3/4 cup (6 fl oz) warm (105-110 °F) water ( around 20 seconds in the microwave )
1/4 teaspoon sugar
1 teaspoon active dry yeast ( 1/2 package )
2 cups all-purpose flour divided to 1-3/4 cups and 1/4 cups
1/2 teaspoon salt
For 2 large thick-crust pizzas
1-1/2 cup (12 fl oz) warm (105-110 °F) water ( around 30 seconds in the microwave )
1/2 teaspoon sugar
2 teaspoons active dry yeast ( 1 package )
4 cups all-purpose flour divided to 4-1/2 cups and 1/2 cups
1 teaspoon salt
Instructions
In a small bowl whisk the water, sugar, and yeast together, Let it sit for about 10 minutes or until it froths up.
In the bowl of the mixer mix together the larger portion of the flour, (add some flour from the small portion if the dough is too sticky), salt, and yeast mixture with the dough hook for about 3-5 minutes or until the dough is soft and elastic. It is done when it comes clean down from the side.
To make thin crust pizza, use the dough without proofing.
For thick crust pizza, or to use it later the same day, shape the dough into a ball and put it into an oiled bowl. Also, rub the dough with oil and cover it with a foil wrap or a lid.
For thick crust pizza proof it for 30 minutes.
To use it on another day freeze the dough.
Baking
Preheat the oven to the highest temperature it can provide.
If we bake on 550 °F, the pizza is done in 8 – 10 minutes.
Move the downloaded file into the Kerbal Space Program game folder
Create a shortcut to the file and place it in the Desktop, Start Menu or the Taskbar
Double-click the executable to start it
Allow the program to create a handler for CKAN URLS
Right-click the CKAN icon in the Taskbar and select Pin the taskbar
Usage
Select the mod in the list
Click the Apply changes button
CKAN displays the list of dependencies to be also installed
In the lower right corner click the Apply button to start the installation
Import manually installed mods into CKAN
If the mod in the list has AD in front of the line, it was manually installed in the Gamedata folder of the game. If you “Upgrade” those mods in CKAN, CKAN can check the compatibility, install updates, uninstall the mod. To have CKAN manage the manually installed mods
Display the upgradeable mods
In the upper right click the arrow at the end of the search field
In the lower left select Upgradeable
Upgrade the mods
Select the existing mods and click the Apply changes button
The Docking Port Alignment Indicator is designed to help you dock manually, by presenting target alignment and relative position in a clean and intuitive manner.
Transfer Window Planner – Fork (This version of the original mod shows the required parking orbit plane for more efficient ejection burn.)
Lets you visualize planetary transfer efficiency in-game. Using it you can select your planet of Origin and planet of Destination and it will present you with details about the required Delta-V to travel from Origin to Destination.
Parallax(2.0) completely reimagines the surfaces of planets. It combines a tessellation and displacement shader as well as vastly improves the terrain detail
Parallax was developed alongside Scatterer, so it is recommended for the best results to use them both together.
Realism Overhaul is a mod that makes Kerbal Space Program behave more like real life. If you’re interested in seeing what it’s like to fly rockets in the real world, this is the mod for you! Realism Overhaul does this by combining and configuring other mods, and mod and stock parts to perform as their real-life equivalents. You can expect things to be a little harder, and rockets to be a bit bigger, but the scenes far more epic, and the accomplishment that much greater.
Some of the most signfiicant changes include:
Engines have real sizes and performance values, and use real fuels. Most of them have limited ignitions and suffer from ullage.
Pods are as large as their real-life counterparts and weigh what they should.
Propellant tanks have correct dry mass ratios.
Solar panels don’t produce massive amounts of energy, but they are lighter. Similarly reaction wheels aren’t magically powerful anymore (though they still don’t require momentum dumping).
What KSP-RO installs
Kerbal Space Program Realism Overhaul adds the following folders
GameData\EngineGroupController
GameData\RealismOverhaul
Ships (adds realistic ships to the selection)
Currently, it does not overwrite any files, so deleting the GameData\EngineGroupController and GameData\RealismOverhaul you can restore the game to the original state. The added ships do not change the gameplay.
Copy the contents into the Kerbal Space Program main directory, usually “C:\Program Files (x86)\Steam\steamapps\common\Kerbal Space Program” (where the KSP_x64.exe file is located).
We can save reusable modules as subassemblies in the Kerbal Space Program Vehicle Assembly Building (VAB) and the Spaceplane Hangar (SPH).
Misleading assembly list display
This is a very dangerous feature. Every subassembly is listed in the main folder, subfolders are just for display purposes to list fewer items. So DO NOT clean up subassemblies from the main folder thinking those are duplicates, as those will disappear from the subfolder too.
Setting a new root
Every subassembly can be attached by the root point. It is the first part placed in the editor during construction. If you want to attach the subassembly by another part when you use it use the re-root tool.
Load the subassembly
Click the Re-root tool in the upper left corner. The toolbar disappears when you click the “New” button and loading a subassembly does not display it again. If this toolbar is not displayed, exit the building and return.
When the prompt “Select a set of two or more parts to Re-root” and you are working on a vessel this step selects the entire craft or a portion of it. If you work with a subassembly, select the part to set as the new root.
Az idő formátum, dátum és idő beállítása egy egybefüggő folyamat, végezd el amikor elemet cserélsz a készülékben.
Idő formátum beállítása
Tartsd a START/STOP gombot 5 másodpercig benyomva
Az M1 és M2 gombokkal válaszd ki a 12 vagy 24 órás formátumot
Rögzítsd a START/STOP gombbal.
Dátum beállítása
Ha az előző lépésnél a 24 órás formátumot választottad, a készülék az év, hónap, nap sorrendben, ha a 12 órás formátumot választottad, a készülék az év, nap, hónap sorrendben fogja kérni a dátumot.
Az év villog a kijelzőn, állitsd be az M1 és M2 gombokkal, rögzítsd a START/STOP gombal.
A hónap villog a kijelzőn, állítsd be az M1 és M2 gombokkal, rögzítsd a START/STOP gombal.
A nap villog a kijelzőn, állitsd be az M1 és M2 gombokkal, rögzítsd a START/STOP gombal.
Idő beállítása
Az óra villog a kijelzőn, állitsd be a M1 és M2 gombokkal, rögzítsd a START/STOP gombal.
A perc villog a kijelzőn, állitsd be a M1 és M2 gombokkal, rögzítsd a START/STOP gombal.
Amikor a dátum és idő beállítása befejeződött, a készülék autómatikusan kikapcsol.
You can place your spacecraft on the launch pad, and before launching it you can visit another part of the space center. To launch your already prepared spacecraft
A slow, careful approach by repeatedly changing the orbit altitude to first catch up with, and later match the speed of the target. This is easier for beginners, as we gradually approach the target and its speed. It uses more fuel, in real life this method is not used.
Using a transfer orbit to quickly catch up with the target and slow down just before the intercept. This is a more dynamic process and requires more skills and attention.
The launch, orbit injection, and matching the inclination of the target are the same for both methods, we will start with these.
Install the recommended mods
There are mods for Kerbal Space Program 2 which make space flight much easier. We will not use “cheats”, these mods display the necessary information for easier maneuver node configuration, manual burn execution, and docking. We recommend the following mods:
Maneuver Node Controller
Docking Alignment
To activate the mods
Click the App Panel and select the mod.
Key bindings
Key
Action
C
Close the cockpit view and return to the normal view
Set the target
Click the target object and select Set as target
Launch the docking vehicle
Launch the docking vehicle before the target will pass the launch pad overhead as the rising vessel needs time to gain altitude and catch up with the target.
Set the Nav Ball to Target mode
Launch the docking vehicle
At 10 km altitude turn towards the target in a 45 degrees angle between the zenith and the target
Right-click the Apoapsis node to keep the values displayed
When the “T-” of the Apoapsis is over 1-minute, switch the Nav Ball to Orbit mode
Aim for the orbital velocity vector (prograde marker)
Continue to burn until the Apoapsis reaches the altitude of the target orbit
In the Apoapsis, create a maneuver node to move the Peiapsis to the same altitude to circularize the orbit, and reduce the inclination of the Ascending and Descending nodes. Adjust the Normal and Antinormal vectors to move the Ascending and Descending nodes 90 degrees to the Apoapsis and Periapsis.
Adjust the Prograde and Retrograde vectors to compensate for the Periapsis and Apoapsis altitude change caused by the Normal and Antinormal vector change.
Select Maneuver in SAS and start the burn. As we get close to the end of the burn duration, the velocity vector will deviate from the maneuver icon, so reduce the throttle and track the blue maneuver icon on the Nav Ball.
Match the inclination of the target
Right-click the Ascending or Descending node to display the inclination relative to the Target.
Create a maneuver in the closest Ascending or Descending node
Open the Maneuver Node Controller and adjust the Normal vector to achieve close to “0” inclination in the Next Orbit column. Try moving the maneuver node itself a bit with the Time arrows to move the number closer to zero.
At the time of the maneuver start the burn and stop the engines when the inclination number reaches the minimum in the Previous Orbit column.
Catch up with the Target
There are multiple ways to catch up with the target.
Catch up slowly by gradually changing your orbit
Change your speed by altering the altitude of your orbit
When we want to rendezvous with another spacecraft in orbit, we need to match three values:
Location
Speed
Direction
Match the location
Once the two orbit’s inclinations are close enough, to meet another craft far away in orbit, first, we focus on our angular velocity to “catch up” or “wait” for the other. We want both crafts to be above the same region of the planet.
The angular velocity of the satellite depends on its altitude above the planet. The nearer to the surface, the faster the required orbital velocity.
Change the Nav Ball to Orbit mode
Change your speed to go faster to “catch up” or slow down to “wait” for the target to catch up with you.
If the target is ahead of you, lower your orbit to go faster
If the Target is behind you, raise your orbit to go slower.
If your target is in a 120 km orbit, depending on the altitude of your orbit, each full orbit changes the distance:
– in a 110 km orbit: 70 km – in a 130 km orbit: 80 km
Right-click the Target to display the altitude and distance information.
Bring the orbits closer
Warp ahead until the two spacecraft are at a 200 km distance.
Change the altitude difference to 5 km
Create a maneuver in the closest Periapsis or Apoapsis to change the altitude difference to 5 km
Set the SAS to Maneuver mode
Burn with the lowest throttle for better control
Circularize the orbit in the next Apoapsis or Periapsis.
Warp ahead until the two spacecraft are at a 50 km distance.
Change the altitude difference to 1 km, it will change the distance change to around 20 km per orbit.
Create a maneuver in the closest Periapsis or Apoapsis to change the altitude difference to 1 km
Set the SAS to Maneuver mode
Burn with the lowest throttle for better control
Circularize the orbit in the next Apoapsis or Periapsis.
Match the speed
The speed difference between the very close orbits should be below 400 m/s.
Warp ahead to reduce the distance
On the Approach Info tab of the Maneuver Mode panel, you can see information about the next two intersects.
When the distance value of Intersect 2 is greater than Intersect 1, the closest encounter will happen between them. It means Intersect 2 will happen after the two vessels already passed each other.
When the target indicator is 90 degrees from the velocity vector, the two spacecraft are above each other. Kill the speed difference by changing your orbit to match the target.
Align your vessel’s velocity vector to the target’s movement
IMPORTANT!!!
This is crucial, as for successful docking at the moment of contact the two vessels should have close to matching speed and direction. During the final approach, as you adjust the speed of your spacecraft, also continuously adjust your ship’s velocity vector, so in the final moments, the two will hover next to each other without much relative movement.
If arriving from below
If your orbit is below the target, your velocity is higher, so eventually you will be in front of the target.
Burn prograde to raise your orbit. This will eventually slow you down.
Orient the spacecraft with the W S A D keys, so when you apply thrust, you pull the Prograde symbol to the Target symbol and move your ship towards the target.
If the Prograde vector is not visible when you pull it to the target, orient the spacecraft between the Target and the Retrograde vector.
If arriving from above
If your orbit is higher than the target, your velocity is lower, so eventually you will be behind the target.
Burn retrograde to lower your orbit. This will also speed you up.
Orient the spacecraft with the W S A D keys, so when you apply thrust, you push the Retrograde symbol on top of the Anti-Target symbol.
Tip 1
When to push, and when to pull
When we run the engine, we always push the retrograde and pull the prograde symbol (think about pushing the back and pulling the front of the car). If the appropriate symbols are not visible at the same time, you can still pull or push the velocity vectors. In this example the target and the retrograde symbols are visible, and we want to speed up a little bit. We can still pull the prograde symbol toward the target by aiming between the retrograde and the target and pushing the retrograde symbol to the other side of the ball toward the anti-target symbol.
Tip 2
Curved path
As we are flying on a curved path, the target symbols and the velocity vector symbols (prograde and retrograde) continuously move relative to each other. As we approach the target, the retrograde vector tends to move toward the horizon. “Pushing” it back we can keep the velocity vectors of the ships aligned.
Approach the target
Make sure the Nav Ball is in Target mode and burn towards the target at 20 m/s speed
We continue this staggered approach to get closer to the target:
Catch up with the Target
If you are ahead of the target in a lower orbit, burn retrograde.
Ifyou are behind the target in a higher orbit, burn prograde
Kill the speed difference
When the target indicator is 90 degrees from the velocity vector, kill the speed difference by slowing down or speeding up to the speed of the target.
Move toward the target
Turn toward the target and start a burn
Cut the engine at 10 m/s speed difference
Turn retrograde and prepare to slow down
Slow down around 60 – 70 meters from the target
Catch up quickly via transfer orbit
Create a maneuver to get into the Transfer Orbit. Use the prograde or retrograde marker to reach the orbit of the Target, and move the maneuver to set the distance between the two orange markers below 5 km. If the pink markers appear, your trajectory will cross the target’s orbit and overshoot it. Reduce the burn duration until the pink markers disappear. You may need to select an orbit in the future to be able to burn at the correct time for a close intersect.
Make sure the new orbit stays above the 70 km thick atmosphere, otherwise the spacecraft can even burn up at the periapsis.
Set the SAS to Maneuver mode, and stop the burn before the estimated duration. Fine-tune the intersect with short low-throttle burns until the distance reaches the planned amount.
If the orbits are not parallel
If the orbits are just intersecting, we can create a maneuver in the intersecting point and adjust the prograde/retrogarade and radial in/ radial out vectors to bend our orbit to match the target
Create a a maneuver in the intersection point
If your Apoapsis or Periapsis is too extreme, dial back the prograde or retrograde vector, and adjust the radial in / radial out vector to bend the curve
Adjust the prograde/retrograde and radial in/radial out vectors to match the trajectory of the target
If there is still a vertical separation between the orbits because of the different inclinations, use the normal/anti-normal vectors to bring the Ascending or Descending node close to the encounter.
Slow down
Click the speed indicator to switch to Target mode
Once in Target mode turn to Retrograde
Warp ahead even through multiple orbits until the two spacecraft reach the intersect point at the same time.
The easiest way to dock is if both vessels actively turn toward each other. We will set up active tracking on both ships. In this example, we will dock “Ship” to “Station”. When the vessels are close to each other you can use the “[” and “]” keys to switch between them.
Switch to Station
Right-click the docking port and select Control from Here
Select Ship as target
Turn on SAS and point Station to Target
Switch to Ship
Right-click the docking port and select Control from Here
Set Station as target
Turn on SAS and point Ship to Target
From now on the ports should continuously face each other.
Approach
Rotate the ship “upside up”
To make it easier to maneuver the ship during docking, rotate the ship, so on the screen the top of the pod points up. There is no good indicator of the top, but the hatch of the pod is at the “bottom”.
Rotate your ship with the E and Q keys to turn the hatch to the bottom, and the two windows are visible on the top.
In this position use the lateral controls to move the pod. As the first astronauts were fighter pilots, the controls work the same way as you fly an airplane in a flight simulator with the keyboard:
J – left
L – right
K – (pull the pod) up
I – (push the pod) down
Maneuver to the target
Turn Retrograde to be able to use the engine to slow down if needed.
Turn on RCS with “R”
In Retrograde press the “H” RCS key to slow down, “N” to speed up until the Target speed drops to zero, or use the engine if more power is needed.
Turn Prograde, “H” is forward, and “N” is backward.
Use the RCS to approach it with no more then 10 m/s until it is in 100 distance.
Right-click the target to see its distance
Set the docking port as the target for a precise approach.
Final approach and docking
It is important to learn the basics of docking with a visual approach, to understand the steps necessary for success, but there is an excellent mod that provides a user interface to perfectly align the docking ports even in total darkness. Install the Docking Port Alignment Indicator mod (see Recommended mods for details)
Advantages
Adds port renaming functionality during construction and flight, so you can later select the target port by name at the bottom of the instrument.
Usage
In the map view switch to the target vessel
Right-click the receiving port, and select Control from Here, so the SAS of the approaching vessel can properly track it.
Switch back to the approaching vessel, and make sure the target vessel is selected. If not, select it in the map view
Right-click the port on your vessel and select Control from Here
When you are 2.5 km or closer to the target, select the target port on the Docking Port Alignment Indicator UI.
During the final approach, the only thing you need to do is to
set your SAS to track the target
with your lateral RCS controls (IJKL) keep the green prograde marker on the intersection of the green lines, and control the approach speed with H and N. If you successfully track the green lines, your vessel will slowly line up with the target port. The orange marker at the top of the circle shows the 0° of the port of your vessel. Use Q and E to rotate your craft.
If the two lines are red, you are approaching the target port in the wrong direction. The orange arrow on the UI shows the direction you should move the prograde or retrograde icon for the correct alignment. If the yellow symbol changes from prograde to retrograde, you are getting farther away from the target.
Fine tune the docked module rotation angle
When a module has been docked, you can fine-tune the angle +- 15 degrees using the docking port menu. It looks like the module position is not saved, so when you reload the game all modules turn back to the original angle.
Right-click the docking port
Move the Alignment Angle slider to fine-tune the rotation of the docked module
The Invert Direction button changes the direction of the rotation.
Re-docking
When you just want to re-align a docked module the docking port needs to be reset. When you undock, the magnetic force which attracts the ports is turned off and the port is deactivated to let you leave the vicinity of the port. This prevents quick re-docking the same module. The port is reactivated when the module is moved at least 1.5 meters away, but if you just want to rotate the module sometimes it is not practical.
To quickly re-enable the docking port
Undock the module
Press F5 to “quick save” the game scenario
Hold F9 to reload the last quick save
Dock again
Transfer the crew
To transfer the crew between docked vessels
Click the hatch, or right-click the module, where the crew member is located and select Transfer Crew
Click the Transfer button of the crew member to transfer across the docking port
Click the target module to select it. In a few seconds, after a “tv static” video effect
the crew member will appear in the new environment
Docking tutorial videos
Teaching the transfer orbit method
Teaching catching up slowly by gradually changing your orbit
gombot 5 másodpercig benyomva
