Read this first Warranty and Product Support Warranty Product Assistance Maintenance Agreements Staying Up to Date Service and Repair How to Return a Product What Comes with your Scope General Information Product Assistance Installation for Safe and Efficient Operation Operating Environment Safety Symbols Power Requirements Cleaning and Maintenance...
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Theory of Operation Memory Mapping 9601-2 Board: VGA proper termination Bus Sizer 16 and 8-bit peripherals PCMCIA Interface Flash Prom NVRAM Interrupt Controller Floppy Controller Centronics Small Peripheral Interface Serial Interface For On Board Peripherals Front Panel Watchdog and Reset Generation Bus Error Generation I/O Structure &...
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Theory of Operation 4.2.7 Time Base 4-18 Introduction 4-18 Figure 4-12: Time Base Block Diagram 4-18 F9301-4 GPIB & RS232 Interface 4-19 4.3.1 GPIB/RS232 Interface Block Diagram 4-19 Figure 4-13: GPIB/RS232 Interface Block Diagram 4-19 4.3.2 RS232 Serial Interface 4-19 4.3.3 GPIB Interface 4-19...
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Performance Verification 5.6.2 RMS Noise 5-18 5.6.2.a DC 1MΩ 5-18 5.6.2.b AC 1MΩ 5-19 5.6.2.c DC 50Ω 5-20 5.6.2.d DC 50Ω, 2 Channel Mode 5-21 5.6.3 Ground Line Test 5-23 5.6.3.a DC 1MΩ 5-23 5.6.3.b DC 50Ω 5-26 5.6.3.c DC 50Ω, 2 Channel Mode 5-27 DC Accuracy 5-28...
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Performance Verification 5.11.2.a Pulse Width < 100 nsec 5-70 5.11.2.b Pulse Width > 100 nsec 5-70 5.12 Time Base Accuracy 5-71 5.12.1 Description 5-71 5.12.2 500 MHz Clock Verification Procedure 5-71 5.13 Overshoot and Rise time 5-73 5.13.a DC 50Ω 5-73 5.13.b DC 1MΩ...
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Maintenance Introduction 6.1.1 Safety Precautions 6.1.2 Antistatic Precautions Disassembly and Assembly Procedure 6.2.1 Disassembly Procedure 6.2.1.a Removal of the Front Bezel 6.2.1.b Removal of the Upper Cover Assembly 6.2.1.c Removal of the Front Frame with Color Monitor 6.2.1.d Removal of the Processor Board 6.2.1.e Removal of the Power Supply Assembly 6.2.1.f...
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Replaceable Parts LC684D, LC684DM, LC684DL & LC684DXL 9615-GP01 Graphic Printer Assembly F9300-7 Printer Controller F9300-8 Hard Disk Interface F9301-4 GPIB & RS232 Interface F9601-11-16 Processor with 16 Mbytes Memory F9601-11-64 Processor with 64 Mbytes Memory S9601-11 Processor Card without DRAM Memory F9601-2 Centronics &...
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Mechanical Parts Figure 8-1: LC684D/DM/DL/DXL Cabinet Figure 8-2 LC684D/DM/DL/DXL Chassis Assembly Cabinet Replaceable Parts Chassis Replaceable Parts Figure 8-3: Power Supply Installation Figure 8-4: LC684D Lower Cover Assembly Power Supply Installation Replaceable Parts Lower Cover Replaceable Parts Figure 8-5: Lower Cover with CKTRIG Option Figure 8-6: Lower Cover Lower Cover with CKTRIG Option Replaceable Parts Lower Cover Replaceable Parts...
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Schematics, Layouts, Parts List F9300-7 Graphics Printer Controller Schematic F9300-7 Graphics Printer Controller Layout F9300-7 Graphics Printer Controller Parts List F9300-8 Hard Disk Interface Schematic F9300-8 Hard Disk Interface Layout F9300-8 Hard Disk Interface Parts List F9301-4 GPIB & RS232 Interface Schematic 9-10 F9301-4 GPIB &...
LeCroy authorized service center. However, this will be done only if the product is determined after examination by LeCroy to be defective due to workmanship or materials, and not to have been caused by misuse, neglect or accident, or by abnormal conditions or operation.
Outside the warranty period, you will need to provide us with a purchase order number before we can repair your LeCroy product. You will be billed for parts and labor related to the repair work, and for shipping.
General Information Product Assistance Help on installation, calibration, and the use of LeCroy equipment is available from your local LeCroy office, or from LeCroy’s • Customer Care Center, 700 Chestnut Ridge Road, Chestnut Ridge, New York 10977–6499, U.S.A., tel. (914) 578–6020 •...
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The oscilloscope has not been designed to make direct measurements on the human body. Users who connect a LeCroy oscilloscope directly to a person do so at their own risk. 2-2 General Information...
Cleaning And Maintenance Maintenance and repairs should be carried out exclusively by a LeCroy technician (see Chapter 2). Cleaning should be limited to the exterior of the instrument only, using a damp, soft cloth. Do not use chemicals or abrasive elements. Under no circumstances should moisture be allowed to penetrate the oscilloscope.
Acquisition Modes Random Interleaved Sampling (RIS): 25GS/s. For repetitive signals from 200 ps/div to 1 µs/div. Single shot: For transient and repetitive signals from 1 ns/div (2 Ch), 2 ns/div (4Ch) Sequence: Stores multiple events- each of them time stamped- in segmented acquisition memories.
Smart Trigger Types Pattern: Trigger on the logic combination of 5 inputs - CH1, CH2, CH3, CH4 and EXT Trigger, where each source can be defined as High, Low or Don't Care. The Trigger can be defined as the beginning or end of the specified pattern Signal or Pattern Width: Trigger on glitches as short as 600 ps or on pulse widths Within/outside two limits selectable from 600 ps to 20 s.
Display Type: Color 10.4" TFT-LCD. Resolution: VGA (640X480 pixels) Display Area: 212mm x 160mm Controls: Menu controls for brightness and color selection. Grid Styles: Single, Dual, Octal, XY, Single+XY, Dual+XY, and Full Screen An enlarged view of each grid style. Graticules: Internally generated;...
3.10 Waveform Processing Up to four processing functions may be performed simultaneously. Functions available are: Add, Subtract, Multiply, Divide, Negate, Identity, Summation Averaging, Sine x/x, Integral, Derivative, Square Root, Ratio, Absolute Value and the advanced functions listed below. Average: Summed averaging up to one million sweeps. Extrema: Roof, Floor, or Envelope values up to one million sweeps.
3.11 Interfacing Remote Control: All front-panel controls as well as all internal functions are possible by GPIB and RS-232-C. RS-232-C Port (Standard): Asynchronous up to 115.2 kBaud for computer/terminal control or printer/plotter connection. GPIB Port (Standard): (IEEE-488.2) Configurable as talker/listener for computer control and fast data transfer.
Theory of Operation Processor Board : F9601-11-16 MPC603e Processor This processor board is based on the Power MPC603e processor. It is a 64-bit RISC processor with 2x32kbyte cache. It features high speed processing and fast memory accesses. The F9601-11-16 processor is set to an internal clock of 96MHz and is used in a 32- bit mode.
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Processor Block Diagram 9601-1-x CPU board Block diagram RA 10.95 PowerPC 603e CPU VGA video Dynamic bus sizer DRAM VGA65545 MC68150 max.2x128MB RS232 & GPIB 9300-4 Small peripherals PCMCIA I / II Flash PROM PCMCIA III 9300-8 max.2MB NVRAM 32kB interrupt controller uPD71059 floppy controller...
DRAM The DRAM consists of two SIMM modules from 4 MB up to 32 MB each. By interleaving two SIMMs, the access time is dramatically reduced (one beat every 30ns, while the other module “recovers” from the previous access). The DRAM control logic, including refresh control, is built around several GALs and a few gates.
Memory Mapping By default, the board is set to the biggest memory size possible. The software checks out for “holes” in the addressing space, and sets accordingly two configuration lines, MAP1 and MAP0. MAP1..0 meaning 2x4, single sided SIMMs 2x8 MB SIMMs 2x32 MB SIMMs The VGA 65545 controller chip (A27) includes its own address decoding logic.
Bus Sizer The MPC603e processor does not support dynamic bus sizing, as did the 68k family. Many parts of the software and the hardware rely on that feature. A Motorola MC68150 chip ‘translates’ the PowerPC 32-bit data bus to a 68030 8 or 16-bit bus. Except DRAM and VGA controller, all peripherals work on this 68k-type bus.
Flash PROM Two Intel 28F008-compatible 1MB PROMs (A24 and A25), are used. From a hardware point of view, a flash PROM is the same as an EPROM in read mode. To write to it, however, a programming voltage (Vpp) needs to be applied to a pin.
Small Peripheral Interface This 8-bit interface is intended to allow external expansion to the processor board. A56 and A53 (74HCT541 tri-state buffers) buffer the address and control lines, and A62 (74HCT245, bi-directional tri-state buffers) buffer the data lines. The address decoding is done on each peripheral board. The acknowledge for each access is also done by the peripheral device, so that there is no restriction on wait-states.
The power supply is monitored by a TL7770-5 chip. Whenever the Vcc voltage goes below 4.8V (even for a short time !), a reset pulse is generated, whose width is determined by an RC time constant (33uF and internal resistor). The second half of this chip serves as watchdog circuit.
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32-bit Extension DRAM NVRAM Flash PROM CARDAN PCMCIA Connector 32-bit VIADUC Internal Centronics External PROFIL Centronics Floppy Interrupt Controller GRANDS PETITS Small Peripherals Demultiplexer Front Panel LEDs SAVEUR SEVERE Front Panel 93xx-3 Real Time Serial Transfer Clock CLExxx 16-bit 8-bit Fig 4-2: Peripheral Decoding and Data Bus Size Not shown in Fig.4-2, are a few GALs for miscellaneous functions (like DRAM refreshing).
900079 Main Board 4.2.1 Introduction The board is divided into five sections : • Microprocessor control based on the MTC428 EPLD pair. • Front-end based on the Hybrid HFE444 & HSY430 switchyard board to combine the input channel. • Trigger based on the Hybrids HTR420 discriminator & MST429A smart trigger •...
Power off State : 1 MΩ input signal - 1.4V 20 db ÷10 L on HiZ/LowZ LowZ board offset - 1.4V + 1.4V LowZ offset HFE444 To trigger + 1.4V Offset HiZ/LowZ Used during AC/DC Variable Gain buffer ÷20 Fig 4-3: Front End Power off State •...
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50Ω input : Direct Path signal - 1.4V 20 db ÷10 L on HiZ/LowZ LowZ board offset - 1.4V + 1.4V LowZ offset HFE444 To trigger + 1.4V Offset HiZ/LowZ Used during AC/DC Variable Gain buffer ÷20 Fig 4-4: 50Ω input direct path 50Ω...
1MΩ input : Direct Path signal - 1.4V 20 db ÷10 L on HiZ/LowZ LowZ board offset - 1.4V + 1.4V LowZ offset HFE444 To trigger + 1.4V Offset HiZ/LowZ Used during AC/DC Variable Gain buffer ÷20 Fig 4-6: 1MΩ direct path 1MΩ...
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4.2.3 900079 Acquisition Block Diagram Fig 4.8: Front End, Trigger, Sample&Hold, Analog to Digital, Memory 4-14 Theory of Operation...
4.2.4 Two and Four Channel mode Four channel mode • All BNC inputs are active ADC 1 JSY1000 JSY1500 HFE428 11, 14 3, 6 INSEL1_A 3, 6 11, 14 ADC 2 A1003 FE output A: 8 (C if trigger source) HAM421 INSEL2_A A1500...
4.2.6 Trigger The different trigger couplings are : • DC • AC : cut off frequency is almost 10 Hz. • LF REJ : single pole high pass filter with a cut off frequency at 50 kHz. • HF REJ : single pole low pass filter with a cut off frequency at 50 kHz.
4.2.8 Time Base Introduction The time base includes three circuits: • MCG426: generates sampling clocks: 12.5 MHz up to 2GHz generates clocks for the MTB411 interleaves sampling clocks to increase sampling rate and memory depth. • MTB411A: Time Base System TDC interpolator and Real Time computation Trigger circuitry Frequency divider...
F9301-4 GPIB and RS 232 Interface 4.3.1 Block Diagram Address TNT4882 GPIB Decoding and GPIB Controller Connector Logic Control 100-pins QFP 24-Pins Peripheral Female Connector Address Bus 40 Mhz CMOS Max232A UART 16C650 RS-232C RS-232C Serial Controller DB-9 Male Interface 44-pins PLCC Connector 8-bit Data Bus...
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LCDFP9615 Front Panel The front panel assy is connected to the processor board with a flat cable. Power supply and control signals are supplied from the processor. The front panel is divided into several sections: • Display using 10.4inch TFT color LCD Module •...
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DC Output Specifications Output Adjustment Nominal Maximum Range Load Load +5 (1) +4.8 to +5.4V +3 (1) +2.9 to +3.5V -2 (1) -1.9 to –2.6V -5 (1) -4.8 to -5.4V +6 (1) +5.6 to +6.2V 2.5A -6 (1) -5.6 to -6.2V 2.5A +14.8 to +15.4V 2.5A...
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4.6.2 Power Supply Block Diagram 4-22 Theory of Operation...
Performance Verification Introduction This chapter contains procedures suitable for determining if the LC564DL Digital Storage Oscilloscope performs correctly and as warranted. They check all the characteristics listed in subsection 5.1.1. Because they require time and suitable test equipment, you may not need to perform all of these procedures, depending on what you want to accomplish.
50Ω, BNC T adapter Table 5-1 : Test Equipment 5.2.1 Test Records The last pages of this document contain LC564DL test records in the format tables. Keep them as masters and use a photocopy for each calibration. Turn On If you are not familiar with operating the LC564DL, read the operator's manual.
Input Impedance Specifications DC 1.00 MΩ ±1 % AC 1.027 MΩ ±2 % DC 50Ω ±1.25 % EXT DC 50Ω ±3% EXT DC 1.00 MΩ ±2% The impedance values for 50Ω, 1MΩ and Gnd couplings are measured with a high precision digital multimeter. The DMM is connected to the DSO in 4-wire configuration (input and sense), allowing for accurate measurements.
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! Set the DMM with Ohms and Ohms sense to provide a 4 wire measurement. ! Connect it to Channel 1. ! Measure the input impedance. Record it in Table 2, and compare it to the limits. ! Repeat the above test for all input channels. ! Recall LC564D002.PNL or Set Input gain to 200 mV/div.
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! Recall LC564D004.PNL or Set Input gain to 200 mV/div on all 4 Channels. ! Repeat the test for all input channels. ! Record the measurements in Table 2, and compare the results to the limits in the test record. c.
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5.4.2 External Trigger Input Impedance a. DC 1MΩ Ω Ω Ω ! Recall LC564D007.PNL or configure the DSO : Trigger mode Auto Select Setup trigger Trigger on Cplg Ext DC 1MΩ Ω Ω Ω External 50 µ µ µ µ sec/div. Time base ! Connect the DMM to External, and measure the input impedance.
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b. DC 50Ω Ω Ω Ω ! Recall LC564D009.PNL or configure the DSO : Select Setup trigger Trigger on DC 50Ω Ω Ω Ω External ! Connect the DMM to External, and measure the input impedance. ! Record the input impedance in Table 2, and compare the result to the limit in the test record.
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! Measure the input impedance. ! Record the input impedance in Table 2, and compare the result to the limit in the test record. 5.4.3 Ground ! Recall LC564D011.PNL or configure the DSO as shown in 5.4.1.a, and for each Channel make the following changes : Input Coupling Grounded ! Connect the DMM to Channel 1, and measure the input impedance.
Leakage Current Specifications DC 1MΩ, AC 1MΩ, DC 50Ω, EXT DC 50Ω : ±1 mV EXT DC1MΩ : ±2 mV The leakage current is tested by measuring the voltage across the input channel. 5.5.1 Channel Leakage Current a. DC 1MΩ Ω Ω Ω ! Recall LC564D012.PNL or configure the DSO : Panel Setups Recall FROM DEFAULT SETUP...
! Measure the voltage and enter it in Table 3. Compare it to the limits. ! Repeat the test for all input channels. ! Recall LC564D013.PNL or set Input gain to 200 mV/div. on all 4 Channels ! Repeat the test for all input channels. Record the measurements in Table 3, and compare the results to the limits in the test record.
b. DC 50Ω Ω Ω Ω EXT/5 ! Recall LC564D017.PNL or configure the DSO as shown in 5.5.1.a and make the following changes : Select Setup trigger Set Trigger on EXT/5 DC 50Ω Ω Ω Ω External ! Connect the DMM to External. ! Measure the voltage and enter it in Table 3.
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Record up to 50 k Samples Press Cursors/Measure Measure Parameters Mode Custom Statistics Change parameters Category On line 1 Measure pkpk of Ch1 On line 2 Measure pkpk of Ch2 On line 3 Measure pkpk of Ch3 On line 4 Measure pkpk of Ch4 On line 5 no parameter selected for line 5...
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! Press Clear Sweeps. ! Measure for at least 50 sweeps, then press Stop to halt the acquisition. ! Record the four high pkpk parameter values in Table 4, and compare the test results to the limits in the test record. ! Repeat the test for Time base : 1 msec/div.
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c. DC 50Ω Ω Ω Ω ! Recall LC564D020.PNL or configure the DSO as shown in 5.6.1.a, and for each Channel make the following changes : DC 50Ω Ω Ω Ω on all 4 Channels Input Coupling 2 µ µ µ µ sec/div Time base ! Press Clear Sweeps.
d. DC 50Ω Ω Ω Ω , 2 Channel Mode Channel 2 & Channel 3 ! Recall LC564D021.PNL or configure the DSO as shown in 5.6.1.a. and make the following changes : DC 50Ω Ω Ω Ω on all 4 Channels Input Coupling Input gain 10 mV/div.
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! Check that the Sampling rate is 4 GS/s ! Press Clear Sweeps. ! Measure for at least 50 sweeps, then press Stop to halt the acquisition. ! Record the two high pkpk of Ch2 & Ch3 in Table 4, and compare the test results to the limits in the test record.
5.6.2 Rms Noise Specifications 0.9 % of full scale or 0.72 mV at 10 mV/div. a. DC 1MΩ Ω Ω Ω Procedure With no signal connected to the inputs ! Recall LC564D024.PNL or configure the DSO : Panel Setups Recall FROM DEFAULT SETUP Channels Trace ON Channel 1, Channel 2, Channel 3 &...
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! Press Clear Sweeps. ! Measure for at least 50 sweeps, then press Stop to halt the acquisition. ! Record the four high sdev parameter values in Table 5, and compare the test results to the limits in the test record. ! Repeat the test for Time base : 1 msec/div.
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! Record the four high sdev parameter values in Table 5, and compare the test results to the limits in the test record. c. DC 50Ω Ω Ω Ω ! Recall LC564D026.PNL or configure the DSO as shown in 5.6.2.a and make the following changes : DC 50Ω...
! Record the four high sdev parameter values in Table 5, and compare the test results to the limits in the test record. ! Repeat the test for Time base : 20 µ µ µ µ sec/div. ! Record the measurements (high sdev of 1,2,3,4) in Table 5, and compare the results to the limits in the test record.
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Select Time base Setup Channel use Press Cursors/Measure Change parameters On line 1 Measure sdev of Ch2 On line 2 Measure sdev of Ch3 ! Check that the Sampling rate is 4 GS/s ! Press Clear Sweeps. ! Measure for at least 50 sweeps, then press Stop to halt the acquisition. ! Record the two high sdev of Ch2 &...
5.6.3 Ground Line Test Specifications ± % of full scale at 2 mV/div. ± % of full scale at 5 mV/div. ± % of full scale at 10 mV/div. and above. Procedure The stability of the ground line is verified for each channel at each fixed gain. The measured average values are checked against the desired limits.
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Change parameters On line 1 Measure mean of A On line 2 Measure mean of B On line 3 Measure mean of C On line 4 Measure mean of D ! Press Clear Sweeps. ! After 100 sweeps record the mean value of A, B, C & D in Table 6, and compare the test results to the limits in the test record.
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b. DC 50Ω Ω Ω Ω ! Recall LC564D030.PNL or configure the DSO as shown in 5.6.3.a. and for each Channel make the following change: DC 50Ω Ω Ω Ω on all 4 Channels Input Coupling Input gain from 2mV/div to .2 V/div. (see Table 7) on all 4 Ch ! Press Clear Sweeps.
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c. DC 50Ω Ω Ω Ω , 2 Channel Mode Channel 2 & Channel 3 ! Recall LC564D031.PNL or configure the DSO as shown in 5.6.3.a. and make the following change : DC 50Ω Ω Ω Ω on all 4 Channels Input Coupling Input gain 0.2 V/div.
DC Accuracy Specification ≤ ±5 % of full scale at 2mV/div, with 0 mV offset. ≤ ±3 % of full scale at 5mV/div, with 0 mV offset. ≤ ±2 % of full scale at 10mV/div and above, with 0 mV offset. Description This test measures the DC Accuracy within the gain range specified.
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100 sweeps Cursors/Measure : Parameters Mode Custom Statistics Change parameters On line 1 Measure mean of A On line 2 Measure mean of B On line 3 Measure mean of C On line 4 Measure mean of D ! For the low sensitivities: 2 mV, 5 mV, 10 mV and 20 mV/div., connect the test equipment as shown in Figure 5-1.
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LC584AL 1GHz Oscilloscope Figure 5-2 : DC 50Ω Ω Ω Ω Accuracy Equipment Setup for 50 and 100 mV/div LC584AL 1GHz Oscilloscope Figure 5-3 : DC 50Ω Ω Ω Ω Accuracy Equipment Setup for 1 V/div. 5-30 Performance Verification...
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! For each DSO Volts/div, set the output of the external DC voltage reference source as shown in Table 8, column PS output. 1) Connect the DMM and record the voltage reading in Table 8, column DMM. 2) Disconnect the DMM from the BNC T connector. 3) Press Clear Sweeps 4) After 100 sweeps, read off the DSO mean parameter, and record the measurement in Table 8, column Mean.
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b. DC 1MΩ Ω Ω Ω Procedure ! Recall LC564D046.PNL or configure the DSO as shown in 5.7.1.a. and make the following change : Input gain : 5mV/div, 0.1 V/div, and 2V/dv (see Table 10) on all 4 Ch : DC 1MΩ Ω Ω Ω on all 4 Channels Input Coupling ! For 5 mV/div., connect the test equipment as shown in Figure 5-4.
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LC584AL 1GHz Oscilloscope Figure 5-5 : DC 1MΩ Ω Ω Ω Accuracy Equipment Setup for 100 mV/div LC584AL 1GHz Oscilloscope Figure 5-6 : DC 1MΩ Ω Ω Ω Accuracy Equipment Setup for 2V/div. Performance Verification 5-33...
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! For each DSO Volts/div, set the output of the external DC voltage reference source as shown in Table 9, column PS output. 1) Connect the DMM and record the voltage reading in Table 9, column DMM. 2) Disconnect the DMM from the BNC T connector. 3) Press Clear Sweeps 4) After 100 sweeps, read off the DSO mean parameter, and record the measurement in Table 9, column Mean.
5.7.2 Negative DC Accuracy a. DC 50Ω Ω Ω Ω ! Recall LC564D045.PNL or configure the DSO as shown in 5.7.1.a. ! Connect the test equipment as shown in either Figure 5-1 or 5-2 or 5-3. ! For each DSO Volts/div, set the output of the external DC voltage reference source as shown in Table 10, column PS output.
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b. DC 1 MΩ Ω Ω Ω ! Recall LC564D046.PNL or configure the DSO as shown in 5.7.1.a. and make the following change : Input gain : 5mV/div, 0.1 V/div, and 2V/dv (see Table 11) on all 4 Ch : DC 1 MΩ Ω Ω Ω on all 4 Channels Input Coupling ! Connect the test equipment as shown in either Figure 5-4 or 5-5 or 5-6.
Offset Accuracy Specifications Offset range at 2 mV/div: ±0.4Volt, Accuracy ≤ ±4.8 mV (5% of FS + 1% of offset). Offset range at 5 mV/div: ±1Volt, Accuracy ≤ ±11.2 mV (3% of FS +1% of offset). Description The offset test is done at 2 mV/div and 5 mV/div for 50Ω and at 5 mV/div for 1MΩ coupling, with a signal of ±0.4 Volt or ±1 Volt cancelled by an offset of the opposite polarity.
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On line 1 Measure mean of A On line 2 Measure mean of B On line 3 Measure mean of C On line 4 Measure mean of D ! Connect the test equipment as shown in Figure 5-7. LC584AL 1GHz Oscilloscope Figure 5-7 : Offset Accuracy Equipment Setup ! Set the output of the external DC voltage reference source to −...
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! Repeat the test for the other channels, substituting channel controls and input connector. Record the measurements in Table 12. ! Set DSO input gain to 5 mv/div and DSO Offset to +1 Volt on all 4 Channels. ! Set the output of the external DC voltage reference source to − − − − 1 Volt. ! Repeat steps 1), 2), 3), 4) and 5) on all 4 Channels.
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b. DC 1MΩ Ω Ω Ω Procedure ! Recall LC564D048.PNL or configure the DSO as shown in 5.8.1.a. and for each Channel make the following change : DC 1MΩ Ω Ω Ω on all 4 Channels Input Coupling Input gain 5mV/div on all 4 Channels Input offset +1 Volt on all 4 Channels...
5.8.2 Negative Offset Accuracy a. DC 50Ω Ω Ω Ω Procedure ! Recall LC564D049.PNL or configure the DSO as shown in 5.8.1.a. and for each Channel make the following change : − − − − 0.4 Volt on all 4 Channels Input offset ! Connect the test equipment as shown in Figure 5-7.
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1) Verify that the displayed trace A : Average (1) is on the screen, near the center horizontal graticule line. If the trace is not visible, modify the DC voltage reference source output until the trace is within ± 2 divisions of center. 2) Connect the DMM and record the voltage reading in Table 13, column DMM.
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3) Disconnect the DMM from the BNC T connector. 4) Press Clear Sweeps 5) After 100 sweeps, Read off the DSO Mean parameter voltage, and record the measurement in Table 13, column Mean. ! Repeat the test for the other channels, substituting channel controls and input connector.
Bandwidth 5.9.1 Description The purpose of this test is to ensure that the entire system has a bandwidth of at least 1.0 GHz. An external source is used as the reference to provide a signal where amplitude and frequency are well controlled. The amplitude of the generator as a function of frequency and power is calibrated using an HP8482A sensor on an HP437B power meter or equivalent.
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! Connect a BNC adapter to the HP8482A power sensor. ! Connect a 5ns 50Ω BNC cable to the RF output of the HP8648B generator and then through a 6dB attenuator and the necessary adapters to the power sensor. Figure 5-8 : Power Meter Equipment Setup ! Set the generator frequency to 300 kHz ! Set the generator amplitude to measure 0.200 mW on the power meter.
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LC584AL 1GHz Oscilloscope Figure 5-9 : 50Ω Ω Ω Ω Bandwidth Equipment Setup ! Measure for at least 100 sweeps, record the average value of sdev(1) inTable14 ! Repeat the above 3 steps for Channel 2, Channel 3 & Channel 4 substituting channel controls and input connector.
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! Recall LC564D052.PNL or configure the DSO as shown in 5.9.1.a. and for each Channel make the following change : Input gain 100mV/div ! Connect the test equipment as shown in Figure 5-8. ! Set the generator frequency to 300 kHz ! Set the generator amplitude to measure 0.800 mW on the power meter.
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b. DC 50Ω Ω Ω Ω with Bandwidth Limiter On ! Recall LC564D053.PNL or configure the DSO Panel Setups Recall FROM DEFAULT SETUP Channels Trace ON Channel 1 DC 50Ω Ω Ω Ω Input Coupling Global BWL 25 MHz Input gain 100 mV/div.
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! Set Global BWL 200 MHz ! Set Timebase 5 nsec/div. ! Increase the generator frequency until sdev(1) = 140 mV. (typically 200 MHz) ! Press Clear Sweeps ! When sdev(1) = 140 mV, record Freq(1) in Table 16. ! Repeat the 25 MHz and 200 MHz Bandwidth limiter tests for the other channels, substituting channel controls and input connector.
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5.9.2 DC 1MΩ Ω Ω Ω ! Recall LC564D057.PNL or configure the DSO : Panel Setups Recall FROM DEFAULT SETUP Channels Trace ON Channel 1, Channel 2, Channel 3 & Channel 4 DC 1MΩ Ω Ω Ω on all 4 Channels Input Coupling Input gain 100 mV/div.
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! Adjust the generator signal amplitude to measure sdev(1) = 200 mV. ! Disconnect the coaxial cable from the 4962-10 adapter. Connect the test equipment as shown in Figure 5-11. Power Sensor Figure 5-11 : Power Meter Equipment Setup 5-52 Performance Verification...
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! Record the displayed power meter value in mW. ! Set the generator frequency to 500.1 MHz. ! Now fine adjust the generator amplitude output until the power meter readout indicates the value measured just above at 300 kHz. ! Reconnect the signal generator to DSO Channel 1, as shown in Figure 5-10. ! Press Clear Sweeps.
5.10 Trigger Level 5.10.1 Description The trigger capabilities are tested for several cases of the standard edge trigger: ! Channel (internal), and External Trigger sources ! Three levels: −3, 0, +3 major screen divisions ! DC coupling ! Positive and negative slopes 5.10.2 Channel Trigger at 0 Division Threshold DC Coupling Recall LC564D058.PNL or configure the DSO:...
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! Set the output of the LeCroy LW420 or equivalent audio frequency signal generator to 1 kHz. ! Connect the output of the generator to Channel 1 through a 50 Ohm coaxial cable and adjust the sine wave output amplitude to get 8 divisions peak to peak.
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! Repeat these steps for all input channels, substituting channel controls ( DC, Pos, Neg ) and input connector. Recall L564D059.PNL for Channel 2, L564D0060.PNL for Channel 3, L564D061.PNL for Channel 4, or select Trigger on the Channel under test. The Trigger level is displayed in either the icon 2, 3 or 4 ! Record the measurements in Table 18 and compare the test results to the corresponding limits in the test record.
5.10.3 Channel Trigger at +3 Divisions Threshold DC Coupling ! Recall LC564D062.PNL or configure the DSO as shown in 5.10.2.a and for each Channel make the following change : Set Trigger level : DC +300 mV ! Connect the output of the generator to Channel 1 through a 50 Ohm coaxial cable.
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! Repeat these steps for all input channels, substituting channel controls ( DC, Pos, Neg ) and input connector. Recall L564D063.PNL for Channel 2, L564D064.PNL for Channel 3, L564D065.PNL for Channel 4, or select Trigger on the Channel under test. The Trigger level is displayed in either the icon 2, 3 or 4 ! Record the measurements in Table 18 and compare the test results to the corresponding limits in the test record.
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! Set Trigger Slope 1 : Neg ! Acquire 10 sweeps and record in Table 18 the level readout displayed below 100 mV in the icon 1, at top left. ! Repeat these steps for all input channels, substituting channel controls ( DC, Pos, Neg ) and input connector.
10 sweeps ! Connect the test equipment as shown in Figure 5-12. ! Set the output of the LeCroy LW420 or equivalent audio frequency signal generator to 1 kHz. ! Adjust the sine wave output amplitude to get 8 divisions peak to peak .
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LC584AL 1GHz Oscilloscope Figure 5-12 : External Trigger Equipment Setup ! Press Clear Sweeps ! Acquire 10 sweeps and record in Table 19 the level readout displayed below 100 mV in the icon 2, at top left. Performance Verification 5-61...
! Set Trigger Slope Ext : Neg ! Acquire 10 sweeps and record in Table 19 the level readout displayed below 100 mV in the icon 2, at top left. ! Compare the test results to the corresponding limit in the test record. 5.10.6 External Trigger at +3 Divisions Threshold DC Coupling ! Recall LC564D071.PNL or configure the DSO as shown in 5.10.5.a and make...
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! Set Trigger Slope Ext : Neg ! Acquire 10 sweeps and record in Table 21 the level readout displayed below 100 mV in the icon 2, at top left. 5.10.7 External Trigger at − − − − 3 Divisions Threshold DC Coupling ! Recall LC564D072.PNL or configure the DSO as shown in 5.10.5.a and make the following change :...
10 sweeps ! Connect the test equipment as shown in Figure 5-12. ! Set the output of the LeCroy LW420 or equivalent audio frequency signal generator to 1 kHz. ! Adjust the sine wave output amplitude to get 8 divisions peak to peak .
! Use the "cursor position" knob, to move the Time marker at 0.0 µs ! Press Clear Sweeps ! Acquire 10 sweeps and record in Table 19 the level readout displayed below 100 mV in the icon 2, at top left. ! Set Trigger Slope Ext5 : Neg ! Acquire 10 sweeps and record in Table 21 the level readout displayed below 100 mV in the icon 2, at top left.
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DC Coupling ! Recall LC564D074.PNL or configure the DSO as shown in 5.10.8.a and make the following change : Set Ext/5 Trigger level : DC +3 V ! Connect the test equipment as shown in Figure 5-12. ! Press Clear Sweeps, ! Acquire 10 sweeps and record in Table 21 the level readout displayed below 100 mV in the icon 2, at top left.
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DC Coupling ! Recall LC564D075.PNL or configure the DSO as shown in 5.10.5.a and make the following change : − − − − Set Ext/5 Trigger level : DC ! Connect the test equipment as shown in Figure 5-12. ! Press Clear Sweeps. ! Acquire 10 sweeps and record in Table 19 the level readout displayed below 100 mV in the icon 2, at top left.
5.11.2 Trigger on Pulse Width 100 nsec a. Pulse Width < 100 nsec ! Recall LC564D077.PNL or configure the DSO as shown in 5.11.1.a and make the following changes : Width < 100 nsec : Width > 100 nsec : Time base 20 nsec/div.
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5.12 Time Base Accuracy 5.12.1 Description An external sine wave generator of 0.1 MHz with a frequency accuracy better than 1 PPM is used. Specifications 500 MHz clock : accuracy : ≤ ≤ ≤ ≤ ± ± ± ± 0.001 % or ≤ ≤ ≤ ≤ ± ± ± ± 10 PPM 5.12.2 500 MHz Clock Verification Procedure ! Recall LC564D078.PNL or configure the DSO...
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! Measure Parameters ! Mode Custom ! Statistics ! Change parameters ! On line 1 Delay of 1 ! On line 2 Delay of A ! Check that the displayed Channel 1 trace is aligned with the sine wave from memory 1.
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5.13 Rise time (10 % - 90 %) Specifications : rise time < 0.50 ns DC 50Ω, 50 mV/div., DC 1MΩ, 100 mV/div., : rise time < 0.90 ns a. DC 50Ω Ω Ω Ω ! Recall LC564D080.PNL or configure the DSO Panel Setups Recall FROM DEFAULT SETUP Channels trace ON...
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! Connect the fast pulse generator 4969A and PB049 power adapter, or equivalent as shown in Figure 5-13. ! Set the 4969A frequency to 1 kHz Figure 5-13: 50 Ω Ω Ω Ω Rise time Equipment Setup ! Press Clear Sweep ! After 100 sweeps record rise(A) measurements in Table 22.
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b. DC 1MΩ Ω Ω Ω Recall LC564D084.PNL or configure the DSO as shown in 5.13.a. and make the following change : DC 1MΩ Ω Ω Ω on all 4 Channels Set Input Coupling : Input gain 50 mV/div. on all 4 Channels −...
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LC564DL Test Record LeCroy Digital Storage Oscilloscope Performance Certificate LC564DL Manual Performance Test Procedure Version B – Sept. 2002 Model Serial Number Customer Software Version Inspection Date Next Due Temperature Humidity Tested By Report Number Place of Inspection Condition found...
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LC564DL Test Record Coupling Time/Div. Measured Measured Measured Measured Limits Pkpk Channel 1 Pkpk Channel 2 Pkpk Channel 3 Pkpk Channel 4 20 ms DC 1MΩ 1 ms DC 1MΩ 2 µs AC 1MΩ 2 µs DC 50Ω 20 µs DC 50Ω...
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LC564DL Test Record Coupling Volts/div. Measured Measured Measured Measured Lower Upper Channel 1 Channel 2 Channel 3 Channel 4 Limit Limit Mean (A) mV Mean (B) mV Mean (C) mV Mean (D) mV −0.8 2 mV +0.8 DC 1MΩ −2 5 mV DC 1MΩ...
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LC564DL Test Record Volts Attenuator Measured Channel 1 Measured Channel 2 Measured Channel 3 Measured Channel 4 Limits /div. Output V & mV V & mV V & mV V & mV ∆ ∆ ∆ ∆ ∆ ∆ ∆ ∆...
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LC564DL Test Record Volts Attenuator Measured Channel 1 Measured Channel 2 Measured Channel 3 Measured Channel 4 Limits /div. Output V & mV V & mV V & mV V & mV ∆ ∆ ∆ ∆ ∆ ∆ ∆ ∆...
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LC564DL Test Record Volts Attenuator Measured Channel 1 Measured Channel 2 Measured Channel 3 Measured Channel 4 Limits /div. Output V & mV V & mV V & mV V & mV ∆ ∆ ∆ ∆ ∆ ∆ ∆ ∆...
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LC564DL Test Record Volt Coupling Measured Channel 1 Measured Channel 2 Measured Channel 3 Measured Channel 4 Limits /div. offset output V & mV V & mV V & mV V & mV ∆ ∆ ∆ ∆ ∆ ∆ ∆ ∆...
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LC564DL Test Record Frequency Measured Generator Measured Measured Measured Measured Lower Upper Power Amplitude Channel 1 Channel 2 Channel 3 Channel 4 Limit Limit Sdev(1) Ratio(1) Sdev(2) Ratio(2) Sdev(3) Ratio(3) Sdev(4) Ratio(4) to 0.3 to 0.3 to 0.3 to 0.3 0.300...
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LC564DL Test Record Frequency Measured Measured Measured Measured Lower Channel 1 Channel 2 Channel 3 Channel 4 Limit Sdev(1) Ratio(1) Sdev(2) Ratio(2) Sdev(3) Ratio(3) Sdev(4) Ratio(4) to 0.3 to 0.3 to 0.3 to 0.3 0.300 500.1 Table 17: DC 1MΩ Ω Ω Ω , 100 mV/div. Bandwidth Test Record...
Maintenance Introduction This section contains information necessary to disassemble, assemble, maintain, calibrate and troubleshoot the LeCroy LC564DL digital storage oscilloscopes. 6.1.1 Safety Precautions symbol used in this manual indicates dangers that could result in personal injury. symbol used in this manual identify conditions or practices that could damage the instrument.
8. 6.2.1 Disassembly Procedure Please study the figures in section 8 before attempting disassembly. Before removing any parts from the LeCroy LC564DL, be sure to read carefully the instructions referring to those parts, noting any precautions needed to avoid problems.
c. Removal of the Front Frame Assembly with Color LCD Display The front frame disassembly procedure refers to the view of figure 8-2 and 8-12. • Remove the front bezel (6.2.1.a) • Remove the upper cover assembly (6.2.1.b) • Remove two M3X6 screws that secure the front frame on both side of the lower cover.
• Remove two M3X6 screws that secure the power supply on the main board upper shield. • Remove two M3X6 screws that secure the power supply on the rear panel. • Disconnect the power supply cable from the F9601-8 board connector J2 •...
h. Removal of the Main Board Assembly The main board disassembly procedure refers to the view of figure 8-5 & 8-10. • Remove the front bezel (6.2.1.a) • Remove the upper cover assembly (6.2.1.b) • Remove the front frame assembly (6.2.1.c) •...
Software Update Procedure 6.3.1 Firmware upgrades are available from the Internet via http://www.lecroy.com CDROM using the LeCroy software utility Scope Explorer. The following methods are available for upgrading scope firmware: 1) GPIB 2) RS-232 3) Floppy disk (No connection) Each method is described below.
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Place scope in stop mode by depressing STOP on the front panel. PC requirements: Windows 95, 98, or NT operating system LeCroy Scope Explorer utility. Two 1.44 M byte formatted floppy disks Connecting to PC 1) Open Scope Explorer, then select Scope-finder from the scope pull-down menu (see fig.
Scope requirements: Put the scope in stop mode by depressing STOP on the front panel. PC requirements: Windows 95, 98, or NT operating system. LeCroy Scope Explorer utility. Two 1.44 Mbytes formatted floppy disks. Without a connection: 1) Open Scope Explorer...
• Reboot the scope and verify that the options added correctly. 6.3.3 Processor Board Exchange Procedure The serial number of the LC564DL oscilloscope is loaded in the real time clock memory which is battery backed up. If it becomes necessary to replace the processor board, the serial number must be loaded in the memory of the new board by using LeCroy program "...
Equipment and Spare Parts Recommended for Service 6.4.1 Test Equipment Required See Table 5-1 in section 5.2. 6.4.2 LC564DL Spare Parts LeCroy P/N Assembly Adjustments Performance Tests F9601-11-16 Power PC, 2X8MB DRAM None None F9601-2 Internal + External VGA None...
6.5.1 Power Supply Calibration Procedure • Remove the front bezel (see 6.2.1.a) • Remove the upper cover assembly (see 6.2.1.b) • To ensure adequate main board cooling, it is necessary to control the air flow by installing a temporary closure plate which fully encloses the air space behind the monitor.
• Open the fuse box by inserting a small flat screwdriver under the plastic cover and remove the fuse carrier from the holder • Remove the fuse and replace it with the proper type: T6.3 A / 250 V, LeCroy part number: 433 162 630 6.6.3 Initial Troubleshooting Chart...
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Fan Problem See Section 6.6.4 Power Supply See Section 6.6.5 Problem Display Problem See Section 6.6.6 Front Panel Controls See Section 6.6.7 Do not Operate Remote Control GPIB or RS232 See Section 6.6.8 Problem Plug in the Power Cord and Turn on the LC684D Performance...
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Replaceable Parts To order parts, contact your local LeCroy service office. A list of the service centers is given in section 2 of this manual. For boards, you can either order a new board or an exchange board. Exchange assemblies are factory repaired, inspected, tested and calibrated. If you order an exchange board, you must return the defective board.
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9615-GP01: GRAPHIC PRINTER W/ TOP COVER LeCroy Part Number Description 334000402 THERMAL PAPER FOR SEIKO PRINTER 334000832 THERMAL PRINTER UNIT 350150001 GASKET,ULTRAFLEX,PSA,6" X 0.25"DIA 350920024 MONEL MESH STRIP DIAM 2.4MM 389340008 AUTO-ADHESIVE RUBBER BAND 12X2MM 530040005 SLIDE LATCH TAB STYLE...
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F9300-7: LTP 5446 PRINTER CONTROLLER (con't) LeCroy Part Number Description 454511026 HDR SOLD TAIL/MALE 26 554435401 RIVET "RIVSCREW" M3.5 719300703 PC BD PREASSEMBLY 9300-7 CH599064012 SILICONE SEALANT RTV162 SM200330125 IC QUAD BUFFER 74HC125 SM207470175 IC QUAD DIFF LINE RECEIVER 75175 SM208580336 IC REF DIODE LM336-2.5V...
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F9300-8: HD CONTROLLER LeCroy Part Number Description 205750000 IC GAL16V8A-15LP 330100100 PCMCIA HEADER ASSEMBLY TOP/LEFT 380450012 NR ADHESIVE TAPE 4X12 MM 454511040 HDR SOLD TAIL/MALE 40/RT 550010706 SCREW ECO-FIX PHIL PAN M3X6 W/NYLOC 550011106 SCREW PAN HD M2X6 BLK W/NYLOCK 552120100 NUT HEX M2X0.5D...
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F9301-4: GPIB + RS232 H-SPEED INTERFACE LeCroy Part Number Description 116515560 CAP DIP MICA DM10 56 PF 405204000 JACKSCREW 3/16 HEX M/F 4-40THD 453521024 CONN RT ANGLE IEEE FEM 24 454511040 HDR SOLD TAIL/MALE 40/RT 455413009 CONN RT ANGL MALE 9 S-CLIP...
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S9601-11: COLOR PROCESS. CARD WHOUT DRAM LeCroy Part Number Description 208591431 IC ADJ SHUNT REG TL431 309380016 CRYSTAL OSCILLATOR (PROG) 16 MHZ 312590070 BATTERY LITHIUM 3V 70MAH 404500068 CONN BD TO BD 68 POS 453250072 CONN PC EDGE/SOLD TAIL 72...
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S9601-11: COLOR PROCESS. CARD WHOUT DRAM (con't) LeCroy Part Number Description SM207179244 IC BUFFER/LINE DRIV HCT244 SM207660150 IC DYNAMIC BUS SIZER MC68150 SM207665545 IC FLAT PANEL VGA CONTROLLER SM207878245 IC BUS TRANSCVR HCT245 SM207972157 IC DATA SEL/MUX 74F157A SM208470358 IC DUAL OP AMP LM358D...
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S9601-11: COLOR PROCESS. CARD WHOUT DRAM (con't) LeCroy Part Number Description SM652101512 RES CHIP (E24) 1% 5.1 K SM652101752 RES CHIP (E24) 1% 7.5 K SM652101820 RES CHIP (E24) 1% 82 OHMS SM654101000 CHIP JUMPER ZERO OHMS SM661207102 CAP CERA CHIP 20% .001 UF SM661207103 CAP CERA CHIP 20% .01 UF...
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F9601-61: FLOPPY DISK DRIVE ASSY LeCroy Part Number Description 330000002 3.5" DISC DRIVE, 0.44" HIGH 453411026 CONN ZIF FOR FFC 26 POS 454110026 HDR SOLD TAIL MALE 26 ST 550010103 SCREW PAN HEAD PHIL M2.5X3 W/NYLOCK 550010706 SCREW ECO-FIX PHIL PAN M3X6 W/NYLOC...
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F9602-9: FAN UNIVERSAL CONTROL. ASSY. LeCroy Part Number Description 169416223 RESISTOR DISC NTC 22 K 405154002 CONN HOUSING 2-POS 405708001 TERMINAL ANTI-FISHHOOKING CRIMP 530409116 12V DC FAN, BRUSHLESS 554010013 SCREW S/TAP PAN HD M3.5X13 554035101 CLIP-ON NUT DIAM. 3.5 590001022...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description 145344109 CAP ALU COMPACT AXIAL 10000UF 168904651 RES ULTRA PREC 487K 0.25% 169416473 RESISTOR DISC NTC 47 K 208123002 IC +12 VOLT REG LM340T-12 208124003 IC VOLT REG -12V LM320T-12 208570317 IC ADJ +V REG LM317...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM200178000 IC 2-INPUT NAND HCT00 SM200178002 IC 2-INPUT NOR HCT02 SM200178030 IC 8-IN NAND HCT30 SM200178074 IC D-TYP FLOP 74HCT74 SM200178138 IC 3-TO-8-LINE DECODER HCT138 SM200178139 IC 2-TO-4-LINE DECODER HCT139 SM200178273 IC D-TYP FLOP 74HCT273...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM208480660 IC OP AMP OPA660 SM208570078 IC LOW POWER REG +12V 78L12 SM208570805 IC POS VOLT REG 78L05 SM208570905 IC NEG VOLT REG 79L05 SM208591336 IC VOLT REF DIODE LM336 SM208701023 IC TEMPERATURE SENSOR...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM311210254 CRYSTAL OSC 2.5PPM 10MHZ SM402122001 CONN CO-AX PC MTG MMCX SM411151010 DIP SWITCH SMD 10XSPST SM430530001 RELAY SMD DUAL FORM C 5V SM430710008 RELAY SMD REED MRF-8 SM455710008 SMT JACK CONNECTOR 8 CONTACTS...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM652061431 RES CHIP 1% 430 OHM .063W SM652061470 RES CHIP 1% 47.0 OHM .063W SM652061471 RES CHIP 1% 470 OHM .063W SM652061472 RES CHIP 1% 4.7K OHM .063W SM652061510 RES CHIP 1% 51.0 OHM .063W SM652061511 RES CHIP 1% 510 OHM .063W...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM652101243 RES CHIP (E24) 1% 24 K SM652101271 RES CHIP (E24) 1% 270 OHM SM652101273 RES CHIP (E24) 1% 27 K SM652101301 RES CHIP (E24) 1% 300 OHM SM652101302 RES CHIP (E24) 1% 3 K...
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S9615-3: BASE MAIN CARD LeCroy Part Number Description SM661207102 CAP CERA CHIP 20% .001 UF SM661207103 CAP CERA CHIP 20% .01 UF SM661207104 CAP CERA CHIP 20% .1 UF SM661207223 CAP CERA CHIP 20% .022 UF SM661251022 CAP CERA CHIP 2.2PF +/-.1PF...
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Lcxxx Operators Manual Eng LCXXX-HG-E Hands ON Guide For Lcxxx Scope LCXXX-WP03-OM-E Statist. Analys. Pack. Manual 709600015 Lcxxx Protective Cover 709615010 Logo Lecroy For Flat Panel LCXXX-AD-564 LC OM Addendum LC564 LC554 GENCARD REGISTRATION CARDS GENCORD POWERCORDS FROM ACC BOMS GENMANUAL...
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LCDFP9615: LCD DISPLAY & FRONT PANEL ASSY LeCroy Part Number Description 258104001 TFT COLOR LCD MODULE, 10.4 INCH 300070000 FERRITE SHIELDING FLAT CABLE 315000003 TFT DC-AC INVERTER UNIT 520200120 SPACER 4MMODX2.6MMIDX5MMLG NYLON BK 550420108 SCREW PAN HD PHIL M2.0X8MM LG...
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M9615: MECHANICAL PARTS LeCroy Part Number Description 550010130 SCREW PAN HEAD PHIL M3X30 W/NYLOCK 550431104 SCR PN HD PH W/WHR M3X4 W/NYLOCK 550431106 SCR PN HD PH W/WHR M3X6 W/NYLOCK 550450116 SCREW CYL HD PHIL M5X16MM 554425003 SCREW S/TAP PHIL M2.5X6 BLACK...
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LeCroy Part Number Description 454111050 HDR SOLD TAIL/MALE 50/STRAIGHT 71961521C PC BD PREASSY 9615-21 SM232022822 DIODE ARRAY SCHOTTKY 2822 SM280120605 LOW POWER NMOSFET SM281109430 P-CH ENHAN MOSFET SI9430 SM301302800 BEAD FERRITE Z=80 OHMS SM301366561 INDUCTOR .56UH 10% SM454520032 CONN HEADER RT ANGLE 32PIN SMT...
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S9615-52: GENERIC FRONT PANEL LeCroy Part Number Description 103427104 CAP CERA MONO 100V .1 UF 147436033 CAP ALUM METAL CAN 33 UF 161225471 RES CARBON FILM 470 OHMS 190042103 RESISTOR NETWORK 10 K 190642103 RESISTOR NETWORK 10 K 200331074 IC D-TYP FLOP 74HCT74...
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Mechanical Parts Figure 8-1: LC564DL Cabinet Mechanical Parts 8-1...
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Figure 8-12: Front Frame Assembly Mechanical Parts 8-17...
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Upper Shield Replaceable Parts (Figure 8-11) Item LeCroy Part Number Qty Description US9615-3 Upper Shield Assy 709600810 9600-8 Power Switch Button 709600820 9600-8 Power Switch Rod F9601-8 Main Switch Board 554525901 Clip Diam 3.1Mm 550010706 Screw ECO-Fix Phil Pan M3X6 W/Nylock...
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Figure 8-13: Keypad Assembly Mechanical Parts 8-19...
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Figure 8-14: Fan Assembly 8-20 Mechanical Parts...
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Keypad Replaceable Parts (Figure 8-13) Item LeCroy Part Number Qty Description 709615512 Front Panel Classic 709600510 9600-5 Switch Cap, Light Grey 709600512 9600-5 Switch Cap Dark Grey 709600516 9600-5 Switch Cap, Green 709600514 9600-5 Switch Cap, Blue 709615500 TFT Rubber Mat...
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Figure 8-16: Upper Cover Assembly Mechanical Parts 8-23...
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Graphic Printer Replaceable Parts (Figure 8-15) Item LeCroy Part Number Qty Description 709615006 GP01 Upper Cover BOX-GP01 GP01 Graphic Printer Box 709601031 Graphic Printer Frame 550010106 Screw Pan Head Phil M3X6 W/Nylock 334000832 Thermal Printer Unit 550011120 Screw Pan Head Phil M4X20 W/Nylock...
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Figure 8-17: Hard Disk Assembly Mechanical Parts 8-25...
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