yes and it is called slerodium
Two broad groups of slime molds are recognized. The individual cells of cellular slime molds remain distinct-- separated by cell membranes-- during every phase of the mold's life cycle. Slime molds that pass through a stage in which their cells fuse to form large cells with many nuclei are called acellular slime molds.
A cellular organism produces ATP (either infecting another organism or not), has ribosomes being able to originate daughter cells, therefore having species. An acellular organism doesn't match this criteria. Examples are virus and prions.
Slime molds are unique among protists because they display characteristics of both fungi and animals. Unlike typical protists, slime molds can exist as single cells or form multicellular structures, resembling a fungus during certain stages of their life cycle. Additionally, slime molds exhibit complex behaviors such as forming intricate patterns and making group decisions, which are uncommon in other protists.
The fruiting bodies in cellular slime molds serve as structures for spore formation and dispersal, allowing the organism to reproduce. Sporangia in cellular slime molds are specialized structures that contain spores, which are dispersed to new environments to colonize and continue the life cycle. Both structures are essential for the reproductive success of cellular slime molds.
The jelly-like net of cytoplasm found in slime molds is called a plasmodium.
Slime mold is not a ciliate. Although slime molds enter a amoeboid stage, they are not equipped with cilia.
Cellular slime molds are distinguished from plasmodial slime molds by the presence of individual, distinct cells that remain separate even during the feeding stage. In contrast, plasmodial slime molds have a multinucleate, single cell mass during feeding.
Plasmodial slime molds develop sporangia when they reach a certain stage in their life cycle, typically after the plasmodium has finished feeding and growing. The sporangia contain spores that will eventually be released to form new plasmodial slime molds.
One characteristic not seen in both water molds and slime molds is the presence of true multicellularity. Water molds (oomycetes) are primarily unicellular or form simple filaments, while slime molds can exhibit complex multicellular structures during their life cycle, such as the plasmodium stage. Additionally, water molds are classified as fungi-like protists that absorb nutrients from their environment, whereas slime molds can exhibit behaviors similar to amoebas, including movement and foraging.
Slime molds do not resemble plants, animals, or fungi.
Slime molds are protists that act like fungi. They are multicellular organisms that feed on decaying organic matter and are commonly found on forest floors. Unlike true fungi, slime molds can move and have a distinct life cycle involving both a unicellular and multicellular stage.
Slime molds are fungus-like protists. They have a feeding and a reproducing stage in life. See link below for more information.
Two broad groups of slime molds are recognized. The individual cells of cellular slime molds remain distinct-- separated by cell membranes-- during every phase of the mold's life cycle. Slime molds that pass through a stage in which their cells fuse to form large cells with many nuclei are called acellular slime molds.
Yes, that is correct. In cellular slime molds, the haploid stage, also known as the amoeboid stage, dominates the life cycle. These amoeboid cells undergo aggregation to form a multicellular structure called a slug. On the other hand, in acellular slime molds, the diploid stage, or the plasmodial stage, dominates the life cycle. The plasmodium is a large, multinucleate mass of cytoplasm that can give rise to fruiting bodies for spore production.
Slime molds are all cellular. The unique fact is that they may or may not be multinucleated.
Slime molds are considered to be heterotrophs. Slime molds obtain their energy by consuming soil, decaying wood, and other decaying materials.
A cellular organism produces ATP (either infecting another organism or not), has ribosomes being able to originate daughter cells, therefore having species. An acellular organism doesn't match this criteria. Examples are virus and prions.