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De-Motor is a site where we explain the most important elements of engine engineering in a way that you can understand. If you haven't found what you were looking for on the web, here is a list of all the pages we have published.

  • Heat Engines

    Heat engines are a type of reciprocating engine. They use thermal energy to obtain mechanical work.

  • Types of Heat Engines

    Thermal engines can be classified in different ways depending on various factors. Depending on the type of fuel, the operating cycles and 4 more variables.

  • Compression Ignition Engine

    The compression ignition engine is a type of heat engine that runs on the diesel cycle. Discover the basic characteristics of operation.

  • Spark Ignition Engine

    The spark ignition engine is a heat engine in which fuel combustion is carried out by the spark of a spark plug.

  • Reciprocating Engine

    The reciprocating engine or pistin engine uses the reciprocating motion of one or more pistons to convert the pressure in a fluid into work, usually in the form of a rotational motion.

    • Advantages and Disadvantages

      Advantages and disadvantages of the new developments of alternative engines. Its advantages have allowed a rapid development but these characteristics also have certain drawbacks.

  • Types of Reciprocating Engines

    Different classifications of alternative engines can be established depending on the criteria to be followed. Classification depends on displacement, cylinder arrangement, compression ratio, bore-to-stroke ratio, and number of cycles.

  • History of the Alternative Engine

    The history of the alternative engine starts in China 1800 years ago with the construction of a machine with a connecting rod. Later, the piston engine appears with the steam engine, the stirling engine and the internal combustion engines.

  • Endothermic Engines

    Endothermic engine is a type of reciprocating engine. Description of the types of endothermic engines most used: diesel and Otto.

  • Diesel Engine

    Diesel engines are characterized by having compression ignition. Fuel enters the cylinder by injection and ignites due to the high temperature of the gas.

    • Theoretical Diesel Cycle

      The theoretical cycle of the diesel engine. We explain the diagrams and the performance of the theoretical cycle of this type of heat engine.

  • Differences Between Real and Theoretical Diesel Cycle

    Between the real and theoretical diesel cycles there are differences and similarities in the form and in the values ​​of the pressures and temperatures. Differences that also appear in the otto cycle.

  • Advantages of the Diesel Engine

    Diesel engines have several advantages over other internal combustion engines. Advantages related to the type of fuel and the type of fuel ignition.

  • Diesel Engine History

    The diesel engine was invented by Rudolf Diesel with the idea of ​​starting combustion by compressing the fuel.

    • Rudolf Diesel

      Rudolf Cristiano Karl Diesel was a German engineer. Diesel was the inventor of the high-performance combustion engine that bears his name, the diesel engine.

  • Otto Engine

    Otto or gasoline engines is a type of heat engine that works through the otto cylinder. The ignition of the fuel is carried out by means of a spark. The most common are 4-stroke.

    • Otto Cycle

      The Otto cycle is the cycle by which the operation of the Otto engine or gasoline engine is governed. We study the phases of the theoretical Otto cycle and the performance of the ideal Otto cycle.

  • Difference Between Real and Theoretical Otto Cycles

    Analysis of the differences between the real Otto cycle and the theoretical Otto. Between both cycles there are substantial differences both in the form of the diagram and in the values of temperatures and pressures.

  • Differences Between Otto and Diesel Engines

    Main differences between diesel and gasoline engines. Difference in operating cycle, fuel input, different types of ignition. Weight differences.

  • Engine Cycles

    We distinguish three types of cycles in heat engines: theoretical, real and operational. We explain what one of them consists of.

    • 4 Stroke Engine

      In 4-stroke engines, the cycle is carried out in 4 piston strokes. In a cycle of a four motor, two revolutions of the motor shaft are obtained.

    • Thermal Performance

      The performance of an engine is its ability to convert thermal energy into mechanical or work energy. Explanation in a 4-stroke engine.

  • Pressure Diagram for a 4-stroke Engine

    We analyze the diagram of the pressures of a real cycle as a function of the angular displacement of the axis for a 4-stroke engine. Explanation of the internal state of the motor during the 4 phases of the cycle.

  • 2-stroke Engine

    In 2-stroke engines, the cycle is carried out in two races. This type of engine offers greater power but with a higher consumption.

  • Theoretical Cycles

    The theoretical cycles of endothermic engines are approximations to the real cycle. The most commonly used cycles are: real cycle, air cycle, air-fuel cycle.

    • Sabathé Cycle

      The Sabathé cycle is a cycle for heat engines in which combustion takes place partly at constant pressure and partly at constant volume.

  • Comparison Between Three Theoretical Cycles

    Comparison of the theoretical cycles of an internal combustion engine. Graph analysis and analysis between the diesel cycle, the otto cycle and Sabathé cycle.

  • Atkinson Cycle

    The Atkinson cycle engine is a type of heat engine. It works like the Otto cycle but with a small difference that improves performance.

  • Parts and Components

    The most important elements of internal combustion engines. Fixed elements: block, cylinder head, crankcase. Moving elements: piston, connecting rod, crankshaft and flywheel.

    • Piston

      The piston allows converting a linear movement into a circular movement. Pistons play a basic role in both diesel cycle and Otto cycle reciprocating engines.

  • Spark Plug

    A spark plug is an electrical device that fits into the cylinder head of some internal combustion engines and ignites compressed gasoline by means of an electrical spark.

  • Cylinder (engine Displacement)

    The displacement of an engine is the volume described by the piston between the bottom dead center and the top dead center. The power depends on the displacement.

  • Cylinder Head

    The cylinder head serves as a watertight cover for the cylinders. It houses all or part of the combustion chamber, except in the case that it is formed in the piston head.

  • Crankshaft

    The crankshaft is the power transmission shaft that acts as a crank. Transform reciprocating motions into rotational motions.

  • Carburetor

    The carburetor is the device that makes the air-fuel mixture in gasoline engines.

  • Engine Bench

    The engine bench is a metal piece that supports a set of elements in a mechanical or electric motor.

  • Butterfly Valve

    A butterfly valve is a device for regulating or interrupting the flow of a fluid in a conducteaugmentant or reducing the passage section.

  • Fuel

    The fuel has the energy that the thermal engines extract to be able to work. Types and examples of the most common fuels.

    • Gasoil

      Diesel oil is a mixture of liquid hydrocarbons obtained from crude oil and is used in engines, heating or for the production of electricity.

  • Gasoline

    Gasoline is a derivative of petronli commonly used as fuel for thermal engines. Components that are part of gasoline.

  • Refinery

    An oil refinery is an industrial plant, from the oil raw material by purification and distillation under normal pressure and under vacuum into fractions with a defined boiling range transferred.

  • Steam Machine

    A steam engine is a device that produces mechanical energy using steam. It transforms thermal energy into mechanical energy.

    • Types of Steam Engines

      Steam machines can be classified into these two types. Plunger machines and steam turbine machines, developed a posteriori.

  • Uses and Applications

    The main use of steam engines has been as a source of mechanical energy in industry. Currently, they are used to generate electricity.

    • Transport Uses

      The transport uses of steam engine are the steam machines that involve a displacement. These are applications designed to transport goods or people or to perform agricultural functions.

  • Stationary Applications

  • Safety in Steam Engines

    Working steam machines with pressure vessels that store fluids with a very high potential energy. With what is important to analyze and establish security systems.

  • History of the Steam Engine

    How the steam engine was invented, historical evolution of the steam engine. Experiments and construction of the first steam engines.

    • James Watt

      James Watt was a Scottish mathematician, engineer and inventor. His inventions were of great importance for the development of the thermal engine and the steam engine.

  • What Is Steam?

    Vapor to a substance in the gas phase that is at a temperature lower than the critical point. Importance of steam for human life.

  • Electric Motor

    The electric motor is a machine that transforms electrical energy into mechanical energy. Electric motors can be direct current or alternating current.

    • Types of Electric Motors

      Electric motors can be direct or alternating current. They can also be classified by asynchronous or synchronous motors.

    • Alternating Current Motor

      Alternating current motors are electric motors powered by alternating current. Description of the different types of engine.

    • Synchronous Motor

      Synchronous motors are a type of alternating current electric motor. Its speed is constant and depends on the frequency of the voltage.

  • Asynchronous Motor

    An asynchronous or induction motor is an electric motor whose speed of rotation of the rotor is different from that of the magnetic field of the stator.

    • Squirrel Cage Rotor

      A squirrel cage rotor is the rotating part of the common squirrel cage induction motor. The squirrel cage motor is a type of AC motor.

  • Direct Current Motor

    The direct current motor provides rotational mechanical energy using a direct electrical current. Types of direct current motors and its uses.

    • How Does It Work

      Basic explanation of the operation of a direct current electric motor. Arrangement of magnets and flow of electric current.

  • Series Engine

    The series motor is one types of DC motor. It has a high torque at startup and highly variable speeds.

  • Linear Motor

    A linear motor is an electric motor developed so that instead of generating a rotating torque it generates a linear displacement. It is used in trains.

  • Universal Motor

    The universal motor is a type of electric motor that can run on direct or alternating current. It is generally used in portable machine tools.

    • Universal Motor Operation

      The universal motor of the single-phase series is an electric motor that can be operated without changes with direct and alternating current. We analyze the operating principles.

  • Components of an Electric Motor

    The motor consists of a rotating part, a rotor and a fixed part, a stator. Know the composition and parts of the different types of electric motors.

    • Rotor

      The rotor is the component that rotates in an electrical machine. Together with the stator, they form the fundamental assembly for power transmission.

  • Stator

    The stator is the fixed part of an electrical machine. The moving part of an electric motor is called a rotor. The stator can act like a magnet to produce movement.

  • Motor Commutator

    A commutator is a rotary electrical switch in certain types of electric motors and electric generators that periodically changes the direction of the current.

  • Induced

    The armature is the part of an electrical machine, magnetically coupled to the inductor, where an electromotive force is generated by induction.

  • History of the Electric Motor

    The conversion of electrical energy into mechanical energy by means of electro-magnetism was demonstrated by the British scientist Michael Faraday. The first commutative DC motor was invented in 1832 by William Sturgeon.

  • Stirling Engine

    The Stirling engine is a heat engine designed to compete with the steam engine. In practice, it was used for domestic applications and for low-power motors.

    • Advantages and Disadvantages

      Advantages and disadvantages of the Stirling engine compared to internal combustion engines. Comparison with otto petrol and diesel alternative engines.

  • Stirling Cycle

    Analysis of the ideal cycle of a Strirling engine. Comparison with the real cycle. Volume pressure diagram. Main characteristics that differentiate the real cycle from the ideal cycle.

  • Stirling Engine Applications

    Stirling engines can be used in: mechanical propulsion, electrical generation systems, heating and cooling.

  • History of the Stirling Engine

    Stirling engine travel in history. From its beginnings as an alternative to the steam engine until the appearance of electronics.

  • Blog

    Block related to the world of the motor from an educational and entertaining point of view. Articles of analysis, evaluation and opinion on thermal and electric motors.

    • Types of Engines

      Classification and description of the types of engines. Internal and external combustion heat engines. Electric motors. Power motors and non-thermal motors.

    • Physical Power Engine

      Physical power motors harness the kinetic or potential energy of some element. Air motor and hydraulic motor are two examples.

  • What Is Thermodynamics?

    Thermodynamics studies the movement of heat between a physical system. This study is determined by the laws of thermodynamics.

    • Zeroth Law of Thermodynamics

      The zeroth law of thermodynamics is defined as: Two systems in thermal equilibrium with a third are in equilibrium with each other

  • First Law of Thermodynamics

    The first law of thermodynamics is a formulation of the principle of conservation of energy and states that the internal energy of an isolated thermodynamic system is constant.

  • Second Law of Thermodynamics

    The second law of thermodynamics is a principle of classical thermodynamics that establishes the irreversibility of many thermodynamic events, such as the passage of heat from a hot body to a cold one.

  • Third Law of Thermodynamics

    The third principle of thermodynamics, sometimes called Nernst's theorem, relates the entropy and the temperature of a physical system.

  • Thermodynamic Transformations

    The thermodynamic transformation is a process by which a thermodynamic system passes from a state of thermodynamic equilibrium to another. A system is in equilibrium when the main variables of the system remain constant.

  • Chemical Thermodynamics

    Chemical thermodynamics is the study of the interrelationship of heat and work with chemical reactions or with physical changes of state within the limits of the laws of thermodynamics.

  • What Is Heat Energy?

    Heat energy is the form of energy that any body with a temperature above absolute zero possesses. All thermal energy can be converted into mechanical energy

  • Mechanical Energy

    Mechanical energy is the sum of potential energy and kinetic energy. This energy is associated with the movement and position of an object.

  • What Is a Pascal in Physics?

    The pascal is a unit used to measure internal pressure, mechanical stress, Young's modulus and tensile strength. It is defined as a newton per square meter.

  • Cogeneration

    Cogeneration is the process of simultaneous production of mechanical energy and heat. The heat can be used to heat buildings and / or in industry.

  • Boiler

    A boiler is a container, or a set of tubes, used to heat water or other fluid. To heat the liquid can be used various fuels such as diesel, coal, biomass, etc.

  • What Is an Engine?

    The engine is a machine capable of transforming a source of energy into mechanical energy or mechanically continuous work.

    • How Does Electric Vehicle Work?

      Electric vehicles are powered by one or more electric motors that are powered by the energy stored in a rechargeable battery.

  • High Performance Motors

    Meet the high performance engines and start to notice energy savings but also in your economy. They are perfect for cars and factories.

  • Electric Motors for a More Sustainable Future

    Electric motors are increasingly common in vehicles especially because they allow more sustainable consumption.

  • Solar Vehicles

    A solar vehicle is a type of vehicle powered by an electric motor whose power comes from the photovoltaic solar energy that is obtained from solar panels installed in the vehicle body.

  • Electricity

    Electricity encompasses a set of phenomena related to electric charges. This term is also used to designate the branch of physics that studies electrical phenomena and their applications.

    • Electric Current

      Electric current is the flow of electric charge that passes through a material per unit of time.

  • Eddy Currents

    Eddy currents are the currents induced in the masses of conductive metals that are immersed in a variable magnetic field or that, in motion, through a constant or variable magnetic field.

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