Hemibrain Neuronal Connectome
Olfactory and Thermo/Hygrosensory Processing
@kaggle.thedevastator_hemibrain_neuronal_connectome
Olfactory and Thermo/Hygrosensory Processing
@kaggle.thedevastator_hemibrain_neuronal_connectome
By [source]
The dataset contains 11 CSV files providing different aspects of the connectome analysis such as identified antennal lobe receptor neurons (ALRNs), local neurons (ALLNs), projection neurons (ALPNs), third-order olfactory neurons (TOONs), descending/ventral nervous system cells (DNs) from hemibrain space root points, start points for neuron compartments etc., amongst others. Additionally it includes an OBJ file containing 3D triangle mesh for surface plots of 51 glomeruli derived from ALRN pre-synapses and another 3D mesh consisting of 51 glomeruli derived from ALPN pre-synapses representing both olfactory plus seven thermo/hygrosensory glomleruli. With this wealth of data detailing various components at play , researchers can now traverse a deeper level into understanding the complex nature of olfaction & its connections while making possible links between brain structure & behaviour
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Learn about root points for different neurons – Each neuron can be identified by its root point and start point coordinates which can be found within each CSV file. Use these coordinates along with additional notes associated with NNs or glomeruli for further exploration into specific features for individual neurons or glomeruli’s functionality within their respective tissues such as ALRNs & TPONs studies etc..
Create & analyze 3D triangle mesh – Create a 3D triangle mesh using all blanks from OBJ which will render all 51 olfactory + 7 thermo/hygrosensory antennal lobe glomeruli generated from ALRN presynapses, & all 51 olfactory + 7 thermo/hygrosensory antennal lobe glomeruli generated from ALPN presynapses necessary for accurate analysis. Observe through visualization how they interact with other components connected directly or indirectly across different points mapped throughout these meshes like nodes distinctively representing synapses when making connections between particular neurons giving rise to distinct patterns corresponding various pathways thereby enabling a better description of their responses towards stimuli derived via divergent outputs provided across targeted regions eventually leading up patterned behavior studies involving either efferent/afferent transmission upon reception as required then stated under stimulation specifically identifying/tackling emergence of specific predefined behavior(s).
Correlate results – By correlating results obtained from creating 3D triangle mesh alongside note values assigned based separate trajectories belonging toward both nodes within those same meshes can provide user more insights on different types activities consistently dependent upon integration degree assisting users better interpret study’s outcome list accurately modifying decisions taken sincerely competing achieve maximum
- Using mappings of the connectome, researchers could develop tools and models that allow users to visualize different aspects of olfactory/thermo/hygrosensory processing. Such tools would be useful for educational and research purposes, allowing students to have a better understanding of the complexities behind these senses.
- Researchers could create a virtual reality model that uses information from the dataset's 3D meshes to simulate how different neurons interact with one another during processing, and how inputs from various parts of the body are integrated in real-time.
- With much higher resolution data on glomeruli, this dataset can be used to gain insight into how glomeruli respond differently based on composition variations and changes in stimulus intensity. This could potentially lead to improved methods for studying and modulating glomerular responses for targeted or enhanced signaling pathways or detection algorithms
If you use this dataset in your research, please credit the original authors.
Data Source
License: CC0 1.0 Universal (CC0 1.0) - Public Domain Dedication
No Copyright - You can copy, modify, distribute and perform the work, even for commercial purposes, all without asking permission. See Other Information.
File: S2_hemibrain_olfactory_information.csv
| Column name | Description |
|---|---|
| glomerulus | The glomerulus of the neuron. (String) |
| laterality | The laterality of the neuron. (String) |
| expected_cit | The expected number of citrate-sensitive neurons. (Integer) |
| expected_RN_female_1h | The expected number of receptor neurons in female 1 hour. (Integer) |
| expected_RN_female_SD | The expected number of receptor neurons in female standard deviation. (Integer) |
| missing | The number of missing receptor neurons. (Integer) |
| RN_frag | The number of fragmented receptor neurons. (Integer) |
| odour_scenes | The odour scenes associated with the glomerulus. (String) |
| key_ligand | The key ligand associated with the glomerulus. (String) |
| valence | The valence associated with the glomerulus. (String) |
File: S7_hemibrain_DN_meta.csv
| Column name | Description |
|---|---|
| pre | The pre-synaptic neuron of the connection. (Integer) |
| post | The post-synaptic neuron of the connection. (Integer) |
| upstream | The upstream neuron of the connection. (Integer) |
| downstream | The downstream neuron of the connection. (Integer) |
| status | The status of the connection. (String) |
| name | The name of the neuron. (String) |
| voxels | The voxel coordinates of the neuron. (Integer) |
| soma | The soma coordinates of the neuron. (Integer) |
| connectivity.type | The type of connectivity of the neuron. (String) |
| cell.type | The type of cell of the neuron. (String) |
| class | The class of the neuron. (String) |
| cellBodyFiber | The cell body fiber of the neuron. (Integer) |
| layer | The layer of the neuron. (Integer) |
| ct.layer | The ct layer of the neuron. (Integer) |
| total.length | The total length of the neuron. (Integer) |
| notes | Any additional notes about the neuron. (String) |
If you use this dataset in your research, please credit the original authors.
If you use this dataset in your research, please credit .
CREATE TABLE s1_hemibrain_neuron_layers (
"bodyid" BIGINT,
"layer_mean" DOUBLE,
"layer_olf_mean" DOUBLE,
"layer_th_mean" DOUBLE
);CREATE TABLE s2_hemibrain_olfactory_information (
"glomerulus" VARCHAR,
"laterality" VARCHAR,
"expected_cit" VARCHAR,
"expected_rn_female_1h" DOUBLE,
"expected_rn_female_sd" DOUBLE,
"missing" VARCHAR,
"rn_frag" VARCHAR,
"receptor" VARCHAR,
"odour_scenes" VARCHAR,
"key_ligand" VARCHAR,
"valence" VARCHAR
);CREATE TABLE s3_hemibrain_alrn_meta (
"bodyid" BIGINT,
"pre" BIGINT,
"post" BIGINT,
"upstream" BIGINT,
"downstream" BIGINT,
"status" VARCHAR,
"name" VARCHAR,
"voxels" BIGINT,
"soma" BOOLEAN,
"side" VARCHAR,
"connectivity_type" VARCHAR,
"cell_type" VARCHAR,
"class" VARCHAR,
"cellbodyfiber" VARCHAR,
"glomerulus" VARCHAR,
"presyn_glom" DOUBLE,
"layer" DOUBLE,
"ct_layer" DOUBLE,
"axon_outputs" DOUBLE,
"axon_inputs" DOUBLE,
"total_length" DOUBLE,
"cable_length_glom_um" DOUBLE,
"axon_length" DOUBLE,
"notes" VARCHAR
);CREATE TABLE s4_hemibrain_alln_meta (
"bodyid" BIGINT,
"pre" BIGINT,
"post" BIGINT,
"upstream" BIGINT,
"downstream" BIGINT,
"status" VARCHAR,
"name" VARCHAR,
"voxels" BIGINT,
"soma" BOOLEAN,
"side" VARCHAR,
"connectivity_type" VARCHAR,
"cell_type" VARCHAR,
"group" VARCHAR,
"anatomy_group" VARCHAR,
"class" VARCHAR,
"cellbodyfiber" VARCHAR,
"layer" DOUBLE,
"ct_layer" BIGINT,
"axon_outputs" BIGINT,
"dend_outputs" BIGINT,
"axon_inputs" BIGINT,
"dend_inputs" BIGINT,
"total_length" DOUBLE,
"axon_length" DOUBLE,
"dend_length" DOUBLE,
"pd_length" DOUBLE,
"segregation_index" DOUBLE,
"notes" VARCHAR
);CREATE TABLE s5_hemibrain_alpn_meta (
"bodyid" BIGINT,
"pre" BIGINT,
"post" BIGINT,
"upstream" BIGINT,
"downstream" BIGINT,
"status" VARCHAR,
"name" VARCHAR,
"voxels" BIGINT,
"soma" BOOLEAN,
"side" VARCHAR,
"connectivity_type" VARCHAR,
"cell_type" VARCHAR,
"class" VARCHAR,
"cellbodyfiber" VARCHAR,
"glomerulus" VARCHAR,
"layer" DOUBLE,
"ct_layer" DOUBLE,
"axon_outputs" DOUBLE,
"dend_outputs" DOUBLE,
"axon_inputs" DOUBLE,
"dend_inputs" DOUBLE,
"total_length" DOUBLE,
"axon_length" DOUBLE,
"dend_length" DOUBLE,
"pd_length" DOUBLE,
"segregation_index" DOUBLE,
"is_canonical" BOOLEAN,
"across_dataset_cluster" BIGINT,
"notes" VARCHAR
);CREATE TABLE s6_hemibrain_toon_meta (
"bodyid" BIGINT,
"pre" BIGINT,
"post" BIGINT,
"upstream" BIGINT,
"downstream" BIGINT,
"status" VARCHAR,
"name" VARCHAR,
"voxels" BIGINT,
"soma" BOOLEAN,
"side" VARCHAR,
"connectivity_type" VARCHAR,
"cell_type" VARCHAR,
"class" VARCHAR,
"cellbodyfiber" VARCHAR,
"putative_classic_transmitter" VARCHAR,
"putative_other_transmitter" VARCHAR,
"fafb_match" VARCHAR,
"fafb_match_quality" VARCHAR,
"layer" DOUBLE,
"ct_layer" DOUBLE,
"axon_outputs" BIGINT,
"dend_outputs" BIGINT,
"axon_inputs" BIGINT,
"dend_inputs" BIGINT,
"total_length" DOUBLE,
"axon_length" DOUBLE,
"dend_length" DOUBLE,
"pd_length" DOUBLE,
"segregation_index" DOUBLE,
"notes" VARCHAR
);CREATE TABLE s7_hemibrain_dn_meta (
"bodyid" BIGINT,
"pre" BIGINT,
"post" BIGINT,
"upstream" BIGINT,
"downstream" BIGINT,
"status" VARCHAR,
"name" VARCHAR,
"voxels" BIGINT,
"soma" BOOLEAN,
"connectivity_type" VARCHAR,
"cell_type" VARCHAR,
"class" VARCHAR,
"cellbodyfiber" VARCHAR,
"layer" DOUBLE,
"ct_layer" DOUBLE,
"total_length" DOUBLE,
"notes" VARCHAR
);CREATE TABLE s8_hemibrain_root_points (
"bodyid" BIGINT,
"x" DOUBLE,
"y" DOUBLE,
"z" DOUBLE
);CREATE TABLE s9_hemibrain_compartment_startpoints (
"x" VARCHAR
);Anyone who has the link will be able to view this.