No
Assuming you mean two sets of p orbitals on adjacent atoms only one sigma bond can be formed, by the p orbitals that point between the atoms to form an axial bond. The lobes that are at right angles , ( two unused p orbitals on each atom) could form pi bonds.
A sigma bond is a type of covalent bond formed by the head-on overlap of two atomic orbitals. In the case of two half-filled 1s orbitals coming together to form a sigma bond, the wave functions of the orbitals overlap constructively along the axis connecting the two nuclei. This results in the formation of a sigma bond with a high electron density directly between the nuclei.
overlapping that occurs along the orbital axis of 2 atomic orbitals is known as linear overlapping and these orbitals are called sigma atomic orbitals therefore these bonds are known as sigma bonds
When two s-type orbitals overlap, they form a sigma (σ) bond. This type of bond is characterized by head-to-head overlap of atomic orbitals along the bonding axis. Sigma bonds are strong and allow for rotation around the bond axis.
In a carbon-carbon triple bond, there is one sigma bond and two pi bonds. The sigma bond is formed by end-to-end overlap of two sp hybridized orbitals, while the two pi bonds are formed by the sideways overlap of two sets of p orbitals.
sigma, pi
The p orbitals on each of the carbon atoms overlap to form the pi bond in ethene. This pi bond is created by the sideways overlap of two p orbitals.
A sigma bond is a type of covalent bond formed by the head-on overlap of two atomic orbitals. In the case of two half-filled 1s orbitals coming together to form a sigma bond, the wave functions of the orbitals overlap constructively along the axis connecting the two nuclei. This results in the formation of a sigma bond with a high electron density directly between the nuclei.
Assuming you mean two sets of p orbitals on adjacent atoms only one sigma bond can be formed, by the p orbitals that point between the atoms to form an axial bond. The lobes that are at right angles , ( two unused p orbitals on each atom) could form pi bonds.
overlapping that occurs along the orbital axis of 2 atomic orbitals is known as linear overlapping and these orbitals are called sigma atomic orbitals therefore these bonds are known as sigma bonds
A p bond is the result of the sideways overlap of two parallel p orbitals.
When two s-type orbitals overlap, they form a sigma (σ) bond. This type of bond is characterized by head-to-head overlap of atomic orbitals along the bonding axis. Sigma bonds are strong and allow for rotation around the bond axis.
A single bond is called a sigma bond and it consists of the end-to-end overlap of hybrid orbitals. Single bonds between are longest and weakest.
In a carbon-carbon triple bond, there is one sigma bond and two pi bonds. The sigma bond is formed by end-to-end overlap of two sp hybridized orbitals, while the two pi bonds are formed by the sideways overlap of two sets of p orbitals.
The side-by-side overlap of p orbitals produces a pi bond. This type of bond is formed when two p orbitals share electrons through sideways overlap, resulting in a network of electron density above and below the bonding axis. Pi bonds are weaker than sigma bonds, which form from the head-on overlap of orbitals.
The bond order of Be2- is 0 because it has only two electrons in antibonding molecular orbitals, canceling out the two electrons in bonding molecular orbitals. This results in the absence of a stable Be2- molecule.
By the overlap of atomic orbitals. In valence bond theory these atomic orbitals may be s, p or d orbitals or "hybrids" such as sp3. This is a complex area and the above is a very simple explanation.