Flagella provide movement but are fixed length, myoneme is a contractile fibril that coils and straightens
Cilia and flagella are both hair-like structures found on cells, but they have some key differences. Cilia are shorter and more numerous, while flagella are longer and fewer in number. In terms of function, cilia are primarily involved in moving substances along the cell surface, while flagella are used for cell movement.
Flagella and cilia are both hair-like structures found on cells, but they differ in size and function. Flagella are longer and fewer in number, while cilia are shorter and more numerous. Flagella typically help with cell movement, such as propelling sperm, while cilia are involved in moving substances along the cell surface, like in the respiratory tract to clear mucus.
Eukaryotic flagella are quite different in structure and function to prokaryotic flagella.Bacterial flagella (as opposed to archaeal flagella - go to http://en.wikipedia.org/wiki/Flagellum#Archaeal to investigate differences between bacterial and archaeal flagella) are composed of the protein flagellin, which is coiled around into a stiff filament. Movement of a bacterial cell is generated by rotation of the filament, a bit how like a propellor works. Reversing direction of rotation can change direction of movement.In eukaryotic flagella, the structure is more complex. The base of the eukaryotic flagella houses the foundation of the structure. Nine microtubule groups, each consisting of three microtubules, form the base of the flagella. Further away from the cell, the flagella is made up of two microtubule's connected by a bridge. Radial spokes branch out to nine pairs of microtubules that form a circle around a flagella transverse section (if you chop it in half and look at the exposed inside).A eukaryotic flagella moves its cell by sliding adjacent pairs of microtubules, which causes the flagella to bend. This bending creates movement. To see a good example, watch this video: http://www.britannica.com/EBchecked/topic-video/209243/16501/Movement-of-eukaryotic-flagella-in-real-time-and-slow-motion
Flagella is the plural form of flagellum.
Flagella and cilia are both hair-like structures found in cells, but they have distinct differences in terms of structure and function. Flagella are longer and fewer in number, while cilia are shorter and more numerous. Flagella typically move in a whip-like motion to propel the cell, while cilia have a back-and-forth motion to move substances along the cell surface. Both structures are made up of microtubules, but the arrangement and length of these microtubules differ between flagella and cilia.
Yes,there are differences.Eukariyotic flagellum has 9+2 structure and membrane covered.Bacterial flagella do not have those.
The pseudopodia enable amoeboid locomotion, the cilia allow for ciliary locomotion. The flagella allow for flagellar locomotion and the myonemes allow for metabolic contractile locomotion.
cilia increases the cell surface and flagella increases the locomotion
* the flagella is a project as strand while the axial filaments are spirochetes. * flagella : move cell by propeller like action , axial filaments : snake-like movement. flagella : present in gram (+)and gram (-) , while the filaments only in gram (-) . both of them have the same function
There is a great difference between S Typhi O and H. The S Typhi O is somatic, and H is flagella.
The rod shape(bacilus) and the sphiral(sphirily) have flagella. They both have same structure of flagela but there is a difference between gram positive and gram negative,s flagellum structure.
Cilia and flagella are both hair-like structures found on cells, but they have some key differences. Cilia are shorter and more numerous, while flagella are longer and fewer in number. In terms of function, cilia are primarily involved in moving substances along the cell surface, while flagella are used for cell movement.
Flagella and cilia are both hair-like structures found on cells, but they differ in size and function. Flagella are longer and fewer in number, while cilia are shorter and more numerous. Flagella typically help with cell movement, such as propelling sperm, while cilia are involved in moving substances along the cell surface, like in the respiratory tract to clear mucus.
Trichomoniasis uses flagella for movement. This movement is very distinctive under the microscope.
Eukaryotic flagella are quite different in structure and function to prokaryotic flagella.Bacterial flagella (as opposed to archaeal flagella - go to http://en.wikipedia.org/wiki/Flagellum#Archaeal to investigate differences between bacterial and archaeal flagella) are composed of the protein flagellin, which is coiled around into a stiff filament. Movement of a bacterial cell is generated by rotation of the filament, a bit how like a propellor works. Reversing direction of rotation can change direction of movement.In eukaryotic flagella, the structure is more complex. The base of the eukaryotic flagella houses the foundation of the structure. Nine microtubule groups, each consisting of three microtubules, form the base of the flagella. Further away from the cell, the flagella is made up of two microtubule's connected by a bridge. Radial spokes branch out to nine pairs of microtubules that form a circle around a flagella transverse section (if you chop it in half and look at the exposed inside).A eukaryotic flagella moves its cell by sliding adjacent pairs of microtubules, which causes the flagella to bend. This bending creates movement. To see a good example, watch this video: http://www.britannica.com/EBchecked/topic-video/209243/16501/Movement-of-eukaryotic-flagella-in-real-time-and-slow-motion
Flagellates have one or more flagella. They move by whipping it from side to side.Ciliates use the little hair-like cilia that cover their bodies to move.
Yes, the presence and arrangement of flagella on bacteria can be used for classification purposes. Different bacterial species may have unique flagella patterns, such as number, location, and movement. Studying flagella can help differentiate between bacterial strains and aid in taxonomic classification.