We can strengthen the Man of Steel with Boron and make him a Boron Man
Boron can be added to low alloy and unalloyed steels to increase their hardness. It can also be found in austenitic steels to increase their high temperature strength. It prevents the formation of pearlite and ferrite structures in the material and causes "INCREASED HARDNESS and STRENGTH".
Superman is born on an alien world to a technologically advanced species that resembles humans. Shortly after his birth, his planet is destroyed by a natural disaster, but Superman's scientist father foresees the catastrophe and rescues his young son by sending him to Earth in a small spaceship. Since the ship is too small to carry anyone else, Superman's family is left behind and dies.
Kal-El, Superman, Clark Kent was born on an alien world, the fictional planet Krypton, to a technologically advanced species similar to humans.
Shortly after his birth, his planet is destroyed by a natural disaster, but Superman's scientist father foresees the catastrophe and rescues his young son by sending him to Earth in a small spaceship. Since the ship is too small to carry anyone else, Superman's family is left behind and dies.
His ship also passed very close to the sun and landed in the American countryside near the fictional town of Smallville. During the passage past the sun, the sun's rays transformed Kal El's kryptonite body into a structure as strong as steel.
He was found and adopted by farmers Jonathan and Martha Kent, who named him Clark Kent. Clark began to develop various superhuman abilities, such as incredible strength and armour skin.
His adoptive parents advised him to use his powers for the benefit of humanity and he decided to fight crime. He wears a colourful costume to protect his personal life and uses the nickname "Superman" to fight crime. Clark lives in the fictional American city of Metropolis, where he works as a journalist for the Daily Planet.
Kal El is also called the Man of Steel due to his steel body structure. Kal El's body is a steel alloy made of a combination of the element iron and carbon, usually ranging from 0.02 to 2.1 per cent. Now we are going to alloy this steel alloy with Boron, the 5th magic element of planet Earth, to make his steel body harder and more durable.
Boron can be added to low alloy and unalloyed steels to increase their hardness. It can also be found in austenitic steels to increase their high temperature strength. It prevents the formation of pearlite and ferrite structures in the material and causes "INCREASED HARDNESS and STRENGTH".
Boron is useful as an alloying element in many materials. It is used as an alloying element in steel due to its effect of increasing hardenability. Boron is added to unalloyed and low alloy steels to increase the hardness level by increasing hardenability. For example, boron added to high-speed cutting steels containing 18%W, 4%Cr and 1%V improves their cutting performance.
The main effect of boron on steel is the enhancement of hardenability, which is already evident at a very small concentration of 0.0010% boron. It is added to unalloyed and low alloy steels for the purpose of increasing the hardness level through hardenability. Boron, even at size grades as small as 100 ppm, provides the same hardenability enhancement effect as other more expensive elements that must be added in much larger amounts. For example, the addition of 30 ppm Boron to SAE steel replaces about 1%Ni, 0.5%C, 0.2%Mn, 0.12V, 0.3%Mo or 0.4%Cr.
Figure 1 shows the hardenability curves of boron-containing low alloy steels (13MnCrB5) with boron-free steel (16MnCr5).
Figure 1: Boron affects the hardenability of steel.
A remarkable feature of boron steels is the increase in hardenability even with the addition of very small amounts of boron.
Boron steels are used in a variety of applications as wear materials and high-strength structural steels. Examples include punching tools, cores and blades, saw blades, safety beams in vehicles, etc.
The type of boron steel used in vehicles today has extremely high strength. The yield point of boron steel used in Volvo cars is about 1,350-1,400 MPa (196,000-203,000 psi). This is about four times stronger than the average high-strength steel.
Boron steel can be found in vehicles such as the instrument panel of the 2002 Porsche Cayenne SUV, the safety bar around the rear seats of the 2003 Porsche Boxster and the door protection beams of the 2003 Porsche 911 Carrera. The 2003 Mercedes-Benz E-Class interior pillars are boron steel. Volvo probably uses boron steel the most. Boron was used in the bumper reinforcements and protection beams of the 2004 Volvo S40 sedan and 2005 V50 station wagon. The 2003 Volvo XC90 SUV has several boron steel applications, including interior pillar reinforcements, the roof arch between the pillars (if there is no sunroof) and interior rear body panels. The 1999-2004 S80 and 2001-2004 V70 and S60 also have boron steel inner and outer rear body panels.
Kal El's, Superman's or Man of Steel's body is now as hard and tough as the Boron steel in Volvo's inner pillar reinforcement. We can call him Boron Man from now on, not Steel Man.
