Cortical bone, the dense outer surface of bone that forms a protective layer, is stronger than a bar of iron of the same weight. This is due to its unique structure, which allows it to withstand considerable stress and strain. Additionally, bone's ability to adapt and remodel in response to mechanical forces contributes to its strength. Overall, while iron is strong in its own right, bone's composition provides superior strength relative to weight.
A "weight-out" is removing weight from a retail package without reducing the price of it. This is often used for packaged food goods such as potato chips where consumers end up paying the same price for less chips.
According to my calculations, Carbon Steel was used thousands of years ago, because, if carbon steel swords were invented thousands of years ago then- heres a question: if carbon steel swords was invented back then, then what made carbon steel swords? the same thing we use to make carbon steel, which is mainly carbon and iron. The carbon, when mixed with molten iron, in fixed proportions, steel of varying strengths are formed. Steel is strong since the carbon atoms enter the metallic lattice of iron the difference in size of the carbon and iron atoms restrict movement of the layers (atoms) hence when a force is applied, the steel resists. by 11SHIFT
Schedule 40 and schedule 80 have the same outside diameter (OD). The wall thickness is greater on schedule 80 than it is on schedule 40. So on schedule 80 the inside diameter (ID) gets smaller.
If we do bulk production we need below mentioned tools *Volume of the product started from 100 (minimum) *Each and every product having same size and same operation. *Every product having same location *proper jigs and fixtures
The Pontcysyllte Aqueduct is a remarkable feat of engineering that was constructed in the late 18th century in Wales, United Kingdom. It was designed by civil engineer Thomas Telford and built by skilled laborers and craftsmen. The aqueduct was completed and opened for use in 1805. Here's a general overview of how the Pontcysyllte Aqueduct was built: **Design and Planning:** Thomas Telford designed the Pontcysyllte Aqueduct to carry the Llangollen Canal across the River Dee and its steep valley. The aqueduct had to span a significant distance at a considerable height, and its design required careful consideration of structural stability and water pressure. **Foundation and Abutments:** The aqueduct's foundation and abutments were constructed first. Stone foundations were laid on solid ground on both sides of the river. The abutments provided the support for the arches and the water channel. **Arches and Piers:** The aqueduct's main structure consists of 18 stone arches that span the valley. The arches were constructed using limestone from local quarries. Skilled stonemasons and laborers worked to carefully shape and place the stones to create the arches and supporting piers. **Iron Trough Construction:** The most innovative aspect of the Pontcysyllte Aqueduct is its cast iron trough, which carries the canal water across the valley. The iron trough was prefabricated off-site and transported to the aqueduct's location. Each cast iron section was carefully assembled and bolted together on-site. **Waterproofing and Sealing:** To make the trough watertight, Thomas Telford used a combination of lead sheets, iron plates, and puddled clay lining. This prevented water from leaking and maintained a stable water level within the trough. **Construction of Side Walls and Railings:** Once the iron trough was in place, the sides of the aqueduct were constructed using stone and brickwork. These walls helped contain the water within the trough and provided safety for people using the footpath alongside the canal. **Completion and Opening:** The Pontcysyllte Aqueduct was completed in 1805 and opened for use. It quickly became an iconic structure and a testament to Telford's engineering skill. The construction of the Pontcysyllte Aqueduct was a labor-intensive process that involved a combination of traditional stonemasonry techniques and innovative cast iron technology. Skilled craftsmen, laborers, and engineers worked together to bring Telford's design to life. Today, the aqueduct is recognized as a UNESCO World Heritage Site and remains an impressive example of engineering ingenuity from the Industrial Revolution era.
The human bone is around five times stronger than steel of the same mass. This incredible strength-to-weight ratio makes it a remarkable biological material.
Iron. same weight but the iron is more dense. I think
u can say that they both are same in the attack bonus but silver sword is stronger in strengh bonus
well if a robot fight happened between an iron robot vs a copper robot and they are dezined the same i would go for the iron robot
The human body containts the same weight of Iron (4 grams) as a large nail. true or false give answer with reason
Both 1kg of iron and 1kg of cotton would have the same weight in a vacuum. Weight is determined by mass, which is the same for both objects in this scenario.
Iron is denser than copper, so a block of iron will displace more water than a block of copper of the same weight because the iron block takes up less space for the same mass. This means that the iron block will sink deeper into the water, displacing more water.
with the addition of carbon to iron the bonds created are stronger and often more flexible that just pure iron. the same goes for many other alloys.
The gravity would stay the same. Weight and density has no effect on the gravitation on the object when on earth. Everything is pulled the same.
1kg of gold and 1kg of iron weigh the same amount because they both weigh 1 kilogram. The difference between the two lies in their density and value, not in their weight.
When two dogs tug on the same bone in opposite directions, they are producing equal and opposite forces, resulting in a tug-of-war scenario. The bone will stay in place or move slightly in the direction of the stronger dog's pull.
No, copper does not have more volume than iron for the same weight or mass. Copper is denser than iron, so a given mass of copper will have a smaller volume than the same mass of iron.