Audio Viewer — Loudness. GOP Viewer — Frame Pictures. Buffer Viewer — Frame Pictures. Video-Quality Viewer — 6 Viewers. Video-Quality Viewer — 12 Viewers. Video-Quality Viewer — Blocking. Video-Quality Viewer — Blurring. Video-Quality Viewer — Ringing.

Video-Quality Viewer — Strong Edges. Video-Quality Viewer — Vectorscope. Video-Quality Viewer — Waveform RGB. Video-Quality Viewer — Histogram Luma. Video-Quality Viewer — Histogram Red. Video-Quality Viewer — Histogram Green. Video-Quality Viewer — Histogram Blue. UDP Multicast Output. DVB-H — Time Slice. DVB-H — Thumbs. DVB-H — MPE-FEC. DVB-H — Bootstrap. DVB-H — Services. DVB-H — Time Slices. August 30th DVBAnalyzer Version 1.

Component Descriptor 0x50 , Added DVB Bluebook additions Extended maximum Table Cycle time calculation to 10 minutes HLS Streaming input internal redesign March 17th DVBAnalyzer Version 1. HbbTV April 11th , DVBAnalyzer Version 1.

January 5th , DVBAnalyzer Version 1. New Input plug-in system PIDBar, service name in PMT node ISDB Input type selector ISDB component tag descriptors, table descriptors ISDB BIT Table ISDB Digital Copy Control Descriptor 0xC1 ISDB Audio Component Descriptor 0xC4 ISDB Data Content Descriptor 0xC7 ISDB Video Decode Control Descriptor 0xC8 ISDB TS Information Descriptor 0xCD ISDB Extended Broadcast Descriptor 0xCE ISDB Logo Transmission Descriptor 0xCF ISDB Event Group Descriptor 0xD6 ISDB SI Parameter Descriptor 0xD7 ISDB Content Availability Descriptor 0xDE ISDB Terrestrial Delivery Descriptor 0xFA ISDB Partial Reception Descriptor 0xFB ISDB Data Component Descriptor 0xFD ISDB System Managment Descriptor 0xFE Latest Mainconcept MPEG2 Decoder version 8.

See main-preferences dialog Statusbar, displaying Lock method Enabled the DVBMode toolbar. xml file Subtitle Viewer, Report view that displays details about the received subtitles Hex Viewer, now supporting AVC Hex Viewer, option to display extended information. This displays more in-depth results and takes more CPU time. Statusbar TDT display time locks itself to the MGB2 PCR time. This means when a transport stream file enters a loop state, the correct start time is calculated real-time.

Base software. PID structures. Service structures. ETR compliancy. PID Overview. Service Overview. Grid Overview. Bitrate Overview. Thumb Overview. Table Overview. Descriptor Overview. MIP Overview. AIT Overview. Media Viewer. PCR Viewer. EPG Viewer. Subtitle Viewer. Hex Viewer. Burst Viewer. DSMCC Viewer. IP Traffic Viewer. SCTE Viewer. Multicast Output.

It also provides various indications for weapon delivery; this section will cover the HUD's indications in NAV master mode.

Via the switches next to the TO button on the displays panel, you are able to "declutter" or remove information off of the HUD. Additionally, the F Tomcat has an Air Combat Maneuver ACM panel which controls all air-to-air and air-to-ground aspects for armament.

The F Tomcat has an inertial navigation system INS that allows the pilot to navigate by internal gyros aligned. However, due to the fault of having no GPS assistance, these gyros slowly drift over time and cause misalignment for visual information. The Horizontal Situation Display Indicator HSD is the primary interface with the airplane's navigation systems. The HSI can be accessed from the bottom display screen. The basic function of the HSI is a rotating compass with a looking-from-above perspective.

The controls for this screen are:. The HSD comes with a set of 5 different steering commands, which each have their own purpose towards displaying certain information:. The FB comes with an onboard flight computer system that handles waypoint navigation during in-air flight. The navigation system in the FB Tomcat gives a variety of waypoint holders, along with information for a set home plate. For the FB pilot, the waypoint information is able to be accessed by the DEST steering command and by using the NAV HSD display mode.

For the FB Radar Intercept Officer, RIO the waypoints must be manually assigned by the RIO through the Computer Address Panel CAP system under the TAC DATA category.

Once done, the waypoint must be selected through the CAP and entered in with coordinates similar to how INS alignment procedures are done. Tactical Air Navigation TACAN is a military radio navigation system.

A TACAN beacon allows for an aircraft to determine its bearing and range from it, and using this information can navigate. TACAN's may be ground-based or be broadcasted by an airplane.

TACAN channels have two bands, X and Y, and range from For night and low visibility operations, aircraft carriers have an Instrument Carrier Landing System ICLS to allow for instrument approaches to the carrier.

ICLS provides horizontal and vertical guidance. The F is equipped with ICLS. When ILS is selected on the HSI, two bars, one horizontal and one vertical, appear near the velocity vector on the HUD. These indicate a vertical and horizontal deviation from the optimal glideslope 3° and course to the deck. For CAT III conditions and poor visibility, the F is equipped with the Automatic Carrier Landing System ACLS to allow an automatic flight to the carrier via.

a radio-guided input from a Landing Signal Officer. LSO The auto-throttle and autopilot systems must be engaged and present during the time of activation with this system, along with lights given to the left of the VDI display. Datalink is required between the aircraft and the carrier in order for ACLS to work. When the best position of the azimuth and glideslope bars are within parameters, the nosewheel steering button is pressed in order to engage guidance.

An error of latitude or longitude in the computer position of the aircraft can be corrected by a navigation fix update. A nav fix is done via a ground-reference-point latitude and longitude position. The range and bearing of this position to the present aircraft position are used to update or correct existing values.

The nav system may be updated by either a radar fix, a TACAN fix, or a visual fix. Before performing a nav fix, the latitude and longitude of the desired update point radar, TACAN, or visual must be stored in one of eight navigation point locations three WPs, FIX PT, HOME BASE, HOST AREA, DEF PT, and IP. This data can be stored prior to flight by data link or by manual insertion. Then follow these steps:.

Note that updating the position while in INS, and to a lesser degree while in IMU, can introduce a greater navigational position error than already present, in particular, if radar fix is used to update the nav system. Updates with a visual or TACAN fix provide reasonable accuracy assuming a good MAG VAR during TACAN updates.

Updating your nav system via a nav fix should be primarily used in the AHRS mode. An RDR FIX may be selected before or after positioning the DDD cursors. If the RDR FIX button is depressed, the computer computes the present position of the aircraft by measuring the range and bearing from the selected point. The delta between the computer position and the position determined by the INS is then displayed on the TID. If the entry of this delta into the navigation computations is desired, press the FIX ENABLE button.

If the delta does not appear to be correct, the computer and the readout can be cleared by pressing the RDR FIX button. The fix may then be attempted again. The RIO should also perform periodic checks of own aircraft system altitude and update the altitude if necessary. To perform a nav fix by TACAN requires that a restored waypoint shares identical LAT and LONG values with the TACAN station that will be used for the fix. Select the TACAN channel for the desired station and verify by listening to the coded identifier tone in the headset.

Press the TACAN FIX button to update the aircraft position from a TACAN station. The WCS computer then calculates the own aircraft position error based on the range and bearing from the TACAN station. The delta is then entered in the same manner as with a radar fix. To perform a visual fix, fly over a restored waypoint and press the VIS FIX button.

Estimate your timing, because the aircraft nose and fuselage can obscure the fixed point during an overflight. It is also difficult to estimate when directly overhead a waypoint if the aircraft altitude is greater than The delta for the visual fix is displayed on the TID. Enter the delta by pressing FIX ENABLE. To perform a data link update of the aircraft INS to the TDS frame of reference, the aircraft and TDS must share a prebriefed waypoint, identical in latitude and longitude.

The TDS will uplink the common reference point as a data link waypoint. When the aircraft and TDS INS systems agree, the data link waypoint and host area symbols will be superimposed on the TID.

If they drift apart, the two pseudo targets on the TID will drift as well. It controls its own set of launchers located between the engine nozzles on the underside of the so-called beaver-tail. The launchers each have two sections, one containing 10 cartridges and the other They are referred to the left and right dispensers even though the left is really the front one and the right the back one with both being mounted inline on the left side of the tailhook.

The system itself has no real knowledge of what is loaded where so incorrectly programming the system can lead to the wrong type of cartridge being ejected. The system itself can be operated manually from the control panel in the RIO pit or the DLC thumbwheel on the pilot stick when the flaps lever is in the up position. It is also capable of running programmed sequences of ejection which in turn can be initiated manually by the RIO from the control panel or the direction hats mounted on the handhold over the DDD.

Available techniques for jamming are amongst others, main lobe blanking, inverse con-scan, range-gate pull-off and swept square modes. In addition, there are two indication lights co-located with the RWR threat indicators on the right side of the TID. The mode selector knob controls power and operational mode that the system is in.

The modes for the DECM are as follows:. On the TID, in non-TV mode, a TCS track is indicated by a 1. Additionally, the track window is indicated by 4 small squares representing each corner of that window.

The gimbal angle crosshairs or GACH, which is a solid cross, indicate deflection of the TCS LOS from the aircraft datum line, ADL. GACH crosshair in the center indicates TCS LOS along ADL and deflection towards the edges indicate deflection towards the gimbal limits with the video edges being maximum deflection.

RACH or radar angle crosshairs, a dashed crosshair, indicate radar antenna LOS when inside the current TCS FOV. When the sensors slave to one another RACH and GACH will coincide creating a single solid crosshair. The track window indicates the area that the TCS contrast tracker is currently locked on to if it has acquired a target.

Among the 3 digital displays, the Detail Data Display gives the RIO information about contacts from the AWG-9 radar in terms of range and radar mode, with respect to the notch filter. The AWG-9 radar in the FB Tomcat has a notch filter when using the pulse-doppler radar modes under certain conditions. These conditions include, but are not limited to:. There is a rough line shown in the radar modes, likewise of the jamming lobe, for when considering the notch filter that the contact will disappear from.

The Tactical Information Display TID gives the RIO of the FB the main information on the AWG-9 radar, including situational awareness, range, altitude, and contact heading. The TID comes with a total of 8 display modes available, that can be toggled either on or off for purposes of gathering more information or decluttering:.

It is a very long-range radar used for the main purpose of intercept. The AWG-9 in the FB comes with 2 types of radar modes: doppler and pulse-doppler search.

Of those two, subsets are able to be observed as 5 in this list:. The pulse-doppler search mode is used mainly as a kind of early warning mode.

It is the search mode with the greatest detection range but it can display no range to the RIO, only closure rate. For this reason, the TID can display no track information. The pulse-doppler STT works and looks much like the pulse STT mode.

It does, however, have the same advantages and disadvantages compared to pulse STT as the other pulse-doppler modes compared to the pulse modes. This means that while much better at tracking a target close to the ground it is however vulnerable to notching.

The DDD display for pulse-doppler STT looks like pulse STT display except that the target return and antenna azimuth display are moved to the left side of the screen and a generated synthetic target marker is displayed at the correct azimuth instead.

This is so that the targets range can be displayed by the synthetic target, unlike the other pulse-doppler modes which only shows closure rate. The other symbology on the DDD in this mode are the same as in pulse STT. In range while search, a frequency measuring ranging mode is added FM ranging to allow the radar to measure the range of tracked targets in addition to closure rate. This additional processing does, however, mean that the effective range of the radar is somewhat lesser.

The targets are shown for a maximum of two seconds or until the antenna again scans the same bar at the same azimuth at which time it is removed unless detected again. The maximum number of concurrently shown tracks are The track, while scan mode uses the same FM ranging as RWS with the same reduction in range compared to pulse-doppler search and the DDD display, is also the same.

The main difference that the computer establishes track files and tracks up to 24 targets concurrently of which 18 can be shown on the TID at any given time. As the computer routine calculating these tracks need a set track refresh time of 2 seconds this limits available azimuth scan area and bar settings to either 20° 4 bars or 40° 2 bars.

When entering TWS the computer automatically selects the ±20° 4 bar scan disregarding the RIO set scan volumes unless those are set to ±40° 2 bars in which case that is used instead. The TWS mode is also the only mode enabling guidance of the AIM at multiple targets up to six , and as soon as engageable targets are detected the computer starts assigning them a missile priority number according to optimal missile firing sequence.

Performing similarly to TWS Man mode, what differs between the two is that in TWS auto the computer takes control of used scan volume and scan pattern azimuth and elevation as soon as target tracks are present. The WCS computer automatically tries to optimize the scan volume and direction so that tracking of the prioritized targets is maximized. If not selected before launch the WCS overrides as soon as the first AIM is launched and selects TWS Auto.

Pulse search is used to search for and find airborne targets at range. It is possible to use this radar mode as a basic ground mapper as well which can be useful for navigation and navigational fixes and can also be used in a pinch to detect larger surface targets like ships.

Keep in mind though that the radar is not built with this as its main function and that a real air-to-ground radar will outperform it handily. In this mode, the radar cannot by itself differentiate targets and generate tracks meaning that the WCS will not generate track files and display anything on the TID.

This also means that pulse search is not capable of guiding missiles. Pulse STT is used to track a single target, like pulse search mode it is not susceptible to notching but it is to ground clutter. The fact that the STT modes use gates to track the target, in this case, range gates, means that it is less susceptible to ground clutter but a target close enough to the ground that the ground return enters the range gates would be likely to shake the lock.

As it is only in the pulse-doppler modes that the missile guidance commands can be sent pulse STT is limited to launching AIM-7s in CW mode and AIMs in an active launch mode limiting their ranges.

At short ranges, ACM ranges, it is possible to use the ASPECT switch to set what aspect of the target to track, this is just to counter different types of countermeasures.

As an example, if set to NOSE the radar will be less susceptible to chaff as the radar weights its track towards the targets leading-edge nose away from the chaff being launched behind the target. A successful track is indicated by the ANT TRK and RDROT indicator lights on the DDD, meaning that the antenna is tracking the target and that the target is within the range gates.

If the target is jamming with sufficient strength, negating a range track, the radar will transition to a jam angle track instead, indicated by the JAT indicator light on the DDD illuminating instead of the RDROT. When range tracking is again possible at closer ranges the radar will transition to that instead. The DDD in this mode will be similar to the pulse search mode but the antenna will be locked onto the target and not scan.

Additionally, the DDD will show the range gates around the target, a closing rate symbol at the right scale and applicable attack symbology if a valid missile is selected. An IFF system works by sending out an interrogation pulse and then listening for returns from cooperating transponders. This ensures that targets replying to mode 4 interrogations are indeed friendly.

To enable interrogation the IFF switch is depressed on the Detail Data Display Panel which then activates the interrogator for as long as the button is held up to 10 seconds max. A friendly target will be indicated with two bars, one above and one below the normal radar return.

In this case the IFF return will not have a radar echo inside it. In the search mode this is overlaid over each target replying and in STT over the STT target. Additionally, if the STT target is hooked on the TID the DDD will switch from normal range display to a ±10 NM display to enable display of multiple returns in case of closely grouped targets.

Similarly to the F, the F uses a series of shapes with assorted lines to display the identity and direction of travel of a track. Unlike the F however, the Tomcat does not have the ability to display colours apart from green and white on the TID.

Therefore, symbology takes a high priority and you must learn how to read it as a pilot and how to set it as a RIO. The F Tomcat is outfitted with the M61A1 Vulcan 6-barreled Gatling cannon, being able to hold up a maximum of rounds internally. By default, the gun rounds indicator will be displayed as 0 for rounds per Located next to the display panel to the right is the gun ammo counter. Additionally, the gunsight elevation is also able to be adjusted underneath the steer commands on the display panel.

Missile preparation in the FB Tomcat is started by moving the master arm switch on the ACM panel underneath the HUD to ON. This is then followed by pressing the MSL PREP and SW COOL buttons to be ON, depending on the armament type.

Radar guided missiles give the ready indication with white flags appearing the the station indicator windows on the ACM panel, or when the "HOT TRIG" light illuminates with either a Sparrow or Phoenix selected. The AIM-9s indiacted their ready to use state, by an audible tone that, when a monotonous tone can be heard through the pilots headphones. The AIM is a long-range, semi-active and active radar missile for Air-to-Air use.

The F was the only aircraft to carry it in service. The missile itself is designed to be used against large bomber formations attacking US aircraft carriers, but is also very capable against smaller enemy aircraft, such as fighters.

The AIM comes with a proximity fuse and missile gate suite for non-direct contact explosions and radar tracking methods.

The time until impact will be calculated during the whole flight of the missile and will be displayed on the right side of the contact in the measure of seconds. The maximum displayed amount is seconds TTI Time To Impact. Like most missiles, the AIM was continously developed throughout its service life and received many modifications and upgrades. In DCS, the AIM "family" is represented by 3 variants. Here, listed in chronological order. Similar to the GUNS format, displayed on the HUD will be the weapon type denoted in 2 letters, and the number of missiles.

Additionally, any more advanced symbology will occur by lock, which is required at first to fire the missile without "mad-dogging. The pilot will also receive additional symbology on the VDI whenever a radar lock occurs with the AIM selected. The AIM-7 Sparrow is an active-radar guided missile for Air-to-Air employment. This missile requires an active radar lock to a contact in order to guide itself for impact. The benefit of this missile is that it is able to lose trackoing guidance if the aircraft breaks the lock on a friendly contact, as well as being able to be used in a mixed scenario.

DCS Store. NOTE: This guide is currently being reworked. A lot of infromation might still be inaccurate. Please direct feedback and ideas to Del3te-O or wiki-discussions on Discord.

Some information may be missing. The reason that the F was so incredibly large and heavy was that it carried the large AWG-9 radar and accompanying AIM Phoenix air-to-air missiles: this very capable combination allowed the F to make shots of up to nautical miles at the bad guys. Also, being big means you can carry a lot of fuel! Of course, the practical range of the AWG-9 is rather more limited, especially if you are shooting at more maneuverable fighter-sized targets, but even at these closer ranges, the AIM Phoenix is still a capable missile that should not be underestimated.

The F is also capable of carrying an array of air-to-ground weapons, such as dumb bombs in both high and low drag forms, air-to-ground Zuni rockets and even laser-guided bombs, which can be self-designated using the LANTIRN targeting pod on the F Most people will recognize and adore the F because of its stardom presence in that one weird volleyball movie from the '80s. Its on-screen presence in movies will make the F to appear docile and easy to fly, but due to lack of a fly-by-wire the F can be a real handful: it being a pilot's aircraft however makes it fun to fly and learn.

The throttle of the F Tomcat consists of 2 quadrants, both for the left and right engines. There is an afterburner detent along with a cutoff detent for maximum throttle and shutdown of the engine for each quadrant. The control stick is located in the center of the cockpit, mounted onto the floor.

Left and right movements of the control stick direct hydraulic movement to the spoilers and horizontal stabilizers of the aircraft.

Forward and backward movement result to respectively the same but to the horizontal stabilizers. The FB has a large hydraulic system which covers for all of the control surfaces of the aircraft. Without the hydraulic system, or taking damage the controls are in risk of improperly working. The F Tomcat was the last of its generation to have no integration of an FBW or FCS system, which was introduced with the F Eagle. The control stick controls the stabilators, ailerons, and rudder and the rudder pedals control the rudder.

The aircraft's flap system provides more lift and as a byproduct, drag. The flaps lever has two positions:. The flaps lever allows for variable movement, which gives the pilot the ability to control the amount of flap they wish for.

The speed brake is 2 flaps located on the end of the aircraft designed to provide drag to decelerate faster. It is activated via the speed brake switch on the throttle.

The two positions are:. The tailerons are capable of being trimmed to make roll and pitch corrections. This is accomplished with the trim hat on the controls stick. When the autopilot system is engaged, the onboard computer will attempt to make active trim movements in order to keep the aircraft within the specified attitude when set, along of the setting parameters. As speed is either gained or lost, the trim will actively move the stick as well along of the tailerons to adapt.

The F features a variable wings sweep design to allow for high speed flight. The wings can be swept from 20° to 68° with an additional oversweep setting available for parking on a carrier deck. During flight, the wing sweep is controlled by the CADC automatically or by the pilot within limits set by the CADC or with the fully manual emergency wing sweep.

The the wing sweeps current status is displayed on the wing sweep indicator on the right side of the ACM panel below the HUD. The current angle of the system is displayed by a white tape 7. The wingsweep commanded by the CADC is displayed by a white triangle on the angle tape 1. This is equivalent to the safe limit of forward movement and the pilot cannot exceed the sweep amount indicated by the triangle by regular means.

The pilot commanded sweep is indicated by a white box moving along the wingsweep tape 2. The current mode of the system is shown by flags on the right side of the instrument. The EMER 4 flag indicates that the emergency wing sweep has been selected by pulling the handle out and the CADC has no authority over the wing position anymore, as pulling the handle disconnets the electrical motor from the handle.

Should the pilot choose to move the wings aft of the automatically selected angle, the system will show the MAN 5 flag and the CADC will not alter the angle unless the safety limit is equivalent to the current angle.

This flag will also engage when BOMB mode is selected. The AUTO flag 6 shows when the CADC has full control over the wing sweep and is automatically moving the wings for optimal aerodynamic performance. The BOMB mode, unlike the manual mode, alters the CADCs limits, to result in better flight stability at the cost of reduced lift. The CADC triangle will move to around 60° once bomb mode is selected and consequently move the wing angle along with it.

Then the pilot has to push it back in and move it the last few degress aft. Afterwards its advised to hold the handle in this position for a few seconds before popping it out again, resulting in the final oversweep position.

To unstow the wings again you simply move the handle back forwards to the 68° position before putting it back in and connecting it to the eletical motor again. Then, the CADC needs to be reset by hitting the CADC MASTER RESET infront of the handle.

The F Tomcat has 3 retractable landing gears: the nose gear, the left gear, and the right gear. The gear is moved via the gear lever on the left side of the cockpit. In the up position, the gear will retract. Additionally, the landing gear has an emergency extension, that is activated by roatating the head of the landing gear handle.

This process is irreversible by the pilot, as the gear is extended by firing pressure cartridges that will lock the gear in place. This will also disable nose wheel steering permanently. The nose gear features nosewheel steering NWS controlled by the rudder pedals.

NWS can be engaged and disengaged by the NWS button on the stick. The status of the NWS system is indicated on the left side of the windshield frame with the "NWS engaged" light illuminating upon NWS engagement. The Fs nose wheel is prone to skidding, if the pilot oversteers while taxiing fast.

The nose wheel will also not be able to recenter if the aircraft is not moving, therefore, if hooking up to a catapult, the pilot should attempt to center the nose before stopping the plane.

On the front nosegear is a launch bar that attaches the airplane to a catapult for launches from an aircraft carrier. Its deployment is pilot-controlled, but it is connected to the catapult by the ground crew, via the "Catapult Hook Up" keybind on Stennis and the Forrestall or by the ground crew directly on the ships included in the "DCS World: Supercarrier".

The launch bar is operated by hydraulically extending and retracting the nose strut of the F The act of retracting the nose strut is referred to as "kneeling" as the aircrafts front will come down by around 3 degrees.

This is commanded with the "nose strut switch" in the kneel 2 position. As the aircraft comes down, the launch bar will automatically extend and once the process is completed, the switch will return to the "off" 3 position. Should the pilot wish to take the aircraft out of its kneeling state, he can move the nose strut switch to the "EXTD" 1 position.

A manual override for the launch bar is present in form of the "Launch Abort" switch, hidden below and to the left of the parking brake handle and under a red cover. The switch is spring loaded to the "NORM" postition and held there when the cover is down. The "ABORT" position retracts the launch bar, without extending the nose strut. However, this switch will NOT actually abort the launch on any carriers and also will not disconnect the aircraft from the catapult.

The F Tomcat has the ability to automate certain ascpects of flight via its Automatic Flight Control System AFCS and Automatic Throttle Control ATC.

The AFCS, or simply the autopilot, control the flight surfaces and the ATC controls the throttles. The AFCS can be controlled on a panel on the left console of the front seat. The front switch row controls the flight stability component of the AFCS with the "Yaw", "Roll" and "Pitch" channels. Engaging these for normal flight outside of combat situations is highly recommended as they make it significantly easier to remain coordinated and avoid overstressing the wings.

Although, unlike in Fly-By-Wire aircraft, they DO NOT provide care free handling. Therefore, its remains entirely within the realms of possibilty to perform rapid unscheduled disassembly during a high speed pullout, or to, plainly said, tear of the wings. For hands off flying, the F also has several fully automatic autopilot modes, which are engaged with their assorted switches on the panel below the flight stability system. Once this switch is flipped, the plane will work to hold the current flight level.

Its not recommended to fight the autopilot with pitch inputs, once this is engaged. Heading hold, as the name suggests hold the planes current heading once engaged. Ground track on the other hand, maintains the planes current direction of travel, while compensating for the plane drifting left or right due to wind.

If done correctly, the plane will attempt to zeroize the planes vertical velocity and keep it there, even if roll commands are applied.

Therefore, it can not only be used to cruise, but also can hold the plane in an orbit. Unlike some other autopilots however, the F will not attempt to fly at a set altitude once the system is engaged. It will therefore not fly at the exact altitude that it was engaged at, but usually withing a close margin around it. At high speed flight where the VVI is unreliable, the plane might also start shaking as the autopilot cannot keep up.

This might be a DCS issue and not be present in the real aircraft. In the meantime, you can find Redkites video on it here. Instead, its used exclusively for landing.

It is controlled via the throttle mode switch on the left of the throttle quadrant. To engage the autothrottle, the pilot needs to have the flaps fully deployed and the landing gear down, ideally, the DLC should also be engaged and the speedbrake deployed.

Then, move the throttle mode switch into the "AUTO" position and let go of the throttle. Once engaged, the authrottle will automatically adjust the engine RPM to bring the plane to "Onspeed AoA" as indicated on the left canopy frame, the HUD or the AOA tape. The pilot should now only fly the plane with stick pitch, roll and DLC inputs until touchdown. The system can be disengaged by moving the throttle manually and thus overriding it, putting the switch back into the "boost" position or by applying weight to the wheels.

The head-up display HUD is a projected display at the front of the cockpit that serves as the primary flight instrument. It also provides various indications for weapon delivery; this section will cover the HUD's indications in NAV master mode.

Although I have categorized PKC as a two-key system, that has been merely for convenience; the real criteria for a PKC scheme is that it allows two parties to exchange a secret even though the communication with the shared secret might be overheard. This information was not merely academic; one of the basic tenets of any security system is to have an idea of what you are protecting and from whom are you protecting it! Give your clients access to their own dashboard, on your own domain, fully branded, tailored to your specifications. In , Dan Boneh Stanford and Matt Franklin U. Figure 15 shows the format of the IPsec AH. A total of 60 fracture femur patients were divided into 2 groups -- Group A: FICB with injection bupivacaine 0.

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