NovaStar vs ColorLight vs Linsn: The Integrator

KL
By Kris Liang
LED Display Screen
8 Min Read
2026/06/01

Also referred to as the LED control card or LED display controller, LED control system is responsible to receive pictures and videos from the DVI interface or computer serial port. It displays details present in the frame memory while distinguishes LED display screens on the basis of serial display data driven partitions so as to ensure control over the timing. The system then scans pictures and videos and finally enables the screen to display them.

Based on the functionality and features, LED control systems are divided into two main categories:

Asynchronous LED Control System

Asynchronous LED Control System

Provided with single, double and full-color LED cards, this control system is capable of making its words true. Single color and double color types can only show symbols and texts while full-color LED control systems can even show videos, animation and graphics.

It is also named as offline LED card or offline control system that operates on the memory storage function. It is ideal for graphics or animations, symbols, text or video effects. Its main job is to display information with the help of a serial port or cables, which always has LED display frame memory to ensure quick and easy play. Users can also use its flash memory feature to save programs and sync them with the LED card so that the flash memory can display the respective program automatically.

Features

  • Asynchronous LED control system is inexpensive, simple and multi-purpose
  • Its sub-regional control is responsible to display content on the LED screen
  • This type of control system can only be used for special characters, digital clock and text
  • It can support tables, animations, countdowns, analog clock and pictures
  • It can do humidity control, temperature control, timer switch and the likes

Synchronous LED Control System

synchronous LED Control System

Designed to display graphics, notifications and videos in real-time, synchronous control system is a perfect choice for indoor as well as outdoor use. The major job of this control system is to manage synchronization of the LED display screen so that it can work at 60 frames per second rate along with dots to dots mapping on the computer monitor. Users are rest assured of getting a multi-gradation color display with amazing multimedia advertising effect. The worth mentioning fact is that its sync LED control card works with the controlling PC, instead of working separately.

Features

  • Expressive, good effects in real-time
  • Complicated to operate and expensive as well
  • Controller includes DVI Graphic card, LED sending card and LED receiving card

More

Different Between Synchronous and Asynchronous Led Display

What Integrators Actually Evaluate When Selecting a Control System

Most integrators work through the following checklist before choosing a control system brand for a project:

Software and remote management.

Can the system be monitored and managed remotely across multiple sites from a single dashboard? Does it offer an open API or documented control protocol for integration with third-party platforms such as Crestron, AMX, or BMS systems?

Calibration capability.

Does the system support pixel-level brightness and color calibration, or only module-level calibration? For broadcast, XR stage, and premium retail applications, pixel-level calibration is non-negotiable.

Redundancy architecture.

Does the sending card support hot-backup configuration? For mission-critical installations such as airports, control rooms, and 24/7 retail environments, hardware redundancy at the sending card level is a basic requirement.

Refresh rate and grayscale depth.

For content that will be captured by broadcast cameras, you need a minimum refresh rate of 3,840 Hz to avoid rolling shutter banding. For color-critical applications, you need 16-bit grayscale depth to ensure smooth gradients without visible banding.

Spare parts availability and field support.

How quickly can replacement receiving cards be sourced locally? What is the distributor network coverage in your operating region?

Total cost of ownership.

Hardware cost is only part of the picture. Factor in software licensing fees, cloud platform subscriptions, commissioning labor hours, and expected service call frequency over the warranty period.

Warranty and replacement policy.

What does the warranty actually cover? Is advance replacement available, or does the integrator absorb downtime during repair turnaround?

Comparison of Top 3 Manufacturers of LED Control System

vastar LED Control System

novstar led_control

Novastar LED control system prides itself for being efficient, performance-oriented and high in quality. It was because of its PCB material, full tech support, simple software operation, manuals and professional product designs that Novastar LED control system managed to grab a significant portion of the LED industry. Another positive point for the users of Novastar LED is the availability of both types of control systems- those who want synchronous control system, they can go for MSD300, MSD600 LED sending card and MRV330, MRV300Q, MRV300 receiver cards. While when it comes to having asynchronous LED control systems, there will be PSD80, PBOX100, PSD100 and PCC80. Other accessories or features include monitoring card MON300, Ambient Brightness Sensor NS048C, Fiber Converter CVT320/ CVT310, multi-function LED Card MFN300 and Ambient Temperature Sensor MTH310.

The manufacturer of Novastar LED has introduced the 3rd generation of their control system, which is particularly designed for high-mid-end LED display screens. The best part is that 3rd generation has all the features of 2nd generation, thereby ensuring no compromise on the performance and quality.

Features

Novastar LED Control System

  • Comprehensive LED status monitoring
  • Supports all LED light driver chips and conventional resolutions
  • Can work on low voltage i.e. 3.3 volts
  • Better architecture ensuring satisfactory performance, easy integration and reliability
  • 16-bit chromatic/bright calibration for irregular and Arc shape of LED screens
  • 3rd generation has two key elements: LED receiver (MRV300) and LED transmitter card (MSD300)

MSD300 LED Sending Card

  • Resolutions supported: 2048 x 640, 1920 x 712, 1600 x 848, 1280 x 1024, 1024 x 1200
  • One DVI interface
  • Integrated audio input interface
  • USB interface to ensure effective instruction communication

MRV300 LED Receiving Card

  • Temperature monitoring
  • Working status monitoring
  • DC power supply: 3.3 to 5 volts
  • 16 RGB data group output
  • Supports pixel color/ brightness calibration
  • Monitoring of power supply voltage
  • Single receiver card capacity up to 256 x 128

ColorLight LED Control System

colorlight led control

Next in the list is ColorLight company that is dedicated to developing and marketing high quality LED control systems. The company has an independent and complete intellectual property rights for a number of technologies, which makes them one of the trusted service providers in the industry. ColorLight is responsible to facilitate LED card engineering as well as the manufacturers of LED display screens.

The company has introduced A8 dual-mode intelligent switching systems, T9 Gigabit NIC, 5A arbitrary module system, LED sending card and heavy duty products in the Q-series. An interesting fact about ColorLigh LED control systems is that they have three major products, namely:

  • 5A LED Receiving Card: It offers amazing display quality, high brightness, color depth and refresh rate with conventional chips. It is compatible with all display modules, where 5A means any chips, any shape, any row, any scan and any column. With advanced algorithms, the control system will bring the best out of the resources, thereby ensuring better display quality. Strict testing and professional design also promise reliability with high quality.
  • Synchronous LED Sender: It is a full-color sending card that supports single, double and full-color displays at different resolutions. It contains USB interface for better control and configuration. With standard network transmission equipment, like Gigabit Switch, Fiber Converter, the control system doesn’t lose its efficiency even at 3.8 volts of power supply.
  • Q7 HD LED Sender Box: Designed for large display screens, Q7 prides itself for supporting HDMI and DVI video input with maximum resolution of 2560 x 1536 pixels. Its audio inputs transmit sound to the multi-function card that eventually sends it as output to one of the display.

Linsn LED Control System

Equipped with full-color light decoration, double-color and full-color synchronism, and double-color and full-color synchronism, the control system has been serving a number of LED factories in China. Referred to as the full-color LED controller, it has the following LED cards:

  • LED Sending Card: It is installed in the computer who controls and is connected with the DVI graphics card to send signals to the displays screen. As for laptops, LED sending boxes can be used instead of the LED sending cards.
  • LED receiving Card: It is installed in the LED display cabinet, where it receives signals from the sending card and transfers to the LED display modules with the help of a hub card.

Users are also satisfied with its matching software i.e. LED studio as it is available in various languages- English, Chinese and French while manufacturers are working to introduce it in Russian and Japanese as well.

Novastar VS ColorLight VS Linsn LED

Here’s the key differences among NovaStar, ColorLight, and Linsn:

FeatureNovaStarColorLightLinsn
Market Share70%25%20%
Business ScopeSynchronous and asynchronous control systems and softwareFocus on synchronous and asynchronous control systems, software, and algorithmsFocus on synchronous control system
Services– 24/7 unlimited customer service – Easy to reach tech support – Wide quantity of manuals and guidance material – Professional Training access– Worldwide tech support – Manuals and guidance materials– Worldwide tech support – Certifications – Manuals and guidance material
Warranty3 years on all products3 to 5 years depending on the product3 years and 5% for spare parts in all products
Price20% higher pricesFrom 15 to 20% lower20% in between

LED Control System Price Guide for Integrators

Control system hardware costs vary significantly between brands and product series.

Novastar indicative price:

For entry-level sending cards such as the MSD300, it typically ranges from $180 to $280 per unit. Mid-range sending cards such as the MSD600 range from $280 to $350. Receiving cards such as the MRV300 range from $20 to $30 per card. Monitoring cards such as the MON300 add approximately $45 to $80 per installation.

ColorLight indicative price:

Standard sending cards range from $120 to $200 per unit. The Q7 HD Sender Box ranges from $200 to $280. Receiving cards range from $20 to $40 per card. ColorLight's monitoring functionality is often bundled with receiving cards on current product lines, reducing add-on accessory costs.

Linsn indicative price:

Sending cards range from $100 to $180 per unit. Receiving cards range from $18 to $35 per card.

Quick Configuration & Cost Calculation (Rules of Thumb)

Do you know how to calculate the number of receiving cards, estimating system cost? it is a daily task for integrators. Here are the field rules.

Step 1: Calculate Receiving Card Quantity

A standard receiver card, such as NovaStar MRV300-series equivalent, ColorLight 5A-series, Linsn RV-series typically drives up to 256 pixels in height and 128 pixels in width, but the load capacity depends on pixel pitch and driver IC. A safer practical maximum is 256×256 pixels for most common chips.

Example: For a 500×500mm cabinets P3.91 display (128×128 pixels per cabinet), you generally use 1 receiving card per cabinet.

Total cabinets = (Screen width / 0.5) × (Screen height / 0.5). Total receiving cards ≈ total cabinets.

Step 2: Calculate Sending Card Quantity

Like MSD300, ColorLight S-series, Linsn TS-series, One standard sending card supports up to 1.3 million to 2.3 million pixels.

Example:

A 4-meter wide by 3-meter high P2.5 screen has 1600×1200 = 1,920,000 pixels.

One high-capacity sending card can handle this. For a 4K-wide wall (3840×2160 = 8.3M pixels), you will need 4-8 sending cards, often managed by a video processor.

Step 3: Rough Budgeting (Hardware Only)

For a 100 sqm P3.91 rental screen with one-receiver-per-cabinet configuration:

NovaStar solution sits at the higher end of the budget spectrum.

ColorLight solution typically comes in 15-20% lower on total control system cost.

Linsn solution falls between the two, or slightly lower.

Total cost index for a 20-cabinet installation (sending card + receiving cards, excluding labor):

Using Novastar as the baseline index of 100, a comparable ColorLight installation typically comes in at approximately 80 to 85, and a Linsn installation at approximately 75 to 80. On a 100-cabinet project, the difference between Novastar and ColorLight hardware can represent a saving of $2,000 to $4,000 .

Hidden cost factors integrators frequently overlook:

Cloud management platform licensing fees apply to VNNOX advanced tiers. It adds $200 to $800 per year per deployment depending on screen count. Commissioning labor hours are typically 20 to 30 percent lower with ColorLight's 5A system on projects using mixed modules. Spare parts holding costs should be factored for projects in regions without local distributor stock.

Real-World Application Scenarios

LED Control System application

Scenario 1: Stadium LED ribbon board, 200 cabinets, live broadcast feed

Requirement: 3,840 Hz refresh rate, pixel-level calibration, hot-backup redundancy, integration with stadium control room via Crestron.

Recommended solution: Novastar VX1000 or MCTRL4K with MRV366 receiving cards.

The VX series supports dual-backup sending, Crestron-compatible API control, and pixel-level calibration through NovaLCT. ColorLight A8 is a viable alternative at approximately 15 percent lower hardware cost .

Scenario 2: Retail chain digital signage, 50 locations, self-service content management

Requirement: Cloud content scheduling, remote monitoring, budget-conscious hardware, standard P3 indoor modules. Recommended solution: ColorLight S2 sending cards with 5A receiving cards and ColorCloud management.

The 5A's universal module compatibility reduces commissioning time per site. In addiiton, ColorCloud provides adequate self-service scheduling for retail marketing teams. Total hardware savings versus equivalent Novastar specification: approximately 18 percent.

Scenario 3: Outdoor billboard network, 30 screens, autonomous playback

Requirement: 24/7 asynchronous operation, minimal on-site maintenance, low hardware cost.

Recommended solution: Linsn asynchronous control cards or ColorLight asynchronous system. Where cloud monitoring is not required and autonomous playback is the primary function, Linsn's cost advantage is most meaningful. For any billboard network where remote fault detection has value, ColorLight's monitoring capability justifies the modest price difference.

Scenario 4: custom XR curved LED volume

Requirement: High refresh rate, 16-bit grayscale, pixel-level calibration, low-latency signal path, integration with Unreal Engine workflow.

Recommended solution: Novastar MCTRL4K with MRV366 receiving cards and NovaLCT calibration.

Novastar's virtual production workflow is the most documented and widely deployed in the XR stage market. ColorLight is a capable alternative for integrators with existing ColorLight expertise, but Novastar has the strongest ecosystem of virtual production-specific documentation and third-party workflow guides.

Conclusion

With respect to the services, most of the users have given their vote to Novastar LED control system. But, the efforts from ColorLight and Linsn control systems cannot be ignored. While the latter name is not as old as the other two, the company has still managed to gained a significant spot among the users. So, it can be said that the comparison among these three LED control systems comes down to what the customers need and demand. It is completely their choice of which control system they should go for.

FAQs:

Q: What is the difference between a synchronous and asynchronous LED control system?

A synchronous LED control system requires a continuous live signal from a connected computer or media server to drive the display. It is used for real-time content including video, live feeds, and interactive applications. An asynchronous LED control system stores content in onboard memory. It can play it independently without a connected computer. Therefore, it is ideal for digital signage, outdoor advertising, and any application requiring 24/7 autonomous operation.

Q: Can Novastar, ColorLight, or Linsn controllers integrate with Crestron or AMX?

Novastar provides a documented open API and supports RS-232 and TCP/IP control commands compatible with Crestron and AMX driver development. ColorLight offers an SDK for third-party integration but requires custom development work. Linsn does not publish a control API.

Q: What refresh rate do I need to specify for a broadcast or camera-facing LED wall?

You need A minimum refresh rate of 3,840 Hz to prevent rolling shutter banding in footage. Both Novastar and ColorLight support 3,840 Hz on their current standard receiving cards.

Q: Can I mix sending and receiving cards from different brands?

No. Novastar sending cards are only compatible with Novastar receiving cards, and the same applies to ColorLight and Linsn. Mixing brands at the sending and receiving card level is not supported by any of the three manufacturers.

Q: How many receiving cards do I need per cabinet? The number of receiving cards per cabinet depends on the cabinet's pixel count and the capacity rating of the receiving card you are using. For example, the Novastar MRV300 handles up to 256 by 128 pixels per card. Divide the total pixel count of the cabinet by the card's rated capacity and round up to the nearest whole number. Most standard P2.5 to P4 outdoor cabinets require one to two receiving cards per cabinet.

Q: Does ColorLight support pixel-level calibration?

Yes. ColorLight's current receiving card lineup, including the 5A series. It supports pixel-level brightness and color calibration.

Q: What cloud management platform does Novastar use?

Novastar uses VNNOX for cloud-based content management, remote monitoring, and multi-site device management. VNNOX supports centralized scheduling, real-time fault alerts, brightness automation, and device status dashboards.

Q: Is Linsn suitable for a multi-site remote monitoring deployment?

No. Linsn does not currently offer a cloud management platform or remote monitoring capability.

Q: Which LED control system is best for a rental and staging company?

Novastar is the dominant choice for rental and staging applications. The VX series processors are specifically designed for rental with built-in video processing, hot-backup, and seamless switching.

Q: What is the typical lead time for Novastar, ColorLight, and Linsn products?

Standard in-stock items from all three manufacturers typically ship within 3 to 5 business days from Shenzhen. International express freight to Europe or North America adds 4 to 7 business days.

Q: What certifications do these control systems carry?

All three manufacturers hold CE and FCC certifications for their current product lines.

Q: How does ColorLight 5A receiving card reduce commissioning time?

The ColorLight 5A receiving card uses a universal compatibility architecture. It is described as supporting any chip, any shape, any row, any scan, and any column configuration.

Q: What is the price difference between Novastar and ColorLight for a typical project?

ColorLight hardware typically costs 15 to 20 percent less than Novastar hardware at equivalent technical specification.

Q: Which LED control system should I specify for a project requiring integration with a building management system?

We recommended Novastar for BMS integration due to its documented open API and support for TCP/IP and RS-232 control protocols.

Breaking the boundaries of the flat screen allows for unprecedented spatial experiences. Whether it's a gaming kiosk or a massive architectural pillar, if you have an unconventional idea, don't let standard hardware specifications limit you. The engineering exists to build it.

kris

The Author

Kris Liang

Founder & Lead Engineer, DOIT VISION

With nearly two decades of experience bridging Shenzhen's manufacturing capabilities with Western architectural needs, Kris specializes in translating complex visual concepts into reliable, deployable hardware. He is passionate about structural engineering and high-reliability AV solutions.

kris@doitvision.com

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