Eteily Technologies India Pvt Ltd

Vidya Nagar, Bhopal, Madhya Pradesh

The 4G 12dBi Outdoor Patch Panel Antenna with N (F) Straight Connector is designed for outdoor applications to improve 4G LTE signal strength and coverage. Here’s a detailed overview of its features and benefits:

1. 4G LTE Compatibility:

   • Purpose: This antenna is specifically engineered to enhance connectivity for 4G LTE networks, providing better signal reception and transmission.

2. 12dBi Gain:

   • Gain: The 12dBi gain indicates a significant level of signal amplification. This provides improved performance compared to lower gain antennas, making it suitable for long-range communication and areas with weak signal reception.
   • Directional: While "patch panel" antennas are often somewhat directional, they provide wider coverage compared to highly directional antennas like Yagi antennas.

3. Outdoor Patch Panel Design:

   • Construction: The patch panel antenna typically features a flat, rectangular design that can be mounted on a wall or pole. This design is optimized for outdoor use, with a focus on durability and signal coverage.
   • Performance: Designed to offer a good balance of range and coverage, making it versatile for various outdoor scenarios.

4. N (F) Straight Connector:

   • Type: The N Female (F) straight connector is a robust RF connector used in many outdoor antenna setups. The "straight" configuration means the connector is designed for a direct, linear connection.
   • Usage: Connects to devices or cables with an N Male connector, which is commonly used for high-frequency applications due to its reliability and durability.

• Enhanced Signal Strength: The 12dBi gain provides substantial signal amplification, which is beneficial for boosting connectivity in areas with weak 4G signals.
• Wide Coverage: The patch panel design offers a wider coverage area compared to highly directional antennas, making it suitable for general outdoor use.
• Durable Construction: Designed for outdoor environments, this antenna is built to withstand various weather conditions and provide reliable performance.

• Rural and Remote Areas: Ideal for improving 4G LTE signals in locations where network coverage is weak or sporadic.
• Outdoor Installations: Suitable for installation on walls, poles, or rooftops where high signal gain and durability are required.
• Signal Boosting: Used to enhance the signal strength of 4G LTE modems, routers, or other network equipment, particularly in challenging signal environments.

• Mounting: Ensure the antenna is securely mounted in a location with minimal obstructions to maximize signal reception. The antenna should ideally be mounted as high as possible.
• Aiming: If the antenna is somewhat directional, aim it towards the nearest cell tower or signal source for optimal performance.
• Connector Handling: The N Female connector should be properly connected to an N Male cable or device, ensuring a secure and weatherproof connection.

The 868 MHz 12dBi Outdoor Patch Panel Antenna you mentioned is a high-gain antenna designed for outdoor use and tuned to the 868 MHz frequency range. Here’s a detailed breakdown of its features and typical uses:

1. 868 MHz Frequency:

   • Usage: This frequency is commonly used for long-range wireless communication in IoT, telemetry, and some types of radio networks.

2. 12dBi Gain:

   • High Gain: A 12dBi gain means this antenna is highly efficient at focusing the signal in a specific direction, which can significantly increase the range and signal strength compared to lower-gain antennas.
   • Directional Coverage: It generally provides a narrower beamwidth, which is ideal for point-to-point communication or when aiming for specific coverage areas.

3. Outdoor Patch Panel:

   • Durability: Designed to withstand outdoor conditions, including weather and UV exposure. The panel typically has a robust construction to ensure longevity.
   • Mounting: Patch panel antennas are often mounted on a wall or pole and provide a more permanent installation compared to portable antennas.

1. Long-Range Communication:

   • Suitable for applications where you need to cover larger distances or penetrate obstacles, like in rural areas, large facilities, or between buildings.

2. IoT Networks:

   • Useful in IoT networks where sensors or devices need to communicate over long distances with minimal interference.

3. Telematics and Remote Monitoring:

   • Ideal for remote monitoring systems where reliable and strong signal coverage is crucial.

1. Alignment:

   • Due to its high gain and directional nature, precise alignment towards the target device or area is necessary to achieve optimal performance.

2. Mounting Location:

   • Choose a location that provides a clear line of sight to the target area to avoid obstructions and maximize range.

3. Weatherproofing:

   • Ensure that the installation is done with proper sealing and mounting to prevent water ingress and damage.

4. Cabling:

   • High-quality, low-loss cables should be used to connect the antenna to the RF equipment to minimize signal loss.

A 2.4GHz 3dBi PCB flexible antenna combines elements of both PCB (Printed Circuit Board) and flexible antenna designs for specific wireless communication needs. Here’s a detailed look at its features and applications:

1. 2.4GHz Frequency:

   • Frequency Band: This antenna is designed for the 2.4 GHz frequency band, commonly used for Wi-Fi (802.11b/g/n), Bluetooth, and some other wireless technologies. It operates within the ISM (Industrial, Scientific, and Medical) band.

2. 3dBi Gain:

   • Gain: A 3dBi gain indicates that the antenna provides a moderate increase in signal strength compared to an isotropic radiator. This gain level is higher than a 2dBi antenna, which can improve range and signal quality, but is still relatively modest compared to higher-gain antennas.
   • Performance: The 3dBi gain is suitable for applications where moderate range and signal enhancement are needed. It is often used in environments where signal strength needs to be improved but extremely high gain is not required.

3. PCB (Printed Circuit Board):

   • Design: The antenna is integrated into a PCB, which is a common method for creating compact and cost-effective antennas. The design allows for efficient manufacturing and integration into electronic devices.
   • Integration: PCB antennas are etched onto the circuit board and are typically used in devices where space is at a premium, such as in compact electronic products.

4. Flexible:

   • Flexibility: Unlike rigid PCB antennas, a flexible PCB antenna is made from materials that allow it to bend or conform to different shapes. This flexibility can be useful in devices where the antenna needs to be adapted to fit specific internal layouts or designs.
   • Durability: Flexible PCBs are generally more durable and resistant to mechanical stress compared to rigid PCBs. They can be bent or adjusted without damaging the antenna, making them suitable for dynamic or confined spaces.

• Consumer Electronics: Used in devices such as smartphones, tablets, laptops, and other compact devices where internal space is limited and a flexible design is advantageous.
• IoT Devices: Ideal for Internet of Things (IoT) applications where the device may have a non-standard shape or requires a flexible antenna to fit into a small enclosure.
• Wearable Technology: Useful in wearable devices where the antenna needs to conform to the contours of the device or be embedded in flexible materials.

• Benefits:

  • Compact and Space-Efficient: Integrates directly into the PCB, saving space and reducing the need for additional components.
  • Flexible Design: Allows the antenna to fit into various shapes and sizes, enhancing design versatility and adaptability.
  • Moderate Gain: The 3dBi gain provides a balance between performance and range, suitable for many common wireless applications.

• Limitations:

  • Signal Range: While a 3dBi gain improves performance over lower-gain antennas, it may still be limited compared to antennas with higher gain, which are better for long-range communication.
  • Placement Sensitivity: The performance of flexible PCB antennas can be influenced by their placement within the device and surrounding materials. Proper design and placement are crucial for optimal performance.

An 865 MHz screw mount antenna is designed for use in applications that operate within the 865 MHz frequency range, often associated with RFID (Radio-Frequency Identification) systems. Here’s a general overview of what you might need to know:

• Frequency Range: Specifically tuned for 865 MHz, which is commonly used in UHF RFID systems, particularly in regions like India and other parts of Asia.
• Mounting Type: Screw mount indicates the antenna is designed to be fixed in place using screws, making it suitable for permanent installations.
• Antenna Type: These can vary, but typical types include monopole, dipole, or patch antennas, each having different radiation patterns and characteristics.

• RFID Systems: For reading and writing RFID tags in environments such as warehouses, retail, and logistics.
• Telecommunication Equipment: Used in communication systems that operate within the 865 MHz band.
• Industrial Monitoring: Can be used in industrial settings for asset tracking and monitoring.

• Mounting: Ensure the antenna is mounted securely in a location with minimal obstruction to achieve optimal performance.
• Orientation: Depending on the antenna type, orientation can affect performance. Consult the manufacturer’s guidelines for best practices.
• Cable and Connector: Use the appropriate cable and connector that matches both the antenna and the equipment it connects to. High-quality cables can reduce signal loss.

• Gain and Coverage: Check the antenna’s gain specifications to ensure it meets your coverage requirements.
• Environmental Factors: Consider factors such as weather and interference, especially if the antenna is mounted outdoors.

A GPS+Wi-Fi+4G combo screwable puck antenna is a versatile device designed to provide multiple types of connectivity from a single unit. Here’s a breakdown of its features and benefits:

1. Multi-Functionality:

   • GPS: Receives signals from GPS satellites for location tracking and navigation.
   • Wi-Fi: Enhances the reception of Wi-Fi signals, which is useful for connecting to wireless networks.
   • 4G: Supports cellular data communication, providing internet access over mobile networks.

2. Screwable Design:

   • The “screwable” aspect refers to a mounting mechanism that allows the antenna to be securely attached to a surface using screws. This provides a stable installation, which is particularly useful in mobile or harsh environments.

3. Puck Style:

   • The "puck" design is a compact, low-profile form factor. It’s typically round and flat, which makes it easy to install in various locations without taking up much space.

1. Convenience:

   • Integrates multiple antennas into one device, simplifying installations and reducing the need for multiple antennas.

2. Space Efficiency:

   • Combines GPS, Wi-Fi, and 4G functionalities in a single compact unit, saving space and reducing clutter.

3. Durability:

   • The screwable mount ensures a secure attachment, which is ideal for vehicles, boats, or outdoor environments where the antenna might be exposed to vibrations or weather conditions.

4. Enhanced Connectivity:

   • Provides reliable reception for all three types of signals, which is beneficial for applications requiring robust navigation, internet access, and connectivity.

• Vehicles: Ideal for cars, trucks, or RVs needing GPS navigation, Wi-Fi connectivity, and 4G internet access.
• Marine: Useful on boats or ships where you need GPS navigation, internet access, and reliable Wi-Fi.
• Remote Locations: Suitable for remote or off-grid locations where having multiple connectivity options is crucial.

When installing such an antenna, ensure it’s mounted in a location that offers unobstructed access to GPS satellites, Wi-Fi networks, and cellular towers for optimal performance.

a 4G 3dBi rubber duck antenna with an SMA male movable connector. Here’s a quick breakdown of what that means:

1. 4G: This indicates that the antenna is designed to work with 4G LTE networks, which are commonly used for high-speed mobile data.

2. 3dBi: This is a measure of the antenna's gain. Gain is essentially how well the antenna focuses its signal in a particular direction. A 3dBi gain is relatively low, meaning it provides a wider, more omnidirectional coverage but with less focused signal strength compared to higher gain antennas.

3. Rubber Duck: This is a colloquial term for a type of antenna that is typically flexible and has a cylindrical shape. The "rubber duck" design is popular because it's durable and can be easily mounted or moved.

4. SMA Male: This refers to the type of connector on the antenna. SMA stands for SubMiniature version A, and the male connector indicates the part that has a pin. This type of connector is widely used in radio communications and networking equipment.

5. Movable Connector: This means the connector can be adjusted or rotated, which can be useful for positioning the antenna to get the best signal or to fit different devices.

The 868 MHz 2.5dBi rubber duck antenna is designed for wireless communication applications operating in the 868 MHz frequency range, which is commonly used for technologies such as LoRaWAN, remote sensing, and telemetry. Here are some key details and benefits of this type of antenna:

1. Frequency Range: Operates at 868 MHz, which is within the ISM (Industrial, Scientific, and Medical) band used in Europe for various low-power, long-range communication applications.

2. Gain: 2.5 dBi (decibels over an isotropic radiator) gain indicates the antenna's efficiency in focusing energy in a specific direction compared to an ideal isotropic antenna. A gain of 2.5 dBi provides a modest increase in signal strength and range.

3. Design:

   • Rubber Duck Shape: This design is named for its resemblance to a rubber duck toy. It is a flexible, compact, and durable antenna shape.
   • Construction: Typically made with a flexible rubber or similar material, which makes it suitable for environments where durability and impact resistance are important.

• Durability: The rubber or plastic construction helps protect the antenna from physical damage and environmental conditions, making it suitable for rugged or portable devices.

• Compact Size: The rubber duck design is generally small and lightweight, making it ideal for use in space-constrained applications.

• Ease of Use: The flexible design allows it to be easily mounted or adjusted, making installation straightforward.

• IoT Devices: Used in various Internet of Things (IoT) devices that need to communicate over long distances with low power consumption.

• Remote Sensing: Suitable for sensors and monitoring equipment deployed in fields or remote locations.

• Telemetry Systems: Often used in systems that transmit data over distances, such as in agricultural or environmental monitoring.

When choosing an antenna, ensure that its specifications match your device's requirements and the operating conditions of your application.

• 865MHz: This indicates the frequency at which the antenna is designed to operate effectively. 865 MHz is commonly used in certain radio communication applications, including some types of RFID systems.

• Helium Frequency: This could refer to a specific frequency range associated with Helium networks, such as those used in Helium (LoRaWAN) networks for IoT applications. In Helium networks, 865 MHz is within the ISM (Industrial, Scientific, and Medical) band used in some regions.

• 5dBi: This is the gain of the antenna, measured in decibels relative to an isotropic radiator (dBi). A 5dBi gain means the antenna is relatively efficient at focusing energy in a specific direction, which can help improve signal strength and range.

• Rubber Duck Antenna: This is a type of antenna that is typically flexible and durable, often used for its ruggedness and ease of use. The "rubber duck" design is a popular choice for many portable and handheld devices.

• SMA Male Movable Connector: This refers to the type of connector on the antenna. An SMA (SubMiniature version A) male connector is a common type used in RF applications. The "movable" aspect suggests that the connector might be adjustable or rotatable, allowing for better positioning and alignment.

An IRNSS L5 GNSS screw mount panel antenna is designed for receiving signals from the Indian Regional Navigation Satellite System (IRNSS) and other GNSS (Global Navigation Satellite System) signals, specifically in the L5 band. Here’s a breakdown of what you might need to know about this type of antenna:

1. Frequency Band:

   • IRNSS L5 Band: Operates in the L5 frequency band (around 1.176 GHz to 1.196 GHz).
   • GNSS Signals: Supports other GNSS signals in addition to IRNSS, such as GPS L5, Galileo E5, and GLONASS.

2. Mounting Type:

   • Screw Mount: Provides a secure installation. Typically, these antennas have a flange with screw holes for mounting on panels or enclosures.

3. Antenna Type:

   • Panel Antenna: A flat, surface-mount design suitable for applications where the antenna needs to be mounted on a panel or inside an enclosure.

4. Connector Type:

   • Ensure compatibility with your GNSS receiver. Common connectors include SMA, BNC, or TNC. Check the connector type of the antenna and match it with your equipment.

5. Gain and Performance:

   • Look for the gain specification to understand how well the antenna will pick up signals. Higher gain generally means better performance, especially in challenging environments.

6. Power Supply:

   • Some GNSS antennas are active and require a power supply to amplify the signal. Verify if the antenna needs power and whether it comes with the necessary power adapter.

7. Cable Length:

   • Ensure the cable length is appropriate for your setup. If the antenna is mounted in a location far from the receiver, you might need a longer cable or an extension.

• Placement: For optimal performance, the antenna should have a clear line of sight to the sky. If it's inside an enclosure, make sure it doesn’t obstruct the signal too much.

• Orientation: Panel antennas often need to be oriented correctly to ensure proper reception. Follow the manufacturer's recommendations for orientation.

• Environmental Considerations: Ensure the antenna is suitable for the environmental conditions it will be exposed to, such as temperature extremes or humidity.

A 15x15 cm GPS/GLONASS/Galileo patch antenna is typically used in applications requiring accurate positioning and navigation capabilities. These antennas are designed to receive signals from multiple satellite systems, enhancing the robustness and reliability of the location data. Here’s a general overview of such antennas:

Key Features:

1. Multi-Constellation Support:

   • GPS (Global Positioning System): US-based satellite navigation system.
   • GLONASS (Global Navigation Satellite System): Russian counterpart to GPS.
   • Galileo: European satellite navigation system.

2. Size and Design:

   • Dimensions: 15 cm x 15 cm (approximately 5.9 inches x 5.9 inches).
   • Patch Antenna: A type of antenna that uses a flat, rectangular patch to receive signals. It's known for its compact size and good performance in satellite navigation.

3. Performance Specifications:

   • Frequency Range: Typically covers the L1, L2, and L5 bands for GPS, GLONASS, and Galileo.
   • Gain: The antenna’s gain can vary, but high-gain versions are designed to receive weak signals effectively.
   • Polarization: Usually right-hand circular polarization (RHCP) is used for satellite systems.

4. Applications:

   • Automotive Navigation: Enhancing GPS accuracy for car navigation systems.
   • Aviation: Used in aircraft for precise positioning and navigation.
   • Surveying and Mapping: Essential for high-precision geospatial data collection.
   • IoT and Robotics: For devices that require accurate location tracking.

5. Mounting and Connectivity:

   • Mounting: Designed to be mounted on a flat surface or integrated into a system.
   • Connector: Typically equipped with a standard connector such as SMA or TNC for easy integration with GPS receivers.

6. Environmental Considerations:

   • Weather Resistance: Often built to withstand outdoor conditions, including moisture and temperature variations.
   • Durability: Made from materials that ensure long-term performance in various environments.

A 2.4GHz 2dBi internal PCB antenna is a specific type of antenna used in wireless communication, particularly for devices operating on the 2.4 GHz frequency band, which is common for Wi-Fi and other wireless technologies. Here's a detailed breakdown of its characteristics:

1. 2.4GHz Frequency:

   • Purpose: This antenna is designed to operate at the 2.4 GHz frequency band, which is commonly used for Wi-Fi (802.11b/g/n), Bluetooth, and some other wireless communication standards.
   • Band: It’s part of the ISM (Industrial, Scientific, and Medical) band that is unlicensed and widely used for various wireless applications.

2. 2dBi Gain:

   • Gain: The 2dBi indicates the antenna's gain, which measures how much power the antenna can focus in a particular direction compared to an isotropic radiator (a theoretical antenna that radiates equally in all directions). A 2dBi gain means that the antenna provides a modest increase in signal strength over an isotropic radiator.
   • Performance: A 2dBi gain is relatively low, making this type of antenna suitable for shorter-range communication or scenarios where high gain is not critical. It typically provides good coverage for small to medium-sized areas, such as within a room.

3. Internal PCB:

   • PCB (Printed Circuit Board) Antenna: This type of antenna is integrated directly into the circuit board of a device. It’s designed to be compact and cost-effective, and is often used in devices where space is limited or where external antennas are not practical.
   • Design: PCB antennas are etched onto the surface of the PCB and are generally small, making them ideal for compact electronic devices.

4. Internal:

   • Mounting: As an internal antenna, it’s embedded within the device rather than mounted externally. This helps maintain a compact design and avoids the need for external protrusions.
   • Integration: Internal antennas are commonly used in devices like smartphones, tablets, routers, and other compact electronics where external antennas would be cumbersome or visually unappealing.

• Consumer Electronics: Used in devices such as smartphones, tablets, and laptops to provide Wi-Fi or Bluetooth connectivity.
• IoT Devices: Ideal for Internet of Things (IoT) devices where space is limited and external antennas are not feasible.
• Wireless Modules: Found in various wireless modules and embedded systems where an internal antenna solution is preferred for its compactness and ease of integration.

• Benefits:

  • Compact Design: Internal PCB antennas save space and are ideal for small devices.
  • Cost-Effective: Integrating the antenna into the PCB reduces manufacturing costs and complexity.
  • Aesthetic: Eliminates the need for external antennas, contributing to a cleaner device design.

• Limitations:

  • Limited Gain: With a 2dBi gain, the antenna provides lower signal strength compared to higher-gain antennas, which may limit its effective range and performance in challenging environments.
  • Placement Sensitivity: Performance can be affected by the placement of the antenna within the device and the materials surrounding it.