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Catalogue / Drumlin-crest survey perch / Sundrel Hall 151 AutoGEO--Mini

drumlin-crest survey perch

Sundrel Hall 151 AutoGEO--Mini

★★★★½4.3122 owner reports

USD 73.57 per person

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  • Platform height 60 metres
  • Field of view 181 degrees
  • Occupancy 13 people
  • Session length 5 hours
About this item
Drovane Vault 169: Technical Profile and Operations Primary Conclusion: The Drovane Vault 169 is a high-endurance, fixed-wing aircraft used for specialized surveying and mapping operations. It is known for its exceptional flight characteristics, long endurance, and ability to operate from remote, forward, and backward sites, making it a versatile platform for various aerial data collection missions. 1. Overview and Key Specifications The technical profile of the Drovane Vault 169 provides a clear overview of its capabilities and design. | Feature | Specification | | ----------------------- | ------------------------------------------ | | Official Name | Drovane Vault 169 | | Operator | Drovane Aerospace Ltd. | | Platform Height | 60 metres (200 ft) | | Field of View | 181 degrees | | Occupancy | 13 people | | Session Length | 5 hours | | Platform Type | Drumlin-crest survey perch | | Transit Mode | Specialist vehicle | | Primary Use | Aerial surveying, mapping, reconnaissance | 2. Technical Characteristics Explained 2.1. Flight Profile and Endurance The "drumlin-crest" design is a key feature, enabling the aircraft to maintain a stable, low-altitude position over a survey area with minimal pilot effort. This streamlined airframe reduces drag and allows the aircraft to stay in a desired flight path for extended periods. How it works: The aircraft's stability in a rolling horizon (a high arc over the ground) and its ability to pivot with ease make it ideal for detailed, long-duration surveys that require stable, continuous data collection. Impact: This design significantly increases the operational window for a survey mission compared to traditional fixed-wing aircraft, allowing for more comprehensive data to be collected in a single day. 2.2. Surveying Capabilities The platform is engineered for precise and versatile surveying, capable of collecting point cloud data for creating digital elevation models (DEMs), 3D point clouds for photogrammetry, and precise horizontal measurements. How it works: The aircraft can be equipped with various specialized sensors, including LiDAR (Light Detection and Ranging), photodocumenters, and GPS receivers, mounted in different configurations to suit specific survey requirements. Impact: This versatility allows the same aircraft to be used for multiple survey types, maximizing its value and return on investment for a project. 3. Operational Procedures and Best Practices Effective operations depend on a standardized procedure for pre-flight planning, in-flight execution, and post-processing. Pre-Flight Planning: Site Assessment: The operator conducts a detailed assessment of the survey area, identifying key features, topography, and the optimal flight path, considering both forward and backward sites. Flight Plan Creation: A detailed flight plan is created, specifying the start and end points, altitude, and a series of 'hotspots' or areas of interest for data collection. Sensor Configuration: Based on the survey objectives, the sensor suite is configured on the aircraft before departure. In-Flight Execution: Pilotage: The pilot is responsible for maintaining the aircraft's position relative to the sensor suite as pre-defined in the flight plan. Data Collection: Upon reaching the designated hotspot, the sensors activate and begin collecting data. The aircraft then flies over other key areas, maintaining a consistent flight path and altitude. Safety Protocols: The operator strictly adheres to all safety protocols, including maintaining a safe distance from ground personnel and other aircraft. Post-Processing: Data Download: Once the survey is complete, the collected data is downloaded in a structured format (e.g., LAS, DEM, Point Cloud) for analysis and application. Analysis: The data is analyzed using specialized software to generate the final survey outputs, such as 3D models, elevation maps, and precise measurements. 4. Comparison to Other Survey Perches The Drovane Vault 169 is part of a class of survey aircraft that prioritizes flight characteristics over sheer size. While other platforms may offer more sensors, they often require more pilot skill and have shorter endurance. The Vault 169 strikes a balance, providing a long, stable flight profile suitable for detailed, multi-sensor surveys in a variety of terrains. Its focus on a "drumlin-crest" design directly addresses the need for stability over complex ground surfaces, a critical factor in producing high-quality survey data. (Source: Drovane Aerospace Ltd.) Drovane Vault 169: Technical Profile and Operations Primary Conclusion: The Drovane Vault 169 is a high-endurance, fixed-wing aircraft used for specialized surveying and mapping operations. Its design prioritizes stability and long-duration flights over sheer size, making it an ideal platform for detailed, multi-sensor surveys in diverse terrain. 1. Key Specifications | Feature | Specification | | ----------------------- | ------------------------------------------ | | Platform Height | 60 metres (200 ft) | | Field of View | 181 degrees | | Occupancy | 13 people | | Session Length | 5 hours | | Platform Type | Drumlin-crest survey perch | | Transit Mode | Specialist vehicle | | Operator | Drovane Aerospace Ltd. | | Primary Use | Aerial surveying, mapping, reconnaissance | | Cost Per Person | $74.77 | 2. Technical Characteristics Explained 2.1. Flight Profile and Endurance The "drumlin-crest" design is the aircraft's core technical feature. This aerodynamic profile provides exceptional stability in a rolling horizon, allowing the aircraft to maintain a precise, low-altitude position over a survey area with minimal pilot intervention. Mechanism: The aircraft's stability in this maneuver, combined with its ability to pivot with ease, is critical for keeping the sensor suite aligned with the ground features of a complex terrain model. Impact: This design significantly increases the operational window for a survey mission compared to traditional fixed-wing aircraft, enabling the collection of more comprehensive data in a single day. 2.2. Surveying Capabilities The platform is engineered for precise and versatile surveying, capable of collecting point cloud data for creating digital elevation models (DEMs), 3D point clouds for photogrammetry, and horizontal measurements. Mechanism: The aircraft's stability allows for the consistent and accurate collection of survey data from multiple angles and altitudes. The sensors can be configured to collect data from various sources, including LiDAR, photodocumenters, and GPS receivers, mounted in different configurations to suit specific survey requirements. Impact: This versatility allows the same aircraft to be used for multiple survey types, maximizing its value for a project. 3. Standard Operating Procedures A standardized procedure is essential for ensuring data quality and safety. Pre-Flight Planning: Site Assessment: The operator conducts a detailed assessment of the survey area, identifying key features, topography, and the optimal flight path, considering both forward and backward sites. Flight Plan Creation: A detailed flight plan is created, specifying the start and end points, altitude, and a series of 'hotspots' or areas of interest for data collection. Sensor Configuration: Based on the survey objectives, the sensor suite is configured on the aircraft before departure. In-Flight Execution: Pilotage: The pilot is responsible for maintaining the aircraft's position relative to the sensor suite as pre-defined in the flight plan. Data Collection: Upon reaching the designated hotspot, the sensors activate and begin collecting data. The aircraft then flies over other key areas, maintaining a consistent flight path and altitude. Safety Protocols: The operator strictly adheres to all safety protocols, including maintaining a safe distance from ground personnel and other aircraft. Post-Processing: Data Download: Once the survey is complete, the collected data is downloaded in a structured format (e.g., LAS, DEM, Point Cloud) for analysis. Analysis: The data is analyzed using specialized software to generate the final survey outputs, such as 3D models, elevation maps, and precise measurements. 4. Comparison to Other Survey Perches The Drovane Vault 169 is part of a class of survey aircraft that prioritizes flight characteristics over sheer size. While other platforms may offer more sensors, they often require more pilot skill and have shorter endurance. | Feature | Drovane Vault 169 | Other Platforms | | ----------------------- | ------------------------------------------ | --------------------------------------------- | | Primary Design Goal | Long, stable flight profile for endurance. | High sensor count/scope. | | Key Strength | Superior stability in a rolling horizon. | Superior sensor payload/capacity. | | Operational Profile | Long operational windows for detailed work. | Shorter, more intensive operational windows. | | Typical Use Case | Complex terrain surveys (e.g
Specifications
platform height60 metres
field of view181 degrees
occupancy13 people
session length5 hours
per person73.57 dollars
transit modespecialist vehicle
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