The Gladiators Are Here! In Hindi Download
Savage Doherty
Not all gladiators were brought to the arena in chains. While most early combatants were enslaved peoples and people who had committed crimes, grave inscriptions show that by the 1st century A.D., the demographics had started to change.
Since gladiators were expensive to house, feed and train, their promoters were loath to see them needlessly killed. Trainers may have taught their fighters to wound, not kill, and the combatants may have taken it upon themselves to avoid seriously hurting their brothers-in-arms. Nevertheless, the life of a gladiator was usually brutal and short. Most only lived to their mid-20s, and historians have estimated that somewhere between one in five or one in 10 bouts left one of its participants dead.
Historians are not sure when women first suited up to fight as gladiators, but by the 1st century A.D., they had become a common fixture at the games. These warriors may not have been taken seriously in the patriarchal Roman culture, but a few appear to have proven themselves in single combat.
Though often dismissed as uncivilized brutes by Roman historians, the gladiators won massive fame among the lower classes. Their portraits graced the walls of many public places; children played with gladiator action figures made of clay; and the most successful fighters even endorsed products just like the top athletes of today.
Two men ready their weapons. An excited crowd of Romans cheer loudly in anticipation. Both combatants realize full well that this day might be their last. They are gladiators, men who fight to the death for the enjoyment of others.
As the two gladiators circle each other, each knows that his objective is to maim or trap his opponent rather than to kill him quickly. What's more, the fight must last long enough to please the crowd.
Like many modern professional sports stadiums, the Coliseum had box seats for the wealthy and powerful. The upper level was reserved for the commoners. Under the floor of the Coliseum was a labyrinth of rooms, hallways, and cages where weapons were stored and animals and gladiators waited for their turn to perform.
The Coliseum was also watertight and could be flooded to hold naval battles. Special drains allowed water to be pumped in and released. But, naval battles were rarely held there because the water caused serious damage to the basic structure of the Coliseum.
The gladiators themselves were usually slaves, criminals, or prisoners of war. Occasionally, the gladiators were able to fight for their freedom. Criminals who were sentenced to death were sometimes thrown into the arena unarmed to serve their sentence. Some people, including women, actually volunteered to be gladiators.
They were willing to risk death for the possibility of fame and glory. Many gladiators went to special schools that trained them how to fight. A few gladiators boxed. They used metal gloves to increase cutting and bleeding.
Some gladiatorial contests included animals such as bears, rhinos, tigers, elephants, and giraffes. Most often, hungry animals fought other hungry animals. But sometimes hungry animals fought against gladiators in contests called venationes ("wild beast hunts"). On rare occasions, the animals were allowed to maul and eat a live human who was tied to a stake.
Romans loved chariot races, which were held on special racetracks called circuses. The most famous circus, which was in Rome, was the Circus Maximus. In chariot races, two- or four-horse chariots ran seven laps totaling anywhere from three to five miles.
DAM93G (the gladiator cemetery) mainly consisted of graves with plain walls and fixed tombstones with illustrations of different types of gladiators (Fig. 2). The human remains were found in an approximately 3 m thick layer in a 20 m2 area (Fig. 1c). Commingled bones indicate that the site was used multiple times over an extended period [83]. Therefore, the documentation and recovery of human remains were carried out according to mass grave excavation methods [89], [90]. The morphologic-anthropological examination of the individuals' sex and age was performed as per [91], [92], [93], [94], [95] and [96]. 53 individuals were analyzed for stable isotope ratios and 35 individuals for Sr/Ca-ratios (Table 1).
For the Sr/Ca bone mineral analysis, only the mid-shaft compacta of adult individuals' femora and humeri were sampled since the turnover rates of the diaphyseal regions of these long bones are similar and therefore comparable [103]. This reduced the initial sample size for the gladiators to 21 males and for the non-gladiators (NG) to 11 males and 3 females.
The gladiators' Sr/Ca data show a mean value of 1.260.33 µg/mg. The NG male samples have a mean value of 0.680.10 µg/mg and the females of 0.650.02 µg/mg. Samples of infants were not analysed for Sr/Ca.
The Sr concentrations in the eluent of the soils were 1.52 µg/L for DAM93G and 1.46 µg/L for DAM93NG, 2.92 µg/L for DAM92 and 2.78 µg/L for DAM94. These values indicate that the relative amount of Sr depleted was similar and on average approximately 1.5% of the total soil content. In other words, about the same relative amount of Sr can be depleted from all soils, but the relative depletion rate is slightly higher than the depletion rates for Ca. Especially the different depletion of Ca from the soils produces higher and finally more homogenous Sr/Ca-ratios in the eluent, as they were evident in the total soil. Specifically, in the eluent, an average Sr/Ca-ratio of 3.110.22 µg/mg, ranging from 2.84 µg/mg to 3.36 µg/mg was observed, whereas in the total soil the average Sr/Ca-ratio was 1.920.44 µg/mg (1.50 µg/mg to 2.43 µg/mg).
The significantly lower Ca values in the DAM93 soil and therefore the much higher Sr/Ca-ratios in this soil raises concerns whether these conditions caused diagenetic alterations of the bones at this location. But, there are still significant differences in the Sr/Ca-ratios between gladiators (1.260.33 µg/mg) and non-gladiators (0.630.08 µg/mg) from the DAM93 site buried close to each other. Further, our leaching experiments with bi-distilled H2O (simulating rain water) for the different soils have shown that although there were great variations in the Sr/Ca-ratios within the different bones and within the different soils, the H2O eluents of all four soils turned out to have similar Sr/Ca-ratios, ranging from 2.84 to 3.36 µg/mg (Table 2). [119] studied the ability of bovine bone meal to act as decontamination sorbent for Sr90 contaminated soils. The study showed that untreated as well as heated (400C) bone meal is indeed able to absorb small amounts (about 4 µg/g) of Sr when soaked in aqueous solution with Sr concentrations of as high as 526 µg/L. This happens for a wide range of pH (4 to 11) with more or less the same absorption rate. Additionally, a competition between Ca- and Sr-ions for absorption can be observed when an exceeding concentration of Ca is added to the solutions. Ca ions are clearly preferred to bind at the bio-apatite because of their higher binding stability. These findings indicate for our study that absorption of Sr in the buried bones might have been negligible, because Ca was available in 300 times excess in all four soil eluents.
In theory, sufficiently preserved collagen should protect the metastable calcium phosphate which causes the amorphous nature of the bio-apatite. If the organic (collagen) is lost through burning, the crystallinity of the apatite increases and therefore the solubility of the apatite decreases. This makes the bone less prone to contaminations through ion exchanges [59]. In our study, we found that the cremated samples from the Pithoi showed Sr/Ca-ratios of 0.58 µg/mg respectively 0.61 µg/mg comparable to the uncremated bones. This can be taken as a sign that only minor changes to the original Sr/Ca-ratios have occurred, especially if taking into account that the initially intact and sealed ceramic vessels of the Pithoi prevented the cremated bones from direct groundwater contact at least for a certain time.
In this study, the isotopic data suggest a mixed diet with a high share of vegetables. However, this cannot fully explain the great difference in Sr/Ca-ratios. Other possible reasons for the high Sr/Ca values of gladiators must be discussed. The stable isotope data means do not differ significantly between gladiators and contemporary females and males, suggesting that there were no major differences in their overall diet. However, the significantly higher Sr/Ca-ratio for the gladiators is a very strong signal of the main Ca-supplier in their diet [79]. A Ca-source not detectable in the isotopic signature must be responsible for such significant differences in Sr/Ca-ratios between the gladiators and non-gladiators.
In a study on the non-linearity of bone Sr/Ca and diet, [79] describe bivilviki, a traditional Hopi food made from corn to which ash of the salt bush plant is added. They conclude that the Sr/Ca-ratio of bivilviki is responsible for the consumer's bone Sr/Ca, even if it was just a minor part of the diet. Plant ash is known as a culinary spice and also as a medical remedy in many cultures. It is frequently mentioned as pyxis in Roman texts. In his Naturalis historia, Pliny the Elder describes a beverage made of stove ashes that played a role in the life of gladiators. This ash beverage was served after fights and maybe also after training to remedy body pain [124]. It is a possible explanation for the high Sr/Ca values in the gladiator bones.
The strong Sr/Ca signal in the gladiator bone mineral indicates an accelerated Ca metabolism. According to historic sources, a gladiator spent several years in the ludus. The first year served for initial training followed by at least three years as active fighter [8], [9]. The consumption of the ash beverage during this time period would suggest that our gladiators may comprise fighters who lost their life in the first fight and others who lost their lives after several years. That means a substitution for the novices of approximately one year and several years of substitution for the more experienced fighters. A strong gradient or a high variation of Sr/Ca-ratios within our gladiator samples could reflect these different time spans (Fig. 5).
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