Cypress Semiconductor CY7B991 Manuel utilisateur

CY7B991

CY7B992

Programmable Skew Clock Buffer

Cypress Semiconductor Corporation • 198 Champion Court • San Jose,CA 95134-1709 • 408-943-2600

Document Number: 38-07138 Rev. *B Revised June 22, 2007

Features

■All output pair skew <100 ps typical (250 maximum)

■3.75 to 80 MHz output operation

■User selectable output functions

❐Selectable skew to 18 ns

❐Inverted and non-inverted

❐Operation at 1⁄2 and 1⁄4 input frequency

❐Operation at 2x and 4x input frequency (input as low as 3.75

MHz)

■Zero input to output delay

■50% duty cycle outputs

■Outputs drive 50Ωterminated lines

■Low operating current

■32-pin PLCC/LCC package

■Jitter < 200 ps peak-to-peak (< 25 ps RMS)

Functional Description

TheCY7B991 and CY7B992ProgrammableSkewClockBuffers

(PSCB)offeruserselectablecontroloversystemclockfunctions.

These multiple output clock drivers provide the system integrator

with functions necessary to optimize the timing of high perfor-

mance computer systems. Each of the eight individual drivers,

arranged in four pairs of user controllable outputs, can drive

terminated transmission lines with impedances as low as 50Ω.

They can deliver minimal and specified output skews and full

swing logic levels (CY7B991 TTL or CY7B992 CMOS).

Each output is hardwired to one of the nine delay or function

configurations. Delay increments of 0.7 to 1.5 ns are determined

by the operating frequency with outputs that skew up to ±6 time

units from their nominal “zero” skew position. The completely

integrated PLL allows cancellation of external load and trans-

missionlinedelayeffects.When this “zerodelay”capability ofthe

PSCB is combined with the selectable output skew functions,

you can create output-to-output delays of up to ±12 time units.

Divide-by-two and divide-by-four output functions are provided

for additional flexibility in designing complex clock systems.

When combined with the internal PLL, these divide functions

enable distribution of a low frequency clock that are multiplied by

two or four at the clock destination. This facility minimizes clock

distribution difficulty, allowing maximum system clock speed and

flexibility.

Logic Block Diagram

TEST

REF

VCO AND

TIME UNIT

GENERATOR

SELECT

INPUTS

(THREE

LEVEL) SKEW

SELECT

MATRIX

4F0

4F1

3F0

3F1

2F0

2F1

1F0

1F1

4Q0

4Q1

3Q0

3Q1

2Q0

2Q1

1Q0

1Q1

FILTER

PHASE

FREQ

DET

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 2 of 19

Pin Configuration

Pin Definitions

Signal Name IO Description

REF IReferencefrequencyinput.Thisinputsuppliesthefrequencyandtimingagainstwhichallfunctional

variations are measured.

FB IPLL feedback input (typically connected to one of the eight outputs).

FS IThree level frequency range select. See Table 1.

1F0, 1F1 IThree level function select inputs for output pair 1 (1Q0, 1Q1). See Table 2.

2F0, 2F1 IThree level function select inputs for output pair 2 (2Q0, 2Q1). See Table 2.

3F0, 3F1 I Three level function select inputs for output pair 3 (3Q0, 3Q1). See Table 2.

4F0, 4F1 IThree level function select inputs for output pair 4 (4Q0, 4Q1). See Table 2.

TEST IThree level select. See “Test Mode” on page 4 under the “Block Diagram Description” on page 3.

1Q0, 1Q1 OOutput pair 1. See Table 2.

2Q0, 2Q1 OOutput pair 2. See Table 2.

3Q0, 3Q1 OOutput pair 3. See Table 2.

4Q0, 4Q1 OOutput pair 4. See Table 2.

VCCN PWR Power supply for output drivers.

VCCQ PWR Power supply for internal circuitry.

GND PWR Ground.

1234323130

17161514 18 19 20

3F0

REF

GND

TEST

2F1

2Q1

2Q0

CCQ

2F0

GND

1F1

1F0

VCCN

1Q0

1Q1

GND

3Q1

3Q0

CCN

3F1

4F0

4F1

VCCQ

VCCN

4Q1

4Q0

GND

PLCC/LCC

CY7B991

CY7B992

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 3 of 19

Block Diagram Description

Phase Frequency Detector and Filter

The Phase Frequency Detector and Filter blocks accept inputs

from the reference frequency (REF) input and the feedback (FB)

input and generate correction information to control the

frequency of the Voltage Controlled Oscillator (VCO). These

blocks, along with the VCO, form a Phase Locked Loop (PLL)

that tracks the incoming REF signal.

VCO and Time Unit Generator

The VCO accepts analog control inputs from the PLL filter block.

It generates a frequency used by the time unit generator to

create discrete time units that are selected in the skew select

matrix. The operational range of the VCO is determined by the

FS control pin. The time unit (tU) is determined by the operating

frequency of the device and the level of the FS pin as shown in

Table 1.

Skew Select Matrix

Theskewselect matrixcontainsfourindependentsections.Each

section has two low skew, high fanout drivers (xQ0, xQ1), and

two corresponding three level function select (xF0, xF1) inputs.

Table 2 showsthenine possibleoutputfunctionsfor eachsection

as determined by the function select inputs. All times are

measured withrespectto the REF inputassumingthattheoutput

connected to the FB input has 0tUselected.

Table 1. Frequency Range Select and tUCalculation[1]

FS[2, 3] fNOM (MHz)

where N =

Approximate

Frequency(MHz)At

Which tU= 1.0 ns

Min Max

LOW 15 30 44 22.7

MID 25 50 26 38.5

HIGH 40 80 16 62.5

tU1

fNOM N×

------------------------

Table 2. Programmable Skew Configurations[1]

Function Selects Output Functions

1F1,2F1,

3F1, 4F1 1F0,2F0,

3F0, 4F0 1Q0,1Q1,

2Q0, 2Q1 3Q0, 3Q1 4Q0, 4Q1

LOW LOW –4tUDivide by 2 Divide by 2

LOW MID –3tU–6tU–6tU

LOW HIGH –2tU–4tU–4tU

MID LOW –1tU–2tU–2tU

MID MID 0tU0tU0tU

MID HIGH +1tU+2tU+2tU

HIGH LOW +2tU+4tU+4tU

HIGH MID +3tU+6tU+6tU

HIGH HIGH +4tUDivideby4 Inverted

Notes

1. For all tri-state inputs, HIGH indicates a connection to VCC, LOW indicates a connection to GND, and MID indicates an open connection. Internal termination circuitry

holds an unconnected input to VCC/2.

2. The level is set on FS is determined by the “normal” operating frequency (fNOM) of the VCO and Time Unit Generator (see Logic Block Diagram). Nominal frequency

(fNOM) always appears at 1Q0 and the other outputs when they are operated in their undivided modes (see Table 2). The frequency appearing at the REF and FB

inputs are fNOM when the output connected to FB is undivided. The frequency of the REF and FB inputs are fNOM/2 or fNOM/4 when the part is configured for a

frequency multiplication by using a divided output as the FB input.

3. When the FS pin is selected HIGH, the REF input must not transition upon power up until VCC has reached 4.3V.

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 4 of 19

Test Mode

The TEST input is a three level input. In normal system

operation, this pin is connected to ground, enabling the

CY7B991 or CY7B992 to operate as explained in “Skew Select

Matrix” on page 3. For testing purposes, any of the three level

inputs can have a removable jumper to ground, or be tied LOW

through a 100Ωresistor. This enables an external tester to

change the state of these pins.

If the TEST input is forced to its MID or HIGH state, the device

operates with its internal phase locked loop disconnected, and

input levels supplied to REF directly controls all outputs. Relative

output to output functions are the same as in normal mode.

In contrast with normal operation (TEST tied LOW), all outputs

function based only on the connection of their own function

selects inputs (xF0 and xF1) and the waveform characteristics of

the REF input.

Figure 1 shows the typical outputs with FB connected to a zero skew output.[4]

Figure 1. Typical Outputs with FB Connected to a Zero-Skew Output

0– 6t U

0– 5t U

0– 4t U

0– 3t U

0– 2t U

0– 1t U

0+1t U

+2t U

+3t U

+4t U

+5t U

+6t U

FBInput

REFInput

– 6t U

– 4t U

– 3t U

– 2t U

– 1t U

0tU

+1t U

+2t U

+3t U

+4t U

+6t U

DIVIDED

INVERT

(N/A)

LL/HH

3Fx

4Fx

(N/A)

1Fx

2Fx

Note

4. FB connected to an output selected for “zero” skew (i.e., xF1 = xF0 = MID).

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 5 of 19

Maximum Ratings

Operating outside these boundaries affectsthe performance and

life of the device. These user guidelines are not tested.

Storage Temperature .................................–65°C to +150°C

Ambient Temperature with

Power Applied ............................................–55°C to +125°C

Supply Voltage to Ground Potential................–0.5V to +7.0V

DC Input Voltage ............................................–0.5V to +7.0V

Output Current into Outputs (LOW).............................64 mA

Static Discharge Voltage............................................>2001V

(MIL-STD-883, Method 3015)

Latch Up Current.....................................................>200 mA

Operating Range

Note

5. Indicates case temperature.

Range Ambient

Temperature VCC

Commercial 0°C to +70°C 5V ±10%

Industrial –40°C to +85°C5V ±10%

Military[5] –55°C to +125°C 5V ±10%

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 6 of 19

Electrical Characteristics

Over the Operating Range[6]

CY7B991 CY7B992

Parameter Description Test Conditions Min Max Min Max Unit

VOH Output HIGH Voltage VCC = Min IOH = –16 mA 2.4 V

VCC = Min, IOH =–40 mA VCC–0.75

VOL Output LOW Voltage VCC = Min, IOL = 46 mA 0.45 V

VCC = Min, IOL = 46 mA 0.45

VIH Input HIGH Voltage

(REF and FB inputs only) 2.0 VCC VCC –

1.35 VCC V

VIL Input LOW Voltage

(REF and FB inputs only) –0.5 0.8 –0.5 1.35 V

VIHH Three Level Input HIGH

Voltage (Test, FS, xFn)[10] Min ≤VCC ≤Max VCC – 0.85 VCC VCC – 0.85 VCC V

VIMM Three Level Input MID

Voltage (Test, FS, xFn)[10] Min ≤VCC ≤Max VCC/2 –

500 mV VCC/2 +

500 mV VCC/2 –

500 mV VCC/2 +

500 mV V

VILL Three Level Input LOW

Voltage (Test, FS, xFn)[10] Min ≤VCC ≤

Maximum 0.0 0.85 0.0 0.85 V

IIH InputHIGHLeakageCurrent

(REF and FB inputs only) VCC = Max, VIN = Max. 10 10 μA

IIL Input LOW Leakage Current

(REF and FB inputs only) VCC = Max, VIN = 0.4V –500 –500 μA

IIHH Input HIGH Current

(Test, FS, xFn) VIN = VCC 200 200 μA

IIMM Input MID Current

(Test, FS, xFn) VIN = VCC/2 –50 50 –50 50 μA

IILL Input LOW Current

(Test, FS, xFn) VIN = GND –200 –200 μA

IOS Output Short Circuit

Current[8] VCC = Max, VOUT

= GND (25°C only) –250 N/A mA

ICCQ Operating Current Used by

Internal Circuitry VCCN=VCCQ=Max,

All Input

Selects Open

Com’l 85 85 mA

Mil/Ind 90 90

ICCN Output Buffer Current per

Output Pair[9] VCCN = VCCQ = Max,

IOUT = 0 mA

Input Selects Open, fMAX

14 19 mA

PD Power Dissipation per

Output Pair[10] VCCN = VCCQ = Max,

IOUT = 0 mA

Input Selects Open, fMAX

78 104[11] mW

Notes

6. For more information see “Group A Subgroup Testing” on page 17.

7. These inputs are normally wired to VCC, GND, or left unconnected (actual threshold voltages vary as a percentage of VCC). Internal termination resistors hold

unconnected inputs at VCC/2. If these inputs are switched, the function and timing of the outputs may glitch and the PLL may require an additional tLOCK time before

all datasheet limits are achieved.

8. CY7B991 must be tested one output at a time, output shorted for less than one second, less than 10% duty cycle. Room temperature only. CY7B992 outputs must

not be shorted to GND. Doing so may cause permanent damage.

9. Total output current per output pairis approximated by the following expression that includes device current plus load current:

CY7B991: ICCN = [(4 + 0.11F) + [((835 – 3F)/Z) + (.0022FC)]N] x 1.1

CY7B992: ICCN = [(3.5+ 0.17F) + [((1160 – 2.8F)/Z) + (.0025FC)]N] x 1.1

Where

F = frequency in MHz; C = capacitive load in pF; Z = line impedance in ohms; N = number of loaded outputs; 0, 1, or 2; FC = F <C.

10.Total power dissipation per output pair can be approximated by the following expression that includes devicepower dissipation plus power dissipation due tothe load

circuit:

CY7B991:PD = [(22 + 0.61F) + [((1550 – 2.7F)/Z) + (.0125FC)]N] x 1.1

CY7B992:PD = [(19.25+ 0.94F) + [((700 + 6F)/Z) + (.017FC)]N] x 1.1

See note 9 for variable definition.

11. Applies to REF and FB inputs only. Tested initially and after any design or process changes that may affect these parameters.

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 7 of 19

Capacitance

CMOS output buffer current and power dissipation specified at 50 MHz reference frequency.

Parameter Description Test Conditions Max Unit

CIN Input Capacitance TA= 25°C, f = 1 MHz, VCC = 5.0V 10 pF

AC Test Loads and Waveforms

TTL AC Test Load (CY7B991) TTL Input Test Waveform (CY7B991)

CMOS AC Test Load (CY7B992)

3.0V

2.0V

Vth =1.5V

0.8V

0.0V

≤1ns ≤1ns

2.0V

0.8V

Vth =1.5V

80%

Vth =V

CC/2

20%

0.0V

≤3ns ≤3ns

80%

20%

Vth =V

CC/2

CMOS Input Test Waveform (CY7B992)

VCC

R1=130

R2=91

CL=50pF(C

L=30 pF for –2 and –5 devices)

(Includes fixture and probe capacitance)

R1=100

R2=100

CL=50pF(C

(Includes fixture and probe capacitance)

VCC

=30 pF for –2 and –5 devices)

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 8 of 19

Switching Characteristics Over the Operating Range[2, 13]

CY7B991–2[14] CY7B992–2[14]

Parameter Description Min Typ Max Min Typ Max Unit

fNOM Operating Clock

Frequency in MHz FS = LOW[1, 2] 15 30 15 30 MHz

FS = MID[1, 2] 25 50 25 50

FS = HIGH[1, 2 , 3] 40 80 40 80[15]

tRPWH REF Pulse Width HIGH 5.0 5.0 ns

tRPWL REF Pulse Width LOW 5.0 5.0 ns

tUProgrammable Skew Unit See Table 1

tSKEWPR Zero Output Matched-Pair Skew

(XQ0, XQ1)[16, 17] 0.05 0.20 0.05 0.20 ns

tSKEW0 Zero Output Skew (All Outputs)[16, 18,19] 0.1 0.25 0.1 0.25 ns

tSKEW1 Output Skew (Rise-Rise, Fall-Fall, Same

Class Outputs)[16, 19] 0.25 0.5 0.25 0.5 ns

tSKEW2 Output Skew (Rise-Fall, Nominal-Inverted,

Divided-Divided)[16, 19] 0.3 0.5 0.3 0.5 ns

tSKEW3 Output Skew (Rise-Rise, Fall-Fall, Different

Class Outputs)[16, 19] 0.25 0.5 0.25 0.5 ns

tSKEW4 Output Skew (Rise-Fall, Nominal-Divided,

Divided-Inverted)[16, 19] 0.5 0.9 0.5 0.7 ns

tDEV Device-to-Device Skew[14, 21] 0.75 0.75 ns

tPD Propagation Delay, REF Rise to FB Rise –0.25 0.0 +0.25 –0.25 0.0 +0.25 ns

tODCV Output Duty Cycle Variation[22] –0.65 0.0 +0.65 –0.5 0.0 +0.5 ns

tPWH Output HIGH Time Deviation from 50%[23, 24] 2.0 3.0 ns

tPWL Output LOW Time Deviation from 50%[23, 24] 1.5 3.0 ns

tORISE Output Rise Time[23, 25] 0.15 1.0 1.2 0.5 2.0 2.5 ns

tOFALL Output Fall Time[23, 25] 0.15 1.0 1.2 0.5 2.0 2.5 ns

tLOCK PLL Lock Time[26] 0.5 0.5 ms

tJR Cycle-to-Cycle Output

Jitter RMS[14] 25 25 ps

Peak-to-Peak[14] 200 200 ps

Notes

12.CMOS output buffer current and power dissipation specified at 50 MHz reference frequency.

13.Test measurementlevels for the CY7B991 are TTL levels (1.5V to 1.5V). Test measurement levels for the CY7B992 are CMOS levels (VCC/2 to VCC/2). Test

conditions assume signal transition times of 2 ns or less and output loading as shown in the AC Test Loads and Waveforms unless otherwise specified.

14.Guaranteed by statistical correlation. Tested initially and after any design or process changes that affect these parameters.

15.Except as noted, all CY7B992–2 and –5 timing parameters are specified to 80 MHz with a 30 pF load.

16.SKEW is definedas the time between theearliest and the latest output transition among all outputs for which the same tU delay is selected when all areloaded

with 50 pF and terminated with 50Ωto 2.06V (CY7B991) or VCC/2 (CY7B992).

17.tSKEWPR is defined as the skew between a pair of outputs (XQ0 and XQ1) when all eight outputs are selected for 0tU.

18.tSKEW0 is defined as the skew between outputs when they are selected for 0tU. Other outputs are divided or inverted but not shifted.

19.CL=0 pF. For CL=30 pF, tSKEW0=0.35 ns.

20.There are three classes of outputs: Nominal (multiple of tU delay), Inverted (4Q0 and 4Q1 only with 4F0 = 4F1 = HIGH), and Divided (3Qx and 4Qx only in

Divide-by-2 or Divide-by-4 mode).

21.tDEV is the output-to-output skew between any two devices operating under the same conditions (VCC ambient temperature, air flow, and so on.)

22.tODCV is the deviation of the output from a 50% duty cycle. Output pulse width variations are included in tSKEW2 and tSKEW4 specifications.

23.Specified with outputs loaded with 30 pF for the CY7B99X–2 and –5 devices and 50 pF for the CY7B99X–7 devices. Devices are terminated through 50Ωto

2.06V (CY7B991) or VCC/2 (CY7B992).

24.tPWH is measured at 2.0V for the CY7B991 and 0.8 VCC for the CY7B992. tPWL is measured at 0.8V for the CY7B991 and 0.2 VCC for the CY7B992.

25.tORISE and tOFALL measured between 0.8V and 2.0V for the CY7B991 or 0.8VCC and 0.2VCC for the CY7B992.

26.tLOCK is the time that is required before synchronization is achieved. This specification is valid only after VCC is stable and within normal operating limits.

This parameter is measured from the application of a new signal or frequency at REF or FB until tPD is within specified limits.

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 9 of 19

Switching Characteristics

Over the Operating Range[2, 13] (continued)

CY7B991–5 CY7B992–5

Parameter Description Min Typ Max Min Typ Max Unit

fNOM Operating Clock

Frequency in MHz FS = LOW[1, 2] 15 30 15 30 MHz

FS = MID[1, 2] 25 50 25 50

FS = HIGH[1, 2 , 3] 40 80 40 80[15]

tRPWH REF Pulse Width HIGH 5.0 5.0 ns

tRPWL REF Pulse Width LOW 5.0 5.0 ns

tUProgrammable Skew Unit See Table 1

tSKEWPR Zero Output Matched-Pair Skew

(XQ0, XQ1)[16, 17] 0.1 0.25 0.1 0.25 ns

tSKEW0 Zero Output Skew (All Outputs)[16, 18] 0.25 0.5 0.25 0.5 ns

tSKEW1 Output Skew (Rise-Rise, Fall-Fall, Same

Class Outputs)[16, 19] 0.6 0.7 0.6 0.7 ns

tSKEW2 Output Skew (Rise-Fall, Nominal-Inverted,

Divided-Divided)[16, 19] 0.5 1.0 0.6 1.5 ns

tSKEW3 Output Skew (Rise-Rise, Fall-Fall, Different

Class Outputs)[16, 19] 0.5 0.7 0.5 0.7 ns

tSKEW4 Output Skew (Rise-Fall, Nominal-Divided,

Divided-Inverted)[16, 19] 0.5 1.0 0.6 1.7 ns

tDEV Device-to-Device Skew[14, 21] 1.25 1.25 ns

tPD Propagation Delay, REF Rise to FB Rise –0.5 0.0 +0.5 –0.5 0.0 +0.5 ns

tODCV Output Duty Cycle Variation[22] –1.0 0.0 +1.0 –1.2 0.0 +1.2 ns

tPWH Output HIGH Time Deviation from 50%[23, 24] 2.5 4.0 ns

tPWL Output LOW Time Deviation from 50%[23, 24] 34.0 ns

tORISE Output Rise Time[23, 25] 0.15 1.0 1.5 0.5 2.0 3.5 ns

tOFALL Output Fall Time[23, 25] 0.15 1.0 1.5 0.5 2.0 3.5 ns

tLOCK PLL Lock Time[26] 0.5 0.5 ms

tJR Cycle-to-Cycle Output

Jitter RMS[14] 25 25 ps

Peak-to-Peak[14] 200 200 ps

[+] Feedback

CY7B991

CY7B992

Document Number: 38-07138 Rev. *B Page 10 of 19

Switching Characteristics

Over the Operating Range[2, 13] (continued)

CY7B991–7 CY7B992–7

Parameter Description Min Typ Max Min Typ Max Unit

fNOM Operating Clock

Frequency in MHz FS = LOW[1, 2] 15 30 15 30 MHz

FS = MID[1, 2] 25 50 25 50

FS = HIGH[1, 2] 40 80 40 80[15]

tRPWH REF Pulse Width HIGH 5.0 5.0 ns

tRPWL REF Pulse Width LOW 5.0 5.0 ns

tUProgrammable Skew Unit See Table 1

tSKEWPR Zero Output Matched-Pair Skew

(XQ0, XQ1)[16, 17] 0.1 0.25 0.1 0.25 ns

tSKEW0 Zero Output Skew (All Outputs)[16, 18] 0.3 0.75 0.3 0.75 ns

tSKEW1 Output Skew (Rise-Rise, Fall-Fall, Same

Class Outputs)[16, 19] 0.6 1.0 0.6 1.0 ns

tSKEW2 Output Skew (Rise-Fall, Nominal-Inverted,

Divided-Divided)[16, 19] 1.0 1.5 1.0 1.5 ns

tSKEW3 Output Skew (Rise-Rise, Fall-Fall, Different

Class Outputs)[16, 19] 0.7 1.2 0.7 1.2 ns

tSKEW4 Output Skew (Rise-Fall, Nominal-Divided,

Divided-Inverted)[16, 19] 1.2 1.7 1.2 1.7 ns

tDEV Device-to-Device Skew[14, 22] 1.65 1.65 ns

tPD Propagation Delay, REF Rise to FB Rise –0.7 0.0 +0.7 –0.7 0.0 +0.7 ns

tODCV Output Duty Cycle Variation[22] –1.2 0.0 +1.2 –1.5 0.0 +1.5 ns

tPWH Output HIGHTimeDeviation from 50%[23,24] 35.5 ns

tPWL Output LOW Time Deviation from 50%[23, 24] 3.5 5.5 ns

tORISE Output Rise Time[23, 25] 0.15 1.5 2.5 0.5 3.0 5.0 ns

tOFALL Output Fall Time[23, 25] 0.15 1.5 2.5 0.5 3.0 5.0 ns

tLOCK PLL Lock Time[26] 0.5 0.5 ms

tJR Cycle-to-Cycle Output

Jitter RMS[14] 25 25 ps

Peak-to-Peak[14] 200 200 ps

[+] Feedback

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EMC2 VNX Series Manuel du propriétaire

Panasonic

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Mitsubishi Electric

Mitsubishi Electric Q81BD-J61BT11 Manuel utilisateur

Gigabyte

Gigabyte B660M DS3H AX DDR4 Manuel utilisateur

Raidon

Raidon iT2300 Manuel utilisateur

National Instruments

National Instruments PXI-8186 Manuel utilisateur

Hauppauge

Hauppauge WinTV-HVR-2250 Manuel utilisateur

Kontron

Kontron CP6002 Manuel utilisateur

Manhattan

Manhattan 702843 Manuel utilisateur

Aphex

Aphex 230 Manuel utilisateur

AMD

AMD Phenom II Manuel d'exploitation

Intel

Intel NUC 12 Pro Manuel utilisateur

dbx

dbx Zone Pro 1260 Manuel utilisateur

Galaxy

Galaxy GHDX2-2430S-24F4D Manuel utilisateur

Intel

Intel AXXRMFBU4 Manuel utilisateur

Kontron

Kontron DIMM-PC/MD Manuel utilisateur

ST X-NUCLEO-SAFEA1B Mode d'emploi

STEINWAY LYNGDORF

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