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author | oetiker <oetiker@a5681a0c-68f1-0310-ab6d-d61299d08faa> | |
Thu, 12 May 2005 05:41:09 +0000 (05:41 +0000) | ||
committer | oetiker <oetiker@a5681a0c-68f1-0310-ab6d-d61299d08faa> | |
Thu, 12 May 2005 05:41:09 +0000 (05:41 +0000) |
git-svn-id: svn://svn.oetiker.ch/rrdtool/branches/1.2/program@544 a5681a0c-68f1-0310-ab6d-d61299d08faa
bindings/python/rrd_format.h | [deleted file] | patch | blob | history |
bindings/python/rrdtoolmodule.c | patch | blob | history |
diff --git a/bindings/python/rrd_format.h b/bindings/python/rrd_format.h
+++ /dev/null
@@ -1,324 +0,0 @@
-/*
- * This file is part of RRDtool.
- *
- * RRDtool is free software; you can redistribute it and/or modify
- * it under the terms of the GNU General Public License as published
- * by the Free Software Foundation; either version 2 of the License, or
- * (at your option) any later version.
- *
- * RRDtool is distributed in the hope that it will be useful,
- * but WITHOUT ANY WARRANTY; without even the implied warranty of
- * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
- * GNU General Public License for more details.
- *
- * You should have received a copy of the GNU General Public License
- * along with Foobar; if not, write to the Free Software
- * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
- */
-
-/*****************************************************************************
- * RRDtool 1.0.37 Copyright Tobias Oetiker, 1997, 1998, 1999
- *****************************************************************************
- * rrd_format.h RRD Database Format header
- *****************************************************************************/
-
-#ifndef _RRD_FORMAT_H
-#define _RRD_FORMAT_H
-
-#include "rrd.h"
-
-/*****************************************************************************
- * put this in your /usr/lib/magic file (/etc/magic on HPUX)
- *
- * # rrd database format
- * 0 string RRD\0 rrd file
- * >5 string >\0 version '%s'
- *
- *****************************************************************************/
-
-#define RRD_COOKIE "RRD"
-#define RRD_VERSION "0001"
-#define FLOAT_COOKIE 8.642135E130
-
-#if defined(WIN32)
-#define DNAN ((double)fmod(0.0,0.0))
-#define DINF ((double)log(0.0))
-#else
-
-#define DNAN ((double)(0.0/0.0)) /* we use a DNAN to
- * represent the UNKNOWN
- * */
-#define DINF ((double)(1.0/0.0)) /* we use a DINF to
- * represent a value at the upper or
- * lower border of the graph ...
- * */
-#endif
-
-typedef union unival {
- unsigned long u_cnt;
- rrd_value_t u_val;
-} unival;
-
-
-/****************************************************************************
- * The RRD Database Structure
- * ---------------------------
- *
- * In oder to properly describe the database structure lets define a few
- * new words:
- *
- * ds - Data Source (ds) providing input to the database. A Data Source (ds)
- * can be a traffic counter, a temperature, the number of users logged
- * into a system. The rrd database format can handle the input of
- * several Data Sources (ds) in a singe database.
- *
- * dst - Data Source Type (dst). The Data Source Type (dst) defines the rules
- * applied to Build Primary Data Points from the input provided by the
- * data sources (ds).
- *
- * pdp - Primary Data Point (pdp). After the database has accepted the
- * input from the data sources (ds). It starts building Primary
- * Data Points (pdp) from the data. Primary Data Points (pdp)
- * are evenly spaced along the time axis (pdp_step). The values
- * of the Primary Data Points are calculated from the values of
- * the data source (ds) and the exact time these values were
- * provided by the data source (ds).
- *
- * pdp_st - PDP Start (pdp_st). The moments (pdp_st) in time where
- * these steps occur are defined by the moments where the
- * number of seconds since 1970-jan-1 modulo pdp_step equals
- * zero (pdp_st).
- *
- * cf - Consolidation Function (cf). An arbitrary Consolidation Function (cf)
- * (averaging, min, max) is applied to the primary data points (pdp) to
- * calculate the consolidated data point.
- *
- * cdp - Consolidated Data Point (cdp) is the long term storage format for data
- * in the rrd database. Consolidated Data Points represent one or
- * several primary data points collected along the time axis. The
- * Consolidated Data Points (cdp) are stored in Round Robin Archives
- * (rra).
- *
- * rra - Round Robin Archive (rra). This is the place where the
- * consolidated data points (cdp) get stored. The data is
- * organized in rows (row) and columns (col). The Round Robin
- * Archive got its name from the method data is stored in
- * there. An RRD database can contain several Round Robin
- * Archives. Each Round Robin Archive can have a different row
- * spacing along the time axis (pdp_cnt) and a different
- * consolidation function (cf) used to build its consolidated
- * data points (cdp).
- *
- * rra_st - RRA Start (rra_st). The moments (rra_st) in time where
- * Consolidated Data Points (cdp) are added to an rra are
- * defined by the moments where the number of seconds since
- * 1970-jan-1 modulo pdp_cnt*pdp_step equals zero (rra_st).
- *
- * row - Row (row). A row represent all consolidated data points (cdp)
- * in a round robin archive who are of the same age.
- *
- * col - Column (col). A column (col) represent all consolidated
- * data points (cdp) in a round robin archive (rra) who
- * originated from the same data source (ds).
- *
- */
-
-/****************************************************************************
- * POS 1: stat_head_t static header of the database
- ****************************************************************************/
-
-typedef struct stat_head_t {
-
- /* Data Base Identification Section ***/
- char cookie[4]; /* RRD */
- char version[5]; /* version of the format */
- double float_cookie; /* is it the correct double
- * representation ? */
-
- /* Data Base Structure Definition *****/
- unsigned long ds_cnt; /* how many different ds provide
- * input to the rrd */
- unsigned long rra_cnt; /* how many rras will be maintained
- * in the rrd */
- unsigned long pdp_step; /* pdp interval in seconds */
-
- unival par[10]; /* global parameters ... unused
- at the moment */
-} stat_head_t;
-
-
-/****************************************************************************
- * POS 2: ds_def_t (* ds_cnt) Data Source definitions
- ****************************************************************************/
-
-enum dst_en { DST_COUNTER=0, /* data source types available */
- DST_ABSOLUTE,
- DST_GAUGE,
- DST_DERIVE};
-
-enum ds_param_en { DS_mrhb_cnt=0, /* minimum required heartbeat. A
- * data source must provide input at
- * least every ds_mrhb seconds,
- * otherwise it is regarded dead and
- * will be set to UNKNOWN */
- DS_min_val, /* the processed input of a ds must */
- DS_max_val }; /* be between max_val and min_val
- * both can be set to UNKNOWN if you
- * do not care. Data outside the limits
- * set to UNKNOWN */
-
-/* The magic number here is one less than DS_NAM_SIZE */
-#define DS_NAM_FMT "%19[a-zA-Z0-9_-]"
-#define DS_NAM_SIZE 20
-
-#define DST_FMT "%19[A-Z]"
-#define DST_SIZE 20
-
-typedef struct ds_def_t {
- char ds_nam[DS_NAM_SIZE]; /* Name of the data source (null terminated)*/
- char dst[DST_SIZE]; /* Type of data source (null terminated)*/
- unival par[10]; /* index of this array see ds_param_en */
-} ds_def_t;
-
-/****************************************************************************
- * POS 3: rra_def_t ( * rra_cnt) one for each store to be maintained
- ****************************************************************************/
-enum cf_en { CF_AVERAGE=0, /* data consolidation functions */
- CF_MINIMUM,
- CF_MAXIMUM,
- CF_LAST};
-
-enum rra_par_en { RRA_cdp_xff_val=0}; /* what part of the consolidated
- datapoint may be unknown, while
- still a valid entry in goes into the rra */
-
-#define CF_NAM_FMT "%19[A-Z]"
-#define CF_NAM_SIZE 20
-
-typedef struct rra_def_t {
- char cf_nam[CF_NAM_SIZE];/* consolidation function (null term) */
- unsigned long row_cnt; /* number of entries in the store */
- unsigned long pdp_cnt; /* how many primary data points are
- * required for a consolidated data
- * point?*/
- unival par[10]; /* index see rra_param_en */
-
-} rra_def_t;
-
-
-/****************************************************************************
- ****************************************************************************
- ****************************************************************************
- * LIVE PART OF THE HEADER. THIS WILL BE WRITTEN ON EVERY UPDATE *
- ****************************************************************************
- ****************************************************************************
- ****************************************************************************/
-/****************************************************************************
- * POS 4: live_head_t
- ****************************************************************************/
-
-typedef struct live_head_t {
- time_t last_up; /* when was rrd last updated */
-} live_head_t;
-
-
-/****************************************************************************
- * POS 5: pdp_prep_t (* ds_cnt) here we prepare the pdps
- ****************************************************************************/
-#define LAST_DS_LEN 30 /* DO NOT CHANGE THIS ... */
-
-enum pdp_par_en { PDP_unkn_sec_cnt=0, /* how many seconds of the current
- * pdp value is unknown data? */
-
- PDP_val}; /* current value of the pdp.
- this depends on dst */
-
-typedef struct pdp_prep_t{
- char last_ds[LAST_DS_LEN]; /* the last reading from the data
- * source. this is stored in ASCII
- * to cater for very large counters
- * we might encounter in connection
- * with SNMP. */
- unival scratch[10]; /* contents according to pdp_par_en */
-} pdp_prep_t;
-
-/* data is passed from pdp to cdp when seconds since epoch modulo pdp_step == 0
- obviously the updates do not occur at these times only. Especially does the
- format allow for updates to occur at different times for each data source.
- The rules which makes this work is as follows:
-
- * DS updates may only occur at ever increasing points in time
- * When any DS update arrives after a cdp update time, the *previous*
- update cycle gets executed. All pdps are transfered to cdps and the
- cdps feed the rras where necessary. Only then the new DS value
- is loaded into the PDP. */
-
-
-/****************************************************************************
- * POS 6: cdp_prep_t (* rra_cnt * ds_cnt ) data prep area for cdp values
- ****************************************************************************/
-enum cdp_par_en { CDP_val=0, /* the base_interval is always an
- * average */
- CDP_unkn_pdp_cnt }; /* how many unknown pdp were
- * integrated. This and the cdp_xff
- will decide if this is going to
- be a UNKNOWN or a valid value */
-
-typedef struct cdp_prep_t{
- unival scratch[10]; /* contents according to cdp_par_en *
- * init state should be NAN */
-
-} cdp_prep_t;
-
-/****************************************************************************
- * POS 7: rra_ptr_t (* rra_cnt) pointers to the current row in each rra
- ****************************************************************************/
-
-typedef struct rra_ptr_t {
- unsigned long cur_row; /* current row in the rra*/
-} rra_ptr_t;
-
-
-/****************************************************************************
- ****************************************************************************
- * One single struct to hold all the others. For convenience.
- ****************************************************************************
- ****************************************************************************/
-typedef struct rrd_t {
- stat_head_t *stat_head; /* the static header */
- ds_def_t *ds_def; /* list of data source definitions */
- rra_def_t *rra_def; /* list of round robin archive def */
- live_head_t *live_head;
- pdp_prep_t *pdp_prep; /* pdp data prep area */
- cdp_prep_t *cdp_prep; /* cdp prep area */
- rra_ptr_t *rra_ptr; /* list of rra pointers */
- rrd_value_t *rrd_value; /* list of rrd values */
-} rrd_t;
-
-/****************************************************************************
- ****************************************************************************
- * AFTER the header section we have the DATA STORAGE AREA it is made up from
- * Consolidated Data Points organized in Round Robin Archives.
- ****************************************************************************
- ****************************************************************************
-
- *RRA 0
- (0,0) .................... ( ds_cnt -1 , 0)
- .
- .
- .
- (0, row_cnt -1) ... (ds_cnt -1, row_cnt -1)
-
- *RRA 1
- *RRA 2
-
- *RRA rra_cnt -1
-
- ****************************************************************************/
-
-
-#endif
-
-
-
-
index c1ff42f8b3ec6cb2bc36df028b225b6211028471..f71fbb1d7dd348b082ea3f67836454a17c8dc477 100644 (file)
*
*/
+#ifdef UNUSED
+#elif defined(__GNUC__)
+# define UNUSED(x) x __attribute__((unused))
+#elif defined(__LCLINT__)
+# define UNUSED(x) /*@unused@*/ x
+#else
+# define UNUSED(x) x
+#endif
+
static const char *__version__ = "$Revision: 1.14 $";
#include "Python.h"
[RRA:CF:xff:steps:rows]";
static PyObject *
-PyRRD_create(PyObject *self, PyObject *args)
+PyRRD_create(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
char **argv;
"N|timestamp:value[:value...] [timestamp:value[:value...] ...]";
static PyObject *
-PyRRD_update(PyObject *self, PyObject *args)
+PyRRD_update(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
char **argv;
"[--start|-s start] [--end|-e end]";
static PyObject *
-PyRRD_fetch(PyObject *self, PyObject *args)
+PyRRD_fetch(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
rrd_value_t *data, *datai;
"[STACK:vname[#rrggbb[:legend]]]";
static PyObject *
-PyRRD_graph(PyObject *self, PyObject *args)
+PyRRD_graph(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
char **argv, **calcpr;
"[--data-source-type|-d ds-name:DST] [--data-source-rename|-r old-name:new-name]";
static PyObject *
-PyRRD_tune(PyObject *self, PyObject *args)
+PyRRD_tune(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
char **argv;
"last(filename): Return the timestamp of the last data sample in an RRD";
static PyObject *
-PyRRD_last(PyObject *self, PyObject *args)
+PyRRD_last(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
int argc, ts;
" resize filename rra-num GROW|SHRINK rows";
static PyObject *
-PyRRD_resize(PyObject *self, PyObject *args)
+PyRRD_resize(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r;
char **argv;
"info(filename): extract header information from an rrd";
static PyObject *
-PyRRD_info(PyObject *self, PyObject *args)
+PyRRD_info(PyObject UNUSED(*self), PyObject *args)
{
PyObject *r, *t, *ds;
rrd_t rrd;