Energía mecánica

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This page is a translated version of the page Mechanical power and the translation is 36% complete.
Outdated translations are marked like this.
Configuración sencilla del tren de potencia.

La mecanización es el camino hacia la prosperidad.

La energía mecánica es una mecánica que permite alimentar distintas máquinas mediante el aprovechamiento de energías renovables (como el viento) a través de estructuras como el molino de viento. En la actualidad, se puede utilizar para automatizar molinos para moler, martinetes para trabajar escorias de hierro o forjar placas de metal, y pulverizadores para triturar materiales en su forma en polvo. Aunque se puede utilizar para accionar una sola máquina, con una serie de conexiones de ejes y engranajes se puede hacer lo que se llama un tren de potencia. Esto permite conectar varias máquinas a la vez, trabajando en tándem.

Fuentes de energía mecánicas

El molino de viento

Un molino de viento es una estructura de varios bloques utilizada para aprovechar la energía eólica y transformarla en energía mecánica. Hay muchos diseños posibles para un molino de viento, pero los factores a tener en cuenta incluyen:

  • Ubicación velocidad del viento
  • Altura - para el viento y espacio libre para las velas
  • Acomodación de diversos diseños y equipos de grupos motopropulsores
  • Cantidad de energía necesaria para accionar los equipos conectados

Encontrará información detallada sobre el molino de viento en la página el molino de viento .

Ejemplo de tren de potencia en funcionamiento conectado a un martinete y a un pulverizador.

Otros

Otras fuentes son el Rotor automático (sólo creativo).

Tren de energía

Una serie de ejes, engranajes, frenos y otros mecanismos interconectados que permiten un flujo ininterrumpido de energía mecánica a través de varias máquinas al mismo tiempo.

Materiales necesarios para un tren de energía

Ejes de madera

Se utilizan para transmitir la energía eólica en línea recta. Pueden colocarse vertical u horizontalmente en cualquiera de los puntos cardinales.

Ingredients Crafting Recipe
1x Martillo
1x Cincel
1x Tronco
1x Grasa

Copper hammer

Copper Chisel

Log (Oak)


Fat


Wooden Axle

Wooden Axle

Wooden Axle







Engranajes de madera

Permiten que la energía mecánica realice un giro en ángulo recto conectando un eje horizontal a uno vertical. A menudo necesario en función del diseño del tren de potencia.

Ingredients Crafting Recipe
1x Martillo
1x Sierra
2x Palo
1x Cincel
1x Resina
1x Tronco
1x Grasa

Copper hammer

Stick

Resin

Copper Saw

Copper Chisel

Log (Oak)

Stick

Fat

Angled Gears








Freno

Puede utilizarse para aplicar mucha resistencia al mecanismo con el fin de detener todo el tren.

Ingredients Crafting Recipe
1x Martillo
1x Cincel
1x Tronco
1x Wooden axle
2x Resina

Copper hammer

Copper Chisel

Oak log


Wooden Axle


Resin

Brake





Resin

Resin



Clutch and transmission

When placed together can be used to interrupt flow of energy to a specific branch of the power train.

Ingredients Crafting Recipe
1x Martillo
1x Cincel
1x Sierra
8x Board
1x Tronco
8x Palo
2x Resina
2x Grasa

Copper hammer

Oak Board

Resin

Copper Chisel

Oak log

Fat

Copper Saw

Stick

Clutch


Oak Board

Oak Board

Resin

Resin


Fat

Fat

Stick

Stick


Ingredients Crafting Recipe
1x Martillo
1x Cincel
1x Sierra
2x Angled gears
8x Board
2x Resina
1x Grasa

Copper hammer

Angled Gears

Resin

Copper Chisel

Oak Board

Fat

Copper Saw

Angled Gears

Transmission


Resin

Resin

Oak Board

Oak Board




Large wooden gear

Allows to combine power from multiple sources, or distribute power from single source to multiple consumers. Can also be used to increase rotational speed at the cost of decreasing the torque, and vice-versa.

Ingredients Crafting Recipe
1x Martillo
1x Cincel
1x Sierra
5x Board
2x Resina
12x Palo

Copper hammer

Oak Board

Oak Board

Copper Chisel

Resin

Oak Board

Copper Saw

Stick

Oak Board

large gear section


Oak Board

Oak Board


Resin

Resin


Stick

Stick


Ingredients Crafting Recipe
4x Large gear section
24x Board
1x Wooden axle

large gear section

Oak Board

large gear section

Oak Board

Wooden Axle

Oak Board

large gear section

Oak Board

large gear section

largegear3


Oak Board

Oak Board

Oak Board

Oak Board

Oak Board

Oak Board

Oak Board

Oak Board


Input and output

Input and output is handled using chutes, hoppers and optionally chests . Hoppers accept multiple stacks of input items, which are then transported via chutes towards the input slot of an eligible block. Chutes can also grab items directly from chests. A special type of chute, the Archimedes screw, can transport items upward provided it is powered.

Hopper (optional)

Used for material input/output. Crafted directly from copper plates.

Ingredients Crafting Recipe
3x Plancha de Metal

Copper plate


Copper plate

Copper plate


hopper








Chute (optional)

Used to transfer materials between hoppers, chests, other containers and various machinery. These blocks can be placed directionally, with the output facing away from the player. Chutes are crafted from chute sections, which need to be crafted on an anvil with copper ingots, by hand or with the help of a helve hammer. As even the straight chute needs at least two sections, a minimum of two copper ingots is necessary for one chute.
Note: Chutes can be rotated using a wrench .

Ingredients Crafting Recipe
2x Chute section

Chutesection-copper


Chutesection-copper



Chute-straight







Ingredients Crafting Recipe
2x Chute section

Chutesection-copper


Chutesection-copper



elbow chute







Advanced power trains

Simple large gear setup that combines torque from three power sources into a single output. 1, 2 and 3 are creative auto rotors which provide power, 4 is the output.
More complex setup with two large gears. Torque from sources 1, 2 and 3 is combined by lower gear into a single output (4), which then goes through the upper gear (5) to increase rotational speed at the cost of reducing torque.

To build complex and efficient power trains it's important to understand relation between speed and torque, and how they are affected by resistance of a given mechanical system.

  • Resistance defines how much rotational energy the system needs in order to continuously operate. If there is not enough torque to counteract resistance, entire power train will lose speed or even come to a complete halt. Each element of the system, such as axles, gears and transmissions, has some resistance. However, machinery doing useful work tends to contribute the most.
  • Torque is a measure of rotational force and directly counteracts resistance. Adding more torque to the system can help it overcome the resistance of connected machinery, allowing faster operation. However, as soon as resistance is completely overcome - there is no point in further increasing the torque.
  • Speed defines the rate at which machines in the system perform their job. Increasing the speed allows for faster operation, but only if there is enough torque to sustain it; otherwise most of the speed will be lost to resistance.

Large wooden gear

Conversion of torque to speed and vice-versa can be achieved with the help of large wooden gear. Central shaft and rim of the gear can both be used for input or output. Direction of the power flow defines the conversion.

  • Using shaft as input and rim as the output allows to increase the speed by a factor of 5, at the cost of reducing the torque by the same factor;
  • Using rim as input and shaft as the output allows to achieve the opposite effect, increasing the torque by a factor of 5 and decreasing speed by the same factor;
  • Using rim as input for multiple power sources allows to combine the torque from those sources, while resulting speed will be defined by the fastest input;
  • Using rim as input for single power source allows to distribute that energy to multiple outputs, conserving speed and torque.

As evident from example of complex gear setup on this page, multiple gears can be used together to achieve desired conversion and distribution of energy.

Maquinaria automatizada

Molienda

Mecanizados o no, los molinos permiten al jugador moler grano, así como algunos minerales y piedras en sus formas procesadas. Para la molienda mecanizada, el molino debe estar conectado a un tren de energía que funcione..
Los Molinos pueden automatizarse aún más con el uso de tolvas, toboganes y cofres. Para ver la guía completa de automatización, consulta la página molino.

See also Quern .

Mechanized or not, querns enable the player to grind grain, as well as some minerals and stones into their processed forms. For mechanized milling, the quern must be attached to a functioning power train.
Querns can be automated further with the use of hoppers, chutes and chests.

Herrería

Un martinete puede ayudar al jugador a procesar lingotes de hierro y acero cementado, así como a fabricar planchas de cualquier tipo de metal. Requiere energía mecánica para funcionar y no hay forma práctica de automatizar la entrada y salida de materiales, ya que se adhiere a los mismos principios que la herrería manual. Para obtener la guía de configuración completa, consulta la página martinete.

See also Helve hammer .

A helve hammer can help the player in processing iron blooms and blister steel, as well as making plates of any metal type. It requires mechanical power to operate and there is no practical way to automate the in- and output of materials, since it adheres to the same principles as manual smithing.

Trituración

Véase también Pulverizador.

El pulverizador permite a los jugadores triturar ciertas piedras y minerales hasta convertirlos en polvo fino que se puede utilizar para fabricación de acero o tinturas. No hay otra forma de obtener estos materiales. Una configuración completa del pulverizador requiere una inversión significativa de tablas y metal para el armazón, la palanca, los machacadores y las tapas.

Videos tutoriales

Explanation of large gear usage General guide on mechanical power How to build a windmill and helve hammer in 1.13


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