They are produced sexually.
anything that has cells
Some interesting facts about cloning are: Human stem cells and rat cells have been mixed at some point. The first cloned animal was a tadpole. Despite the research that has been put into cloning, 95% of attempts fail.
Cloning - Is copying an animals DNA, it is the exact animal replica. Selectively breeding - Breeding animals with the features and characteristics that the breeder wants.
Cloning typically involves technologies such as somatic cell nuclear transfer (SCNT), where the nucleus from a somatic cell is transferred into an enucleated egg cell. Additionally, techniques like induced pluripotent stem cells (iPSCs) allow for the reprogramming of adult cells into stem cells, which can then be used for cloning purposes. Other methods may include the use of CRISPR-Cas9 for gene editing in cloned organisms. Overall, these technologies enable the replication of genetic material to create genetically identical organisms.
um... i found this somewhere, i think it works. I use Java, so i dont know how it works. I think you can compile it in Microsoft Excel. (if you are a mac user, you wont be able to. anyway, here it is: Dim CX As Integer Dim CY As Integer Dim started As Boolean Dim playerdead As Boolean Private Sub Worksheet_SelectionChange(ByVal Target As Range) If CX = 0 Then CX = Cells(1, 1) End If If CY = 0 Then CY = Cells(1, 2) End If If playerdead = True Then Cells(CY, CX) = "" playerdead = False CX = Cells(1, 1) CY = Cells(1, 2) End If If Target.Row = 2 Then If Target.Column = 1 Then If Cells(2, 1) = ">" Then Cells(2, 1) = "ll" ElseIf Cells(2, 1) = "ll" Then Cells(2, 1) = ">" Else Cells(2, 1) = ">" End If End If End If If Cells(2, 1) = ">" Then Exit Sub If Target.Row = CY - 1 Then If Target.Borders(xlEdgeBottom).LineStyle > 0 Then Cells(CY, CX).Select ElseIf Cells(CY, CX).Borders(xlEdgeTop).LineStyle > 0 Then Cells(CY, CX).Select Else Cells(CY, CX) = "" CY = CY - 1 If Cells(CY, CX) = "F" Then Cells(CY, CX) = "F" CX = Cells(1, 1) CY = Cells(1, 2) Cells(2, 2) = "yippee!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "R" Then Cells(CY, CX) = "R" CX = Cells(CY, 1) CY = Cells(CY, 2) Cells(2, 2) = "poof!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "C" Then Cells(CY, CX) = "C" CY = Cells(2, CX) CX = Cells(1, CX) Cells(2, 2) = "poof!" Cells(2, 2).Speak End If Cells(CY, CX) = "J" End If End If If Target.Row = CY + 1 Then If Target.Borders(xlEdgeTop).LineStyle > 0 Then Cells(CY, CX).Select ElseIf Cells(CY, CX).Borders(xlEdgeBottom).LineStyle > 0 Then Cells(CY, CX).Select Else Cells(CY, CX) = "" CY = CY + 1 If Cells(CY, CX) = "F" Then Cells(CY, CX) = "F" CX = Cells(1, 1) CY = Cells(1, 2) Cells(2, 2) = "yippee!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "R" Then Cells(CY, CX) = "R" CX = Cells(CY, 1) CY = Cells(CY, 2) Cells(2, 2) = "poof!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "C" Then Cells(CY, CX) = "C" CY = Cells(2, CX) CX = Cells(1, CX) Cells(2, 2) = "poof!" Cells(2, 2).Speak End If Cells(CY, CX) = "J" End If End If If Target.Column = CX + 1 Then If Target.Borders(xlEdgeLeft).LineStyle > 0 Then Cells(CY, CX).Select ElseIf Cells(CY, CX).Borders(xlEdgeRight).LineStyle > 0 Then Cells(CY, CX).Select Else Cells(CY, CX) = "" CX = CX + 1 If Cells(CY, CX) = "F" Then Cells(CY, CX) = "F" CX = Cells(1, 1) CY = Cells(1, 2) Cells(2, 2) = "yippee!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "R" Then Cells(CY, CX) = "R" CX = Cells(CY, 1) CY = Cells(CY, 2) Cells(2, 2) = "poof!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "C" Then Cells(CY, CX) = "C" CY = Cells(2, CX) CX = Cells(1, CX) Cells(2, 2) = "poof!" Cells(2, 2).Speak End If Cells(CY, CX) = "J" End If End If If Target.Column = CX - 1 Then If Target.Borders(xlEdgeRight).LineStyle > 0 Then Cells(CY, CX).Select ElseIf Cells(CY, CX).Borders(xlEdgeLeft).LineStyle > 0 Then Cells(CY, CX).Select Else Cells(CY, CX) = "" CX = CX - 1 If Cells(CY, CX) = "F" Then Cells(CY, CX) = "F" CX = Cells(1, 1) CY = Cells(1, 2) Cells(2, 2) = "yippee!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "R" Then Cells(CY, CX) = "R" CX = Cells(CY, 1) CY = Cells(CY, 2) Cells(2, 2) = "poof!" Cells(2, 2).Speak ElseIf Cells(CY, CX) = "C" Then Cells(CY, CX) = "C" CY = Cells(2, CX) CX = Cells(1, CX) Cells(2, 2) = "poof!" Cells(2, 2).Speak End If Cells(CY, CX) = "J" End If End If Cells(CY, CX).Select If Cells(CY, CX).Font.Bold = True Then playerdead = True End If If playerdead = True Then Cells(CY, CX) = "N" Cells(2, 2) = "ouch!" Cells(2, 2).Speak Else Cells(CY, CX) = "J" End If End Sub
1958 F.C. Stewart cloned a carrot plant with mature single cells.
The karyotypes from two carrot plants cloned from the same carrot root tissue should show that all cells possess identical chromosome numbers and structures, reflecting their genetic similarity. Since they are clones, both plants will have the same diploid number of chromosomes, which for carrots is typically 18 (9 pairs). Additionally, any variations in chromosome morphology or banding patterns should also be consistent between the two plants. Overall, the karyotypes should confirm that the cloned plants are genetically uniform.
anything that has cells
A raw carrot has cells that a rabbit does not. A carrot contains fiber, potassium and Vitamin C.
Uterus
Cloned cells, with their genes, are typically stored in the laboratory that cloned them. This includes both public and private ventures.
tiny cells from decomposers..
group of red blood cells
On a carrot slice, you can see different types of cells such as epidermal cells, parenchyma cells, and vascular cells. Each type of cell has a specific function in the carrot's structure and function.
The cells in the middle of a carrot (vascular bundle) consist of xylem & phloem. Xylem are responsible for water transportation and phloem transports nutrients. These tissues are primarily made of sclerenchyma cells as well as parenchyma cells.
The nucleus of a cell contains genetic material that determines which cells will be cloned. It contains instructions for cell differentiation and replication through processes like mitosis in somatic cells or somatic cell nuclear transfer in cloning. By manipulating the genetic material in the nucleus, scientists can direct which cells will become cloned.
Carrot cells placed in salt water will lose water due to osmosis, causing them to shrink and become wilted. The high concentration of salt in the water creates a hypertonic environment, leading to water leaving the carrot cells to try to balance the salt concentration.