English dropdown-ico

Siemens 350 manual

1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42

Go to page of

Similar user manuals

A good user manual

The rules should oblige the seller to give the purchaser an operating instrucion of Siemens 350, along with an item. The lack of an instruction or false information given to customer shall constitute grounds to apply for a complaint because of nonconformity of goods with the contract. In accordance with the law, a customer can receive an instruction in non-paper form; lately graphic and electronic forms of the manuals, as well as instructional videos have been majorly used. A necessary precondition for this is the unmistakable, legible character of an instruction.

What is an instruction?

The term originates from the Latin word „instructio”, which means organizing. Therefore, in an instruction of Siemens 350 one could find a process description. An instruction's purpose is to teach, to ease the start-up and an item's use or performance of certain activities. An instruction is a compilation of information about an item/a service, it is a clue.

Unfortunately, only a few customers devote their time to read an instruction of Siemens 350. A good user manual introduces us to a number of additional functionalities of the purchased item, and also helps us to avoid the formation of most of the defects.

What should a perfect user manual contain?

First and foremost, an user manual of Siemens 350 should contain:
- informations concerning technical data of Siemens 350
- name of the manufacturer and a year of construction of the Siemens 350 item
- rules of operation, control and maintenance of the Siemens 350 item
- safety signs and mark certificates which confirm compatibility with appropriate standards

Why don't we read the manuals?

Usually it results from the lack of time and certainty about functionalities of purchased items. Unfortunately, networking and start-up of Siemens 350 alone are not enough. An instruction contains a number of clues concerning respective functionalities, safety rules, maintenance methods (what means should be used), eventual defects of Siemens 350, and methods of problem resolution. Eventually, when one still can't find the answer to his problems, he will be directed to the Siemens service. Lately animated manuals and instructional videos are quite popular among customers. These kinds of user manuals are effective; they assure that a customer will familiarize himself with the whole material, and won't skip complicated, technical information of Siemens 350.

Why one should read the manuals?

It is mostly in the manuals where we will find the details concerning construction and possibility of the Siemens 350 item, and its use of respective accessory, as well as information concerning all the functions and facilities.

After a successful purchase of an item one should find a moment and get to know with every part of an instruction. Currently the manuals are carefully prearranged and translated, so they could be fully understood by its users. The manuals will serve as an informational aid.

Table of contents for the manual

  • Page 1

    1 SINVERT 350, SINVERT 420 and SINVERT 500 TL Operating Manual – 11/2009 SINVERT Answers for environment.[...]

  • Page 2

    Photovoltaic SINVERT SINVERT 350, SINVERT 420 and SINVERT 500 TL Introduction 1 Description 2 Hardware operation 3 Alarm and fault messages 4 Support 5[...]

  • Page 3

    Safety instructions These Operating Instructions contai n information which you shou ld o bserve to ensure y our own personal safety as well as to protect the pro duct and connect ed equipment. The notices ref erring to your personal safety are highlighted in the manual by a safety alert symbol. Notices ref erring only to equipment damag e have no [...]

  • Page 4

    Contents 1 Introduction ................................................................................................................... 6 1.1 About this documentation ........................................................................................ 6 1.1.1 Scope of validity ................................................................[...]

  • Page 5

    Tables Table 3-1 Pin assignment X 5 (SUB -D 9-pin / RS422 for PP so lar) ........................................... 13 Table 4- 1 Alarm and fa ult m essa ges ................................................................................. 27 Table 4-2 I S O fau lt ...................................................................................[...]

  • Page 6

    Introducti on 1.1 About thi s documentation 6 1 Introduction 1.1 About this documentation This manual will provide you with guidance in the us e of SINVERT PV inverters. It provides you with a detailed overview of all the information you n eed to know about SINVERT PV inverters. We have checked that the contents of this document correspond to t he [...]

  • Page 7

    Introduction 1.1 About thi s documentation 7 and their master-slave variants: • SINVERT 700 MS (two SINVERT 350 inverters in parallel) • SINVERT 1000 MS (three SINVERT 350 inverters in parallel) • SINVERT 1400 MS (four SINVERT 350 inverters in parallel) • SINVERT 850 MS (two SINVERT 420 inverters in parallel) • SINVERT 1300 MS (three SINV[...]

  • Page 8

    Description 2.1 Application 8 2 Description 2.1 Application The SINVERT PV inverter is a fully assembled, ready-to-connect inverter unit for PV installations. Figure 2-1 Overview of PV system The inverter transforms the DC voltage produced by the PV modules into an AC voltage. The AC output voltage is transformed to the gr id voltage by a medium-vo[...]

  • Page 9

    Hardware operation 3.1 Commissi oning the inverter 9 3 Hardware operation 3.1 Commissioning the inverter Commissioning an installation requires certain switching opera tions to be performed. This type of work must always be undertaken by qualified, properly trained personnel. Failure to perform switching operations correctly can result in significa[...]

  • Page 10

    Hardware operation 3.1 Commissi oning the inverter 10 3.1.2 Switching off and disconnecting the power supply The entire system must be disconnected from the power supply before test and maintenance work can be carried out in the containers. Carry out these tasks in the sequence given below: 1. Press the OFF key briefly on the control panel of every[...]

  • Page 11

    Hardware operation 3.1 Commissi oning the inverter 11 3.1.3 Switching on The inverter is switched on in the same way as it is switched off, but in th e reverse sequence. 1. Check that all connections have been made correctly (including polarity). 2. Switch on the junction boxes in the PV field. 3. Switch on the external power supply for the medium-[...]

  • Page 12

    Hardware operation 3.2 Operating the inverter 12 3.2 Operating the inverter 3.2.1 Operator panel Figure 3-1 Front view of control panel Grid LED indicator bar Status display Fault display Display Service interface (RS 232) Keyswitch (operating mode) OFF key 2 1 3 4 5 6 7[...]

  • Page 13

    Hardware operation 3.2 Operating the inverter 13 Figure 3-2 Front view of control panel Table 3-1 Pin assignment X5 (SUB-D 9-pin/ RS422 for PPsola r) Pin Signal 1 RRS485P 5 TRS485N 6 TRS485P 9 RRS485N[...]

  • Page 14

    Hardware operation 3.2 Operating the inverter 14 3.2.2 Operating mode You can choose between modes "Automatic" and "Test". In Test mode, you can adjust the DC voltage manually. In Automatic mode, the inverter determines the Maximum Power Point (MPP) automatically. It also displays currently active fault messages. To select Test [...]

  • Page 15

    Hardware operation 3.2 Operating the inverter 15 3.2.5 Fault reset You can reset a fault by turning the keyswitch from "AUTO" to "TEST" and back to "AUTO" or vice versa. If the inverter has been disabled due to a fault, it can now be activated again. 3.2.6 Displaying currently active alarms and faults In Automatic mode[...]

  • Page 16

    Hardware operation 3.2 Operating the inverter 16 Maximum Power Point (LED "MPP") The power which can be generated by a PV system depends on the level of insolation and the temperature of the PV modules. The inverter control unit is equipped with a "Tracker" which automatically tracks the MPP (Maximum Power Point) of the PV field[...]

  • Page 17

    Hardware operation 3.3 Communi cation with the invert er 17 3.3 Communication with the inverter Various possible methods of communicating with the inverter are presented below. 3.3.1 WEB’log WEB’log is generally used to log inverter data, i’checker data and meteorological data which has been recorded while the inverter is in operation. This d[...]

  • Page 18

    Hardware operation 3.3 Communicati on with the inverter 18 Gray: No information available about the system components Blue: System components are ready; no energy flowing Green: System components are running; energy is flowing Red: System components are malfunctioning Figure 3-5 System Diagram PPsolar The System Diagram contains the electrical data[...]

  • Page 19

    Hardware operation 3.3 Communi cation with the invert er 19 The Control Panel (Figure 3-6) contains the same display and control elements as the control panel of the SINVERT PV inverter. Figure 3-6 Control Panel PPsola r[...]

  • Page 20

    Hardware operation 3.3 Communicati on with the inverter 20 The Oscilloscope function (Figure 3-7) enables you to record data in two channels and to print output voltages, output currents, inverter currents and the PV generator voltage. The right to use this special function is reserved for Siemens customer service personnel. The trigger control fun[...]

  • Page 21

    Hardware operation 3.3 Communi cation with the invert er 21 The Process Data window (Figure 3-8) displays information about the inverter. For the sake of better clarity, the window is divided into a number of panes. You can specify the number of panes and their content in a configuration file. In the default configuration, the content of t he indiv[...]

  • Page 22

    Hardware operation 3.3 Communicati on with the inverter 22 Actual Value Summary The window with the overview of actual values displays a summary of key data of the PV system. You can alter data (e.g. reactive power transfer from SINVERT to the three-phase AC grid) in this window when it is active. Actual values The Actual Values window displays all[...]

  • Page 23

    Hardware operation 3.3 Communi cation with the invert er 23 The Data Storage window (Figure 3-9) is used to start, stop and configure the data archiving function of the PowerProtect solar system. The data to be archived, the scan rate, the data length and archiving path are specified in this window. The scan rate (t scan > xxs) and the data leng[...]

  • Page 24

    Hardware operation 3.3 Communicati on with the inverter 24 Energy The Energy window displays all the available energy data of the PV system. Check the boxes for the values that you want PowerProtect solar to archive. You can select the following data (* provided the relevant sensors are installed in the PV system): • Energy - day • Energy - mon[...]

  • Page 25

    Hardware operation 3.3 Communi cation with the invert er 25 The Analysis window (Figure 3-10) displays the data archived by PowerProtect solar. The data are saved in Microsoft Access database format by the data storage function. You can access this information at any time, even while the archiving function is active. The A nalysis window also provi[...]

  • Page 26

    Alarm and fault messages 4.1 Fault handling 26 4 Alarm and fault messages 4.1 Fault handling 4.1.1 Fault types There are two different types of fault, i.e. plant faults and operational faults. Plant faults are cau sed by malfunctioning of an inverter component, while operational faults occur as a result of unexpected external influences or logical [...]

  • Page 27

    Alarm and fault messages 4.2 Alarm and fault messages 27 4.2 Alarm and fault messages The table below provides an overview of alarm and fault messages supplied on the inverter. Table 4-1 Alarm and fault messages No. Meaning Category Main cause 0 Manual Off Fault 1 Inverter power unit is signaling overtemperature, stage 1 Alarm Ambient temperature t[...]

  • Page 28

    Alarm and fault messages 4.2 Alarm and fault messagesAlarm and fault messagesAlarm and fault messages 28 92 DC overvoltage protection has responded (or fuse (if insta lled) has tripped) Fault Overvoltage (lightni ng strike) has occurred 93 Fast Stop activated or overvoltage on medium-voltage transform er Fault Fast Stop button pressed, fault in coo[...]

  • Page 29

    Alarm and fault messages 4.2 Alarm and fault messages 29 4.2.1 Faults – Causes/diagnostics/remedial measures First acknowledge the fault with the keyswitch o n the control panel. Check the following if the inverter has not been in operation: • Polarity of the PV field input • Polarity of the DC link connection • AC phase sequence • AC vol[...]

  • Page 30

    Alarm and fault messages 4.2 Alarm and fault messages 30 Table 4-2 ISO fault ISO fault Damaged, worn-through cable s (loose, buffeted by wind) Cables damaged by animals Water in junction box Damaged insulation and ingre ss of water to cable duct Defective power unit Bending device defective Defect in PV module (damaged) Causes High air humidity (ca[...]

  • Page 31

    Alarm and fault messages 4.2 Alarm and fault messages 31 Table 4-3 Fault 0 (Alarm) General fault on transformer Condition The hardware contact in the power unit has tripp ed. Causes There is a defect in the inverter. Measures Replace the affected components. Replace the drive. Table 4-4 Faults 1 and 33 Message 1 (alarm): Inverter is signalin g over[...]

  • Page 32

    Alarm and fault messages 4.2 Alarm and fault messages 32 Causes Inlet air temperature too high o Air inlet to switchroom is blocked o Air outlet from switchr oom is restri cted o Ambient temperature is too high Replace the defective components Check the parameter settings Measures Clean or enlarge the air inl et Table 4-5 Faults 4 and 47 Fault 4 (a[...]

  • Page 33

    Alarm and fault messages 4.2 Alarm and fault messages 33 Table 4-9 Fault 36 (Alarm) AC contactor defective (no ch eckba ck), or Fast Stop button pressed Condition There is no signal at i nput 11/12 of the CU (green connector); transferred via Prof ibus to the S7; drive has received an ON command. No power supply for Fast OFF o Fast Stop button has [...]

  • Page 34

    Alarm and fault messages 4.2 Alarm and fault messages 34 Table 4-11 Fault 39 (Alarm) DC link overvoltage Condition The CU has detected a DC voltage in excess of the permissible value Causes The measured DC voltage is too high o The available DC voltage is too high ⇒ The PV field has been connected incorrectly (the voltage rises too sharply at hig[...]

  • Page 35

    Alarm and fault messages 4.2 Alarm and fault messages 35 Table 4-13 Fault 43 (Alarm) Vce monitor has respond ed Condition The CU has detected an inadmissible circuit voltage (voltage on semiconductor module between emitter and collector). Power unit is defective (variou s components could be the source of the problem) Transformer is defective Cause[...]

  • Page 36

    Alarm and fault messages 4.2 Alarm and fault messages 36 Table 4-16 Fault 63 (Alarm) Direct current too high Condition The CU / S7 has detected a direct current in excess of the set permissible limit Parameter setting error (S7 software) Parameter setting error ( CU software) Open circuit (detected by the S7 and i ndicated by this fault code) Cause[...]

  • Page 37

    Alarm and fault messages 4.2 Alarm and fault messages 37 Table 4-19 Fault 91 (Alarm) Fuse has trip ped Condition No power supply available for signali ng circuit A contact in the signaling circuit is open o A fuse has tripped o Fuse is not inserted, or not corre ctly inserted o Other contacts (AC cabi net, medium voltage) are open No power supply f[...]

  • Page 38

    Alarm and fault messages 4.2 Alarm and fault messages 38 Table 4-22 Fault 94 (Alarm) Profibus system h as failed Condition The S7 has detected serious erro rs on the Profibus Equalizing current on the Profibus ca ble shield The Profibus cable shield is not prope rly connected Terminating resistors are not correctly set No power supply available at [...]

  • Page 39

    Alarm and fault messages 4.2 Alarm and fault messages 39 Table 4-24 Fault 96 (Alarm) Grid voltage outside tolera nce Condition The CU has detected that the grid voltage is outside the set tolerance limits Grid voltage outside tolerance o No power supply o Unstable power supply o Medium-voltage breaker has tripp ed (if installed) o Control oscillati[...]

  • Page 40

    Alarm and fault messages 4.2 Alarm and fault messages 40 (Alarm) Symmetry fault Condition The S7 routine for monitoring symmetry has detecte d an imbalance Alarm in the PV field o Automatic fuse or fusible link in the junction box has tripped o Fuse at the DC input has tripped o PV module is defective o Defect in the PV field cabling Causes Alarm a[...]

  • Page 41

    Support 5.1 Contact addresses 41 5 Support 5.1 Contact addresses The support hotline for SINVERT can be reached via the contact methods listed b elow from Monday to Friday between 8 am and 5 pm CET: Phone: +49 911 750-2211 Fax: +49 911 750-2246 E-mail: sinvert-service.i-ia@siemens.com Internet: www.siemens.de/sinvert www.siemens.com/sinvert[...]

  • Page 42

    42 Siemens AG Indus try Sect or, I A SE S P V P.O. Box 2355 90766 Fuerth GERMANY Subject to change © Siemens AG 2009 www.siemens.com[...]