Cell Division Quick Quiz

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True or false questions on mitosis and meiosis.

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Jaylin Vielka Garcia

United States

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Cell Division Quick Quiz


Cell Division Quick QuizOnline version True or false questions on mitosis and meiosis. by Jaylin Vielka Garcia 1 In meiosis II, sister chromatids separate just like in mitosis. Yes No 2 Crossing over occurs during metaphase II. Yes No 3 In animal cells, cytokinesis occurs by cleavage to form a cleavage furrow. Yes No 4 Density-dependent inhibition helps regulate cell division by preventing overcrowding. Yes No 5 The G0 phase is a state of permanent cell cycle entry for all dividing cells. Yes No 6 Meiosis I includes prophase I, metaphase I, anaphase I, and telophase I followed by cytokinesis. Yes No 7 During metaphase, chromosomes are randomly distributed to poles without alignment. Yes No 8 If a cell receives a go-ahead signal at the G1 checkpoint, it will usually complete the S, G2, and M phases and divide. Yes No 9 Sister chromatids separate during metaphase II rather than anaphase II. Yes No 10 Cohesins hold sister chromatids together until they are separated in anaphase. Yes No 11 The number of chromosome sets remains constant throughout meiosis. Yes No 12 Meiosis reduces the number of chromosome sets from diploid to haploid. Yes No 13 Kinetochore microtubules are not involved in chromosome movement during metaphase. Yes No 14 MPF is a cyclin-Cdk complex that triggers the cell’s passage past the G2 checkpoint into M phase. Yes No 15 Random fertilization and crossing over both contribute to genetic variation. Yes No 16 Fertilization does not involve the fusion of gametes. Yes No 17 During metaphase, chromosomes line up at the metaphase plate midway between the two poles. Yes No 18 Crossing over produces recombinant chromosomes, which combine DNA inherited from each parent. Yes No 19 Mitosis occurs only in plant cells and never in animal cells. Yes No 20 Kinetochore microtubules shorten by depolymerizing at the polymerase ends during anaphase. Yes No 21 Malignant tumors invade surrounding tissues and can metastasize to distant sites. Yes No 22 Cyclins and cyclin-dependent kinases (Cdks) regulate the cell cycle. Yes No 23 Mitosis is conventionally broken down into five stages: prophase, prometaphase, metaphase, anaphase, and telophase. Yes No 24 Plant cells perform cytokinesis through cleavage furrow formation in all cases. Yes No 25 Gametes are the only haploid cells, produced by meiosis. Yes No 26 Kinetochores are protein complexes associated with centromeres that attach microtubules. Yes No 27 In anaphase, sister chromatids remain attached at the centromere and do not separate. Yes No 28 Meiosis reduces the chromosome number from diploid to haploid, producing nonidentical daughter cells. Yes No 29 Most cell divisions in somatic cells are accompanied by mitosis and cytokinesis. Yes No 30 Anchorage dependence requires cells to be attached to a substratum to divide. Yes No 31 G2 checkpoint ensures that DNA replication has completed before entering mitosis. Yes No 32 DNA replication occurs during meiosis II. Yes No 33 The G1 checkpoint is the only checkpoint in the cell cycle. Yes No 34 The cell cycle can be halted at multiple checkpoints to ensure proper division. Yes No 35 The mitotic spindle includes the centrosomes, spindle microtubules, and the asters. Yes No 36 The Pac-Man mechanism describes microtubule depolymerization at kinetochores during anaphase. Yes No 37 Cytokinesis completes cell division by dividing the cytoplasm after mitosis. Yes No 38 The cell cycle is regulated by a molecular control system with checkpoints. Yes No 39 G1 checkpoint helps determine whether a cell will progress through the cycle. Yes No 40 Cancer cells often lose normal cell cycle controls and can form tumors. Yes No 41 Independent assortment does not contribute to genetic variation in offspring. Yes No 42 Cytokinesis occurs before mitosis in the cell cycle. Yes No 43 All somatic cells are haploid. Yes No 44 All cancer cells always respond to growth factors and normal regulatory signals. Yes No 45 Meiosis II reduces the chromosome number from haploid to diploid. Yes No 46 Crossing over occurs after meiosis II. Yes No 47 Chromosomes condense after the onset of cytokinesis. Yes No 48 Binary fission is the process used by eukaryotic cells to divide. Yes No 49 The mitotic spindle forms only after the nuclear envelope breaks down in prophase. Yes No 50 In plant cells, the cleavage furrow is formed to separate daughter cells during cytokinesis. Yes No 51 The cell cycle clock operates independently of cyclins and Cdks. Yes No 52 External growth factors can influence cell division, including platelet-derived growth factor (PDGF). Yes No 53 A zygote immediately becomes a multicellular organism without mitotic divisions. Yes No 54 In plant cells, cytokinesis occurs by the formation of a cell plate. Yes No 55 Independent assortment leads to a combinatorial increase in possible gamete genotypes. Yes No 56 Sister chromatids separate and move toward opposite poles during anaphase. Yes No 57 The nucleus remains intact during all stages of mitosis. Yes No 58 Mitosis results in four genetically identical daughter cells. Yes No 59 During prophase, chromosomes condense and become visible under a light microscope. Yes No 60 Nonkinetochore microtubules from opposite poles overlap and push against each other during anaphase. Yes No 61 Meiosis produces clones that are genetically identical to the parent organism. Yes No 62 Mitosis is conventionally broken down into five stages: prophase, prometaphase, metaphase, anaphase, and telophase. Yes No

Cell Division Quick Quiz

Yes or No

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Cell Division Quick QuizOnline version

by Jaylin Vielka Garcia

In meiosis II, sister chromatids separate just like in mitosis.

Crossing over occurs during metaphase II.

In animal cells, cytokinesis occurs by cleavage to form a cleavage furrow.

Density-dependent inhibition helps regulate cell division by preventing overcrowding.

The G0 phase is a state of permanent cell cycle entry for all dividing cells.

Meiosis I includes prophase I, metaphase I, anaphase I, and telophase I followed by cytokinesis.

During metaphase, chromosomes are randomly distributed to poles without alignment.

If a cell receives a go-ahead signal at the G1 checkpoint, it will usually complete the S, G2, and M phases and divide.

Sister chromatids separate during metaphase II rather than anaphase II.

Cohesins hold sister chromatids together until they are separated in anaphase.

The number of chromosome sets remains constant throughout meiosis.

Meiosis reduces the number of chromosome sets from diploid to haploid.

Kinetochore microtubules are not involved in chromosome movement during metaphase.

MPF is a cyclin-Cdk complex that triggers the cell’s passage past the G2 checkpoint into M phase.

Random fertilization and crossing over both contribute to genetic variation.

Fertilization does not involve the fusion of gametes.

During metaphase, chromosomes line up at the metaphase plate midway between the two poles.

Crossing over produces recombinant chromosomes, which combine DNA inherited from each parent.

Mitosis occurs only in plant cells and never in animal cells.

Kinetochore microtubules shorten by depolymerizing at the polymerase ends during anaphase.

Malignant tumors invade surrounding tissues and can metastasize to distant sites.

Cyclins and cyclin-dependent kinases (Cdks) regulate the cell cycle.

Mitosis is conventionally broken down into five stages: prophase, prometaphase, metaphase, anaphase, and telophase.

Plant cells perform cytokinesis through cleavage furrow formation in all cases.

Gametes are the only haploid cells, produced by meiosis.

Kinetochores are protein complexes associated with centromeres that attach microtubules.

In anaphase, sister chromatids remain attached at the centromere and do not separate.

Meiosis reduces the chromosome number from diploid to haploid, producing nonidentical daughter cells.

Most cell divisions in somatic cells are accompanied by mitosis and cytokinesis.

Anchorage dependence requires cells to be attached to a substratum to divide.

G2 checkpoint ensures that DNA replication has completed before entering mitosis.

DNA replication occurs during meiosis II.

The G1 checkpoint is the only checkpoint in the cell cycle.

The cell cycle can be halted at multiple checkpoints to ensure proper division.

The mitotic spindle includes the centrosomes, spindle microtubules, and the asters.

The Pac-Man mechanism describes microtubule depolymerization at kinetochores during anaphase.

Cytokinesis completes cell division by dividing the cytoplasm after mitosis.

The cell cycle is regulated by a molecular control system with checkpoints.

G1 checkpoint helps determine whether a cell will progress through the cycle.

Cancer cells often lose normal cell cycle controls and can form tumors.

Independent assortment does not contribute to genetic variation in offspring.

Cytokinesis occurs before mitosis in the cell cycle.

All somatic cells are haploid.

All cancer cells always respond to growth factors and normal regulatory signals.

Meiosis II reduces the chromosome number from haploid to diploid.

Crossing over occurs after meiosis II.

Chromosomes condense after the onset of cytokinesis.

Binary fission is the process used by eukaryotic cells to divide.

The mitotic spindle forms only after the nuclear envelope breaks down in prophase.

In plant cells, the cleavage furrow is formed to separate daughter cells during cytokinesis.

The cell cycle clock operates independently of cyclins and Cdks.

External growth factors can influence cell division, including platelet-derived growth factor (PDGF).

A zygote immediately becomes a multicellular organism without mitotic divisions.

In plant cells, cytokinesis occurs by the formation of a cell plate.

Independent assortment leads to a combinatorial increase in possible gamete genotypes.

Sister chromatids separate and move toward opposite poles during anaphase.

The nucleus remains intact during all stages of mitosis.

Mitosis results in four genetically identical daughter cells.

During prophase, chromosomes condense and become visible under a light microscope.

Nonkinetochore microtubules from opposite poles overlap and push against each other during anaphase.

Meiosis produces clones that are genetically identical to the parent organism.

Mitosis is conventionally broken down into five stages: prophase, prometaphase, metaphase, anaphase, and telophase.