1. Introduction

Radar technology has become an essential part of modern electronic products. From advanced driver assistance systems (ADAS) and autonomous vehicles to industrial automation, contactless medical monitoring and smart buildings, radar sensors are enabling applications that were unimaginable just a few years ago.

Unlike optical sensors, radar systems can reliably detect objects regardless of lighting conditions and continue to operate in rain, fog, dust or smoke. This makes radar one of the most robust sensing technologies available for safety-critical and industrial applications.

As radar technology continues to evolve, manufacturers now have access to a wide range of operating frequencies and radar architectures. Depending on the application, products may use 24 GHz, 60 GHz, 76–77 GHz, 77–81 GHz or even 122 GHz, each offering different advantages in terms of range, resolution, antenna size and regulatory availability.

However, developing a radar-enabled product involves more than selecting the appropriate frequency band. Manufacturers must also understand:

• How different radar technologies work
• Which frequency bands are suitable for specific applications
• Which international standards apply
• How radar products are certified in different regions
• Which regulatory requirements must be met before placing a product on the market

Understanding these topics early in the development process helps reduce certification risks, avoid unnecessary redesigns and accelerate time-to-market.

This guide provides a comprehensive overview of modern radar technology, covering the most common frequency bands, typical applications, applicable standards and global regulatory requirements. Whether you are developing an automotive radar, an industrial level sensor, a medical monitoring device or another radar-enabled product, this article is designed to help you understand both the technical and regulatory aspects of radar systems.

2. How Radar Systems Work

Radar (Radio Detection And Ranging) is a wireless technology used to detect, locate and track objects by transmitting electromagnetic waves and analyzing the signals reflected back from those objects. By evaluating the reflected signal, a radar system can determine an object’s distance, speed, direction of movement and, depending on the radar technology, its position.

Unlike cameras or LiDAR systems, radar does not rely on visible light and performs reliably in challenging environmental conditions such as darkness, rain, fog, dust or smoke. This makes radar one of the most robust sensing technologies for safety-critical, industrial and automotive applications.

Basic Operating Principle

A radar system typically consists of four main components:

• Transmitter – Generates and transmits the radio frequency (RF) signal.
• Antenna – Radiates the signal and receives the reflected echoes.
• Receiver – Amplifies and processes the received signals.
• Signal Processing Unit (DSP) – Analyzes the received data to calculate distance, speed, angle and other target characteristics.

The basic operating sequence is straightforward:

1. The radar system transmits an RF signal.
2. The signal propagates through free space at the speed of light.
3. When it encounters an object, part of the signal is reflected.
4. The reflected signal is received by the antenna.
5. The received signal is processed to determine the target’s characteristics.

Distance Measurement

The distance to an object is determined by measuring the time of flight of the transmitted signal.

The longer it takes for the signal to travel to the object and back, the greater the distance.

The distance is calculated using:

d=c⋅t2d=\frac{c\cdot t}{2}d=2c⋅t​

where:

• d = Distance
• c = Speed of light
• t = Measured round-trip travel time

The division by two accounts for the signal traveling from the radar to the object and back.

Speed Measurement (Doppler Effect)

When an object moves relative to the radar, the frequency of the reflected signal changes. This phenomenon is known as the Doppler Effect.

• If the object is moving toward the radar, the received frequency increases.
• If the object is moving away, the received frequency decreases.

By measuring this frequency shift, the radar system can determine the target’s relative velocity.

This principle is widely used in applications such as:

• Adaptive Cruise Control (ACC)
• Speed enforcement radar
• Industrial motion sensors
• Traffic monitoring systems

FMCW Radar (Frequency Modulated Continuous Wave)

The most widely used radar technology today is Frequency Modulated Continuous Wave (FMCW) radar.

Unlike pulse radar, an FMCW radar continuously transmits a signal whose frequency changes linearly over time, commonly referred to as a chirp.

By comparing the transmitted signal with the received echo, the radar can simultaneously determine:

• Distance
• Velocity
• Direction of movement

Advantages

• High range resolution
• Accurate velocity measurement
• Low transmit power
• Compact hardware design
• Ideal for automotive and industrial radar systems

Typical applications include:

• Automotive radar
• Industrial automation
• Level measurement
• Presence and object detection
• Contactless monitoring systems

Pulse Radar

Pulse radar transmits short bursts of RF energy separated by silent periods during which the receiver listens for returning echoes.

The target distance is determined directly from the signal’s propagation time.

Advantages

• Very long detection ranges
• Simple ranging principle

Limitations

• High peak transmit power
• Larger and more complex hardware
• Less suitable for compact commercial radar sensors

Pulse radar is primarily used in long-range surveillance, weather monitoring and other specialized applications, while modern automotive and industrial radar systems predominantly use FMCW technology.

MIMO Radar

Multiple Input Multiple Output (MIMO) radar employs multiple transmitting and receiving antennas simultaneously.

This architecture significantly improves angular resolution and enables the radar to distinguish multiple objects more accurately.

MIMO technology forms the foundation of many modern radar systems, including:

• Automotive radar
• Imaging radar
• 4D radar
• High-resolution industrial radar sensors

Beamforming

Beamforming is a signal processing technique that electronically steers the radar beam by controlling the phase and amplitude of signals transmitted or received by multiple antennas.

Unlike mechanically rotating antennas, electronic beam steering allows the radar to redirect its field of view almost instantaneously.

Beamforming enables radar systems to:

• Track multiple objects simultaneously
• Dynamically adjust the observation area
• Improve angular resolution
• Reduce interference from unwanted directions

This technology is widely used in 77–81 GHz automotive radar, imaging radar and 4D radar systems.

Summary

Most modern radar systems are based on FMCW technology combined with MIMO antenna architectures and digital beamforming. This combination enables highly accurate measurements of distance, velocity and direction while allowing multiple targets to be detected and tracked simultaneously.

As a result, radar has become a key sensing technology for advanced driver assistance systems (ADAS), industrial automation, contactless monitoring and many other applications requiring reliable operation under challenging environmental conditions.

3. Radar Technologies by Frequency Band

Modern radar systems operate across multiple frequency bands, each optimized for specific applications. The operating frequency directly influences a radar system’s range, resolution, antenna size, penetration capability, measurement accuracy and regulatory requirements.

In general, lower frequencies provide greater range and better penetration through certain materials, while higher frequencies offer improved resolution, smaller antennas and more precise object detection.

The following sections introduce the most common radar frequency bands used in commercial, industrial and automotive applications.

3.1 24 GHz Radar

The 24 GHz band was one of the first frequency ranges widely adopted for commercial short-range radar systems. For many years, it was extensively used in automotive applications, but today its primary use has shifted towards industrial sensing and traffic monitoring.

Most 24 GHz radar systems are based on FMCW or Doppler radar technology.

Typical Applications

• Legacy Automotive Short Range Radar (SRR)
• Traffic monitoring
• Speed measurement
• Motion detection
• Presence detection
• Industrial automation
• Door opening sensors

Advantages

• Mature and cost-effective technology
• Good performance for short-range measurements
• Lower hardware cost
• Well-established component ecosystem

Limitations

• Lower distance and angular resolution compared to higher frequencies
• Larger antennas than millimeter-wave radar
• Limited bandwidth
• Automotive use has been phased out or restricted in many regions

Typical Detection Range

Approximately 1–100 m, depending on the application.

3.2 60 GHz Radar

The 60 GHz band has become increasingly popular for short-range, high-resolution sensing applications. The large available bandwidth enables excellent distance resolution while allowing compact antenna designs.

Most systems use FMCW radar technology.

Typical Applications

• Presence detection
• Occupancy sensing
• Smart buildings
• Automatic lighting
• Contactless switches
• Industrial automation
• Medical monitoring
• Sleep and respiration monitoring

Advantages

• High measurement accuracy
• Small antenna size
• Excellent short-range resolution
• Suitable for compact IoT devices
• Licence-exempt operation in many countries

Limitations

• Short operating range
• Higher atmospheric attenuation
• Less suitable for long-range detection

Typical Detection Range

Typically 0.1–30 m.

3.3 76–77 GHz Radar

The 76–77 GHz band is primarily used for long-range automotive radar systems requiring accurate target detection at high vehicle speeds.

Modern systems are almost exclusively based on FMCW technology and increasingly incorporate MIMO antennas.

Typical Applications

• Adaptive Cruise Control (ACC)
• Long Range Radar (LRR)
• Collision warning
• Commercial vehicles
• Industrial collision avoidance

Advantages

• Long detection range
• High velocity accuracy
• Excellent target separation
• Compact antenna arrays

Limitations

• Higher system complexity
• More demanding RF design
• Primarily intended for automotive applications

Typical Detection Range

Up to 250–300 m, depending on system design.

3.4 77–81 GHz Radar

The 77–81 GHz band is the current global standard for modern automotive radar systems. The wider available bandwidth significantly improves range resolution and enables advanced sensing capabilities.

Today’s systems typically combine FMCW, MIMO and digital beamforming, while high-end solutions additionally implement imaging radar and 4D radar.

Typical Applications

• Adaptive Cruise Control (ACC)
• Automatic Emergency Braking (AEB)
• Blind Spot Detection (BSD)
• Rear Cross Traffic Alert (RCTA)
• Lane Change Assist (LCA)
• Parking assistance
• Autonomous driving

Advantages

• Very high range resolution
• Excellent angular resolution
• High object detection accuracy
• Compact antenna arrays
• Supports multiple simultaneous targets

Limitations

• Higher development complexity
• More demanding antenna design
• Higher processing requirements

Typical Detection Range

Typically 0.2–300 m, depending on the application.

3.5 122 GHz Radar

The 122 GHz band represents the next generation of short-range, ultra-high-resolution radar systems. Although not yet as widely deployed as 77 GHz automotive radar, it is attracting increasing interest for industrial and precision sensing applications.

Most systems use FMCW radar combined with advanced signal processing techniques.

Typical Applications

• Industrial automation
• Robotics
• Precision distance measurement
• Position sensing
• Level measurement
• Factory automation

Advantages

• Extremely high resolution
• Very compact antennas
• Excellent precision for short distances
• Suitable for highly integrated sensor designs

Limitations

• Limited operating range
• Higher propagation losses
• Technology still emerging

Typical Detection Range

Typically below 50 m, depending on the application.

Summary

Each radar frequency band has been optimized for specific applications and operating environments.

• 24 GHz remains a proven solution for industrial sensing and legacy automotive systems.
• 60 GHz is ideal for short-range presence detection, medical monitoring and smart building applications.
• 76–77 GHz is widely used for long-range automotive radar.
• 77–81 GHz has become the global standard for advanced driver assistance systems and autonomous driving.
• 122 GHz is emerging as a promising technology for high-precision industrial and robotics applications.

Selecting the appropriate radar frequency is therefore not only a technical decision but also a regulatory one, as different frequency bands are subject to different standards, spectrum allocations and certification requirements across global markets.

4. Regulatory Requirements and Standards

Radar systems are subject to different regulatory requirements depending on the target market and intended application. While the fundamental operating principles remain the same worldwide, Europe, the United States and Canada each have their own regulatory frameworks, technical standards and certification procedures.

The applicable standards depend not only on the operating frequency, but also on the type of radar application. For example, an automotive radar, a tank level probing radar and an obstacle detection radar are subject to different technical requirements and certification standards.

This section provides an overview of the most important regulatory requirements for radar systems in the world’s major markets.

4.1 Europe

Within the European Union, radar equipment is regulated under the Radio Equipment Directive (RED) 2014/53/EU.

Depending on the application, different harmonised ETSI standards apply.

ETSI Standard	Radar Type	Frequency Band	Typical Applications
ETSI EN 302 264	Short Range Radar (SRR)	24 GHz	Traffic monitoring, industrial sensing, motion detection
ETSI EN 302 372	Level Probing Radar (LPR) / Tank Level Probing Radar (TLPR)	Depending on the application (e.g. 6 GHz, 24 GHz, 57–64 GHz, 75–85 GHz)	Tank level and level measurement
ETSI EN 302 729	Automotive Radar	76–77 GHz / 77–81 GHz	Advanced Driver Assistance Systems (ADAS), automotive radar
ETSI EN 303 396	Obstacle Detection Radar (ODR)	Typically 76–77 GHz	Industrial collision avoidance, cranes, automation
ETSI EN 301 489-3	EMC standard for Short Range Devices (SRD), including many radar applications	Application dependent	Electromagnetic Compatibility (EMC)

Depending on the product, additional harmonised standards or regulatory requirements may apply. The applicable standards are always determined by the specific product functionality and intended use.

4.2 United States (FCC)

In the United States, radar equipment is regulated by the Federal Communications Commission (FCC).

Depending on the radar application, different requirements within 47 CFR Part 15 apply.

FCC Rule	Radar Type	Frequency Band	Typical Applications
47 CFR §15.252	Tank Level Probing Radar (TLPR)	Application dependent	Tank level measurement
47 CFR §15.253	Field Disturbance Sensors (FDS)	10.5 GHz / 24 GHz	Motion detection, industrial sensing, traffic monitoring
47 CFR §15.255	57–71 GHz Devices	57–71 GHz	Presence detection, building automation, industrial sensing
47 CFR §15.256	Vehicle Radar Systems	76–81 GHz	Automotive radar and Advanced Driver Assistance Systems (ADAS)

In addition to meeting the applicable technical requirements, manufacturers must also comply with the FCC Equipment Authorization procedures before placing products on the U.S. market.

4.3 Canada (ISED)

In Canada, radar equipment is regulated by Innovation, Science and Economic Development Canada (ISED).

Different RSS standards apply depending on the radar application.

ISED Standard	Radar Type	Frequency Band	Typical Applications
RSS-251	Vehicle Radar Systems	76–81 GHz	Automotive radar
RSS-220	Ultra-Wideband (UWB) Radar	Application dependent	Ground penetrating radar, wall imaging radar, imaging radar
RSS-Gen	General Requirements for Radio Apparatus	All frequency bands	General certification requirements applicable to radio equipment

In addition to the application-specific RSS standards, manufacturers must also comply with RSS-Gen, which defines the general certification, labelling and documentation requirements applicable to radio equipment in Canada.

Summary

Regulatory requirements for radar systems vary depending on the frequency band, application and target market. Therefore, manufacturers should determine early in the product development process:

• Which radar frequency band will be used.
• Which countries the product will be marketed in.
• Which ETSI, FCC or ISED standards apply.
• Which certification procedures and compliance testing are required.

Addressing these regulatory requirements early helps reduce certification risks, avoid costly design changes and accelerate global market access.

5. Global Market Access

Bringing a radar-enabled product to international markets involves more than meeting the technical requirements of a single region. Although many radar frequency bands have become increasingly harmonized worldwide, regulatory requirements, certification procedures and spectrum allocations still vary significantly from country to country.

For manufacturers planning to launch radar products globally, it is essential to verify country-specific requirements before entering a new market. These may include:

• Permitted operating frequency bands
• Maximum transmit power limits
• Applicable technical standards
• Certification or type approval requirements
• Local representative requirements
• Required technical documentation
• Certificate validity and renewal requirements
• Country-specific restrictions or special conditions

Keeping this information up to date across multiple markets can quickly become challenging, particularly when products are intended for global distribution.

ScopeRight Global Radio Approvals

To simplify this process, ScopeRight provides the Global Radio Approvals platform, a comprehensive database covering regulatory requirements for more than 200 countries and territories.

The platform helps manufacturers identify country-specific requirements for wireless products, including radar systems, before starting the certification process.

Key information includes:

• Regulatory authorities
• Applicable regulations and technical standards
• Permitted frequency bands
• Certification and approval requirements
• Local representative requirements
• Approval procedures
• Required documentation
• Certificate validity and renewal information
• Country-specific notes and regulatory restrictions

Whether you are developing an automotive radar, an industrial sensor, a medical monitoring device or any other radar-enabled product, the Global Radio Approvals platform helps you understand the applicable regulatory requirements and supports a more efficient global market access strategy.

Learn more about the ScopeRight Global Radio Approvals platform at:

https://scope-right.com

6. The Future of Radar Technology

Radar technology continues to evolve rapidly and has become one of the most important sensing technologies for the next generation of intelligent products. Higher resolution, more powerful signal processing and the integration of artificial intelligence are enabling applications that were considered futuristic only a few years ago.

In particular, radar is playing an increasingly important role in automotive, Industry 4.0, robotics, medical technology and smart buildings.

6.1 Imaging Radar

Imaging radar provides significantly more detailed environmental information than conventional radar systems.

While traditional radar primarily measures distance and velocity, imaging radar can also determine the shape, size and position of objects with much greater accuracy.

This enables the system to distinguish and classify multiple objects simultaneously, even under poor visibility conditions such as rain, fog or darkness.

Typical applications include:

• Advanced Driver Assistance Systems (ADAS)
• Autonomous driving
• Robotics
• Industrial object detection

6.2 4D Radar

Modern 4D radar extends conventional radar sensing by adding an additional measurement dimension.

In addition to measuring:

• Distance
• Velocity
• Horizontal angle (azimuth)

4D radar also determines the vertical angle (elevation) of detected objects.

This creates a much more detailed three-dimensional representation of the surrounding environment, enabling more accurate object classification and improved situational awareness for autonomous vehicles and advanced industrial applications.

6.3 Artificial Intelligence (AI)

As radar sensors continue to generate increasing amounts of data, Artificial Intelligence (AI) and Machine Learning (ML) have become essential for processing and interpreting this information.

AI enables radar systems to detect, classify and track objects more accurately, including:

• Pedestrians
• Vehicles
• Cyclists
• Animals
• Industrial equipment

AI algorithms also improve object recognition in complex environments while reducing false detections and improving overall system reliability.

6.4 Sensor Fusion

No single sensing technology is ideal for every environment.

For this reason, modern systems increasingly combine multiple sensor technologies to improve overall perception and reliability.

Radar is commonly integrated with cameras and LiDAR systems, with each technology contributing unique strengths.

Sensor	Key Strengths
Radar	Accurate distance and velocity measurement, reliable operation in rain, fog, dust and darkness
LiDAR	High-resolution 3D mapping and precise object contours
Camera	Color information, traffic sign recognition, lane detection and object classification

By combining data from multiple sensors, sensor fusion provides a far more complete understanding of the surrounding environment than any individual sensor can achieve alone.

6.5 Emerging Radar Frequency Bands

Radar technology continues to expand into higher frequency bands.

While 60 GHz and 77–81 GHz are currently the most widely deployed frequencies for commercial applications, 122 GHz is emerging as a promising technology for next-generation radar systems.

Higher operating frequencies offer several advantages:

• Improved measurement resolution
• Smaller antenna dimensions
• More precise distance measurements
• Higher sensor integration

These characteristics make high-frequency radar particularly attractive for robotics, industrial automation, precision measurement and future autonomous systems.

Summary

Radar technology is evolving toward higher resolution, smarter signal processing and increasing integration of artificial intelligence. At the same time, new frequency bands and advances in semiconductor technology are enabling more compact, accurate and powerful radar systems.

As radar-enabled products become more sophisticated and are introduced into global markets, manufacturers must also address increasingly complex regulatory requirements. Considering both technical design and international compliance requirements early in the development process helps minimize certification risks, reduce development costs and accelerate global market access.

7. Frequently Asked Questions (FAQ)

What is radar?

Radar (Radio Detection and Ranging) is a wireless technology that uses radio frequency (RF) signals to detect, locate and track objects by measuring reflected electromagnetic waves.

How does radar work?

A radar system transmits RF signals and analyzes the reflected echoes to determine an object’s distance, speed, direction and position.

What is the difference between radar and LiDAR?

Radar uses radio waves, while LiDAR uses laser light.

Radar performs reliably in rain, fog, dust and darkness, whereas LiDAR generally provides higher spatial resolution but is more affected by adverse weather conditions.

What is the difference between radar and ultrasonic sensors?

Ultrasonic sensors use sound waves and are typically limited to short-range applications.

Radar provides significantly greater range, higher accuracy and is less affected by environmental conditions.

What is the difference between FMCW and Pulse Radar?

FMCW radar continuously transmits a frequency-modulated signal and simultaneously measures distance and velocity.

Pulse radar transmits short RF pulses and determines distance by measuring the signal’s round-trip travel time.

What is the Doppler Effect?

The Doppler Effect is the frequency shift that occurs when a target moves relative to the radar.

It enables radar systems to accurately determine the target’s velocity.

What is MIMO radar?

MIMO (Multiple Input Multiple Output) radar uses multiple transmit and receive antennas to improve angular resolution and object detection.

What is Beamforming?

Beamforming electronically steers the radar beam using multiple antennas, improving angular resolution, target tracking and interference rejection.

What is Imaging Radar?

Imaging radar creates a highly detailed representation of the surrounding environment, allowing more accurate object detection and classification than conventional radar.

What is 4D Radar?

4D radar measures:

• Distance
• Velocity
• Horizontal angle (Azimuth)
• Vertical angle (Elevation)

This significantly improves environmental perception.

What is the difference between 24 GHz and 77 GHz radar?

24 GHz radar is mainly used for industrial sensing and legacy automotive applications.

77–81 GHz radar offers much higher bandwidth, improved resolution and is today’s standard for modern automotive radar systems.

Why is 77–81 GHz replacing 24 GHz automotive radar?

The wider available bandwidth enables:

• Higher range resolution
• Better object separation
• Smaller antennas
• Improved detection accuracy

These advantages make 77–81 GHz better suited for ADAS and autonomous driving.

What is 60 GHz radar typically used for?

Typical applications include:

• Presence detection
• Occupancy sensing
• Smart buildings
• Medical monitoring
• Contactless sensing
• Industrial automation

What is 122 GHz radar used for?

122 GHz radar is increasingly used for:

• Industrial automation
• Robotics
• Precision distance measurement
• Position sensing
• High-resolution industrial sensors

Which radar frequency offers the longest range?

76–77 GHz and 77–81 GHz radar systems are commonly used for long-range automotive applications and can achieve detection ranges of several hundred meters depending on system design.

Which radar frequency provides the highest resolution?

Higher operating frequencies generally provide higher resolution.

Today, 77–81 GHz and especially 122 GHz radar systems offer excellent resolution for precision sensing applications.

Which radar frequency is best?

There is no universal answer.

The optimal frequency depends on the application, required range, resolution and regulatory requirements.

Which standards apply in Europe?

Radar equipment placed on the European market is generally subject to:

• RED 2014/53/EU
• ETSI EN 302 264
• ETSI EN 302 372
• ETSI EN 302 729
• ETSI EN 303 396
• ETSI EN 301 489-3 (EMC)

depending on the application.

Which FCC rules apply?

Depending on the radar application:

• 47 CFR §15.252
• 47 CFR §15.253
• 47 CFR §15.255
• 47 CFR §15.256

Which ISED standards apply?

Typical Canadian requirements include:

• RSS-251
• RSS-220
• RSS-Gen

Does every radar product require certification?

In most cases, yes.

Radar products intended for commercial markets generally require regulatory approval before being placed on the market.

The applicable certification procedure depends on the operating frequency, application and target market.

Can I use the same radar worldwide?

Not necessarily.

Although many frequency bands are harmonized internationally, permitted frequencies, power limits and certification requirements still vary by country.

What should be considered when selecting a radar frequency?

Important factors include:

• Detection range
• Resolution
• Antenna size
• Environmental conditions
• Product size
• Cost
• Regional regulatory requirements

Which industries use radar technology?

Radar is widely used in:

• Automotive
• Industrial automation
• Medical technology
• Robotics
• Smart buildings
• Traffic monitoring
• Agriculture
• Security systems

Is radar safe?

Radar systems operate under strict regulatory limits for transmitted power and RF exposure.

Manufacturers must demonstrate compliance with the applicable regulatory requirements before placing products on the market.

What is the difference between Automotive Radar and Industrial Radar?

Automotive radar is optimized for long-range, high-speed object detection and operates primarily in the 76–81 GHz band.

Industrial radar focuses on applications such as distance measurement, level sensing, presence detection and robotics, using frequencies such as 24 GHz, 60 GHz or 122 GHz depending on the application.

Where can I find global radar approval requirements?

Global regulatory requirements differ significantly between countries.

Before placing a radar product on the market, manufacturers should verify the applicable frequency allocations, technical standards and certification requirements for each target country.

ScopeRight’s Global Radio Approvals platform provides this information for more than 200 countries and territories.

8. How ScopeRight Can Help

Developing a radar-enabled product involves far more than selecting the right frequency band or radar technology. Manufacturers must identify the applicable regulations, determine the relevant technical standards, prepare technical documentation and successfully complete the certification process before placing a product on the market.

Managing these activities manually can be time-consuming, especially when products are intended for multiple international markets.

ScopeRight helps manufacturers streamline regulatory compliance by providing software tools, engineering resources and expert support throughout the entire product development and certification process.

Regulatory Scoping

One of the biggest challenges in any certification project is determining which regulations, directives and technical standards actually apply.

ScopeRight’s Regulatory Scoping Tool guides users through a structured product questionnaire and automatically identifies the applicable regulatory requirements based on the product’s characteristics.

The generated compliance scope can include:

• Applicable Directives and Regulations
• Harmonised Standards
• FCC Rules
• ISED Standards
• EMC Requirements
• Radio Requirements
• Safety Requirements
• Cybersecurity Requirements
• RF Exposure Requirements (SAR/MPE)

This significantly reduces the risk of overlooking applicable standards during the early development phase.

Test Plan Generator

Based on the identified compliance scope, ScopeRight automatically generates a structured Test Plan.

The test plan provides a clear overview of the required compliance activities, helping manufacturers prepare for laboratory testing before the certification project begins.

Typical information includes:

• Applicable standards
• Required RF tests
• EMC testing
• Safety testing
• RF Exposure evaluation
• Estimated laboratory test duration
• Required test samples

Global Radio Approvals

Radar regulations differ significantly around the world.

ScopeRight’s Global Radio Approvals platform provides regulatory information for more than 200 countries and territories, including:

• Regulatory Authorities
• Applicable Regulations
• Technical Standards
• Frequency Allocations
• Certification Requirements
• Local Representative Requirements
• Approval Procedures
• Required Documentation
• Certificate Validity
• Renewal Requirements
• Country-specific Restrictions

This enables manufacturers to prepare international market access strategies before entering new markets.

Standards Database

Keeping track of changing technical standards is an ongoing challenge.

ScopeRight provides direct access to important regulatory databases, including:

• RED Harmonised Standards
• EMC Harmonised Standards
• FCC Rules & Regulations
• FCC KDB Database
• ISED Standards & Specifications
• Safety Standards
• UKCA Designated Standards

This helps engineers quickly identify the latest applicable standards during product development.

Risk Assessment Generator

Many regulations require manufacturers to perform a structured risk assessment as part of the technical documentation.

ScopeRight’s Risk Assessment Generator simplifies this process by helping users create consistent and well-structured risk assessments that can be integrated directly into the Technical Documentation.

Engineering Calculators

ScopeRight includes a growing collection of engineering calculators that simplify everyday RF and compliance tasks.

Examples include:

• RF calculations
• Frequency conversions
• Power conversions
• Unit conversions
• EMC calculations
• MPE calculations
• SAR-related calculations

The calculators help engineers perform common calculations quickly without relying on multiple external tools.

Expert Regulatory Support

Software alone cannot answer every regulatory question.

Our team has many years of experience in RF, EMC, Safety and Global Market Access and supports manufacturers throughout the certification process.

Whether you need assistance with:

• Regulatory strategy
• Standards selection
• Certification planning
• Technical documentation
• Laboratory preparation
• Test report reviews
• Global approvals

our experts are available to help.

Get Started with ScopeRight

Whether you are developing an automotive radar, an industrial radar sensor, a medical monitoring device or any other wireless product, ScopeRight helps simplify regulatory compliance, reduce certification risks and accelerate global market access.

Explore our software, free engineering tools and compliance resources at:

🌐 https://scope-right.com

Or contact our team, sales@scope-right.com, to discuss your next certification project. We’d be happy to help you bring your product to market more efficiently.