40k ultrasonic soldering iron equipment
Flux-free ultrasonic soldering iron for metals, glass, and ceramics.
1. Flux-Free Operation
Ultrasonic cavitation enables direct soldering without flux or metallization.
2. Versatile Material Compatibility
Brazes glass, ceramics, titanium, stainless steel, and molybdenum alloys.
3. Precise Temperature Control
20-700°C adjustable range with titanium alloy tool head for durability.
- Overview
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Product Description
Ultrasonic soldering iron is also called ultrasonic tin coating machine and ultrasonic soldering machine. It can use the cavitation of ultrasonic waves to braze metal and non-metallic materials without flux. The biggest difference with ordinary soldering iron is that for materials that are difficult to obtain tin, ultrasonic soldering iron can directly braze materials such as glass, ceramics, titanium alloys, stainless steel, molybdenum alloys, etc. without the need to metallize glass ceramics.
Product Details
Product name:Ultrasonic soldering iron equipment
Frequency:40-60k
Voltage:220v/50hz
refined grain:Tinning on glass
temperature range:100-400℃
Tool head:Titanium alloy
Input Voltage:110V/220V/230V
Output Temperature:20-700℃
Temperature Stability:Adjustable
Output Power:1600W
Device Overview
An ultrasonic soldering iron, also known as an ultrasonic tin applicator or ultrasonic soldering machine, utilizes the cavitation effect of ultrasound to bond metals and non-metals without the need for flux. The key distinction from conventional soldering irons lies in its capability to directly solder materials that are difficult to tin, such as glass, ceramics, titanium alloys, stainless steel, and molybdenum alloys, without requiring metallization of the materials—a feature that significantly simplifies the process and reduces costs. Ultrasonic soldering equipment is considered a more environmentally friendly welding solution. Compared to traditional soldering irons, it generates substantial heat during operation; combined with the high-frequency oscillations of ultrasound, this approach minimizes interference from oxide films on the workpiece surface and eliminates the bubble formation issues associated with conventional welding methods.

Operational principle
During ultrasonic tin welding, heat from a separate energy source melts the solder before applying vibrational energy. The molten solder then serves as the acoustic transmission medium for ultrasonic vibrations. When high-frequency vibration energy is applied to the molten solder, controlled acoustic cavitation occurs at the tip of the welding tool, breaking down and dispersing surface oxides. The collapse of these microcavities cleans all surfaces, allowing the liquid solder to wet and bond pure metals.

Device Advantages
1. Eliminate false soldering by eliminating the need for flux; utilize the equipment's high-temperature capability to securely weld materials to solder paste.
2. Features high speed, excellent efficiency, and superior welding quality. The welds are robust and free from delamination.
3. It can weld components that are difficult to solder with conventional soldering irons, such as glass or ceramic items that require flux.
4. The device is compact and lightweight, making it easy to move around during operation. It features simple operation, allows free adjustment of the temperature range, and is user-friendly.
Device Application
1. Manufacturing of glass ornaments;
2. Welding of heating contacts for automotive rear windows;
3. Coating/metalization of optical lenses;
4. Welding of superconductors, components, and ceramic accessories;
5. Fabrication of electrodes on glass and ceramic plates;
6. Vacuum sealing of glass tubes and bonding of hardware components;
7. Sealing of optical fiber glass (using metal clamps);
8. Mounting of electrodes on front and back contacts of solar cells (crystalline/film-based);
9. Bonding of leads (grid patterns) for metal/LCD glass hybrid integrated circuits;
How to Select a Model?
Differences from 60k ultrasonic soldering irons:
1. Amplitude and power: According to ultrasonic principles, higher frequencies correspond to smaller amplitudes. The 40k ultrasonic soldering iron exhibits greater amplitude than the 60k model. Typically, the power output of a 40k ultrasonic soldering iron ranges from 9–30 W, whereas that of a 60k model is generally 5–15 W, indicating a relatively higher power level for the 40k model.
2. Welding performance: The 60 kHz ultrasonic soldering iron operates at a higher frequency, delivering more concentrated energy and superior welding precision, making it suitable for delicate components. The 40 kHz soldering iron features greater amplitude and power, generating relatively more heat during welding; it may yield better results when working with thicker materials or those with excellent thermal conductivity.
3. Application scenarios: The 40 kHz ultrasonic soldering iron is commonly used in pre-treatment processes for silicon wafers or the semiconductor industry, and is also suitable for welding thin aluminum products as well as small, thin aluminum-magnesium alloy materials. The 60 kHz model is primarily employed in post-processing stages for semiconductor materials or extremely thin magnesium alloys, making it particularly suitable for welding micro components that require exceptional precision.
4. Mold dimensions: The mold size of ultrasonic soldering irons is typically inversely proportional to the frequency; a 40 kHz model requires a larger mold than a 60 kHz one.
Plant parameter
| Total Technical Parameters | Vibrating Component Parameters | Assemble Component Parameters |
| Specification Model: HC-MA4001GL | Cooling method: Air cooling | Transducer: Piezoelectric ceramic/imported aluminum |
| Device Power: ≤100W | Maximum service temperature: 400°C | Amplitude rod: high-strength titanium alloy |
| Operating frequency: 35.0–40.0 ± 0.5 kHz | Maximum allowable pressure: atmospheric pressure | Tool head: High-strength alloy steel |
| Temperature range: 100–400°C | Vibration component power: ≤100 W | Protective Shell: Aluminum Alloy |