| WPS 0: | |
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| D0.3.5: |
CILIA Summer School - From Biological to Bionic Systems (pdf) |
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| WPS 1: | |
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| D1.1.1: |
Initial bat shape data set (pdf) |
|
related publications
(link.1)
(link.2)
(link.3)
(link.4) |
| D1.1.2: |
Method to acquire 3D shape description of cricket cerci and lateral line system of fish (pdf) |
| D1.1.3: |
3D reconstructions of hair sensing organs and mechanical/structural properties (pdf) |
| D1.1.4: |
Extended pinna and noseleaf shape data set (pdf) |
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related publications
(link.1) |
| D1.1.5: |
Application of refined method to 3D morphology acquisition of cricket cerci and lateral line system (canal structure) of fish (executive summary) |
| D1.1.6: |
Description of array morphology of the goldfish lateral line (pdf) |
| D1.1.7: |
Description of array morphology in fish from different habitats
(pdf) |
| D1.1.8: |
Complete image reference library of crickets using SEM and CM imaging |
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for interspecies comparison of single hair and array morphology (pdf) |
| D1.1.9: |
Array morphology in cyprinid species
(executive summary) |
| D1.1.10: |
Updated head, pinna and noseleaf shape data set (pdf) |
| D1.1.11: |
Application of refined method to 3D morphology acquisition of cricket cerci (pdf) |
| D1.2.3: |
Establish methodology for investigating hair socket deformability and neuronal response from campaniform (pdf) |
| D1.2.4: |
Test resolution levels of X-ray diffraction method for establishing chitin fibre orientation |
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present in socket region (pdf) |
| D1.2.5: |
Single hair displacement characteristics and directionality: Laser doppler vibrometry
(executive summary) |
| D1.2.6: | Hair array response to stimuli
(executive summary) |
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related publications
(link.1) |
| D1.3.1: |
Functional properties of bat pinnae and quantification of shape and functional variability |
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in bat pinnae (executive summary) |
| D1.3.2: |
Description of CFD code and of individual hair and neuromast models (executive summary) |
| D1.3.4: |
Investigate pattern of hair array movement in response to mechanical and acoustic stimuli (HSC) (pdf) |
| D1.3.5: |
Single hair displacement characteristics and directionality: High speed video capture
(executive summary) |
| D1.3.6: |
Detailed µPIV measurements on cerci and single hairs (pdf) |
D1.3.8: |
Description of most promising candidate design rules for emission and reception baffle shapes |
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(pdf) |
| D1.4.1: |
Bio-mimetic Hair-sensors operating in air utilising adaptive mechanisms (executive summary) |
|
related publications
(link.1) (link.2) |
| D1.4.2: |
Definition of interface between MEMS sensors and consortium hardware (pdf) |
| D1.4.3: |
Fabrication Technology description for hair-sensors operating in fluids (pdf) |
| D1.4.4: |
Functional hair-sensors for operation in aquatic environments (executive summary) |
| D1.4.6: |
Fabrication and characterisation of a new generation of hair sensors for operation in air (executive summary) |
| WPS 2: | |
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| D2.1.1: |
Responses of lateral line afferent nerve fibres in still, laminar and turbulent water (pdf) |
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related publications
(link.1) |
| D2.1.2: |
Electrophysiological characterization of cultivated insect neurons (executive summary) |
| D2.1.3: |
Electrophysiological properties neurons involved in signal detection (pdf) |
| D2.1.4: |
Receptive field properties of afferent nerve fibres in response to dipole stimuli (executive summary) |
| D2.1.5: |
Ca2+ imaging of perception of directionality of air currents (pdf) |
| D2.1.6: |
Representation of water flow by afferent nerve fibres (executive summary) |
| D2.2.1: |
Methods for guiding insect neurons (pdf) |
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related publications
(link.1) (link.2) |
| D2.2.2: |
Developing stimulation techniques (pdf) |
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related publications
(link.1) |
| D2.2.3: |
Electrophysiological recording during escape of a freely moving cricket (pdf) |
| D2.2.6: |
Receptive field properties of brainstem neurons in response to dipole stimuli (executive summary) |
| D2.2.7: |
Neuroanatomy of the cricket cercal escape system (pdf) |
| D2.2.8: |
Synaptic transmission in cultured cricket neurons (executive summary) |
| D2.2.9: |
Characterisation of cell-surface interface with TIRFM (executive summary) |
| D2.2.10: |
Cricket functional anatomy and single neurophysiology (pdf) |
| D2.2.11: |
Representation of water flow direction and velocity by brain stem neurons (executive summary) |
| D2.3.1: |
Computational models of stimulus to afferent coding: cricket, fish and bat (executive summary) |
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related publications
(link.1)
(link.2)
(link.3) |
| D2.3.2: |
Neuronal model for the external and canal lateral-line system of fish to determine the position of and distance to moving objects (executive summary) |
| D2.3.3: |
Computational model for determining position and movement direction of an attacker (executive summary) |
| D2.3.4: |
Computational model for localising and identifying fluttering insects (executive summary) |
| WPS 3: | |
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| |
| D3.1.0: |
Choice of technology of visualisation of air flow in leaf litter in the field (pdf) |
| D3.1.1: |
Habitat choice of fish population in an artificial creek (pdf) |
|
related publications
(link.1)
(link.2)
(link.3) |
| D3.1.2: |
Statistical description of litter 3D structure, physical model using polymer (pdf) |
| D3.1.3: |
Feasibility study of experimentally establishing ecological context for lateral line system (pdf) |
| D3.1.4: |
Database of echo signals for a variety of environment-task combinations (pdf) |
| D3.1.5: |
Extended database of echo signals for a variety of environment-task combinations (pdf) |
| D3.1.8: |
Multimodality and spider attack (pdf) |
| D3.1.10: |
Orientation of fish in water flow (pdf) |
| D3.1.11: |
Habitat choice of fish population in an artificial creek (executive summary) |
| D3.2.1: |
Interfaces between MEMS sensors and robotic platforms (pdf) |
| D3.2.2: |
Design feedback from evaluation of sensors (pdf) |
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