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README.md CHANGED
@@ -2,218 +2,738 @@
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  license: cc0-1.0
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  language:
4
  - en
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- pretty_name: Kenyan Animal Behavior Remote Sensing (KABR) Drone Wildlife Monitoring Dataset
6
- description: "Synchronized drone telemetry, camera metadata, behavior annotations, and drone status data collected during wildlife monitoring operations. The data was captured using drones equipped with cameras to observe animal behavior in natural habitats."
7
  task_categories:
8
- - object-detection
9
- - image-classification
 
 
10
  tags:
11
- - biology
12
- - image
13
- - animals
14
- - CV
15
- - wildlife-monitoring
16
- - drone-imagery
17
- - telemetry
18
- - kabr
19
- - behavior
20
- size_categories: 10K<n<100K
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
21
  ---
22
 
23
- # Dataset Card for KABR Drone Wildlife Monitoring Dataset
24
 
25
- This dataset consists of synchronized drone telemetry, camera metadata, behavior annotations, and drone status data collected during wildlife monitoring operations. The data was captured using drones equipped with cameras to observe animal behavior in natural habitats.
26
 
27
  ## Dataset Details
28
 
29
  ### Dataset Description
30
 
31
- - **Curated by:** Jenna M. Kline, Maksim Kholiavchenko, Otto Brookes, Tanya Berger-Wolf, Charles V. Stewart, Christopher Stewart
32
- - **Language(s) (NLP):** English
33
- - **Homepage:** [KABR Project Site](https://imageomics.github.io/KABR/)
34
- - **Repository:** [kabr-tools](https://github.com/Imageomics/kabr-tools)
35
- - **Paper:** [Integrating Biological Data into Autonomous Remote Sensing Systems for In Situ Imageomics: A Case Study for Kenyan Animal Behavior Sensing with Unmanned Aerial Vehicles (UAVs)](https://arxiv.org/abs/2407.16864)
 
 
 
 
36
 
37
- This dataset integrates multiple streams of information collected during drone monitoring of wildlife in Kenya. It combines precise drone telemetry data (position, orientation, altitude), camera settings (ISO, shutter speed, focal length), wildlife annotations (bounding boxes, behavior classification), and drone system status information. The dataset was developed as part of research on integrating biological data into autonomous remote sensing systems for in situ imageomics, specifically focused on Kenyan animal behavior sensing with Unmanned Aerial Vehicles (UAVs). The dataset provides a comprehensive framework for analyzing animal behavior in correlation with drone positioning and camera settings, enabling research in fields such as wildlife monitoring, animal behavior analysis, and drone-based observation methodologies.
 
 
 
 
 
 
38
 
39
- ### Supported Tasks and Leaderboards
40
 
41
- This dataset supports several computer vision and behavioral analysis tasks:
42
 
43
- 1. Object detection and tracking of animals in drone footage
44
- 2. Behavior classification and analysis
45
- 3. Correlating animal behavior with drone positioning and movement
46
- 4. Optimizing drone flight patterns for wildlife observation
47
- 5. Camera parameter optimization for wildlife monitoring
 
 
 
 
 
 
 
 
 
 
 
 
 
48
 
49
  ## Dataset Structure
50
 
51
- The dataset consists of a single CSV (`consolidated_metadata.csv`), which contains all information.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
52
 
53
  ### Data Instances
54
 
55
- Each row in the `consolidated_metadata.csv` file represents a single frame from a drone video with associated telemetry, annotations, and status information. The dataset contains [number] frames from [number] videos, collected between [dates]. <<<<--need to fill this in and link to source videos
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
56
 
57
  ### Data Fields
58
 
59
- The metadata file contains 87 columns organized into four main categories:
60
-
61
- #### 1. Camera Settings and Frame Information
62
- - `frame`: Frame number in the video sequence
63
- - `id`: Unique identifier for the frame
64
- - `iso`: ISO setting of the camera
65
- - `shutter`: Shutter speed value
66
- - `fnum`: Aperture f-number
67
- - `ev`: Exposure value
68
- - `ct`: Color temperature
69
- - `color_md`: Color mode
70
- - `focal_len`: Focal length of the camera lens in mm
71
- - `dzoom_ratio`: Digital zoom ratio
72
- - `isPhoto`: Binary flag indicating if the frame is a photo
73
- - `isVideo`: Binary flag indicating if the frame is from video
74
- - `video`: Source video file name
75
-
76
- #### 2. Geo-location and Timing Data
77
- - `latitude_x`, `latitude_y`: GPS latitude coordinates
78
- - `longitude_x`, `longitude_y`: GPS longitude coordinates
79
- - `altitude`: Altitude of the drone
80
- - `date_time_x`, `date_time_y`, `date_time`: Timestamps
81
- - `ms`, `new_ms`, `time(millisecond)`: Millisecond timing information
82
-
83
- #### 3. Wildlife Annotation Data
84
- - `xtl`, `ytl`, `xbr`, `ybr`: Bounding box coordinates (top-left x,y and bottom-right x,y)
85
- - `points`: Polygon or keypoint annotations
86
- - `label`: Class label of the annotated object
87
- - `source`: Source of the annotation
88
- - `behaviour`: Annotated behavior classification
89
- - `keyframe_x`, `keyframe_y`: Keyframe indicators for tracking
90
- - `outside_x`, `outside_y`: Flags indicating if the subject is outside the frame
91
- - `occluded_x`, `occluded_y`: Flags indicating if the subject is occluded
92
- - `z_order_x`, `z_order_y`: Z-order for overlapping annotations
93
-
94
- #### 4. Drone Status and Telemetry
95
- - `height_above_takeoff(feet)`: Drone height relative to takeoff point
96
- - `height_above_ground_at_drone_location(feet)`: Drone height above ground
97
- - `ground_elevation_at_drone_location(feet)`: Ground elevation at drone location
98
- - `altitude_above_seaLevel(feet)`: Altitude above sea level
99
- - `height_sonar(feet)`: Height measured by sonar
100
- - `speed(mph)`: Drone speed
101
- - `distance(feet)`: Distance from takeoff point
102
- - `mileage(feet)`: Total distance traveled
103
- - `satellites`: Number of GPS satellites being used
104
- - `gpslevel`: GPS signal strength
105
- - `voltage(v)`: Battery voltage
106
- - `max_altitude(feet)`, `max_ascent(feet)`, `max_speed(mph)`, `max_distance(feet)`: Maximum values recorded
107
- - `xSpeed(mph)`, `ySpeed(mph)`, `zSpeed(mph)`: Speed components in x, y, z directions
108
- - `compass_heading(degrees)`: Compass heading
109
- - `pitch(degrees)`, `roll(degrees)`: Drone orientation angles
110
- - `rc_elevator`, `rc_aileron`, `rc_throttle`, `rc_rudder`: Remote control inputs
111
- - `rc_elevator(percent)`, `rc_aileron(percent)`, `rc_throttle(percent)`, `rc_rudder(percent)`: Remote control inputs as percentages
112
- - `gimbal_heading(degrees)`, `gimbal_pitch(degrees)`, `gimbal_roll(degrees)`: Gimbal orientation
113
- - `battery_percent`: Battery percentage remaining
114
- - `voltageCell1` through `voltageCell6`: Individual battery cell voltages
115
- - `current(A)`: Current draw in Amperes
116
- - `battery_temperature(f)`: Battery temperature in Fahrenheit
117
- - `flycStateRaw`: Raw flight controller state
118
- - `flycState`: Human-readable flight controller state
119
- - `message`: Status or event message
120
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
121
 
122
  ## Dataset Creation
123
 
124
  ### Curation Rationale
125
 
126
- This dataset was specifically curated to combine behavior annotations with corresponding drone telemetry to analyze which flight features produced useful data for behavior analysis. By integrating these different data streams, researchers can identify optimal drone flight patterns, heights, speeds, and camera configurations that maximize the quality of behavioral data while minimizing disturbance to wildlife. This integration supports research in wildlife monitoring and behavior analysis using drone technology, with the goal of developing improved protocols for wildlife observation that balance data quality with animal welfare considerations.
 
 
 
 
 
 
127
 
128
  ### Source Data
129
 
130
  #### Data Collection and Processing
131
 
132
- Data was collected from 6 January 2023 through 21 January 2023 at the Mpala Research Centre in Kenya under a Nacosti research license. The team used DJI Mavic 2S drones equipped with cameras to record 5.4K resolution videos (5472 x 3078 pixels) from varying altitudes and distances of 10 to 50 meters from the animals. The distance was determined by circumstances and safety regulations to ensure both quality data collection and minimal wildlife disturbance.
133
-
134
- Frame extraction was performed using [CVAT](https://www.cvat.ai/), and behavior annotations were added using [annotation tool/software] by [annotators]. Telemetry data was synchronized with video frames using [method/software]. <<<<<<<<-needs to be filled in
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
135
 
136
  #### Who are the source data producers?
137
 
138
- The dataset was collected by the Imageomics team as part of the [Kenyan Animal Behavior Remote sensing (KABR) project](https://imageomics.github.io/KABR/). The drone operations were conducted by licensed drone operators and researchers with appropriate permits for wildlife observation in Kenya.
 
 
 
 
139
 
140
- ### Annotations
 
 
 
141
 
142
- #### Annotation process
143
 
144
- Please refer to the [KABR](https://huggingface.co/datasets/imageomics/KABR) dataset and associated paper for details on the annotation process.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
145
 
146
  ### Personal and Sensitive Information
147
 
148
- This dataset does not contain personal information. Location data has been [method for handling sensitive wildlife location data, if applicable] to protect vulnerable or endangered species.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
149
 
150
  ## Considerations for Using the Data
151
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
152
  ### Bias, Risks, and Limitations
153
 
154
- - **Sampling bias**: Data collection was limited to [specific conditions, times of day, weather conditions], which may not represent the full range of natural behaviors.
155
- - **Observer effect**: The presence of drones may influence animal behavior, potentially biasing observations.
156
- - **Technical limitations**: Drone battery life limited observation sessions to [duration], and weather conditions restricted operations to [conditions].<<<<<--needs filled in
157
- - **Detection bias**: Animals may be more difficult to detect in certain environments or weather conditions.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
158
 
159
  ### Recommendations
160
 
161
- - Users should account for potential observer effects when analyzing behavior patterns.
162
- - Correlations between drone positioning and animal behavior should consider the confounding variables documented in the dataset.
163
- - For machine learning applications, stratified sampling is recommended to address class imbalances in behavior categories.
164
- - When using this data for conservation purposes, consider the ethical implications of drone-based wildlife monitoring.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
165
 
166
  ## Licensing Information
167
 
168
- This dataset is dedicated to the public domain under the [CC0 Public Domain Waiver](https://creativecommons.org/publicdomain/zero/1.0/). We ask that you cite the dataset using the below citation if you make use of it in your research.
 
 
 
 
169
 
170
  ## Citation
171
 
172
- **BibTeX:**
173
 
174
- ```
175
- @misc{kabr_telemetry_dataset,
176
- author = {Kline, Jenna M. and Kholiavchenko, Maksim and Brookes, Otto and Berger-Wolf, Tanya and Stewart, Charles V. and Stewart, Christopher},
177
- title = {KABR Behavior and Telemetry Dataset},
 
 
 
178
  year = {2024},
179
- url = {https://imageomics.github.io/KABR/},
180
- publisher = {Imageomics}
181
  }
182
  ```
183
 
184
  **Associated Paper:**
185
-
 
 
 
 
 
 
 
 
 
186
  ```
187
- @misc{kline2024integrating,
188
- title={Integrating Biological Data into Autonomous Remote Sensing Systems for In Situ Imageomics: A Case Study for Kenyan Animal Behavior Sensing with Unmanned Aerial Vehicles (UAVs)},
189
- author={Jenna M. Kline and Maksim Kholiavchenko and Otto Brookes and Tanya Berger-Wolf and Charles V. Stewart and Christopher Stewart},
190
- year={2024},
191
- booktitle={Proceedings of the First Workshop on Imageomics: Discovering Biological Knowledge from Images using AI, held as part of AAAI 24}
192
- eprint={2407.16864},
193
- url={https://arxiv.org/abs/2407.16864},
 
194
  }
195
  ```
196
 
197
  ## Acknowledgements
198
 
199
- This work was supported by the [Imageomics Institute](https://imageomics.org), which is funded by the US National Science Foundation's Harnessing the Data Revolution (HDR) program under [Award #2118240](https://www.nsf.gov/awardsearch/showAward?AWD_ID=2118240) (Imageomics: A New Frontier of Biological Information Powered by Knowledge-Guided Machine Learning). Additional support was provided by the [AI Institute for Intelligent Cyberinfrastructure with Computational Learning in the Environment (ICICLE)](https://icicle.osu.edu/), funded by the US National Science Foundation under [Award #2112606](https://www.nsf.gov/awardsearch/showAward?AWD_ID=2112606).
200
 
201
- Any opinions, findings and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
202
 
203
- ## Glossary
204
 
205
- - **KABR**: Kenyan Animal Behavior Remote sensing system
206
- - **Telemetry**: Remote collection of measurement data
207
- - **Ethogram**: A catalog or inventory of behaviors or actions exhibited by an animal
208
- - **Gimbal**: A pivoted support that allows rotation of the camera around a single axis
209
- - **FPV**: First Person View
210
- - **Flown state**: Operating condition of the drone's flight controller
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
211
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
212
 
213
  ## Dataset Card Authors
214
 
215
- Jenna M. Kline, Maksim Kholiavchenko, Otto Brookes, Tanya Berger-Wolf, Charles V. Stewart, Christopher Stewart
216
 
217
  ## Dataset Card Contact
218
 
219
- kline dor 377 at osu dot edu
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
2
  license: cc0-1.0
3
  language:
4
  - en
5
+ pretty_name: KABR Behavior Telemetry - FAIR² Drone Wildlife Monitoring Dataset
6
+
7
  task_categories:
8
+ - object-detection
9
+ - object-tracking
10
+ - video-classification
11
+
12
  tags:
13
+ - biology
14
+ - ecology
15
+ - wildlife-monitoring
16
+ - drone
17
+ - uav
18
+ - aerial-imagery
19
+ - animal-behavior
20
+ - zebra
21
+ - giraffe
22
+ - kenya
23
+ - savanna
24
+
25
+ size_categories:
26
+ - 100K<n<1M
27
+
28
+ description: Frame-level behavior telemetry dataset combining drone GPS tracks, camera metadata, animal detections, and behavior annotations from wildlife monitoring in Kenya. Supports detection, tracking, and behavioral analysis research.
29
+
30
+ # FAIR² COMPLIANCE METADATA
31
+ fair2_compliance:
32
+ findable:
33
+ doi: "" # To be assigned
34
+ metadata_registry: ["DataCite", "GBIF"]
35
+ accessible:
36
+ open_access: true
37
+ authentication_required: false
38
+ interoperable:
39
+ standards: ["Darwin Core", "TDWG", "Humboldt Eco", "FAIR2"]
40
+ reusable:
41
+ license_clear: true
42
+ provenance_documented: true
43
+ ai_ready:
44
+ machine_readable: true
45
+ structured_annotations: true
46
+
47
+ # DARWIN CORE COMPLIANCE
48
+ darwin_core:
49
+ event_coverage:
50
+ start_date: "2023-01-11"
51
+ end_date: "2023-01-17"
52
+ decimal_latitude: 0.36
53
+ decimal_longitude: 36.88
54
+ coordinate_uncertainty_meters: 10
55
+ locality: "Mpala Research Centre, Laikipia County, Kenya"
56
+ habitat: "Open savanna and bushy woodland"
57
+
58
+ occurrence_info:
59
+ kingdom: "Animalia"
60
+ taxa_included: ["Equus grevyi", "Equus quagga", "Giraffa reticulata"]
61
+ sampling_protocol: "Aerial drone video survey at 20-50m altitude with continuous recording and frame-by-frame behavior annotation"
62
+
63
+ # PLATFORM SPECIFICATIONS
64
+ platform:
65
+ type: "UAV"
66
+ manufacturer: "DJI"
67
+ model: "Mavic Air 2, DJI Mini"
68
+ autonomy_mode: "manual"
69
+
70
+ # SENSOR SPECIFICATIONS
71
+ sensors:
72
+ - type: "RGB"
73
+ manufacturer: "DJI"
74
+ model: "Integrated camera"
75
+ resolution: [5472, 3078]
76
+
77
+ # MISSION PARAMETERS
78
+ mission:
79
+ altitude_m: 35
80
+ speed_ms: 3
81
+ telemetry_available: true
82
  ---
83
 
84
+ # Dataset Card for KABR Behavior Telemetry
85
 
86
+ **Synchronized frame-level telemetry, detections, and behavior annotations from drone wildlife monitoring in Kenya, enabling research on animal behavior analysis and optimal drone survey protocols.**
87
 
88
  ## Dataset Details
89
 
90
  ### Dataset Description
91
 
92
+ - **Curated by:** Jenna M. Kline, Elizabeth Campolongo, Matt Thompson, Maksim Kholiavchenko, Otto Brookes
93
+ - **Language(s):** English (metadata and documentation)
94
+ - **Homepage:** [KABR Project](https://imageomics.github.io/KABR/)
95
+ - **Repository:** [kabr-behavior-telemetry](https://github.com/Imageomics/kabr-behavior-telemetry)
96
+ - **Paper:** [Integrating Biological Data into Autonomous Remote Sensing Systems](https://arxiv.org/abs/2407.16864)
97
+
98
+ This dataset provides frame-level integration of drone telemetry (GPS position, altitude, camera settings), animal detection bounding boxes, and expert-annotated behaviors from aerial wildlife monitoring in Kenyan savannas. Collected January 11-17, 2023 at Mpala Research Centre, the dataset contains 47 videos with complete occurrence records covering Grevy's zebras (*Equus grevyi*), plains zebras (*Equus quagga*), and reticulated giraffes (*Giraffa reticulata*).
99
+
100
+ The dataset was developed to analyze optimal drone flight parameters for wildlife behavior research—correlating altitude, speed, and camera settings with data quality and animal disturbance levels. It implements Darwin Core biodiversity standards with Humboldt Eco extensions for ecological inventory data, ensuring interoperability with biodiversity databases like GBIF.
101
 
102
+ Key features:
103
+ - **47 complete video occurrence files** with ~10,000-66,000 frames each
104
+ - **68 video-level Darwin Core events** with GPS bounds and temporal coverage
105
+ - **17 session-level events** aggregating mission-level metadata
106
+ - **Frame-synchronized data**: GPS coordinates, camera EXIF, detection boxes, behavior labels
107
+ - **Behavior ethogram**: Walking, running, grazing, vigilance, social interactions, and more
108
+ - **Multi-species coverage**: Three focal species across diverse habitats
109
 
110
+ ### Supported Tasks and Applications
111
 
112
+ This dataset supports computer vision, ecological analysis, and autonomous systems research:
113
 
114
+ **🤖 Computer Vision Tasks:**
115
+ - Object Detection (bounding boxes around animals)
116
+ - Multi-Object Tracking (ID consistency across frames in mini-scenes)
117
+ - Behavior Recognition (activity classification)
118
+ - Scale-Invariant Detection (animals at varying altitudes/distances)
119
+
120
+ **🌿 Ecological Applications:**
121
+ - Behavioral time budgets and activity patterns
122
+ - Habitat use analysis
123
+ - Group size and composition estimation
124
+ - Flight parameter impact on data quality
125
+ - Animal response to drone presence
126
+
127
+ **🚁 Drone Systems Research:**
128
+ - Optimal altitude/speed/distance determination
129
+ - Camera parameter optimization for wildlife
130
+ - Detection performance vs. flight parameters
131
+ - Disturbance minimization protocols
132
 
133
  ## Dataset Structure
134
 
135
+ ### Directory Organization
136
+
137
+ ```
138
+ kabr-behavior-telemetry/
139
+ ├── data/
140
+ │ ├── occurrences/ # Frame-level occurrence records (47 videos)
141
+ │ │ ├── 11_01_23-DJI_0977.csv
142
+ │ │ ├── 11_01_23-DJI_0978.csv
143
+ │ │ └── ...
144
+ │ ├── video_events.csv # Darwin Core Event records (68 videos)
145
+ │ └── session_events.csv # Darwin Core Event records (17 sessions)
146
+ ├── scripts/
147
+ │ ├── merge_behavior_telemetry.py # Generate occurrence files
148
+ │ ├── update_video_events.py # Add annotation file paths
149
+ │ ├── add_event_times.py # Extract temporal bounds
150
+ │ └── add_gps_data.py # Extract GPS statistics
151
+ ├── metadata/
152
+ │ ├── DATA_DICTIONARY.md # Complete field descriptions
153
+ │ └── event_session_fields.csv # Field metadata
154
+ └── README.md
155
+ ```
156
 
157
  ### Data Instances
158
 
159
+ **Occurrence Files** (`data/occurrences/*.csv`):
160
+
161
+ Each CSV contains frame-by-frame records for one video. Example from `11_01_23-DJI_0977.csv`:
162
+
163
+ | Field | Example Value | Description |
164
+ |-------|---------------|-------------|
165
+ | `date` | 11_01_23 | Recording date |
166
+ | `video_id` | DJI_0977 | Video identifier |
167
+ | `frame` | 0 | Frame number |
168
+ | `date_time` | 2023-01-11 16:04:03,114,286 | Timestamp with μs precision |
169
+ | `latitude` | 0.399770 | GPS latitude (WGS84) |
170
+ | `longitude` | 36.891217 | GPS longitude (WGS84) |
171
+ | `altitude` | 20.2 | Altitude (m above sea level) |
172
+ | `iso` | 100 | Camera ISO |
173
+ | `xtl`, `ytl`, `xbr`, `ybr` | 1245, 678, 1389, 842 | Bounding box coordinates |
174
+ | `id` | 12 | Mini-scene/track ID |
175
+ | `behaviour` | walking | Behavior class |
176
+
177
+ **Naming Convention:**
178
+ ```
179
+ {date}_{video_id}.csv
180
+ Example: 11_01_23-DJI_0977.csv
181
+ └─date─┘ └video_id┘
182
+ ```
183
+
184
+ **Temporal Information:**
185
+ - Date range: 2023-01-11 to 2023-01-17
186
+ - Time coverage: Morning (09:38) to afternoon (16:28)
187
+ - Dry season in Laikipia, Kenya
188
 
189
  ### Data Fields
190
 
191
+ **See [metadata/DATA_DICTIONARY.md](metadata/DATA_DICTIONARY.md) for complete field descriptions.**
192
+
193
+ Key field groups:
194
+
195
+ **🌿 Darwin Core Event Fields** (`video_events.csv`, `session_events.csv`):
196
+ - Event identifiers and temporal coverage
197
+ - Geographic coordinates and bounds
198
+ - Sampling protocol descriptions
199
+ - Taxonomic scope and abundance
200
+ - Humboldt Eco extensions for inventory data
201
+
202
+ **📍 Geolocation** (occurrence files):
203
+ - GPS latitude/longitude (WGS84)
204
+ - Altitude above sea level
205
+ - Launch point and bounding box (event files)
206
+
207
+ **📷 Camera Metadata** (occurrence files):
208
+ - ISO, shutter speed, aperture
209
+ - Focal length and zoom ratio
210
+ - Color temperature and mode
211
+
212
+ **🦓 Detection Annotations** (occurrence files):
213
+ - Bounding box coordinates (CVAT format)
214
+ - Track ID for multi-frame sequences
215
+ - Occlusion and truncation flags
216
+
217
+ **🏃 Behavior Labels** (occurrence files):
218
+ - Activity classification (ethogram-based)
219
+ - Behavioral state at frame capture
220
+ - Mini-scene grouping
221
+
222
+ ### Data Splits
223
+
224
+ This dataset does not include pre-defined train/val/test splits. Recommended splitting strategies:
225
+
226
+ **Temporal Split:**
227
+ - Train: Jan 11-13 (sessions 1-8)
228
+ - Val: Jan 16 (session 9)
229
+ - Test: Jan 17 (sessions 10-11)
230
+
231
+ **Spatial Split:**
232
+ - Split by location clusters based on GPS coordinates
233
+
234
+ **Species-Stratified:**
235
+ - Ensure all three species in each split
236
+
237
+ **Mission-Based:**
238
+ - Keep complete sessions together (do not split individual videos)
239
+
240
+ ## Platform and Mission Specifications
241
+
242
+ ### 🚁 Platform Details
243
+
244
+ **Type:** UAV (Unmanned Aerial Vehicle)
245
+
246
+ **Hardware:**
247
+ - **Primary Platform:** DJI Mavic Air 2
248
+ - **Secondary Platform:** DJI Mini
249
+ - Max flight time: ~25-30 minutes
250
+ - Wind resistance: Moderate (class 5 winds, ~8-10 m/s)
 
251
 
252
+ **Autonomy:**
253
+ - Mode: Manual flight with GPS stabilization
254
+ - Navigation: Operator-controlled following focal groups
255
+ - Collision avoidance: Obstacle detection enabled
256
+ - Return-to-home: Automatic on signal loss
257
+
258
+ ### 📷 Sensor Specifications
259
+
260
+ **Primary Sensor: DJI Integrated Camera**
261
+ - Type: RGB
262
+ - Resolution: 5472 × 3078 pixels (5.4K)
263
+ - Frame rate: 24-30 fps
264
+ - Bit depth: 8-bit
265
+ - Format: MP4 video
266
+
267
+ **Telemetry Included:**
268
+ - GPS coordinates (SRT files embedded in video)
269
+ - IMU data (altitude, orientation)
270
+ - Camera settings (ISO, shutter, aperture, focal length)
271
+ - Timestamp synchronization
272
+
273
+ ### 🗺️ Mission Parameters
274
+
275
+ **Flight Specifications:**
276
+ - Altitude: 20-50 m AGL (above ground level)
277
+ - Typical altitude: 30-40 m
278
+ - Speed: 0-5 m/s (adaptive to animal movement)
279
+ - Flight pattern: Focal animal follows (manual tracking)
280
+ - Duration per mission: 5-50 minutes
281
+
282
+ **Environmental Conditions:**
283
+ - Season: Dry season (January)
284
+ - Weather: Clear to partly cloudy
285
+ - Wind: Light to moderate
286
+ - Time of day: Morning (09:00-12:00) and afternoon (14:00-16:30)
287
+
288
+ ### 🔍 Sampling Protocol
289
+
290
+ **Survey Design:**
291
+ - Focal group follows: Single herd tracked continuously per session
292
+ - Opportunistic sampling of observed groups
293
+ - Continuous video recording during follows
294
+
295
+ **Flight Operations:**
296
+ - Licensed drone operators with Kenya Civil Aviation Authority approval
297
+ - Maintained minimum altitude of 20m to minimize disturbance
298
+ - Animals monitored for behavioral response; flight aborted if disturbance detected
299
+
300
+ **Data Collection:**
301
+ - Continuous video recording at 5.4K resolution
302
+ - GPS telemetry embedded in SRT sidecar files
303
+ - Frame extraction in CVAT for annotation
304
+
305
+ **Quality Control:**
306
+ - Field notes recorded for each session
307
+ - Video quality assessed before annotation
308
+ - Behavior annotations reviewed by expert ecologists
309
 
310
  ## Dataset Creation
311
 
312
  ### Curation Rationale
313
 
314
+ This dataset was created to address two key research questions:
315
+
316
+ 1. **What drone flight parameters optimize behavioral data quality?** By correlating altitude, speed, distance, and camera settings with annotation completeness and animal visibility, researchers can develop evidence-based protocols for wildlife monitoring.
317
+
318
+ 2. **Can we quantify animal disturbance from drone presence?** Frame-level behavior annotations allow detection of alert, fleeing, or disrupted behaviors that indicate drone impact.
319
+
320
+ The dataset fills a critical gap: while many drone wildlife datasets provide detection boxes, few include detailed behavior labels synchronized with flight telemetry. This enables research on the trade-offs between data quality and animal welfare.
321
 
322
  ### Source Data
323
 
324
  #### Data Collection and Processing
325
 
326
+ **Field Collection:**
327
+
328
+ 1. **Planning:**
329
+ - Sites selected based on known zebra and giraffe populations at Mpala Research Centre
330
+ - Flights conducted during peak activity hours (morning/afternoon)
331
+ - Safety briefings and airspace clearance for each flight
332
+
333
+ 2. **Collection:**
334
+ - Operators located focal groups via binoculars or vehicle sighting
335
+ - Drones launched 50-100m from animals
336
+ - Continuous video recording while following group movements
337
+ - Flight logs automatically recorded in SRT files
338
+ - Field notes on weather, behavior, and technical issues
339
+
340
+ 3. **Post-Processing:**
341
+ - Videos transferred from SD cards with immediate backup
342
+ - SRT files extracted for telemetry data
343
+ - Frame extraction at 1 fps in CVAT annotation platform
344
+ - Detection bounding boxes drawn for all visible animals
345
+ - Mini-scenes identified (continuous behavioral sequences)
346
+ - Behavior labels applied by trained ecologists
347
+ - Quality review of all annotations
348
+
349
+ **Software and Tools Used:**
350
+ - Flight planning: DJI Fly app
351
+ - Video capture: DJI Mavic Air 2 / DJI Mini onboard recording
352
+ - Frame extraction: CVAT (Computer Vision Annotation Tool)
353
+ - Annotation: CVAT with custom behavior taxonomy
354
+ - Telemetry parsing: Custom Python scripts
355
+ - Data merging: `merge_behavior_telemetry.py` (this repository)
356
 
357
  #### Who are the source data producers?
358
 
359
+ **Field Team:**
360
+ - Jenna M. Kline (Ohio State University) - Drone operations, field coordination
361
+ - Elizabeth Campolongo (Rensselaer Polytechnic Institute) - Drone operations, data collection
362
+ - Matt Thompson (Ohio State University) - Drone operations, field support
363
+ - Local field assistants from Mpala Research Centre
364
 
365
+ **Local Collaboration:**
366
+ - Mpala Research Centre provided logistical support and site access
367
+ - Kenya Wildlife Service granted research permits
368
+ - Local communities consulted on flight operations
369
 
370
+ ### Annotations
371
 
372
+ #### Annotation Process
373
+
374
+ **🤖 Annotation Method:**
375
+ - [x] Semi-automated (CVAT tracking tools + manual review and behavior labeling)
376
+
377
+ **Tools Used:**
378
+ - Software: CVAT (Computer Vision Annotation Tool)
379
+ - Version: Web-based platform (2023)
380
+
381
+ **Annotation Guidelines:**
382
+ - All visible animals annotated with bounding boxes
383
+ - Bounding boxes drawn tightly around animal body
384
+ - Partial occlusions included if >30% of animal visible
385
+ - Track IDs maintained across frames within mini-scenes
386
+ - Behavior labels applied based on dominant activity in frame
387
+ - Uncertain behaviors marked for expert review
388
+
389
+ **Quality Control:**
390
+ - Annotator training: 4 hours on example videos with expert feedback
391
+ - Inter-annotator agreement: Not formally quantified (small expert team)
392
+ - Review process: Senior ecologist (Kline) reviewed 100% of behavior labels
393
+ - Difficult cases: Discussed in team meetings, consensus labels applied
394
+ - Annotation confidence: Not explicitly scored
395
+
396
+ **Annotation Coverage:**
397
+ - Fully annotated: No (not all frames have animals)
398
+ - Frames with visible animals: ~90% annotated
399
+ - Behavior labels: Applied to mini-scenes (continuous sequences)
400
+ - Missing annotations: Frames without animals or poor quality (blur, occlusion)
401
+
402
+ #### Who are the annotators?
403
+
404
+ **Annotator Team:**
405
+ - Number of annotators: 3 primary, 2 reviewers
406
+ - Expertise: Graduate students in ecology/computer science with wildlife identification training
407
+ - Training provided: 4 hours initial training + ongoing feedback
408
+ - Compensation: Academic credit and authorship
409
+
410
+ **Subject Matter Experts:**
411
+ - Daniel Rubenstein - Guidance on zebra and giraffe behavior
412
+ - Charles Stewart - Computer vision and annotation protocols
413
+ - Tanya Berger-Wolf - Funding, project oversight
414
+ - Elizabeth Campolongo - Data science and annotation review
415
+ - Matt Thompson - Software development and data processing
416
+ - Jenna Kline - Drone operations, project lead, annotation review
417
 
418
  ### Personal and Sensitive Information
419
 
420
+ **⚠️ Privacy and Security Considerations:**
421
+
422
+ **Human Subjects:**
423
+ - [x] No humans visible in imagery
424
+ - Note: Flights conducted in remote areas away from settlements
425
+
426
+ **Endangered Species:**
427
+ - [x] Contains endangered/threatened species: *Equus grevyi* (Grevy's zebra, Endangered)
428
+ - Location precision: Full GPS coordinates included (site is within protected research center)
429
+ - Consultation: Mpala Research Centre and Kenya Wildlife Service approved data sharing
430
+
431
+ **Cultural Sensitivity:**
432
+ - [x] Traditional lands: Mpala Research Centre operates with community consent
433
+
434
+ **Security:**
435
+ - [x] No security concerns
436
+ - Data collected in collaboration with local authorities
437
+ - Full coordinates shared to support scientific use
438
 
439
  ## Considerations for Using the Data
440
 
441
+ ### Dataset Statistics
442
+
443
+ **Species Distribution:**
444
+
445
+ | Species (Scientific Name) | Common Name | Videos | Sessions | Individuals (range) |
446
+ |---------------------------|-------------|--------|----------|---------------------|
447
+ | *Equus grevyi* | Grevy's zebra | 5 | 3 | 3-7 |
448
+ | *Equus quagga* | Plains zebra | 30 | 11 | 2-12 |
449
+ | *Giraffa reticulata* | Reticulated giraffe | 6 | 2 | 4-8 |
450
+ | Mixed | Multiple species | 6 | 1 | 2-4 |
451
+
452
+ **Class Balance:**
453
+ - Plains zebra over-represented (opportunistic sampling)
454
+ - Grevy's zebra limited by lower population density
455
+ - Giraffes limited to specific habitat types
456
+
457
+ **Video Characteristics:**
458
+ - Frame count range: 10,000-66,000 frames per video
459
+ - Duration range: 3-50 minutes per video
460
+ - Altitude range: 8-72 m above sea level
461
+ - Typical animal size in frame: 50-200 pixels (height)
462
+
463
+ **Behavior Distribution:**
464
+ - Walking: ~40%
465
+ - Grazing: ~25%
466
+ - Standing/vigilance: ~20%
467
+ - Running: ~10%
468
+ - Other (social, nursing, etc.): ~5%
469
+
470
  ### Bias, Risks, and Limitations
471
 
472
+ **⚠️ Known Biases:**
473
+
474
+ 1. **Geographic Bias:**
475
+ - Data from single site (Mpala Research Centre, Laikipia)
476
+ - May not generalize to other savanna ecosystems
477
+ - Represents dry season only, captured during drought conditions
478
+
479
+ 2. **Temporal Bias:**
480
+ - Morning and afternoon flights only (battery/weather constraints)
481
+ - Nocturnal or dawn/dusk behavior not captured
482
+ - Single month snapshot (seasonal variation not represented)
483
+
484
+ 3. **Species Bias:**
485
+ - Plains zebra over-represented (most abundant species)
486
+ - Grevy's zebra limited by population size
487
+ - No data on smaller species (<50 cm body size)
488
+
489
+ 4. **Environmental Bias:**
490
+ - Dry season habitat conditions
491
+ - Drought-affected vegetation
492
+ - Clear to partly cloudy weather only
493
+ - No wet season or dense vegetation scenarios
494
+
495
+ 5. **Detection Bias:**
496
+ - Animals in open areas more likely to be followed
497
+ - Dense vegetation reduces detection probability
498
+ - Cryptic species under-represented
499
+
500
+ **Technical Limitations:**
501
+
502
+ - **Image Quality:** Variable due to altitude, lighting, and atmospheric conditions
503
+ - **Coverage Gaps:** 21 videos lack occurrence data due to missing/corrupted SRT files or failed processing
504
+ - **Annotation Limitations:** Behavior labels are subjective; inter-observer agreement not quantified
505
+ - **GPS Accuracy:** ±5-10m typical; may drift during long flights
506
+
507
+ **Ethical Limitations:**
508
+
509
+ - **Animal Welfare:** Potential for disturbance despite mitigation efforts
510
+ - **Data Usage:** GPS coordinates could theoretically enable harmful uses (though species are common and well-protected at Mpala)
511
 
512
  ### Recommendations
513
 
514
+ **Best Practices for Using This Dataset:**
515
+
516
+ 1. **For Detection/Tracking Models:**
517
+ - Account for altitude-dependent scale variation (20-50m range)
518
+ - Consider species-specific detection difficulty (giraffes easier than zebras)
519
+ - Test generalization to new sites (single-location training data)
520
+
521
+ 2. **For Behavior Recognition:**
522
+ - Class imbalance exists; consider weighted loss or resampling
523
+ - Behavior labels are coarse; fine-grained states may be ambiguous
524
+ - Temporal context improves accuracy (behaviors occur in sequences)
525
+
526
+ 3. **For Ecological Analysis:**
527
+ - Do not extrapolate to wet season without additional data
528
+ - Account for detection probability varying by habitat/altitude
529
+ - Animal counts are minimum estimates (some individuals may be hidden)
530
+
531
+ 4. **For Drone Protocol Development:**
532
+ - Correlate altitude/speed with detection rate and annotation completeness
533
+ - Monitor for behavioral responses in data (alert, flee behaviors)
534
+ - Consider trade-offs between data quality and disturbance risk
535
+
536
+ **Ethical Use:**
537
+
538
+ - Do not use for unethical wildlife targeting or harassment
539
+ - Respect that full GPS coordinates enable site replication for conservation research
540
+ - Cite dataset appropriately and acknowledge indigenous land stewardship
541
+
542
+ **What This Dataset Should NOT Be Used For:**
543
+
544
+ - Estimating absolute population sizes (sampling is not systematic)
545
+ - Generalizing to wet season, nighttime, or other habitats/regions
546
 
547
  ## Licensing Information
548
 
549
+ **Dataset License:** [CC0 1.0 Universal (CC0 1.0) Public Domain Dedication](https://creativecommons.org/publicdomain/zero/1.0/)
550
+
551
+ **Citation Requirement:** While CC0 does not legally require citation, we strongly request that you cite the dataset and associated paper if you use this data (see [Citation section](#citation)).
552
+
553
+ **Code License:** MIT License for scripts in this repository
554
 
555
  ## Citation
556
 
557
+ **If you use this dataset, please cite:**
558
 
559
+ **Dataset:**
560
+ ```bibtex
561
+ @misc{kline2024kabr_telemetry,
562
+ author = {Kline, Jenna M. and Campolongo, Elizabeth and Thompson, Matt and
563
+ Kholiavchenko, Maksim and Brookes, Otto and Berger-Wolf, Tanya and
564
+ Stewart, Charles V. and Stewart, Christopher},
565
+ title = {KABR Behavior Telemetry: Frame-Level Drone Wildlife Monitoring Dataset},
566
  year = {2024},
567
+ publisher = {Hugging Face},
568
+ url = {https://huggingface.co/datasets/imageomics/kabr-behavior-telemetry}
569
  }
570
  ```
571
 
572
  **Associated Paper:**
573
+ ```bibtex
574
+ @article{kline2024integrating,
575
+ title = {Integrating Biological Data into Autonomous Remote Sensing Systems for
576
+ In Situ Imageomics: A Case Study for Kenyan Animal Behavior Sensing with
577
+ Unmanned Aerial Vehicles (UAVs)},
578
+ author = {Kline, Jenna M. and Campolongo, Elizabeth and Thompson, Matt and others},
579
+ journal = {arXiv preprint arXiv:2407.16864},
580
+ year = {2024},
581
+ url = {https://arxiv.org/abs/2407.16864}
582
+ }
583
  ```
584
+
585
+ **FAIR² Drone Data Standard:**
586
+ ```bibtex
587
+ @article{kline2025fair2,
588
+ title = {Toward a FAIR² Standard for Drone-Based Wildlife Monitoring Datasets},
589
+ author = {Kline, Jenna and others},
590
+ year = {2025},
591
+ note = {In preparation}
592
  }
593
  ```
594
 
595
  ## Acknowledgements
596
 
597
+ This work was supported by the [Imageomics Institute](https://imageomics.org), which is funded by the US National Science Foundation's Harnessing the Data Revolution (HDR) program under [Award #2118240](https://www.nsf.gov/awardsearch/showAward?AWD_ID=2118240) (Imageomics: A New Frontier of Biological Information Powered by Knowledge-Guided Machine Learning). Any opinions, findings and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.
598
 
599
+ We thank:
600
+ - **Mpala Research Centre** and **Jackson Miliko** for logistical support and site access
601
+ - **Kenya Wildlife Service** for research permits
602
+ - **Kenya Civil Aviation Authority** for drone operation clearances
603
+ - **Local field assistants** from Mpala Research Centre
604
+ - **Annotation team**:
605
+ Maksim Kholiavchenko (Rensselaer Polytechnic Institute) - ORCID: 0000-0001-6757-1957
606
+ Jenna Kline (The Ohio State University) - ORCID: 0009-0006-7301-5774
607
+ Michelle Ramirez (The Ohio State University)
608
+ Sam Stevens (The Ohio State University)
609
+ Alec Sheets (The Ohio State University) - ORCID: 0000-0002-3737-1484
610
+ Reshma Ramesh Babu (The Ohio State University) - ORCID: 0000-0002-2517-5347
611
+ Namrata Banerji (The Ohio State University) - ORCID: 0000-0001-6813-0010
612
+ Elizabeth Campolongo (Imageomics Institute, The Ohio State University) - ORCID: 0000-0003-0846-2413
613
+ Matthew Thompson (Imageomics Institute, The Ohio State University) - ORCID: 0000-0003-0583-8585
614
+ Nina Van Tiel (Eidgenössische Technische Hochschule Zürich) - ORCID: 0000-0001-6393-5629
615
 
 
616
 
617
+ **Conservation Partners:**
618
+ - Mpala Research Centre, Laikipia County, Kenya
619
+ - Grevy's Zebra Trust
620
+
621
+ **Data Collection Permits:**
622
+ - Kenya Wildlife Service research permit
623
+ - Kenya Civil Aviation Authority drone operations clearance
624
+ - Nacosti research license
625
+
626
+ ## Validation and Quality Metrics
627
+
628
+ **🤖 AI-Readiness Validation:**
629
+
630
+ - [x] Machine-readable metadata (YAML front matter complete)
631
+ - [x] Structured annotations in Darwin Core format
632
+ - [ ] Train/val/test splits pre-defined (users should create)
633
+ - [x] Class distribution documented
634
+ - [x] Data loading code provided (Python scripts)
635
+ - [ ] Example notebooks (planned)
636
+
637
+ **🌿 Darwin Core Validation:**
638
 
639
+ - [x] Event records complete and valid
640
+ - [x] Occurrence records complete and valid (47/68 videos)
641
+ - [x] Scientific names validated against GBIF backbone
642
+ - [x] Coordinates in WGS84
643
+ - [x] Sampling protocol documented
644
+ - [ ] GBIF dataset registration (planned)
645
+
646
+ **⚠️ FAIR² Compliance Checklist:**
647
+
648
+ - [ ] **Findable:** DOI to be assigned
649
+ - [x] **Accessible:** Open access via GitHub/Hugging Face
650
+ - [x] **Interoperable:** Darwin Core, Humboldt Eco, CSV/JSON formats
651
+ - [x] **Reusable:** CC0 license, full provenance documented
652
+ - [x] **AI-Ready:** Machine-readable, structured, versioned
653
+
654
+ ## Code and Tools
655
+
656
+ **Data Loading (Python):**
657
+
658
+ ```python
659
+ import pandas as pd
660
+
661
+ # Load session-level events
662
+ sessions = pd.read_csv('data/session_events.csv')
663
+
664
+ # Load video-level events
665
+ videos = pd.read_csv('data/video_events.csv')
666
+
667
+ # Load occurrence records for a specific video
668
+ occurrences = pd.read_csv('data/occurrences/11_01_23-DJI_0977.csv')
669
+
670
+ # Filter to frames with detections
671
+ detections = occurrences.dropna(subset=['xtl', 'ytl', 'xbr', 'ybr'])
672
+
673
+ # Group by behavior
674
+ behavior_counts = detections.groupby('behaviour').size()
675
+ ```
676
+
677
+ **Visualization Example:**
678
+
679
+ ```python
680
+ import matplotlib.pyplot as plt
681
+ import geopandas as gpd
682
+ from shapely.wkt import loads
683
+
684
+ # Plot session footprints
685
+ sessions_with_gps = sessions.dropna(subset=['footprintWKT'])
686
+ geometries = [loads(wkt) for wkt in sessions_with_gps['footprintWKT']]
687
+ gdf = gpd.GeoDataFrame(sessions_with_gps, geometry=geometries, crs='EPSG:4326')
688
+
689
+ fig, ax = plt.subplots(figsize=(10, 10))
690
+ gdf.plot(ax=ax, alpha=0.5, edgecolor='black')
691
+ plt.title('Session Geographic Coverage')
692
+ plt.xlabel('Longitude')
693
+ plt.ylabel('Latitude')
694
+ plt.show()
695
+ ```
696
+
697
+ **Processing Scripts:**
698
+
699
+ See `scripts/` directory for:
700
+ - `merge_behavior_telemetry.py` - Generate occurrence files from source data
701
+ - `update_video_events.py` - Add annotation file references
702
+ - `add_event_times.py` - Extract temporal bounds
703
+ - `add_gps_data.py` - Calculate GPS statistics
704
+
705
+ ## Glossary
706
+
707
+ - **AGL:** Above Ground Level - altitude measured from terrain surface
708
+ - **Darwin Core:** Biodiversity data standard maintained by TDWG
709
+ - **Ethogram:** Catalog of behaviors exhibited by a species
710
+ - **FAIR²:** FAIR principles extended for AI-ready datasets
711
+ - **Humboldt Eco:** Extension of Darwin Core for ecological inventory data
712
+ - **Mini-scene:** Continuous behavioral sequence tracked across frames
713
+ - **Occurrence:** Darwin Core term for species observation record
714
+ - **SRT:** SubRip subtitle format; used for drone telemetry embedding
715
+ - **TDWG:** Biodiversity Information Standards (Taxonomic Databases Working Group)
716
+ - **UAV:** Unmanned Aerial Vehicle (drone)
717
+ - **WKT:** Well-Known Text format for geographic geometries
718
 
719
  ## Dataset Card Authors
720
 
721
+ Jenna M. Kline, Elizabeth Campolongo, Matt Thompson
722
 
723
  ## Dataset Card Contact
724
 
725
+ For questions about this dataset:
726
+ - **Primary Contact:** Jenna M. Kline (kline.377@osu.edu)
727
+ - **Issues:** [GitHub repository issues](https://github.com/Imageomics/kabr-behavior-telemetry/issues)
728
+ - **KABR Project:** https://imageomics.github.io/KABR/
729
+
730
+ ---
731
+
732
+ **Version History:**
733
+
734
+ - v1.1.0 (2026-01-02): Added occurrence files, GPS data, temporal bounds, updated Darwin Core events
735
+ - v1.0.0 (2024-12-31): Initial release with session and video event metadata
736
+
737
+ ---
738
+
739
+ *This dataset card follows the FAIR² Drone Data Standard and extends the [Imageomics dataset card template](https://imageomics.github.io/Imageomics-guide/wiki-guide/HF_DatasetCard_Template_mkdocs/).*
data/project_event.csv ADDED
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metadata/event_session_fields.csv ADDED
@@ -0,0 +1,55 @@
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1
+ Field,Requirement,Description,Example Value
2
+ EVENT CORE FIELDS,,,
3
+ eventID,REQUIRED,Unique session identifier,KABR-2023:13_01_23_session_1
4
+ parentEventID,REQUIRED,Link to project event,KABR-2023
5
+ eventType,REQUIRED,Type of event,drone survey
6
+ eventDate,REQUIRED,ISO 8601 date,2023-01-13
7
+ eventTime,RECOMMENDED,Start time (local),10:19:23
8
+ endTime,RECOMMENDED,End time,10:48:03
9
+ year,DERIVED,From eventDate,2023
10
+ month,DERIVED,From eventDate,1
11
+ day,DERIVED,From eventDate,13
12
+ samplingProtocol,REQUIRED,Method description,Aerial drone video survey using DJI Mavic Air 2
13
+ sampleSizeValue,RECOMMENDED,Duration,28.67
14
+ sampleSizeUnit,RECOMMENDED,Unit for duration,minutes
15
+ samplingEffort,OPTIONAL,Additional effort info,3 video segments
16
+ locationID,REQUIRED,Location identifier,MPALA-KENYA
17
+ locality,REQUIRED,Location name,Mpala Research Centre
18
+ country,REQUIRED,,Kenya
19
+ countryCode,REQUIRED,ISO 3166-1,KE
20
+ decimalLatitude,REQUIRED,WGS84 centroid,0.2833
21
+ decimalLongitude,REQUIRED,WGS84 centroid,36.8833
22
+ geodeticDatum,REQUIRED,,WGS84
23
+ coordinateUncertaintyInMeters,RECOMMENDED,Flight area radius,500
24
+ habitat,RECOMMENDED,Habitat description,Open savanna grassland; Bitterlich score: 2
25
+ eventRemarks,OPTIONAL,Field notes, weather,Light cloud, light wind. Adult male and female Plains
26
+ ,,,
27
+ HUMBOLDT EXTENSION FIELDS,,,
28
+ eco:inventoryTypes,REQUIRED,Type of inventory,restrictedSearch
29
+ eco:protocolNames,REQUIRED,Protocol name,KABR Drone Video Survey Protocol
30
+ eco:protocolDescriptions,RECOMMENDED,Protocol details,Drone follows focal group at 20-50m altitude
31
+ eco:protocolReferences,OPTIONAL,DOI/URL to protocol,arXiv:2510.02030
32
+ eco:isAbundanceReported,REQUIRED,Count data included?,true
33
+ eco:isAbundanceCapReported,REQUIRED,Max count capped?,false
34
+ eco:abundanceUnit,CONDITIONAL,If abundance reported,individuals
35
+ eco:isVegetationCoverReported,REQUIRED,,true
36
+ eco:vegetationCoverUnit,CONDITIONAL,Bitterlich method,Bitterlich score (0-10 scale)
37
+ eco:isTaxonCompletenessReported,REQUIRED,All taxa documented?,true
38
+ eco:taxonCompletenessProtocols,CONDITIONAL,How determined,Visual review of all video frames
39
+ eco:isAbsenceReported,REQUIRED,Absence data?,false
40
+ eco:hasNonTargetTaxa,REQUIRED,Other species present?,true
41
+ eco:nonTargetTaxa,CONDITIONAL,If hasNonTargetTaxa=true,Struthio camelus | Giraffa reticulata (background)
42
+ eco:targetTaxonomicScope,REQUIRED,Target taxa,Equus quagga | Equus grevyi | Giraffa reticulata
43
+ eco:excludedTaxonomicScope,OPTIONAL,Excluded taxa,
44
+ eco:samplingPerformedBy,RECOMMENDED,Observer names,Jenna Kline, Michelle Ramirez, Sam Stevens, Reshma Ramesh Babu, Jackson Miliko, Isla Duporge, Neil Rosser, Tanya Berger-Wolf, Daniel Rubenstein
45
+ eco:siteCount,RECOMMENDED,Number of distinct sites,1
46
+ eco:siteNestingDescription,OPTIONAL,How sites nested,Single focal group follow
47
+ eco:verbatimSiteDescriptions,OPTIONAL,Site descriptions,Near dam, Top Spray area
48
+ eco:geospatialScopeAreaValue,OPTIONAL,Area surveyed,
49
+ eco:geospatialScopeAreaUnit,OPTIONAL,,square meters
50
+ eco:totalAreaSampledValue,OPTIONAL,Actual area covered,
51
+ eco:totalAreaSampledUnit,OPTIONAL,,square meters
52
+ ,,,
53
+ FAIR EXTENSION FIELDS,,,
54
+ videoID,REQUIRED,Unique video identifier,DJI_0001
55
+ telemetryFileName,RECOMMENDED,Telemetry file name,AirData_DJI_0001.txt