New upstream version 1.11.0+dfsgupstream/1.11.0+dfsg

Signed-off-by: Daniel Baumann <daniel.baumann@progress-linux.org>

1 files changed, 0 insertions, 231 deletions

diff --git a/src/storage_number.c b/src/storage_number.c
deleted file mode 100644
index c7bbaa8d9..000000000
--- a/src/storage_number.c
+++ /dev/null
@@ -1,231 +0,0 @@
-#include "common.h"
-
-storage_number pack_storage_number(calculated_number value, uint32_t flags)
-{
-    // bit 32 = sign 0:positive, 1:negative
-    // bit 31 = 0:divide, 1:multiply
-    // bit 30, 29, 28 = (multiplier or divider) 0-7 (8 total)
-    // bit 27, 26, 25 flags
-    // bit 24 to bit 1 = the value
-
-    storage_number r = get_storage_number_flags(flags);
-    if(!value) return r;
-
-    int m = 0;
-    calculated_number n = value;
-
-    // if the value is negative
-    // add the sign bit and make it positive
-    if(n < 0) {
-        r += (1 << 31); // the sign bit 32
-        n = -n;
-    }
-
-    // make its integer part fit in 0x00ffffff
-    // by dividing it by 10 up to 7 times
-    // and increasing the multiplier
-    while(m < 7 && n > (calculated_number)0x00ffffff) {
-        n /= 10;
-        m++;
-    }
-
-    if(m) {
-        // the value was too big and we divided it
-        // so we add a multiplier to unpack it
-        r += (1 << 30) + (m << 27); // the multiplier m
-
-        if(n > (calculated_number)0x00ffffff) {
-            #ifdef NETDATA_INTERNAL_CHECKS
-            error("Number " CALCULATED_NUMBER_FORMAT " is too big.", value);
-            #endif
-            r += 0x00ffffff;
-            return r;
-        }
-    }
-    else {
-        // 0x0019999e is the number that can be multiplied
-        // by 10 to give 0x00ffffff
-        // while the value is below 0x0019999e we can
-        // multiply it by 10, up to 7 times, increasing
-        // the multiplier
-        while(m < 7 && n < (calculated_number)0x0019999e) {
-            n *= 10;
-            m++;
-        }
-
-        // the value was small enough and we multiplied it
-        // so we add a divider to unpack it
-        r += (0 << 30) + (m << 27); // the divider m
-    }
-
-#ifdef STORAGE_WITH_MATH
-    // without this there are rounding problems
-    // example: 0.9 becomes 0.89
-    r += lrint((double) n);
-#else
-    r += (storage_number)n;
-#endif
-
-    return r;
-}
-
-calculated_number unpack_storage_number(storage_number value)
-{
-    if(!value) return 0;
-
-    int sign = 0, exp = 0;
-
-    value ^= get_storage_number_flags(value);
-
-    if(value & (1 << 31)) {
-        sign = 1;
-        value ^= 1 << 31;
-    }
-
-    if(value & (1 << 30)) {
-        exp = 1;
-        value ^= 1 << 30;
-    }
-
-    int mul = value >> 27;
-    value ^= mul << 27;
-
-    calculated_number n = value;
-
-    // fprintf(stderr, "UNPACK: %08X, sign = %d, exp = %d, mul = %d, n = " CALCULATED_NUMBER_FORMAT "\n", value, sign, exp, mul, n);
-
-    while(mul > 0) {
-        if(exp) n *= 10;
-        else n /= 10;
-        mul--;
-    }
-
-    if(sign) n = -n;
-    return n;
-}
-
-/*
-int print_calculated_number(char *str, calculated_number value)
-{
-    char *wstr = str;
-
-    int sign = (value < 0) ? 1 : 0;
-    if(sign) value = -value;
-
-#ifdef STORAGE_WITH_MATH
-    // without llrintl() there are rounding problems
-    // for example 0.9 becomes 0.89
-    unsigned long long uvalue = (unsigned long long int) llrintl(value * (calculated_number)100000);
-#else
-    unsigned long long uvalue = value * (calculated_number)100000;
-#endif
-
-    wstr = print_number_llu_r_smart(str, uvalue);
-
-    // make sure we have 6 bytes at least
-    while((wstr - str) < 6) *wstr++ = '0';
-
-    // put the sign back
-    if(sign) *wstr++ = '-';
-
-    // reverse it
-    char *begin = str, *end = --wstr, aux;
-    while (end > begin) aux = *end, *end-- = *begin, *begin++ = aux;
-    // wstr--;
-    // strreverse(str, wstr);
-
-    // remove trailing zeros
-    int decimal = 5;
-    while(decimal > 0 && *wstr == '0') {
-        *wstr-- = '\0';
-        decimal--;
-    }
-
-    // terminate it, one position to the right
-    // to let space for a dot
-    wstr[2] = '\0';
-
-    // make space for the dot
-    int i;
-    for(i = 0; i < decimal ;i++) {
-        wstr[1] = wstr[0];
-        wstr--;
-    }
-
-    // put the dot
-    if(wstr[2] == '\0') { wstr[1] = '\0'; decimal--; }
-    else wstr[1] = '.';
-
-    // return the buffer length
-    return (int) ((wstr - str) + 2 + decimal );
-}
-*/
-
-int print_calculated_number(char *str, calculated_number value) {
-    // info("printing number " CALCULATED_NUMBER_FORMAT, value);
-    char integral_str[50], fractional_str[50];
-
-    char *wstr = str;
-
-    if(unlikely(value < 0)) {
-        *wstr++ = '-';
-        value = -value;
-    }
-
-    calculated_number integral, fractional;
-
-#ifdef STORAGE_WITH_MATH
-    fractional = calculated_number_modf(value, &integral) * 10000000.0;
-#else
-    fractional = ((unsigned long long)(value * 10000000ULL) % 10000000ULL);
-#endif
-
-    unsigned long long integral_int = (unsigned long long)integral;
-    unsigned long long fractional_int = (unsigned long long)calculated_number_llrint(fractional);
-    if(unlikely(fractional_int >= 10000000)) {
-        integral_int += 1;
-        fractional_int -= 10000000;
-    }
-
-    // info("integral " CALCULATED_NUMBER_FORMAT " (%llu), fractional " CALCULATED_NUMBER_FORMAT " (%llu)", integral, integral_int, fractional, fractional_int);
-
-    char *istre;
-    if(unlikely(integral_int == 0)) {
-        integral_str[0] = '0';
-        istre = &integral_str[1];
-    }
-    else
-        // convert the integral part to string (reversed)
-        istre = print_number_llu_r_smart(integral_str, integral_int);
-
-    // copy reversed the integral string
-    istre--;
-    while( istre >= integral_str ) *wstr++ = *istre--;
-
-    if(likely(fractional_int != 0)) {
-        // add a dot
-        *wstr++ = '.';
-
-        // convert the fractional part to string (reversed)
-        char *fstre = print_number_llu_r_smart(fractional_str, fractional_int);
-
-        // prepend zeros to reach 7 digits length
-        int decimal = 7;
-        int len = (int)(fstre - fractional_str);
-        while(len < decimal) {
-            *wstr++ = '0';
-            len++;
-        }
-
-        char *begin = fractional_str;
-        while(begin < fstre && *begin == '0') begin++;
-
-        // copy reversed the fractional string
-        fstre--;
-        while( fstre >= begin ) *wstr++ = *fstre--;
-    }
-
-    *wstr = '\0';
-    // info("printed number '%s'", str);
-    return (int)(wstr - str);
-}