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800G OSFP To 4X 200G QSFP112 Breakout DAC Direct Attach Copper Cable

800G OSFP To 4X 200G QSFP112 Breakout DAC Direct Attach Copper Cable

D-net 800G OSFP112 Passive Direct Attach Copper Twinax Cable is designed for use in 800GBASE Ethernet.,OSFP112 is the module and cage/connector system based on current OSFP, targeting to support the 112Gb/s per lane speed in a 8x lane OSFP system and to enable the OSFP 800G interconnect eccosystem. This will greatly help the legacy OSFP users upgrade the link bandwidth to 800G per port with lower cost and shorter transition time. 800G OSFP112 TO 4x200G OSFP is an 800Gb/s twin-port OSFP (Octal Small Form-factor Pluggable) to 4x200Gb/s OSFP passive Direct Attach Copper (DAC) dual breakout (aka splitter) cable for 400Gb/s End-to-End Infiniband and Ethernet solutions. . The OSFP112 cable assembly is optimised to reduce crosstalk and insertion loss and has excellent signal integrity.
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Description
Technical Parameters
D-Net`S DAC Breakout Cables Service

 

Compatibility Assistance: D-NET offers compatibility services to ensure optical modules are compatible with equipment from leading manufacturers.
Personalized Services: D-NET provides OEM customization options for its products. Upon request, customers can have colored logo labels tailored to their needs.
Standard Delivery Period: 3 Days
Extensive Shipping Solutions: D-NET collaborates with highly reputable courier companies such as SF, FedEx, DHL, UPS, and others to ensure reliable shipping services.

 

Product Features

 

● MEET SFF-8636 & OSFP MSA

● MEET TO CMIS Rev5.1

● MEET IEEE802.3cd&IEEE802.3 ck

● Support I2C two - line string interface, easy to control

● Support for hot plugging

● Low crosstalk

● Eight-lane electrical interface transmits up to 112Gbps

 

Applications

 

● Telecommunications equipment

● Servers ,Routers ,Switches

● Central office ,Cellular infrastructure

● Servers ,Storage

 

Outline drawing

 

6

Model comparison table:

 

 

M.P/N

C.P/N

L1(mm)

AWG

O4O112P-005301-001

TBD

500±15

30

O4O112P-010301-001

TBD

1000±25

30

O4O112P-015281-001

TBD

1500±30

28

 

Wiring Diagram

 

7

 

Electrical Performance

 

Signal Integrity:

 

(ITEM)

(REQUIREMENT)

(TEST CONDITION)

(Differe ntial

Impedan ce)

 

Cable

Impedance

100±5Ω

Rise time of

25ps

(20 % - 80 %).

 

Paddle Card Impedance

100±10Ω

Cable

Termination

Impedance

100±10Ω

[Differential

(Input/Output)Return

loss SDD11/SDD22]

Return_loss(f)≥16.5-2√f                             0.05f4.1

                  10.66-14log10(f/ 5.5)       4.1f40

Where f is the frequency in GHz

Return loss(f) is the return loss at frequency f

10MHz≤f

≤40GHz

 

[Differential to

common-mode

(Input/Output)Return

loss SCD11/SCD22]

 

Return_loss(f)≥22- 10(f/26.56)   0.05f26.56

                   15-3(f/26.56)      26.56f40

Where f is the frequency in GHz

Return_loss(f) is the Differential to common-mode return loss at frequency f

 

50MHz=f

=40GHz

[Common-mode to

Common-mode

(Input/Output)Return

loss SCC11/SCC22]

 

Return_loss(f)≥1.8dB      0.05f40

Where f is the frequency in GHz

Return_loss(f) is the common-mode to common-mode return loss at frequency f

 

50MHz=f

=40GHz

[Differential Insertion Loss (SDD21

Max.)]

(Differential InsertionLoss Max. For TPa to TPb Excluding Test fixture )

Insertion _loss(f) ≥-19.75dB      0.05≤f≤26.56

Where f is the frequency in GHz

Insertion Loss (f) Differential Insertion Loss at frequency f

50MHz=f

=40GHz

[Insertion Loss Deviation]

-0.176*f - 0.7 ≤ ILD ≤ 0.176* f + 0.7

50MHz≤f ≤

26.56GHz

Differential to

common-mode

Conversion

Loss-Differential

Insertion

Loss(SCD21-SDD21)

 

         Conversion _loss(f) – IL(f)≥10                          0.05f < 12.89

                                                  14-0.3108f             12.89f40

Where

f is the frequency in GHz

Conversion_loss(f ) is the cable assembly differential to common-mode conversion loss

IL(f) is the cable assembly insertion loss

 

50MHz≤f ≤

40GHz

[MDNEXT(multiple

disturber

near-end crosstalk)]

≥35dB @26.5GHz

10MHz=f

=26.5GHz

[Intra Skew]

10ps/m,

10MHz=f

=26.5GHz

 

Other Electrical Performance:

 

(ITEM)

(REQUIREMENT)

(TEST CONDITON)

[Low Level Contact Resistance]

20milliohms Max. From initial.

EIA-364-23:Apply a maximum voltage of 20mV

And a current of 100 mA.

Insulation Resistance

10Mohm(Min.)

EIA364-21:AC 300V 1minute

 [Dielectric

Withstanding Voltage]

NO disruptive dischharge.

EIA-364-20:Apply a voltage of 300 VDC for 1minute between adjacent terminals And between adjacent terminals and

ground.

 

Environment Performance

 

(ITEM)

(REQUIREMENT)

(TEST CONDITON)

[Operating Temp. Range]

0°C to +70°C

Cable operating temperature range.

[Storage Temp.

Range (in packed condition)]

-40°C to +85°C

Cable storage temperature range

in packed condition.

[Thermal Cycling Non-Powered]

No evidence of physical damage

EIA-364-32D, Method A, -25 to 90C, 100 cycles, 15 min. dwells

[Salt Spraying]

48 hours salt spraying after shell corrosive area less than 5%.

EIA-364-26

Mixed Flowing Gas

Pass electrical tests per 3.1 after stressing. (For connector only)

EIA-364-35 Class II,14 days.

Temp. Life

No evidence of physical damage

EIA-364-17C w/ RH, Damp heat 90℃ at

85% RH for 500 hours then return to ambient

Cable Cold Bend

4H,No evidence of physical

damage

Condition: -20℃±2℃ , mandrel diameter

is 6 times the cable diameter.

 

Mechanical and Physical Characteristics

 

(ITEM)

(REQUIREMENT)

(TEST CONDITON)

Vibration

Pass electrical tests

per 3.1 after stressing.

Clamp & vibrate per EIA-364-28E,

TC-VII, test condition letter – D, 15 minutes in X, Y & Z axis.

Cable Flex

No evidence of physical

damage

Flex cable 180° for 20 cycles (±90° from nominal position) at 12 cycles per minute with a 1.0kg load applied to the cable

jacket. Flex in the boot area 90º in each direction from vertical. Per EIA-364-41C

Cable Plug Retention in Cage

90N Min.

No evidence of physical

damage

Force to be applied axxially with no damage to cage. Per SFF 8661 Rev 2.1

Pull on cable jacket approximately 1 ft

behind cable plug. No functional damage to cable plug below 90N.

Per SFF-8432 Rev 5.0

Cable Retention in Plug

90N Min.

No evidence of physical

damage

Cable plug is fixtured with the bulk cable hanging vertically. A 90N axial load is

applied (gradually) to the cable jacket and held for 1 minute. Per EIA-364-38B

Mechanical Shock

Pass electrical tests

Per 3.1 after stressing.

Clamp and shock per EIA-364-27B, TC-G,3 times in 6 directions, 100g, 6ms.

Cable Plug Insertion

40N Max.(QSFP112)

40N Max.(55N) OS FP)

Per QSFP112_MSA _Rev2.1.1

Per OSFP _Specification_Rev5_0

Cable plug Extraction

30N Max. (QSFP112)

30N Max. (45N) OS FP

Per OSFP _Specification_Rev5_0 Measure without the aid of any cage kick-out springs. Place axial load on de-latch to de-latch pllug. Per

QSFP112_MSA _Rev2.1.1

Durability

50 cycles,No evidence of

physical damage

EIA-364-09, perform pplug &unplug

cycles:Plug and receptacle mate rate:

250times/hour. 50times for QSFP28/SFP28 module (CONNECTOR TO PCB)

 

Package diagram

 

Both ends of the connector use protective sleeve protection, each into a separate anti - static bag.

<=2m : 200mm*300mm

   >2m: 300mm*400mm

 

Product number explain

 

product-537-202

 

FAQ

 

1. What connector types are used on both ends of the cable?
A: One end of the cable features an OSFP connector, designed for high-speed optical and copper interfaces, while the other end has four QSFP112 connectors, each capable of 200Gbit/s data rates.

 

2. What is the purpose of the breakout feature in this cable?
A: The breakout feature allows a single high-speed OSFP interface to be split into four lower-speed QSFP112 interfaces, providing flexibility in network configurations and enabling the use of existing 200G infrastructure.

 

3. How does this cable handle signal integrity and EMI/RFI interference?

A: The cable is designed with shielding and impedance-controlled construction to maintain signal integrity and reduce electromagnetic interference (EMI) and radio frequency interference (RFI).

 

4. Can this cable be used for both transmit and receive applications?

A: Yes, this DAC cable is bidirectional, meaning it can be used for both transmit and receive applications, depending on the system configuration.

 

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