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"I understand you're having trouble adding your study area. Can you provide more details about the issue you're facing?

i unable to understand your language pls comment in english

sure

Most welcome

it is necessary to maintain similar datasets

THANKING Your praise

yes you can get it with sentinental image

You're correct that if we are only detecting existing water, using a single class for water (rather than distinguishing low, medium, or high water levels) simplifies the process. In this case, a single color in the palette for water is appropriate

Gold-rich zones: Areas with high concentrations of gold, usually identified through geological surveys.

Pls Check it with my channel description

Pls Check it with my channel description

Great 👍

you have to configure with srtm data

Pls Check it with my channel description

Pls Check it with my channel description

THANKS FOR Your SUPPORT

Used to express pollution levels in a standardized, interpretable way, typically as part of an Air Quality Index (AQI) or similar indices. It converts raw pollutant concentrations into a normalized value on a scale (e.g., 0-500).

So nice of you

1. Verify Dataset Availability The ESA CCI Soil Moisture dataset in GEE is typically available under a different name or version. To confirm: Go to the Google Earth Engine Data Catalog. Search for "ESA CCI Soil Moisture" to check the correct dataset name and path. Common datasets for soil moisture include: ESA/CCI/SM/DAILY/v04.5 ESA/CCI/SM/DAILY/v06.1 2. Update Your Script If the correct dataset is found, update your script to use the proper dataset path. For example: javascript Copy code // Load the ESA CCI Soil Moisture dataset var soilMoisture = ee.ImageCollection('ESA/CCI/SM/DAILY/v06.1'); // Print to verify print(soilMoisture); 3. Check Access Permissions Some datasets in GEE require you to request access. If ESA/CCI/SM/3_2 is a private or beta dataset, you might need to: Contact the dataset owner. Use an alternative publicly available dataset. 4. Alternative Soil Moisture Datasets If the dataset is not available, you can use these alternatives: SMAP (Soil Moisture Active Passive): NASA_USDA/HSL/SMAP10KM_soil_moisture (10km resolution). GLDAS (Global Land Data Assimilation System): NASA/GLDAS/V021/NOAH/G025/T3H for soil moisture at various depths. ERA5-Land: ECMWF/ERA5_LAND/HOURLY for soil moisture estimates. 5. Verify for "Combined Recharge and Slope" Layer If the issue persists for the Recharge and Slope layer, check the dataset name in a similar way. Datasets in GEE may have been updated, renamed, or replaced.

you can use it global

Thanks

pls contact me rajamanickammanoharan24@gmail.com

Consistency in Units (g/m²): NDVI can correlate with biomass density, especially when calibrated with ground-truth data. By establishing a relationship between NDVI values and biomass from sample data, you can extrapolate NDVI values to g/m² using regression or other statistical models

@@techhive.2023 Okay thank you. please make more videos related to ecological work like alpha/beta diversity, landscape metrics, GPP, Canopy height, cover, fires disturbance, historical disturbance etc, if you know, subscribing

​THANKING For Your SUGGESTS TOPICS

Thanka

sure Thanks for watching my video. my email id rajamanickammanoharan24@gmail.com

Thanks for watching my video. my email id rajamanickammanoharan24@gmail.com

It is available from my code just change gps values of Lahore Pakistan

@techhive.2023 sure sir

To prepare a Lineament Density Map from a Digital Elevation Model (DEM) in QGIS, you can follow these steps: Step 1: Load the DEM Open QGIS and load the DEM file by selecting Layer > Add Layer > Add Raster Layer and browsing to your DEM file. Click Open to display the DEM on the map canvas. Step 2: Generate Hillshade Go to Raster > Terrain Analysis > Hillshade. Select your DEM layer as the input and set the Azimuth (angle of the sun) and Altitude (height of the sun). Click Run to create a hillshade layer, which helps to visually enhance the linear features in the landscape. Step 3: Extract Lineaments Using Edge Detection Go to Processing Toolbox and search for Sobel filter or Edge detection (often available under Raster analysis plugins). Apply the filter on the hillshade layer to emphasize linear features, which will help in identifying lineaments. Step 4: Convert Lineaments to Vector Format Use Raster to Vector conversion to convert the highlighted lineaments into vector lines. Go to Raster > Conversion > Contour, choose the edge-detected layer, and set an appropriate interval to generate contour-like lineaments. Alternatively, you can use Digitize Lineament manually if the automatic extraction does not capture all lineaments accurately. Step 5: Create a Lineament Density Map Go to Vector > Analysis Tools > Line Density. Select the vectorized lineament layer as the input, define the search radius, and choose the cell size based on your map scale and desired resolution. Run the tool to create a line density raster layer, showing the density of lineaments across the area. Step 6: Style the Lineament Density Map Open the Layer Styling Panel and select the lineament density raster layer. Apply a color gradient (e.g., Red to Blue or White to Black) to represent low to high lineament densities. Adjust the Color Ramp and Transparency as needed for better visualization. Step 7: Save and Export Once the lineament density map is prepared, save it as a new raster or export it as an image or PDF by going to Project > Import/Export > Export Map. This workflow will give you a Lineament Density Map using QGIS and DEM data.

8668059897

please check it drive.google.com/file/d/1XiA_eSWNwKrvWmrrM3fUe35t8rr9Y-uo/view?usp=sharing

I am given correct procedure. you have to follow video step by step

i am out of my office

Sure I will

To normalize values from a 60-80 range to a 0-14 range, follow these steps: Subtract the minimum of the original range (60) from each value to adjust the starting point to zero. Divide by the range width (difference between 80 and 60) to scale values to a 0-1 range. Multiply by the new range (0-14) to convert values into this target range.

@@techhive.2023 so complex , I prefer to divide scale 10 , 89 > pH 8.9 is it correct?

Relevance: Verify that the equations are validated for remote sensing or were tested on satellite data. Field-based equations might need adaptation for remote sensing. Data Compatibility: Confirm that the remote sensing data aligns with the parameters in the equations, particularly in terms of required spectral bands and resolution. Local Calibration: Water quality factors vary by region, so validate or locally calibrate equations if they were developed for different locations to ensure accuracy.

Sure

thanks

// Load a Landsat 8 image var image = ee.Image('LANDSAT/LC08/C01/T1_SR/LC08_044034_20140318'); // Define a region of interest (ROI) var roi = ee.Geometry.Rectangle([-122.5, 37.0, -121.5, 38.0]); // Clip the image to the region of interest var clippedImage = image.clip(roi); // Export the image to Google Drive Export.image.toDrive({ image: clippedImage, description: 'Landsat_Export', folder: 'EarthEngineExports', // Specify your Drive folder scale: 30, // Set the pixel resolution region: roi, // Set the export region maxPixels: 1e9 // Set the maximum allowed number of pixels });

Thanks

Thanks for your feedback

Sure its interesting topic. I will upload video on Landscape metrics in GEE very soon

Of course I used completely ground verified data

👍👍👍

Go to USGS free data site

"Modify the code by updating the GPS coordinates to reflect those of your country, run the updated code, and observe the result."

"Thank you for your comment. LiDAR data is available from the USGS website. You can also obtain a LiDAR image of Uzbekistan from private agencies. Once you have the data, upload it to the Google Earth Engine cloud platform. Change the study area's coordinates in your code, run the updated code, and you should get the results. If you encounter any difficulties, feel free to reach out - I’ll be happy to assist you with your research problem."