Hydraulic Repair Iowa - Social Proof
410 Freel Dr Ste 102, Ames, IA 50010 515-292-2599

Hydraulic systems, with their wide range of applications, are integral to various industrial sectors, including paper mills, logging, manufacturing, robotics, and steel processing. They stand out as an efficient and cost-effective means for generating movement or repetitive actions. In this article, we delve into the essentials of Hydraulic Repair Near Me hydraulic systems, exploring their definitions, designs, and components.

Essentials of Hydraulic Systems

Hydraulic Repair Near Me Hydraulic systems operate on a simple principle: they use pressurized fluid to perform tasks. This principle is key in heavy equipment, where the power of hydraulic fluid is paramount. In these systems, pressure applied to the fluid is transmitted uniformly, enabling the execution of heavy lifting and precision tasks.

This article also includes a segment from our Hydraulic Repair Near Me course on hydraulics systems, emphasizing the simplicity and versatility of these systems.

Applications and Components of Hydraulic Systems

We will explore various applications and basic components of Hydraulic Repair Near Me hydraulic systems, as illustrated in a sample from our online course.

Hydraulic Circuits

Hydraulic circuits, which transport liquid through interconnected components, control fluid flow and pressure. These circuits, akin to electrical circuits, are often used in chemical processing.

Hydraulic Pumps

Hydraulic pumps transform mechanical power into hydraulic energy, essential for the operation of hydraulic systems. They exemplify Pascal’s Law, which states that pressure changes in a confined fluid are uniformly transmitted.

Hydraulic Motors and Cylinders

Hydraulic Repair Near Me Hydraulic motors convert hydraulic pressure into mechanical energy, often integrated into hydraulic systems alongside cylinders and pumps. Hydraulic cylinders, on the other hand, transform hydraulic energy into linear motion.

Hydraulic Energy and Safety

Safety is paramount in handling hydraulics due to the potential hazards of hydraulic fluids and the immense power of hydraulic energy. This aspect is crucial in workplace safety programs and adheres to OSHA’s Lockout/Tagout rules. Our online safety courses provide insights into managing these hazards effectively.

In summary, Hydraulic Repair Near Me hydraulic systems are a powerful and versatile tool in industrial settings, requiring careful management and understanding of their principles, components, and safety protocols.


It’s crucial for anyone involved in managing hydraulic systems within your organization to have a thorough understanding of the equipment that generates hydraulic energy. This knowledge is key to ensuring that workers are adequately safeguarded through comprehensive procedures and training. Your Lockout/Tagout (LO/TO) program should reflect these procedures, including identifying all workplace hydraulic energy sources. Remember to conduct at least annual reviews of your program and procedures to identify any changes or areas for improvement.

The importance of proper training for individuals handling hydraulic systems cannot be overstated. This aspect should never be overlooked.

For those interested in gaining a deeper understanding of Hydraulic Repair Near Me hydraulic systems, we offer several courses. Our “Hydraulic System Basics” course covers fundamental hydraulic theory, common components, the concept of mechanical advantage, and the issue of hydraulic fluid contamination. Additionally, we provide two more detailed courses: “Hydraulic System Valves and Components” and “Hydraulic System Equipment.”

Gaining a comprehensive understanding of these systems is vital not only for effective servicing and maintenance but also for recognizing how hydraulic systems operate to prevent injuries and accidents.


Hydraulic systems utilize pressurized hydraulic fluid to generate and transfer the power necessary for operating various types of equipment. These systems are found across numerous industries and applications, ranging from the operation of aircraft doors in aerospace to machinery in manufacturing.

All hydraulic systems, despite their varied designs for specific applications, adhere to a fundamental principle: force exerted at one point is conveyed through incompressible hydraulic fluid to another point. Their key mechanical components include a hydraulic pump, motor or cylinder, and the necessary plumbing. Below is a detailed overview of these components.

Hydraulic Pumps

Hydraulic pumps in these systems exert pressure on the fluid. Various types of pumps are available, each suited to specific applications:

  • Gear pumps, which use interlocking gears for fluid movement, are ideal for systems with pressure requirements below 1,500 psi.
  • Piston pumps have a piston moving within a cylinder. They come in fixed and variable displacement types, where the former moves a set fluid amount per stroke, and the latter adjusts fluid output according to system needs.

Hydraulic pumps can be powered by various means:

  • Manually, through human-operated devices like pedals or levers.
  • Engine-driven, where the pump is attached to the engine’s accessory gearbox.
  • Electrically, using AC or DC motors.
  • Pneumatically, through air-powered motors.
  • Hydraulically, where the pump draws power from another hydraulic system via a power transfer unit.
  • Ram Air Turbine (RAT), powered by a turbine extending into the airstream.

Hydraulic Motors and Cylinders

After the pump pressurizes the fluid, hydraulic motors and cylinders use it to perform mechanical tasks. Hydraulic motors transform this pressure and flow into torque and rotational movement, available in gear, vane, and radial piston types. Hydraulic cylinders, which offer reversible force in one direction, consist of a piston and rod within a cylinder, moved back and forth by the hydraulic pressure.

Plumbing Components for Hydraulic Systems

The plumbing in hydraulic systems facilitates fluid movement as needed. Its components include:

  • Reservoirs to store the hydraulic fluid.
  • Filters and strainers to remove contaminants.
  • Shut-off valves for safety and preventing fluid ignition.
  • Control valves to direct the flow of pressurized fluid.
  • Pressure relief valves to maintain safe system pressure.
  • Hydraulic fuses that seal off lines if pressure drops too low.
  • Accumulators to store pressurized fluid, providing supplemental force in high-demand situations or pump failures.


The hydraulic pump serves as the core component for converting mechanical energy into hydraulic energy. It supplies hydraulic oil that fulfills the requirements of the hydraulic system and acts as the primary power source. Key characteristics of hydraulic pumps include:

  • Complex structure, requiring advanced processing techniques, high-quality materials, and precise installation.
  • As the most heavily loaded and frequently used component in the hydraulic system, hydraulic pumps are prone to rapid wear and deterioration.
  • Hydraulic pumps are not easily installed or disassembled, and frequent disassembly is not advisable to maintain installation accuracy. Damage to the hydraulic pump impacts the system’s pressure and flow significantly.