In this guide to wire harness design, development, and manufacturing, well start with the basics and move through the process of manufacturing. First, understand what a wire harness is, then well discuss the steps involved in designing a wire harness. Well review components and materials, followed by a discussion of the options for purchasing wire harnesses. Lastly, well how automation is influencing wire harness manufacturing.
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A wire harness is a set of cables, wires, and connectors connecting electrical components in an electronic device. It is a crucial component of any electronic system and can be custom designed for specific applications. A wire harness helps simplify the wiring process by reducing the number of cables needed and providing an easy way to connect components.
Wire harnesses offer many benefits, including improved reliability, reduced installation time, safety, and cost savings. Typically, due to being application-specific, wiring harnesses are custom designed, tailoring them for maximum efficiency and performance. Different types of wire harnesses are available depending on the application, such as automotive, aerospace, and industrial. With the help of advanced design tools, designers can quickly create custom wire harnesses with high accuracy and precision.
The process of designing and developing a wiring harness involves several steps, starting with gathering information about the requirements and specifications of the wire harness. The next step is creating a schematic or wiring diagram of the wire harness, followed by selecting the appropriate components and materials. The actual design of the harness involves laying out the wires, connectors, and other elements in a specific configuration. Next, testing the wiring harness ensures that it meets the required performance criteria. Finally, the completed harness is inspected and tested before installation in the final product. This step-by-step process ensures the design and development of the wire harness meet the requirements and specifications of the final product.
Wire harnesses consist of various components and materials in the manufacturing process. The most common elements include wires, connectors, terminals, and protective sleeves. Wires are typically made from copper or aluminum and are coated with insulation to prevent electrical interference. Connectors join wires and come in various shapes and sizes depending on the application. Terminals are attached to the wire ends to connect them to other components. Protective sleeves to cover the cables provide additional protection from heat, moisture, and other environmental factors.
The materials used to manufacture wire harnesses can vary depending on the application and harness assembly requirements. Common materials include PVC, polyethylene, and polypropylene for insulation and nylon or polyester for protective sleeves. With specific applications where high temperatures or extreme environmental conditions are a concern, using more advanced materials such as Teflon or silicone is common.
Overall, selecting wire harness components and materials is critical to ensuring the harness performs reliably and meets the required specifications. Manufacturers must carefully consider the application and environment of the wiring harness to determine the appropriate components and materials.
The two main options for wire harnesses are pre-made and custom solutions. While custom solutions offer more flexibility and customization options, pre-made harnesses have several advantages that make them popular for many applications.
One significant advantage of pre-made wire harnesses is cost-effectiveness. Manufacturers typically mass-produce pre-made harnesses, enabling them to manufacture them at a lower cost than custom solutions. As a result, this can significantly benefit smaller production runs or applications with tight budget constraints.
Pre-made wire harnesses offer faster lead times and shorter production times. Since pre-made harnesses are already manufactured and available for purchase, they can be shipped out quickly and installed in the final product with minimal delay. With shorter lead times, this can be particularly beneficial for applications with tight production schedules or where downtime is not an option.
Designers and manufacturers typically create pre-made wire harnesses to meet industry standards and regulations, providing an additional advantage. Therefore, it ensures that the harness meets the necessary safety and performance requirements for the application. On the other hand, custom solutions may require additional testing and certification to ensure compliance with industry standards.
In summary, pre-made wire harnesses offer several advantages over custom solutions, including cost-effectiveness, faster lead times, and compliance with industry standards. While custom solutions may be necessary for some applications, pre-made harnesses are a reliable and efficient option for many applications.
Manufacturing wiring harnesses has traditionally been labor-intensive and time-consuming, but automation is revolutionizing the industry and improving efficiency and productivity. Automation involves using robotic systems and computer-controlled machines to perform traditionally manual tasks.
One use of automation in manufacturing wiring harnesses is through automated wire-cutting and stripping machines. These machines can cut and strip wires with high accuracy and speed, reducing the time and labor required for these tasks.
The use of automated assembly systems is streamlining the production of wiring harnesses. These systems use robots and other machines to assemble wires, connectors, and other components into the final harness. By automating the assembly process, manufacturers can reduce the risk of errors and improve overall production efficiency.
Another way that automation is revolutionizing the manufacturing of wiring harnesses is through the use of data analysis and monitoring. Manufacturers can identify areas to improve and optimize production to reduce waste and increase efficiency by collecting and analyzing production processes and performance data.
Overall, the use of automation in manufacturing wiring harnesses is improving efficiency, reducing labor costs, and improving the overall quality of the final product. As automation technology advances, it will continue to play an increasingly important role in the industrys future.
A wire harness is a critical component in electronic systems that offers many benefits. Custom wiring harnesses are designed using advanced tools, and the process involves several steps, including selecting appropriate parts and materials. Pre-made wire harnesses offer advantages such as cost-effectiveness, faster lead times, and compliance with industry standards. Automation is revolutionizing the manufacturing of wiring harnesses, improving efficiency and productivity. As automation technology advances, the industry can expect to see even more significant improvements in the future.
It never hurts to remind yourself of the basics when it comes to designing your cable harness.
For your application to function as intended, every component and cable assembly must be carefully considered. This goes for your wire harness. The use of all wire harness types can improve the efficiency, reliability, and safety of a system by reducing the risk of loose connections, shorts, and other electrical problems.
Specific factors will inform your wire-harness design. Remembering what these factors are will give you a solid understanding of exactly what your application needs when it comes to your wire harness.
Take these 10 factors into consideration to help you design your wire-harness assembly:
This is indeed basic, but its very necessary for designing the most reliable wire harness possible for your application. What do you need your wire-harness design to do, other than transmit electrical signals and power between different components in your system?
You wouldnt design, say, automobile wiring harnesses the same as you would a custom stereo wiring harness. Think about your applications specific needs. For example, does it need to resist vibration? (All electronics vibrate, but an engine wiring harness has additional considerations.) Does your wire harness need to protect against electromagnetic interference (EMI)? Stand up to certain environmental conditions, such as heat or pressure?
Always review relevant standards, which provide guidance on the selection of suitable wires for specific applications. This will ensure that the wire you ultimately choose meets the necessary requirements. That said, here are the major factors to consider when designing your wire-harness assembly.
What are your electrical requirements? This is determined by the wires gauge or thickness. Choosing the right gauge wire demands that you consider the carrying capacity and amount of current the wire needs to conduct. This is measured in amps. Length matters too. The longer the wire, the more voltage is lost through resistance and heat. You can get around this problem by increasing your wire gauge, which of course, will increase your amp capacity.
The suitable wire can be used easily in your applications environment. For example, if the harness will be exposed to high temperatures, a wire with a high-temperature rating should be selected. If the harness will be exposed to moisture, then choose a wire with a moisture-resistant coating.
Correct and efficient outputs are also determined by the wires ability to withstand mechanical stresses. This includes bending or twisting without breaking or losing its electrical properties. The wire should also have good abrasion resistance if it will be exposed to rubbing or scraping.
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Connectors create an electrical circuit while helping to protect your wires from environmental conditions, such as abrasion and EMI.
The selection of connectors should be based on their electrical and mechanical properties. The wires themselves will influence your connectors, so youll need to have an idea of the wires material, gauge and length.
Circuit size and density, along with space limitations, should also be considered. Its also helpful to think of the ease of joining wires and disconnecting wires if necessary. And, of course, do you need insulation?
Youll need the appropriate connectors for board-to-board, wire-to-wire, or board-to-wire. Give thought to your connector hardware too. Your clamping device and other hardware are used to install and support the connector, so it needs to be of excellent quality.
Use standard, common-use connectors and other components. Itll make your life easier to source what you need. That said, the search can still be time-consuming, so go a step further with the cloud-based Arcadia Component Database. Not only can you search for the right parts quickly, but you can also call up the necessary documentation for components. It also helps you avoid duplication in inventory and allows your purchase team to review price details quickly.
The routing of wires plays a major role in successful cable harness design. First, ensure that wires are routed in a way to make accessibility easy. Optimum positioning is key. You want the harness to be easy to install and maintain. If any wires need replacing or repairing, that should be easy too.
You also need to take into account any potential sources of EMI that could affect the performance of your wiring harnesses. The routing in your cable and wire harness design should minimize the risk of interference and prevent any signal degradation.
Do this according to their function, voltage, and signal type, which will help prevent interference and ensure the wires are correctly connected to their respective devices. You want to make sure that wires are routed to the correct electrical system points.
Designing wire harness assemblies for strain relief will prevent headaches. Failure to do this can result in wires becoming loose or breaking due to vibration, pulling, or other forces. This is especially important in applications where the wire harness is exposed to high levels of mechanical stress.
Your first task is to identify potential sources of stress. Consider cable management to help with strain relief. You can protect your wire harness assemblies with components such as grommets, cable clamps, or cable ties. Your choice will depend on the specific application, environment, and overall design of your wire harness.
Next, determine the appropriate location in the wire harness for any strain relief components. Typically, they should be placed at the points where the wires exit the wire harness, as these are normally the most vulnerable points. (You also need to ensure that the wire harness is flexible enough to allow for movement and bending as necessary, while still maintaining its structural integrity.)
Dont forget to consider material for your strain relief. It must be able to stand up to environmental conditions and provide the properties you need it to, such as strength or chemical resistance.
Its critical to get it right in the early stages, so its advisable to not attempt your wire-harness diagram by hand. The well-designed wiring diagram is created using a good wire-harness design tool such as computer-aided design or ECAD.
Take, for example, the cloud-based, state-of-the-art Arcadia suite. It enables engineers to design and simulate electrical systems and wiring harnesses. For instance, you can check your design to see behavior and voltage drops in real-time, with just a browser, and make any necessary adjustments. You can even find out if your design meets safety standards at this stage.
With the right software such as Arcadia Schematic you can improve accuracy and design quality while ensuring you meet industry standards and specifications. These tools can help you identify potential issues, such as wire-to-wire interference, voltage drop, or wire length limitations, which can result in errors or quality issues.
They also speed up the design process and significantly reduce errors and rework. Arcadia Harness, which integrates seamlessly with its schematic cousin, shows you components from every viewpoint and offers splice balancing functions with comprehensive splice diagram generation, illustrating how to construct each splice. You can add labels in your wire-harness diagram for connectors and splices.
You need to ensure that the wire harness is flexible enough to allow for movement and bending as necessary, while still maintaining its structural integrity. The Arcadia suite enables you to do this. All of this adds up to tremendous cost savings, helping you optimize the design phase. Manual wiring harness diagrams are simply an inefficient way to work.
The wire harness should be covered with a protective sheath or sleeve to protect it from damage. Providing an extra layer of insulation will protect your wires and cables. This involves understanding the environmental conditions the wire harness will be subjected to and the material of your protective covering.
For example, if youre designing a custom engine wiring harness, vibration, rattles, fluids, and chemicals will be a concern. The material for your coverage will need to handle those threats. Protective coverings vary by type, from pulled-on braided tubing (or loom) to tapes, spiral wrap, and heat-shrink sleeves, which also ensure neat wire bundling.
Always keep testing in mind, even in the early design stages. Itll help keep you on your toes. Dont overlook anything when testing your prototype, or you risk downtime at the Quality Control stage and youre back to the design table. Make sure you have the proper equipment that can check electrical integrity. It should be able to locate faults across all conductors of the Unit Under Test (UUT) without human intervention.
Youre testing the quality of your connections. Youll want to include embedded resistors and electrical load. Essentially, you want testing to:
Of course, you can make it easier on yourself with Arcadia Harness Manufacturing, which provides cloud-based testing interfaces. It removes manual test code creation and entry, saving hours in the technicians time and avoiding manual errors. It allows you to ensure that your harness builds to match your CAD 100% without having to build, learn and test against a golden sample build.
Documentation is critical for after-sales & service technicians. This includes an intelligent, technical publications export that includes the schematic design and all connector information, along with locations embedded into a simple online/offline viewer. This makes your technical publications easy to generate and for your service engineers to understand.
The design and manufacturing process of wire harnesses are subject to regulations and standards. Make sure that your harness design complies with these.
Every region enforces the testing of electrical devices. The IPC/WHMA-A-620 is the industry standard for wire harness assembly and is the predominant standard in the U.S. If your application has an international market, you might need to use one of the following as your guideline:
Arcadias suite of cloud-based software can streamline your wire harness design processes, making you far more efficient and productive. Try our seven-day free trial now its easy to give our solutions a spin because they work on the cloud.
Whats the difference? On-premise software is installed on your computer, and thats where it stays. It requires server infrastructure, which is typically expensive. Cloud software, known as SaaS (software as a service), is a different story. It allows you to collaborate wherever you are and share with your team so that you work more dynamically and faster, ensuring that youre all on the same page.
If you want to first see how it works, just give us a call and well set up a demo. If you have any questions, were always happy to help. We were the first cloud-based software for wire harness design, and we continue to innovate with new offerings.
In this guide to wire harness design, development, and manufacturing, well start with the basics and move through the process of manufacturing. First, understand what a wire harness is, then well discuss the steps involved in designing a wire harness. Well review components and materials, followed by a discussion of the options for purchasing wire harnesses. Lastly, well how automation is influencing wire harness manufacturing.
A wire harness is a set of cables, wires, and connectors connecting electrical components in an electronic device. It is a crucial component of any electronic system and can be custom designed for specific applications. A wire harness helps simplify the wiring process by reducing the number of cables needed and providing an easy way to connect components.
Wire harnesses offer many benefits, including improved reliability, reduced installation time, safety, and cost savings. Typically, due to being application-specific, wiring harnesswiring harnesses are custom designed, tailoring them for maximum efficiency and performance. Different types of wire harnesses are available depending on the application, such as automotive, aerospace, and industrial. With the help of advanced design tools, designers can quickly create custom wire harnesses with high accuracy and precision.
The process of designing and developing a wiring harness involves several steps, starting with gathering information about the requirements and specifications of the wire harness. The next step is creating a schematic or wiring diagram of the wire harness, followed by selecting the appropriate components and materials. The actual design of the harness involves laying out the wires, connectors, and other elements in a specific configuration. Next, testing the wiring harness ensures that it meets the required performance criteria. Finally, the completed harness is inspected and tested before installation in the final product. This step-by-step process ensures the design and development of the wire harness meet the requirements and specifications of the final product.
Wire harnesses consist of various components and materials in the manufacturing process. The most common elements include wires, connectors, terminals, and protective sleeves. Wires are typically made from copper or aluminum and are coated with insulation to prevent electrical interference. Connectors join wires and come in various shapes and sizes depending on the application. Terminals are attached to the wire ends to connect them to other components. Protective sleeves to cover the cables provide additional protection from heat, moisture, and other environmental factors.
The materials used to manufacture wire harnesses can vary depending on the application and harness assembly requirements. Common materials include PVC, polyethylene, and polypropylene for insulation and nylon or polyester for protective sleeves. With specific applications where high temperatures or extreme environmental conditions are a concern, using more advanced materials such as Teflon or silicone is common.
Overall, selecting wire harness components and materials is critical to ensuring the harness performs reliably and meets the required specifications. Manufacturers must carefully consider the application and environment of the wiring harness to determine the appropriate components and materials.
The two main options for wire harnesses are pre-made and custom solutions. While custom solutions offer more flexibility and customization options, pre-made harnesses have several advantages that make them popular for many applications.
One significant advantage of pre-made wire harnesses is cost-effectiveness. Manufacturers typically mass-produce pre-made harnesses, enabling them to manufacture them at a lower cost than custom solutions. As a result, this can significantly benefit smaller production runs or applications with tight budget constraints.
Pre-made wire harnesses offer faster lead times and shorter production times. Since pre-made harnesses are already manufactured and available for purchase, they can be shipped out quickly and installed in the final product with minimal delay. With shorter lead times, this can be particularly beneficial for applications with tight production schedules or where downtime is not an option.
Designers and manufacturers typically create pre-made wire harnesses to meet industry standards and regulations, providing an additional advantage. Therefore, it ensures that the harness meets the necessary safety and performance requirements for the application. On the other hand, custom solutions may require additional testing and certification to ensure compliance with industry standards.
In summary, pre-made wire harnesses offer several advantages over custom solutions, including cost-effectiveness, faster lead times, and compliance with industry standards. While custom solutions may be necessary for some applications, pre-made harnesses are a reliable and efficient option for many applications.
Manufacturing wiring harnesses has traditionally been labor-intensive and time-consuming, but automation is revolutionizing the industry and improving efficiency and productivity. Automation involves using robotic systems and computer-controlled machines to perform traditionally manual tasks.
One use of automation in manufacturing wiring harnesses is through automated wire-cutting and stripping machines. These machines can cut and strip wires with high accuracy and speed, reducing the time and labor required for these tasks.
The use of automated assembly systems is streamlining the production of wiring harnesses. These systems use robots and other machines to assemble wires, connectors, and other components into the final harness. By automating the assembly process, manufacturers can reduce the risk of errors and improve overall production efficiency.
Another way that automation is revolutionizing the manufacturing of wiring harnesses is through the use of data analysis and monitoring. Manufacturers can identify areas to improve and optimize production to reduce waste and increase efficiency by collecting and analyzing production processes and performance data.
Overall, the use of automation in manufacturing wiring harnesses is improving efficiency, reducing labor costs, and improving the overall quality of the final product. As automation technology advances, it will continue to play an increasingly important role in the industrys future.
A wire harness is a critical component in electronic systems that offers many benefits. Custom wiring harnesses are designed using advanced tools, and the process involves several steps, including selecting appropriate parts and materials. Pre-made wire harnesses offer advantages such as cost-effectiveness, faster lead times, and compliance with industry standards. Automation is revolutionizing the manufacturing of wiring harnesses, improving efficiency and productivity. As automation technology advances, the industry can expect to see even more significant improvements in the future.
It never hurts to remind yourself of the basics when it comes to designing your cable harness.
For your application to function as intended, every component and cable assembly must be carefully considered. This goes for your wire harness. The use of all wire harness types can improve the efficiency, reliability, and safety of a system by reducing the risk of loose connections, shorts, and other electrical problems.
Specific factors will inform your wire-harness design. Remembering what these factors are will give you a solid understanding of exactly what your application needs when it comes to your wire harness.
Take these 10 factors into consideration to help you design your wire-harness assembly:
This is indeed basic, but its very necessary for designing the most reliable wire harness possible for your application. What do you need your wire-harness design to do, other than transmit electrical signals and power between different components in your system?
You wouldnt design, say, automobile wiring harnesses the same as you would a custom stereo wiring harness. Think about your applications specific needs. For example, does it need to resist vibration? (All electronics vibrate, but an engine wiring harness has additional considerations.) Does your wire harness need to protect against electromagnetic interference (EMI)? Stand up to certain environmental conditions, such as heat or pressure?
Always review relevant standards, which provide guidance on the selection of suitable wires for specific applications. This will ensure that the wire you ultimately choose meets the necessary requirements. That said, here are the major factors to consider when designing your wire-harness assembly.
What are your electrical requirements? This is determined by the wires gauge or thickness. Choosing the right gauge wire demands that you consider the carrying capacity and amount of current the wire needs to conduct. This is measured in amps. Length matters too. The longer the wire, the more voltage is lost through resistance and heat. You can get around this problem by increasing your wire gauge, which of course, will increase your amp capacity.
The suitable wire can be used easily in your applications environment. For example, if the harness will be exposed to high temperatures, a wire with a high-temperature rating should be selected. If the harness will be exposed to moisture, then choose a wire with a moisture-resistant coating.
Correct and efficient outputs are also determined by the wires ability to withstand mechanical stresses. This includes bending or twisting without breaking or losing its electrical properties. The wire should also have good abrasion resistance if it will be exposed to rubbing or scraping.
Connectors create an electrical circuit while helping to protect your wires from environmental conditions, such as abrasion and EMI.
The selection of connectors should be based on their electrical and mechanical properties. The wires themselves will influence your connectors, so youll need to have an idea of the wires material, gauge and length.
Circuit size and density, along with space limitations, should also be considered. Its also helpful to think of the ease of joining wires and disconnecting wires if necessary. And, of course, do you need insulation?
Youll need the appropriate connectors for board-to-board, wire-to-wire, or board-to-wire. Give thought to your connector hardware too. Your clamping device and other hardware are used to install and support the connector, so it needs to be of excellent quality.
Use standard, common-use connectors and other components. Itll make your life easier to source what you need. That said, the search can still be time-consuming, so go a step further with the cloud-based Arcadia Component Database. Not only can you search for the right parts quickly, but you can also call up the necessary documentation for components. It also helps you avoid duplication in inventory and allows your purchase team to review price details quickly.
The routing of wires plays a major role in successful cable harness design. First, ensure that wires are routed in a way to make accessibility easy. Optimum positioning is key. You want the harness to be easy to install and maintain. If any wires need replacing or repairing, that should be easy too.
You also need to take into account any potential sources of EMI that could affect the performance of your wiring harnesses. The routing in your cable and wire harness design should minimize the risk of interference and prevent any signal degradation.
Do this according to their function, voltage, and signal type, which will help prevent interference and ensure the wires are correctly connected to their respective devices. You want to make sure that wires are routed to the correct electrical system points.
Designing wire harness assemblies for strain relief will prevent headaches. Failure to do this can result in wires becoming loose or breaking due to vibration, pulling, or other forces. This is especially important in applications where the wire harness is exposed to high levels of mechanical stress.
Your first task is to identify potential sources of stress. Consider cable management to help with strain relief. You can protect your wire harness assemblies with components such as grommets, cable clamps, or cable ties. Your choice will depend on the specific application, environment, and overall design of your wire harness.
Next, determine the appropriate location in the wire harness for any strain relief components. Typically, they should be placed at the points where the wires exit the wire harness, as these are normally the most vulnerable points. (You also need to ensure that the wire harness is flexible enough to allow for movement and bending as necessary, while still maintaining its structural integrity.)
Dont forget to consider material for your strain relief. It must be able to stand up to environmental conditions and provide the properties you need it to, such as strength or chemical resistance.
Its critical to get it right in the early stages, so its advisable to not attempt your wire-harness diagram by hand. The well-designed wiring diagram is created using a good wire-harness design tool such as computer-aided design or ECAD.
Take, for example, the cloud-based, state-of-the-art Arcadia suite. It enables engineers to design and simulate electrical systems and wiring harnesses. For instance, you can check your design to see behavior and voltage drops in real-time, with just a browser, and make any necessary adjustments. You can even find out if your design meets safety standards at this stage.
With the right software such as Arcadia Schematic you can improve accuracy and design quality while ensuring you meet industry standards and specifications. These tools can help you identify potential issues, such as wire-to-wire interference, voltage drop, or wire length limitations, which can result in errors or quality issues.
They also speed up the design process and significantly reduce errors and rework. Arcadia Harness, which integrates seamlessly with its schematic cousin, shows you components from every viewpoint and offers splice balancing functions with comprehensive splice diagram generation, illustrating how to construct each splice. You can add labels in your wire-harness diagram for connectors and splices.
You need to ensure that the wire harness is flexible enough to allow for movement and bending as necessary, while still maintaining its structural integrity. The Arcadia suite enables you to do this. All of this adds up to tremendous cost savings, helping you optimize the design phase. Manual wiring harness diagrams are simply an inefficient way to work.
The wire harness should be covered with a protective sheath or sleeve to protect it from damage. Providing an extra layer of insulation will protect your wires and cables. This involves understanding the environmental conditions the wire harness will be subjected to and the material of your protective covering.
For example, if youre designing a custom engine wiring harness, vibration, rattles, fluids, and chemicals will be a concern. The material for your coverage will need to handle those threats. Protective coverings vary by type, from pulled-on braided tubing (or loom) to tapes, spiral wrap, and heat-shrink sleeves, which also ensure neat wire bundling.
Always keep testing in mind, even in the early design stages. Itll help keep you on your toes. Dont overlook anything when testing your prototype, or you risk downtime at the Quality Control stage and youre back to the design table. Make sure you have the proper equipment that can check electrical integrity. It should be able to locate faults across all conductors of the Unit Under Test (UUT) without human intervention.
Youre testing the quality of your connections. Youll want to include embedded resistors and electrical load. Essentially, you want testing to:
Of course, you can make it easier on yourself with Arcadia Harness Manufacturing, which provides cloud-based testing interfaces. It removes manual test code creation and entry, saving hours in the technicians time and avoiding manual errors. It allows you to ensure that your harness builds to match your CAD 100% without having to build, learn and test against a golden sample build.
Documentation is critical for after-sales & service technicians. This includes an intelligent, technical publications export that includes the schematic design and all connector information, along with locations embedded into a simple online/offline viewer. This makes your technical publications easy to generate and for your service engineers to understand.
The design and manufacturing process of wire harnesses are subject to regulations and standards. Make sure that your harness design complies with these.
Every region enforces the testing of electrical devices. The IPC/WHMA-A-620 is the industry standard for wire harness assembly and is the predominant standard in the U.S. If your application has an international market, you might need to use one of the following as your guideline:
Arcadias suite of cloud-based software can streamline your wire harness design processes, making you far more efficient and productive. Try our seven-day free trial now its easy to give our solutions a spin because they work on the cloud.
Whats the difference? On-premise software is installed on your computer, and thats where it stays. It requires server infrastructure, which is typically expensive. Cloud software, known as SaaS (software as a service), is a different story. It allows you to collaborate wherever you are and share with your team so that you work more dynamically and faster, ensuring that youre all on the same page.
If you want to first see how it works, just give us a call and well set up a demo. If you have any questions, were always happy to help. We were the first cloud-based software for wire harness design, and we continue to innovate with new offerings.