Trust in Honjenny Metal's rapid prototyping manufacturing capabilities

Prototyping Services

We offer CNC prototyping, prototyping tools, and 3D printing services.

Manufacturing Materials

Plastics like ABS, PMMA, POM, PP, PC, Nylon, etc.

Metals such as Aluminum, Zinc, Copper, etc.

Finishing Capabilities

Honjenny offers a range of finishing services including polishing, painting, sandblasting, printing, anodizing, electroplating, and more.

Rapid Prototyping Projects

Honjenny Metal is a rapid prototyping manufacturer with 28 years of experience
  • Aluminum Base made by Rapid Prototyping

    Aluminum Base made by Rapid Prototyping

  • Aluminum Cover made by Rapid Prototyping

    Aluminum Cover made by Rapid Prototyping

  • Aluminum Housing made by CNC Rapid Prototyping

    Aluminum Housing made by CNC Rapid Prototyping

  • Automotive In-take Tube made by Rapid Prototyping

    Automotive In-take Tube made by Rapid Prototyping

  • Engine Component made by Rapid Prototyping

    Engine Component made by Rapid Prototyping

  • Engine Filter made by Rapid Prototyping

    Engine Filter made by Rapid Prototyping



Our efficient and experienced engineering team is available to turn your design vision into a reality.


Equipment NameEquipment Model/SpecificationQuantity
Zinc Alloy Die Casting Machine160T4
Zinc Alloy Die Casting Machine200T1
Zinc Alloy Die Casting Machine280T1
Screw Air CompressorEAV37-71
CNC Milling MachineCNC-M4

CMMCarl Zessis1
X-ray DetectorSANDT1
Cleanliness Test EquipmentChina1
Leakage Test EquipmentChina2
Salt Spray Testing EquipmentChina1
Pneumatic Measuring InstrumentChina2
Hardness Testing MachineChina1
Color Meter MachineChina1
Thickness Testing MachineChina1
Electronic BalanceChina1
Density BalanceChina1
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Speak to an engineering consultant for your Rapid Prototyping parts to get customized suggestions and solutions based on your CAD and Step drawings.

Here is just one part but an important way that we’re serving you on rapid prototyping projects.

Honjenny Metal can offer full chain service if you have and needs on aluminum die casting parts. Looking learn more about aluminum die casting.


Prototyping is crucial for any product development. Honjenny Metal provides best Rapid Prototyping services to perfectly suit your needs. You will get answers to most of your questions about Rapid Prototyping from this guide. If you have any questions that are not present in the guide, then feel free to contact our customer support.

Rapid Prototyping is a method used in the early stages of product development to create preliminary physical models of a product for evaluation and testing. The focus of Rapid Prototyping is on the iterative process, optimizing the design through continuous testing and modifications, which helps to speed up the development and market launch of the product.

The significant advantages of Rapid Prototyping include the ability to identify and mitigate potential risks at an early stage of development, conduct market testing and validation, simplify communication among team members and stakeholders, and potentially shorten the time to market for the final product​​​​.

Moreover, Rapid Prototyping can employ various techniques and methods, such as 3D printing, CNC machining, rapid injection molding, and vacuum casting. Each of these methods has its characteristics and applicable scenarios, and can be selected based on the specific needs and material requirements of the project​​.

For instance, 3D printing is a commonly used Rapid Prototyping method applicable in various fields, including jewelry, footwear, industrial design, and the medical industry. Sheet metal Rapid Prototyping is suitable for industries requiring durable metal parts, such as energy and automotive. CNC Rapid Prototyping is appropriate for projects needing high precision and complex designs​​.

An important aspect of Rapid Prototyping is choosing the appropriate fidelity level. Fidelity refers to the degree of similarity between the prototype and the final product, including visual similarity (like sketches versus styled designs), functional similarity (static versus interactive), and the realism of content (using dummy data versus real content). Depending on the project's phase and objectives, prototypes of different fidelity levels can be chosen for testing and demonstration purposes​.

Rapid Prototyping is a process used in the early stages of product development to quickly create prototypes of a product. Its workflow can be summarized as follows:

Design Concept: Initially, the development team creates a digital model of the product using Computer-Aided Design (CAD) software based on the design concept.

Selecting the Method: Based on design requirements and objectives, an appropriate rapid prototyping method is chosen. Common methods include 3D printing, CNC machining, and rapid injection molding.

Prototype Creation: The design is transformed into a physical model using the chosen method. For example, in 3D printing, the printer builds the physical model of the product layer by layer according to the CAD model.

Evaluation and Iteration: After the prototype is completed, it is evaluated to check the feasibility and functionality of the design. Based on the results, the design may need to be modified and new prototypes made, a process that can be repeated several times.

Final Design: After multiple iterations, the product design is finalized, ready to move to the next phase, such as detailed design, engineering design, or production.

The key advantage of Rapid Prototyping is its ability to speed up the product development process and provide a tangible model for intuitive design evaluation, helping teams to quickly identify and solve problems, thereby improving the quality of the final product.

The advantages of Rapid Prototyping include:

Speeds Up Product Development: Rapid Prototyping allows for the quick creation of physical models, facilitating a faster transition from concept to product in the development process.

Identifies and Resolves Design Issues Promptly: Physical models enable designers and engineers to visually assess the feasibility of a design, allowing for the early detection and iterative improvement of potential design problems.

Enhances Communication: Physical prototypes serve as effective communication tools, helping project teams, stakeholders, and clients better understand the product design and functionality.

Reduces Production Risks: Testing product designs with prototypes before mass production can reduce errors during production, lowering risks and costs.

Improves User Engagement and Feedback Quality: Prototypes enable direct user interaction with the product, resulting in more valuable and targeted feedback.

Adapts to Design Changes: In the early stages of product development, design changes are relatively easier to implement, and Rapid Prototyping supports flexible adjustments to accommodate new requirements or feedback.

Rapid Prototyping not only enhances the efficiency of product development but also improves the quality and market adaptability of the final product.

The advantages of using CNC machining for rapid prototyping compared to other techniques are:

High Precision: CNC machining is a highly precise manufacturing process, particularly suitable for industries that require precision parts, such as the aviation industry. This precision ensures that the parts or products manufactured are highly consistent with the design drawings.

Consistency and Replicability: Controlled by computer programming, CNC machining can accurately replicate a design, maintaining high quality in every product, regardless of the production volume.

Reduced Labor Requirement: As CNC machines are computer-controlled, they require fewer operators, thereby reducing overall production costs.

Material Flexibility: CNC machining supports a wider variety of materials, including various metals and plastics, compared to other manufacturing processes like 3D printing.

Flexibility in Design and Production: The software of CNC machines can be easily reprogrammed to produce different products, adapting to changes in market demands.

While CNC machining involves higher equipment costs and may lead to the loss of certain manual skills, the advantages generally outweigh the disadvantages. These benefits make CNC machining a preferred method in many industrial and manufacturing settings, especially in rapid prototyping where high precision and consistency are required​​​​.

The main differences between Rapid Prototyping and Injection Molding include:

Production Method: Injection molding is a process where molten plastic material is injected into a mold under high pressure, suitable for mass producing standardized products. Rapid Prototyping (such as 3D printing), in contrast, does not require traditional molds and can directly transform 3D computer designs into physical models, ideal for manufacturing personalized and varied products.

Manufacturing Cost: Injection molding is more cost-effective for large-scale production due to the widespread availability of inexpensive raw materials. Rapid Prototyping is more cost-efficient in prototype modification, as changes only require adjustments to the CAD model without incurring additional manufacturing costs.

Application Fields: Injection molding is used for the mass production of uniform products, while Rapid Prototyping is better suited for the rapid development and manufacturing of small batches of diverse products.​

Rapid Prototyping and 3D Printing are not the same. Rapid Prototyping is a broader concept, referring to the quick creation of physical models of products in the early stages of product development for testing and evaluating designs. This process can use various techniques, with 3D printing being one of them. 3D printing constructs objects by adding materials layer by layer and is suitable for quickly manufacturing complex-shaped prototypes. In short, 3D printing is one method of achieving Rapid Prototyping, but Rapid Prototyping encompasses more than just 3D printing.

Rapid Tooling and Rapid Prototyping are not the same thing. Rapid Prototyping is primarily used for quickly creating models or prototypes in the early stages of product design for evaluation and testing. Rapid Tooling, on the other hand, refers to the use of rapid manufacturing technologies to produce production tools, like molds, which are then used for producing final products. In essence, Rapid Prototyping focuses on the creation of prototypes, while Rapid Tooling is about manufacturing tools or molds for the production process.

Rapid Prototyping is widely used in various industries, including but not limited to:

Automotive Industry: For designing parts and systems of new vehicle models.

Aerospace: Manufacturing complex aerospace parts and systems.

Medical Equipment: Creating custom surgical tools and patient-specific implants.

Consumer Electronics: Rapid development of new electronic products and components.

Industrial Design: Manufacturing prototypes of industrial products for testing and evaluation.

Architecture: Creating architectural models and complex structural elements.

Education and Research: Used for academic research and educational demonstrations.

These industries utilize Rapid Prototyping to shorten product development cycles, enhance design flexibility, reduce costs, and accelerate the time from concept to market.

The cost of Rapid Prototyping is influenced by several factors, including:

Material Costs: The type and amount of materials used directly impact the cost.

Manufacturing Complexity: More complex designs usually require more time and precision, increasing costs.

Size and Quantity: The size of the prototype and the number of units produced are significant cost factors.

Technology Used: Different Rapid Prototyping technologies (like 3D printing, CNC machining) have varying cost structures.

Post-Processing Needs: Prototypes requiring additional surface finishing or assembly can incur extra costs.

Design Modifications: Changes in design can lead to additional iterative costs.

These factors collectively determine the overall cost of Rapid Prototyping.

Engineering materials suitable for Rapid Prototyping include various types, such as:

Plastics: Materials like ABS, polycarbonate, and nylon are common for 3D printing and injection molding.

Metals: Aluminum, steel, and titanium alloys are used for more durable prototypes.

Resins: Utilized in Stereolithography (SLA) and Digital Light Processing (DLP) technologies.

Composite Materials: Such as carbon fiber-reinforced materials, offer added strength and lightness.

Specialty Materials: Like biocompatible materials for medical prototypes or conductive materials for electronic prototypes.

These materials are chosen based on the functional requirements, durability, and intended use of the prototype.

When selecting materials for Rapid Prototyping, consider the following:

Purpose of the Prototype: Choose materials based on the functional requirements of the prototype.

Mechanical Properties: Consider the strength, hardness, and durability required of the material.

Thermal Properties: Select materials according to the temperature requirements of the application environment.

Chemical Properties: Ensure the material can resist specific chemicals.

Cost and Availability: Consider the cost-effectiveness and availability of the material in the market.

Post-Processing Requirements: Some materials may require additional surface treatments or post-processing.

In the field of rapid prototyping, several key technologies are widely used. One is the liquid molding technology, primarily used for composite materials, particularly in the aviation sector. This technology enhances the fiber content in composite materials, improving the structure and performance of parts​​.

Another notable technology is metal powder-based laser rapid prototyping. This technology allows for the direct creation of metal parts with near 100% density. Its advantage lies in producing parts with rapid solidification characteristics, thereby enhancing the performance of the parts. For instance, the Laser Engineered Net Shaping (LENS) technology can manufacture various parts made of stainless steel, high-temperature alloys, titanium alloys, etc., exhibiting unique advantages in the fabrication of functionally graded materials​​.

3D printing is also a crucial branch of rapid prototyping. It can employ various materials, including metals, plastics, resins, etc., and is applicable in many fields such as industrial design, architecture, and medicine. In recent years, 3D printing has been used to create complex biological structures, such as artificial hearts and ears made through this technology​​.

Fused Deposition Modeling (FDM) is a type of 3D printing technology that uses thermoplastic materials. It is suitable for manufacturing prototypes, functional test parts, and final parts. This technology is widely used in industries such as automotive and aerospace. The advantage of FDM lies in its wide selection of materials, capable of meeting various mechanical and environmental requirements​​.

In summary, the choice of rapid prototyping technology depends on specific application requirements, including the type of materials needed, the complexity of the parts to be formed, cost considerations, and more.

Parts produced using rapid prototyping technology are often strong enough for many applications. Rapid Prototyping (RP) technology has been widely applied in fields such as industrial design, mechanical manufacturing, aerospace, military, and others where high demands for part strength and durability exist, indicating that parts produced by rapid prototyping can meet these requirements.

For instance, in the automotive manufacturing sector, rapid prototyping is used to produce high-quality internal and external parts, including complex functional components. These parts not only meet quality standards but are also capable of withstanding various stresses and environmental impacts encountered in daily use. The methods of rapid prototype manufacturing include 3D printing, rapid injection molding, and custom CNC machining, all of which can produce parts that comply with safety and quality standards.

Additionally, metal 3D printing technology, especially in heavy industries and medical fields, shows tremendous potential. Metal 3D printing can quickly form parts and is capable of producing complex and intricate designs that are difficult to achieve with traditional manufacturing methods. Moreover, the strength of these parts is generally higher than that of traditionally cast parts.

In summary, rapid prototyping technology is capable of producing parts with sufficient strength, particularly suitable for applications requiring rapid production and complex designs. However, the strength of a specific part also depends on the materials used and the specific forming process employed.

The equipment available for Rapid Prototyping (RP) technology varies widely, depending on the specific technique and application. Here's an overview of some common RP technologies and their equipment:

  1. Stereolithography (SLA): This is one of the earliest and most widely used RP technologies. It works on the principle of photopolymerization, using UV laser to solidify liquid resin layer by layer to create the final part. SLA is known for its high precision and good surface quality, allowing the creation of complex shapes and fine details.
  2. Laminated Object Manufacturing (LOM): In this process, layers of material (paper, ceramic foil, or metal foil) coated with a heat-activated adhesive are laminated together. A laser cuts the outline of the part in each layer, and then a new layer is added on top. This method is efficient for creating large parts.
  3. Selective Laser Sintering (SLS): SLS uses a laser to sinter powdered materials (such as metal, ceramic, or plastic) layer by layer to form a solid structure. This process is versatile in terms of materials and is capable of producing strong prototypes that can be used for functional testing.
  4. Fused Deposition Modeling (FDM): FDM works by extruding thermoplastic materials layer by layer to build up a part. It's a popular method due to its simplicity, low cost, and speed, making it suitable for creating complex prototypes in a few hours without pollution.

In addition to these technologies, there are also newer methods like 3D printing, direct shell production casting, direct metal laser sintering, and holographic interference manufacturing. Each technology has its unique equipment and material requirements, and the choice depends on the specific needs of the prototyping project.

RP technology is extensively applied in various industries such as automotive, aerospace, medical, consumer electronics, and more. The development and application of RP technology are continually evolving, focusing on improving materials, increasing manufacturing speed, enhancing reliability, and integrating with CAD/CAE systems​​​​​​.

The standard lead time for Rapid Prototyping varies depending on several factors, including the chosen technology, the complexity of the parts, the required quantity, and the materials used. Generally, rapid prototyping is able to produce parts or models in a shorter time compared to traditional manufacturing methods, offering more speed and efficiency.

For instance, some rapid prototyping service providers are capable of delivering molds within a single day. This efficient rapid mold manufacturing process benefits from specialization and a complex supply chain, allowing mold manufacturers to quickly obtain the necessary core materials and dimensions. In the case of CNC machining, the use of softer metals like unhardened steel and aluminum alloys can significantly reduce costs and speed up the mold-making process.

In terms of rapid prototyping techniques like 3D printing, the process is cost-effective and quick as it does not require tooling. This makes 3D printing a commonly used method for rapid prototype manufacturing, especially suitable for urgent and small-scale production projects.

Overall, the delivery time for rapid prototyping technologies is typically shorter than traditional manufacturing methods. However, the exact timing can vary based on the specifics of the project. For accurate estimates of delivery times for specific projects, it's best to consult directly with the rapid prototyping service providers​​​​​​.

The precision of Rapid Prototyping services has reached a considerably high level, meeting the requirements of various industries, including aerospace, automotive, medical devices, and other fields that demand high accuracy. Utilizing state-of-the-art manufacturing technologies such as 3D printing, CNC machining, vacuum casting, and sheet metal fabrication, rapid prototyping ensures the production of high-quality prototypes.

For instance, with 3D printing and CNC machining technologies, high-precision part manufacturing can be achieved. These technologies allow for precise control over the dimensions and shape of parts, with tolerances achievable down to 0.005 mm. Additionally, rapid prototyping technology can use three-dimensional laser scanning models to create prototype parts, further enhancing the ability to detect errors and misalignments in product geometries.

Moreover, the use of digital models reduces waste and the need for special tools, making the production of the first batch of prototypes more economical and efficient. With digital technologies and advanced manufacturing methods, rapid prototyping services are capable of providing high-quality, high-precision parts and prototypes in a short time, meeting the demands of various industries.

In summary, rapid prototyping services have reached a high standard in terms of precision, capable of meeting various complex and high-precision application scenarios.

To reduce the cost of rapid prototyping, you can adopt the following design strategies:

  1. Optimize Material Usage: Effective design should consider the quantity of material needed. Aim to minimize cutting and waste while ensuring the part's structural integrity and functionality. Techniques like nesting, where parts are arranged to maximize raw material use, and hollowing, where non-contributory areas to part strength or function are left empty, can save material.
  2. Recycle Scrap and Reject Parts: In any manufacturing process, some material waste is inevitable. However, many plastic materials can be recycled, reducing raw material costs. Any scrap or parts rejected due to quality issues can be ground and reprocessed, turning waste into valuable resources.
  3. Use Alternative Materials: Sometimes, the best way to save on material costs is to use cheaper materials. If the part design allows, cheaper and lighter materials can be used without affecting the part's function or durability.
  4. Optimize Manufacturing Processes: Well-optimized manufacturing processes can significantly reduce the production cost of plastic parts. This involves everything from the setup of the production line to the maintenance of machines.
  5. Quality Control: Ensuring a high level of quality control is an effective way to reduce manufacturing costs in the long run. Although investment in quality control may increase costs in the short term, it can save a lot of money by reducing the number of defective parts and preventing the shipment of flawed products.
  6. Just-In-Time (JIT) Manufacturing: JIT manufacturing is a method of reducing production system times and the response time from suppliers to customers, effectively reducing the manufacturing cost of plastic parts.

In the field of rapid prototyping services, the minimum quantity for prototypes is typically very flexible, often with no minimum order quantity required. This means that clients can order any number of prototypes according to their needs, whether it is a single prototype or a small batch of several dozen to several hundred pieces.

For example, some rapid prototyping service providers, like Wayken Rapid Manufacturing, offer small-batch production services without a minimum order quantity restriction, allowing for the rapid processing of orders to meet flexible customer demands. Additionally, companies like RapidDirect also provide customized injection molding services with no minimum order requirement, facilitating a swift transition from plastic molding prototypes to high-quality custom production parts.

This flexible approach to minimum order quantities makes rapid prototyping services particularly suitable for prototype development and small-batch production, rapidly responding to market demands and testing new design concepts, regardless of project size​​​​.

To get a quote for rapid prototyping, the general process usually involves the following steps:

  1. Choose a Service Provider: Start by selecting a company that offers rapid prototyping services, such as Xometry or RapidDirect.
  2. Upload Design Files: On the service provider's website, you typically need to upload your CAD files. These files should detail the design of the part or product you want to manufacture.
  3. Select Manufacturing Processes and Materials: Choose the appropriate manufacturing process (such as 3D printing, CNC machining, sheet metal fabrication, etc.) and the type of materials based on your specific needs.
  4. Receive Real-Time Quotes: Some platforms, like Xometry, offer real-time quoting features where you can see the cost directly on the website.
  5. Project Management and Logistics: Once you choose a service provider, they will handle project management, logistics, and shipping to ensure your design is rapidly transformed into a physical product.
  6. Support and Feedback: Service providers typically offer engineering support to ensure your needs are met and provide feedback throughout the process.

Remember, different service providers may have different quoting processes and requirements, so it's advisable to understand their service flow and policies in detail when choosing a service provider. For instance, RapidDirect offers a wide range of manufacturing capabilities and 24/7 engineering support to meet various rapid prototyping needs.

To ensure quality control in rapid prototyping services, various methods and measures are employed:

  1. Strict Quality Control Procedures: Rigorous quality control procedures are implemented throughout all rapid prototyping manufacturing processes to ensure that each step in the prototyping and part processing meets set quality standards. This includes monitoring, measuring, analyzing, and improving the production process.
  2. Adherence to International Quality Management System Standards: Such as ISO9001:2015, reflecting a commitment to continuous quality improvement and customer satisfaction.
  3. Quality Control Methods: Including Statistical Process Control (SPC), First Article Inspection (FAI), and Coordinate Measuring Machine (CMM). SPC uses statistical methods to monitor the manufacturing process, ensuring consistent quality output. First Article Inspection involves thorough checking and recording of all attributes and dimensions of the first produced part. The Coordinate Measuring Machine provides 3D measurement capabilities, allowing for high-precision checks of the produced parts.
  4. Regular Machine Calibration and Tool Maintenance: Ensuring that machines and tools used in CNC manufacturing are accurately calibrated and maintained regularly.
  5. Employee Training: Providing comprehensive training for operators to ensure they are proficient in quality control processes, with regular refresher courses and updates on best practices.
  6. Use of Advanced Testing Equipment: To measure and inspect each step of production, ensuring that projects meet strict quality specifications.

Through these methods, rapid prototyping service providers can ensure that the parts and models they produce meet high standards of quality, satisfying customer requirements.

Rapid prototyping services can include the design of parts, facilitating a swift and efficient transition from concept to physical product. Considering Design for Manufacturability (DFM) during the design stage is crucial, as DFM ensures that product designs are both manufacturable and cost-effective while meeting quality standards.

When designing parts for rapid prototyping, several key considerations should be taken into account to reduce costs and improve manufacturing efficiency:

  1. Simplify Design: Aim for simple and flat geometric shapes, avoiding complex non-planar and draft angle surfaces, which can increase the difficulty and cost of manufacturing.
  2. Optimize Internal Structures: Increasing the size of internal radii to reduce stress concentration points and enhance part strength.
  3. Material and Manufacturing Process Selection: Choosing the right materials and manufacturing processes is critical, as different materials and processes affect the quality, cost, and production time of parts.
  4. Use Standard Tolerances: Unnecessary tight tolerances can increase costs, while standard tolerances ensure that finished parts meet required specifications and functions without overburdening the budget.
  5. Consider Assembly and Use Requirements: The design should take into account the assembly and use requirements of the final product to ensure parts fit together correctly and function as intended.

By following these design guidelines, the rapid prototyping process can be optimized to reduce costs, shorten production times, and ensure product quality. Rapid prototyping service providers typically offer professional advice during the design phase to help clients achieve these goals.

Yes, we provide Design for Manufacturing (DFM) services, focusing on incorporating manufacturing methods and constraints at the design stage to prevent expensive features and production delays. DFM covers aspects such as manufacturing process selection, design practicability prediction, cost and delivery time reduction, and material selection. These reviews address all issues related to product design, process, and manufacturing to ensure that CNC prototypes and parts are produced in the best possible way.

Yes, we can ensure the confidentiality of your design. During our collaboration with clients, we adhere to strict confidentiality agreements, ensuring all submitted designs and related information are well protected and not disclosed or accessed by unauthorized third parties. We understand the importance of design confidentiality for our clients and take all necessary measures to safeguard your intellectual property and business secrets.

We possess extensive experience in rapid prototyping, covering the entire process from conceptual design to the final product. Our team utilizes the latest technologies, including 3D printing, CNC machining, and vacuum casting, to provide customized rapid prototyping solutions for clients across various industries. We focus on quality control and efficiency, ensuring timely delivery of each project to meet specific client requirements and expectations.

Yes, we provide rapid prototyping services to retail customers. Whether you need a single prototype or small-batch production, we offer high-quality, efficient custom services to quickly turn your ideas into physical products. Our services cater to projects of all sizes, aiming to meet the specific needs of different customers.

Rapid Prototyping plays a crucial role in product development by quickly transforming design concepts into physical models, allowing designers and engineers to evaluate and iterate designs in a short period. This not only accelerates the process from concept to market but also identifies and resolves potential issues before production, reducing costs and time delays, and enhancing the final product's quality and market competitiveness.

ODM/OEM businesses can rapidly validate designs, shorten product development cycles, and reduce R&D costs through rapid prototyping. Moreover, they can accurately assess the feasibility of product designs with physical models, identify design issues early, optimize product structure, thereby enhancing the final product's quality and competitive edge in the market.

Rapid prototyping is highly beneficial to engineers as it allows the quick transformation of design concepts into physical models. This enables engineers to validate designs, identify issues, and iterate improvements early in the product development process. Not only does this significantly reduce the time from design to production, but it also helps lower the cost of modifications, enhances the flexibility and efficiency of product development, and ultimately accelerates the product's market launch.