S3X58-M High Reliability Lead Free Solder Paste. Technical Information. Koki no-clean LEAD FREE solder paste.

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www.ko-ki.co.jp #52007 Revised on Nov.27, 2014 Koki no-clean LEAD FREE solder paste High Reliability Lead Free Solder Paste S3X58-M500-4 Technical Information O₂ Reflowed 0.5mmP QFP 0603R This product information contains product performance assessed based on our own test procedures. Product performance may be different according to the handling at the end-users. Please conduct through investigation to determine optimal process condition before mass production application

2 Alloy Composition: Sn 3.0Ag 0.5Cu Superior meltability allows lower solder volume to melt perfectly with thin stencil thickness (80μm) Low voids and anti-head-in-pillow formulation Complies with Halogen Free requirements (Br+Cl: <1500ppm; test method BS EN14582)

3 Product for Product Name Printing S3X58-M500-4 Alloy Flux Solder Paste Alloy Composition (%) Sn 3.0Ag 0.5Cu Melt Point (ºC) 217~219 Powder Shape Sphere Grain Size (um) 20 38 Halide Content (%) 0 Flux Type* 1 ROL0 Flux Content (%) 11.5±1.0 Viscosity* 2 (Pa.s) 220±30 Copper Plate Corrosion* 3 Passed Tack Time > 48 hours Shelf Life (10ºC) 6 months *1. Flux Type: per IPC J-STD-004A *2. Viscosity: measured with PCU-205 (Malcom ), at 25ºC-10rpm *3. Copper Plate Corrosion: per IPC-TM-650 2.6.15

4 Test condition: Stencil Thickness: 0.12mm (Laser) Printer: Model YVP-Xg YAMAHA Motor Squeegee: Metal Squeegee (Squeegee angle - 60º) Print Speed: 40 mm/sec Print Condition: 24~26ºC (50~60%RH) Print Test Pattern: 0.25 mm dia. CSP, 0.4mmP QFP Original 10 th Print 10 th print after 200 strokes 0.25mm dia. CSP 0.4mmP QFP Even after 200 strokes, it can be seen that the solder paste is holding the shape for both circular and rectangular pads.

5 Stop printing for 30 minutes, then resume printing. Verify the printed solder shape of 1st resumed result. Test condition: Stencil Thickness: 0.12mm ( Laser) Squeegee: Metal Squeegee (Squeegee angle - 60º) Print Speed: 40mm/sec. Print Condition: 24~26ºC, 40~60%RH Print Test Pattern: 0.25 mm dia. CSP, 0.4mmP QFP Original 1 st after 30 min. pause 0.25mm dia. CSP 0.4mm PQFP Even after pausing for 30 minutes, the solder paste is printing as good as the first print without any stencil clogging.

Viscosity (Pa.s) S3X58-M500-4 6 Measure the viscosity of the solder paste after continuously rolled on the masked metal stencil. Test condition: Squeegee: Metal squeegee (Squeegee angle - 60º) Squeegee Speed: 30mm/sec. Squeegee travel distance: 300mm Test Condition: 24~26 ºC, 40~60%RH 400.0 350.0 300.0 250.0 200.0 150.0 100.0 S3X58-M500-4 *120 strokes/hour 0 500 1000 1500 2000 2500 # of strokes By suppressing reaction between solder powder and flux, viscosity change due to continual printing is prevented.

Temp. (ºC) S3X58-M500-4 7 Evaluation-1: Surface Finish Test condition: PCB: Glass epoxy FR-4 Surface Finish: OSP, Ni-Au, Sn Stencil Thickness: 0.12mm (Laser) Evaluation Pads: 0.25mm dia. CSP, 0.5mmP QFP (Sn plated) 0603R (Sn plating) Aperture: 100% Reflow Oven: Hot Air Reflow Reflow Atmosphere: Air Atmosphere Reflow Profile: See the chart below Evaluation-2: Stencil Thickness Test condition: PCB: Glass epoxy FR-4 Surface Finish: OSP Stencil Thickness: 0.12mm,0.10mm, 0.08mm (Laser) Evaluation Pads: 0.25mm dia. CSP, 0603R (Sn plated) Aperture: 100% Reflow oven: Hot Air Reflow Reflow Atmosphere: Air Atmosphere Reflow Profile: See the chart to the left 300 250 200 150 100 50 0.5 mmp QFP 0.25mm dia. CSP 0 0 50 100 150 200 0603R. Time(sec.)

8 Meltability Evaluation-1: Surface Finish Surface Finish 0.25mm dia. CSP 0603R 0.5mmP QFP OSP Ni-Au Sn The paste shows good wetting on different under bump metallurgies (UBM) with different components

9 Meltability Evaluation-2: Stencil Thickness Stencil Thickness S3X58-M500-4 Conventional Product 0.25mm dia. CSP 0603R 0.25mm dia. CSP 0603R 0.12mm 0.10mm 0.08mm Even with low solder volumes, perfect solder joints are formed owing to newer flux formula used as compared with the conventional Type-4 SAC305 paste.

10 Test condition: PCB: Glass epoxy FR-4 Surface Finish: OSP Ni-Au Sn Stencil Thickness: 0.12mm (Laser) Evaluation Pads: Pwtr, 6330R (Sn plating) BGA ball - SAC305 Aperture: 100% Reflow Oven: Hot air oven Reflow Atmosphere: Air Atmosphere Reflow Profile: Same as Solder meltability test condition Surface finish PwTr. 6330R BGA OSP Ni-Au 6330R BGA PwTr. Sn Regardless of the surface finish, S3X58-M500-4 shows consistently low voids on various component types.

11 Head-in-Pillow Resistance Test method Test PCB: FR-4 Surface Finish: OSP Metal Stencil Thickness: 0.12mm (Laser) Test Pad Size: 0.8 x 0.8mm Loaded Balls: 0.76mm ball of SAC305 Heating Method: Solder bath at 275ºC Loading : 10sec. Pillow defect good NG Drop solder ball on molten solder every 10 seconds. Ball will not merge with solder paste when flux activation runs out. 30sec 40sec 60sec S3X58-M500-4 Conventional Product M500-4 behaves longer flux activation at higher temperatures maintaining high head-in-pillow resistance compared to conventional product.

12 Test method: BS EN14582 Measured Element Result F Not Detected Cl Not Detected Br Not Detected (ppm) M500-4 meets Halogen Free requirements (Br+Cl= below 1500ppm). Tested in accordance with BS EN14582.

13 Item Result Specification Tack Time > 48 hours JIS Z 3284-3 Slump Property 0.3mm, pass JIS Z 3284-3 Solder Ball < Category 3 JIS Z 3284-4 Copper Mirror Corrosion Type L IPC-TM-650-2.3.32 Copper Plate Corrosion Pass IPC-TM-650-2.6.15 SIR Test >1E+9 IPC-TM-650-2.6.14.1

14 1. Printing 1) Recommended Printing Condition (1) Squeegee 1. Shape : Flat 2. Material : Polyurethane or metal blade 3. Angle : 60º 4. Print Pressure : Relatively low 5. Print Speed : 20~100mm/sec. (2) Stencil 1. Thickness : 150~80 m when pitch is 0.65~0.4mm 2. Manufacturing Method : Laser or Additive 3. Stencil release speed : 7.0~10.0mm/sec. 4. Clearance : 0mm (3) Process Environment 1. Temperature : 23~27ºC 2. Humidity : 40~60%RH 3. Air Conditioning : Air draft in the printer dries up solder paste faster and deteriorates performance of the solder paste. Control the air flow by using a shield or other method. 2. Shelf Life 0~10ºC * How to interpret Lot Number ex. Lot No. 4 11 27 2 : 6 months after production date Batch #: 2 nd Batch Production Date: 27th Production Month: November Production Year: 2014

15 Recommended Reflow Profile (ºC) 250 219 200 Pre-heat Temperature/ Duration 150~190ºC/ 60~100sec. Peak Temperature 230~250ºC 150 Duration above 219ºC: >30 sec. 100 50 Ramp-up Speed 1.0~3.0ºC/sec. Pre-heating Condition Recommended: 150~180ºC 90sec Upper Limit: 160~190ºC 100sec Lower Limit: 150~175ºC 60sec 0 60 120 (sec.) 180 240

16 Supplement on Recommended Reflow Profile (ºC) 250 200 150 100 Higher preheat temperature may accelerate oxidation of the solder powder and electrode, and degrade flux which results in grainy solder fillet and dewetting. In case of poor solder meltability, lower the preheat temperature Low peak temperature or short time above liquidus temperature inhibits void release. In case of high void ratio, raise peak temperature or extend time above liquidus temperature (>45 seconds). Slow temperature elevation between preheating to melt point may accelerate oxidation of the solder powder and electrode, and degrade flux which results in grainy solder fillet and dewetting. In case of poor solder meltability, increase the temperature elevation speed. 50 0 Fast ramp-up speed may cause birding or solder balling due to the heat slump. To improve bridging or solder balling, alleviate the ramp-up speed. 60 120 (sec.) 180 240 (sec.)