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ISAC/PUBLIC TENDER NOTICE NO. 05 14th May, 2015
On behalf of the President of India, Head, Purchase & Stores, ISRO Satellite Centre [ISAC], HAL Airport Road, Vimanapura Post, Bangalore – 560 017, invites sealed tenders for the supply of the following items:
TWO PART TENDER
01 ISGE-2014-0-28293-01 100% Polyester knitted screen
02 ISIR -2014-0-30096-01 GNSS RF Front End ASICs
03 ISIR-2015-0-30659-01 Design & Fabrication of High Density Interconnect Printed Circuit Boards
SUBMISSION OF TENDER : 25TH June 2015 AT 16.00HRS (IST) OPENING OF TENDER : 26TH June 2015 AT 10.30HRS (IST)
Tender documents can be downloaded from www.isro.gov.in. Tender fees at Rs. 229/- by Demand Draft shall be drawn separately for each Tender and submitted along with offer. Tenders will be opened in presence of attending Tenderers or their authorized representatives on production of valid Authorisation Letter.
Head, Purchase & Stores
GOVERNMENT OF INDIA, DEPARTMENT OF SPACE ISRO SATELLITE CENTRE (ISAC)
TWO PART
SL. No. 03 FILE NO. ISIR-2015-0-30659-01 Description: Design & Fabrication of High Density Interconnect Printed Circuit Boards Quantity : As per Tender document
Specifications For
Design and fabrication of
High Density Interconnect Printed Circuit Boards
Table of Contents
1. Introduction .................................................................................................................
2. Scope of the document ...............................................................................................
3. Applicable Documents ................................................................................................
4. Terms and Definitions .................................................................................................
5. Scope of the Indent.....................................................................................................
6. PCB Design and Analysis and Fabrication .................................................................
7. Deliverables for Design and fabrication ......................................................................
8. Types of circuits and Quantity ....................................................................................
9. Responsibility Matrix ...................................................................................................
10. General Terms and Conditions ................................................................................
11. Other Terms and Conditions ...................................................................................
12. Quote Details ...........................................................................................................
13. Compliance Matrix ...................................................................................................
14. Quote Matrix ............................................................................................................
15. Annexure 1 – Circuit Details for Design and analysis ..............................................
16. Annexure 2 - Circuit Details for Proto-model Fabrication.........................................
17. Annexure 3 - Circuit Details for Qualification model Fabrication ..............................
18. Constraint Manager Inputs ......................................................................................
1. Introduction
ISRO Satellite Centre is the nodal centre for development of communication and remote sensing satellites for Indian space programmes.
Electronic packaging is the backbone of any satellite systems and continuous research and development are being carried out to improve the performance and reduce the weight and volume, which are a premium.
High Density Interconnect technology is proposed for electronic packaging in space systems due to its advantages in performance, weight and volume and ability to accommodate fine-pitch high pin count components, especially array components.
2. Scope of the document
The scope of this document is to provide the requirementsfor design, design analysis, fabrication and testing of High Density Interconnect PCBs and their supply to ISAC.
3. Applicable Documents
1. IPC/JPCA-2315 Design Guide for High Density Interconnects and microvias 2. IPC-2226 Sectional Design Standard for High Density Interconnect Printed
Boards 3. IPC-6016 Qualification and performance specification for High Density
Interconnect Layers or Boards 4. IPC-6012 Qualification and performance specification for rigid printed Boards 5. IPC-4761Design guide for protection of printed board via structures 6. ISRO-PAX-304 –Issue 2 Acceptance and tests requirements for Printed
circuit boards
4. Terms and Definitions
1. ISAC : ISRO Satellite Centre 2. MCHF: Micro Circuits and High Density Interconnect Facility at ISAC 3. ECAD: Electronic CAD Design Facility at ISAC 4. PCF: Printed Circuits Facility at ISAC 5. Vendor: The entity responsible for carrying out the activities as mentioned in
the scope. The vendor will interact directly with ISAC during design, fabrication and testing phases.
6. HDI: High Density Interconnect 7. MLB: Multilayer Printed Circuit Board 8. SRG: System Reliability Group at ISAC
5. Scope of the Indent
The scope of the indent includes the following:
5.1. PCB Design and Analysis Design of HDI layout from the schematic provided
Analysis of the design
Design Verification
5.2. Protomodel Fabrication Fabrication of Protomodel PCB
Testing of fabricated PCB
Acceptance of PCB by ISAC
5.3. Qualification model Fabrication Fabrication of qualification model PCB
Testing of fabricated PCB
Approval and Acceptance of PCB by ISAC
6. PCB Design and Analysis and Fabrication
6.1. General guidelines IPC Performance Class: Class 3, High Reliability Electronic Products
IPC Producibility Level: Level A, General Design Complexity
IPC Board Type/Construction: Type 3, Multilayer board with Blind Via
The vendor should use Expedition / Allegro / CR5000 / CR8000 for design
Design Analysis should be done by Hyperlynx.
Copy of the license of all tools used should be enclosed in the bid.
6.2. Inputs from ISAC Schematic with constraint manager inputs
Footprint drawing in pdf format
Datasheets in pdf format for pin assignments
Components List in Excel / pdf with dissipation.
PCB Mechanical Drawing in dxf format
IBIS/Spice Models of components in ASCII format, if required. Wherever IBIS/Spice models are not available, the same should be generated by the vendor using Hyperlynx Visual IBIS Editor/Spice Model Generator and should be used after ISAC approval
6.3. Design of HDI layout from the schematic using Integrated Design Environment for schematic entry, Layout and Analysis - Activities involved
Footprint generation for the part and mapping with circuit symbol
Generation of PCB outline as per given mechanical dimensions (imported DXF) and placement of stacking holes
Schematictransfer
Placement of fixed position components as per mechanical drawing
Component Placement using component file and as suggested by designer.
Layer Stack-up Definition
Design Rule generation as per Table 2
Routing
Copper pouring as per design requirement
Design Rule and electrical rules checking
Completion of layout
6.4. Design analysis The vendor should use Hyperlynx tool for analysis.
The analysis should be performed as per the details of each design.
The vendor should enclose the results of each analysis for verification.
Signal Integrity (SI) analysis
SI analysis at pre-layout stage, if applicable SI analysis at post layout stage as per constraints manager Cross talk analysis SSN Analysis Reflection analysis – Overshoot, undershoot, rise and fall time, settling
time. Suggest termination type and value of components. Impedance analysis Preparation of report based on analysis
Power Integrity (PI) analysis
IR Drop analysis Decoupling analysis and suggest value of decoupling capacitors and
locations Resonance analysis. Frequency plot should be given. Preparation of report based on analysis
EMI/EMC Analysis
Compliance analysis based onstandards DFT plot for specified nets as per constraints manager Preparation of report based on analysis
Thermal Analysis
Identification of hotspots and design analysis under vacuum condition. Board design in STEP format to be provided.
6.5. Design Verification ISAC will perform verification of design by intelligent pdf, reports and verification at
Vendor’s site, if required.
Modification suggested by ISAC should be incorporated in the design with maximum 5% modification in nets/components.
6.6. Design Approval On successful verification and implementation of changes if any, ISAC will approve the
design for fabrication.
Approval of the design will be subject to compliance / clearance of all design requirements and applicable analysis requirements like thermal, EMI, EMC, SI and PI. All iterations to meet the design or analysis compliance should be done at no additional charges.
A copy of all the details in hard and soft form after approval should be handed over to ISAC.
6.7. PCB fabrication Raw Materials
The vendor should provide details of the materials used in the fabrication process and their technical datasheets and Certificate of Compliance
The materials should meet the specs as provided in Table 1 Sl No Material Description Specification / Compliance
1 Laminate High Tg FR4 with Tg >175 0C and complying to IPC 4101/29 or IPC4101/24
2 Prepreg High Tg FR4 with Tg >175 0C and complying to IPC 4101/29 or IPC4101/24
3 Laser Drillable Prepreg High Tg FR4 with Tg >175 0C
4 Via plugging materials Compatible CTE for laminates mentioned and shall be stable in thermo vacuum environment. Material should also meet the requirement of outgassing requirements of TML<1% and CVCM<0.1% and comply with IPC-4761
5 Soldermask Epoxy based and shall be stable in thermo vacuum environment. Material should also meet the requirement of outgassing requirements of TML<1% and CVCM<0.1%. Should be compatible with polyurethane conformal coating
Table 1 Details of Materials
The specifications for the PCB are provided in Table 2. Sl No Parameter Specifications Remarks
1 No. of layers (N) Maximum 14 -
2 Core layers (n) N-4 -
3 Construction 2+n+2. n can be max. 10 Eg. Stacked via 1-2, 2-3, 12-13,13-14
4 Through Via 200 µ 650µ pad
6 Through via plating 35 + 10 µ -
7 Inner layer copper thickness (core)
35 µ -
7 Stacked vias 150 µ 450µ pad
8 Stacked via filling with copper
9 Through Via filling Hole plugging material
10 Cap plating thickness 30µ minimum -
Sl No Parameter Specifications Remarks
11 Outer layer basic copper thickness (foil thickness)
~9 + 4 microns
-
12 Total Outer layer copper thickness without cap plating
40µ minimum -
13 Total Outer layer copper thickness with cap plating
60µ minimum -
14 Layer 2 and Layer N-1 basic copper thickness (foil thickness)
~9 + 4 microns
-
15 Total copper thickness for Layer 2 and Layer N-1
40 µ minimum Without cap plating
16 Layer 3 and Layer N-2 basic copper thickness (foil thickness)
~9 + 4 microns
17 Total copper thickness for Layer 3 and Layer N-2 without cap plating
40 µ minimum
18 Total copper thickness for Layer 3 and Layer N-2 with cap plating
60 µ minimum
19 Line width 125 microns
20 Spacing 125 microns
21 Surface finish HASL Corner : Just coverage sufficient
22 Dielectric thickness in L1-L2, L2-L3, N-2)-(N-1), (N-1)-N
Minimum 50 microns. Max. 100 microns
23 Core layers Dielectric thickness
100 microns minimum
25 Card thickness 2.2+ 0.15 mm
Table 2 Specifications for the PCB Test coupon requirements
Each MLB/Panel shall have four test coupons (as per the standard test pattern of ISAC) integrated with card by routing process. Two test coupons shall be sent to ISAC for the verification tests. Other two coupons shall be used for conducting tests at vendor facility. Gerber files of test coupon will be
supplied by ISAC. The test coupon details and layout / placementare as per ISRO-PAX-304 Issue 2 Clause 7.9.
Process
The vendor should provide the detailed process flow with flow chart and equipments and process parameters used in each process and Process Identification Document (PID) / Standard Operating Procedures (SOP)
Details of chemicals used in each chemical process with part number are preferred to be given.
Details of metallization techniques should be provided. Direct metallization shall not be used. Blind vias should be metal (copper) filled. Via dimples should not be more than 10 microns Buried vias should be filled with via plugging material. Adequate test coupons should be processed along with the panel for quality
analysis of PCBs. ISAC supplied coupon gerber should be incorporated in the PCB panel.
In-process Inspection
The details of in-process inspections stages, activities carried out and reports for the same should be provided.
Final Inspection
The final inspection at vendor’s place should include, but not limited to, the following
Visual inspection Mechanical Inspection Bare board electrical testing Impedance tests Micro section tests. HATS (500 cycles) for Qualification model PCB
Tests and reports
The details of the acceptance tests to be carried out is listed in ISRO-PAX-304 Issue-2 Clause 7.10
The inspection reports that shall accompanied PCBs being supplied is as per ISRO-PAX-304 Issue-2 Clause 7.10.5
Packing, storage and shipment
Adequate care should be taken during, packaging, handling and transportation of the PCBs to avoid the damage during transportation from rough handling, heat, humidity, dust, mechanical shock, vibration and ionic
contamination. The packaging, storage and shipment for PCBs should be as per the details provided in ISRO-PAX-304 Issue-2 Clause 7.12
Proto model PCB acceptance at ISAC
ISAC will accept the PCBs based on the test results from the vendor. ISAC also reserves the right to conduct the following tests for quality
evaluation of the PCBs at ISAC. If PCBs are rejected, replacement PCBs to be provided free of cost. Visual Inspection
Mechanical Inspection
Impedance tests
Microsection tests of two test coupons provided along with the panel.
Performance evaluation by Subsystem
Qualification model PCB Evaluation and Acceptance by ISAC
ISAC will conduct the following tests for quality evaluation of the PCBs at ISAC Visual Inspection
Mechanical Inspection
Impedance Tests
Microsection and Electrical tests of two test coupons provided along with the panel.
Any rejection will be intimated to the vendor and the same needs to be replaced at the earliest.
7. Deliverables for Design and fabrication
7.1. Deliverables from ISAC The deliverables from ISAC will be given in soft form through mail to the vendors.
Other inputs if any, in CDs or hard formats should be collected by the vendor from ISAC.
The following are the deliverables from ISAC.
Schematic with constraint manager inputs Footprint drawing in pdf format Datasheets in pdf format for pin assignments Components List in Excel / pdf PCB Mechanical Drawing in dxf format IBIS/Spice Models of components in ASCII format. Any model not provided and
mentioned to be required should be generated by Vendor with approval from ISAC.
Test Coupon Gerber ISRO standards as mentioned in applicable documents
7.2. Deliverables from Vendor Layout Design and Analysis
Stage1:Schematic Design file and intelligent pdf Stage 2: Component placement report Stage 3: Stack-up report Stage 4: Routing completion report Stage 5: DRC report, board status reports and constraints set file. Stage 6: Post layout analysis reports as per Clause 6.4 Stage 6: Final Data pack with the following
Soft Formats Gerber files in extended gerber format
Drill file and rout files in Excellon-2 format
PCB file
Design File
Silk screen files
Soldermask files
Paste mask files
Placement files with body centering
PDF files for all layers
Component marking print for top and bottom layers
Component list
Drill report
Printed Formats ( hard copy) All layer print outs
Silk screen prints
Component marking & placement print for top and bottom layers
Component list
PTH marking print
Drilling details
Drill report
The vendor should provide the deliverables at each stage to ISAC and ISAC will verify the same
PCB Fabrication
PCBs in ordered quantity with associated test coupons Test / inspection reports as mentioned in ISRO-PAX-304 Issue 2 Clause
7.10.5 Reports of any other additional tests, if conducted. In-process inspection records Traveler cards Non-conformance reports, if any, and close-outs.
8. Types of circuits and Quantity
8.1. Design As per Annexure 1
8.2. Proto Model As per Annexure 2
8.3. Qualification Model As per Annexure 3
9. Responsibility Matrix
SL No Activity Responsibility Deliverables from ISAC
Deliverables from Vendor
ISAC Vendor
1 Schematic Design √ √ - -
2 Layout Design as per clause 6.3
√ As per Clause 6.2 -
3 Design Analysis as per clause 6.4
√ As per Clause 6.2 -
4 Design Verification √ √ Design, reports and intelligent pdf
5 Design Modification √ √ Design changes
SL No Activity Responsibility Deliverables from ISAC
Deliverables from Vendor
ISAC Vendor
required
6 Design Verification and approval
√ √ Design changes required
Design, reports and intelligent pdf
7 Proto-model PCB fabrication
√ Fabrications specifications as per clause 6.7.1 to 6.7.7
PID, process details and flow chart
8 Review of fabrication process
√ - Traveler cards
9 Proto-model PCB Delivery √ - As per Clause 7.2.2
10 Proto-model PCB Acceptance
√ √ As per Clause 0
11 Qualification model PCB fabrication
√ Fabrications specifications as per clause 6.7.1 to 6.7.7
12 Qualification model PCB Delivery
√ As per Clause 7.2.2
13 Qualification model PCB acceptance
√ √ As per clause 0
10. General Terms and Conditions
10.1. The indent is for the entire scope as mentioned in Clause 3.0. The offer should include design, analysis of design, proto and qualification model fabrication and testing.
10.2. ISAC prefers to have both proto-model and qualification model PCBs from the same process line.
10.3. ISAC reserves the right to review the progress of work at various stages. ISAC reserves the right to verify & audit at any time, adherence by thecontractor to the workmanship standards and procedures.
10.4. The vendor should facilitate for verification of design at Bangalore. 10.5. The given jobs are to be evaluated and should be completed in mutually
agreed time frame. 10.6. The technical information, drawings and other related documents given by
ISAC in the course of the work should remain the property of Government of India, Department of Space. The given Material / Documents should not be used for any other purpose or be duplicated in any case.
10.7. The vendor shall be binding to the terms and conditions of ISAC Work Order/Agreement.
11. Other Terms and Conditions
11.1. Payment The payment terms may be
100% payment after completion of all activities as per the scope of the work or
100% Performance bank Guarantee in case of milestone based payment as per the milestones mentioned below. Sl No Mile Stone Payment %
1 Layout completion & approval by ISAC 30%
Protomodel
2 PCB fabrication by Vendor & acceptance by ISAC 30%
Qualification Model
3 PCB fabrication by Vendor & acceptance by ISAC 40%
12. Quote Details
12.1. The bid should contain compliance for all specifications and terms and conditions as set by ISAC.
12.2. The vendor should enclose the capability and facility details including major / critical equipments used in HDI fabrication along with technical bid.
12.3. The vendor should make a statement that he has understood the requirements of work and confirms feasibility of taking up the work as per the scope mentioned in Clause 5.0.
12.4. Rates quoted should be valid throughout the completion of the work under the scope of the proposal from the date of placing order.
12.5. The quote should be separate for design, proto-model fabrication and qualification model fabrication and should be as per the quote matrix in Clause 13.0.
12.6. The L1 (lowest quote) will be arrived based on the cumulative cost of all activities as mentioned Clause 12.0
13. Compliance Matrix
Sl. No.
DESCRIPTION SPECIFICATIONS VENDOR COMPLIANCE
1. Availability of CAD tools with Vendor
Cadence allegro / Mentor Expedition / CR5000 / CR8000
2. Analysis Tools availability with Vendor
Hyperlynx
3. Design Verification by ISAC using vendor software
Should be at Bangalore
4. Approval status of fabrication of IPC Type-3 HDI
MIL / NASA / ESA / JAXA
5. HATS acceptance test
Should comply
6. Agreeable to Clause 5 to 12 in the specifications
NOTE: COMPLIANCE TO ALL THE PARAMETERS ARE MANDATORY FOR TECHNICAL ACCEPTANCE OF THE OFFER.
14. Quote Matrix
PCB Name: Qty:
Sl No Description Rate (Rs) Remarks
1 Layout Design
1.1 Component Placement
1.2 Routing
1.3 SI Analysis
1.4 PI Analysis
1.5 Thermal Analysis
1.6 EMI / EMC Simulation
2 Proto Model Fabrication
15. Annexure 1 –Circuit Details for Design and analysis
Sl No PCB Name Qty Design Input Reference
1. SSR DDRAM PCB 1 Clause 17.1
16. Annexure 2 - Circuit Details for Proto-model Fabrication
Sl No PCB Name Qty
1. SSR DDRAM PCB 1
17. Annexure 3 - Circuit Details for Qualification model Fabrication
Sl No PCB Name Qty
1. SSR DDRAM PCB 1
18. Constraint Manager Inputs
18.1. Design Name: SSR DDRAM PCB Table 3 Layout Design Inputs
Sl No Parameters Input from ISAC
1. Placement Parameters
1.1. Total number of Components to place As per Component List on 12” x 12” size
1.2. Number of SMD pins 4424
1.3. Number of through hole pins 197
1.4. High pin count component like BGAs or CCGAs No BGA / CCGA components
1.5. Preferred components mounting (Top only/Both/Bottom only)
As per Component List
1.6. Placement height restriction requirement As per mech. dwg
1.7. Passive Components allowed only on bottom Side Yes
1.8. Test-Point Assignments for ICT -
2. Routing parameters
2.1. Number of connections 3137
2.2. Power / Ground connections 1288
2.3.
Hand route critical connections
1. Crystal clock to FPGA, 2. SSR Controller FPGA 80
MHz clock to Memory Controller FPGA,
3. DDR lines: Chip select (CS[0-31]#), Clock Enables (CKE[0-
31]), Clock, DQ, DQS, Address, Bank Address, Control lines for DDR (
RAS, CAS, WE, LDM, UDM)
4. LVDS i/o lines ( As per list attached)
2.4. Non-critical hand route connections None
2.5.
Number of differential pairs
DDR clock - 4
LVDS i/o lines – 8 + 1 + 1+8+1+1+1 : Total : 21
Total: 25
2.6. Number of signals to be delay matched LVDS – 21 diff pairs DDR
o clock – 4 diff pairs o Chip select (CS[0-
31]#), o Clock Enables
(CKE[0-31]), o Set 1/2 Addr - 14
lines o Set 1/2 BA – 2 lines o Set 1/2 RAS, CAS,
WE, LDM, UDM – 5 lines
o DDR DQ – 80 lines o DQS - 10 lines
2.7. High Current Signal List and Rating Power planes provided appropriately
2.8. Is Auto routing acceptable Yes, other than for critical signals mentioned above
3. Major interfaces
3.1. Major Interfaces e.g - DDR,Ethernet,Video,Audio,PCI Express etc.
DDR
3.2. Major chipset Part numbers NIL
3.3. Product families such as Virtex-II,Virtex-IV Pro etc. Actel RTAX2000S – CQ352 – 2 numbers.
4. Analysis requirement
4.1. Thermal Analysis Required (table 4)
4.2. SI Analysis Required (Table 5)
4.3. EMI Analysis Required (Table 5)
4.4. Power Integrity Analysis Required (Table 7, 8)
Table 4Thermal analysis Inputs Sl No Parameter Input from ISAC
1 Incoming air Velocity 0 mm/s
Table 5SI analysis Inputs Sl No Parameter Input from ISAC
1. Type of Analysis Required
1.1. Reflection & Cross Talk Required
1.2. EMI Required
1.3. Timing Required
1.4. Type of EMI Analysis Required Near Field radiated emissions analysis – board level
2. RE Standard MIL461
3. Native CAD format of PCB Design Cadence Allegro / Mentor Expedition
4. List of Critical signals As per Table 6
Table 6List of Critical Signals
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
1 MEMDATA_0 U17 5
U22 5 80 MHz (DQ has switching at Yes Single
One of the 4 receiver pins drives in the reverse direction at a
U27 5 U32 5
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U37 5 both edges of clock)
time. Others are tristated
2 MEMDATA_1 U17 6
U22 7
80 MHz Yes Single Same as above
U27 7 U32 7 U37 7
3 MEMDATA_2 U17 7
U22 8
80 MHz Yes Single Same as above
U27 8 U32 8 U37 8
4 MEMDATA_3 U17 10
U22 10
80 MHz Yes Single Same as above
U27 10 U32 10 U37 10
5 MEMDATA_4 U17 11
U22 11
80 MHz Yes Single Same as above
U27 11 U32 11 U37 11
6 MEMDATA_5 U17 12
U22 13
80 MHz Yes Single Same as above
U27 13 U32 13 U37 13
7 MEMDATA_6 U17 13
U22 14
80 MHz Yes Single Same as above
U27 14 U32 14 U37 14
8 MEMDATA_7 U17 16
U22 16
80 MHz Yes Single Same as above
U27 16 U32 16 U37 16
9 MEMDATA_8 U17 17
U22 63
80 MHz Yes Single Same as above
U27 63 U32 63 U37 63
10 MEMDATA_9 U17 18
U22 65
80 MHz Yes Single Same as above
U27 65 U32 65 U37 65
11 MEMDATA_10 U17 19
U22 66 U27 66
80 MHz Yes Single Same as above U32 66 U37 66
12 MEMDATA_11 U17 22
U22 68
80 MHz Yes Single Same as above U27 68 U32 68
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U37 68
13 MEMDATA_12 U17 23
U22 69
80 MHz Yes Single Same as above
U27 69 U32 69 U37 69
14 MEMDATA_13 U17 24
U22 71
80 MHz Yes Single Same as above
U27 71 U32 71 U37 71
15 MEMDATA_14 U17 25
U22 72
80 MHz Yes Single Same as above
U27 72 U32 72 U37 72
16 MEMDATA_15 U17 28
U22 74
80 MHz Yes Single Same as above
U27 74 U32 74 U37 74
17 MEMDATA_16 U17 29
U21 5
80 MHz Yes Single Same as above
U26 5 U31 5 U36 5
18 MEMDATA_17 U17 30
U21 7
80 MHz Yes Single Same as above
U26 7 U31 7 U36 7
19 MEMDATA_18 U17 31
U21 8
80 MHz Yes Single Same as above
U26 8 U31 8 U36 8
20 MEMDATA_19 U17 34
U21 10
80 MHz Yes Single Same as above
U26 10 U31 10 U36 10
21 MEMDATA_20 U17 35
U21 11
80 MHz Yes Single Same as above
U26 11 U31 11 U36 11
22 MEMDATA_21 U17 36
U21 13 U26 13 U31 13
80 MHz Yes Single Same as above U36 13
23 MEMDATA_22 U17 37
U21 14
80 MHz Yes Single Same as above
U26 14 U31 14 U36 14
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
24 MEMDATA_23 U17 40
U21 16
80 MHz Yes Single Same as above
U26 16 U31 16 U36 16
25 MEMDATA_24 U17 41
U21 63
80 MHz Yes Single Same as above
U26 63 U31 63 U36 63
26 MEMDATA_25 U17 42
U21 65
80 MHz Yes Single Same as above
U26 65 U31 65 U36 65
27 MEMDATA_26 U17 43
U21 66
80 MHz Yes Single Same as above
U26 66 U31 66 U36 66
28 MEMDATA_27 U17 47
U21 68
80 MHz Yes Single Same as above
U26 68 U31 68 U36 68
29 MEMDATA_28 U17 48
U21 69
80 MHz Yes Single Same as above
U26 69 U31 69 U36 69
30 MEMDATA_29 U17 49
U21 71
80 MHz Yes Single Same as above
U26 71 U31 71 U36 71
31 MEMDATA_30 U17 52
U21 72
80 MHz Yes Single Same as above
U26 72 U31 72 U36 72
32 MEMDATA_31 U17 53
U21 74
80 MHz Yes Single Same as above
U26 74 U31 74 U36 74
33 MEMDATA_32 U17 54
U20 5 U25 5
80 MHz Yes Single Same as above U30 5 U35 5
34 MEMDATA_33 U17 55
U20 7
80 MHz Yes Single Same as above
U25 7 U30 7 U35 7
35 MEMDATA_34 U17 58 U20 8 80 MHz Yes Single Same as above
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U25 8 U30 8 U35 8
36 MEMDATA_35 U17 59
U20 10
80 MHz Yes Single Same as above
U25 10 U30 10 U35 10
37 MEMDATA_36 U17 60
U20 11
80 MHz Yes Single Same as above
U25 11 U30 11 U35 11
38 MEMDATA_37 U17 61
U20 13
80 MHz Yes Single Same as above
U25 13 U30 13 U35 13
39 MEMDATA_38 U17 64
U20 14
80 MHz Yes Single Same as above
U25 14 U30 14 U35 14
40 MEMDATA_39 U17 65
U20 16
80 MHz Yes Single Same as above
U25 16 U30 16 U35 16
41 MEMDATA_40 U17 66
U20 63
80 MHz Yes Single Same as above
U25 63 U30 63 U35 63
42 MEMDATA_41 U17 67
U20 65
80 MHz Yes Single Same as above
U25 65 U30 65 U35 65
43 MEMDATA_42 U17 70
U20 66
80 MHz Yes Single Same as above
U25 66 U30 66 U35 66
44 MEMDATA_43 U17 71
U20 68
80 MHz Yes Single Same as above
U25 68 U30 68 U35 68
45 MEMDATA_44 U17 72
U20 69
80 MHz Yes Single Same as above
U25 69 U30 69 U35 69
46 MEMDATA_45 U17 73 U20 71 80 MHz Yes Single Same as above
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U25 71 U30 71 U35 71
47 MEMDATA_46 U17 76
U20 72
80 MHz Yes Single Same as above
U25 72 U30 72 U35 72
48 MEMDATA_47 U17 77
U20 74
80 MHz Yes Single Same as above
U25 74 U30 74 U35 74
49 MEMDATA_48 U17 78
U19 5
80 MHz Yes Single Same as above
U24 5 U29 5 U34 5
50 MEMDATA_49 U17 79
U19 7
80 MHz Yes Single Same as above
U24 7 U29 7 U34 7
51 MEMDATA_50 U17 82
U19 8
80 MHz Yes Single Same as above
U24 8 U29 8 U34 8
52 MEMDATA_51 U17 83
U19 10
80 MHz Yes Single Same as above
U24 10 U29 10 U34 10
53 MEMDATA_52 U17 84
U19 11
80 MHz Yes Single Same as above
U24 11 U29 11 U34 11
54 MEMDATA_53 U17 85
U19 13
80 MHz Yes Single Same as above
U24 13 U29 13 U34 13
55 MEMDATA_54 U17 86
U19 14
80 MHz Yes Single Same as above
U24 14 U29 14 U34 14
56 MEMDATA_55 U17 93
U19 16
80 MHz Yes Single Same as above
U24 16 U29 16 U34 16
57 MEMDATA_56 U17 94 U19 63
80 MHz Yes Single Same as above U24 63
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U29 63 U34 63
58 MEMDATA_57 U17 95
U19 65
80 MHz Yes Single Same as above
U24 65 U29 65 U34 65
59 MEMDATA_58 U17 98
U19 66
80 MHz Yes Single Same as above
U24 66 U29 66 U34 66
60 MEMDATA_59 U17 99
U19 68
80 MHz Yes Single Same as above
U24 68 U29 68 U34 68
61 MEMDATA_60 U17 100
U19 69
80 MHz Yes Single Same as above
U24 69 U29 69 U34 69
62 MEMDATA_61 U17 101
U19 71
80 MHz Yes Single Same as above
U24 71 U29 71 U34 71
63 MEMDATA_62 U17 104
U19 72
80 MHz Yes Single Same as above
U24 72 U29 72 U34 72
64 MEMDATA_63 U17 105
U19 74
80 MHz Yes Single Same as above
U24 74 U29 74 U34 74
65 MEMDATA_64 U17 106
U18 5
80 MHz Yes Single Same as above
U23 5 U28 5 U33 5
66 MEMDATA_65 U17 107
U18 7
80 MHz Yes Single Same as above
U23 7 U28 7 U33 7
67 MEMDATA_66 U17 110
U18 8
80 MHz Yes Single Same as above
U23 8 U28 8 U33 8
68 MEMDATA_67 U17 111
U18 10
80 MHz Yes Single Same as above U23 10 U28 10
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U33 10
69 MEMDATA_68 U17 112
U18 11
80 MHz Yes Single Same as above
U23 11 U28 11 U33 11
70 MEMDATA_69 U17 113
U18 13
80 MHz Yes Single Same as above
U23 13 U28 13 U33 13
71 MEMDATA_70 U17 118
U18 14
80 MHz Yes Single Same as above
U23 14 U28 14 U33 14
72 MEMDATA_71 U17 119
U18 16
80 MHz Yes Single Same as above
U23 16 U28 16 U33 16
73 MEMDATA_72 U17 146
U18 63
80 MHz Yes Single Same as above
U23 63 U28 63 U33 63
74 MEMDATA_73 U17 147
U18 65
80 MHz Yes Single Same as above
U23 65 U28 65 U33 65
75 MEMDATA_74 U17 152
U18 66
80 MHz Yes Single Same as above
U23 66 U28 66 U33 66
76 MEMDATA_75 U17 153
U18 68
80 MHz Yes Single Same as above
U23 68 U28 68 U33 68
77 MEMDATA_76 U17 154
U18 69
80 MHz Yes Single Same as above
U23 69 U28 69 U33 69
78 MEMDATA_77 U17 155
U18 71
80 MHz Yes Single Same as above
U23 71 U28 71 U33 71
79 MEMDATA_78 U17 158
U18 72
80 MHz Yes Single Same as above
U23 72 U28 72 U33 72
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
80 MEMDATA_79 U17 159
U18 74
80 MHz Yes Single Same as above
U23 74 U28 74 U33 74
81 MEMUDQS4 U17 160
U18 60 80 MHz(DQS has Switching at both edges of clock) Yes Single
One of the 4 receiver pins drives in the reverse direction at a time. Others are tristated
U28 60 U33 60
U23 60
82 MEMUDQS3 U17 161
U29 60
80 MHz Yes Single Same as above
U35 60 U19 60 U24 60
83 MEMUDQS2 U17 164
U30 60
80 MHz Yes Single Same as above
U35 60 U20 60 U25 60
84 MEMUDQS1 U17 165
U31 60
80 MHz Yes Single Same as above
U37 60 U21 60 U26 60
85 MEMUDQS0 U17 166
U27 60
80 MHz Yes Single Same as above
U32 60 U37 60 U22 60
86 MEMLDQS4 U17 167
U18 19
80 MHz Yes Single Same as above
U28 19 U33 19 U23 19
87 MEMLDQS3 U17 170
U29 19
80 MHz Yes Single Same as above
U35 19 U19 19 U24 19
88 MEMLDQS2 U17 171
U30 19
80 MHz Yes Single Same as above
U35 19 U20 19 U25 19
89 MEMLDQS1 U17 180
U31 19
80 MHz Yes Single Same as above
U37 19 U21 19 U26 19
90 MEMLDQS0 U17 181
U27 19
80 MHz Yes Single Same as above U32 19 U37 19
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U22 19
91 CK_ROW0 U17 123
U18 54
80 MHz Clock No
Differential (+)
U19 54 U20 54 U21 54 U22 54
92 CK#_ROW0 U17 122
U18 55
80 MHz Clock No
Differential (-)
U19 55 U20 55 U21 55 U22 55
93 CK_ROW1 U17 129
U23 54
80 MHz Clock No
Differential (+)
U24 54 U25 54 U26 54 U27 54
94 CK#_ROW1 U17 128
U23 55
80 MHz Clock No
Differential (-)
U24 55 U25 55 U26 55 U27 55
95 CK_ROW2 U17 137
U28 54
80 MHz Clock No
Differential (+)
U29 54 U30 54 U31 54 U32 54
96 CK#_ROW2 U17 136
U28 55
80 MHz Clock No
Differential (-)
U29 55 U30 55 U31 55 U32 55
97 CK_ROW3 U17 143
U33 54
80 MHz Clock No
Differential (+)
U34 54 U35 54 U36 54 U37 54
98 CK#_ROW3 U17 142
U33 55
80 MHz Clock No
Differential (-)
U34 55 U35 55 U36 55 U37 55
99 CS0# U16 5
U18 27 80 MHz (Does not switch on every clock No Single
U19 27 U20 27 U21 27
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U22 27
but can have 80 MHz equivalent pulse widths)
100 CS1# U16 6
U18 1 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 1 U20 1 U21 1
U22 1
101 CS2# U16 7
U18 2 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 2 U20 2 U21 2
U22 2
102 CS3# U16 10
U18 3 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 3 U20 3 U21 3
U22 3
103 CS4# U16 11
U18 37 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 37 U20 37 U21 37
U22 37
104 CS5# U16 12
U18 38 80 MHz (Does not switch on every clock but can have 80 No Single
U19 38 U20 38 U21 38
U22 38
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
MHz equivalent pulse widths)
105 CS6# U16 13
U18 39 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 39 U20 39 U21 39
U22 39
106 CS7# U16 16
U18 28 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 28 U20 28 U21 28
U22 28
107 CS8# U16 17
U23 27 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 27 U25 27 U26 27
U27 27
108 CS9# U16 18
U23 1 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 1 U25 1 U26 1
U27 1
109 CS10# U16 19
U23 2 80 MHz (Does not switch on every clock but can have 80 MHz equivalent No Single
U24 2 U25 2 U26 2
U27 2
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
pulse widths)
110 CS11# U16 22
U23 3 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 3 U25 3 U26 3
U27 3
111 CS12# U16 23
U23 37 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 37 U25 37 U26 37
U27 37
112 CS13# U16 24
U23 38 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 38 U25 38 U26 38
U27 38
113 CS14# U16 25
U23 39 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 39 U25 39 U26 39
U27 39
114 CS15# U16 28
U23 28 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 28 U25 28 U26 28
U27 28
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
115 CS16# U16 29
U28 27 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 27 U30 27 U31 27
U32 27
116 CS17# U16 30
U28 1 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 1 U30 1 U31 1
U32 1
117 CS18# U16 31
U28 2 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 2 U30 2 U31 2
U32 2
118 CS19# U16 34
U28 3 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 3 U30 3 U31 3
U32 3
119 CS20# U16 35
U28 37 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 37 U30 37 U31 37
U32 37
120 CS21# U16 36 U28 38 80 MHz
(Does not No Single U29 38
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U30 38 switch on every clock but can have 80 MHz equivalent pulse widths)
U31 38
U32 38
121 CS22# U16 37
U28 39 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 39 U30 39 U31 39
U32 39
122 CS23# U16 40
U28 28 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 28 U30 28 U31 28
U32 28
123 CS24# U16 41
U33 27 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 27 U35 27 U36 27
U37 27
124 CS25# U16 42
U33 1 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 1 U35 1 U36 1
U37 1
125 CS26# U16 43
U33 2 80 MHz (Does not switch on every clock No Single
U34 2 U35 2 U36 2
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U37 2
but can have 80 MHz equivalent pulse widths)
126 CS27# U16 47
U33 3 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 3 U35 3 U36 3
U37 3
127 CS28# U16 48
U33 37 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 37 U35 37 U36 37
U37 37
128 CS29# U16 49
U33 38 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 38 U35 38 U36 38
U37 38
129 CS30# U16 52
U33 39 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 39 U35 39 U36 39
U37 39
130 CS31# U16 53
U33 28 U34 28
80 MHz (Does not switch on every clock but can have 80 No Single
U35 28 U36 28
U37 28
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
MHz equivalent pulse widths)
131 CKE0 U16 54
U18 53 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 53 U20 53 U21 53
U22 53
132 CKE1 U16 55
U18 40 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 40 U20 40 U21 40
U22 40
133 CKE2 U16 58
U18 41 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 41 U20 41 U21 41
U22 41
134 CKE3 U16 59
U18 42 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 42 U20 42 U21 42
U22 42
135 CKE4 U16 60
U18 76 80 MHz (Does not switch on every clock but can have 80 MHz equivalent No Single
U19 76 U20 76 U21 76
U22 76
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
pulse widths)
136 CKE5 U16 61
U18 77 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 77 U20 77 U21 77
U22 77
137 CKE6 U16 64
U18 78 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 78 U20 78 U21 78
U22 78
138 CKE7 U16 65
U18 52 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 52 U20 52 U21 52
U22 52
139 CKE8 U16 66
U23 53 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 53 U25 53 U26 53
U27 53
140 CKE9 U16 67
U23 40 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 40 U25 40 U26 40
U27 40
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
141 CKE10 U16 70
U23 41 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 41 U25 41 U26 41
U27 41
142 CKE11 U16 71
U23 42 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 42 U25 42 U26 42
U27 42
143 CKE12 U16 72
U23 76 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 76 U25 76 U26 76
U27 76
144 CKE13 U16 73
U23 77 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 77 U25 77 U26 77
U27 77
145 CKE14 U16 76
U23 78 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U24 78 U25 78 U26 78
U27 78
146 CKE15 U16 77 U23 52 80 MHz
(Does not No Single U24 52
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U25 52 switch on every clock but can have 80 MHz equivalent pulse widths)
U26 52
U27 52
147 CKE16 U16 78
U28 53 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 53 U30 53 U31 53
U32 53
148 CKE17 U16 79
U28 40 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 40 U30 40 U31 40
U32 40
149 CKE18 U16 82
U28 41 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 41 U30 41 U31 41
U32 41
150 CKE19 U16 83
U28 42 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 42 U30 42 U31 42
U32 42
151 CKE20 U16 84
U28 76 80 MHz (Does not switch on every clock No Single
U29 76 U30 76 U31 76
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U32 76
but can have 80 MHz equivalent pulse widths)
152 CKE21 U16 85
U28 77 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 77 U30 77 U31 77
U32 77
153 CKE22 U16 86
U28 78 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 78 U30 78 U31 78
U32 78
154 CKE23 U16 342
U28 52 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 52 U30 52 U31 52
U32 52
155 CKE24 U16 341
U33 53 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 53 U35 53 U36 53
U37 53
156 CKE25 U16 338
U33 40 80 MHz (Does not switch on every clock but can have 80 No Single
U34 40 U35 40 U36 40
U37 40
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
MHz equivalent pulse widths)
157 CKE26 U16 337
U33 41 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 41 U35 41 U36 41
U37 41
158 CKE27 U16 336
U33 42 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 42 U35 42 U36 42
U37 42
159 CKE28 U16 335
U33 76 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 76 U35 76 U36 76
U37 76
160 CKE29 U16 332
U33 77 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 77 U35 77 U36 77
U37 77
161 CKE30 U16 331
U33 78 80 MHz (Does not switch on every clock but can have 80 MHz equivalent No Single
U34 78 U35 78 U36 78
U37 78
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
pulse widths)
162 CKE31 U16 326
U33 52 80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U34 52 U35 52 U36 52
U37 52
163 A0_SET1 U17 182
U18 32
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 32 U20 32 U21 32 U22 32 U23 32 U24 32 U25 32 U26 32 U27 32
164 A1_SET1 U17 183
U18 33
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 33 U20 33 U21 33 U22 33 U23 33 U24 33 U25 33 U26 33 U27 33
165 A2_SET1 U17 184
U18 33
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 33 U20 33 U21 33 U22 33 U23 33 U24 33 U25 33 U26 33 U27 33
166 A3_SET1 U17 187
U18 35 80 MHz (Does not switch on every clock but can No Single
U19 35 U20 35 U21 35 U22 35
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U23 35 have 80 MHz equivalent pulse widths)
U24 35 U25 35 U26 35 U27 35
167 A4_SET1 U17 188
U18 44
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 44 U20 44 U21 44 U22 44 U23 44 U24 44 U25 44 U26 44 U27 44
168 A5_SET1 U17 189
U18 45
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 45 U20 45 U21 45 U22 45 U23 45 U24 45 U25 45 U26 45 U27 45
169 A6_SET1 U17 190
U18 46
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 46 U20 46 U21 46 U22 46 U23 46 U24 46 U25 46 U26 46 U27 46
170 A7_SET1 U17 193
U18 47
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 47 U20 47 U21 47 U22 47 U23 47 U24 47 U25 47 U26 47 U27 47
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
171 A8_SET1 U17 194
U18 48
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 48 U20 48 U21 48 U22 48 U23 48 U24 48 U25 48 U26 48 U27 48
172 A9_SET1 U17 195
U18 49
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 49 U20 49 U21 49 U22 49 U23 49 U24 49 U25 49 U26 49 U27 49
173 A10_SET1 U17 196
U18 31
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 31 U20 31 U21 31 U22 31 U23 31 U24 31 U25 31 U26 31 U27 31
174 A11_SET1 U17 199
U18 50
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 50 U20 50 U21 50 U22 50 U23 50 U24 50 U25 50 U26 50 U27 50
175 A12_SET1 U17 200
U18 51 80 MHz (Does not switch on every clock but can No Single
U19 51 U20 51 U21 51 U22 51
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U23 51 have 80 MHz equivalent pulse widths)
U24 51 U25 51 U26 51 U27 51
176 A13_SET1 U17 201
U18 20
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 20 U20 20 U21 20 U22 20 U23 20 U24 20 U25 20 U26 20 U27 20
177 BA0_SET1 U17 225
U18 29
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 29 U20 29 U21 29 U22 29 U23 29 U24 29 U25 29 U26 29 U27 29
178 BA1_SET1 U17 226
U18 30
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 30 U20 30 U21 30 U22 30 U23 30 U24 30 U25 30 U26 30 U27 30
179 RAS#_SET1 U17 232
U18 26
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 26 U20 26 U21 26 U22 26 U23 26 U24 26 U25 26 U26 26 U27 26
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
180 CAS#_SET1 U17 235
U18 25
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 25 U20 25 U21 25 U22 25 U23 25 U24 25 U25 25 U26 25 U27 25
181 WE#_SET1 U17 231
U18 24
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 24 U20 24 U21 24 U22 24 U23 24 U24 24 U25 24 U26 24 U27 24
182 LDM_SET1 U17 236
U18 23
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 23 U20 23 U21 23 U22 23 U23 23 U24 23 U25 23 U26 23 U27 23
183 UDM_SET1 U17 237
U18 56
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U19 56 U20 56 U21 56 U22 56 U23 56 U24 56 U25 56 U26 56 U27 56
184 A0_SET2 U17 202
U28 32 80 MHz (Does not switch on every clock but can No Single
U29 32 U30 32 U31 32 U32 32
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U33 32 have 80 MHz equivalent pulse widths)
U34 32 U35 32 U36 32 U37 32
185 A1_SET2 U17 205
U28 33
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 33 U30 33 U31 33 U32 33 U33 33 U34 33 U35 33 U36 33 U37 33
186 A2_SET2 U17 206
U28 34
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 34 U30 34 U31 34 U32 34 U33 34 U34 34 U35 34 U36 34 U37 34
187 A3_SET2 U17 207
U28 35
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 35 U30 35 U31 35 U32 35 U33 35 U34 35 U35 35 U36 35 U37 35
188 A4_SET2 U17 208
U28 44
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 44 U30 44 U31 44 U32 44 U33 44 U34 44 U35 44 U36 44 U37 44
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
189 A5_SET2 U17 211
U28 45
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 45 U30 45 U31 45 U32 45 U33 45 U34 45 U35 45 U36 45 U37 45
190 A6_SET2 U17 212
U28 46
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 46 U30 46 U31 46 U32 46 U33 46 U34 46 U35 46 U36 46 U37 46
191 A7_SET2 U17 213
U28 47
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 47 U30 47 U31 47 U32 47 U33 47 U34 47 U35 47 U36 47 U37 47
192 A8_SET2 U17 214
U28 48
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 48 U30 48 U31 48 U32 48 U33 48 U34 48 U35 48 U36 48 U37 48
193 A9_SET2 U17 217
U28 49 80 MHz (Does not switch on every clock but can No Single
U29 49 U30 49 U31 49 U32 49
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U33 49 have 80 MHz equivalent pulse widths)
U34 49 U35 49 U36 49 U37 49
194 A10_SET2 U17 218
U28 31
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 31 U30 31 U31 31 U32 31 U33 31 U34 31 U35 31 U36 31 U37 31
195 A11_SET2 U17 219
U28 50
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 50 U30 50 U31 50 U32 50 U33 50 U34 50 U35 50 U36 50 U37 50
196 A12_SET2 U17 220
U28 51
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 51 U30 51 U31 51 U32 51 U33 51 U34 51 U35 51 U36 51 U37 51
197 A13_SET2 U17 224
U28 20
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 20 U30 20 U31 20 U32 20 U33 20 U34 20 U35 20 U36 20 U37 20
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
198 BA0_SET2 U17 229
U28 29
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 29 U30 29 U31 29 U32 29 U33 29 U34 29 U35 29 U36 29 U37 29
199 BA1_SET2 U17 230
U28 30
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 30 U30 30 U31 30 U32 30 U33 30 U34 30 U35 30 U36 30 U37 30
200 RAS#_SET2 U17 241
U28 26
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 26 U30 26 U31 26 U32 26 U33 26 U34 26 U35 26 U36 26 U37 26
201 CAS#_SET2 U17 242
U28 25
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 25 U30 25 U31 25 U32 25 U33 25 U34 25 U35 25 U36 25 U37 25
202 WE#_SET2 U17 238
U28 24 80 MHz (Does not switch on every clock but can No Single
U29 24 U30 24 U31 24 U32 24
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
U33 24 have 80 MHz equivalent pulse widths)
U34 24 U35 24 U36 24 U37 24
203 LDM_SET2 U17 243
U28 23
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 23 U30 23 U31 23 U32 23 U33 23 U34 23 U35 23 U36 23 U37 23
204 UDM#_SET2 U17 244
U28 56
80 MHz (Does not switch on every clock but can have 80 MHz equivalent pulse widths) No Single
U29 56 U30 56
U31 56 U32 56 U33 56 U34 56 U35 56 U36 56 U37 56
205 REC_DATA0+IN K1 20 U39 2 20 MHz No Differential (+)
206 REC_DATA0-IN K1 1 U39 1 20 MHz No Differential (+)
207 REC_DATA1+IN K1 3 U39 6 20 MHz No Differential (+)
208 REC_DATA1-IN K1 21 U39 7 20 MHz No Differential (-)
209 REC_DATA2+IN K1 23 U39 10 20 MHz No Differential (+)
210 REC_DATA2-IN K1 4 U39 9 20 MHz No Differential (-)
211 REC_DATA3+IN K1 6 U39 14 20 MHz No Differential (+)
212 REC_DATA3-IN K1 24 U39 15 20 MHz No Differential (-)
213 REC_DATA4+IN K1 26 U40 2 20 MHz No Differential (+)
214 REC_DATA4-IN K1 7 U40 1 20 MHz No Differential (-)
215 REC_DATA5+IN K1 9 U40 6 20 MHz No Differential (+)
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
216 REC_DATA5-IN K1 27 U40 7 20 MHz No Differential (-)
217 REC_DATA6+IN K1 29 U40 10 20 MHz No Differential (+)
218 REC_DATA6-IN K1 10 U40 9 20 MHz No Differential (-)
219 REC_DATA7+IN K1 12 U40 14 20 MHz No Differential (+)
220 REC_DATA7-IN K1 30 U40 15 20 MHz No Differential (-)
221 REC_CLK+IN K1 15 U41 6 20 MHz No Differential (+)
222 REC_CLK-IN K1 33 U41 7 20 MHz No Differential (-)
223 REC_DV+IN K1 32 U41 2
20 MHz (does not switch every clock) No
Differential (+)
224 REC_DV-IN K1 13 U41 1
20 MHz (does not switch every clock) No
Differential (-)
225 PB_CLK+IN K1 18 U41 10 20 MHz No Differential (+)
226 PB_CLK-IN K1 36 U41 9 20 MHz No Differential (-)
227 PB_DV+IN K1 35 U41 14
20 MHz (does not switch every clock) No
Differential (+)
228 PB_DV-IN K1 16 U14 15
20 MHz (does not switch every clock) No
Differential (-)
229 REC_DATA0_IN U39 3 U16 296 20 MHz No Single 230 REC_DATA1_IN U39 5 U16 295 20 MHz No Single 231 REC_DATA2_IN U39 11 U16 290 20 MHz No Single 232 REC_DATA3_IN U39 13 U16 289 20 MHz No Single 233 REC_DATA4_IN U40 3 U16 288 20 MHz No Single 234 REC_DATA5_IN U40 5 U16 287 20 MHz No Single 235 REC_DATA6_IN U40 11 U16 284 20 MHz No Single 236 REC_DATA7_IN U40 13 U16 283 20 MHz No Single 237 REC_CLK_IN U41 5 U16 241 20 MHz No Single
238 REC_DV_IN U41 3 U16 282
20 MHz (does not switch every clock)
No Single
239 PB_CLK_IN U41 11 U16 238 20 MHz No Single
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
240 PB_DV_IN U41 13 U16 281
20 MHz (does not switch every clock)
No Single
241 PB_DATA0_OUT U16 278 U42 1
20 MHz No Single
242 PB_DATA1_OUT U16 277 U42 7
20 MHz No Single
243 PB_DATA2_OUT U16 276 U42 9
20 MHz No Single
244 PB_DATA3_OUT U16 275 U42 15
20 MHz No Single
245 PB_DATA4_OUT U16 272 U43 1
20 MHz No Single
246 PB_DATA5_OUT U16 271 U43 7
20 MHz No Single
247 PB_DATA6_OUT U16 270 U43 9
20 MHz No Single
248 PB_DATA7_OUT U16 269 U43 15
20 MHz No Single
249 PB_DV_OUT U16 179 U44 1
20 MHz No Single
250 PB_DATA0+OUT U42 2 K2 2 20 MHz No Differential (+)
251 PB_DATA0-OUT U42 3 K2 1 20 MHz No Differential (-)
252 PB_DATA1+OUT U42 5 K2 4 20 MHz No Differential (+)
253 PB_DATA1-OUT U42 6 K2 3 20 MHz No Differential (-)
254 PB_DATA2+OUT U42 10 K2 6 20 MHz No Differential (+)
255 PB_DATA2-OUT U42 11 K2 5 20 MHz No Differential (-)
256 PB_DATA3+OUT U42 14 K2 8 20 MHz No Differential (+)
257 PB_DATA3-OUT U42 13 K2 7 20 MHz No Differential (-)
258 PB_DATA4+OUT U43 2 K2 10 20 MHz No Differential (+)
259 PB_DATA4-OUT U43 3 K2 9 20 MHz No Differential (-)
260 PB_DATA5+OUT U43 5 K2 12 20 MHz No Differential (+)
261 PB_DATA5-OUT U43 6 K2 11 20 MHz No Differential (-)
262 PB_DATA6+OUT U43 10 K2 14 20 MHz No Differential (+)
263 PB_DATA6-OUT U43 11 K2 13 20 MHz No Differential (-)
Sl.No Signal Name
Driver (pin)
Receiver (pin)
Frequency of
Operation Bi -
Directional
Single-ended/
Differential Remarks
264 PB_DATA7+OUT U43 14 K2 16 20 MHz No Differential (+)
265 PB_DATA7-OUT U43 13 K2 15 20 MHz No Differential (-)
266 PB_DV+OUT U44 2 K2 18
20 MHz (does not switch every clock) No
Differential (+)
267 PB_DV-OUT U44 3 K2 17
20 MHz (does not switch every clock) No
Differential (-)
Table 7 De-coupling Analysis Inputs
DC power net Voltage Level
Source pin Devices (loads) connecting the supply net
Maximum current consumption in Amps
2.5 V 2.5 V U2 3
U16 U17 U18 U19 U20 U21 U22
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
U23 U24 U25 U26 U27 U28 U29
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
U30 U31 U32 U33 U34 U35 U36
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
250 mA
U37
250 mA
Note:
At one instance of time only 5 memories will be active.i.e., U18-U22 or U23-U27 or U28-U32 or U33-37 will be active.Others will consume 60 mA current max. each.
PCB size is 304.8mm x 304.8mm
Table 8 : Power Integrity analysis:
The following are the power nets in the design where power integrity analysis is to be carried out:
SI. No Power Net Source
1 VCC_K K4 P01, P02, P03, P04
2 5V D2 P1
3 3.3 V U1 P3
4 2.5 V U2 P3
5 2.5V_ST U4 P3
6 1.5 V U3 P3
7 VREF U45 P63
8 VTT Driven by U45; Filtered Output at L1
COMPONENTS FOR WHICH IBIS MODELS NEED TO BE GENERATED
Type/Value Package Function
CD4093B 14 PIN FP SCHMITT QUAD NAND
CD4050B 16 PIN FP CMOS HEX BUFFER
SN55LVDS32W-CFP16 16 PIN FP QUAD LVDS RECEIVER
SN55LVDS32W-CFP16 16 PIN FP QUAD LVDS RECEIVER
SN55LVDS32W-CFP16 16 PIN FP QUAD LVDS RECEIVER
*****