When a building component is exposed to fire, its performance can affect the safety of the entire building. A wall panel, door assembly, service penetration, ceiling element, or other building component may look solid under normal conditions, but how will it behave when exposed to high temperatures? Will it maintain its integrity? Will it limit the spread of fire? Can it continue to perform its intended function for the required period? These are the kinds of questions that Fire Resistance Testing helps answer.

At Guangzhou Chuangge Automation Equipment Co., Ltd., we develop and customize testing equipment for different industrial and laboratory applications. Our Fire Resistance Test Apparatus for Small Building Components (Horizontal and Vertical Furnace) is designed to support controlled fire exposure tests on suitable small building components and specimens. By selecting a Horizontal Furnace, a vertical furnace, or a configuration that combines the two testing arrangements, customers can plan their equipment around the specimens they need to evaluate and the test methods they intend to follow.

We understand that purchasing a Fire Resistance Testing system is not simply a matter of choosing a furnace. Customers also need to consider specimen dimensions, mounting methods, temperature measurement, control systems, safety protection, data recording, laboratory space, and the standards relevant to their projects. If these details are not discussed before manufacturing begins, the finished equipment may not fit the actual testing workflow.

That is why we approach each project by discussing the customer's testing objectives first. We then review the relevant technical requirements, confirm the equipment configuration, and determine which functions need to be included. Our goal is to provide a practical testing solution that suits the customer's application rather than offering a standard configuration that may not meet every laboratory's needs.

1. What Is a Fire Resistance Test Apparatus for Small Building Components?

A fire resistance test apparatus is a specialized testing system used to expose a specimen to controlled heating conditions and observe its response. Depending on the applicable test method, the system may be used to evaluate aspects such as load-bearing capacity, integrity, insulation performance, deformation, or other specified behaviors. The exact evaluation criteria depend on the type of component, the test standard, and the test procedure agreed upon for the project.

Our fire resistance test apparatus for small building components is intended for testing applications where specimens can be accommodated by the selected furnace and its supporting structure. It can be considered by building material manufacturers, fire testing laboratories, engineering research organizations, product inspection facilities, and other institutions that need controlled fire exposure testing.

The term “small building components” should not be interpreted as meaning that every small object can be tested in the same way. Different specimens have different installation requirements. A small wall assembly, for example, may require a vertical mounting arrangement, while a floor or ceiling-related specimen may require horizontal installation. Other components may need special frames, seals, supports, or measurement points. Before selecting equipment, we recommend confirming the specimen type, its dimensions, its intended installation position, and the performance criteria that must be assessed.

Horizontal furnace and vertical furnace: what is the difference?

The main difference is the orientation in which the specimen is mounted and exposed to the test conditions. A horizontal furnace is generally considered for specimens that need to be installed horizontally, while a vertical furnace is generally used for specimens that require vertical installation. The appropriate arrangement depends on the test method, specimen geometry, support conditions, and the way the component is used in a building.

For example, a laboratory investigating a ceiling-related assembly may need a horizontal test arrangement. A laboratory evaluating a suitable wall-related specimen may need a vertical arrangement. These examples are only general guidance; they do not establish that every ceiling or wall product can be tested in either furnace. The specimen dimensions, mounting method, and applicable standard must be checked before confirming suitability.

We discuss these details with customers during the equipment planning stage. If the laboratory expects to test more than one specimen type, we review whether separate furnace configurations or a customized solution would be more appropriate. This helps customers avoid investing in a system that cannot accommodate their planned testing program.

Typical application areas

• Building material manufacturers: For research and product development involving fire performance.

• Construction component manufacturers: For evaluating suitable doors, panels, partitions, ceiling elements, and other assemblies within the limits of the selected equipment.

• Third-party testing laboratories: For conducting specified fire resistance tests and maintaining test records.

• Quality inspection organizations: For testing products according to their assigned procedures and technical requirements.

• Universities and research institutions: For studying the behavior of building materials and components under controlled heating conditions.

• Engineering and technical centers: For supporting material research, design verification, and product development projects.

The apparatus is a testing tool, not a certification by itself. A test result can support an evaluation or certification process, but the result's acceptance depends on the applicable standard, test method, laboratory capability, and the requirements of the relevant authority or certification body.

2. How Does the Horizontal and Vertical Furnace System Work?

The basic principle of a fire resistance furnace is straightforward: a specimen is installed in a specified position, exposed to a controlled heating process, and monitored according to a defined test procedure. The equipment provides the physical and control systems needed to create and record the required test conditions. The detailed operating sequence, however, depends on the furnace design, the selected test standard, and the specimen being evaluated.

Step 1: Confirm the specimen and test method

Before the test begins, the operator needs to identify the specimen, confirm its dimensions, and determine how it must be installed. The applicable test method may specify requirements for specimen preparation, supporting construction, joints, seals, restraints, loading conditions, thermocouple locations, and other details. These requirements matter because an incorrectly prepared or mounted specimen can affect the test outcome.

At the equipment planning stage, we ask customers to provide available drawings, specimen information, relevant standards, and any laboratory-specific requirements. If the customer is developing a new test method, the technical team should define the necessary conditions before the equipment configuration is finalized. This early review helps us identify special fixtures or measurement functions that may be needed.

Step 2: Install the specimen

The specimen is mounted in the designated test position using the specified frame, support structure, or installation arrangement. In a horizontal configuration, the specimen is arranged horizontally; in a vertical configuration, it is arranged vertically. The mounting system must suit the specimen and the selected procedure.

It is important not to treat specimen installation as a minor detail. Gaps, edge conditions, supporting structures, and restraint methods may affect how heat travels through the assembly and how the specimen responds during testing. For this reason, the required fixture dimensions and mounting conditions should be confirmed before manufacturing. Where the test method requires a particular supporting construction, that requirement must be followed rather than replaced with a convenient but unverified alternative.

Step 3: Apply the specified heating conditions

Once the specimen is installed and the necessary checks are complete, the furnace follows the heating procedure defined for the test. A control system regulates the heating process, while temperature measurement devices monitor the relevant conditions. The target temperature-time relationship, allowable deviations, sensor arrangement, and other operating requirements depend on the applicable test method.

Some fire resistance tests use a prescribed furnace temperature-time curve. One commonly referenced example is the standard time-temperature curve used in fire resistance testing. However, not every fire test follows the same curve, and a standard curve should not be assumed to apply to every product or project. Before testing, the laboratory must confirm which curve and conditions are required.

For our equipment, the control and measurement configuration should be matched to the agreed technical specification. We do not recommend choosing a furnace based only on a maximum temperature figure. Temperature control, sensor placement, furnace conditions, specimen size, and test duration all influence whether a system is suitable for the intended work.

Step 4: Monitor the specimen and record results

During the test, the operator follows the required procedure and monitors the specimen's behavior. Depending on the method, this may involve observing visible changes, measuring temperatures on specified surfaces, monitoring deformation or loading, checking integrity-related indicators, and recording other required data.

The available sensors, data acquisition channels, software functions, and reporting features should be specified according to the laboratory's needs. Some customers may require basic temperature monitoring, while others may need more extensive measurement and recording capabilities. The final configuration should make it possible for the laboratory to collect the data required by its test procedure without adding unnecessary functions that increase complexity or cost.

Step 5: Complete the test and review the records

At the end of the test, the operator follows the required shutdown and cooling procedures and checks the recorded information. The test report should identify the specimen, the relevant procedure, the equipment and measurement information required by the laboratory, and the observed results. Where a formal classification or certification is required, the laboratory must apply the relevant assessment rules.

Our role is to provide equipment that supports the agreed testing workflow. The validity and acceptance of test results also depend on correct specimen preparation, operator training, calibration or verification of relevant instruments, adherence to the applicable procedure, and the laboratory's quality system.

Reference table: key stages of a fire resistance test

Source: General workflow summarized from established fire resistance testing practices and the procedural principles covered by EN 1363-1, Fire resistance tests — General requirements. The exact steps and acceptance criteria must be checked against the applicable edition of the standard and the product-specific test method.

3. Main Features and Practical Advantages

When we design a fire resistance testing system, we focus on the functions that help laboratories carry out their planned tests in a controlled and repeatable way. A furnace is not useful simply because it can produce high temperatures. It must also accommodate the specimen, support the required heating procedure, provide suitable measurement arrangements, and fit into the laboratory's operating environment.

Horizontal and vertical testing configurations

The horizontal and vertical furnace arrangements address different specimen orientations. Selecting the right arrangement can simplify specimen installation and help the laboratory follow the intended test method. If a customer works with several specimen types, we review the dimensions and mounting requirements of each type before recommending a configuration.

A horizontal furnace and a vertical furnace should not be considered interchangeable just because both provide high-temperature exposure. Their specimen support structures, mounting arrangements, furnace openings, and installation requirements may differ. The correct choice depends on the test program rather than the name of the equipment alone.

Temperature control matched to the test procedure

Temperature control is one of the central functions of a fire resistance test apparatus. The furnace must follow the specified heating conditions within the tolerances required by the applicable method. The required control performance depends on the standard, the furnace design, the sensor arrangement, and the equipment specification.

During project discussions, we review the required temperature range, heating curve, measurement points, control approach, and data recording needs. We then incorporate the agreed functions into the technical proposal. If the project requires a particular temperature accuracy or uniformity, the relevant value and verification method should be clearly documented instead of being assumed from a general product description.

Measurement and data recording options

Reliable records make test results easier to review and compare. Depending on the agreed configuration, the apparatus may be equipped with temperature sensors, data acquisition hardware, control software, and recording functions. Additional measurement channels or customized reporting requirements can be discussed during the design stage.

Not every laboratory needs the same level of automation. A research laboratory may have specific requirements for data export and experimental observation, while a routine testing facility may prioritize a straightforward operating interface and consistent record keeping. We aim to match the control and recording functions to the actual workflow.

Fixtures and specimen support tailored to the application

Specimen support is a practical issue that deserves attention early. A fixture that is suitable for one assembly may not be suitable for another. The dimensions, support conditions, sealing arrangement, and installation method must be checked against the relevant test procedure.

We can discuss customized mounting structures and related components when the customer's specimen requirements call for them. To make this process efficient, customers should provide drawings, photographs, dimensions, material information, and details of the intended test method whenever available. These documents help our team assess the required interface and reduce the chance of design changes later in the project.

Safety-oriented equipment design

Fire resistance testing involves high temperatures and potentially hazardous operating conditions. The equipment design and laboratory installation therefore need appropriate consideration of thermal protection, electrical safety, ventilation or exhaust arrangements, access control, emergency shutdown, and other relevant safeguards. The exact safety features depend on the furnace configuration, heating system, local regulations, and customer requirements.

We review the safety-related requirements that are included in the project specification. The customer must also prepare a suitable laboratory environment, provide the required utilities, and follow the equipment operating and maintenance instructions. Safe operation depends on both the machine and the way it is installed and used.

Designed around the customer's actual test program

We do not assume that all customers need the same furnace dimensions, measurement functions, or automation level. Before confirming a project, we discuss the specimen size, test frequency, intended standards, data requirements, installation conditions, and future expansion plans. This gives the customer a clearer basis for deciding which functions are necessary and which options can be left out.

For laboratories planning to expand their testing capabilities, it is worth considering not only the first specimen type but also likely future applications. A well-defined equipment specification can help the laboratory balance present needs, available space, budget, and future testing requirements.

Feature planning table

Source: Manufacturer's application-planning framework. This table is a configuration checklist, not a declaration that every listed option is included in every standard model. Final functions must be confirmed in the approved technical specification.

4. Applicable Standards and Test Planning

One of the first questions we ask is which standard or test procedure the customer needs to follow. This is more important than it may seem. Two products can both be described as building components, yet their test methods may differ because of their construction, intended use, installation position, or the performance characteristics being assessed.

For fire resistance testing, standards may define the heating conditions, specimen preparation, supporting construction, temperature measurement, integrity assessment, insulation criteria, loading arrangements, and reporting requirements. A furnace that is suitable for one test method may need additional fixtures or measurement functions for another. In some cases, the required test method may also fall outside the physical capacity of a particular furnace.

Common standards to discuss during project planning

EN 1363-1, commonly titled Fire resistance tests — General requirements, provides general principles and requirements for fire resistance testing. Product-specific standards may add requirements for particular building elements or components. For example, the EN 1364 series addresses non-loadbearing elements, while other standards address different types of construction elements or test objectives. The relevant part must be selected according to the specimen and intended evaluation.

ASTM E119 is another widely referenced standard in the field of fire tests of building construction and materials. It is not interchangeable with EN test methods in every respect. A project that requires ASTM-based testing must be reviewed against the applicable ASTM edition and the associated test conditions rather than assuming that an EN-oriented configuration automatically meets the same requirements.

These references are starting points for technical discussion, not a claim that one apparatus automatically complies with every listed standard. Standards are revised, and the applicable edition may depend on the country, customer specification, certification scheme, or regulatory framework. Before placing an order, we recommend that the customer identify the exact standard number, edition, relevant clause, and test objective.

How we confirm the right configuration

Our team reviews the standard and specimen details provided by the customer. We then identify the requirements that affect furnace orientation, specimen capacity, temperature control, measurement, loading, fixtures, and reporting. If a requirement is unclear, it should be resolved before the technical agreement is approved.

For projects that require third-party certification or formal laboratory accreditation, the customer should also confirm acceptance requirements with the relevant testing or certification body. Equipment selection alone does not guarantee that a laboratory or its results will be accepted. Calibration, verification, installation, operating procedures, staff competence, and the laboratory's quality management system may all be relevant.

Standards reference table

Sources: CEN/European standards catalogue for EN 1363-1 and the EN 1364 series; ASTM International's official standard information for ASTM E119. Standard titles and editions should be verified in the relevant official catalogue before the equipment specification is finalized. The table summarizes subject areas and does not certify product compliance.

5. Manufacturing, Customization, Inspection, and Delivery

At Guangzhou Chuangge Automation Equipment Co., Ltd., we specialize in customized testing equipment. We know that industrial testing projects often involve more than assembling a machine from standard parts. The equipment must fit the intended test method, the customer's specimen dimensions, the laboratory layout, and the way operators will use it.

Our manufacturing process therefore starts with technical communication. We want to understand what the customer needs to test, which requirements are mandatory, and what information must be collected during operation. This approach helps us turn a general equipment request into a more specific technical plan.

Stage 1: Requirement review and technical discussion

We begin by reviewing the application, specimen type, relevant standards, expected test frequency, laboratory conditions, and requested functions. Customers can provide technical drawings, reference photographs, specimen dimensions, or a written testing procedure. If the customer already has a technical specification, we use it as the main reference for the discussion.

Where the information is incomplete, we identify the missing details that may affect the design. For example, a maximum specimen dimension alone may not be enough to define the support frame. We may also need to understand the mounting method, specimen weight, edge conditions, or the location of measurement points. Clarifying these items early can help reduce later changes.

Stage 2: Configuration and design confirmation

After reviewing the requirements, we prepare the proposed equipment configuration and confirm the major technical interfaces. This may include the furnace orientation, specimen support, control system, measurement arrangement, operating functions, safety-related provisions, and site requirements.

The customer should review the technical proposal carefully. If a particular standard, temperature range, control tolerance, or measurement function is essential, it should be stated explicitly in the approved specification. A general product name is not enough to establish every technical detail.

Stage 3: Manufacturing and assembly

Once the technical requirements are confirmed, manufacturing and assembly proceed according to the agreed design and production plan. The exact workflow depends on the equipment configuration and the degree of customization. Major assemblies, electrical and control components, measurement interfaces, fixtures, and other specified parts are prepared and integrated according to the approved requirements.

Customized equipment benefits from consistent document control. Drawings, component specifications, electrical information, and changes made during the project should be managed against the agreed version of the technical documents. This helps the customer and manufacturer maintain a shared understanding of what is being built.

Stage 4: Inspection and functional checks

Before delivery, we arrange inspection and functional checks based on the contract and technical agreement. These may include checks of the equipment's appearance, assembly, control functions, measurement interfaces, and other agreed items. Where a specific test or verification procedure is required, it should be identified in the technical documents so that the acceptance process is clear to both parties.

Customers should distinguish between a general functional check and formal verification of performance against a particular standard. If the purchase requires documented temperature performance, calibration information, or a specific acceptance test, those items should be discussed before the order is placed. We recommend listing the required records and acceptance criteria in the contract rather than leaving them to interpretation at the end of production.

Stage 5: Packing, shipping, and installation preparation

Testing equipment may contain precision instruments, control components, electrical assemblies, and large structural parts. The packing method should therefore reflect the equipment's dimensions, weight, transport route, and sensitivity to vibration or moisture. Depending on the configuration, protective materials and sturdy wooden cases may be used to help protect the equipment during transport.

We can discuss sea, air, or land transport according to the destination, delivery schedule, shipment size, and budget. Before dispatch, the customer should confirm the delivery address, unloading arrangements, access route, available floor space, power supply, exhaust or ventilation needs, and any installation restrictions. These details are particularly important for furnace equipment, which may require careful site preparation.

Production lead time and commercial terms

For this category of customized testing equipment, the indicative production period is approximately 30–60 days. The actual lead time depends on the final specification, design confirmation, component availability, customization level, inspection requirements, and order schedule. The confirmed delivery date should be stated in the order documents after the configuration has been agreed.

Payment terms can be negotiated according to the order requirements and contract. Shipping arrangements are selected according to the destination and urgency. Packaging is planned around the actual equipment and transport conditions rather than using one fixed method for every order.

Manufacturing and delivery checklist

Source: Guangzhou Chuangge Automation Equipment Co., Ltd.'s stated project and delivery information, including an indicative 30–60-day production period. Actual inspection items, delivery schedules, packing methods, and commercial terms are subject to the approved quotation and contract.

6. Why Work with Guangzhou Chuangge Automation Equipment Co., Ltd.?

Choosing testing equipment is a technical decision with long-term consequences. A machine may be used for years, and the original configuration can affect the range of tests a laboratory is able to perform. We believe that clear technical communication and realistic specifications are just as important as the equipment itself.

Experience across different testing applications

We specialize in customized testing equipment for multiple industries. Our application areas include construction materials and components, wires and cables, plastics and textiles, electrical plugs, sockets and switches, electronic products, and home appliances. These industries have different testing needs, so our work involves understanding the intended application rather than relying on a single generic equipment design.

For fire resistance testing, this means focusing on the particular specimen and test method. We discuss how the specimen will be mounted, what conditions must be controlled, which measurements are required, and what records the customer expects to receive. The result is a more practical basis for selecting the furnace and related functions.

Customization based on technical requirements

We understand that laboratories may have special requirements that do not fit neatly into a standard catalogue description. Specimen size, support frames, measurement channels, control functions, and data output can all influence the equipment configuration. Our customization process gives customers a chance to discuss these requirements before manufacturing starts.

We also encourage customers to separate essential functions from optional preferences. This makes the quotation easier to review and helps keep the project focused on what the laboratory actually needs. If a feature is necessary for a specified test method, it should be written into the technical agreement. If it is optional, the customer can evaluate its value against budget and future use.

Quality management and documented processes

Our company operates with reference to established quality and management practices and has obtained ISO 9001 quality management, ISO 14001 environmental management, and ISO 45001 occupational health and safety management certifications, according to our company information. These management systems provide a framework for organizing processes and responsibilities. They should not be confused with product-specific fire test certification or proof that every equipment configuration meets every technical standard.

We also maintain a portfolio of more than 20 patents, including invention patents, utility model patents, and software patents, as stated in our company profile. These intellectual property activities reflect our work in equipment development. For a particular project, customers should still evaluate the approved specification, relevant documentation, inspection results, and suitability for their testing application.

Clear communication from quotation to delivery

Customized equipment projects can become difficult when the technical requirements are vague. We aim to make the process clearer by confirming the application, documenting the configuration, agreeing on the inspection requirements, and discussing shipping arrangements before delivery. If a customer needs special documents or acceptance checks, it is better to identify them early than to discover the requirement after manufacturing has finished.

Our team can review the customer's proposed specification and help identify the information needed for a quotation. We can also discuss production lead time, packing, shipping options, and installation preparation. The final commitments are recorded in the commercial offer and contract, so both sides have a clear reference throughout the project.

Practical support for long-term use

Fire Resistance Testing Equipment needs proper installation, operation, inspection, and maintenance. The laboratory should follow the supplied operating instructions, check the relevant sensors and instruments as required, and maintain appropriate records. Any calibration, verification, or periodic maintenance schedule should be determined by the equipment requirements, applicable procedures, and the laboratory's quality system.

Before purchasing, customers should ask what technical documents will be supplied, what training or commissioning support is included, and which spare parts or maintenance services are available. These questions help establish realistic expectations and make it easier to plan for the equipment's full service life.

7. Frequently Asked Questions About Fire Resistance Test Apparatus

Q1. What types of specimens can this apparatus test?

The suitable specimen types depend on the furnace configuration, available opening, support structure, measurement functions, and applicable test method. Potential applications may include selected small building components and assemblies used in construction research or quality testing. Before confirming suitability, we need to review the specimen's dimensions, construction, mounting requirements, and intended evaluation criteria. We do not recommend assuming that every building product can be tested in the same furnace.

Q2. Should I choose a horizontal furnace or a vertical furnace?

Choose according to the required specimen orientation and the applicable test procedure. A horizontal furnace is generally considered for horizontally installed specimens, while a vertical furnace is intended for specimens installed vertically. If your laboratory plans to test several types of components, send us the specimen drawings and relevant standards so we can review whether one configuration is sufficient or a different arrangement is required.

Q3. Can the apparatus be customized?

Yes, the equipment configuration can be discussed according to the project requirements. Potential areas for customization include specimen capacity, mounting fixtures, control functions, measurement channels, and data recording. The availability and feasibility of each option depend on the design and technical specification. We recommend providing a complete list of required functions during the quotation stage.

Q4. Which fire resistance testing standards does the equipment support?

The applicable standards must be confirmed for each project. EN 1363-1 provides general requirements for fire resistance testing, while product-specific standards and other standards, such as ASTM E119, may apply to particular test programs. These standards are not automatically interchangeable. Please provide the exact standard number, edition, relevant clauses, and test objective so that the proposed configuration can be reviewed against your requirements.

Q5. Does purchasing the furnace guarantee that my laboratory can issue an accepted certification report?

No. The equipment is one part of the testing process. Acceptance of a report may depend on the applicable standard, laboratory accreditation or authorization, instrument calibration or verification, staff competence, specimen preparation, operating procedures, and the requirements of the relevant certification body. Customers planning formal certification work should confirm these requirements with the responsible organization before ordering the equipment.

Q6. What technical information should I provide for a quotation?

To prepare a useful quotation, please provide the specimen type, maximum dimensions, weight if relevant, mounting orientation, applicable standard, required temperature-time conditions, measurement points, data recording requirements, and any special fixture or safety requirements. Drawings and photographs are helpful. If you do not yet have a complete specification, we can start with the available information and identify the details that still need confirmation.

Q7. How long does manufacturing take?

The indicative production period is around 30–60 days, depending on equipment specifications and customization requirements. The actual schedule may also depend on technical approval, component availability, inspection requirements, and the order plan. We confirm the delivery schedule after the main technical details have been agreed.

Q8. What is included in the delivery?

Delivery items are defined by the quotation and contract. The agreed package may include the main equipment, specified accessories, control components, operating instructions, and relevant technical documents. Inspection and functional checks are arranged according to the agreed requirements. If your project requires particular test records, calibration documents, software functions, or additional accessories, please list them before order confirmation.

Q9. How is the equipment packed and shipped?

Packaging depends on the equipment size, weight, structure, and transportation route. Protective materials and sturdy wooden cases may be used to reduce the risk of damage during handling and transit. Sea, air, or land transport can be discussed according to the destination, urgency, and budget. Before shipment, we recommend confirming unloading equipment, site access, floor space, power supply, and other installation conditions.

Q10. What should I prepare before the equipment arrives?

Prepare the laboratory space and confirm the required floor capacity, power supply, ventilation or exhaust arrangements, access route, unloading method, and safety measures. The exact requirements depend on the selected furnace and its technical specification. If installation or commissioning support is included in your order, the site should be ready according to the agreed installation plan.

Q11. Can the equipment be used for research and product development?

It may be suitable for research and development when the specimen, furnace capacity, measurement functions, and test procedure match the research objectives. Research projects sometimes require special sensors, data export, or non-routine test conditions. These needs should be discussed before manufacturing so that the equipment can be configured appropriately. Any departure from a standard test method should be clearly documented when the results are reported.

Q12. How should the equipment be maintained?

Maintenance should follow the supplied operating instructions and the laboratory's maintenance plan. Depending on the configuration, the laboratory may need to inspect the furnace structure, heating components, sensors, electrical connections, control system, fixtures, and safety-related functions. Calibration or verification requirements should be established for the relevant instruments. Maintenance records help the laboratory track the equipment's condition and identify issues before they disrupt testing work.

Request a Customized Fire Resistance Testing Solution

If you are looking for a Fire Resistance Test Apparatus for Small Building Components with Horizontal and Vertical Furnace Configurations, we invite you to share your testing requirements with Guangzhou Chuangge Automation Equipment Co., Ltd. We can review your application and discuss a suitable configuration based on the specimen, applicable test method, required measurements, and laboratory conditions.

For a faster technical review, please include the following information in your inquiry:

• Specimen type, material, and intended application.

• Specimen dimensions, weight, and mounting orientation.

• Required standard number and edition, if already known.

• Target temperature-time conditions and other essential test requirements.

• Required sensors, measurement points, data acquisition, and reporting functions.

• Laboratory location, available space, utilities, and expected delivery schedule.

With this information, we can better understand your project and identify the technical details that need confirmation before quotation. We focus on practical communication, application-based customization, and clearly documented requirements throughout the project.

Whether you are equipping a construction materials laboratory, expanding a fire testing facility, or developing a specialized testing program, our team is ready to discuss your requirements and help you plan a fire resistance testing system suited to your work.