Particle Accelerator

A linear particle accelerator example (uses 3 RF cavities and 3 quadrupole magnets).

A two stage particle accelerator example (uses 8 RF cavities, 8 quadrupole magnets and 8 dipole magnets).

The Particle Accelerator is a complex modular machine that accelerates particles to relativistic speeds via superconducting magnets in order to produce various exotic particles required for late game materials. Some of these late game materials include  dineutronium,  schrabidium and  euphemium.

Unlike the  cyclotron which bombards elements into other elements to transmute them into heavier ones, the particle accelerator collides them together to create new byproducts.

Basics

Particle accelerators are either two types; linear (straight) or circular (synchronous) accelerators. Since circles do not exist in Minecraft, synchronous accelerators are square in design. They are both modular and can be built to any size, with the only restriction being resources, intended byproduct, and energy costs.

Most of the components within particle accelerators require cooling via  cold perfluoromethyl. The used perfluoromethyl can be redirected to a  compressor for re-cooling, creating a feedback loop despite energy loss.

Power Consumption and Management

The particle accelerator requires couple MHEs to function properly. Fission or fusion reactors can be used to meet these power needs. It is recommended to calculate how much energy is needed before constructing an accelerator, so the player is not overwhelmed.

Components

Both types of particle accelerators require:

• Particle source: To create the particle
• Particle detector (at a receiving end): To form the intended byproduct
• Quadrupole magnets: To reduce particle defocus
• RF cavities: For electromagnetic acceleration
• Coils: For quadrupole magnets to function

However, synchronous accelerators need dipole magnets for turns.

Components

Component	Assembler Recipe	Tooltip
Beamline	8 16 4	Optional part, connects different accelerator parts. Also allows to cheaply extend the rings size, for meeting dipole coil size requirements.
Particle Source	3 16 1616 16	Requires cooling! Uses two items to create a particle
RF Cavity	3 16 64 1616 16	Requires cooling! Accelerates particle by 100 points, and adds 100 points of defocus. The particle will crash when reaching points of 1000 defocus.
Quadrupole Magnets	16 1616	Requires cooling! Reduces particle defocus by 100 points. Requires large coils to work.
Dipole Magnets	2 16 3232 4	Requires cooling! Redirects particles based on momentum. Has outputs for below threshold, above threshold and above threshold with redstone applied. Requires large coil to work.
Particle Detector	3 24 16 1616 4	Requires cooling! Accepts particles and performs the recipe. Recipes may require containers (particle capsules). Particles need a defocus of 0 to be accepted.

Coil Types

Coils determine how fast a particle needs to be to enter a ring and how fast it can be once it leaves. They are required for both dipoles and quadrupoles to work, having various attributes and restrictions to them. Coils have three relevant stats to them: The minimum operational range, the maximum operational range and the dipole minimum side length.

If the particle passes a coil while falling short of the minimum operational range, it will still work, however the dipole/quadrupole will be subject to a power draw penalty (10x power required).

If the particle passes a coil in a dipole while the distance between it and the previous dipole is less than the dipole minimum side length, it will also be subject to the same power draw penalty. These penalties stack, having an accelerator that is both undersized and overtiered results in a 100x increase in power draw which exceeds the magnet's power buffer, crashing the particle.

Exceeding the maximum operational range will not cause a penalty, instead the particle will simply crash.

Coil Type	Assembler Recipe	Minimum Operational Range	Maximum Operational Range	Dipole Minimum Side Length
Large Gold Coil	128	0	2,200	15
Large NbTi Coil	64 64	1,500	8,400	21
Large BSCCO Coil	64 6464	7,500	15,000	27
Large Chlorophyte Coil	128 16	14,500	75,000	51

Recipes

Output	Particle Detector Recipe	Details
Chicken Nugget x2	100	Completely fills hunger.
Antimatter Capsule	300	Contains 1000 mB of  antimatter when put into a magnetic storage container.
Antischrabidium Capsule	400	Contains 1000 mB of  antischrabidium when put into a magnetic storage container.
Muon Capsule	2,500	Used to catalyse ICF fuel in the fuel pellet maker.
Tachyon Capsule	5,000	Used to make  murky wings in a murky anvil.
Higgs Boson Capsule	6,500	Used to make  schrabidium from  uranium-238 in an  exposure chamber.
Dark Matter Capsule	10,000	Used to make  euphemium from  plutonium in an  exposure chamber.
Strange Quark Capsule	12,500	Used to make the  dark crystal.
Sparkticle Capsule	12,500	Used to make  dineutronium from  ferric schrabidate in a  exposure chamber, also outputs dust as waste.
The Digamma Particle	70,000	Used to make  digamma fuel for the RBMK. Also outputs an empty capsule.

Gallery

Particle accelerator setup.

External links

• Particle accelerator tutorial/guide by Savage Vegeta