physicalRev = revId750;
 
        if (physicalID == 0x718)
-       {
                chip = SM718;
-       }
-       else if (physicalID == 0x750)
-       {
+       else if (physicalID == 0x750) {
                chip = SM750;
                /* SM750 and SM750LE are different in their revision ID only. */
-               if (physicalRev == SM750LE_REVISION_ID){
+               if (physicalRev == SM750LE_REVISION_ID)
                        chip = SM750LE;
-               }
-       }
-       else
-       {
+       } else
                chip = SM_UNKNOWN;
-       }
 
        return chip;
 }
        pPLL->inputFreq = DEFAULT_INPUT_CLOCK;
        pPLL->clockType = clockType;
 
-       switch (clockType)
-       {
+       switch (clockType) {
        case MXCLK_PLL:
                ulPllReg = PEEK32(MXCLK_PLL_CTRL);
                break;
                return;
 #endif
 
-       if (frequency != 0)
-       {
+       if (frequency != 0) {
                /*
                * Set up PLL, a structure to hold the value to be set in clocks.
                */
        if (getChipType() == SM750LE)
                return;
 #endif
-       if (frequency != 0)
-       {
+       if (frequency != 0) {
                /* Set the frequency to the maximum frequency that the DDR Memory can take
                which is 336MHz. */
                if (frequency > MHz(336))
 
                /* Set the corresponding divisor in the register. */
                ulReg = PEEK32(CURRENT_GATE);
-               switch(divisor)
-               {
+               switch(divisor) {
                default:
                case 1:
                        ulReg = FIELD_SET(ulReg, CURRENT_GATE, M2XCLK, DIV_1);
        if (getChipType() == SM750LE)
                return;
 #endif
-       if (frequency != 0)
-       {
+       if (frequency != 0) {
                /* Set the frequency to the maximum frequency that the SM750 engine can
                run, which is about 190 MHz. */
                if (frequency > MHz(190))
 
                /* Set the corresponding divisor in the register. */
                ulReg = PEEK32(CURRENT_GATE);
-               switch(divisor)
-               {
+               switch(divisor) {
                default:
                case 3:
                        ulReg = FIELD_SET(ulReg, CURRENT_GATE, MCLK, DIV_3);
 
        /* get frame buffer size from GPIO */
        reg = FIELD_GET(PEEK32(MISC_CTRL),MISC_CTRL,LOCALMEM_SIZE);
-       switch(reg){
+       switch(reg) {
        case MISC_CTRL_LOCALMEM_SIZE_8M:  data = MB(8);  break; /* 8  Mega byte */
        case MISC_CTRL_LOCALMEM_SIZE_16M: data = MB(16); break; /* 16 Mega byte */
        case MISC_CTRL_LOCALMEM_SIZE_32M: data = MB(32); break; /* 32 Mega byte */
        unsigned int ulReg;
 #if 0
        //move the code to map regiter function.
-       if(getChipType() == SM718){
+       if(getChipType() == SM718) {
                /* turn on big endian bit*/
                ulReg = PEEK32(0x74);
                /* now consider register definition in a big endian pattern*/
        ulReg = FIELD_SET(ulReg,CURRENT_GATE,LOCALMEM,ON);
        setCurrentGate(ulReg);
 
-       if(getChipType() != SM750LE){
+       if(getChipType() != SM750LE) {
                /*      set panel pll and graphic mode via mmio_88 */
                ulReg = PEEK32(VGA_CONFIGURATION);
                ulReg = FIELD_SET(ulReg,VGA_CONFIGURATION,PLL,PANEL);
                ulReg = FIELD_SET(ulReg,VGA_CONFIGURATION,MODE,GRAPHIC);
                POKE32(VGA_CONFIGURATION,ulReg);
-       }else{
+       } else {
 #if defined(__i386__) || defined( __x86_64__)
                /* set graphic mode via IO method */
                outb_p(0x88,0x3d4);
           the system might hang when sw accesses the memory.
           The memory should be resetted after changing the MXCLK.
         */
-       if (pInitParam->resetMemory == 1)
-       {
+       if (pInitParam->resetMemory == 1) {
                ulReg = PEEK32(MISC_CTRL);
                ulReg = FIELD_SET(ulReg, MISC_CTRL, LOCALMEM_RESET, RESET);
                POKE32(MISC_CTRL, ulReg);
                POKE32(MISC_CTRL, ulReg);
        }
 
-       if (pInitParam->setAllEngOff == 1)
-       {
+       if (pInitParam->setAllEngOff == 1) {
                enable2DEngine(0);
 
                /* Disable Overlay, if a former application left it on */
        pllcalparam * xparm;
 
 #if 1
-       if (getChipType() == SM750LE)
-       {
+       if (getChipType() == SM750LE) {
                /* SM750LE don't have prgrammable PLL and M/N values to work on.
                Just return the requested clock. */
                return request_orig;
 
        /* for MXCLK register , no POD provided, so need be treated differently */
 
-       if(pll->clockType != MXCLK_PLL){
+       if(pll->clockType != MXCLK_PLL) {
                xparm = &xparm_PIXEL[0];
                xcnt = sizeof(xparm_PIXEL)/sizeof(xparm_PIXEL[0]);
-       }else{
+       } else {
                xparm = &xparm_MXCLK[0];
                xcnt = sizeof(xparm_MXCLK)/sizeof(xparm_MXCLK[0]);
        }
 
 
-       for(N = 15;N>1;N--)
-       {
+       for(N = 15;N>1;N--) {
                /* RN will not exceed maximum long if @request <= 285 MHZ (for 32bit cpu) */
                RN = N * request;
                quo = RN / input;
                rem = RN % input;/* rem always small than 14318181 */
                fl_quo = (rem * 10000 /input);
 
-               for(d = xcnt - 1;d >= 0;d--){
+               for(d = xcnt - 1;d >= 0;d--) {
                        X = xparm[d].value;
                        M = quo*X;
                        M += fl_quo * X / 10000;
                        /* round step */
                        M += (fl_quo*X % 10000)>5000?1:0;
-                       if(M < 256 && M > 0)
-                       {
+                       if(M < 256 && M > 0) {
                                unsigned int diff;
                                tmpClock = pll->inputFreq *M / N / X;
                                diff = absDiff(tmpClock,request_orig);
-                               if(diff < miniDiff)
-                               {
+                               if(diff < miniDiff) {
                                        pll->M = M;
                                        pll->N = N;
                                        pll->OD = xparm[d].od;
        podPower = twoToPowerOfx(POD);
 
        /* OD has only 2 bits [15:14] and its value must between 0 to 3 */
-       for (OD=0; OD<=3; OD++)
-       {
+       for (OD=0; OD<=3; OD++) {
                /* Work out 2 to the power of OD */
                odPower = twoToPowerOfx(OD);
 
 
                /* N has 4 bits [11:8] and its value must between 2 and 15.
                The N == 1 will behave differently --> Result is not correct. */
-       for (N=2; N<=15; N++)
-       {
+       for (N=2; N<=15; N++) {
                /* The formula for PLL is ulRequestClk = inputFreq * M / N / (2^OD)
                In the following steps, we try to work out a best M value given the others are known.
                To avoid decimal calculation, we use 1000 as multiplier for up to 3 decimal places of accuracy.
                M = roundedDiv(M, 1000);
 
                /* M field has only 8 bits, reject value bigger than 8 bits */
-               if (M < 256)
-               {
+               if (M < 256) {
                        /* Calculate the actual clock for a given M & N */
                        pllClk = pPLL->inputFreq * M / N / odPower / podPower;
 
                        /* How much are we different from the requirement */
                        diff = absDiff(pllClk, ulRequestClk);
 
-                       if (diff < bestDiff)
-                       {
+                       if (diff < bestDiff) {
                                bestDiff = diff;
 
                                /* Store M and N values */