static int i2c_write(struct i2c_adapter *adap, u8 adr, u8 * data, int len)
 {
-       struct i2c_msg msg = {.addr = adr,.flags = 0,.buf = data,.len = len };
+       struct i2c_msg msg = {.addr = adr, .flags = 0, .buf = data, .len = len };
 
        if (i2c_transfer(adap, &msg, 1) != 1)
                return -1;
 }
 
 static int i2c_read(struct i2c_adapter *adap,
-                   u8 adr, u8 * msg, int len, u8 * answ, int alen)
+                   u8 adr, u8 *msg, int len, u8 *answ, int alen)
 {
-       struct i2c_msg msgs[2] = { {.addr = adr,.flags = 0,
-                                   .buf = msg,.len = len},
-       {.addr = adr,.flags = I2C_M_RD,
-        .buf = answ,.len = alen}
+       struct i2c_msg msgs[2] = {
+               {
+                       .addr = adr, .flags = 0,
+                       .buf = msg, .len = len
+               }, {
+                       .addr = adr, .flags = I2C_M_RD,
+                       .buf = answ, .len = alen
+               }
        };
        if (i2c_transfer(adap, msgs, 2) != 2)
                return -1;
 {
        u64 tmp64;
 
-       tmp64 = (u64) a *(u64) b;
+       tmp64 = (u64)a * (u64)b;
        do_div(tmp64, c);
 
        return (u32) tmp64;
 }
 
-static int Read16(struct drxd_state *state, u32 reg, u16 * data, u8 flags)
+static int Read16(struct drxd_state *state, u32 reg, u16 *data, u8 flags)
 {
        u8 adr = state->config.demod_address;
        u8 mm1[4] = { reg & 0xff, (reg >> 16) & 0xff,
        return mm2[0] | (mm2[1] << 8);
 }
 
-static int Read32(struct drxd_state *state, u32 reg, u32 * data, u8 flags)
+static int Read32(struct drxd_state *state, u32 reg, u32 *data, u8 flags)
 {
        u8 adr = state->config.demod_address;
        u8 mm1[4] = { reg & 0xff, (reg >> 16) & 0xff,
 }
 
 static int write_chunk(struct drxd_state *state,
-                      u32 reg, u8 * data, u32 len, u8 flags)
+                      u32 reg, u8 *data, u32 len, u8 flags)
 {
        u8 adr = state->config.demod_address;
        u8 mm[CHUNK_SIZE + 4] = { reg & 0xff, (reg >> 16) & 0xff,
        for (i = 0; i < len; i++)
                mm[4 + i] = data[i];
        if (i2c_write(state->i2c, adr, mm, 4 + len) < 0) {
-               printk("error in write_chunk\n");
+               printk(KERN_ERR "error in write_chunk\n");
                return -1;
        }
        return 0;
 }
 
 static int WriteBlock(struct drxd_state *state,
-                     u32 Address, u16 BlockSize, u8 * pBlock, u8 Flags)
+                     u32 Address, u16 BlockSize, u8 *pBlock, u8 Flags)
 {
        while (BlockSize > 0) {
                u16 Chunk = BlockSize > CHUNK_SIZE ? CHUNK_SIZE : BlockSize;
                /* Store output configuration */
                status = Read16(state, EC_OC_REG_SNC_ISC_LVL__A, &ocSyncLvl, 0);
                if (status < 0)
-                       break;;
+                       break;
                /* CHK_ERROR(Read16(EC_OC_REG_OC_MODE_LOP__A, &ocModeLop)); */
                state->m_EcOcRegSncSncLvl = ocSyncLvl;
                /* m_EcOcRegOcModeLop = ocModeLop; */
 
        status = Read16(state, SC_RA_RAM_LOCK__A, &ScRaRamLock, 0x0000);
        if (status < 0) {
-               printk("Can't read SC_RA_RAM_LOCK__A status = %08x\n", status);
+               printk(KERN_ERR "Can't read SC_RA_RAM_LOCK__A status = %08x\n", status);
                return status;
        }
 
                        status = Write16(state, FE_AG_REG_PM1_AGC_WRI__A, FeAgRegPm1AgcWri, 0);
                        if (status < 0)
                                break;
-               }
-               while (0);
+               } while (0);
        } else if (cfg->ctrlMode == AGC_CTRL_AUTO) {
                if (((cfg->maxOutputLevel) < (cfg->minOutputLevel)) ||
                    ((cfg->maxOutputLevel) > DRXD_FE_CTRL_MAX) ||
                    ((cfg->speed) > DRXD_FE_CTRL_MAX) ||
                    ((cfg->settleLevel) > DRXD_FE_CTRL_MAX)
                    )
-                       return (-1);
+                       return -1;
                do {
                        u16 FeAgRegAgModeLop;
                        u16 FeAgRegEgcSetLvl;
 
        } else {
                /* No OFF mode for IF control */
-               return (-1);
+               return -1;
        }
        return status;
 }
 }
 
 static int DownloadMicrocode(struct drxd_state *state,
-                            const u8 * pMCImage, u32 Length)
+                            const u8 *pMCImage, u32 Length)
 {
        u8 *pSrc;
        u16 Flags;
        u16 waitCmd;
        int status;
 
-       if ((status = Write16(state, HI_RA_RAM_SRV_CMD__A, cmd, 0)) < 0)
+       status = Write16(state, HI_RA_RAM_SRV_CMD__A, cmd, 0);
+       if (status < 0)
                return status;
 
        do {
 
 #if 0
 static int AtomicReadBlock(struct drxd_state *state,
-                          u32 Addr, u16 DataSize, u8 * pData, u8 Flags)
+                          u32 Addr, u16 DataSize, u8 *pData, u8 Flags)
 {
        int status;
        int i = 0;
 }
 
 static int AtomicReadReg32(struct drxd_state *state,
-                          u32 Addr, u32 * pData, u8 Flags)
+                          u32 Addr, u32 *pData, u8 Flags)
 {
        u8 buf[sizeof(u32)];
        int status;
        if (state->osc_clock_freq == 0 ||
            state->osc_clock_freq > 20000 ||
            (state->osc_clock_freq % 4000) != 0) {
-               printk("invalid osc frequency %d\n", state->osc_clock_freq);
+               printk(KERN_ERR "invalid osc frequency %d\n", state->osc_clock_freq);
                return -1;
        }
 
                        if (status < 0)
                                break;
                }
-       }
-       while (0);
+       } while (0);
        return status;
 }
 
        Read16(state, SC_RA_RAM_CMD_ADDR__A, &errCode, 0);
 
        if (errCode == 0xFFFF) {
-               printk("Command Error\n");
+               printk(KERN_ERR "Command Error\n");
                status = -1;
        }
 
                status = Read16(state, CC_REG_JTAGID_L__A, &deviceId, 0);
                if (status < 0)
                        break;
-               printk("drxd: deviceId = %04x\n", deviceId);
+               printk(KERN_INFO "drxd: deviceId = %04x\n", deviceId);
 
                state->type_A = 0;
                state->PGA = 0;
                state->diversity = 0;
                if (deviceId == 0) {    /* on A2 only 3975 available */
                        state->type_A = 1;
-                       printk("DRX3975D-A2\n");
+                       printk(KERN_INFO "DRX3975D-A2\n");
                } else {
                        deviceId >>= 12;
-                       printk("DRX397%dD-B1\n", deviceId);
+                       printk(KERN_INFO "DRX397%dD-B1\n", deviceId);
                        switch (deviceId) {
                        case 4:
                                state->diversity = 1;
 
                /* These accesses should be AtomicReadReg32, but that
                   causes trouble (at least for diversity */
-               status = Read32(state, LC_RA_RAM_IFINCR_NOM_L__A, ((u32 *) & nomincr), 0);
+               status = Read32(state, LC_RA_RAM_IFINCR_NOM_L__A, ((u32 *) &nomincr), 0);
                if (status < 0)
                        break;
-               status = Read32(state, FE_IF_REG_INCR0__A, (u32 *) & incr, 0);
+               status = Read32(state, FE_IF_REG_INCR0__A, (u32 *) &incr, 0);
                if (status < 0)
                        break;
 
                sysClockInHz = MulDiv32(incr, bandwidth, 1 << 21);
                sysClockFreq = (u32) (sysClockInHz / 1000);
                /* rounding */
-               if ((sysClockInHz % 1000) > 500) {
+               if ((sysClockInHz % 1000) > 500)
                        sysClockFreq++;
-               }
 
                /* Compute clock deviation in ppm */
                oscClockDeviation = (u16) ((((s32) (sysClockFreq) -
                                           (state->expected_sys_clock_freq));
 
                Diff = oscClockDeviation - state->osc_clock_deviation;
-               /*printk("sysclockdiff=%d\n", Diff); */
+               /*printk(KERN_INFO "sysclockdiff=%d\n", Diff); */
                if (Diff >= -200 && Diff <= 200) {
                        state->sys_clock_freq = (u16) sysClockFreq;
                        if (oscClockDeviation != state->osc_clock_deviation) {
                }
        } while (0);
 
-       return (status);
+       return status;
 }
 
 static int DRX_Stop(struct drxd_state *state)
                                         1 << 28, state->sys_clock_freq);
        /* Remove integer part */
        state->fe_fs_add_incr &= 0x0FFFFFFFL;
-       if (negativeShift) {
+       if (negativeShift)
                state->fe_fs_add_incr = ((1 << 28) - state->fe_fs_add_incr);
-       }
 
        /* Save the frequency shift without tunerOffset compensation
           for CtrlGetChannel. */
                state->rf_agc_cfg.speed = (u16) (ulRfAgcSpeed);
        }
 
-       if (ulRfAgcMode == 2) {
+       if (ulRfAgcMode == 2)
                state->rf_agc_cfg.ctrlMode = AGC_CTRL_OFF;
-       }
 
        if (ulEnvironment <= 2)
                state->app_env_default = (enum app_env)
 
        return DRX_ConfigureI2CBridge(state, onoff);
 }
+EXPORT_SYMBOL(drxd_config_i2c);
 
 static int drxd_get_tune_settings(struct dvb_frontend *fe,
                                  struct dvb_frontend_tune_settings *sets)
            state->config.pll_set(state->priv, param,
                                  state->config.pll_address,
                                  state->config.demoda_address, &off) < 0) {
-               printk("Error in pll_set\n");
+               printk(KERN_ERR "Error in pll_set\n");
                return -1;
        }
 
        return &state->frontend;
 
 error:
-       printk("drxd: not found\n");
+       printk(KERN_ERR "drxd: not found\n");
        kfree(state);
        return NULL;
 }
+EXPORT_SYMBOL(drxd_attach);
 
 MODULE_DESCRIPTION("DRXD driver");
 MODULE_AUTHOR("Micronas");
 MODULE_LICENSE("GPL");
-
-EXPORT_SYMBOL(drxd_attach);
-EXPORT_SYMBOL(drxd_config_i2c);