RU2008120040A - CEILING DRY SPRAYING SYSTEMS AND FIRE FIGHTING METHODS IN STORAGE ROOMS - Google Patents

Abstract

1. Ceiling dry spray system to protect the warehouse containing! a pipe network including a water section and a dry section connected to the water section, the dry section being designed to respond to fire with at least the first activated spray; and! a mandatory delay period in the delivery of fluid from the water area to the at least first activated spray, and the delay period is sufficient for the dry section to additionally respond to fire with at least a second activated spray, with at least the first and at least second activated spray guns form a working area of the spray guns sufficient to surround and flood the fire. ! 2. The system of claim 1, wherein the at least first activated nebulizer comprises a plurality of atomizers initially activated in response to a fire. ! 3. The system of claim 2, wherein the plurality of initially activated nebulizers are heat activated in a predetermined sequence. ! 4. The system according to claim 1, containing a primary water control valve, providing controlled separation between the water section and the dry section, the dry section includes at least one hydraulically remote sprayer and at least one hydraulically close sprayer relative to the primary water control valve. ! 5. The system according to claim 4, in which the mandatory period of delay in the delivery of liquid determines the minimum period of delay in the delivery of liquid and the maximum period of delay in the delivery of liquid, and the minimum period of delay in

Claims (325)

1. Ceiling dry spray system to protect the warehouse, containing a pipe network including a water section and a dry section connected to the water section, the dry section being designed to respond to fire with at least the first activated spray; and a mandatory delay period in the delivery of fluid from the water area to the at least first activated spray, and the delay period is sufficient for the dry section to additionally respond to fire with at least a second activated spray, with at least the first and at least second activated spray guns form a working area of the spray guns sufficient to surround and flood the fire. 2. The system of claim 1, wherein the at least first activated nebulizer comprises a plurality of atomizers initially activated in response to a fire. 3. The system of claim 2, wherein the plurality of initially activated nebulizers are heat activated in a predetermined sequence. 4. The system according to claim 1, containing a primary water control valve, providing controlled separation between the water section and the dry section, the dry section includes at least one hydraulically remote sprayer and at least one hydraulically close sprayer relative to the primary water control valve. 5. The system according to claim 4, in which the mandatory period of delay in the delivery of fluid determines the minimum period of delay in the delivery of fluid and the maximum period of delay in the delivery of fluid, the minimum period of delay in the delivery of fluid determines the time for delivery of fluid from the control valve to at least one hydraulically close atomizer, and the maximum period of delay in fluid delivery determines the time for fluid delivery from the control valve to at least one hydraulically remote spray litel. 6. The system according to claim 4, in which the maximum period of delay in the delivery of liquid has a sufficient duration to provide thermal activation of the first set of nozzles so as to form the maximum working area of the nozzles in response to fire using the effect of the environment and flooding, and the minimum period of delay in the fluid delivery is of sufficient duration to provide thermal activation of the second plurality of atomizers so as to form a minimum working area of the atomizers in response to fire with the effect of the environment and flooding. 7. A system according to any one of claims 1-6, wherein the dry portion includes a plurality of nozzles, having K-factor of about 11 or more and a working pressure of about 15 lbs / inch ² or more, and a dry portion is placed above the product comprising at least one of: (1) Class I-III, Group A, Group B, or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 8. The system according to claim 7, in which many sprays have a K-factor in the range from about 11 to about 36. 9. The system of claim 8, in which the K-factor is approximately 17. 10. The system according to claim 9, in which the K-factor is approximately 16.8. 11. The system of claim 1, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 12. The system of claim 11, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 13. The system of claim 12, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 14. The system of claim 13, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 15. The system according to claim 1, in which the working area of the nebulizers is determined approximately ten minutes after the activation of at least the first activated nebulizer. 16. The system of clause 15, in which the working area of the nebulizers is determined approximately eight minutes after activation of at least the first activated nebulizer. 17. The system according to clause 16, in which the working area of the nebulizers is determined approximately five minutes after activation of at least the first activated nebulizer. 18. Ceiling dry spray system to protect the warehouse, containing a water section; and a dry section connected to a water section for responding to a fire, wherein the dry section includes a pipe network with a plurality of activated sprayers to form a spray area for surrounding and flooding the fire, the plurality of sprayers including at least a first activated spray gun, and a plurality of sprayers of the spraying area of the spray guns are activated in a predetermined time period after the first activated spray gun. 19. The system of claim 18, wherein the predetermined time period is about ten minutes. 20. The system according to claim 19, in which a predetermined period of time is approximately eight minutes. 21. The system according to claim 20, in which a predetermined period of time is approximately five minutes. 22. The system of claim 18, wherein the dry portion is placed over a product containing at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 23. The system of claim 18, wherein the plurality of nebulizers have a K factor of about 11 or more. 24. The system of claim 23, wherein the plurality of nebulizers have a K factor in the range of about 11 to about 36. 25. The system according to paragraph 24, in which the K-factor is approximately 17. 26. The system of claim 25, wherein the K-factor is about 16.8. 27. The system of claim pp.18-26, wherein the plurality of nozzles are operating pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 28. The system of claim 27, wherein the pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 29. The system of claim 28, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 30. The system of claim 29, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 31. Ceiling dry spray system for protecting a warehouse with a ceiling height and made for storing goods with a given classification and storage height, containing a water section including a source of liquid; a dry section including a network of nozzles connected to a plurality of pipes, each nozzle having a working pressure and a dry section connected to a water section to define at least one hydraulically removed nozzle; and the design area of hydraulics defined by a plurality of sprayers in a dry area including at least one hydraulically remote sprayer, wherein the design area of hydraulics is designed to respond to a fire by the effect of the environment and flooding. 32. The system of claim 31, wherein the design area of the hydraulics is smaller than the design area of the hydraulics, as defined in NFPA-13 (2002) for a given ceiling height, product class, and storage height. 33. The system of claim 32, wherein the design area of the hydraulics is smaller than the design area of the hydraulics as defined in NFPA-13 (2002) for a water system designed to protect a given ceiling height, product class, and storage height. 34. The system according to any one of paragraphs.31-33, in which the design area of the hydraulics is determined by the mandatory period of delay in the delivery of fluid, and the mandatory period of delay in the delivery of fluid is determined by the period of time for delivery of fluid at a working pressure from the water section to at least one hydraulically remote sprayer. 35. The system of claim 31, wherein the ceiling height is not more than forty-five feet, the product class is any of Class I, II, or III, the storage height is up to about forty feet, and the design hydraulic area in the system is less than about 2500 square ft. 36. The system of claim 31, wherein the ceiling height is not more than thirty feet, the class of the product is Group A plastic, the storage height is up to about twenty feet, and the design hydraulic area in the system is less than about 2500 square feet. 37. The system of claim 31, wherein the dry portion is located above a product containing at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 38. The system of claim 37, wherein the plurality of nebulizers have a K factor of about 11 or more. 39. The system of claim 38, wherein the plurality of nebulizers have a K-factor ranging from about 11 to about 36. 40. The system of claim 39, wherein the K-factor is about 17. 41. The system of claim 40, wherein the K-factor is about 16.8. 42. The system of claim p.p.37-41, wherein the plurality of nozzles are operating pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 43. The system of claim 42, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 44. The system of claim 43, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 45. The system of claim 44, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 46. The system according to p. 31, in which all the nozzles activated by the design area of the nozzles to surround and flood the fire are activated within ten minutes after the activation of the first spray in the design area of the hydraulics. 47. The system of claim 46, wherein the activated nebulizers are activated within eight minutes after activating the first nebulizer. 48. The system of claim 47, wherein the activated nebulizers are activated within five minutes after activating the first nebulizer. 49. A method for designing a spray system with a network of pipes including a water section and a dry section, the system using the effect of the environment and flooding to fight the fire, comprising the steps of determining a mandatory delay period in fluid delivery for delivering fluid from a water portion to at least one activated nebulizer in a dry portion; and determine the spray area as a function of the required fluid delivery time so that the spray area is large enough to surround and flood the fire. 50. The method of claim 49, wherein the step of finding a mandatory delay period in the fluid delivery comprises determining a maximum delay period in the fluid delivery for delivering the fluid to the most hydraulically distant atomizer in a dry area. 51. The method of claim 49, wherein the step of finding a mandatory delay period in the fluid delivery comprises determining a minimum delay period in the fluid delivery to the most hydraulically closest atomizer in a dry area. 52. The method according to any one of claims 49-51, further comprising the steps of simulating a dry area as a network of atomizers, under which there is a network of stored goods, simulating a fire scenario in the product, and determining the activation times of the atomizers for each atomizer relative to the ignition time. 53. The method of claim 52, further comprising the step of plotting each of the activation times to obtain a predictive activation profile of the nebulizers. 54. The method of claim 49, wherein the step of determining the spray area of the nozzles also includes determining at least a maximum spray area and a minimum spray area for the system, the maximum and minimum spray areas being able to fight fire using the effect of the environment and flooding. 55. The method according to item 54, in which the sprayer working area is determined as a function of the product to be protected by the system, and at least the maximum sprayer working area is not greater than the design hydraulic area defined in NFPA-13 (2002) for the same the most protected product. 56. The method according to claim 55, wherein the sprayer working area is determined as a function of the product to be protected by the system, and at least the maximum sprayer working area is not greater than the design hydraulic area defined in NFPA-13 (2002) for the water system made to protect the same product. 57. The method according to item 54, in which the determination of at least the minimum working area of the nozzles includes determining the critical number of nozzles to form a minimum working area of the nozzles. 58. The method according to clause 57, in which the determination of the critical number of nozzles includes the specification of the range from two to four nozzles. 59. The method according to clause 57, in which determine the critical number of nozzles as a function of the class of goods to be protected by the system. 60. The method according to 49, in which the determination of the mandatory period of delay in the delivery of liquid includes the stage of determining at least one of the maximum and minimum working areas of the nozzles on the predictive profile, showing the number of activations of the nozzles in time in response to the function heat generation. 61. The method of claim 60, wherein determining a mandatory period for delaying fluid delivery includes determining a minimum delay period for fluid delivery from the time interval between activation of the first atomizer to the time of activation of the latter in a critical number of atomizers on the predictive profile. 62. The method according to p, in which the determination of the mandatory period of delay in the delivery of liquid includes the step of determining the maximum period of delay in the delivery of liquid from the time interval between the activation of the first sprayer and the time when the number of activated sprayers is at least eighty percent of the found maximum spray area. 63. The method according to any one of p. 49, further comprising the stage of iteratively designing a spray system with a water section and a dry section having a network of nozzles with a hydraulically remote atomizer and a hydraulically close atomizer relative to the water section, wherein the iterative design includes designing a hydraulically distant atomizer so that it exhibits a maximum delay period in fluid delivery, and designing a hydraulically close nebulizer so that it exhibits a minimum first delay period in fluid delivery. 64. The method of claim 63, wherein the iterative design further includes verifying that each atomizer located between the hydraulically distant atomizer and the hydraulically close atomizer exhibits a fluid delivery delay period that is between the minimum and maximum periods delays in delivering fluid to the system. 65. The method of claim 49, wherein determining a mandatory period of delay in delivering a liquid is a function of a dry area placed over a product containing at least one of: (1) Class I-III, Group A, Group B, or Group C , with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 66. The method according to § 49, in which determining the working area of the nebulizers includes specifying the area as including a plurality of nebulizers with a K-factor of about 11 or more. 67. The method according to p, in which the specification includes the specification of the K-factor as being in the range from about 11 to about 36. 68. The method according to clause 67, in which the specification includes the specification of the K-factor of approximately 17. 69. The method according to p, in which the specification includes the specification of the K-factor of approximately 16.8. 70. A method according to any one pp.66-69, wherein determining the movement area nozzles includes specification of a plurality of dispensers having both the working pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 71. The method according to item 70, in which the specification includes the specification of the operating pressure in the range from about 15 pounds / inch ² to about 45 pounds / inch ² . 72. The method according to p, in which the specification includes the specification of the operating pressure in the range from about 20 pounds / inch ² to about 35 pounds / inch ² . 73. The method according to paragraph 72, in which the specification includes the specification of the operating pressure in the range from about 22 pounds / inch ² to about 30 pounds / inch ² . 74. Fire fighting system for a warehouse containing a liquid source and a heat-normalized dry area, the dry area including a network of nebulizers having at least one hydraulically remote nebulizer relative to the liquid source, designed to determine a mandatory delay period in fluid delivery, while a mandatory delay period in fluid delivery has duration to allow thermal activation of the at least one nearest atomizer relative to the at least one hydraulically distant atomizer in response to a fire, with at least one hydraulically removed spray gun and at least one nearest spray gun additionally determine the working area of the spray guns to surround and flood the fire. 75. The fire protection system of claim 74, wherein the dry portion includes at least one hydraulically close atomizer relative to a fluid source for determining a second mandatory delay period for delivering a fluid, the mandatory delay period for delivering a fluid of at least one hydraulically remote sprayer determines the first mandatory period of delay in the delivery of liquid, the second mandatory period of delay in the delivery of liquid, and has such a duration that provides have the thermal activation of at least the closest atomizer with respect to at least one hydraulically close atomizer to a fire, the at least one hydraulically adjacent atomizer and at least one nearest atomizer with respect to at least one hydraulically adjacent atomizer determine a second spray area for surrounding and flooding fire, while the spray area defined by at least one hydraulically distant spray and at least one near yshim spray to at least one hydraulically remote atomizer defines a first working area of the nozzles. 76. The system of claim 75, wherein the dry portion includes a plurality of nozzles disposed between at least one hydraulically distant and at least one hydraulically adjacent nozzles, each of which a plurality of nozzles are disposed relative to a fluid source to determine a mandatory period delays in fluid delivery having a duration between the first and second mandatory periods of delay in fluid delivery. 77. The system of claim 74, wherein the dry section includes at least one supercharger and a plurality of pipes for connecting a plurality of nebulizers to a fluid source, wherein the geometry of the at least one supercharger and a plurality of pipes each determine mandatory periods of delay in fluid delivery for each of the many atomizers. 78. The system of claim 74, further comprising an injection assembly between the fluid source and the dry portion for controlled fluid communication between the fluid source and the atomizer network, the injection assembly being preferably configured to delay the release of fluid from the atomizers into the storage room for a mandatory delivery delay period liquids. 79. The system according to p, in which the injection unit includes a fire detector. 80. The system of claim 79, wherein the injection unit further comprises a diaphragm control valve coupled to the detector, the detector controlling the opening of the diaphragm control valve. 81. The system of claim 78, wherein the injection unit comprises a control panel, wherein the control panel is configured to delay the release of fluid from the fluid source to the plurality of nozzles for a predetermined period. 82. The system of claim p.p.74-81, wherein the network has a spray K-factor of about 11 or more and a working pressure of about 15 lbs / inch ² or more, wherein the network is placed above the product comprising at least one of : (1) Class I-III, Group A, Group B, or Group C, with a storage height greater than twenty-five feet; and (2) Class IV with storage heights greater than twenty-two feet. 83. The system of claim 82, wherein the plurality of nebulizers have a K-factor ranging from about 11 to about 36. 84. The system of claim 83, wherein the K-factor is about 17. 85. The system of claim 84, wherein the K-factor is about 16.8. 86. The system of claim 82, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 87. The system of claim 86, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 88. The system of claim 87, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 89. The system of claim 88, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 90. The system of claim 74, wherein the spray area is determined within about ten minutes after the activation of at least one hydraulically remote spray. 91. The system of claim 90, wherein the spray area is determined within about eight minutes after the activation of at least one hydraulically remote spray. 92. The system of claim 91, wherein the working area of the nebulizers is determined within about five minutes after activating at least one hydraulically remote nebulizer. 93. A dry ceiling fire protection system for shelving storage, the shelving storage having a product class of any of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet, containing a fluid source and a plurality of sprays connected by a network of pipes and placed under the ceiling and above the storage and connected to a fluid source; a mandatory period of delay in the delivery of fluid for each of the many nozzles in an exclusively dry ceiling system to combat fire configuration of the environment and flooding. 94. The system of claim 93, wherein the fire system is a proactive system. 95. The system according to any one of paragraphs 93-94, in which the mandatory period of delay in the delivery of liquid contains the maximum period of delay in the delivery of liquid and a minimum period of delay in the delivery of liquid, and each of the nozzles has a period of delay in the delivery of liquid between the maximum period of delay in fluid delivery and a minimum period of delay in fluid delivery. 96. The system of claim 95, wherein each of the plurality of nozzles has a K-factor of about 11 or more and a working pressure of about 15 lbs / inch ² or more. 97. The system of claim 96, wherein each of the plurality of nebulizers has a K-factor ranging from about 11 to about 36. 98. The system of claim 97, wherein the K-factor is about 17. 99. The system of claim 98, wherein the K-factor is approximately 16.8. 100. The system of claim pp.96-99, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 101. p.100 system in which the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 102. The system of claim 101, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 103. The system of claim 102, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 104. A ceiling dry spray system for a storage room, the storage room determining a ceiling height, a storage configuration and a predetermined storage height, comprising an injection unit including a control valve with an outlet and an inlet; a first pipe network and a second pipe network arranged around the blower, the first pipe network defining a volume containing gas in communication with the valve outlet, and further includes a plurality of nozzles having at least one hydraulically remote nozzle relative to the outlet of the control valve and further having at least one hydraulically close atomizer relative to the outlet of the control valve, wherein each of the atomizers is preferably normalized to heat for t pilaf actuation of unactivated state to an activated state for the release of gas, and the second network is a water pipe line in communication with the inlet control valve for providing a controlled delivery pipes in the first network; a first mandatory fluid delivery delay period defining a fluid delivery time from the control valve to the at least one hydraulically remote atomizer; and a second mandatory period of delay in the delivery of the liquid, determining the time of delivery of the liquid from the control valve to the at least one hydraulically close atomizer. 105. The system of claim 104, wherein the storage configuration is one of a rack storage, on pallets, in drawers, or shelf storage. 106. The system of claim 105, wherein the storage configuration is rack storage and the configuration is one of single row, double row and multi row storage. 107. The system of claim 104, wherein the gas is compressed air or nitrogen. 108. The system of claim 104, wherein the first pipe network comprises at least one of a loop configuration and a tree configuration. 109. The system of claim 104, wherein the plurality of nozzles further determine a projected area of operation of the nozzles having a predetermined spacing of the atomizer from the atomizer and a predetermined operating pressure. 110. The system of claim 104, wherein the plurality of nozzles further determine a projected hydraulic design area and design density, the design area including at least one hydraulically removed sprayer. 111. The system of claim 110, wherein the design area of the hydraulics is determined by a grid of about twenty-five nozzles spaced from the nozzle from about eight feet to about twelve feet. 112. The system of claim 110, wherein the hydraulics design area is a function of at least one ceiling height, storage configuration, storage height, product classification and / or clearance between the sprayer and the storage. 113. p.110 system, wherein the hydraulic design area is about 2000 square feet (2000 ft ^2). 114. The system of claim 110, wherein the hydraulics projected area is approximately 2,600 square feet (2,600 ft ² ). 115. The system of claim 104, wherein the design area of the system hydraulics is designed such that the maximum spray area is less than that of a dry spray system with a size thirty percent larger than the design area of the hydraulics of a NFPA-13 sized water system for protection the same storage configuration. 116. The system of claim 104, wherein the ceiling height is in the range of about thirty feet to about forty-five feet, and the storage height can be in the range of about twenty feet to about forty feet. 117. The system of Claim 116, wherein the ceiling height is approximately equal to or less than 40 feet, the storage height ranges from about twenty feet to about thirty-five feet. 118. The system of Claim 116, wherein the ceiling height is approximately equal to or less than thirty-five feet, the storage height ranges from about twenty feet to about thirty feet. 119. The system of claim 116, wherein the ceiling height is approximately equal to or less than thirty feet, the storage height ranges from about twenty feet to about twenty-five feet. 120. The system of claim 104, wherein the first and second mandatory delay periods in fluid delivery are functions of at least a ceiling height and a storage height, so that when the ceiling height is in the range of about thirty feet to about forty-five feet (30 feet to 45 feet), and storage heights range from about twenty feet to about forty feet (20 feet to 40 feet), the first mandatory delay period for fluid delivery is less than about thirty seconds, and the second mandatory delay period and the fluid delivery is in the range of about four to about ten seconds. 121. The system of claim 104, wherein the system is configured to be at least one of proactive with double interlock, proactive with single interlock and dry pipe system. 122. The system of claim 121, wherein the system is configured as a dual-block anticipatory system, the system further comprising one or more fire detectors spaced relative to a plurality of guns so that in the event of a fire, fire detectors are activated prior to activating any gun. 123. The system according to p. 121, in which the system is designed as a proactive system with a single interlock, the system further includes an unlocking control panel in communication with the control valve. 124. The system of claim 123, wherein the control valve is an electromagnetic control valve, an unlocking control panel is configured to receive signals to either reduce pressure or to detect fire to energize the electromagnetic valve to activate the control valve. 125. The system of Claim 123, further comprising a quick release device in communication with the unlocking control panel and capable of detecting a small degree of gas pressure attenuation in the first pipe network to signal the unlocking control panel of such a weakening. 126. The system of Claim 104, wherein the plurality of dispensers are placed over a product containing at least one of: (1) Class I-III, Group A, Group B, or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 127. The system of any one of claims 104-126, wherein the plurality of nebulizers have a K factor of at least about eleven. 128. p.127 system in which a plurality of nozzles has a K-factor of at least about eleven or more and a working pressure of about 15 lbs / inch ² or more. 129. The system of claim 128, wherein the plurality of nebulizers have a K-factor in the range of about eleven to about thirty-six. 130. The system of claim 129, wherein the plurality of nebulizers have a K factor of about seventeen. 131. The system of claim 130, wherein the plurality of nebulizers have a K factor of about 16.8. 132. The system of claim 128, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 133. p.132 system in which the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 134. p.133 system in which the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 135. p.134 system in which the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 136. The system of any one of Claim 104, wherein the plurality of nebulizers have a heat rating of about 286 ° F or more. 137. A sprayer for providing fire protection of a storage room, the storage room determining a ceiling height, a storage configuration and a predetermined storage height, comprising an inlet and an outlet with a passage between them defining a K-factor of eleven (11) or more; a closure assembly provided adjacent to the outlet and a heat-normalized trigger assembly is preferably provided to support the closure assembly near the outlet; a deflector located close to the outlet determining the working pressure; and A regulation requiring that the spray gun is prepared for use in an exclusively ceilinged fire system in which the stored goods are at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five ft; and (2) Class IV with a storage height of more than twenty-two feet. 138. The spray gun of claim 137, wherein the spray gun is listed, as defined in NFPA-13, Section 3.2.3 (2002), for use in an exclusively ceilinged fire application in a warehouse. 139. The nebulizer according to p, in which the K-factor is in the range from about 11 to about 36. 140. The atomizer according to p, in which the K-factor is approximately 17. 141. The atomizer according to p, in which the K-factor is approximately 16.8. 142. Sprayer according to any one pp.137-141, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 143. The atomizer of p.142, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 144. The atomizer of claim 143, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 145. The atomizer of p.144, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 146. A method of preparing a spray gun for use in an exclusively ceilinged fire application of a warehouse having a product that is at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet ; and (2) Class IV with a storage height of more than twenty-two feet, containing the steps in which providing a nebulizer, preferably having an inlet and an outlet with a passage between them to determine a K-factor of at least about 11 or more, a projected working pressure; heat-normalized trigger unit for atomizer activation; and a deflector spaced near the outlet; forming a spray grid with a spray gun provided; place the grate at the height of the ceiling above the stocked goods; ignite the product, heat activate at least one initial atomizer in the grill above the product; delaying fluid delivery after thermal activation of at least one initially activated nebulizer for such a period as to activate a plurality of subsequent nebulizers adjacent to at least one initial nebulizer; and the liquid is discharged from the initial and subsequently activated nebulizers at the desired pressure from the part of the atomizer lattice in order to overcome and attenuate the test fire, moreover, the discharge occurs at the projected working pressure. 147. The method according to p, in which the placement of the lattice comprises the stage of placing the lattice at a ceiling height of thirty feet (30 feet) above a double-row rack product made of Group A plastic, with a storage height of twenty feet (20 feet). 148. The method of claim 146, wherein placing the grate comprises placing the grate at a ceiling height of less than or equal to about forty-five feet (45 feet) above a two-row class III shelf product, wherein the storage height is less than or equal to forty feet (40 ft). 149. The method of claim 148, wherein the placement includes placing a grate over a Class III product, wherein the storage height is about thirty-five feet (35 feet). 150. The method of claim 148, wherein the placement includes placing a grate over a Class III product, wherein the storage height is about thirty feet (35 feet). 151. The method according to p, in which the placement includes the stage at which the lattice is placed, while the ceiling height is approximately forty feet (40 feet). 152. The method according to p. 150, in which the placement includes the stage at which the lattice is placed, while the ceiling height is approximately thirty-five feet (35 feet). 153. The method according to p, in which the placement includes the stage at which the lattice is placed, while the ceiling height is approximately forty feet (40 feet). 154. The method of claim 146, wherein placing the grate comprises placing a grate at a ceiling height of less than or equal to about forty feet (40 feet) above a two-row class II shelf product, wherein the storage height is less than or equal to thirty-four feet (34 feet). 155. The method of claim 146, wherein placing the grate comprises placing a grate at a ceiling height of less than or equal to about forty feet (40 feet) above a multi-row Class II shelving product, wherein the storage height is less than or equal to thirty-four feet (34 feet). 156. The method according to p, in which the placement of the lattice comprises the stage of placing the lattice over the goods containing at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height greater than than twenty five feet; and (2) Class IV with a storage height of more than twenty-two feet. 157. The method according to any one of paragraphs.146-156, in which the provision of a sprayer includes the step of determining the K-factor as being in the range between about 11 and about 36. 158. The method according to p, in which the provision of the atomizer includes the step of determining the K-factor as equal to about 17. 159. The method according to p. 158, in which the provision of the atomizer includes the stage of determining the K-factor as equal to approximately 16.8. 160. A method according to claim 146, wherein the atomizer providing includes the step of determining a projected operating pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 161. A method according to p.160, wherein providing the sprayer includes the step of determining a projected operating pressure in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 162. A method according to p.161, wherein providing the sprayer includes the step of determining a projected operating pressure in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 163. A method according to p.162, wherein providing the sprayer includes the step of determining a projected operating pressure in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 164. The method of claim 144, further comprising the step of listing the sprayer as defined in NFPA-13, Section 3.2.3 (2002). 165. The method of claim 146, further comprising checking that the spray grill is prepared. 166. The method of claim 165, wherein the verification comprises determining that a plurality of sprayers adjacent to adjacent sprayers are activated within ten minutes after at least one initial sprayer. 167. The method according to p, in which the determination includes the step of finding that a plurality of sprayers adjacent to adjacent sprayers are activated within eight minutes after at least one initial sprayer. 168. The method according to p, in which the determination includes the step of finding that a plurality of sprayers adjacent to adjacent sprayers are activated within five minutes after at least one initial sprayer. 169. A method for designing a ceiling fire system for a warehouse in which the system fights fire using the environment and flooding effect, comprising the steps of determining at least one hydraulically remote atomizer and at least one hydraulically close atomizer relative to the fluid source; determine the maximum period of delay in the delivery of fluid to at least one hydraulically remote spray to obtain the maximum working area of the spray to surround and flood the fire; and determine the minimum period of delay in the delivery of fluid to at least one hydraulically close atomizer to obtain a minimum working area of the atomizers for surrounding and flooding the fire. 170. The method according to p, in which the determination of at least one hydraulically distant and at least one hydraulically close atomizer further includes the stage of determining a piping system including an injection unit connected to a fluid source, a line, passing from the injection unit and the plurality of side pipes, and at least one hydraulically distant and at least one hydraulically close atomizer are disposed along the plurality of side pipes relative to the discharge about the node. 171. The method of claim 170, wherein determining the pipe system includes determining a pipe system as at least one of a loop and tree configuration. 172. The method according to p, in which the definition of the pipe system includes the stage of determining the design area of the hydraulics to maintain the effect of the environment and flooding. 173. The method according to p, in which the definition of the pipe system includes the stage on which provide several nozzles in the area of hydraulics and with the separation of the spray from the spray. 174. The method according to p, in which the definition of the pipe system includes determining the design area of the hydraulics as a function of at least one parameter characterizing the storage area, the parameters being the ceiling height, storage height, product classification, storage configuration and clearance height. 175. The method according to Claim 172, wherein the determination of the pipe system includes reading a look-up table of the design areas of the hydraulics and determining the design area of the hydraulics based on at least one of the storage parameters. 176. The method according to p. 172, in which the determination of the maximum period of delay in the delivery of liquid preferably includes a stage on which to simulate in numerical form a grid of 10 × 10 nozzles having at least one hydraulically remote atomizer and at least one hydraulically a close atomizer over the stored goods, while the simulation includes the step of simulating the free combustion of the stored goods and the activation sequence of the nebulizers in response to free burning. 177. The method according to p, in which the maximum period of delay in the delivery of liquid is defined as the time interval between activation of the first atomizer to approximately the activation of the sixteenth atomizer. 178. The method according to p, in which the minimum period of delay in the delivery of fluid is preferably defined as the period of time between activation of the first atomizer to approximately the activation of the fourth atomizer. 179. The method of claim 169, further comprising the step of designing the spray system iteratively so that a minimum delay period in fluid delivery occurs on the most hydraulically closest spray gun. 180. The method of claim 179, wherein the iterative design includes performing a computer simulation of the system, including setting a sequence of activations of the nebulizers from at least one hydraulically remote nebulizer. 181. The method of claim 180, wherein setting the sequence of activations of the nebulizers from the at least one hydraulically remote nebulizer includes setting the sequence to the four most hydraulically distant nebulizers. 182. The method according to p, in which the sequencing of the four most hydraulically distant nozzles includes the step of simulating the four most distant nozzles so that they have an activation sequence that determines the activation of the first hydraulically distant sprayer, the activation of the second hydraulically distant sprayer, activation the third hydraulically remote atomizer, and the activation of the fourth hydraulically remote atomizer, with activation from the second to fourth hydraulic Close sprayers come within ten seconds of activating the first hydraulically distant sprayer. 183. The method according to p, in which the computer simulation includes the step of determining the maximum mandatory delay in the delivery of fluid so that no fluid is discharged at the desired operating pressure from the first hydraulically distant atomizer at the moment when the first hydraulically activated remote atomizer so that no liquid is discharged at the desired operating pressure from the second hydraulically remote atomizer at the moment when the second hydraulically remote atomizer so that no liquid is discharged at the desired operating pressure from the third hydraulically distant atomizer at the moment when the third hydraulically distant atomizer is activated and that no liquid is discharged at the desired operating pressure from the fourth hydraulically distant atomizer at the moment when the fourth hydraulically distant atomizer is activated . 184. The method according to p, in which the sequence is such that none of these four hydraulically distant nozzles is not under the desired operating pressure until or at the time of activation of the fourth most hydraulically distant nozzle. 185. The method according to p, in which the computer simulation includes the step of setting the sequence of activations of the nebulizers from at least one hydraulically close nebulizer. 186. The method according to p, in which setting the sequence of activations of the nebulizers from at least one hydraulically close nebulizer includes the step of setting the sequence of the four most hydraulically distant nebulizers. 187. The method according to p, in which the sequencing of the four most hydraulically close nebulizers includes the stage of determining the activation of the first hydraulically close atomizer, the activation of the second hydraulically close atomizer, the activation of the third hydraulically close atomizer and the activation of the fourth hydraulically close atomizer, activations of the second to fourth hydraulically close sprays occur within ten seconds of activations of the first hydraulically close sprays la. 188. The method according to p, in which the computer simulation includes the step of determining the minimum mandatory delay in the delivery of fluid so that no fluid is discharged at the desired operating pressure from the first hydraulically close atomizer at the moment when the first hydraulically remote atomizer so that no liquid is discharged at the desired operating pressure from the second hydraulically close atomizer at the moment when the second hydraulically close atomizer is activated That no liquid is released at the desired operating pressure of a third hydraulically close the nebulizer when the activated third hydraulically close sprayer, and that no liquid is released at the desired working pressure of the fourth hydraulically close the nebulizer when the activated fourth hydraulically close the nebulizer. 189. The method according to p, in which the computer simulation includes the step of determining the mandatory delay in the delivery of fluid, so that none of the four hydraulically close sprays are not under the desired operating pressure until or at the time of activation of the fourth most hydraulically close sprayer. 190. The method according to p, in which the computer simulation includes the step of calculating the transit time of the fluid from the fluid source to the activated atomizer. 191. The method according to any one of paragraphs.169-190, in which the determination of at least one hydraulically distant and at least one hydraulically close nebulizers includes the step of specifying a K-factor of 11 or more, and an operating pressure of 15 lbs / inch ² or more. 192. The method according to p, in which the specification of the K-factor includes the specification of the K-factor in the range from about 11 to about 36. 193. The method according to p, in which the specification of the K-factor includes the specification of the K-factor of approximately 17. 194. The method according to p, in which the specification of the K-factor includes the specification of the K-factor of approximately 16.8. 195. A method according to p.191, wherein K-factor specification includes specification limits the operating pressure of from about 15 lb / ⁱⁿ² to about 60 lb / ^in2. 196. The method according to p. 195, in which the specification of the working pressure includes the specification of the limits from about 15 pounds / inch ² to about 45 pounds / inch ² . 197. The method according to p, in which the specification of the working pressure includes the specification of the limits from about 20 pounds / inch ² to about 35 pounds / inch ² . 198. The method according to p, in which the specification of the working pressure includes the specification of the limits from about 22 pounds / inch ² to about 30 pounds / inch ² . 199. The method according to p, in which the determination of at least one of the maximum and minimum delay periods in the delivery of fluid includes the step of determining the delay period so that the corresponding maximum and minimum working area of the nozzles is formed ten minutes from the corresponding atomizer activation from at least a hydraulically distant and hydraulically close atomizer. 200. The method according to p, in which the determination of the delay period is such that the corresponding maximum and minimum working area of the nozzles is formed in about eight minutes from the corresponding activation of the spray from at least hydraulically remote and hydraulically close spray. 201. The method according to claim 200, wherein the determination of the delay period is such that the corresponding maximum and minimum working area of the nozzles is formed in about five minutes from the corresponding activations of the atomizer from at least a hydraulically distant and hydraulically close atomizer. 202. The method according to p, in which the determination of at least one hydraulically distant and hydraulically close atomizer includes the stage of placing the atomizer on at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 203. A system for designing a ceiling dry spray fire system for a warehouse, comprising a database that includes a first data array characterizing a warehouse, a second data array characterizing a sprayer, a third data array defining a hydraulic design area as a function of the first and second data arrays, and a fourth data array defining a maximum delivery delay period fluid and the minimum period of delay in fluid delivery, each of which is a function of the first, second and third data arrays .. 204. The system of claim 203, wherein the database contains a data table. 205. The system of claim 203, wherein the database contains a lookup table. 206. The system of claim 205, wherein the lookup table is configured such that any of the first, second, and third data arrays defines a fourth data array. 207. The system of p.203, wherein the second data array defines at least one of the K-factor of about 11 or greater and operating pressures of about 15 lb / ^in2. 208. The system of claim 207, wherein the second data array determines the K-factor as being in the range of about 11 to about 36. 209. The system of claim 208, wherein the second data array determines the K-factor as equal to about 17. 210. The system of claim 208, wherein the second data array determines the K-factor as equal to approximately 16.8. 211. The system of p.208, wherein the second data set defines operational pressure as being in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 212. The system of p.211, wherein the second data set defines operational pressure as being in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 213. The system of p.212, wherein the second data set defines operational pressure as being in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 214. A system according to p.213, wherein the second data set defines operational pressure as being in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 215. The system according to any one of claims 203-214, wherein the first data array characterizes the storage area as being at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height greater than twenty five feet; and (2) Class IV with a storage height of more than twenty-two feet. 216. A system for designing a ceiling dry spray fire system for a warehouse, comprising a database that includes the only specified maximum period of delay in the delivery of liquids to be embedded in an exclusively ceiling dry spray system for combating fire in a warehouse with a working area of sprayers having the configuration of the environment and flooding around the fire for a given ceiling height, storage height and (or) classification of goods. 217. The system of Claim 216, wherein the database contains a prospectus. 218. The system of Claim 216, wherein the database includes a first data array identifying a fire atomizer and a second data array identifying a product. 219. The system of Claim 218, wherein the first data array includes a K-factor data element, a temperature normalization data element, an operating pressure data element, a hydraulic design area data element, and an RTI indicator data element. 220. The system of claim 219, wherein the K-factor data element is at least about 11. 221. The system of claim 220, wherein the K-factor data element is in the range of about 11 to about 25. 222. The system according to any one of paragraphs.219-221, in which the data element of the K-factor is approximately 17. 223. The system of claim 222, wherein the K-factor data element is 16.8. 224. The system of Claim 218, wherein the second data array includes at least a classification data element, a storage height data element, and a ceiling height element. 225. The system of claim 224, wherein the classification is at least one of Class I-IV and Group A, B, and C. goods. 226. The system of claim 224, wherein the storage height data element is in the range of about 20 feet to about 40 feet, and the ceiling height element is in the range of about 30 feet to about 45 feet as a function of the storage height data element. 227. Dry-tube fire fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one product in accordance with the product classes according to NFPA-13 (2002): Class I, Class II, Class III and Class IV, and plastics of Group A, Group B and Group C, wherein at least one rack is located between the area to be protected and the plurality of nozzles; and a network of pipes that supply water to a plurality of nozzles, the pipe network being designed to deliver water to a project area that contains the most hydraulically distant atomizer of the plurality of nozzles, the pipe network being filled with gas until at least one of the nozzles is activated, and the design area is selected from the design areas provided for in NFPA-13 (2002) for water spray systems. 228. Dry-tube fire fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one product in accordance with the product classes according to NFPA-13 (2002): Class I, Class II, Class III and Class IV, and plastics of Group A, Group B and Group C, wherein at least one rack is located between the area to be protected and the plurality of nozzles; and a pipe network that delivers water to the plurality of nozzles, the pipe network being designed to deliver water to the project area, which contains the most hydraulically distant sprayer of the plurality of sprayers, the pipe network being filled with gas until at least one of the plurality of sprayers is not activated, and the design area is less than the design area provided for in NFPA-13 (2002) for water spray systems. 229. Dry-tube fire-fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one product in accordance with the product classes according to NFPA-13 (2002): Class I, Class II, Class III and Class IV, and plastics of Group A, Group B and Group C, wherein at least one rack is located between the area to be protected and the plurality of nozzles; and a network of pipes that supply water to a plurality of nozzles, the pipe network being designed to deliver water to a project area that contains the most hydraulically distant atomizer of the plurality of nozzles, the pipe network being filled with gas until at least one of the nozzles activated, and the project area is determined without penalty compared to water spray systems to protect the selected product. 230. Dry-tube fire fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one of the rubber tires assembled in a stack of pallets, packed in bales of cotton and rolled up in accordance with NFPA-13, with at least one rack between the area to be protected and the many sprays; and a network of pipes that supply water to a plurality of nozzles, the pipe network being designed to deliver water to a project area that contains the most hydraulically distant atomizer of the plurality of nozzles, the pipe network being filled with gas until at least one of the nozzles activated, the design area selected from the design areas provided for in NFPA-13 (2002) for water spray systems. 231. Dry-tube fire fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one of: rubber tires assembled in a stack of pallets, packed in bales of cotton and folded into rolls of paper in accordance with NFPA-13, with at least one rack located between the area to be protected and the many sprays; and a pipe network that delivers water to the plurality of nozzles, the pipe network being designed to deliver water to the project area, which contains the most hydraulically distant sprayer of the plurality of sprayers, the pipe network being filled with gas until at least one of the plurality of sprayers is not activated, and the design area is less than the design area provided for in NFPA-13 (2002) for water spray systems. 232. Dry-tube fire fighting system for storage, containing many spray guns located above the protected area and under the ceiling; at least one storage rack located on the protected area and containing at least one of the rubber tires assembled in a stack of pallets, packed in bales of cotton and rolled up in accordance with NFPA-13, with at least one rack between the area to be protected and the many sprays; and a network of pipes that supply water to a plurality of nozzles, the pipe network being designed to deliver water to a project area that contains the most hydraulically distant atomizer of the plurality of nozzles, the pipe network being filled with gas until at least one of the nozzles activated, and the project area is determined without penalty compared to water spray systems to protect the selected product. 233. The system according to any one of paragraphs.227-232, in which the project area is 2000 square feet. 234. The system according to any one of paragraphs.227-232, in which many sprays have a K-factor in the range from about 11 to about 36. 235. The system of claim 234, wherein the K-factor is about 17. 236. The system of claim 235, wherein the K-factor is about 16.8. 237. The system of claim pp.227-232, in which a plurality of nozzles have an operating pressure ranging from about 15 lb / ⁱⁿ² to about 60 lb / ^in2. 238. A system according to p.237, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 239. The p.238 system in which the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 240. The p.239 system in which the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 241. The system according to any one of paragraphs.227-232, in which the product contains Group A plastics in a two-row rack. 242. The system according to any one of paragraphs 227-232, in which the product contains at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet. 243. A method of installing a fire protection system for a product rack, comprising the steps of: exclusively design a dry ceiling pipe system to protect the rack in a confined space with a ceiling 30 feet high, while the design includes the following steps: specify nozzles with a K factor of about 16.8 to form a network array of nozzles; modifying the model so that it is at least hydraulically equivalent to the water system as defined in NFPA-13 to protect the rack; and install the dry pipe system in accordance with the design. 244. The method according to p. 243, in which the modification of the model is such that the model determines the density of release of 0.8 gallons per minute / ft ² per 2000 square feet in accordance with NFPA-13 (2002) to protect the water system of a double-row shelving with goods from Group A plastic stacked 25 feet high under a 30 foot high ceiling. 245. The method according to p. 244, in which the design includes the step of specifying the design area of hydraulics for a system equal to or less than the design area of hydraulics for a water system that protects the same stored goods. 246. The method according to any one of paragraphs.244-245, in which the specification of the nebulizers includes the specification of the K-factor as being in the range from about 11 to about 36. 247. The method according to item 246, in which the specification includes the specification of the K-factor of approximately 17. 248. The method according to p. 247, in which the specification includes the specification of the K-factor of approximately 16.8. 249. A method according to p.243, wherein the specification of nozzles includes nozzles specification working pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 250. The method according to p. 249, in which the specification of the operating pressure of the nebulizers includes a specification in the range from about 15 pounds / inch ² to about 45 pounds / inch ² . 251. The method according to item 250, in which the specification of the operating pressure of the nozzles includes a specification in the range from about 20 pounds / inch ² to about 35 pounds / inch ² . 252. The method according to p. 251, in which the specification of the operating pressure of the nebulizers includes a specification in the range from about 22 pounds / inch ² to about 30 pounds / inch ² . 253. A method of providing a ceiling fire system for a warehouse, comprising the steps of: receive a component certified for use in an exclusively ceilinged fire fighting system for a warehouse having at least one of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet; and distribute to the user a spray gun for use in fire fighting applications in a warehouse. 254. The method according to claim 253, wherein obtaining the component includes the step of certifying at least one of a system, subsystem, atomizer, or design method for use in the system. 255. The method of claim 253, wherein the distribution includes distributing from the first side to the second side for use in fire fighting applications. 256. A set for a dry ceiling spray system for protecting against fire in a warehouse, comprising at least one spray gun certified for use in an exclusively ceiling spray system for a warehouse having a ceiling height ranging from about thirty feet to about forty-five feet, and a product having storage heights ranging from about twenty feet to about forty feet as function of ceiling height; an injection unit for controlling fluid delivery to the at least one atomizer; and a prospectus for designing a fire-fighting system with the environment and flooding configuration, and the prospectus defines the design area of hydraulics, the maximum period of delay in the delivery of liquid for the most hydraulically distant atomizer and the minimum period of delay in the delivery of liquid for the most hydraulically closest atomizer. 257. The kit of claim 256, wherein the at least one atomizer comprises a vertical atomizer with a K factor of about seventeen and a temperature rating of about 286 ° F. 258. The kit according to claim 256, wherein the at least one atomizer is certified to protect an item that is at least one of Class I, II, III, IV and plastic of Group A. 259. The kit according to p, in which the injection unit includes a control valve having an inlet and an outlet, and a pressure switch for communication with the control valve. 260. The kit according to claim 259, further comprising a control panel for controlling communication between the pressure switch and the control valve. 261. The kit of claim 259, further comprising at least one shutoff valve for connecting to at least one of an inlet and an outlet of a control valve, and a check valve and a check valve for connecting to an outlet of the control valve. 262. The kit of claim 259, wherein the control valve includes an intermediate chamber to eliminate the need for a check valve in the discharge assembly. 263. The kit of claim 259, further comprising a software application designed to simulate the system to check the maximum delay period in delivering fluid to the most hydraulically distant atomizer and the minimum delay period in delivering fluid to the most hydraulically closest atomizer. 264. The kit of claim 256, wherein the nebulizer has a K-factor ranging from about 11 to about 36. 265. The kit of claim 264, wherein the K-factor is about 17. 266. The kit of claim 265, wherein the K factor is about 16.8. 267. A kit according to p.256, wherein the dispenser has an operating pressure ranging from about 15 lb / ⁱⁿ² to about 60 lb / ^in2. 268. A kit according to p.267, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 269. A kit according to p.268, wherein the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 270. A kit according to p.269, wherein the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 271. A method of providing ceiling fire protection for a warehouse, comprising the step of: they distribute installation criteria from the first side to the second side for installing the sprayer in an exclusively ceilinged fire-fighting system for a warehouse, which includes the steps of at least one of the product classification and storage configuration being specified, the minimum clearance height between the storage height and the deflector being specified spray gun, specify the maximum coverage area and the minimum coverage area per sprayer in the system, specify the requirements about the separation of the spray from the spray in the system, specify the design area of the hydraulics and the design working pressure, and specify the projected period of delay in the delivery of fluid. 272. The method according to clause 271, in which the specification of the projected period of delay in the delivery of liquid includes the step of specifying the maximum period of delay in the delivery of liquid and the minimum period of delay in the delivery of liquid. 273. The method according to clause 271, in which the specification of the maximum period of delay in the delivery of liquid and the minimum period of delay in the delivery of liquid includes the step of specifying that the maximum period of delay in the delivery of liquid occurs in the most hydraulically distant atomizer, and specify so that a minimum delay period in fluid delivery occurs in the most hydraulically closest atomizer. 274. The method according to clause 271, in which the specification of the projected period of delay in the delivery of liquid includes the step of specifying the period of delay as a function of at least one of: ceiling height, product classification, storage configuration, storage height and clearance height . 275. The method according to any one of p. 271-274, in which the specification of the projected period of delay in the delivery of liquid includes the step of providing a table of data of the time delay in the delivery of liquid, and these times are a function of at least one of : ceiling height, product classification, storage configuration, storage height and clearance. 276. The method according to clause 271, wherein the distribution of the installation criteria further includes specifying system components for use with a sprayer to include instantiating at least one of the injection unit for controlling fluid flow to the spraying system and specifying a control mechanism to implement the designed delay in fluid delivery. 277. The method according to clause 276, in which the specification of the system components further includes the step of specifying proactive installation criteria. 278. The method according to clause 277, wherein the specification of the proactive installation criteria further includes a step on which the fire detection device is specified for communication with the control mechanism. 279. The method of claim 271, wherein the distribution of the installation comprises providing prospectus. 280. The method of claim 279, wherein providing the prospectus includes publishing the prospectus on at least one of paper and electronic media. 281. The method according to clause 271, further comprising the step of obtaining a spray gun for use in an exclusively ceiling spray system for a warehouse, the production process comprising the steps of: providing an atomizer body having an inlet and an outlet with a passage between them to determine a K-factor of eleven or more, and a triggering unit having a heat normalization of about 286 ° F; and prepare and list the sprayer by an organization authorized by the institution with jurisdiction in the warehouse. 282. The method according to p. 281, in which the preparation of the sprayer includes a step on which to conduct a fire test on the sprayer, which includes stages in which define test acceptability criteria defining fluid requests as a function of the designed activation of the nebulizers to effectively overcome and attenuate the fire by the configuration of the environment and flooding; placing a plurality of sprayers in the ceiling of the sprayers at a spacing of the sprayer from the sprayer at a ceiling height, the grating being located above the stored product having the product classification, storage configuration and storage height; produce fire in the product; and delay the release of fluid from the atomizer to activate a plurality of atomizers that meet test criteria. 283. The method according to p, in which the definition of test eligibility criteria includes the step of concretizing that the projected activations of the nebulizers comprise less than forty percent of all nebulizers in the array. 284. The method according to p, in which the specification of the designed activations of the nebulizers includes the step of concretizing that the designed activations of the nebulizers comprise less than thirty-five percent of all the nebulizers in the array. 285. The method according to p, in which the specification of the designed activations of the nozzles includes the step of concretizing that the designed activations of the nozzles comprise less than twenty percent of all the nozzles in the array. 286. The method according to p. 287. The method according to p. 286, in which the delay in the release of liquid further includes the stage of finding the period of delay of the liquid from the numerical model of the goods and the warehouse, and the model finds the activation times of the nebulizers for free combustion, so that the delay in the delivery of liquid is the time interval between activation of the first nebulizer and at least one of: (1) a critical number of nebulizer activations; and (2) the number of atomizers equivalent to a working area capable of encircling and flooding a fire. 288. The method of claim 271, wherein the distribution from the first side to the second side includes transmitting a system component to at least a retailer, supplier, spray system installer, or warehouse operator. 289. The method of claim 288, wherein the transmission occurs through at least land distribution, air distribution, water distribution, and online distribution. 290. The method of claim 271, further comprising a software application for simulating a system and verifying fluid delivery to at least one activated nebulizer after a projected delay period in fluid delivery. 291. A system for delivering a fire installation, comprising a first computer processing device in communication with at least a second computer processing device over the network, and a database stored on the first computer processing device, and the database preferably includes a plurality of data arrays containing a first data array defining a spray gun for use in exclusively ceiling-mounted fire fighting systems for a warehouse, wherein the first data array specifies the K-factor, temperature normalization and design area of hydraulics; a second data array defining the stored goods, the second data array including the classification of the goods, storage configuration and storage height; a third data array defining a maximum period of delay in delivering fluid to the most hydraulically distant atomizer in an exclusively ceiling system, the third data array being a function of the first and second data arrays; and a fourth data array defining a minimum period of delay in delivering fluid to the most hydraulically closest atomizer, the fourth data array being a function of the first and second data arrays. 292. The system of claim 291, wherein the database is designed as an electronic prospectus, which is at least one of a .html, .pdf or editable text file. 293. The system of claim 292, wherein the database includes a fifth data array defining an injection unit for use with a sprayer from the first data array. 294. The system of claim 291, wherein the database includes a sixth data array defining a piping system for connecting a control valve of the fifth data array to a nebulizer of the first data array. 295. The system of claim 291, wherein the network comprises at least one of a WAN (territorial network), LAN (local area network), and the Internet. 296. The system according to any one of paragraphs.291-295, in which the first data array specifies the K-factor in the range from about 11 to about 36. 297. The system of claim 266, wherein the K-factor is about 17. 298. The system of claim 277, wherein the K-factor is about 16.8 299. The system of p.291, wherein the first data array specifies the operating pressure atomizers ranges from about 15 lb / ⁱⁿ² to about 60 lb / ^in2. 300. at p.299 system in which the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 301. at p.300 system in which the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 302. at p.301 system in which the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 303. A dry ceiling fire protection system for a shelving warehouse having a product class of any of: (1) Class I-III, Group A, Group B or Group C, with a storage height of more than twenty-five feet; and (2) Class IV with a storage height of more than twenty-two feet, containing pipe network; and a plurality of sprayers located above the rack storage, the plurality of sprayers having a K-factor of greater than about 11 and a heat rating of 286 ° F or more. 304. The system of claim 303, wherein the K factor is in the range of about 11 to about 36. 305. The system of claim 304, wherein the K-factor is about 17. 306. The system of claim 305, wherein the K-factor is about 16.8 307. A system according to p.303, wherein the first data array specifies the operating pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 308. A system according to p.307, wherein the operating pressure is in the range of approximately 15 lb / ⁱⁿ² to about 45 lb / ^in2. 309. at p.308 system in which the operating pressure is in the range of approximately 20 lb / ⁱⁿ² to about 35 lb / ^in2. 310. at p.309 system in which the operating pressure is in the range of approximately 22 lb / ⁱⁿ² to about 30 lb / ^in2. 311. A method for designing a ceiling dry spray fire system for a warehouse, comprising the steps of: specify the database of design criteria, which includes the specification of the only maximum period of delay in the delivery of liquid for a given ceiling height, storage height and (or) classification of goods; integrate a single maximum delay period in the delivery of liquids to an exclusively ceiling dry spray system for combating fire in a warehouse with a working area of nozzles having the configuration of the environment and flooding around the fire. 312. The method according to § 311, wherein the instantiation comprises the step of providing a database as a prospectus. 313. The method according to § 311, wherein the instantiation includes the step of specifying a first data array defining a sprayer and a second data array defining a product. 314. The method according to p. 313, wherein the instantiation of the first data array includes the step of concretizing at least one of the K-factor data element, temperature normalization data element, operating pressure data element, hydraulic design area data element, and element RTI indicator data. 315. The method according to p. 314, in which the specification of the K-factor includes the step of concretizing the data element as at least about 11. 316. The method according to p. 315, wherein the specification of the K-factor includes the step of specifying the data item as being in the range from about 11 to about 25. 317. The method according to clause 316, wherein the specification of the K-factor includes the step of specifying the data element as constituting approximately 17. 318. The method according to clause 317, wherein the specification of the K-factor includes the step of specifying the data element as approximately 16.8. 319. The method according to § 311, wherein the instantiation of the second data array includes the step of concretizing at least one of the classification data element, the storage height data element, and the ceiling height element. 320. The method according to p. 319, in which the specification of the classification data element includes the step of specifying the data element as at least one of the goods of Class I-IV and Groups A, B and C. 321. The method of claim 320, wherein the instantiation of the storage height data element includes the step of specifying the data element as being in the range of from about 20 feet to about 40 feet, and further specifying the ceiling height data element as being in the range of approximately 30 feet to approximately 45 feet as a function of the storage height data element. 322. A method according to p.321, wherein the instantiation of the first data array includes the step which specifies the working pressure in the range of approximately 15 lb / ⁱⁿ² to about 60 lb / ^in2. 323. The method according to p. 322, in which the specification of the working pressure includes the step of concretizing the limits from about 15 pounds / inch ² to about 45 pounds / inch ² . 324. The method according to p. 233, in which the specification of the working pressure includes the step of specifying the limits from about 20 pounds / inch ² to about 35 pounds / inch ² . 325. The method according to p. 344, in which the specification of the working pressure includes the step of concretizing the limits from about 22 pounds / inch ² to about 30 pounds / inch ² .