Balast de referință reglabil

1. Introducere

DYJ Adjustable Reference Ballast is suitable for all power-frequency fluorescent lamps currently in use worldwide. When conducting photometric and electrical parameter tests on lamps, it is essential to ensure that the lamps operate under standard conditions to guarantee the accuracy of the data. Under these circumstances, the use of a reference ballast is absolutely necessary; otherwise, different ballasts will yield different test results.

Adjustable reference ballasts can provide different output specifications depending on the type of fluorescent lamp. Equipping each lamp with a separate reference ballast would be extremely costly and would make usage and management inconvenient. Furthermore, this approach would not facilitate the testing of optical and electrical parameters. To address these issues, Lisun Grupul a dezvoltat DYJ-50HZ/DYJ-60HZ adjustable reference ballasts to meet customers’ diverse needs.

DYJ Adjustable Reference Ballast strictly complies with the following relevant standards for 50 Hz/60 Hz utility-frequency fluorescent lamps: IEC 60081 (GB/T 10682), IEC 60901 (GB/T 17262), ANSI C78.81 and ANSI C82.3

With the advancement of LED technology, DYJ can also be used to test LED lamps that replace traditional fluorescent lamps.

2. Basic Principles and Key Technical Specifications

Specificatiile tehnice pentru DYJ Multi-Purpose Reference Ballast are as follows:

Inductance L: 0–1240 Ω

Impedance Linearity Error (within the range of 100 Ω to 1240 Ω) +1%

Resistance R: 0–111 Ω

Operating Current Range 0.12 A to 0.67 A

Power Range of the Test Object 4–85 W

Figura 1: DYJ Diagrama panoului frontal

Nota: DYJ-50HZ tests all 50-Hz fluorescent lamps, while the DYJ-60HZ can test both 50-Hz and 60-Hz fluorescent lamps.

3. Steps to Follow

Conectați DYJ, the test lamp, the electrical parameter meter, and the AC power source to the circuit as shown in Figure 2 (we recommend using the LISUN LSP-500VAR clean power supply for the AC power source, and either the Yokogawa WT310 or the LISUN LS2008R for the electrical parameter meter):

Figure 2: Wiring Diagram for the Test Tube

Locate the “Calibration Certificate” issued by LISUN Laboratory or a third-party laboratory (an additional fee applies for certificates issued by third-party laboratories). Depending on the type of lamp being tested, there are two possible scenarios:

Scenario 1: If the tube type and power of the lamp under test have corresponding Z and R values listed in the “Calibration Certificate” (Figure 3), adjust the corresponding Z and R values on the DYJ panel shown in Figure 2, then output the AC power. At this point, the lamp under test should illuminate, and the corresponding U/I/P/PF values can be measured using the electrical parameter table.

Figure 3: “Calibration Certificate” issued by a third-party laboratory

Scenario 2: If the corresponding Z and R values for the tested lamp’s type and power cannot be found in the Calibration Certificate, you must first determine the Z and R values yourself by following the steps below, and then proceed with the test as described in Scenario 1.

Connect the calibration circuit as shown in Figure 4 (we recommend using the LISUN LSP-500VAR clean power supply for the AC power source and the Yokogawa WT310 electrical parameter meter).

Figure 4: Wiring Diagram for Self-Calibration of Z and R Values

Based on the power rating and tube type of this lamp, refer to the IEC international standard(see Example 1), the GB Chinese standard (see Example 1), or the ANSI American standard (see Example 2), locate the corresponding rated ballast current (or rated lamp current), ballast impedance, frequency, and rated ballast power factor.

Adjust the Z setting on the DYJ panel so that Z equals the ballast impedance; adjust the R setting on the DYJ panel so that R equals 0.

Calculate the input voltage as the rated current multiplied by the resistance, and adjust the voltage and frequency corresponding to the output of the LSP-500VAR AC power supply.

Fine-tune the Z setting on the DYJ panel so that the current reading on the WT310 electrical parameter meter is close to the rated ballast current specified in the standard (increasing Z reduces the current value).

Adjust the R tap on the DYJ panel so that the power factor of the WT310 electrical parameter meter approaches the rated power factor (start by adjusting the x0.1 and x1 settings on the R tap; increasing the R value increases the rated ballast power factor).

Reveniți la DYJ panel and adjust the X1 setting in the Z position so that the current reading on the WT310 electrical parameter meter is as close as possible to the rated current specified in the standard.

Record the Z and R values on the DYJ panel at this time for the next test of this lamp tube.

How to find the corresponding rated ballast current (or rated lamp current), ballast impedance, frequency, and rated ballast power factor in IEC international standards, GB Chinese standards, or ANSI C78.81 U. S. standards:

Example 1: IEC International Standards (GB Chinese Standards)

As shown in the figure below, take a 50 Hz, 6 W fluorescent tube as an example. According to the standard, the rated current of the tube is I = 0.160 A, the ballast impedance is 700 Ω, the frequency is 50 Hz, and the power factor is 0.12.

Example 2: ANSI C78.81 U. S. Standard

Taking a 40W T10 fluorescent tube as an example, the following information can be found in the standard: the ballast’s rated current is 0.430 A, its impedance is 439 Ω, and the power factor is specified. Complete the calibration according to the above procedure.

4. Note importante

The two terminals on the bottom of the instrument serve the same function as the two terminals on the panel.

Cand DYJ este conectat la LISUN'S LPCE-1 system cabinet and the lamp tube is placed inside the Integrating Sphere, the switch on the CASE-19IN cabinet should be set to the “TUBE” position.

DYJ-60HZ instrument panel is equipped with three terminals. When testing the parameters of 220V, 50Hz FL6W and CFL9W lamps, use terminals 1 and 3; when testing the parameters of other lamps, use terminals 1 and 2.

Soluție de testare pentru corpuri de iluminat LED și drivere de putere LED

Sistem goniofotometric: LSG-2000, LSG-1800B sau LSG-1600B

Spectroradiometru și sistem de testare a sferei integratoare: LPCE-2

LED Life menține un sistem de testare în conformitate cu LM-80: LEDLM-80PL

Test de impermeabilitate pentru nivelurile IPX5 și IPX6: JL-56

Mașină de testare a etanșeității la praf pentru testarea IP5X și IP6X: SC-015

Testere de drivere de putere LED: WT2080 (pentru laborator) și ATE-2 (pentru linia de producție)

Tester de siguranță electrică: LS9934

Soluție de testare CFL și balast electronic

Sistem goniofotometric: LSG-1800B sau LSG-1600B

Integrarea sistemului de testare cu sferă și spectrofotometru: LPCE-1

Balast de referință reglabil: DYJ-50HZ, HCS-105A și DYJ-HID

Tester de balast electric: WT5000 (pentru laborator) și ATE-1 (pentru linia de producție)

Torsometru digital și tester de durată de viață multidirecțională: CH338 și CH316

Tester de siguranță electrică: LS9922I, ZRS-3H, ZY-3

Soluții de testare EMC și EMI pentru corpuri de iluminat CFL și LED

Sistem de testare EMI: KH3962 sau KH3961

Simulator de descărcare electrostatică: ESD61000-2

Măsurarea imunității EFT: EFT61000-4

Generator de supratensiune: SG61000-5

Generator de căderi de tensiune și întreruperi: CSS61000-11

Generator de unde inelare: RWG61000-12

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