CG2505-2 Integrated Test Apparatus for Fire Resistance, Impact, and Water Spray Testing of Electric Wires And Cables

1. Product Overview: One Integrated Testing Solution for Cable Fire Performance

When we evaluate the safety of electric wires and cables, we need to look beyond their appearance, conductor size, and basic electrical performance. A cable may work perfectly under normal conditions, but what happens when it is exposed to fire? Can it maintain its required electrical function? How does it perform when mechanical impact occurs during a fire? Can it withstand the combined effects of heat and water spray? These are practical questions that cable manufacturers, testing laboratories, and quality control teams need to answer before their products are used in demanding environments.

At Guangzhou Chuangge Automation Equipment Co., Ltd., we focus on the design and customization of testing equipment for industrial applications. Our CG2505-2 Integrated Test Apparatus for Fire Resistance, Impact, and Water Spray of Electric Wires and Cables is intended to support the evaluation of cable performance under specified fire-related test conditions. By bringing relevant testing functions together in one integrated system, the apparatus can help users organize their test procedures, manage test conditions, and collect useful evidence for product development and quality assessment.

For cable manufacturers, the value of an integrated testing apparatus is not simply that several functions are available within one equipment solution. The real value lies in being able to arrange the required tests around a clearly defined procedure. Instead of treating fire exposure, mechanical impact, and water spray as unrelated concerns, the laboratory can plan the evaluation according to the cable type, applicable test method, and intended application.

The CG2505-2 is designed for customers who need a specialized testing solution rather than a general-purpose machine. Depending on the confirmed configuration and agreed technical requirements, the equipment can be configured around the relevant fire resistance, impact, and water spray testing functions. Before placing an order, we recommend confirming the applicable standard, test temperature, exposure duration, sample dimensions, impact arrangement, water spray conditions, electrical monitoring requirements, and data recording needs.

The information above describes the product category and our general order arrangements. Exact operating ranges, dimensions, control functions, electrical measurement channels, and supported standards must be confirmed in the technical quotation or product specification. We do not assume that every possible test function is included in every configuration.

For companies searching for an integrated Fire Resistance Testing machine for electric cables, a cable fire impact water spray tester, or customized Wire And Cable Testing Equipment, the first step is to match the apparatus to the intended test procedure. A clear technical discussion at the beginning helps avoid unnecessary functions, unsuitable fixtures, and delays during installation or commissioning.

2. How the Integrated Test Apparatus Works

The working principle of the CG2505-2 depends on the selected test procedure and the functions included in the confirmed configuration. In general, an integrated cable fire testing system brings together a controlled test environment and the arrangements needed to expose a prepared cable specimen to specified conditions. These conditions may include fire exposure, mechanical impact, and water spray. The purpose is to evaluate how the specimen behaves under the selected test sequence, not simply to expose a cable to heat and judge the result by appearance.

We recommend beginning with the test standard or customer-approved method rather than choosing the machine settings first. A test standard may define the required specimen preparation, mounting position, exposure conditions, electrical continuity monitoring, sequence of operations, and evaluation criteria. The laboratory should identify these requirements before the equipment configuration is finalized.

Step 1: Prepare the cable specimen

Before a test begins, the operator prepares the cable sample according to the applicable method. This may involve cutting the specimen to the required length, preparing its ends, installing it on a designated support, and connecting the necessary electrical monitoring equipment. The mounting arrangement matters because the specimen's position, support spacing, and orientation can affect how it is exposed to heat, impact, and water.

Different cable constructions may require different fixtures or specimen arrangements. A small control cable, a power cable with a larger outer diameter, and a multi-core cable do not necessarily use identical mounting methods. For this reason, we need to understand the customer's cable construction and test requirements before confirming the fixture design.

Step 2: Establish the required test conditions

The operator then checks the equipment and establishes the conditions specified by the selected procedure. Depending on the configuration, these may involve the heating source, temperature monitoring, impact mechanism, water supply, control system, and electrical monitoring circuit. The test settings should follow the applicable method rather than a general value selected without reference to the standard.

Temperature is an important parameter, but it is not the only one. Exposure time, the position of the cable, the timing of an impact, water flow or spray distribution, and the condition of the monitoring circuit can all affect the validity of a test. The operator should verify that the required conditions are established before starting the formal test.

Step 3: Apply fire exposure and the specified mechanical or water conditions

Fire exposure places the cable under thermal stress. Depending on its construction, insulation and sheath materials may soften, decompose, or lose their original mechanical and electrical properties. If the test method includes mechanical impact, the specimen is also subjected to a defined physical disturbance. This helps evaluate whether the cable maintains the required performance when heat and mechanical stress occur together.

Water spray introduces another condition that may be relevant to cable safety. In a specified fire-and-water procedure, the specimen is exposed to water under defined conditions. The test arrangement must provide the required spray coverage and timing. Simply spraying water onto a hot cable is not enough to establish that a standardized test has been performed; the prescribed conditions and evaluation criteria still need to be followed.

The order of these operations is important. Some procedures use separate test stages, while others define a particular sequence or combination of conditions. We therefore recommend that customers provide the exact standard designation and edition, or a copy of the relevant test requirements, before confirming how the CG2505-2 should be configured.

Step 4: Monitor and evaluate the result

For cable tests concerned with circuit integrity, visual inspection alone is not sufficient. The relevant procedure may require an electrical monitoring circuit to determine whether the specimen maintains continuity during the specified exposure. Depending on the test method, the laboratory may also need to record temperature, test duration, impact events, water conditions, and any failure observed during the procedure.

The operator should record the actual test conditions and the specimen's behavior. A useful test record identifies the sample, test method, equipment configuration, relevant settings, observed events, and final evaluation. This information helps the laboratory compare samples, investigate failures, and explain the basis of its conclusions.

The table summarizes a general laboratory workflow rather than a substitute for a specific test standard. The actual procedure must be determined from the standard and the final equipment configuration. For customers purchasing a CG2505-2 integrated cable testing apparatus, we can use the agreed requirements to establish the appropriate equipment scope and documentation plan.

3. Key Features and Practical Technical Advantages

When customers evaluate a fire resistance, impact, and water spray testing machine, we encourage them to look at more than the number of functions listed on a product page. A useful testing system must suit the cable specimens, test method, laboratory environment, and daily operating needs. The following points explain the practical considerations behind an integrated test apparatus. Specific features are subject to confirmation in the final technical specification.

Integrated test planning

Combining relevant testing functions within one equipment solution can make laboratory planning easier. Staff can coordinate specimen preparation, equipment setup, test execution, and result recording around a defined workflow. Depending on the final design, an integrated arrangement may also reduce the need to move specimens between separate testing setups during a planned sequence.

Integration does not mean that every test must be performed simultaneously. The correct sequence depends on the applicable method. In some cases, fire exposure, impact, and water spray are separate stages or distinct procedures. The equipment should support the sequence that the laboratory actually needs, rather than forcing every test into one operating cycle.

Configuration based on real test requirements

Not every customer works with the same cable types or standards. One manufacturer may focus on fire-resistant power cables, while another may develop control cables for building systems or industrial equipment. A third customer may need an apparatus for research and comparison rather than routine production quality checks.

We approach customization by discussing the test objective first. Important details include cable diameter, number of cores, rated voltage, specimen mounting, fire exposure conditions, mechanical impact requirements, water spray arrangement, and the type of electrical monitoring required. This information helps us determine which functions, fixtures, controls, and accessories should be included in the equipment design.

Clear control and operation requirements

A testing apparatus should be practical for the people who use it. Operators need to understand how to prepare the specimen, check the system, start the test, observe abnormal conditions, and record the result. The required control functions should be defined during technical discussions, including which parameters are adjusted manually, which are controlled automatically, and which are displayed or recorded.

For customized equipment, these details are worth discussing before production begins. If a laboratory requires a particular recording format, alarm arrangement, or sequence control, the requirement should be included in the approved technical specification. We avoid treating an optional function as standard until its inclusion has been confirmed.

Attention to repeatable test conditions

Repeatability is important in cable testing because a difference in specimen preparation or test conditions can make two results difficult to compare. A suitable fixture, a clearly defined operating procedure, and a consistent record of test settings help the laboratory control avoidable variation.

Repeatability does not mean that every specimen will produce the same result. Differences in materials, manufacturing quality, cable structure, and sample condition may lead to different outcomes. The role of the apparatus is to help the laboratory apply the required test conditions in a controlled way so that the observed differences can be assessed properly.

Support for quality improvement

A failed test can provide useful information when the result is investigated carefully. For example, damage to insulation, loss of electrical continuity, or a change in cable behavior after exposure may point to areas that deserve further examination. The exact meaning depends on the test method and the observed failure.

Manufacturers can use properly documented test results to compare material formulations, review production processes, assess design changes, and decide whether additional verification is needed. A testing machine does not replace engineering judgment, but it gives the team a controlled way to obtain evidence about product performance.

Comparison of testing approaches

The table below compares common equipment planning approaches. It is a general operational comparison, not a measured performance ranking of specific machines. Actual benefits depend on the selected apparatus, laboratory workflow, and applicable standards.

Integration is not automatically the right choice for every laboratory. Some customers need separate apparatus because their procedures, specimen sizes, or testing schedules are different. Others prefer an integrated solution because they want to coordinate related tests and reduce unnecessary handling. We help customers compare these needs before deciding on a suitable configuration.

4. Applicable Standards, Test Methods, and Cable Testing Applications

Fire-related cable testing covers several different performance questions. These questions are related, but they are not interchangeable. Flame propagation testing examines how fire spreads along or among cables under defined conditions. Fire resistance or circuit integrity testing examines whether a cable maintains the required electrical function during specified exposure. Fire-and-water testing evaluates performance under a defined combination of heat and water. A laboratory must identify the actual objective before choosing the method and equipment.

For the CG2505-2, we recommend confirming the required standard, edition, and test category during the quotation stage. The product name describes its intended testing functions, but the name alone does not establish conformity with a particular standard. Suitability must be checked against the detailed requirements and the confirmed configuration.

Relevant reference standards

IEC 60331 is a relevant series for tests on electric cables under fire conditions where circuit integrity is assessed. IEC 60331-1:2018 covers a fire-with-shock method for specified cables with an overall diameter greater than 20 mm, within its stated scope. IEC 60331-2:2018 covers a corresponding method for specified cables with an overall diameter not exceeding 20 mm. Both standards describe defined test conditions and procedures; the applicable part depends on the cable and the test requirements.

BS 6387 is another important reference for cables required to maintain circuit integrity under fire conditions. The 2013 edition is titled “Test method for resistance to fire of cables required to maintain circuit integrity under fire conditions.” The standard includes performance requirements for fire resistance under specified conditions. Where a project requires a fire-and-water category or a fire-and-mechanical-shock category, the exact requirements should be checked in the relevant edition rather than inferred from a general product description.

These standards are useful starting points for a technical discussion. They should not be treated as automatic evidence that a particular machine supports every test described in them. The laboratory must verify that the equipment arrangement, controls, monitoring circuit, accessories, and operating procedure meet the needs of the specific test.

Sources for the table: the official IEC Webstore entries for IEC 60331-1:2018 and IEC 60331-2:2018, and the BSI listing for BS 6387:2013. These publisher pages provide the reference scope and edition information. Buyers should consult the full standard text for all applicable requirements.

Why fire resistance is not the same as flame retardancy

This distinction is important when purchasing cable testing equipment. Flame retardancy generally concerns how a material or cable behaves when exposed to flame and whether fire propagation meets specified criteria. Fire resistance or circuit integrity testing focuses on whether the cable continues to perform its required electrical function during defined fire conditions. A cable can have one performance characteristic without necessarily meeting the requirements of another test category.

Smoke density, heat release, toxic gas emission, and halogen content are also different testing subjects. A fire resistance and impact apparatus should not be assumed to measure all of them. If a laboratory needs smoke density testing or a separate flame propagation test, it should specify those requirements independently.

Industries and practical use cases

Wire and cable manufacturing: Manufacturers can use relevant test equipment during product development, process verification, and internal quality checks. Testing may help engineers compare cable constructions, review material changes, and investigate performance differences between samples.

Building electrical systems: Cables used in buildings may be required to meet specified fire performance requirements, depending on their application, project specification, and local regulations. Testing laboratories can use suitable apparatus to evaluate samples against the selected method. The applicable requirement should be determined from the project documents and relevant rules.

Power supply and electrical engineering: Power and control cables are used in a wide range of electrical installations. Depending on the system, maintaining circuit integrity during a fire may be an important safety consideration. Test engineers need to identify the cable's intended function and the required performance criteria before selecting the procedure.

Telecommunications and control systems: Communication and control cables may have different construction details and electrical monitoring requirements. The applicable test method should match the type of cable and its rated characteristics. The fact that a cable is used for data transmission does not mean that every power-cable test procedure is automatically appropriate.

Independent and in-house laboratories: Laboratories may need equipment for routine quality verification, product comparison, research, or testing to customer specifications. Their priorities can differ. Some focus on standard methods, while others need customized fixtures or specific recording functions. A clear statement of purpose helps define the correct configuration.

Product development and technical research: Engineering teams may use fire-related testing to study the effect of changes in insulation materials, sheath compounds, conductor arrangements, or cable construction. Test results can inform development decisions, but they should be interpreted together with the test method, sample details, and other relevant evidence.

Across these applications, the same principle applies: choose the equipment according to the required test, not just the industry name. A cable used in a high-risk environment may need several different evaluations, and no single test result should be treated as proof of every aspect of fire safety.

5. Manufacturing, Quality Checks, Customization, and Delivery

At Guangzhou Chuangge Automation Equipment Co., Ltd., we specialize in customized testing equipment. Our work starts with understanding what the customer needs to test, which method will be used, and how the equipment will fit into the customer's laboratory. This approach is especially important for integrated cable testing systems, where the relationship between the heating arrangement, mechanical impact mechanism, water supply, specimen mounting, and electrical monitoring can affect the overall design.

Requirement review and technical confirmation

Before production, we need to establish the basic technical requirements. These normally include the cable type, sample dimensions, required standard and edition, test temperature, exposure duration, impact requirements, water spray conditions, and the method used to monitor circuit integrity. Customers should also tell us whether they need data recording, specific control functions, customized specimen holders, or particular documentation.

If the customer is unsure which standard applies, we can discuss the intended use of the cable and the available technical information. The final selection of a test standard should be confirmed by the customer or the responsible technical authority. This avoids designing an apparatus around an assumed requirement that may not match the actual project.

Equipment design and component integration

Once the technical scope is agreed, the equipment can be planned around the required test functions. Important considerations include the structure supporting the specimen, access for loading and unloading, the placement of the heating source, the arrangement of the impact mechanism, water delivery, and the safety measures required for hot surfaces and electrical testing.

The control arrangement should also be considered early. Operators need to understand which functions are controlled by the system, which settings require manual adjustment, and how the test state is indicated. Where the customer requires data logging or a particular report format, the requirement should be confirmed before manufacturing rather than added as an unplanned change near delivery.

Assembly and functional inspection

After assembly, equipment undergoes functional inspection and performance verification according to the agreed scope. The purpose is to check that the specified functions operate as intended and that the equipment is ready for the agreed delivery and handover process. The exact checks depend on the configuration and the technical acceptance criteria.

For a customized cable testing apparatus, useful checks may include confirming the operation of the control functions, inspecting the mechanical arrangement, reviewing relevant heating and water system functions, and checking the electrical connections included in the agreed scope. These examples describe possible inspection activities; the final inspection plan must match the actual equipment design.

Functional inspection should not be confused with formal calibration, accredited laboratory testing, or third-party product certification. If the customer's project requires a calibration certificate, traceability to specific reference standards, independent verification, or a formal conformity assessment, this must be discussed separately and confirmed in writing.

Documentation and operator preparation

Technical documentation helps the customer install, operate, and maintain the equipment. Depending on the agreement, delivery documents may include the equipment specification, operating instructions, and other technical information associated with the order. Customers should confirm the required language, document format, and scope before the order is finalized.

We recommend that the laboratory prepare its own controlled test procedures based on the applicable standard and equipment configuration. The operator should know how to inspect the apparatus before use, prepare the specimen, verify the test conditions, manage the test safely, and record the results. A well-written procedure helps different operators follow the same steps and makes the laboratory's records easier to review.

Typical order and delivery process

The usual production cycle for our customized testing equipment is approximately 30–60 days. This is a planning estimate rather than a guaranteed delivery date. The actual lead time depends on the equipment specification, customization requirements, component availability, and the time required to confirm technical details. If the design changes after approval, the delivery schedule may also need to be reviewed.

The process above reflects our general approach to customized equipment orders. Exact milestones, inspection records, acceptance procedures, and shipment dates are agreed with the customer for each project.

Payment, transport, and protective packing

Payment terms are negotiable according to the order requirements and are confirmed in the quotation or sales agreement. We recommend that customers review the payment schedule, production lead time, technical scope, and acceptance conditions together before confirming the order.

Depending on the destination and customer preference, equipment can be shipped by sea, air, or land. The appropriate method depends on delivery urgency, transport cost, equipment dimensions, destination, and local logistics arrangements. Protective materials and sturdy wooden cases can be used as appropriate to help reduce the risk of damage during handling and transport.

For international orders, customers should also confirm the delivery address, unloading arrangements, import documentation, customs responsibilities, and any destination-specific requirements. For equipment with sensitive components or a large structure, these details are best discussed before packing so that the shipment plan reflects the actual installation conditions.

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

Choosing testing equipment is a technical decision as well as a purchasing decision. The apparatus needs to fit the test requirements, but the customer also needs a supplier who can discuss the application clearly, confirm the scope, and provide a practical route from specification to delivery. At Guangzhou Chuangge Automation Equipment Co., Ltd., our focus is customized testing equipment for a range of industrial sectors, including construction materials, wires and cables, plastics and textiles, electrical accessories, electronic products, and home appliances.

Experience with customized testing requirements

Different products call for different test arrangements. A machine designed for one specimen size or one test procedure may not suit another application without changes to the fixtures, control functions, or supporting components. We therefore encourage customers to share the technical details early, including drawings, test standards, sample photographs, and the expected operating sequence where available.

For the CG2505-2, this means discussing the required combination of fire exposure, mechanical impact, and water spray rather than assuming that all cable testing requirements are identical. The more clearly the test objective is defined, the easier it is to establish a useful and realistic equipment specification.

Established management systems

Our company has obtained ISO 9001 quality management system certification, ISO 14001 environmental management system certification, and ISO 45001 occupational health and safety management system certification. These management systems form part of our organizational approach to quality, environmental management, and workplace safety.

These company-level management system certifications should be understood separately from the performance of an individual testing machine. They do not, by themselves, mean that every equipment model is independently certified to every test standard. If a customer needs copies of certificates or wishes to verify their scope and validity, the relevant documentation should be requested and reviewed as part of supplier qualification.

Proprietary intellectual property and technical development

Our company has a portfolio of more than 20 patents, including invention patents, utility model patents, and software patents. This portfolio reflects our ongoing involvement in equipment development and technical improvement. For customers purchasing specialized testing equipment, product development capability is useful because the final solution may need to address application-specific requirements that are not fully covered by a standard configuration.

Patent ownership should not be treated as a substitute for evaluating the suitability of a machine. The practical questions remain whether the proposed configuration can support the required test procedure, whether the specification is clear, and whether the agreed inspection and documentation requirements can be met.

Clear technical communication

We believe that a successful customized order depends on a clear understanding between the supplier and the customer. Before production, both sides should agree on the model, technical parameters, included functions, accessories, delivery documents, payment terms, and acceptance requirements. This reduces the risk of misunderstandings about what is included in the quoted price and what must be arranged separately.

When discussing the CG2505-2 integrated cable fire testing apparatus, we encourage customers to send the applicable test standard or the relevant clauses whenever possible. If the requirement comes from an end user, project specification, or laboratory procedure, sharing that source helps the technical team review the request more accurately.

Practical support from inquiry to delivery

We aim to make the purchasing process straightforward. Customers can begin with the cable application and test objective, then move to technical confirmation, quotation, manufacturing, inspection, packing, and shipment. The usual production cycle is around 30–60 days, subject to the confirmed specification and customization scope.

Our goal is not to promise that one machine can solve every testing problem. It is to help each customer define a suitable equipment configuration for the required task. A clear specification and a realistic understanding of the test method are the foundation of a reliable purchasing decision.

7. Frequently Asked Questions About the CG2505-2 Cable Fire Testing Apparatus

Q1. What is the CG2505-2 Integrated Test Apparatus used for?

The CG2505-2 is intended for integrated testing related to fire resistance, mechanical impact, and water spray of electric wires and cables, according to the confirmed equipment configuration and test method. It can support cable manufacturers and laboratories that need to evaluate cable behavior under specified fire-related conditions. The precise functions and supported procedures should be confirmed in the technical specification.

Q2. Does the CG2505-2 comply with IEC 60331 or BS 6387?

Compliance should not be assumed from the model name alone. IEC 60331 and BS 6387 define specific test requirements, and the suitability of a particular apparatus depends on its configuration, test controls, specimen arrangement, monitoring functions, and the procedure used. Please provide the required standard and edition so that the requested functions can be reviewed against the relevant requirements.

Q3. Can the apparatus perform fire resistance, impact, and water spray testing in one machine?

The product is designed as an integrated testing solution for these functions. However, whether the requested operations can be performed in a particular sequence, and which functions are included, depends on the confirmed configuration. Some standards require separate stages or distinct arrangements. The test sequence must follow the applicable method rather than an assumed all-in-one cycle.

Q4. What is the difference between Fire Resistance Testing and flame retardancy testing?

Flame retardancy testing generally evaluates how a material or cable behaves when exposed to flame and whether flame propagation meets specified criteria. Fire resistance or circuit integrity testing evaluates whether the cable maintains the required electrical function under defined fire conditions. These are different performance questions, so the laboratory should choose the apparatus and test method according to the intended evaluation.

Q5. Can the machine test all types of electric wires and cables?

Not automatically. Cable diameter, construction, rated voltage, number of cores, mounting method, and applicable test procedure can affect the required equipment arrangement. Before ordering, please provide the cable specifications and test requirements. We can then review whether the proposed configuration is suitable or whether customized fixtures or additional functions are required.

Q6. What information should I provide to receive a quotation?

To help us prepare a useful quotation, please provide the cable type, sample dimensions, intended test standard and edition, required fire exposure conditions, impact requirements, water spray conditions, electrical monitoring needs, and any data recording requirements. If available, send a product drawing, sample photograph, or the relevant clauses from your test specification. Please also tell us the delivery destination and any special documentation requirements.

Q7. How long does manufacturing take?

The typical production cycle for our customized testing equipment is approximately 30–60 days. The actual lead time depends on the technical scope, design confirmation, customization, component availability, and order requirements. We recommend confirming the production schedule in the quotation or order agreement, especially when the equipment is required for a planned laboratory project.

Q8. What inspection is carried out before delivery?

Before delivery, the equipment undergoes functional inspection and performance verification according to the agreed scope. The specific checks depend on the final configuration and acceptance criteria. If your project requires additional inspection records, formal calibration, traceability documentation, or independent verification, please identify those requirements before the order is confirmed so that their availability and scope can be discussed.

Q9. Does purchasing the apparatus certify our cables?

No. Purchasing a testing apparatus does not automatically certify a cable or establish that it complies with a standard. Product conformity depends on the applicable requirements, the test method, the specimen, the results, and any certification or regulatory process required for the intended market. A laboratory should follow the relevant procedure and use the appropriate reporting or certification route for its project.

Q10. Can the equipment be customized?

Customization is an important part of our business. The available options depend on the test requirements and equipment design. Customers should discuss the required specimen fixtures, control functions, monitoring arrangement, water supply, documentation, and other project-specific needs before production. We will review the request and confirm the feasible scope in the technical proposal.

Q11. How is the equipment packed and shipped?

We can arrange shipment by sea, air, or land according to the destination, schedule, and order requirements. Protective materials and sturdy wooden cases can be used as appropriate to reduce the risk of damage during handling and transportation. Shipping method, packing details, delivery terms, and relevant documentation should be confirmed before dispatch.

Q12. What documents are provided with the apparatus?

Technical documents and operating instructions are provided as agreed in the order. The exact document package should be confirmed during technical discussions, including the required language, format, equipment specification, and any additional records needed by the customer's quality management process.

Q13. Can the equipment be used for research and internal quality control?

It may be suitable for these purposes when the selected configuration matches the test requirements. Manufacturers can use relevant test results to compare samples, investigate product changes, and support internal quality control. Laboratories should define the procedure, specimen preparation, evaluation criteria, and reporting requirements before starting the work.

Q14. How should I select the correct configuration?

Start with the test objective and the applicable standard. Confirm the cable dimensions, rated characteristics, exposure conditions, impact arrangement, water spray requirements, and electrical monitoring method. Then compare those requirements with the proposed equipment specification. This approach is more reliable than selecting a machine based only on a product title or a general description.

Conclusion: Discuss Your Cable Testing Requirements with Our Team

The CG2505-2 Integrated Test Apparatus for Fire Resistance, Impact, and Water Spray of Electric Wires and Cables is intended for customers who need a coordinated testing solution for evaluating cable performance under specified fire-related conditions. By bringing relevant functions into an integrated equipment design, it can support laboratory workflow planning, product development, and quality assessment when configured for the required method.

At Guangzhou Chuangge Automation Equipment Co., Ltd., we focus on customized testing equipment and practical technical communication. Our company holds ISO 9001, ISO 14001, and ISO 45001 management system certifications and has developed a portfolio of more than 20 patents. For each project, we work from the customer's application and technical requirements to establish a clear equipment scope, production plan, inspection arrangement, and delivery agreement.

If you are looking for a CG2505-2 integrated cable fire resistance tester, a wire and cable impact and water spray testing machine, or customized electric cable testing equipment, we invite you to share your test standard, cable specifications, and required functions with our team. We can review the information and discuss a configuration that fits your testing needs.

Contact Guangzhou Chuangge Automation Equipment Co., Ltd. to discuss your CG2505-2 testing equipment requirements and request a technical quotation.

References and technical reading

• International Electrotechnical Commission (IEC), IEC 60331-1:2018 — Tests for electric cables under fire conditions: Circuit integrity, Part 1.

• International Electrotechnical Commission (IEC), IEC 60331-2:2018 — Tests for electric cables under fire conditions: Circuit integrity, Part 2.

• British Standards Institution (BSI), BS 6387:2013 — Test method for resistance to fire of cables required to maintain circuit integrity under fire conditions.

Note: The standards above are provided as technical references for discussing cable fire testing requirements. They do not constitute confirmation that the CG2505-2 conforms to every listed standard. Applicable standards, editions, test conditions, functions, and acceptance requirements should be verified and agreed before ordering.