Hot Melt Adhesive Drying Oven

The hot melt adhesive drying oven heats the air inside the box through electric heating elements, allowing the adhesive to melt and cure at a constant temperature. It is used to control the fluidity of the adhesive and ensure uniform coating adhesion. It is commonly used in the adhesive pre-treatment processes of the packaging and bookbinding industries.
Selection
When selecting, focus on the temperature range covering the material's melting point, the inner chamber size matching the workpiece volume, and the heating rate affecting production efficiency. Stainless steel inner chamber resists corrosion, and the digital temperature controller facilitates monitoring. The air circulation structure ensures uniform temperature, and the thickness of the insulation layer relates to energy consumption.

Terms

Standards

Instruments

Equipped with 8 Meters Oven, roller heating temperature up to 200 ℃, effective application width 500mm, Spreader thickness range 0.005-3mm, support automatic unwinding to winding process, suitable for hot-melt adhesive film.

$ 29120.00

Coating speed 1~ 10m/min adjustable, Spreader thickness range of 0.005-3mm, drying temperature up to 200 ℃, equipped with infrared drying and air cooling system to achieve efficient Spreader and drying.

$ 51711.00

The thickness range of Spreader is 0.01mm~ 2mm, the minimum gluing thickness is 0.01mm, the coating surface density ≤ +/- 1.5%, the dial Meter is used to fine-tune the gap and the Teflon baffle to adjust the width, and it supports forward and reverse continuously variable speed and automatic winding.

$ 4269.00

The equipment adopts High Accuracy modular Spreader station, all-electric control without air source, minimum glue thickness 0.01mm, Spreader speed 2-4.5 m/min adjustable, with electronic control precision tension to adapt to a variety of materials such as paper, plastic and metal film.

$ 5721.00

High Accuracy modular Spreader station structure, Spreader thickness range of 0.01mm to 2mm, coating speed 2-4.5 m/min adjustable, support forward and reverse stepless variable speed and automatic winding, gap adjustment Graduation up to 0.001mm, easy to accurately control the Spreader process.

$ 5399.00

Adopt hot air circulation system to ensure Temperature uniformity, Temperature Fluctuation +/- 1 ℃, volume 30L, with over temperature deviation protection and timing function, can adjust the air inlet and exhaust volume.

$ 453.00

Maximum Spreader width up to 1000mm, Spreader speed 1-10m/min adjustable, support unlimited length Spreader and automatic winding, forward and reverse stepless speed change, discharge and receiving reel tension adjustable, heating Rod and glue slot can be quickly disassembled to clean up residual glue.

$ 29120.00

Equipped with a universal joint device to make the page even and avoid tearing; the upper limit setting function of the force value can automatically return to protect the page when the set value is reached; Measurement range 0-300N, accuracy +/- 1%; support 5-120mm/min speed adjustable.

$ 3507.00

Temperature range RT + 10~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃, hot air circulation system to ensure uniform temperature in the studio, optional RS485 interface to record temperature and humidity paraMeters.

$ 483.00

Temperature range RT + 10~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃, using hot air circulation system to ensure uniform temperature in the studio, with independent temperature limit alarm and RS485 interface optional function.

$ 3170.00

Temperature range RT + 10~ 300 ℃, Temperature Fluctuation +/- 0.5 ℃, hot air circulation system to ensure uniform temperature, with timing function and independent temperature limit alarm, support RS485 interface to record data.

$ 419.00

The equipment supports 400mm maximum Spreader width, Spreader thickness 0.01-2 mm adjustable, with forward and reverse stepless speed change and automatic winding function. The rubber groove and upper rubber wheel can be quickly disassembled and cleaned to adapt to different material tension control needs.

$ 37188.00

Temperature range RT + 10~ 250 ℃, Temperature Fluctuation +/- 0.5 ℃. Stainless steel liner structure is durable, hot air circulation system ensures uniform temperature in the studio, supports timing function and temperature limit alarm protection.

$ 1739.00

Temperature range up to 500 ℃ and Fluctuation only +/- 1 ℃, equipped with hot air circulation system to ensure Temperature uniformity, support independent temperature limit alarm and RS485 Communication interface to meet the precise temperature control requirements in high temperature environment.

$ 1637.00

Temperature control accuracy of +/- 0.5 ℃, equipped with eight standard test force, can accurately determine the melt flow performance of polymers at high temperatures, to meet a variety of material testing needs.

$ 977.00

Articles

Laboratory Drying Oven Model Selection - Difference Between Forced Air Convection and Non-Forced Air Convection
This article on the selection of laboratory drying ovens primarily introduces the differences between forced convection (air-blowing) and natural convection (non-air-blowing) drying ovens.
Safety Considerations for Selecting Explosion-Proof vs. Ordinary Drying Ovens in Paint Laboratories
When selecting a drying oven in a paint laboratory, the type should be determined based on the safety risks of the samples and the environment.
Peel strength tester measures the peel force of hot melt adhesive resin.
The peel strength tester is used to measure the adhesive properties of hot melt adhesive resins, simulating the actual peeling process by recording changes in force values through constant-speed stretching.
Determination of dry matter content in pulp using an electric thermostatic drying oven.
This article introduces the method for determining the dry matter content of pulp using an electric thermostatic drying oven. Dry matter content is a key indicator for evaluating pulp quality. The principle of determination involves evaporating the moisture in the pulp through heating and calculating the content based on the mass difference before and after drying.
Universal material testing machine for testing the tensile strength of hot melt adhesive.
This article introduces the method of testing the tensile strength of hot melt adhesives using a universal material testing machine.
Method for Determining Peel Strength of Hot Melt Adhesives Using an Electronic Tensile Tester
This article introduces the standard method for determining the peel strength of hot melt adhesives using an electronic tensile testing machine. The test employs a 180° peel mode, where a sample coated with hot melt adhesive is clamped in the machine's fixtures and peeled at a constant speed. The peel strength is calculated based on the recorded force variations.
Application of T-peel Strength Tester in Hot Melt Adhesive Evaluation
This article introduces how the T-peel strength tester is used to evaluate the performance of hot melt adhesives. The tester simulates scenarios where materials are subjected to peel stress, measures and records the force and displacement during the peeling process, and calculates the average peel strength to assess the uniformity of adhesion.
Adhesion Retention Tester Evaluates the Cohesive Strength of Hot Melt Adhesive
This article introduces how to use a tack retention tester to evaluate the cohesive strength of hot-melt adhesives. During testing, a sample coated with hot-melt adhesive is attached to a test plate, and a weight is hung to apply a continuous shear stress. The time until detachment or the displacement is recorded, which directly reflects the internal cohesion of the adhesive.
Application of Initial Tack Tester in the Detection of Pressure-Sensitive Hot Melt Adhesives
The initial tack tester is a device used to measure the initial adhesive properties of pressure-sensitive hot melt adhesives, primarily by employing the rolling ball method or probe method to assess the adhesive force at the moment of contact.
Constant Temperature and Humidity Chamber Testing for Environmental Adaptability of Hot Melt Adhesive
This article introduces the method of testing the environmental adaptability of hot melt adhesive using a constant temperature and humidity chamber. The performance of hot melt adhesive is easily affected by temperature and humidity, and the purpose of the test is to evaluate its stability under different climatic conditions.
Evaluation of thermal aging life of hot melt adhesives using high-temperature oven method
This article introduces a method for evaluating the thermal aging life of hot melt adhesives using a high-temperature oven. The principle is based on the Arrhenius equation, where aging is accelerated by increasing the temperature to simulate performance changes under long-term use.
Operation Tips for Laboratory-Scale Hot Melt Adhesive Coating Machines
This article introduces the key operational points of a laboratory-scale hot melt adhesive coater. The equipment is primarily used in laboratories to apply hot melt adhesives uniformly onto substrates, supporting the research, development, and testing of adhesives.
Karl Fischer moisture analyzer detects moisture content in hot melt adhesives.
This article introduces the method of using a Karl Fischer moisture analyzer to detect the moisture content in hot melt adhesives. The Karl Fischer method is based on the quantitative reaction of iodine, sulfur dioxide, and water, and calculates the moisture content by measuring the amount of iodine consumed.
Operation procedure of hot melt adhesive ash content determination instrument
This article introduces the operating procedures of a hot-melt adhesive ash content analyzer. The instrument incinerates the sample at high temperatures to decompose the organic components, leaving behind inorganic residues as ash. The ash content is then calculated based on the mass change before and after incineration.
Capillary Rheometer for Determining the Shear Viscosity Curve of Hot Melt Adhesives
This article introduces the method of measuring the shear viscosity curve of hot melt adhesives using a capillary rheometer. The principle involves pushing molten hot melt adhesive through a capillary, measuring the pressure and flow rate, and then calculating the shear stress and viscosity.