Apply Porter 5 forces to IBM

Apply Porter 5 forces to IBM With Porter five forces framework, we identify the sources of competition facing IBM:-1.Threat of new entrantsHigh capital requirement needed to fund RD and assets make the threat of new entrants relatively low. IBM spends large amount of funds annually for RD, in order to constantly introduce new high-technology and innovative products and solutions to market to maintain its' competitiveness,Tougher for new entrants to achieve economies of scale due to experience curve effect. In addition, Consumers' preference over established brands, long-term relationship and broad product portfolio make IBM the preferred brand.2.Threat of SubstitutesPropensity to substitute is low for buyers. Threat varies from low to medium with high switching cost and product differentiation such as technology, performance, functionality etc.3. Bargaining power of buyersBargaining power is high during sourcing stage. However, buyers' bargaining power decrease after the purchase stage as switching cost is high with compatibility concerns, migration issues and cost of hardware/software."HP"-Garage in Palo Alto4.Bargaining power of suppliersSuppliers' bargaining power is low for the industry, IBM maintains a diversity of suppliers.5.Intensity of rivalry among established firmsAfter several years of contraction, the global IT industry returns to growth. The competition in the industry is intense with big boys like Microsoft, Dell, Hewlett-Packard and Sun Microsystems with diversified capabilities.Gerry Johnson, Kevin Scholes and Richard Whittington (2005), Exploring Corporate Strategy - Text and Cases, 7th edition, Harlow : FT/Prentice Hall.IBM Corporation, available online from ibm.comIBM Annual report 2004, An IBM Prospectus, Understanding Our Company, available online from ibm.com/annualreport/2004/prospectus/IBM Public Affairs, available online from ibm.com/ibmIBM corporation, Government and Public Policy, available online : www.ibm.com

Battle of Jutland in World War I

Battle of Jutland in World War I Battle of Jutland -Conflict Dates The Battle of Jutland was fought May 31-June 1, 1916, and was the largest naval battle of World War I (1914-1918). Fleets Commanders Royal Navy Admiral Sir John JellicoeVice Admiral Sir David Beatty28 battleships, 9 battlecruisers, 9 armored cruisers, 26 light cruisers, 78 destroyers, 1 minelayer, 1 seaplane carrier Kaiserliche Marine Vice Admiral Reinhard ScheerVice Admiral Franz Hipper16 battleships, 5 battlecruisers, 6 pre-dreadnoughts, 11 light cruisers, 61 torpedo boats Battle of Jutland -German Intentions: With the Allied blockade increasingly taking a toll on the German war effort, the Kaiserliche Marine began devising plans to bring the Royal Navy to battle. Outnumbered in battleships and battlecruisers, the commander of the High Seas Fleet, Vice Admiral Reinhard Scheer, hoped to lure part of the British fleet to its doom with the goal of evening the numbers for a larger engagement at a later date. To accomplish this, Scheer intended to have Vice Admiral Franz Hippers scouting force of battlecruisers raid the English coast to draw out Vice Admiral Sir David Beattys Battlecruiser Fleet. Hipper would then retire, leading the pursuing Beatty towards the High Seas Fleet which would destroy the British ships. To support the operation, submarines would be deployed to weaken Beattys forces while also watching Admiral Sir John Jellicoes main Grand Fleet at Scapa Flow. Unknown to Scheer, the British codebreakers at Room 40 had broken the German naval codes and were aware that a major operation was in the offing. Unaware of Scheers intentions, Jellicoe sortied with 24 battleships and three battlecruisers on May 30, 1916, and took up a blocking position ninety miles west of Jutland. Battle of Jutland -The Fleets Put to Sea: Jellicoes departure was followed later that day by Hipper who left the Jade Estuary with five battlecruisers. Able to move faster than his superior, Beatty sailed from the Firth of Forth early on May 31 with six battlecruisers and the four fast battleships of the Fifth Battle Squadron. Leaving after Hipper, Scheer put to sea on May 31 with sixteen battleships and six pre-dreadnoughts. In all cases, each formation was accompanied by a host of armored and light cruisers, destroyers, and torpedo boats. As the British moved into position, the German u-boat screen proved ineffective and played no role. Battle of Jutland -The Battlecruisers Collide: As the fleets moved towards each other, a communications error led Jellicoe to believe that Scheer was still in port. While he held his position, Beatty steamed east and received reports from his scouts at 2:20 PM of enemy ships to the southeast. Eight minutes later, the first shots of the battle occurred as British light cruisers encountered German destroyers. Turning towards the action, Beattys signal to Rear Admiral Sir Hugh Evan-Thomas was missed and a ten-mile gap opened between the battlecruisers and the Fifth Battle Squadron before the battleships corrected their course. This gap prevented Beatty from having a crushing advantage in firepower in the coming engagement. At 3:22 PM, Hipper, moving northwest, spotted Beattys approaching ships. Turning southeast to lead the British towards Scheers battleships, Hipper was sighted eight minutes later. Racing forward, Beatty squandered an advantage in range and failed to immediately form his ships for battle. At 3:48 PM, with both squadrons in parallel lines, Hipper opened fire. In the ensuing Run to the South, Hippers battlecruisers got the better of the action. Due to another British signaling error, the battlecruiser Derfflinger was left uncovered and fired with impunity. At 4:00 PM, Beattys flagship HMS Lion took a near fatal hit, while two minutes later HMS Indefatigable exploded and sank. Its loss was followed twenty minutes later when HMS Queen Mary met a similar fate. Though scoring hits on the German ships, Beattys battlecruisers failed to score any kills. Alerted to the approach of Scheers battleships shortly after 4:30 PM, Beatty quickly reversed course and began running to the northwest. Battle of Jutland -The Run to the North: Passing Evan-Thomass battleships, Beatty again had signal difficulties which hampered the Fifth Battle Squadrons turn. As the battered battlecruisers withdrew, the battleships fought a running rear-guard action with the High Seas Fleet. Moving to Beattys aid, Jellicoe sent forward Rear Admiral Horace Hoods Third Battlecruiser Squadron while attempting to obtain information about Scheers position and heading. As Beatty ran north, his ships hammered at Hipper, forcing him to turn south and join Scheer. Around 6:00 PM, Beatty joined Jellicoe as the commander debated which way to deploy the fleet. Battle of Jutland -The Dreadnoughts Clash: Deploying to the east of Scheer, Jellicoe put the fleet in position to cross Scheers T and have superior visibility as the sun began to set. As the Grand Fleet moved into line of battle, there was a flurry of activity as the smaller vessels raced into position, earning the area the name Windy Corner. With Jellicoe forming the fleet, the action was renewed when two British cruisers came under fire from the Germans. While one was sunk, the other was badly damaged but was inadvertently saved by HMS Warspite whose steering gear overheated causing it to circle and draw German fire. Approaching the British, Hipper again clashed with the battlecruisers, including Hoods fresh ships. Taking heavy damage, he was forced to abandon his flagship SMS Lutzow, but not before his ships sank HMS Invincible, killing Hood. At 6:30 PM the main fleet action began with Scheer stunned to find Jellicoes battleships crossing his T. His lead ships under intense fire from the British line, Scheer averted disaster by ordering an emergency maneuver known as Gefechtskehrtwendung (battle about turn to starboard) which saw each ship reverse course by turning 180-degrees. Knowing that he could not win a stern chase and with too much light remaining to escape, Scheer turned back towards the British at 6:55 PM. At 7:15 PM, Jellicoe again crossed the German T with his battleships hammering SMS Konig, SMS Grosser Kurfà ¼rst, SMS Markgraf, and SMS Kaiser of Scheers lead division. Under intense fire, Scheer was forced to order another battle about turn. To cover his withdrawal, he ordered a mass destroyer attack on the British line, along with an sending his battlecruisers forward. Meeting brutal fire from Jellicoes fleet, the battlecruisers took heavy damage as Scheer laid a smoke screen and retreated. As the battlecruisers limped away, the destroyers commenced torpedo attacks. Turning away from the assault, the British battleships escaped unscathed, however it cost Jellicoe valuable time and daylight. Battle of Jutland - Night Action: As darkness fell, Beattys remaining battlecruisers exchanged final shots with the Germans around 8:20 PM and scored several hits on SMS Seydlitz. Aware of German superiority in night fighting, Jellicoe sought to avoid renewing the battle until dawn. Cruising south, he intended to block Scheers most likely escape route back to the Jade. Anticipating Jellicoes move, Scheer slowed and crossed the Grand Fleets wake during the night. Fighting through a screen of light vessels, Scheers ships engaged in a series of chaotic night battles. In these fights, the British lost the cruiser HMS Black Prince and several destroyers to enemy fire and collisions. Scheers fleet saw the loss of the pre-dreadnought SMS Pommern, a light cruiser, and several destroyers. Though Scheers battleships were sighted several times, Jellicoe was never alerted and the Grand Fleet continued sailing south. At 11:15 PM, the British commander did receive an accurate message containing the German location and heading, but due to a series of faulty intelligence reports earlier in the day, it was disregarded. It was not until 4:15 AM on June 1, that Jellicoe was alerted to the Germans true position by which point he was too far away to resume the battle. Battle of Jutland - Aftermath: At Jutland, the British lost 3 battlecruisers, 3 armored cruisers, and 8 destroyers, as well as 6,094 killed, 510 wounded, and 177 captured. German losses numbered 1 pre-dreadnought, 1 battlecruiser, 5 light cruisers, 6 destroyers, and 1 submarine. Casualties were listed as 2,551 killed and 507 wounded. In the wake of the battle, both sides claimed victory. While the Germans succeeded in sinking more tonnage and inflicting higher casualties, the battle itself resulted in a strategic victory for the British. Though the public had sought a triumph similar to Trafalgar, the German efforts at Jutland failed to break the blockade or significantly reduce the Royal Navys numerical advantage in capital ships. Also, the result led to the High Seas Fleet effectively remaining in port for the remainder of the war as the Kaiserliche Marine turned its focus to submarine warfare. While both Jellicoe and Beatty were criticized for their performance at Jutland, the battle did lead to several changes in the Royal Navy. Determining that the loss in battlecruisers was largely due to shell handing procedures, changes were made to ensure a higher degree of safety. Also improvements were made to gunnery practices, signaling, and the Fleet Standing Orders. Selected Sources First World War: Battle of JutlandThe Battle of Jutland

The Ability to Value Assets Accurately is at the Heart of the Essay

The Ability to Value Assets Accurately is at the Heart of the Discipline of Finance. Discuss - Essay Example Inappropriate asset valuation would fail to determine the actual status of the business performance which would adversely affect the formulation of business strategies. According to Brigham & Daves (2009), â€Å"Real options are opportunities for management to change the timing, scale, or other aspects of an investment in response to changes in market conditions.† (Brigham & Daves, 2009, p.490). Since the real options are concerned with the real assets such as plants, fixtures, and land, it enables the management to take timely and appropriate decisions regarding investment strategies. Brigham and Daves also opine that formulation of model and estimation of input is necessary for the valuation of real options in investments. It will be a cumbersome task for the management to determine the exact value of real options in investment since it includes intangible components like contract, decision to expand or abandon etc. Even though exact valuation of real options is not possible, it helps to determine the sustainability of the proposed project. According to the writers, in order to valuate the real options more accurately, it is better to trea t the valuation with a ‘standard model for financial option’. Similarly usage of ‘discounted cash flow valuation and decision tree analysis’ are also better methods in order to increase the accuracy of valuation of real options (Brigham & Daves, 2009, pp.490-491). If the value of underlying asset (an asset underlies and offers value to the particular security or investment) can be properly estimated, then it is possible to find out the value of real options in investment almost accurately. Likewise, while dealing with valuation of real options, it is essential to represent the payouts precisely in order to bring out maximum relevant facts in the valuation process. The Black-Scholes model is a comparatively better method to determine the theoretical value of real

Writing a screenplay for a short Assignment Example | Topics and Well Written Essays - 1250 words

Writing a screenplay for a short - Assignment Example He then addresses the priest. Law and order are simply what needs to be done. Failure to follow the law leads to punitive measures. That is why you are in this cell. You did not follow the law and so you have to face the consequences. Even†¦(The first inmate disrupts him) The first inmate seems upset and starts moving up and down the cell. He seems to be in deep thoughts. He goes and leans on the wall and starts shaking his head. The second inmate walks towards him and shouts to him. The officer takes a glance at the priest and moves towards him. He does not seem convinced with the explanation the priest gives him. He takes the notebook and peruses it. He seems not to get the meaning of the writings inside. He takes the priests Bible and checks the cover. It is torn, and so he smiles meekly The priest seems hurt but grabs the notebook and the Bible from the pastor. He then turns to the prisoners who are sited at the corner of the cell. The officer grabs his hands and pulls him towards the door. Please officer let me say my final word to these inmates. They need encouragement from people like me, for consolation of the hassles they go through in this cell. You are one of the people who should treat these brothers as your friends instead you mistreat them. The Bible requires us to show mercy and compassion to all our friends. God shows us His mercies, and we must reciprocate to our friends. I will leave you with a few words for encouragement and hope for tomorrow. Keep your trust and faith in the Lord because only He can get you out of this damn place. Never forget to pray and commit all your wishes to Him. Also†¦ The priest hesitates as some noise is heard from outside the cell. Loud bangs can be heard from other prison cells as the officers try to stop the prisoners from shouting. Everyone from the room seems shaken. The officer is confused and does not know if he should get out or stay in the cell. As

Solar Power The trends and future of solar power generation Essay Example for Free

Solar Power The trends and future of solar power generation Essay Solar power is being increasingly conceived as a possible alternative to traditional energy sources, given the rise in costs associated with traditional energy sources. Although it had for long, been considered as highly uneconomic; this notion has been changing with the improvement in technologies. It should be noted here that generation of solar power is currently highly dependent on government subsidies. These subsidies are very essential for projecting solar power as an alternative to electricity from traditional fuel sources. However the cost of manufacturing and installing solar power generation system has been considerably decreased during the last two decades, during which the installed capacity too rose phenomenally. This scenario is in stark contrast to electricity generation from traditional sources where the generation costs increased with the rise in natural gas prices. The need for more power plants to meet the increasing consumption needs, the need to cut emissions and adopt other pollution control measures, only keep pushing conventional electricity prices further and further. The global solar capacity is anticipated to be about 20 to 40 times its current levels, by 2020, growing by 30 to 35% each year. The solar power generated today would correspondingly rise from 10 gigawatts to 400 gigawatts by 2020. However, despite the prospects for solar power, the solar power generation field is in its early stages; such that even if the estimated capacity level reaches the said 20 to 40 times its current level, it would only account for 3 to 6% of the electricity generation capability or 1.5 to 3% of the total output in 2020. It is now anticipated that in three to seven years from now, unsubsidized solar power should be available to the end customer at costs compatible to electricity produced by fossil fuels or other alternatives to solar. Parts of US and Italy, Japan and Spain are expected to see the equalization of solar and traditional power costs due to favorable trends and encouraging factors prevailing in these regions. Currently unsubsidized solar power costs about 36 cents per kilowatt-hour. This is expected to be around 12 cents per kilowatt-hour by 2020. The current solar technologies used are silicon-wafer photovoltaics, thin-film photovoltaics and concentrated solar thermal power. Each of these technologies have certain advantages with regard to particular usages. Through innovations and cost cuttings, the technologies strive to be more efficient, with enhanced applicability. The power conversion efficiency is the amount of electricity generated by the solar radiation corresponding to the surface of the photovoltaic cell, for a particular time period. Efficient systems are directed towards weighing less, with a smaller radiation collection surface, low cost transportation and installation. Photovoltaic refers to the solar panels which convert solar energy to electricity. The photovoltaic material is mainly formed of pure silicon, which emit electrons when subjected to solar radiation, thereby producing an electric current. While basic photovoltaic cells are used in calculators and wrist watches, more higher versions are used for powering water pumps, communications equipments and several other off-grid requirements. Photovoltaics are increasingly used as an additional or alternative for utility purposes already serviced by electric grid. More and more people increasingly opt for photovoltaics for several reasons like environmental, economic, emergency requirement, rising electricity costs etc. The silicon-wafer photovoltaics account for about 90% of installed solar capacity. It is particularly used in rooftop applications associated with space restrictions. Although these are doubly efficient compared to thin-film photovoltaics, their installation is costly. The solar panels themselves are costly too, requiring larger quantities of silicon photovoltaic material compared to thin film photovoltaic solar cells. Another disadvantage is that the theoretical efficiency limit of the photovoltaic single-junction silicon wafer cell, set at 31%, has been neared by several companies already. Although the limit of 31% can be extended by advanced techniques, these could lead to increased production costs. The commercially produced thin-film photovoltaics have only been recently proved to reach efficiency levels of about 10%. The lower efficiency levels with respect to silicon-wafer photovoltaics is achieved by very low usage of materials, requiring only about 5% or lesser than that needed for silicon wafer photovoltaics. The manufacturing costs associated with thin-film photovoltaics is almost half that for silicon-wafer, with tremendous prospects of increasing the costing gap in the long run. Thin-film photovoltaics are more used in large area installations, flat rooftops etc. While silicon-wafer based photovoltaics are capable of providing high output even for a quarter of a decade, the longevity of thin film are uncertain. Cadmium telluride is perhaps the most prospective thin film technology that have been developed commercially. However, the toxicity levels associated with cadmium and the availability of telluride are worrisome factors. The concentrated solar thermal power technology converts solar radiation to heat using mirror arrangements. These are then converted to electricity through heat conversion methods. The concentrated solar thermal power is appropriate for village requirements of 10 kilowatts as well as for grid applications involving several hundred megawatts (SEPA, 2008). These can be installed at the vicinity of the customers, thereby lowering transmission and distribution costs. Although these are the lowest in terms of associated costs, they require plenty of open space and very demanding solar conditions. The concentrated solar thermal technology mostly uses the usual components like reflectors and pipes, and therefore the prospects of costs reduction are less. The challenges confronting the advancement of solar power are those that are relevant to any upcoming or emerging sector. Given the intense competition, companies involved in manufacturing of solar power generation equipment must slash their costs by improving their manufacturing process of solar cells. The spurt in solar power activity has brought in funds from venture capital and private equity firms. An amount of $3.2 billion invested in the year 2007, saw new players in the solar power generation, who contributed to excess supply and falling prices. Early entrants like Dow Corning and Wacker as well as component developers like First Solar and SunPower saw high margins. At May end this year, the Abu-Dhabi based Masdar announced its entry in the manufacturing of thin film photovoltaic products. With an investment of $2 billion, the company expects to produce the state of art thin film modules, through a three phase strategy. (Ghelfi, 2008). On the previous day to this announcement, Q-Cells, the German solar cell manufacturer, announced an investment of $3.5 billion for developing a production center in Mexico, for manufacturing thin film modules. According to First Solar Inc., a company involved in manufacturing of solar modules, its average manufacturing cost for solar module in 2007 was only about $1.23 per watt. The company attributed the low cost to its thin film semiconductor technology compared to crystalline silicon modules, manufactured traditionally. The company expects to become the first solar module manufacturing company to provide non-subsidized solar electricity at retail electricity rates by 2010. A single manufactured solar module is about 2ft by 4ft, employing cadmium telluride as the absorption layer which provides high conversion efficiency with very little semiconductor material. From 2005, there had been an increasing demand for silicon from the solar module, solar cell and solar wafer manufacturers. Due to the insufficient supply of crystalline silicon, the solar modules and cells manufacturers’ utilization rates fell. The utilization rates fell to 70% in 2005 from 86% in 2004. With the demand increasing considerably, the German cell manufacturer ErSol Solar Energy reduced its 2007 expectations from 70 megawatts to 55 megawatts, due to fall in wafer supply. The supply shortfall led to a huge hike in silicon prices. The price of the silicon raw material shot to $45 a pound in 2007 from $20 in 2003. The higher prices in turn brought many companies into the business of silicon manufacturing. Silicon production rose by 14% in 2007 and is expected to rise by 43% in 2008 and by 50% in the each year 2009 and 2010. By 2010, the supply shortage and the resulting high prices would be taken care of. According to investment columnist Jim Jubak, rising prices of natural gases, slow developments and cancellations associated with nuclear and coal plants respectively, are pushing the price of solar stocks. Solar cell companies too are highly dependent on technology just as any other computer chip makers or cell phone one or television manufacturers. A bill seeking to extend the existing tax break for another six years have been passed by the House Ways and Means Committee. Jubak estimates that with everything looking in favor of solar power, the revenues in the solar industry are very likely to increase phenomenally (Jubak, 2008). Lux Research projects revenues to climb 27% annually, on a compounded basis through 2012. Another estimate from Clayton Securities suggests 17% annual compounded revenue growth through 2016. Â  REFERENCES Solar Electric Power Association (2008) Solar Electricity Basics [Electronic Version] Downloaded on 29th June 2008 from http://www.solarelectricpower.org/index.php?page=basics Jubak J., (2008) 3 high powered solar stocks [Electronic Version] Downloaded on 28th June 2008 from http://articles.moneycentral.msn.com/Investing/JubaksJournal/HighPoweredSolarStocks.aspx Ghelfi C. (2008) Masdar getting into thin film solar business Electronic Version] Downloaded on 27th June 2008 from http://media.cleantech.com/2904/masdar-getting-into-thin-film-solar-business-abu-dhabi Lorenz P., Pinner D. Seitz T., The economics of solar power. The McKinsey Quarterly [Electronic Version] Downloaded on 27th June 2008 from http://www.mckinseyquarterly.com/my_profile.aspx

Causes of the Behavior of Transgenic Mice :: essays research papers

Selectively manipulating genes can lead to a greater understanding of molecular and cellular brain functions and behaviors. However these specific gene mutations may trigger compensatory changes that mask a phenotype or adds to it. Therefore it might be difficult to determine the specific effect of a mutation on behavior. This is especially true since a mutation may be affected by the environment or a specific genetic background. Because of this it is important to find the best way to understand and interpret behavioral data. The Morris Swimming task is a task where the animals are encouraged to find a platform in a water tank. Through careful examination it was found that there where several behavioral trends. One of them is called thigmotaxis and it refers to the mice swimming near the wall without even trying to find the platform. This has to be overcome in order to achieve the goal. If it is not overcome then the stage where the animal learns the location of the platform cannot be reached. A generalized interpretation of the mutant animal’s behavior might lead us to believe that it cannot achieve its task because of learning and memory impairment however it can be observed that the reason for its failure might be its inability to overcome its initial behavior. To verify that this is the cause of the animal’s behavior there is a technique called PCA. This technique allows researchers t o correlate specific measures of the animal’s movements with various factors such as thigmotaxis to understand the specific causes of the behavior and how the mutation affects the animals. It has been found that 50% of the source of variation of the animal’s behavior is the inability to overcome thigmotaxis and is not related to its inability to perform learning tasks. To understand the specific effects of the mutation on animals one must also be careful to eliminate genetic background and environment as affecting performance. A Meta analysis of the data for the water task has shown that both environmental and genetic effect produce sufficient variation to account for the range of almost all behavioral measures. It is hard to determine the effects of the mutation alone without it being confused with effects from other sources. It is helpful to test inbred animals where heterozygous animals are mated to produce wild-type and homozygous offspring.

Traces of Hindu Temple Architecture in Taj Mahal

Chapter 2 Traces of Hindu Temple Architecture in Taj Mahal As mentioned earlier in the old chapter that many critics have found Urdu hints and Taj edifice is a symbolical representation of Mughal memorial merely. But Professor P.N. Oak challenges such thoughts and brings out a review that the Taj Mahal is really a Hindu Temple of Lord Shiva ( Tejo-Mahalaya ) . As P.N Oak besides theorizes that a rock lettering which is known as the Bateshwar lettering is kept in the Lucknow Museum which shows that this memorial can be a temple of Lord Shiva. It was found that the size of Mumtaz’s empty tomb is non of tallness of an mean Islamic adult female of the 17th century and the grave is non of appropriate dimensions. It could be said that the Shiva Linga which is considered as really sacred and sanctum is really under the grave. The grave is on the first floor so it is non clear if Mumtaz’s organic structure is truly buried in Taj Mahal because organic structures are normally buried in the Earth and non in the flooring. This grave of Mumtaz is of the tallness of Hindu Shiva linga and if farther excavation would be allowed the consequence would come therefore Forth. Taj Mahal bears a batch of Hinduism hints and all such Markss have been pointed out by P.N. Oak in his book. On the arch of Taj Mahal’s chief grave there is a trident ( trishul ) which is emblem of all Hindu Temples in India and no mosque or any other Muslim memorial has a trident over its grave. All workss and trees which are present in the gardens of the Taj Mahal are sacred to Hindus like Lotus, Tulsi, Banyan trees, etc. The chief forms are drawn which are found are Bel foliages and Harshringar flowers, these are really used as an offering to Lord Shiva. There is a cardinal chamber in between of eight doors which provides us the thought where the emblem of Lord Chandra-manleeshwar was present. The proper flooring of this cardinal transition besides gives us an thought that Lord Chandra- manleeshwar used to dance to idolize Lord Shiva. The high day of reckoning above it is besides a common characteristic is dripped over the Shiva linga from a bowl hanging on a certain tallness. Even the ushers of Taj Mahal Tell to all visitants about the tradition of a bead of rain H2O which is falling from tallness of the dome on the grave in the cardinal chamber, this is really a topographic point from where the H2O used to drop on the Shiva Linga in the older times. There are silver doors and aureate railings which are in the fixtures of the Taj Mahal, clearly give the Indianness to the memorial because boulder clay day of the month we can happen such fixtures in our Hindu Temples. There are some ancient Hindu colored studies of eight directional arrows, 16 cobras, thirty two tridents, and sixty four flowers of Nelumbo nucifera which are in the multiple of four which is considered auspicious in Hindu faith. This study is designed in the Taj Mahal’s cardinal chamber, from the grave of Mumtaz this form can be seen really clearly. Even Tavernier besides mentioned that the bazaar used to be placed in the six tribunals of the Taj Mahal and this thing is everyone knows that in the tradition of Hindus carnivals and bazaars are set up around temples till day of the month. On all four side entrywaies of the Taj Mahal, there is trident ( trishul ) is inlaid, which is sole arm of Lord Shiva. It clearly proves that it is a Shiva temple. Some pointed out that the Taj Mahal dome has the Arabic scratching ‘Allaho Akbar’ significance ‘God is Great’ . These words were engraved on pinnacle ordered by Shah Jahan after he took over the Hindu temple and commandeered to alter in Islamic usage. But the same reproduction of the pinnacle inlaid in the red-stone courtyard does non hold that Islamic lettering. Then there are broad adorned Chamberss and an adjoining long corridor with the full length of those flats. These Chamberss are fundamentally at the lower degree than the basement cardinal chamber. The Chamberss which are right under the Gravess of King and Queen on two floors which are sealed in a hit-or-miss manner with bricks are likely to hold Hindu graven images and letterings. The corridors which may be running under the red-stone patio, they all are sealed. Likewise all the ventilator type gaps and doors in the flat row have besides been crudely walled up under the red-stone patio. We will be able to see the beauty of the belowground flats if those fillings are removed. It is really much possible that Taj Mahal has two floors above the river bed and one in the cellar which has been sealed by Shah Jahan. ‘Taj Mahal’ is a disgusting signifier of Sanskrit ‘Tejo Mahalaya’ intending ‘Resplendent Shrine’ . This name besides attach to Lord Shiva because his 3rd oculus is said to breathe a tantrum if lustre that is ‘Tejo’ . Even if we look at the existent significance of the term ‘Taj Mahal’ it means a ‘crown residence’ and non a grave. If these Gravess would hold been the existent Gravess, they wouldn’t have been so much decorated because in Muslim civilization Gravess wouldn’t have been so much decorated. The cadaver of Mumtaz, if it is buried in the Taj Mahal, it can non be in the land floor or in the basement chamber. There are other a Hindu symbols which are found in the Taj Mahal, like usage of the sacred Hindu chant ‘OM’ . ‘OM’ is crafted into the marble flower of Nelumbo nucifera both Nelumbo nucifera and OM are symbolically apart of Hindu civilization which are present on the walls of Taj Mahal even on the so called â€Å"graves† . Any pupil or bookman of architecture can clearly state that the ‘flower’ drawn on the marbles is a portion of ancient Hindu temple drawings and non of any Muslim burial chamber craft. There is one of import point besides that clip or instead span of decease of Mumtaz is non clear. Some historiographers says that, she died in 1630 or 1631or 1632 A.D. , and in the celebrated burial chamber it is written that she died in 1629 A.D. It is absurdto think cipher knows the right timing of Mumtaz’s decease. In fact, Taj Mahal has Hindu castle dimensions. Taj Mahal has many doors which are in spiked form. There are ruddy rock corridors, irritants and suites all these properties are merely like typical Rajput edifice. ‘Ghat’ which is really common in temple castle, exists in Taj Mahal. Gateways of the Taj Mahal which are now closed were earlier the topographic point to bathe in the river and travel yachting. Many suites in the Taj Mahal composite are the membranophone houses. These membranophone houses are a portion of Rajputana architecture. It is obvious that in memorial topographic point no membranophone houses are planned to do, and there is no music topographic points made in any Islamic edifices, music is really restricted, hence the membranophone houses clearly prove the manus of Hinduism in the Taj Mahal. There are so many suites for invitees, ground forces withdrawals, servers, caterers etc for any royal intents. Such architecture is ne'er used in doing any grave. All the walls and doors are besides in Hindu dimension, like Ag doors which have been discussed earlier. In the Taj Mahal there are four towers at the each room access. The top of the tower is made up by brass Kalases. Kalases is a Sanskrit word and this word can ne'er be connected to any grave and besides does non suit the Taj edifice architecture. ‘Kalas’ signifies a shinning pinnacle made up by brass or gold. This word merely comes in a connexion of temples or any Hindu castle but Taj Mahal’s top of the tower uses similar stuff and hence this besides gives us the intimation of Temple like castle alternatively of a burial grave. Three different scientific trials took topographic point to happen out the actualities of Taj Mahal. First one is Donodo chronology, in this trial wood sample is taken of several historic edifice. Second one is Thermoluminescence, in this trial a brick pulverization or whole brick is taken and happen out when this brick was baked. This trial is really helpful in happening the age of the historic edifices. Third trial is Carbon-14 trial ; this trial is helpful in happening out the existent age of any living being like wood piece or bone. Professor Mills from New York took the Carbon-14 trial by taking out little wooden piece of one of the Taj Mahal’s wooden door. This study published in theItihasPatrika. It was found out that the likely age of the sample is from 1448 and 1270 A.D. This trial clearly proves that the Taj Mahal existed much before Shah Jahan. But here I would wish to state readers clearly that the age which was proved in the trial was of the Northeastern room access and non of the Taj Mahal’s marble. In this chapter, many illustrations have been discussed which clearly tell that Taj Mahal is fundamentally a Hindu antediluvian temple ( Tejo Mahalaya ) and non a grave.