AbRaj
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It’s definitely an older generation one. Any Idea how the newest version would have performed
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It’s definitely an older generation one. Any Idea how the newest version would have performed
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It’s definitely an older generation one. Any Idea how the newest version would have performed
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Forgetting the great RuskiGoes to show just how hard it is to manufacture a Turbofan.
SCB is probably the pinnacle of Metallurgy in all its glory.
Only handful countries around the world have the IP for this feat.
Textron(USA)
General Electric(USA)
Pratt and Whittney(USA)
Honeywell(USA)
Rolls Royles(UK)
Safran(France)
Saturn(Russia)
MTU(Germany)
Ever wondered why the Chinese who can reverse engineer entire tanks, ships and Guns can't reverse enginner a turbofan?
It's because they simply can't!
U can't make a turbofan without understanding the complexity behind it.
U have to study the heat distrubution patterns of each and every component of the turbofan under different temperature and pressures.
Everything that u have studied since class 1 i.e. Differnetiaion, Integration, thermodynamics, fluid mechanics, bernoulli equation, newtonian physics, molecular chemistry, bessels formula, heat equation, metallurgy, electroplating, Neuman condition, boundary effect, casting, forging, structural analysis etc etc is put to the test here.
U can't build it unless u understand every single atom that makes it.
Yes u have to reinvent the wheel.
When Chinese make tech they just copy study the Metallurgy and make exact replica of the same component. Often the replica isnt upto the mark and the component when put into use under performs.
It's the same things as buying Adidas and Abibas.
Can u cook the same kind of food as your mother which she has mastered over yeras and u just started.
Of course u can cook it but it won't be the same taste.
Turbofan is probably the most costly machine in the world, no one is gonna give it to u for free.
Turbofan (4 to 10 M $)
MRI machine (1.5 to 5 M $)
Tunnel Bore (5 to 15 M $)
I consider Turbofan tech on the same priority level as that of a SSBN.
That guy is a noob, a good presenter, not a bad presenter in any way but a noob never the less. I mean who shoots the side with a .44 mag extreme penetrator round from literally point-blank range and expects the helmet to hold??!! Wish he could get his hands on a Patka, that'd be really cool.
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No..........................Hay @porky_kicker . Do we have any prototype of Gatling gun?.
Why don’t we use them apart from Ak630 on our ships. It appears to be an excellent close in support weapon system.
rudra m2 missile has completed its development period on 6 March it's ground test has been done very soon we may see it's testing.No..........................
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I think this is for knocking out pakistanis bunkers for terrorists in mountains.
Yes, there was news of torpedo sell to Myanmar.It seems varunastra torpedo has been exported .
Came across a version of the same named as varunastra-XP
same XP designation was used in LWT export version
Either Vietnam or Myanmar my guess
So this potentially could be underslug like Brahmos with SU-30?
Why use a machete to chop vegetables ?I think this is for knocking out pakistanis bunkers for terrorists in mountains.
Most of the weight will be of the casingSo this potentially could be underslug like Brahmos with SU-30?
If so, it can hold atleast 2000 kg of explosives.
You will need a specially designed nuke to bust modern C&C --- just look at Indian C&C for e.g on Google earth ---- most are more than 14 floor deep according to @sayareakd --- I am sure most were designed thinking of bunker busting nuke in mind & are well protected against CBRN attacks.Most of the weight will be of the casing
Deep earth penetrators are made of super hardened materials , the explosives are at the rear for protection against damage during penetration through re enforced concrete with embedded steel rods , reactive explosive embedded steel plates, granite rock layers etc.
Possibility of using small sized nukes is also high given the priority of destroying a underground WMD complex. Conventional explosives effects will be very much localised at site of penetration.
I will beg to differ regarding the specifically designed nuke.You will need a specially designed nuke to bust modern C&C --- just look at Indian C&C for e.g on Google earth ---- most are more than 14 floor deep according to @sayareakd --- I am sure most were designed thinking of bunker busting nuke in mind & our well protected against CBRN attacks.
Many facilities are more than 250 meter deep some up to 700 meters in certain rock formations & are specially designed to absorb pressure generated even by nuclear weapons penetrator --- no penetrator going that deep until you build something like this :biggrin2:I will beg to differ regarding the specifically designed nuke.
Nukes have omni directional blast effect .
Cannot make the blast effect directional as in with directional shape charged conventional explosives , where blast can be concentrated at the point of choosing.
What is needed to defeat deep underground complexes is technologies where
1. The vector has the characteristics and power to penetrate deep inside the earth without damaging itself or loosing it's penetration capabilities in the process.
2. The payload of the vector has necessary protection and resilience against damage during impact and subsequent penetration through hardened defences both natural and man-made. Incase of nukes , the design must have protection and safety features to ensure nukes assembly is kept safe and in working condition and no premature detonation takes place due to heavy impact and shocks.
3. Sensors for the vector which can survive impact and penetration rigours while have the sophistication to sense " void " . Void sensing fuzes are required for deep earth penetrators so that the payload is activated inside the underground caverns / complexes for maximum and self propagating damage.
The best defence for WMD sites is secrecy of location. Once the location is found , it loses half it's defence and becomes vulnerable to defeat. Because enemy will employ all its assets to find its weaknesses during peacetime.
https://www.nap.edu/read/11282/chapter/4#14
- Many underground command, control, and communications (C3) complexes and missile tunnels are between 100 and 400 meters deep, with the majority less than 250 meters deep. A few are as deep as 500 meters or even 700 meters, in competent granite or limestone rock.
- As identified by the Defense Intelligence Agency, there are about 10,000 HDBTs in the territory of potential U.S. adversaries worldwide.
Yeah that's correctMany facilities are more than 250 meter deep some up to 700 meters in certain rock formations & are specially designed to absorb pressure generated even by nuclear weapons penetrator --- no penetrator going that deep until you build something like this :biggrin2:
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https://www.nap.edu/read/11282/chapter/4#14
movies exaggerate a lot though ---- 2003 Air Force report above, a 6.1 m × 0.3 m tungsten cylinder impacting at Mach 10 has a kinetic energy equivalent to approximately 11.5 tons of TNT or 7.2 tons of dynamite.Anyways American Thor orbital bombardment system with KE penetrators is a good idea but thing is it will wipe out everything like cities etc in proximity to the underground target through high seismic upheavals.