Manuals / SRS Labs / Home Audio / Stereo Amplifier

SRS Labs SR530, Lock-In Amplifier manual 22U MIN, Pin D, Gpib Shielded, CX1

Models: SR530 Lock-In Amplifier

1 82
Download 82 pages 49.26 Kb
Page 63
Image 63

SR530 COMPONENT PARTS LIST

REF.

SRS part#

VALUE

DESCRIPTION

C 802

5-00012-501

330P

Capacitor, Ceramic Disc, 50V, 10%, SL

C 803

5-00012-501

330P

Capacitor, Ceramic Disc, 50V, 10%, SL

C 804

5-00052-512

.01U

Cap, Stacked Metal Film 50V 5% -40/+85c

C 805

5-00052-512

.01U

Cap, Stacked Metal Film 50V 5% -40/+85c

C 806

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 807

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 808

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 809

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 901

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 902

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 903

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 904

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 905

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 906

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 907

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 908

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 909

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 910

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 911

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 912

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 913

5-00035-521

47U

Capacitor, Electrolytic, 25V, 20%, Rad

C 914

5-00035-521

47U

Capacitor, Electrolytic, 25V, 20%, Rad

C 915

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 916

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 917

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 918

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 919

5-00035-521

47U

Capacitor, Electrolytic, 25V, 20%, Rad

C 920

5-00035-521

47U

Capacitor, Electrolytic, 25V, 20%, Rad

C 923

5-00192-542

22U MIN

Cap, Mini Electrolytic, 50V, 20% Radial

C 924

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 925

5-00046-510

2200U

Capacitor, Electrolytic, 50V, 20%, Ax

C 926

5-00046-510

2200U

Capacitor, Electrolytic, 50V, 20%, Ax

C 927

5-00192-542

22U MIN

Cap, Mini Electrolytic, 50V, 20% Radial

C 928

5-00192-542

22U MIN

Cap, Mini Electrolytic, 50V, 20% Radial

C 929

5-00034-526

100U

Capacitor, Electrolytic, 35V, 20%, Rad

C 930

5-00034-526

100U

Capacitor, Electrolytic, 35V, 20%, Rad

C 931

5-00034-526

100U

Capacitor, Electrolytic, 35V, 20%, Rad

C 932

5-00034-526

100U

Capacitor, Electrolytic, 35V, 20%, Rad

C 933

5-00103-524

1.0U

Capacitor, Tantalum, 50V, 20%, Rad

C 934

5-00103-524

1.0U

Capacitor, Tantalum, 50V, 20%, Rad

C 935

5-00036-522

6800U

Cap, Electro. 25V 10% Ax, Mallory TCX

C 936

5-00056-512

.1U

Cap, Stacked Metal Film 50V 5% -40/+85c

C 937

5-00056-512

.1U

Cap, Stacked Metal Film 50V 5% -40/+85c

C 938

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

C 939

5-00100-517

2.2U

Capacitor, Tantalum, 35V, 20%, Rad

CN801

1-00014-160

9 PIN D

Connector, D-Sub, Right Angle PC, Female

CN802

1-00016-160

RS232 25 PIN D

Connector, D-Sub, Right Angle PC, Female

CN803

1-00238-161

GPIB SHIELDED

Connector, IEEE488, Reverse, R/A, Female

CX1

5-00010-501

270P

Capacitor, Ceramic Disc, 50V, 10%, SL

CX713

5-00014-501

390P

Capacitor, Ceramic Disc, 50V, 10%, SL

CX714

5-00014-501

390P

Capacitor, Ceramic Disc, 50V, 10%, SL

59

Page 62 Page 64
Page 63
Image 63
SRS Labs SR530, Lock-In Amplifier manual 22U MIN, Pin D, Gpib Shielded, CX1
Page 62 Page 64

SR530, Lock-In Amplifier specifications

The SRS Labs Lock-In Amplifier, model SR530, is a powerful tool designed for high-precision measurements in the realm of scientific research and industrial applications. This state-of-the-art instrument excels in extracting small signals from noisy environments, making it an invaluable asset for experiments in fields such as physics, engineering, and materials science.

One of the main features of the SR530 is its ability to perform synchronous detection, which is key to improving signal-to-noise ratios. By utilizing a reference signal, the device correlates the incoming signal with the reference to effectively filter out noise, allowing for the accurate measurement of weak signals that might otherwise be obscured. This process of phase-sensitive detection is fundamental to the operation of the Lock-In Amplifier.

The SR530 offers a wide frequency range, covering from 0.1 Hz to 100 kHz. This broad frequency response allows it to handle a diverse array of signals, making it suitable for various applications including optical detection, capacitance measurements, and in many cases, voltammetry. The device is also equipped with multiple inputs and outputs, facilitating the integration with other laboratory equipment and enabling complex experimental setups.

Precision is further enhanced with its adjustable time constant, which allows users to optimize the response time based on experimental needs. The user can choose time constants from 10 microseconds to 10 seconds, accommodating fast dynamic measurements as well as those requiring stability over longer durations.

Another remarkable characteristic of the SR530 is its digital processing capabilities. The device features a highly accurate digital voltage measurement system, minimizing drift and ensuring long-term stability. Additionally, the use of microprocessors enhances data handling and allows for features such as programmable settings, facilitating automated measurements.

Moreover, the SR530 includes a range of output options, including analog outputs, which can be used for direct signal processing, as well as digital interfaces for integration with computers. This ensures that users can not only capture high-fidelity data but also analyze and display it efficiently.

In conclusion, the SRS Labs SR530 Lock-In Amplifier stands out due to its sophisticated technology, versatile features, and robust performance. Its precision, flexibility, and ease of use make it an ideal choice for researchers and engineers looking to unlock the potential of weak signal measurement in complex environments.