arrest Protocols

Category: Cell Biology and Cell Culture: Cell Cycle Protocols: G Phase Protocols

This protocol uses the plant amino acid mimosine as a G1/S synchronizing agent. Cells are first treated with excess thymidine to accumulate the majority of them at G1/S; however, some cells will have stopped growth within the S phase. Thymidine is then removed to allow all the cells to proceed completely through the S phase. Mimosine is then added to arrest the cells at the G1/S border. When mimosine is removed, cells will begin to enter S phase within about 1 hour. - [Read G1/S Phase Synchronization Using Mimosine Arrest Protocol]

Category: Cell Biology and Cell Culture: Cell Cycle Protocols: S Phase Protocols

Protocol uses the plant amino acid mimosine as a G1/S synchronizing agent. Cells are first treated with excess thymidine to accumulate the majority of them at G1/S; however, some cells will have stopped growth within the S phase. Thymidine is then removed to allow all the cells to proceed completely through the S phase. Mimosine is then added to arrest the cells at the G1/S border. When mimosine is removed, cells will begin to enter S phase within about 1 hour. - [Read G1/S Phase Synchronization Using Mimosine Arrest Protocol]

Category: Cell Biology and Cell Culture: Flow Cytometry Protocols: Cell Cycle Analysis Protocols

This protocol uses the plant amino acid mimosine as a G1/S synchronizing agent. Cells are first treated with excess thymidine to accumulate the majority of them at G1/S; however, some cells will have stopped growth within the S phase. Thymidine is then removed to allow all the cells to proceed completely through the S phase. Mimosine is then added to arrest the cells at the G1/S border. When mimosine is removed, cells will begin to enter S phase within about 1 hour. - [Read G1/S Phase Synchronization Using Mimosine Arrest Protocol]

Category: Yeast Protocols: Yeast Cell Synchrony Protocols

It is sometimes desirable to have an entire population of yeast cells that is growing synchronously or is arrested at a unique point in the cell cycle. - [Read Inducing Yeast Cell Synchrony: alpha-Factor Arrest Using bar1 Mutants Protocol]

Category: Yeast Protocols: Yeast Cell Synchrony Protocols

It is sometimes desirable to have an entire population of yeast cells that is growing synchronously or is arrested at a unique point in the cell cycle. - [Read Inducing Yeast Cell Synchrony: alpha-Factor Arrest Using Low Cell Concentration Protocol]

Category: Yeast Protocols: Yeast Cell Synchrony Protocols

It is sometimes desirable to have an entire population of yeast cells that is growing synchronously or is arrested at a unique point in the cell cycle. - [Read Inducing Yeast Cell Synchrony: alpha-Factor Arrest Using Low pH Protocol]

Category: Yeast Protocols: Yeast Cell Synchrony Protocols

It is sometimes desirable to have an entire population of yeast cells that is growing synchronously or is arrested at a unique point in the cell cycle. - [Read Inducing Yeast Cell Synchrony: Hydroxyurea Arrest Protocol]

Category: Yeast Protocols: Yeast Cell Synchrony Protocols

It is sometimes desirable to have an entire population of yeast cells that is growing synchronously or is arrested at a unique point in the cell cycle. - [Read Inducing Yeast Cell Synchrony: Nocodazole Arrest Protocol]

Category: Mouse Protocols: Mouse Reproductive System Surgery Protocols

Protocol describes a method for removal of mouse ovaries in combination with the administration of progesterone, which causes the arrest of blastocyst development. This procedure is performed during the afternoon of the third day of pregnancy to ensure that the morulae have moved sufficiently into the oviducts and will be less likely to be damaged during the ovariectomy. - [Read Ovariectomy for Induction of Blastocyst Implantation Delay Protocol]