KLIC-DI VRV PRODUCT MANUAL INTERFACE KNX DAIKIN VRV ZN1CL-KLIC-DI. Edition 4 Version 1.0

Transcription

1 PRODUCT MANUAL KLIC-DI VRV INTERFACE KNX VRV ZN1CL-KLIC-DI Edition 4 Version 1.0

2 Index 1. Introduction Installation KLIC-DI Installation Elements Description Configuration Control Básico Advanced Functionalities Parameterization Default Configuration General Mode Fan speed Scenes Temperature Limitation Automatic switch off Errors management Initial configuration Annex I. Communication Objects Annex II. Correspondence Error Codes of Daikin Units ZENNiO AVANCE Y TECNOLOGÍA 2

3 1. INTRODUCTION The KLIC-DI VRV is an interface that allows a bidirectional communication between a KNX domotic system and the industrial air-conditioning units of the VRV systems series manufactured by Daikin. Due to this bidirectional communication, the air conditioning unit can be controlled in the same way that using an IR remote controller and the real status of the airconditioning unit is checked and sent to the KNX bus for its monitoring. Figure 1 KLIC-DI In case of using a wired remote control in the same communication bus of the unit, the KLIC-DI will communicate with this remote control acting one device as master control while the other device will act as slave control. It is important to verify that the KLIC-DI and the wired remote control are configured with different type of control. This way, the control acting as slave will update its status when the master orders it and will communicate its status changes when they are modified from the own slave control. Device Features: Small enclosure: 90 x 60 x 35 mm (2 DIN rail units) Designed to be installed inside distribution boxes or electrical mounting boxes. KLIC-DI controls the Daikin VRV systems (bi-directional communication). Daikin control protocol. ZENNiO AVANCE Y TECNOLOGÍA 3

4 Control over all Daikin air-conditioning functionality. Error management handles Daikin error codes as well as any communication errors that may arise. LED indicators allow monitoring of the bidirectional traffic flow. Integrated EIB/KNX Bus Coupling Unit. Complete data saving in case of Bus Power Failure. CE Compliant ZENNiO AVANCE Y TECNOLOGÍA 4

5 2. INSTALLATION 2.1. KLIC-DI INSTALLATION The KLIC-DI installation is performed the same way that any other KNX device. We just need to connect the device to KNX bus through the specific KNX connector. On the other hand, this device is connected to the Daikin internal unit PCB (P1/P2 connectors), using a 2-wire cable. If the wired remote control from Daikin is also used, it is necessary to make sure that the wired remote control is in mode slave if the KLIC-DI is configured as master control. And vice versa, if the KLIC-DI is configured as slave control, the wired remote control must be in master position. Once the device is provided with power supply from the bus, both, the physical address and the KLIC-DI VRV application program can be downloaded. This device does not need any external supply, since it just works with the power supply of KNX bus. Connections to Daikin P1/P2 bus diagrams Figure 2 Connecting KLIC-DI to P1/P2 bus ZENNiO AVANCE Y TECNOLOGÍA 5

6 SKY VRV Figure 3 Connecting KLIC-DI to bus P1/P2 with wired remote control (slave mode) Diagrams Leyend A B C P1 - P2 KLIC DI Daikin Wired remote control Daikin SKY or VRV unit Daikin connection bus 1-2 Zennio connection terminal * The wired remote control must operate in the opposite mode to KLIC-DI Notes The model FDXS E is controlled by KLIC-DD (see datasheet) because the internal unit does not have P1/P2 port ELEMENTS DESCRIPTION Prog: To set the device programming mode. When initially pushed, after Powering, secure mode is set. Led: Luminous signal which indicates the state of the device. Besides including the programming red LED (typical in any KNX device), the KLIC-DI incorporates two more LEDs, blue and green ones, in order to inform about the bidirectional ZENNiO AVANCE Y TECNOLOGÍA 6

7 communication between KNX and Daikin, resulting very useful in the installation process. We can know the meaning watching the color: Red: programming LED. If it is ON indicates Programming mode. LED blinkling every 0,5s, the device is set in Secure Mode. Green: failure in the KLIC-DI power supply (this happens when the KLIC-DI is not connected to the Daikin device and/or when the Daikin device is not connected to the power supply line). Blinking green: communication data from Daikin device to KLIC-DI. Blinking blue: communication data from KLIC-DI to the Daikin device. Communication Cable: 2-wire cable, direct to PI/P2 connectors that can be found at the PCB of the internal unit, or in the wired remote control. Nº Description 1 EIB connector 2 Programming LED 3 Programming button 4 2-wire communication terminal ZENNiO AVANCE Y TECNOLOGÍA 7

8 3. CONFIGURATION 3.1. BASIC CONTROL With KLIC-DI, the air conditioning unit can be monitored and controlled in the same way it is done with the wired remote control provided with the air conditioning unit. By means of bus KNX, it can be controlled the following basic functionalities of the air conditioning system: ON/OFF of the air conditioning unit. Setpoint Temperature. Between 16 and 32 ºC. Operating Mode: Heat, Dry, Fan and Cool. Fan Speed: 2 or 3 speed levels configuration. (Check out the available levels in the Daikin unit). Swing: Swing or fixed position (5 different positions). These functionalities have associated a machine status, which is periodically sent to KLIC-DI. When KLIC-DI receives a status different from the previous one from the machine, it updates the status of the corresponding parameter in the bus KNX ADVANCED FUNCTIONALITIES Besides the basic control over the air conditioning system, KLIC-DI offers other advanced functionalities that give an added value with regard to the wired remote control: Scenes Configuration: allows establishing a specific parameters combination for the air conditioning machine. Temperature Limitation: Daikin air conditioning systems are limited in temperature to the range ºC. This KLIC functionality allows configuring custom temperature ranges for the modes Heat and Cool by means of the ETS in such a way that the setpoint temperature will remain in the range. In case of receiving from the bus KNX a temperature command with a value out of the configured limits, the temperature value sent to the machine will be the corresponding limit value. Auto Switch Off: allows temporarily switching off the machine if a status change in the communication object associated to it, takes place. An example ZENNiO AVANCE Y TECNOLOGÍA 8

9 of this functionality could be the use of a window sensor, associated to the auto switch off, that allows switching off the machine if the window is opened. Errors Management: this functionality allows the sending of messages to the bus informing about errors. Errors management handles Daikin error codes as well as any communication errors that may arise. Besides informing about the apparition of possible errors it can be also configured the sending of the error type. In case of internal errors, the numerical code associated to the error type is shown in the following table: Error Number Type of Internal Error 1 Problems with the data reception (speed, parity, etc.) 2 Communication waiting time exceeded (Time-out) 3 Incorrect checksum 4 Incorrect response from the machine Regarding the numerical code associated to the external errors type, look up the manual of the installed air-conditioning system or the Annex II Correspondence Error Codes of Daikin Units. Initial Configuration: All machine status must have an initial value after installing the system or a power failure. With this purpose, it has been included in the KLIC the possibility of defining the initial status for the ON/OFF, temperature, fan speed and swing of the machine. These initial values can be sent both to the bus KNX and the air conditioning unit. Type of Control: Master/Slave It is important to take into account the type of control, master or slave, with which the KLIC-DI is going to be configured. The remote control master in the installation is in charge of the communication with the machine and it will retransmit the instructions and status between the machine and the slave remote control in case of having one. In spite of the master/salve configuration, all the functionalities can be set from both remote controls. ZENNiO AVANCE Y TECNOLOGÍA 9

10 This functionality allows including in the installation both the KLIC-DI and the Daikin wired control and choosing the desired master/slave configuration whenever the KLIC-DI and the wired control are not configured with the same type of control. In case of having both controls configured as masters, the screen of the Daikin control will show the error 88 and the error U5 will be sent to the bus. Take into account: When switching the type of control of the Daikin wired control between master and slave, it is necessary to remove the power supply from the wired control and connecting it again for rebooting the wired control in the suitable mode Indoor temperature and Reference temperature: the VRV machines has several temperature sensors for measuring the temperature in different internal points. The Indoor temperature is the measured internal value and it is used together with the Reference temperature for controlling the modes Auto-Cool and Auto- Heat of the air-conditioning machine. The Reference temperature is the real temperature in the room to acclimatize. It is necessary to communicate this parameter to the machine by means of the corresponding communication object and it is hardly recommended to link this communication object with a temperature sensor (installed in the room) which periodically updates the temperature value. The modes Auto-Heat and Auto-Cool can be controlled in three different ways by the Daikin machine: 1. The machine receives the Reference temperature and, according to a pre-configured hysteresis by the Daikin installer, it establishes the corresponding auto mode. 2. The machine uses the Indoor temperature and, according to a preconfigured hysteresis by the Daikin installer, it establishes the corresponding auto mode. 3. The machine establishes the auto mode according to the average value of the Reference temperature and the Indoor temperature. The temperature value used by the machine in order to switch between the Modes Auto-Cool and Auto-Cool depends on the configuration established in the Dakin machine installation. This value, in any of the previous cases is compared to the setpoint temperature in such a way that if the setpoint temperature is higher the Auto-Heat mode is established and if the setpoint temperature is lower than this value, the Auto-Cool is established. ZENNiO AVANCE Y TECNOLOGÍA 1 0

11 Take into account: It is hardly recommended to link the Reference temperature to a temperature sensor that periodically monitors the real temperature in the room because the way of switching between the different Auto modes might not be known and this fact can lead to a wrong functioning of the Auto mode. The Reference temperature has a default value equal to 25ºC. ZENNiO AVANCE Y TECNOLOGÍA 1 1

12 4. PARAMETERIZATION For starting to parameterize the device it is necessary, once the ETS has been opened, importing the data base of the product KLIC-DI VRV 1.0.vd2. Then the KLIC is added to the project where it is desired to include the device. Click with the right mouse button on the device and select Edit Parameters.. for starting with the configuration. In the following sections there is a detailed explanation about each of the different functionalities of the device in ETS DEFAULT CONFIGURATION This section shows the default configuration from which the device configuration starts. If the window Edit Parameters is opened for the first time, the KLIC General configuration by default will be found. Next figure shows the General window with the default values: Figure 4 Default General Configuration ZENNiO AVANCE Y TECNOLOGÍA 1 2

13 As we can see in the previous figure all the advanced functionalities: scenes, temperature limitation, auto switch off, errors management and initial configuration are disabled by default. If the Mode and Fan are selected, it will be seen that both the Individual Modes and the Simplified Modes (Cool/Heat) are disabled by default while the Fan is configured for 2 different fan speeds and the step control is also disabled. Figure 5 Default Mode Configuration Figure 6 Default Fan Configuration 4.2. GENERAL From the parameterization window General the advanced functionalities can be configured: Scenes Temperature Limitation Auto OFF Errors Management Initial Configuration Type of control ZENNiO AVANCE Y TECNOLOGÍA 1 3

14 Master/Slave of Mode Swing Figure 7 General As we select the functionalities in the pull down lists, the access to the functionality configuration window will appear in the Menu at the left and the corresponding communication objects are enabled MODE As it has been previously seen in the default configuration, the specific Mode window allows the user select: Individual Modes When selecting the Individual Modes, two 1-bit communication objects will be enabled: one for controlling the mode and another one for receiving the status from the split, for each mode (Cool, Only Fan, Heat and Dry) besides the 1-byte communication objects for controlling and indicating the mode status that exist by default. If the option Individual Modes is activated, the operating mode of the machine will be sent by means of the 1-bit control object associated to the mode. Moreover the Mode will be also sent to the bus KNX by means of both the 1- byte mode status object and the 1-bit status object of the corresponding mode. ZENNiO AVANCE Y TECNOLOGÍA 1 4

15 Simplified Modes The selection of the Simplified Modes will enable a 1-bit communication object with the same name that will allow choosing between Mode Cool (value 0) and Mode Heat (value 1). For this communication object, the corresponding status communication object does not exist. Figure 8 Mode 4.4. FAN SPEED In this window, the number of fan levels that the air conditioning unit has, 2 or 3 levels, can be selected. Figure 9 Fan Speed The fan speed has associated two 1-byte communication objects: Fan and Fan Status that respectively controls and indicates the fan speed. The control object records the fan speed in percentage. For this reason this value will be interpolated in such a way that corresponds to the selected number of levels. The status object will show the fan speed according to the interpolated percentages. ZENNiO AVANCE Y TECNOLOGÍA 1 5

16 Two Levels of Fan If the fan speed configuration has 2 levels, the fan speed percentages will be interpolated in the following way: Initial Speed Percentage Interpolated Speed Percentage Level 0 49% 25 % Minimum % 100 % Maximum Three Levels of Fan On the other hand, with a fan speed configuration of 3 levels, the fan speed percentages will be interpolated according to next table: Initial Speed Percentage Interpolated Speed Percentage Level 0 32% 25 % Minimum % 50 % Medium % 100 % Maximum Besides configuring the number of levels the Fan window allows selecting the Step Control. Step Control The selection of Step Control enables a 1-bit object for increasing or decreasing the fan speed level: Value 1 : Increase Value 0 : Decrease The Step Control is not cyclical which means that if the fan speed is Minimum (0%), when the speed level is decreased, the speed will remain at this mode until the level is increased again. The same way, when the speed level is at 100%, the level will remain at this maximum until the speed is decreased. ZENNiO AVANCE Y TECNOLOGÍA 1 6

17 4.5. SCENES A scene involves the synchronized sending of several commands to the air conditioning unit with the objective of generating a determined climate environment in the room. KLIC offers the possibility of configuring up to 4 scenes. Figure 10 Scenes Once the Scenes are enabled in the window General, the option Scenes will appear in the Menu.. Figure 11 Scenes Configuration Example ZENNiO AVANCE Y TECNOLOGÍA 1 7

18 For each of the 4 scenes, the variables that can be configured are: Scene1-4: Scene Number: Scene number within the installation. ON/OFF: No change, switching ON or OFF the Split. Temperature: No change or temperature value between 16 C and 32 C. Mode: No change, auto, heat, dry, fan or cool. Fan: No change, minimum, medium o maximum. Swing: No change, number of fixed position or swing 4.6. TEMPERATURE LIMITATION Daikin VRV systems have defined upper and lower temperature limits that cannot be exceeded (32ºC and 16ºC respectively). Nevertheless, KLIC-DI offers the possibility of establishing new temperature limits if they are specified within the default temperature limits of the Daikin unit. The temperature limits can be personalized for the two modes with associated temperature: Cool and Heat. Figure 12 Temperature Limitation ZENNiO AVANCE Y TECNOLOGÍA 1 8

19 Once the limitation is enabled, when a value out of the range is sent from the bus KNX, the value that will be sent to Daikin unit will be the corresponding temperature limit and this new temperature value will be notified to the bus KNX. As a new functionality, it has been included a 1-bit communication object that will allow the user enabling (object to 1 ) or disabling (object to 0 ) these personalized temperatures restoring the Daikin default range. Take into account: When configuring in ETS the temperature limitation, this functionality is automatically enabled by default and the personalized ranges will control the unit performance when it switches on AUTOMATIC SWITCH OFF When this option is enabled, the air conditioning unit will be temporarily switched off if a status change in the associated binary communication object is produced. This functionality has two configurable parameters: Delay for Auto-OFF: Number of seconds that KLIC-DI delays the air conditioning unit switching off. Figure 13 Auto-OFF 4.8. S MANAGEMENT The Errors Management window allows enabling the sending of messages to the bus indicating any error that may arise: internal errors of the communication between the KLIC-DI and the Daikin unit or external errors, errors in the own Daikin unit. It can be enabled the internal errors, the external errors or both: ZENNiO AVANCE Y TECNOLOGÍA 1 9

20 Internal Errors: Yes or no. External Errors: Yes or no. Every error type has associated two communication objects: the binary one indicates if an error has occurred and the 1-byte object that indicates the code identifying the error. Figure 14 Errors Management 4.9. INITIAL CONFIGURATION And finally, the initial configuration window allows configuring the initial machine status after the installation or a power failure. The variables that can be initialized are the following: ON/OFF: Last, ON or OFF. Temperature: Last or custom. Mode: Last, heat, dry, fan or cool. Fan: Last, minimum or maximum. Swing: Last, number of fixed position or swing. Moreover, it can be configured the sending of status to the Bus or Split and when it must be carried out: Send Initial Configuration to?: Yes or no. Delay: number of seconds that the KLIC delays the sending of status to the ZENNiO AVANCE Y TECNOLOGÍA 2 0

21 Figure 15 Initial Configuration TYPE OF CONTROL The type of control allows configuring the KLIC-DI as Master or Slave control. Figure 16 Type of Control When the option Master is selected, the pull list Master/Slave of Mode is enabled because only when the KLIC-DI is configured as Master, it can be Master of Mode. ZENNiO AVANCE Y TECNOLOGÍA 2 1

22 4.11. MASTER/SLAVE OF MODE This option allows configuring the KLIC-DI as Master or Slave of mode. When the device is configured as Master of mode, all the modes of the system can be configured from the KLIC-DI. Nevertheless, when the device is configured as Slave of mode, it could only set the mode configured in the device acting as master control (Cool or Heat) and the mode Fan. Figure 17 Master/Slave of Mode In the next table, the modes that can be configured in the device acting as Slave of mode depending on the configured mode in the master of mode: Mode configured in the Master of mode Configurable modes from the Slave of mode Heat Heat, Fan Cool Cool, Fan, Dry Fan Fan ZENNiO AVANCE Y TECNOLOGÍA 2 2

23 4.12. SWING In the section General the option Swing can be enabled. (Look up in the Daikin manual if the VRV system model that is going to be controlled with the KLIC-DI has the swing functionality). The swing functionality offers 5 fixed positions and constant movement (swing). Figure 18Swing Configuration Take into account: It is important to make sure that the model of Daikin has the Swing option before configuring it because this configuration could result in an incorrect control of the system performance if the model does not have the swing option. When the option Swing is selected, two 1-byte communication objects: Swing and Swing (Status) [1 byte], and two 1-bit communication objects Swing and Swing (Status) [1 bit] are enabled in order to control and indicate the swing performance. The object Swing [1 bit] allows selecting the swing performance in the following way: Sending the value 0 If the slats are in a fixed position, the number of position is risen. In case of being in swing mode, the slats changed to the last fixed position they had before entering in swing mode. Sending the value 1. The slats begin to work in swing mode. ZENNiO AVANCE Y TECNOLOGÍA 2 3

24 The status object will indicate the slats operation: swing (value 1 ) or fixed position (value 0 ). The object Swing [1 byte] allows establishing the slats position by means of sending the value in percentage according to the following table: Value of the object Swing [1byte] Number of Fixed Position Value of the object Swing [1byte] 0 % Position 1 0 % 1-20 % Position 2 20 % % Position 3 40 % % Position 4 60 % % Position 5 80 % % Swing 100 % Take into account: Due to the internal performance of the Daikin machine, if the fixed position number 3 or a higher position is configured being in mode Cool, the Daikin machine will not answer to this command in order to avoid a cold air flow directed to a particular point of the room where a person could be located. In the same way, if the position 2 or a lower position is configured being in mode Heat, the Daikin machine will not answer to this command in order to avoid an accumulation of hot air in the upper part of the room. ZENNiO AVANCE Y TECNOLOGÍA 2 4

25 ANNEX I. COMMUNICATION OBJECTS SECTION NUMBER LENGHT IN/OUT FLAGS VALUES RANGE INITIAL RESET NAME OBJECT FUNCTION 0 1 bit I W 0/1 0 ON/OFF Turn ON the Split(1); Turn OFF the Split(0) 1 2 bytes I W Temperature Temperature sent to the Split 2 1 byte I W Mode Auto(0); Heat(1); Cool(3); Fan(9);Dry(14) 3 1 byte I W Fan With 2 levels: Minimum (0-49%); Maximum (50-100%) With 3 levels: Minimum (0-32%); Medium (33-65%); Maximum (66-100%) 4 1 bit I W 0/1 Swing Swing(1); Stopped(0) 5 1 bit R-T 0/1 ON/OFF (Status) Split State (ON/OFF) GENERAL 6 2 bytes R-T Temperature (Status) Temperature received from the split 7 1 byte R-T Mode (Status) Mode received from the split 8 1 byte R-T Fan (Status) With 2 levels: Minimum (25%); Maximum (100%) With 3 levels: Minimum (25%); Medium(50%); Maximum (100%) 9 1 byte R-T 0/1 Swing (Status) Swing status: Fixed position(0-80%)); Motion(100%) 20 1 byte I W Scenes Set Scene Value (Scene Number) 21 1 bit I W 0/1 Temperature Limitation Enable(1); Disable(0) 22 1 bit I W 0/1 Auto-OFF Enable(1); Disable(0) 10 1 bit I W-T 0/1 Cool Mode Set Cool Mode (1); Nothing (0) ZENNiO AVANCE Y TECNOLOGÍA 2 5

26 SECTION NUMBER LENGHT IN/OUT FLAGS VALUES RANGE INITIAL RESET NAME OBJECT FUNCTION 11 1 bit I W-T 0/1 Heat Mode Set Heat Mode (1); Nothing (0) 12 1 bit I W-T 0/1 Fan Mode Set Fan Mode (1); Nothing (0) 13 1 bit I W-T 0/1 Dry Mode Set Dry Mode (1); Nothing (0) 14 1 bit I W 0/1 Simplified Mode Cool(0); Heat(1) 15 1 bit R-T 0/1 Cool Mode (Status) Cool Mode Enabled (1); Disabled (0) MODE 16 1 bit R-T 0/1 Heat Mode (Status) Heat Mode Enabled (1); Disabled (0) 17 1 bit R-T 0/1 Fan Mode (Status) Fan Mode Enabled (1); Disabled (0) 18 1 bit R-T 0/1 Dry Mode (Status) Dry Mode Enabled (1); Disabled (0) FAN 19 1 bit I W 1 Fan [1bit] Down(0); Up(1) 23 1 bit R-T 0/1 Internal Error(Status) No error(0); Error(1) S MANAGEMENT 24 1 byte R-T 1-4 Type of Internal Error(Status) 25 1 bit R-T 0/1 External Error(Status) No error(0); Error(1) Err.Reception(1);Timeout (2); Incorrect Checksum (3); Incorrect Response(4) 26 1 byte R-T Type of External Error(Status) Check Daikin Errors Table 27 2 bytes R-T Indoor Temperature (Estado) Temperature measured by the machine GENERAL 28 2 bytes W Reference Temperature Reference temperature 29 1 bytet I W 0-5 Swing [1byte] Fixed position(0-4); Motion(5) 30 1bit R-T 0/1 Swing [1bit] (Status) Swing status: Motion(1); Fixed position(0) ZENNiO AVANCE Y TECNOLOGÍA 2 6

27 ANNEX II. CORRESPONDENCE S OF UNITS Next table shows the correspondence between the external error code provided by KLIC-DI at the Bus KNX and the breakdown codes of the Daikin units: ZENNiO AVANCE Y TECNOLOGÍA E1 97 J1 145 U M1 385 T1 433 X E2 98 J2 146 U M2 386 T2 434 X E3 99 J3 147 U M3 387 T3 435 X E4 100 J4 148 U M4 388 T4 436 X E5 101 J5 149 U M5 389 T5 437 X E6 102 J6 150 U M6 390 T6 438 X E7 103 J7 151 U M7 391 T7 439 X E8 104 J8 152 U M8 392 T8 440 X E9 105 J9 153 U M9 393 T9 441 X9 10 0A 58 EA 106 JA 154 UA 202 7A 250 4A 298 1A 346 MA 394 TA 442 XA 11 0H 59 EH 107 JH 155 UH 203 7H 251 4H 299 1H 347 MH 395 TH 443 XH 12 0C 60 EC 108 JC 156 UC 204 7C 252 4C 300 1C 348 MC 396 TC 444 XC 13 0J 61 EJ 109 JJ 157 UJ 205 7J 253 4J 301 1J 349 MJ 397 TJ 445 XJ 14 0E 62 EE 110 JE 158 UE 206 7E 254 4E 302 1E 350 ME 398 TE 446 XE 15 0F 63 EF 111 JF 159 UF 207 7F 255 4F 303 1F 351 MF 399 TF 447 XF 16 A0 64 H0 112 L G0 352 N0 400 V0 448 Y0 17 A1 65 H1 113 L G1 353 N1 401 V1 449 Y1 2 7

28 18 A2 66 H2 114 L G2 354 N2 402 V2 450 Y2 19 A3 67 H3 115 L G3 355 N3 403 V3 451 Y3 20 A4 68 H4 116 L G4 356 N4 404 V4 452 Y4 21 A5 69 H5 117 L G5 357 N5 405 V5 453 Y5 22 A6 70 H6 118 L G6 358 N6 406 V6 454 Y6 23 A7 71 H7 119 L G7 359 N7 407 V7 455 Y7 24 A8 72 H8 120 L G8 360 N8 408 V8 456 Y8 25 A9 73 H9 121 L G9 361 N9 409 V9 457 Y9 26 AA 74 HA 122 LA 170 9A 218 6A 266 3A 314 GA 362 NA 410 VA 458 YA 27 AH 75 HH 123 LH 171 9H 219 6H 267 3H 315 GH 363 NH 411 VH 459 YH 28 AC 76 HC 124 LC 172 9C 220 6C 268 3C 316 GC 364 NC 412 VC 460 YC 29 AJ 77 HJ 125 LJ 173 9J 221 6J 269 3J 317 GJ 365 NJ 413 VJ 461 YJ 30 AE 78 HE 126 LE 174 9E 222 6E 270 3E 318 GE 366 NE 414 VE 462 YE 31 AF 79 HF 127 LF 175 9F 223 6F 271 3F 319 GF 367 NF 415 VF 463 YF 32 C0 80 F0 128 P K0 368 R0 416 W0 464 Z0 33 C1 81 F1 129 P K1 369 R1 417 W1 465 Z1 34 C2 82 F2 130 P K2 370 R2 418 W2 466 Z2 35 C3 83 F3 131 P K3 371 R3 419 W3 467 Z3 36 C4 84 F4 132 P K4 372 R4 420 W4 468 Z4 37 C5 85 F5 133 P K5 373 R5 421 W5 469 Z5 38 C6 86 F6 134 P K6 374 R6 422 W6 470 Z6 39 C7 87 F7 135 P K7 375 R7 423 W7 471 Z7 40 C8 88 F8 136 P K8 376 R8 424 W8 472 Z8 ZENNiO AVANCE Y TECNOLOGÍA 2 8

29 41 C9 89 F9 137 P K9 377 R9 425 W9 473 Z9 42 CA 90 FA 138 PA 186 8A 234 5A 282 2A 330 KA 378 RA 426 WA 474 ZA 43 CH 91 FH 139 PH 187 8H 235 5H 283 2H 331 KH 379 RH 427 WH 475 ZH 44 CC 92 FC 140 PC 188 8C 236 5C 284 2C 332 KC 380 RC 428 WC 476 ZC 45 CJ 93 FJ 141 PJ 189 8J 237 5J 285 2J 333 KJ 381 RJ 429 WJ 477 ZJ 46 CE 94 FE 142 PE 190 8E 238 5E 286 2E 334 KE 382 RE 430 WE 478 ZE 47 CF 95 FF 143 PF 191 8F 239 5F 287 2F 335 KF 383 RF 431 WF 479 ZF 48 E0 96 J0 144 U M0 384 T0 432 X0 ZENNiO AVANCE Y TECNOLOGÍA 2 9

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