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Autopilot 02 11 spanish sales presentation
- 1. 02/25/2011
- 2. 02/25/2011
- 3. 02/25/2011 www.autopilot.com 2
- 4. 02/25/2011 www.autopilot.com 2
- 5. 02/25/2011 www.autopilot.com 3
- 6. POR QUE UN GENERADOR DE CLORO A PARTIR DE SAL? La Sal es un elemento natural que se encuentra en la tierra y nuestro cuerpo Se utiliza para sazonar y preservar nuestros alimentos, y para suavizar el agua que bebemos La Sal es un artículo muy económico Es la forma más fácil y segura de generar su propio cloro a un nivel constante 02/25/2011 www.autopilot.com 3
- 7. 02/25/2011 www.autopilot.com 4
- 8. POR QUE UN GENERADOR DE CLORO A PARTIR DE SAL? Con la generación de cloro se destruyen las Cloramidas – las cuales son la que generan el olor fuerte del cloro, los ojos rojos y la mayoria de las reacciones negativas de la que se culpa al cloro. Ayuda a contrarrestar la mayor objeción del consumidor final – MANTENIMIENTO DE LA ALBERCA 02/25/2011 www.autopilot.com 4
- 9. 02/25/2011 www.autopilot.com 5
- 10. POR QUE UN GENERADOR DE CLORO AUTOPILOT? Desde 1976 Autopilot Systems es el líder en el proceso de generación de cloro para piscinas Hay más de 500,000 propietarios de AutoPilot satisfechos a nivel mundial AutoPilot tiene la unidad precisa para cada necesidad y presupuesto El mejor servicio de respuesta al cliente Servicio de garantía directo de fábrica 02/25/2011 www.autopilot.com 5
- 11. 02/25/2011 www.autopilot.com 6
- 12. POR QUE UN GENERADOR DE CLORO AUTOPILOT? Diseño modular Compensación de Temperatura (Patentado) Celdas Auto-limpiantes -- programables Ciclos de Super-Clorinación (Shock) 02/25/2011 www.autopilot.com 6
- 13. 02/25/2011 www.autopilot.com 7
- 14. PROCESO DE CLORINACION - SAL Sal Sal Sal agregada a la Alberca Fuente (2500 – 3500 ppm) de Poder Celda y Bomba Tri-sensor Filtro 100% Cloro 02/25/2011 Puro www.autopilot.com 7
- 15. 02/25/2011 www.autopilot.com 8
- 16. PROCESO DE CLORINACION - SAL A medida que el agua fluye a través del sistema, se aplica una corriente de bajo voltaje (Corriente Directa) a las placas de la celda Cuando el proceso de desinfección se completa, el Cloro se combina con ácido y regresa al estado de Sal NaCl + H2O + electricidad --> NaOCl + H2 Sal + Agua + electricidad --> Cloro + Hydrogen gas 02/25/2011 www.autopilot.com 8
- 17. 02/25/2011 www.autopilot.com 9
- 18. MITOS LA SAL ES CORROSIVA ✓ Una concentración de cloro de 4 ppm es 10 veces más corrosiva que 4000 ppm de concentración de sal LA SAL ES DESINFECTANTE ALTERNATIVO ✓ Los generadores de cloro a partir de sal, crean cloro por si mismos. La sal como tal NO es un desinfectante LA SAL NO ES COMPATIBLE CON OTRAS FORMAS DE CLORO O QUIMICOS ✓ Debido a que el componente de la sal “Cl” es utilizado para hacer cloro; la sal es compatible con cualquier otra forma de cloro (y químicos para balancear también). 02/25/2011 www.autopilot.com 9
- 19. 02/25/2011 www.autopilot.com 10
- 20. BENEFICIOS DE UN GENERADOR DE CLORO AUTOPILOT Bajo Mantenimiento – Incrementa el disfrutar más su alberca Agua más suave – Mejor para su piel y su cabello No más ojos rojos No olores a cloro – No sabor a Sal No hay desarrollo de algas No hay necesidad de choque a la alberca con químicos fuertes No hay sub-productos cáusticos Económico de operar – Menor consumo de energía que una bombilla de 200W Menos costoso que los métodos tradicionales de clorinación Su pH es casi neutro – Previene cambios radicales en el balance químico del agua Limpieza de Celda automática 02/25/2011 www.autopilot.com 10
- 21. 02/25/2011 www.autopilot.com 11
- 22. NIVELES DE SAL - G/L (ppm) ión ros Agua Pool Pilot 2.5 - 3.2 (2,500-3,200) Cor Nivel de sabor a Sal 3,5 (3,500) Lágrimas Humanas 4 (4,000) Medio Salino Lentes de Contacto 6 (6,000) Agua de Mar 35 (35,000) 02/25/2011 www.autopilot.com 11
- 23. 02/25/2011 www.autopilot.com 12
- 24. POLARIDAD DE LA CELDA ✓ Burbujas se forman en la superficie alta en pH, y se tienden a formar depósitos ✓ La superficie del lado opuesto es baja en pH y disuelve los depósitos + - 02/25/2011 www.autopilot.com 12
- 25. 02/25/2011 www.autopilot.com 13
- 26. POLARIDAD DE LA CELDA Luego de Invertir la Polaridad ✓ Burbujas se forman en la superficie alta en pH ✓ La superficie del lado opuesto es baja en pH y disuelve los depósitos - + 02/25/2011 www.autopilot.com 13
- 27. 02/25/2011 www.autopilot.com 14
- 28. Comparativo de Químicos Método de Desinfección Efecto Directo en la Alberca Nombre Quimico pH Frecuencia de pH Alc. Total TDS Acido Común Actual Chequeo Cianurico Gen. de Hip. Clorito de 8.0 2x/Mes = = = Sal Sodio 100% Puro Cloro Liquido 10% de 13.0 2x/Semana = presencia Hipoclorito de Sodio Tabletas todo Trichloro-s- 3.0 1x/Semana tamaño Cloro Granular Hipoclorito de 11.8 2x/Semana = (HTH) Calcio Cloro Granular Dicloro de 6.0 1x/Semana = Estabilizado Sodio Bromo Complejo de 4.6 1x/Semana n/a Cloro/Bromo 02/25/2011 www.autopilot.com 14
- 29. 02/25/2011 www.autopilot.com 15
- 30. MODELOS POOL PILOT RESIDENCIAL P.P. Digital P.P. Soft Touch P.P. Digital Nano 02/25/2011 www.autopilot.com 15
- 31. 02/25/2011 www.autopilot.com 16
- 32. MODELOS POOL PILOT RESIDENCIAL P.P. Total Control P.P. Copilot / DIG-220 P.P. Copilot /Nano Digital 02/25/2011 www.autopilot.com 16
- 33. 02/25/2011 www.autopilot.com 17
- 34. POOL PILOT PROFESSIONAL - COMERCIAL - 02/25/2011 www.autopilot.com 17
- 35. 02/25/2011 www.autopilot.com 18
- 36. COMPONENTES PRINCIPALES POOL PILOT Fuente de Poder Provee energía a la Celda Monitorea las condiciones de operación Permite el control de todo el sistema 02/25/2011 www.autopilot.com 18
- 37. 02/25/2011 www.autopilot.com 19
- 38. POOL PILOT - COMPONENTES Celda – En tres tamaños (RC35, RC42, RC52, CC15) Cuerpo en PVC que recubre láminas en Titanio Diseño Bi-Polar permite invertir la polaridad, para limpieza automática de la celda 02/25/2011 www.autopilot.com 19
- 39. 02/25/2011
- 40. CELDA TAPADA ✴ Apague la bomba y remueva la celda ✴ Limpie la celda de todas sus impurezas ✴ NO utilice ninguna herramienta ✴ Lavar con solución: Acido Muriatico: Agua 1:4 por 15 Min - Agua Corriente ✴ Inspeccione regularmente la celda Escamas Blancas en el Agua Alto pH Alta Alcalinidad T Alta Dureza Calcio SI > +0.3 02/25/2011
- 41. 02/25/2011 www.autopilot.com 21
- 42. POOL PILOT - COMPONENTES Múltiple de Agua - Patentado Protegido por U.S. Patente #5.993.669 02/25/2011 www.autopilot.com 21
- 43. Múltiple de Flujo de Agua Sensor Triple Celda Elejida Filtro de Malla Flujo de Agua 02/25/2011 www.autopilot.com 22
- 44. 02/25/2011
- 45. TRI-SENSOR Direccion Sensor de de Temperatura Flujo Tablilla de Alineamiento Sensor de Flujo Sensor de Sal 02/25/2011
- 46. 02/25/2011
- 47. Localización del Múltiple ✓ Siempre instalar de después de todos los demás equipos en la línea de retorno. ✓ Siempre a una distancia que tenga el suficiente alcance de los cables ✓ Tenga en cuenta la dirección del flujo de agua Dirección del flujo 02/25/2011
- 48. 02/25/2011 www.autopilot.com 25
- 49. Pool Pilot Digital 25% más producción que la competencia (hasta 2 lbs. por día de Cloro puro) Fuente de Poder patentada / 3 tipos de celda Para albercas hasta de 196 mt3 (51.800 gal.) Compensación de temperatura - Patentado Incluye múltiple de agua - Patentado Pantalla brillante y fluorescente Ciclos de super producción (24 & 72 horas) Compatible con Controladores Jandy/Compool Protección interna anti-congelante Enseña en pantalla requerimientos de sal (Kg) Inversión suave (limpieza de celda ajustable) Opera en temperaturas de agua hasta 40 °C Temporizador interno para manejo de bomba Disponible en sistema métrico 02/25/2011 www.autopilot.com 25
- 50. 02/25/2011 www.autopilot.com 26
- 51. Pool Pilot Digital Nano 25% más producción que la competencia (hasta 2 lbs. por día de Cloro puro) Fuente de Poder patentada / 1 tipo de celda Para albercas hasta de 76 mt3 (20.000 gal.) Compensación de temperatura - Patentado Precisa lectura de concentración de Sal Incluye múltiple de agua - Patentado Pantalla brillante y fluorescente Ciclos de super producción (24 & 72 horas) Inversión suave (limpieza de celda ajustable) Opera en temperaturas de agua hasta 40°C 02/25/2011 www.autopilot.com 26
- 52. 02/25/2011 www.autopilot.com 27
- 53. Pool Pilot Total Control 25% más producción que la competencia (hasta 2 lbs. por día de Cloro puro) Fuente de Poder patentada / 3 tipos de celda Para albercas hasta de 196 mt3 (51.800 gal.) Compensación de temperatura - Patentado Incluye múltiple de agua - Patentado Pantalla brillante y fluorescente Ciclos de súper producción (24 & 72 horas) Compatible con Controladores Jandy/Compool Protección interna anti-congelante Enseña en pantalla requerimientos de sal (Kg) Inversión suave (limpieza de celda ajustable) Opera en temperaturas de agua hasta 40 °C Temporizador interno para manejo de bomba Disponible en sistema métrico 02/25/2011 www.autopilot.com 27
- 54. 02/25/2011 www.autopilot.com 28
- 55. Pool Pilot Total Control Modos de Operación CONTROL DE PURIFICACION • Configuración Digital Estándar para producción de Cloro CONTROL DE pH • Control Digital de Purificación Estándar • Control Manual de pH TOTAL CONTROL • Control de Purificador y pH Automático 02/25/2011 www.autopilot.com 28
- 56. 02/25/2011 www.autopilot.com 29
- 57. Pool Pilot Copilot - Dig 220 La combinación de la generación de cloro a partir de sal y el poder del ozono Esta combinación destruye hasta le 99% de los microorganismos en la alberca Destruye bacterias, virus, hongos, algas, moho y esporas Mayor claridad del agua Reduce la utilización de cloro, extendiendo la duración de la celda electrolítica Eficiente en energía y no contaminante 02/25/2011 www.autopilot.com 29
- 58. 02/25/2011 www.autopilot.com 30
- 59. Pool Pilot Copilot - Dig 220 Para albercas hasta de 322 mt3 (85.000 gal.) Las mismas características del Dig-220 Generador de Ozono Proceso de oxidación avanzado Sistema de descarga por Corona genera 4-5 veces más concentración de ozono que lámparas de UV Utiliza 70-90% menos energía que las lámparas de UV Incluye múltiple de agua - Patentado 02/25/2011 www.autopilot.com 30
- 60. 02/25/2011 www.autopilot.com 31
- 61. Pool Pilot Copilot Digital Nano Para albercas hasta de 151 mt3 (40.000 gal.) Las mismas características del Pool Pilot Digital Nano Generador de Ozono Incluye múltiple de agua - Patentado 02/25/2011 www.autopilot.com 31
- 62. 02/25/2011 www.autopilot.com 32
- 63. Pool Pilot Professional 02/25/2011 www.autopilot.com 32
- 64. 02/25/2011 www.autopilot.com 33
- 65. Pool Pilot Professional Producción máxima por día de 15 lb de cloro Un panel de control, controla hasta seis (6) fuentes de poder y seis (6) celdas Pantalla Digital y luces LED Control y monitoreo independiente de cada fuente de poder y cada celda Compatible con controladores ORP Compensación de temperatura - Patentado Interruptor de circuitos Magnético/hidráulico Gabinete de tipo industrial Fácil mantenimiento Inversión de polaridad suave (limpieza de celda ajustable) Opción de ensamble en fábrica del múltiple de agua, con interruptor de flujo y válvulas de sobre-paso 02/25/2011 www.autopilot.com 33
- 66. 02/25/2011 www.autopilot.com 34
- 67. Pool Pilot Professional 02/25/2011 www.autopilot.com 34
- 68. 02/25/2011 www.autopilot.com 35
- 69. Determinación del Equipo P.P.P. Apropiado 02/25/2011 www.autopilot.com 35
- 70. 02/25/2011 www.autopilot.com 36
- 71. Volumen 02/25/2011 www.autopilot.com 36
- 72. 02/25/2011 www.autopilot.com 37
- 73. Cantidad de Bañistas 02/25/2011 www.autopilot.com 37
- 74. 02/25/2011 www.autopilot.com 38
- 75. Tiempo de Filtrado 02/25/2011 www.autopilot.com 38
- 76. 02/25/2011 www.autopilot.com 39
- 77. Efectos de Agua 02/25/2011 www.autopilot.com 39
- 78. 02/25/2011 www.autopilot.com 40
- 79. Temperatura del Agua 02/25/2011 www.autopilot.com 40
- 80. 03/21/2009 www.autopilot.com 41
- 81. Dejamos algo por fuera? 03/21/2009 www.autopilot.com 41
- 82. 03/21/2009 www.autopilot.com 42
- 83. FIN 03/21/2009 www.autopilot.com 42
Notes de l'éditeur
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- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Part # 960 for purchase.\nIn this example of a two blade cell, the electrical current is passed from one blade to the other. Since these are not touching, it relies on the conductivity of the water to pass the current from blade to blade. On one side, bubbles are formed. This is the side that is generating chlorine but is also a high pH surface. The other side is a low pH surface. On a normal operation, slight scale formation will develop on the surface of the blade. \nThe reason the overall pH rises is that there is a byproduct of Sodium Hydroxide (or caustic soda – a weak Draino). However, once Muriatic Acid is added to reduce the pH, the Sodium is released to recombine with the chloride, forming sodium chloride (salt) which goes through the process over and over again.\n
- Comparing salt systems to the more common types of chlorine show that salt chlorinators produce 100% pure sodium hypochlorite, near neutral pH with little effect on the other parameters. \nConsider the two more common forms of chlorine in Florida. Liquid Chlorine, or more commonly called bleach, has about a 10 – 12% strength, and a high pH of 13, This in turn affects the parameters by increasing the pH, Total Alkalinity, TDS and no effect on cyanuric acid.\nTablets, whether di-chlor of tri-chlor all have a significant effect on pH and other water balance parameters which will require the purchase and addition of other chemicals to maintain balance. \n
- Comparing salt systems to the more common types of chlorine show that salt chlorinators produce 100% pure sodium hypochlorite, near neutral pH with little effect on the other parameters. \nConsider the two more common forms of chlorine in Florida. Liquid Chlorine, or more commonly called bleach, has about a 10 – 12% strength, and a high pH of 13, This in turn affects the parameters by increasing the pH, Total Alkalinity, TDS and no effect on cyanuric acid.\nTablets, whether di-chlor of tri-chlor all have a significant effect on pH and other water balance parameters which will require the purchase and addition of other chemicals to maintain balance. \n
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- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
- Hands On – pass around scaled cell and later 1 ½ “clean out plug.\nThe following walk up tests can be performed by anyone. First the visual cell inspection.\nStart by turning the pump off and removing the cell. Clean the cell of any calcium scale formation, only if needed. Discuss bucket method vs. manifold method vs. plug method (recommended) No scraping or tools- high pressure water can help with some scale. \nA cell will never scale or need cleaned if water is kept balanced. Cleaning damages coating and shortens cell life. \nMention forcing reverse to check unit. \nVisually inspect the terminal blades of the cell. On the SC-36 and SC-48, these are the two outside blades. They are also recognized by the terminals on the outside of the cell that the cell cord plugs into.\nOn the SC-60 and the CC-15 cells, the center blade is also a terminal blade and is probably the easiest to compare.\nThe leading edge of the terminal blades should all be even and the same lengths. Excessive wear is seen as the an erosion or degradation of that edge and will appear shorter by as little as ¼”.\nWhite Flakes in the Water mean that the unit is doing it’s job by “sloughing off” the scale build up when polarity reverses. It is an indication that water is out of balance (scale forming) but that scale build up has not yet reached the point where the unit can not self clean. \n
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- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Hands On - Refer to tri-sensor on each table.\nMention Flow switch,alignment tab, temp sensor and salt sensor blades. \nDo not scrape salt blades as it will damage sensor and throw off salt calibration. \nTemp sensor encased in thick plastic and can be a little slow to read correct temp. \n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
- Installing the manifold is similar to any chlorine feeding device. It is to be located after all equipment, (pump, filter, heater, chlorinator) and in the pool return line if a pool/spa combo. Why not before the pool spa diverter valve? \n For pool/spa combinations, locate the manifold in the pool return line so as to avoid spa over chlorination when the spa is isolated.\nMake sure it is located within 12’ of the power supply as this is the length of the cell and tri-sensor cords.\n
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