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Messages - Detros

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1
C# Aurora / Re: Box Launcher Reloads
« on: July 19, 2017, 04:09:49 AM »
Bear in mind there is a difference between launcher cycle time and missile reload time. For a 'normal' missile ship, as soon as the launcher recycles, it can load another missile from the magazine. However, missiles are loaded into the magazine in a different operation. For box launchers in VB6, the launchers can be loaded with missiles quickly. It is the recycle of the launcher that takes a long time. This can seen as preparing the launcher for firing.

In C# Aurora, loading ordnance will take time rather than be done instantly (a similar change to refuelling). This will be true for both box launchers and magazines. As 'normal' missile ships will have increased magazine reload times, it makes sense to further limit box launchers to maintain balance. In fact, maybe rather than simply recycling launchers in a hangar, box launchers should reload there as well. This wouldn't be a problem for fighters or FACs. For larger warships, a dedicated facility would be required, probably using commercial hangars and commercial magazines (Space Dock!). Below is an excerpt from the U.S. Naval Institute Blog regarding the replenishment of current VLS.

https://blog.usni.org/posts/2015/07/30/vls-at-sea-reloading

"Unfortunately, reloading VLS at-sea isn’t incorporated into the Navy’s logistical DNA in the same way refueling is. Reloading VLS cells in today’s status quo demands an industrially robust port facility with heavy equipment, trained rigging crews, and a large munitions storage facility. It is not uncommon to damage equipment, and people have been seriously injured during VLS loading and unloading evolutions. Experts at the Naval Weapons Stations and some Naval Support Facilities use cranes to unload spent canisters, move gas management system equipment, and place loaded canisters in cells. "
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2
C# Aurora / Re: C# Aurora Changes List
« on: July 18, 2017, 05:43:23 PM »
Beam Weapon Recharge

In VB6, if a power plant is damaged, it slows down the recharge rate of all weapons by a proportionate amount.

In C# Aurora, power is allocated weapon by weapon until the available power is exhausted. This means that some weapons may not be recharged, but the others will be recharged at the maximum rate. Weapons are charged in order of ascending power requirement. Once a weapon is recharged, it will require no more power and other weapons can begin the recharge process.

This should allocate power in the most effective way to keep a ship in the fight.
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3
The Academy / Re: Newbie question
« on: July 05, 2017, 04:25:25 PM »
Just a little clarification; we're still getting all the mechanics changes scheduled for 7.2, its just we're not getting them until the C# update is done.
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4
C# Aurora / Re: Screenshots published so far
« on: July 02, 2017, 04:51:40 AM »
The new Turret Design window. Very similar in function to the VB6 version but with the addition of the company name option and instant research option. Both this window and the missile design window can be accessed via the Create Project Window (as in VB6) and via the main toolbar on the tactical map window.

Note that the changes to turret design, especially with regard to correcting the armour bug, result in this turret being significantly smaller than the VB6 equivalent. For comparison, the same twin turret with armour strength 2 in VB6 is 24.27 HS and 194 BP.

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5
Bureau of Ship Design / Re: Ships
« on: June 29, 2017, 08:37:33 AM »
Home rule 1: Size 1 passive sensors are needed for navigational reasons.
All ships already sport a hidden strength 1 thermal and EM passive, though. Probably for navigational reasons too.
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6
C# Aurora / Re: C# Aurora Changes List
« on: June 27, 2017, 02:01:50 PM »
Turret Update

A minor update. The benefits of multiple energy weapons in turrets have been doubled. A twin turret now has a 20% reduction in crew vs two solo weapons and has a 10% reduction in gear size. A quad turret has a 40% reduction in crew vs four solo weapons and has a 20% reduction in gear size.

In addition, I found an error in the VB6 code for turret design that meant a turret needed four times more armour than a ship of equivalent size. This has been corrected for C# Aurora, which means armoured turrets are now much more viable.
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7
The Academy / Re: Maintenance Clock going up during overhaul
« on: May 30, 2017, 04:16:58 PM »
475t courier Pelican is located at Earth with 2000 Maintenance Supplies, some ores and 5 Maintenance Facilities. AFAIK, that should make sure it gets maintained as it is smaller than 1000t. Pelican is overhauling and its Maintenance Clock is still slowly going up.

What else, other than not enough Maintenance Facilities, can cause such behaviour?

Anything under 500 tons is classed as a fighter and can't be maintained by maintenance facilities - only by hangars.

This rule was to prevent a couple of maintenance facilities supporting a lot of fighters. In C# Aurora, fighters can be maintained by maintenance facilities as the tonnage supported is based on the total ship tonnage, not max hull size.
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8
C# Aurora / Re: C# Aurora Changes List
« on: May 28, 2017, 07:16:09 AM »
Missile Engines

In C#, Missile Engines follow the same size-based fuel consumption rules as Ship Engines using the formula: SQRT (10 / Engine Size in HS)

The above increases the fuel consumption of missile engines based on size alone. However, VB6 also had a flat x5 multiplier for the overall fuel consumption for missile engines as they were treated as a different engine type than ship engines. As C# is aiming for consistency between ship and missile engines, this x5 multiplier cannot remain as it was before. Removing the x5 multiplier entirely would cancel out the fuel consumption increase resulting from the changes in the size-based fuel consumption calculation. As one of the objectives of C# is a reduction in missile ranges, a new rule is required that increases fuel consumption but that is still consistent with ship engines.

Therefore, the calculation for fuel consumption based on boosting engines will now include an additional multiplier if the boost being used is higher than the maximum racial boost tech. Only missile engines have the capability to use higher boosts than the racial maximum, so this still allows consistency between ship and missile engines in the spectrum where they both operate. Once you move outside of the boost range possible for ships, additional fuel consumption can be added without breaking consistency. This rule adds a linear multiplier from 1x to 5x depending on the level of boost beyond the racial maximum. The formula is as follows:

if Boost Used > Max Boost Multiplier Tech then
      High Boost Modifier = (((Boost Used - Max Boost Multiplier Tech ) / Max Boost Multiplier Tech) * 4) + 1;

So if a race has Max Boost Tech of 2x, any missile with a Boost Level of 2x or less will use the standard boost fuel modifier calculation of Boost Level ^ 2.5.

Above a Boost Level of 2x, the linear High Boost Modifier will come into effect, reaching a maximum of 5x fuel consumption at 4x Boost Level.

Here is a comparison between VB6 and C# using MPD engines and an engine size of 1 MSP. The Max Boost Tech for this race is 2x:


VB6 Missile Engine with 2x Boost
Engine Power: 1.6      Fuel Use Per Hour: 81.51 Litres
Fuel Consumption per Engine Power Hour: 50.944 Litres
Engine Size: 1 MSP      Cost: 0.4
Thermal Signature: 1.6
Materials Required: 0.4x Gallicite
Development Cost for Project: 80RP

C# Missile Engine with 2x Boost
Engine Power 1.60      Fuel Use Per Hour 76.8 Litres
Fuel Consumption per Engine Power Hour 48.0 Litres
Size 1.00 MSP  (2.5 tons)      Cost 0.80
Development Cost 80 RP

Materials Required
Gallicite  0.80


VB6 Missile Engine with 4x Boost
Engine Power: 3.2      Fuel Use Per Hour: 922.18 Litres
Fuel Consumption per Engine Power Hour: 288.182 Litres
Engine Size: 1 MSP      Cost: 0.8
Thermal Signature: 3.2
Materials Required: 0.8x Gallicite
Development Cost for Project: 160RP

C# Missile Engine with 4x Boost
Engine Power 3.20      Fuel Use Per Hour 4344.5 Litres
Fuel Consumption per Engine Power Hour 1357.6 Litres
Size 1.00 MSP  (2.5 tons)      Cost 1.60
Development Cost 160 RP

Materials Required
Gallicite  1.60
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9
C# Aurora / Re: C# Aurora Changes List
« on: May 21, 2017, 03:53:43 AM »
Engine HTK

Due to their size, Engines in VB6 Aurora create a damage shield because their HTK is very high compared to the amount of damage they are likely to receive. This would only become worse in C# Aurora with much larger engines now possible.

Therefore, the Engine HTK will change from 50% of Size to SQRT(Size).
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10
C# Aurora / Re: C# Aurora Changes List
« on: May 20, 2017, 02:32:01 PM »
Power Plant Changes

Power plants will no longer have linear power vs size. Additional power will be produced by larger reactors, using a similar formula to the increase in fuel efficiency for larger engines. This change will provide a reason to create larger power plants and will result in a small improvement in energy weapon capabilities. The table below shows power per HS and total power for a given size of reactor. This value is multiplied by the base technology of the power plant (Pressurised Water, Pebble Bed, etc).



The additional boost provided by the "Power Plant Boost" technology line provides double the previous bonus, with lower research costs and slightly higher explosion chances. This is intended for smaller ships that are short on space. The updated tech line provides between 10% and 100% additional boost with research costs between 500 RP and 30,000 RP.
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11
C# Aurora / Re: C# Aurora Changes List
« on: May 20, 2017, 07:14:40 AM »
New Active Sensor Model

A new active sensor model has been implemented for C# Aurora. In VB6 Aurora, there is an issue that active sensor ranges become so huge with large size-50 sensors, that the standard tactic is to create a ship with such a sensor so that it can watch the entire inner system, taking away some of the fog of war. In addition, such extreme-range sensors allow ultra-long range missile combat, giving the race that possesses such sensors a major advantage. The following change is intended to create a situation where:

a) Multiple scouts or pickets become a serious alternative to one huge sensor.
b) Missile combat ranges are reduced
c) Fog of war is increased, leading to more interesting exploration and combat.

The VB6 sensor model is based on the following formula, which increases range in direct relation to sensor strength:

Sensor Range = Racial Sensor Strength * HS * Racial EM Sensitivity * SQRT(Resolution) * 10,000 km

The C# model uses similar basics and leaves all the existing technology in place. However, the sensor strength now has to cover an area rather than a direct range, creating diminishing returns for larger sensors. In addition, the modifier for resolution has been adjusted from square root to the power of (1 / 1.5). Because of this formula, smaller, lower resolution sensors are now more effective than the VB6 equivalents (much more in some cases), making earlier detection of missiles and fighters possible for non-specialised ships. The new formula is:

Sensor Range = SQRT((Racial Sensor Strength * HS * Racial EM Sensitivity * (Resolution ^ (1/1.5)) / PI) * 1,000,000 km

The following screenshots are based on the Commonwealth in my current campaign, which has active sensor strength 21 and EM sensitivity 11.









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12
C# Aurora / Re: C# Aurora Changes List
« on: May 14, 2017, 10:02:36 AM »
Engine Size and Fuel Consumption

In C# Aurora, missile and ship engines follow a single fuel consumption rule. The modifier is equal to SQRT (10 / Engine Size in HS). Thanks to alex_brunius for the formula.

The new rule creates a smooth transition for both engine types, which is more realistic and consistent, provides a bonus to larger ships, makes the fuel portion of missile design more interesting (as fuel is not a major concern at the moment) and allows larger engines to be designed beyond the current 50 HS limit.

This will complement the new sensor changes as they will reduce missile ranges anyway (described in the changes discussion thread but not published here yet)



As a result of these changes, a new Maximum Engine Size tech progression has been added. The starting max engine size is 25 HS. The research progression is 40 HS, 60 HS, 100 HS, 160 HS, 250 HS and 400 HS, with the costs ranging from 2,000 RP to 60,000 RP.
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13
The Academy / Re: Population vs Wealth
« on: April 19, 2017, 06:12:59 PM »
I wish financial centers were transportable like other installations are.  Then you could just fill up your terraformed but mineral-less worlds with financial centers built elsewhere, and plunk a wealth bonus leader on them.  Pretend the whole planet is a giant call center, cold call selling products made elsewhere to markets all over your empire. ;)

I can see it now...

"Sir! The invading aliens have scoured Telemarketing II to bedrock!"

"Well, they should have abided by the No Call List."
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14
Aurora / Three-way Race to Stars
« on: April 07, 2017, 11:24:20 PM »
PROLOGUE

On 4th of January, 2015, the Near-Earth Object Wide-field Survey Explorer (NEOWISE) sent its monthly update to Jet Propulsion Laboratory in Pasadena, California. Among the hundreds of IR shots that the spacecraft had taken, few were ruined by a bright streak. While initially dismissed as a glitch, its presence in multiple shots intrigued the Deputy Principal Investigator James Bauer, who placed a call to Washington. The head of the Science Division, John Grunsfeld, was just about to ride his beloved bicycle when his phone vibrated.

"Hey John, James here. I think NEOWISE might have caught something interesting but we need to retask it for confirmation and I wanted to run that by you first", Bauer explained. Two and half thousand miles away, Grunsfeld sighed as he dumped his bike and headed back to his office.

"Let me double check things but it should be fine. What do you think you got?" He asked while walking to the elevators. Bauer waited a moment, pondering whether he should share his suspicion or not. In the end, he decided to go for it:
"A new comet, never before seen one, that is coming in hot as hell", he said.

"Hot damn, that's exactly the kind of stuff that the director can take to the Hill to justify our budget. I'll give you my permission right now and will clear it with the rest of the Division right away", Grunsfeld responded. He hadn't felt this excited since 2012, when he rode to Low Earth Orbit aboard Space Shuttle Columbia.

"Gotcha boss, we'll get to work", Bauer acknowledged and terminated the call. He had a team to whip to action.

Two weeks later, NASA held a press conference to announce the tentative discovery of a new comet, one moving at a quadruple velocity compared to Hayley's Comet and with a trajectory bringing it relatively close to Earth. In scant hours, every telescope on Earth was aimed at the fresh visitor to the inner system.

***

Susan Mullally was going through her usual work - analyzing Kepler data to find binary systems - when her colleague and boss, Jeffrey Smith, called.

"Get your ass down here right now", he said, out-of-breath, before cutting the line. Intrigued, Susan rushed to the main conference room of the SETI Institute in California. By the time she got there, a handful of other night owls had been roused by Smith, who held a manic grin on his pudgy face.

"Argentina just sent this in, listen", he said and pressed a button with a flourish. The speakers came alive with the familiar sound of interstellar background noise that their radio telescopes constantly listened to - yet there was a beep that she didn't recognize. And there it was again. And again. And again. Despite not being a 'radio guy', she did understand the significance.

"Has this been confirmed?" She asked.

"No, Argentina has trouble tracking the source for some reason, they claim it is moving. They are adjusting but now that you've heard it too, ensuring that I didn't just go crazy five minutes ago, I'm going to call every radio telescope on the planet and get them in on the search". Smith was babbling but nobody cared - this could very well be the signal that the Institute had worked for.

***

General John Hyten, Commander USAF Space Command, stared at his desk. For variety, he briefly glanced out of his window but for once the beautiful view of Colorado did not soothe his mind. He had just gotten a call from NORAD that he never expected to receive.

"If this is some kind of a prank, it is not very funny. Are you absolutely certain?"

"Yes sir, we have double, triple and quadruple checked. The facts are as solid as humanely possible", the voice on the other end answered.

"And the network boys are certain that it's not some hotshot hacker playing with us?"

"Yes sir, we thought the same thing at first but it is genuine", the voice responded.

"Very well. Thank you, I will take it from here", Hyten said and ended the call. He always thought that he would never need to call the President - if WW3 started with a nuclear strike, others would take care of that end. But this! Sighing, he picked up the phone and dialled the White House, dreading the conversation to come.

"This is General Hyten, Space Command. I am calling to inform the President that we have confirmation of a message from a non-human intelligence, outside the Earth. Yes, I'll hold"

***

Comet 2015/P/Neowise-Bauer turned out to be something else altogether. A massive probe, continuously transmitting an electronic signal. Unfortunately humanity had no method of rendezvousing with it. Thousands of images of it were taken, on every part of the EM-spectrum available, as the artificial "comet" sailed through the Solar System. The scientific community worked as one to decipher the message and, once certain mathematical regularities were discovered, the rest was easy enough, with plentiful access to super computers and the best brains on the planet. Unlike our Voyager probes, its message was not of peace and harmony. It was a warning of impending doom - but also of possible salvation.

The message clearly stated that some sort of collective intelligence, possibly of extragalactic origin, that is methodically wiping out life in our galaxy, the Milky Way. Unknown number of species had already been wiped out by them and the creators of the probe were currently fighting them - and losing. The news sent most of humanity reeling. Here was definite proof of life outside planet Earth but the worst fears of the pessimists seemed to be coming true - space was truly hostile.

Yet the probe included a glimmer of hope: knowledge of exotic materials, quickly dubbed the Trans-Newtonian minerals for their near-magical properties, that seemed to offer possibilities flying directly in opposition to the Laws of Physics as currently understood. These materials could be find on planets, moons, asteroids and comets, and when subjected to an carefully modulated electric current, could be harvested from the 'regular' minerals. With them and the information that the probe transmitted, space exploration would not only be possible but affordable and vastly more efficient than before. Even faster than light travel between the stars could be possible!

Yet humans are nothing if not set in their ways. Large portion of the population soon moved on, concerned more with their daily survival than with a possible existential crisis, and some nations preferred to go at it alone - but not all. By the end of 2015, the leading politicians of NATO, EU and the former SEATO members had gathered to announce the formation of a new supra-national organization to spearhead humanity's efforts to safeguard the planet and to spread mankind to the stars. Since both Russia and China refused to join, and none of the African, South-American or Middle-Eastern countries were interested, and out of Asia, only Japan, South-Korea, and Singapore joined, this new organization was named the Pan Oceanic Treaty Organization or PATO for short. Despite protests from both Russia and China that this new organization was a militaristic one directly aimed at them, the international reaction was subdued and, for once, the diplomatic wrangling was completed surprisingly quickly. Technocrats, taking advantage of frightened politicians and the public support, managed to iron out the startup issues in short order by the end of 2015.

In short, while the countries making up PATO retained full control of their domestic, economical and foreign policies (inside the framework of their respective other groupings and alliances, like NATO or the European Union), they all pledged to work together and to devote significant portion of their industrial, economical, scientific and military capability to further the aims of PATO. Similar to how NATO was governed, each member state appointed a delegate to the PATO council, the executive chair rotating between members (by quirk of the alphabet, Albania was the first) and all decisions having to be accepted unanimously. However, the technocrats responsible for drafting the actual treaty were clever enough to shift most responsibility below the actual council, which would only be required to decide on the most grave matters. Day-to-day business would be administered by a join executive administration that combined both civilian and military leadership.

Joe Hanson, a veteran American diplomat, was tapped to become the first PATO Administrator. Experienced at overseeing massive projects in both the US Federal government and in the UN, he had solid contacts and knowledge of both industrial and economic sectors and this experience propelled him past the Canadian-born Isaac Knowles and British-born Gemma Mitchell, who were appointed as his vice administrators and potential successors.

Admiral John Richardson, the current Chief of Naval Operations for US Navy, snatched the appointment to be the top military commander of PATO. Despite heavy competition from the air forces of several PATO countries, the navy side managed to convince the politicians and the civil servants that they had the proper experience, know-how and mind set to wage war in deep space. The crucial difference was that, despite the flyboys having monopoly for aerospace operations, the miracle of TN-assets implied that future space operations would far more likely resemble naval operations of 17th to 20th centuries - not the easily micro-managed air strikes lasting few hours of the 21st century. Despite having no existing assets under him, Richardson wisely saw the writing on the wall and left his beloved wet Navy behind.

The mission of PATO was simple - to eXplore space, to eXpand humanity's hold of the galaxy, to eXploit the resources thus found and to eXterminate any threats to the human race and planet Earth.

***

Despite their refusal to join PATO, neither the Russian Federation nor the People's Republic of China were going to turn a blind eye to what was going to happen. Quietly, both countries took steps to start their own TN-programs. Russia was keen to regain her lost glory, while China was merely being pragmatic. They had no lofty ideals to safeguard.

Rest of the planet would thereafter be know as the neutral UN, playing no significant part.
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15
The Academy / Re: How to learn the design of captured missiles
« on: April 03, 2017, 08:26:45 AM »
Try the Technology window.
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