AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 1.jpg

AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 4.jpg

AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 3.jpg

AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 2.jpg

AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 5.jpg

AS 0925 New Design Linear Tubural Solenoid DC 45V Short Stroke Stronge Force From DrSolenoid M 6.jpg

AS 0925 New Design Linear Tubular Solenoid DC 48V Short Stroke Strong Force From DrSolenoid

Introduction of AS 0925 New Design Linear Solenoid Actuator

A tubular solenoid is an electromechanical device that converts electrical energy into mechanical motion. The following is a detailed introduciton :

Linear Solenoid Actuator Structure

Solenoid Coil: It consists of a copper wire coil, usually wound around a platic bobbin in the shape of a tube. The coil is often made of copper wire to ensure good electrical conductivity.

Plunger: Inside the coil-core assembly, there is a movable plunger, typically crafted from a magnetic material like soft iron2. The plunger can move axially within the tube.

Working Principle

Magnetic Field Generation: When an electric current passes through the solenoid coil, it generates a magnetic field according to the principle of electromagnetism. The magnetic field lines are concentrated inside the tube, creating a relatively strong magnetic field environment.

Plunger Movement: The magnetic field exerts a force on the plunger. In a pull solenoid, when the coil is energized, the plunger is drawn into the coil; in a push solenoid, the plunger is pushed out of the coil. This movement is used to perform various mechanical tasks.

Types Of Linear Tubualr Solenoid

Push Tubular Solenoid: When energized, it pushes the plunger out of the coil. It is typically used in applications where a component needs to be moved away from the solenoid, such as propelling a ball in a pinball machine2.

Pull Tubular Solenoid: It pulls the plunger into the coil when powered on. They generally have a longer stroke length and are more commonly used, for example, in door locks to pull the latch into place2.

Linear Solelnoid Actutator Applications

Automotive Industry: Used in power door locks, automatic transmissions, and starter motors2.

Healthcare Sector: Play a vital role in medical devices such as ventilators and patient beds2.

Industrial Automation: Employed in assembly lines, robotic systems, and sorting machines2.

Home Appliances: Found in washing machines, dishwashers, and refrigerators to control water flow and other mechanical operations2.

Safety Systems: Utilized in fire suppression systems to control the release of fire-extinguishing substances and in anti-lock braking systems in vehicles to modulate brake fluid pressure.

product details

Product Description

Brand	Dr. Solenoid	Model Number	As 0925
Rated Voltage (V)	DC 24 V---48V	Rated Power(W)	10-13W
Work Model	Tubular Push and PUll Type	Holding Force (N)	2 N
Stroke(mm)	3-5 MM	Reset Time(s)	1 S
Service Life	300 Thousand Times	Certification	CE,ROHS,ISO9001,
Material	Carbon Steel Housing with Zinc Plated Coating	Lead Wire Length(mm)	200
Install Style	Adjustable Screw	Tolerance of Dimension	+/- 0.1 MM
Water-proof	None	Insulation Class	F 155 Cel. Degree
Hi-Pot Test	AC 600V 50/60Hz 2s	Non-excitation Holding Force	0
Working Temperature	-10°C-100°C	Duty Cycle	1-100%
Thread Depth(mm)	/	Payment Term	TT, or LC At Sight
Sample Order	Yes	Warranty	1 Year
MOQ	500 pcs	Supply Ability	5000 pcs per Week
Delivery Time	30 Days	Port of Loading	shenzhen

How can I select the appropriate size of a tubular solenoid for a specific application?

Selecting the appropriate size of a tubular solenoid for a specific application involves considering multiple factors. Here are the key points to note:

Consider the Required Force and Stroke

Force Requirement: Determine the amount of force needed to perform the specific mechanical task. For example, if it's for a door lock, you need to calculate the force required to move the latch. Solenoids with larger diameters and more turns generally produce greater force.

Stroke Length: The stroke is the distance the plunger needs to move. Applications like valve control may require longer strokes. Longer solenoids are usually better for achieving longer strokes.

Evaluate the Space Constraints

Installation Location: Examine the available space where the solenoid will be installed. Measure the length, diameter, and any other relevant dimensions of the installation area. If space is limited, such as in a compact electronic device, a small-diameter and short-length solenoid is needed.

Shape and Orientation: Consider the shape and orientation of the installation space. Some applications may require a solenoid with a specific shape or mounting method to fit properly.

Analyze the Electrical Characteristics

Voltage and Current: Check the power supply available for the solenoid. Solenoids with different sizes have different voltage and current requirements. Larger solenoids typically need more current to generate sufficient magnetic force.

Inductance and Resistance: These affect the solenoid's performance and power consumption. The appropriate inductance and resistance values are related to the solenoid's size and are crucial for ensuring proper operation in the circuit.

Think about the Response Time

High-Speed Applications: For applications that require quick action, like in high-speed sorting machines, a small-sized solenoid with a lower inductance and less magnetic inertia is preferred as it can achieve a faster response.

Slow-Acting Applications: If the response time is not critical, a larger solenoid can be considered, which may offer other advantages like higher force.

Take into Account the Duty Cycle

Continuous Operation: If the solenoid needs to operate continuously for a long time, heat dissipation becomes important. Larger solenoids with better heat dissipation performance are more suitable for high-duty-cycle applications to prevent overheating.

Intermittent Operation: For applications with low-duty cycles, where the solenoid is only activated occasionally, a smaller solenoid may be sufficient and more cost-effective.

Consider Cost and Availability

Cost: Larger and more complex solenoids are generally more expensive. Balance the performance requirements with the budget. Sometimes, a slightly smaller solenoid with acceptable performance can be a more economical choice.

Availability: Ensure that the selected solenoid size is readily available in the market or from suppliers. Custom-sized solenoids may be more expensive and have longer lead