Basler Electric BE1-11 Protection System I5A3M2P2N0EA00

Basler Electric BE1-11 Protection System I5A3M2P2N0EA00

customizing a preprogrammed logic scheme, or building a scheme from scratch. Files may be exported

from the GUI to a text editor where they can be reviewed or modified. The modified text file may then be

uploaded to the relay. After it is uploaded to the relay, it can be brought into the GUI but it cannot be

brought directly into the GUI from the text file. The GUI logic builder uses basic AND/OR gate logic

combined with point and click variables to build the logic expressions. This reduces the design time and

increases dependability.

The GUI also allows for downloading industry standard COMTRADE files for analysis of stored

oscillography data. Detailed analysis of the oscillography files may be accomplished using BESTwave™

software. For more information on Basler Electric's Windows based BESTCOMS (GUI) software, refer to

Section 14. BESTCOMS Software.

Getting Started

If your relay has Power Supply Option 1 or 2. it can be supplied by normal 120 Vac house power. These

two power supply options (1 and 2) are the midrange and high range AC/DC power supplies. The contact

sensing inputs are half-wave rectified opto-isolators. The default contact recognition and debounce

settings enable their use on ac signals as well as dc signals.

The BE1-GPS100 measures the A phase, B phase, and C phase current magnitudes and angles directly

from the three current sensing inputs. The neutral, positive, and negative-sequence magnitudes and

angles are calculated from the fundamental component of each of the three-phase currents. When

evaluating the negative-sequence functions, the relay can be tested using a single-phase current source.

To fully evaluate the operation of the relay in the power system, it is desirable to use a three-phase

current source.

Connect a computer to the front RS-232 port (refer to Section 12. Installation, for connection diagrams).

Apply power and Enter A= to gain setting access. Set the clock using the RG-TIME= and RG-DATE=

commands. (Refer to Section 11. ASCII Command Interface, for additional information.)

Entering Test Settings

Enter SG (Setting General) to get a listing of the general setting commands with default parameters and

put them in a text file as described previously in Batch Command Text File Operations. Then enter S0

(setting group 0) to get a listing of the group 0 protection setting commands with default parameters and

put them in a text file also. With these two sub-groups of settings, you will not see the global security

settings, user programmable BESTlogic settings, settings for protection Setting Groups 0 and 1. settings

for alarm functions, and the settings for breaker monitoring functions.

Open the SG file in a text editor, change settings, as required, and save the changes. For example:

• The ratios for the phase and neutral current transformers (CTP, CTG).

• The demand interval and CT circuit to monitor for the phase, neutral and negative-sequence

currents (DIP, DIN, DIQ).

• The nominal system frequency (FREQ).

• The normal phase-sequence (ABC or ACB, nominal secondary voltage and current) for the

system (PHROT).

• Open the S0 file in a text editor, change settings as required, and save the changes.

Do not forget to add E;Y (Exit; Save Settings? Yes) to the end of both files. Enter A= to gain setting

access and then send each of these text files to the relay as described above under Batch Command

Text File Operations.

As you gain knowledge of the relay, you can experiment with the rest of the settings. To set up a file with

all user settings, enter S and the relay will respond with all settings in command format. For

documentation, the user should use the Print command in BESTCOMS settings.

Default settings can be found several different ways. The default preprogrammed logic scheme is BASIC

LZ. Section 8. Application, lists all of the default logic settings for the default logic scheme. If you wanted

to know the default logic setting for the phase instantaneous overcurrent element, you could look at the

default listing and find that SL-50TP=1./VO14. Translated, this means that the setting, logic – phase

instantaneous overcurrent is enabled (1) and is blocked when Virtual Output 14 is not TRUE. You could

also look in Section 4. Protection and Control, find the table for the logic settings. It lists the same

information, but it lists the mode and block inputs separately. If you want to find the default settings for an

input or output, look in Section 3. Input and Output Functions.

ADLINK base plate HPCI14S REV.B1

ADLINK EBP-13E4 PCI-E industrial computer device motherboard

Motherboard ADLINK M-322

ADLINK HPCI-14S12U 0040 GP 51-46237-0A20 back plane HPCI14S12U 0040 GP 51462370A

Adlink PCI-7853 51-24007-0A30 PCB Board

ADLINK, PLX / PCI-7296 0060 GP 51-12009-0A5o / PCI Card

ADLINK IEC-915GV REV:1.1 Industrial Control Equipment Motherboard

ADLINK / PCI-7432 0050GP, 51-12013-0A5o / PCI CARD

ADLINK cPCI-8994+(G)-1010 51-32605-1A10 4Port Serial Communication Board

ADLINK NuPRO-842LV/P industrial control motherboard

Adlink ETX-NR667-L7400/LXE ETX Module with Intel Core 2 Duo L7400 Processor

ADLINK USB-1605

Adlink motherboard, PCIe-GIE74. NOS, LG-4065

ADLINK IMB-M42H (G)-0020 industrial control motherboard

ADLINK industrial computer motherboard NuPRO-E315

Adlink PCI-8134 006 PCI-8134-006 motion controller card Tested

Adlink PCI-7230 16-channel Isolated Digital Input/Digital Output Card

ADLINK LPCI-7230 51-12020-0A10

Adlink LPCIe-8124-C 51-18803-0A20

ADLINK IMB-T10/D2550 V MOTHER BOARD 80-PXG160-A1A01. IMB-T10-M2G-S32G

ADLINK Industrial Computer Baseboard EBP-13E4 pciE Baseboard

ADLINK PCI-7200 REV.A3 acquisition card

ADLINK TECHNOLOGY HSL-DI16DO16-UD-NN

ADLINK / PCI-9112 / PCI Card, 51-12252-0D20

ADLINK NuPRO-E330 51-41805-0A20

Adlink motherboard NuPRO-770 51-41307 REV.A2

Adlink 3A488-LPCI Card

Adlink PCI-9112 51-12252-0D20 GP00C0 Data Collection Card PCB-I-E-1504=6EX2