When an infectious bacterium enters the body, the B cell makes proteins called "antibodies."
Bacterium has Prokaryotic cells which put it the kingdom Monera.
Lymphocytes, specifically T cells and B cells, play a major role in immunity to infectious diseases. T cells help kill infected cells and regulate the immune response, while B cells produce antibodies that can neutralize pathogens.
Bacterium has prokaryotic cells- cells that have no membrane-bounded organells.
When human genes are introduced into a bacterium or other cells, the organism can produce proteins encoded by those genes, but it cannot create an entire human. The bacterium can express the human gene, allowing it to synthesize specific proteins, which can be used for research or therapeutic purposes. However, the complex structure and regulation required to develop a whole human organism cannot be replicated in simpler cells like bacteria.
Every living thing is made of cells.
A phage infects bacterial cells by injecting its genetic material into the host bacterium. Once inside, the phage hijacks the bacterium's cellular machinery to replicate and produce more phage particles, ultimately leading to the bacterium's destruction.
Bacterium has Prokaryotic cells which put it the kingdom Monera.
Lymphocytes, specifically T cells and B cells, play a major role in immunity to infectious diseases. T cells help kill infected cells and regulate the immune response, while B cells produce antibodies that can neutralize pathogens.
Bacterium has prokaryotic cells- cells that have no membrane-bounded organells.
Polar bear cells and bacterium cells share several fundamental characteristics, as both are composed of cell membranes that enclose genetic material and other cellular components. Both types of cells utilize DNA to store genetic information, and they rely on similar biochemical processes to produce energy and carry out metabolic functions. Additionally, both polar bear cells and bacterium cells have mechanisms for responding to their environments, albeit in significantly different ways due to their complexity and organization.
When malate in the mesophyll cells enters bundle sheath cells in C4 plants, it undergoes decarboxylation to produce pyruvate and CO2. This CO2 is then used in the Calvin cycle within the bundle sheath cells to produce sugars, while the pyruvate is recycled back to the mesophyll cells to continue the C4 cycle.
The immune system uses antibodies, proteins, and specialized cells to defend the body from infectious diseases. This includes systems like the lymphatic system, which contains white blood cells that identify and neutralize invaders, and the lymph nodes which produce and store infection-fighting cells.
No. they are single-celled.
When human genes are introduced into a bacterium or other cells, the organism can produce proteins encoded by those genes, but it cannot create an entire human. The bacterium can express the human gene, allowing it to synthesize specific proteins, which can be used for research or therapeutic purposes. However, the complex structure and regulation required to develop a whole human organism cannot be replicated in simpler cells like bacteria.
No. Bacteria have prokaryotic cells, while protozoans have eukaryotic cells.
Every living thing is made of cells.
Bacteria have prokaryotic cells. This means they lack a distinct nucleus and other membrane-bound organelles found in eukaryotic cells.