON. If yours forces you to hold the button to charge, solder the button connection so that it is always ON. On another circuit with the capacitor removed, do the same.

Get a 2x AA battery holder (usually $2 online) and solder the positive end from the holder to both the positive battery terminal on the circuit with the capacitor and the one without it. The terminal is where you first removed the battery from the disposable camera circuit. Make sure that you are observing the correct polarity!

Do the same with the negative end.

Refer back to step 2 for a simple labeled picture of the flash circuit. 
 
 

Step 4: Wiring the Charging Circuits

For the raygun to work, all of the capacitors must be charged. The indicator light with the capacitor on the board that it was left in should blink almost immediately when turned on. Solder in switches to switch between charging either of the two rows of capacitors in the capacitor bank with the other board. Refer back to step 2 for a picture. The two different places the switch should switch to are labeled "Switch 1" and "Switch 2."

Remember, polarity is very important. So make sure the positive from the charging circuit is connected to the positive on the capacitors and vice versa.

NOTE: You will need to wire switches so that before switching between charging ROW 1 and ROW 2 the row that you were charging is DISCONNECTED otherwise there will be a big spark. Use HEAVY DUTY switches also. Touching the capacitor terminals at any time is DANGEROUS! Use adequate insulation. Similar insulation to what is found in disposable cameras should work fine (thick plastic).

Step 5: Ionizer and the SSY-1

Picture of Ionizer and the SSY-1
You will need a laser head. I used an SSY-1 laser head off of ebay (approximately $100), but if you are lucky you can salvage it from a laser rangefinder.

Although the capacitors will be connected directly to the SSY-1 laser head at all times, the energy from them cannot flow through. First, the gas in the flashlamp must be IONIZED.

Refer back to step 1. Find where the Ionization coil is labeled. Desolder the metal on top of the ionization coil on the board that you left the capacitor in. Solder a hanging wire to it. We will use it later.

The SSY-1 has 3 wires:
1.) RED (goes to the POSITIVE on the capacitors, see picture on step 2)
2.) BLACK (goes to the NEGATIVE on the capacitors, see picture on step 2)
3.) WHITE (solder to the hanging wire from the ionization coil that we discussed)

Get a trigger button and solder the two ends of it to the flash trigger on the board in which you had left in the capacitor. Remove metal trigger bits from the other board. 
 
 

Step 6: Optional Addons

Picture of Optional Addons
Adding in a sound bit is optional, and you can get a recordable sound module from your local Radio Shack or electronics retailer. Glue everything together how you like it, but make sure NEVER TO LEAVE THE CAPACITOR TERMINALS WHERE YOUR HANDS WILL BE. An infrared lens may be useful in focusing the laser beam and can be used to burn holes in metal or causing air to break down into a plasma at the focus point (it will appear like a ball of light the size of a BB).

 

Friday, July 8, 2016

Muslum Brotherhood , I'm sure you don't mind I turn it public, and for all the rest of the CIA, specially the midlea east agents;
Aqui está o meu diálogo com a Jihad:

06-07-2016 13:18
Al Hayat TV - قناة الحياة

okay so what is the required action from our side ???
Elsa David
look guys...I played bad this game. let me putted straight: I want immortality, I need bloody a lot of money, if I had started by speacking alone and undercover with Putin, I would be "in" on another formula. I am a naive person, starting on sex and money; its too late...I'm very good bridge for escaping on anything, I'm covered by Law; what I think you should ask, objectively , is how can it start the III WW? by hitting Kosovo NATO troops with a dirty cake? anyway...like I said, I played this game the stupid way. tkx
06-07-2016 13:43
Elsa David

if ...you maight think i'm on some aspect israeli, forget it, if they wanted they would travel with the "capsule"; when I say Kosos, I'm speaking about Albanians anarchist doing it, because they are manipulated by americans, and that would cause most seriouse problems specialy with the greeks; and a local war inside europe, could turn out to be the IIIWW; don't think in Yoguslavia..there was no dirty cake there...the israeli are very quite these days, and so are the palestinian...didi u knew that it was me, who come up with the ideia of a sea port exit for Hamas?
06-07-2016 13:45
Elsa David

the bottom point...these jerks or whatever dandies these piece of chit portuguese iletrates are...they will not pay me. dot.com and for ending ...sex and money makes the world go around, not God, and least Justice
06-07-2016 13:57
Elsa David

on the other hand Iwon'tstop.dot.com...and believe me I'm a pro. these might go wronk for their side, most probably will, but it takes time and patience. their problem
06-07-2016 14:10
Elsa David

I'm a prettier suicider myself..if some doctor says I have a cancer, you better belive me I take some dozens with me...I don't give a chit for my mother, i wish she was dead...they say you brainwash kids, they do the same...
they go to elementary school talking about the french revolution when the Paris attacks...well, they have to keep their jobs...and friends tit
if i had the money for scientific investigation, i would not change home or car...i want Power not their lack of education and pretensions livings
Quarta-feira
Al Hayat TV - قناة الحياة
06-07-2016 18:58
قناة الحياة

as conclusion what we can do ???
Quarta-feira
06-07-2016 22:58
Elsa David

Dear friends, let me updated you; I meet Bush in 2004, as well Blair, Rumsfeld, Cheney, Petraus and in 2007 Putin himself; I slept with them, I would dance and talk about world politics; I tried to delay sadam's dead, for 3 weeks I delayed at the most highest level, I "order" to kill the comunist italian journalist; on the last 9 month's of Bush Adm. I went very sivk, I was out of his bed; When Obama came, I am surely not form his politica party, and the political chess changes and I changed with it; in 2014, I warned for two local wars, the north korea dn the syrian one at the same time, and they left Jordain, opted for ISIS; I did not got that israeli american plan on first hand, it wans't at my desk; so I went doing my own; the israelis stayed quite watching saying nothing...what I purposed to assad was, give me south lebanon, where you control hizbollah, and i give you the north lebanon, I give a sea port to the palestinians (they are just corrupt as all over the world) and Jerusalem stays like this, or I even give it to you, but I'll stay on the underground of all Jerusalem: it was 3 weeks before ISIS american know how started doing their strategy; the israelis by now, regret it; they though let me have both cakes, but they lost the complete plan...terrible most advantage; I have no sort of influence no more at the whitehouse; Besides, I do not want to have none; the american armament lords are not quite aware of this story, and I wasn't present to them as a lover...so...if Bush was still around and not at the golf in Texas, I would certainly convince him, to kill. kill around here; for ending, I promissed Assad to join me at a 5 minutes travel to space on an american spaceshetle, comercial flight :) I will fullfill this promisse, because I will reach Power.
06-07-2016 23:01
Elsa David

what can you do? cooperate. let me know what is your position on this negociation room.
do not forget this, muslum friends, the world is controlled by high technology in so many fronts, you need at least 1/4 of their tecnhical army to defeat them.
are you sure you win this with ethyritol bombs?
or do you want to be part of the game...on a desk?
anyway, Bush is not around, i need some killings here
Bush has their farks taped, he would do another action
so, forget the airport...what I need is the yellow cake
God be with you see u tomorrow
https://www.facebook.com/alhayattvchannel/?fref=ts

DiffieHellman Key Exchange to AES or DESede in Java


Code uses DiffieHellman with DES encryption. DES is not safe, I would like to use DESede or AES.
SecretKeyFactory skf = SecretKeyFactory.getInstance("DESede");
or
SecretKeyFactory skf = SecretKeyFactory.getInstance("AES");
Both fails
SecretKeyFactory skf = SecretKeyFactory.getInstance("DES");
 
 OK, because you took the time to create an MCVE:
 
http://stackoverflow.com/questions/26828649/diffiehellman-key-exchange-to-aes-or-desede-in-java 
 
 
 

How can I decrypt TLS messages when an ephemeral Diffie-Hellman ciphersuite is used? I am able to expose the premaster secret and master secret from the SSL Client. Using that, how to decrypt the messages in Wireshark?

http://security.stackexchange.com/questions/35639/decrypting-tls-in-wireshark-when-using-dhe-rsa-ciphersuites 


LARGE PRE-MASTER SECRET GENERATED FROM 2048 BIT DH KEY NOT DIGES TED IN TLSV1 AND TLSV1.1

 
This problem happens because the large pre-master secret
generated from 2048 bit DH key was not properly hashed to derive
the master secret.
 
http://www-01.ibm.com/support/docview.wss?uid=swg1IV74069 



How are TLSv1.0 ciphers negotiated as TLSv1.2?

  Ok what about 1.2 suites such as TLS_RSA WITH_AES_256_CBC_SHA256 or TLS_ECDHE_RSA_WITH_AES_256_CBC_SHA384? Can a client/server negotiate these if they only support TLSv1.0?
 Technically a client and server can negotiate whatever they're configured to negotiate and support. The cipher suite format hasn't changed between TLSv1 and TLSv1.2. Just the meaning of the elements. If the client and server both support TLS_RSA WITH_AES_256_CBC_SHA256 then it will be used. If TLSv1.0 is used it will still work. If TLSv1.2 is used it will still work. The only different is in how the negotiated hashing algorithm is used.




Enable TLS 1.1 and 1.2 for Clients on Java 7


I'm interested in enabling the protocols on a system wide setting (perhaps through a config file), and not a per-Java-application solution.
How do I administratively enable TLS 1.1 and 1.2 system wide?

http://superuser.com/questions/747377/enable-tls-1-1-and-1-2-for-clients-on-java-7 ..


How To - Exploding Envelope Prank

Eye of the Drones: Evading and Avoiding Thermal Imaging