void sinsp_table::stdout_print(vector<sinsp_sample_row>* sample_data, uint64_t time_delta)
{
vector<filtercheck_field_info>* legend = get_legend();
for(auto it = sample_data->begin(); it != sample_data->end(); ++it)
{
for(uint32_t j = 0; j < m_n_fields - 1; j++)
{
sinsp_filter_check* extractor = m_extractors->at(j + 1);
uint64_t td = 0;
if(extractor->m_aggregation == A_TIME_AVG ||
extractor->m_merge_aggregation == A_TIME_AVG)
{
td = time_delta;
}
m_printer->set_val(m_types->at(j + 1),
it->m_values[j].m_val,
it->m_values[j].m_len,
it->m_values[j].m_cnt,
legend->at(j + 1).m_print_format);
char* prstr = m_printer->tostring_nice(NULL, 10, td);
printf("%s ", prstr);
//printf("%s ", m_printer->tostring(NULL));
}
printf("\n");
}
printf("----------------------\n");
}
pair<filtercheck_field_info*, string> sinsp_table::get_row_key_name_and_val(uint32_t rownum, bool force)
{
pair<filtercheck_field_info*, string> res;
vector<sinsp_filter_check*>* extractors;
vector<ppm_param_type>* types;
if(m_do_merging)
{
extractors = &m_postmerge_extractors;
types = &m_postmerge_types;
}
else
{
extractors = &m_premerge_extractors;
types = &m_premerge_types;
}
if(m_sample_data == NULL || rownum >= m_sample_data->size())
{
ASSERT(m_sample_data == NULL || m_sample_data->size() == 0);
if(force)
{
res.first = (filtercheck_field_info*)((*extractors)[0])->get_field_info();
ASSERT(res.first != NULL);
}
else
{
res.first = NULL;
}
res.second = "";
}
else
{
vector<filtercheck_field_info>* legend = get_legend();
res.first = (filtercheck_field_info*)((*extractors)[0])->get_field_info();
ASSERT(res.first != NULL);
m_printer->set_val(types->at(0),
m_sample_data->at(rownum).m_key.m_val,
m_sample_data->at(rownum).m_key.m_len,
m_sample_data->at(rownum).m_key.m_cnt,
legend->at(0).m_print_format);
res.second = m_printer->tostring(NULL);
}
return res;
}
//
// Returns the key of the first match, or NULL if no match
//
sinsp_table_field* sinsp_table::search_in_sample(string text)
{
vector<filtercheck_field_info>* legend = get_legend();
for(auto it = m_full_sample_data.begin(); it != m_full_sample_data.end(); ++it)
{
for(uint32_t j = 0; j < it->m_values.size(); j++)
{
ppm_param_type type;
if(m_do_merging)
{
ASSERT(m_types->size() == it->m_values.size() + 2);
type = m_types->at(j + 2);
}
else
{
ASSERT(m_types->size() == it->m_values.size() + 1);
type = m_types->at(j + 1);
}
if(type == PT_CHARBUF || type == PT_BYTEBUF || type == PT_SYSCALLID ||
type == PT_PORT || type == PT_L4PROTO || type == PT_SOCKFAMILY || type == PT_IPV4ADDR ||
type == PT_IPV6ADDR ||
type == PT_UID || type == PT_GID)
{
m_printer->set_val(type,
it->m_values[j].m_val,
it->m_values[j].m_len,
it->m_values[j].m_cnt,
legend->at(j + 1).m_print_format);
string strval = m_printer->tostring_nice(NULL, 0, 0);
if(strval.find(text) != string::npos)
{
return &(it->m_key);
}
}
}
}
return NULL;
}
void sinsp_table::filter_sample()
{
vector<filtercheck_field_info>* legend = get_legend();
m_filtered_sample_data.clear();
for(auto it : m_full_sample_data)
{
for(uint32_t j = 0; j < it.m_values.size(); j++)
{
ppm_param_type type;
if(m_do_merging)
{
type = m_postmerge_types[j + 1];
}
else
{
type = m_premerge_types[j + 1];
}
if(type == PT_CHARBUF || type == PT_BYTEBUF || type == PT_SYSCALLID ||
type == PT_PORT || type == PT_L4PROTO || type == PT_SOCKFAMILY || type == PT_IPV4ADDR ||
type == PT_IPV6ADDR ||
type == PT_UID || type == PT_GID)
{
m_printer->set_val(type,
it.m_values[j].m_val,
it.m_values[j].m_len,
it.m_values[j].m_cnt,
legend->at(j + 1).m_print_format);
string strval = m_printer->tostring_nice(NULL, 0, 0);
if(strval.find(m_freetext_filter) != string::npos)
{
m_filtered_sample_data.push_back(it);
break;
}
}
}
}
}
void sinsp_table::print_json(vector<sinsp_sample_row>* sample_data, uint64_t time_delta)
{
Json::FastWriter writer;
vector<filtercheck_field_info>* legend = get_legend();
string res;
uint32_t j = 0;
uint32_t k = 0;
m_json_output_lines_count = 0;
if(sample_data->size() == 0)
{
return;
}
if(m_json_first_row >= sample_data->size())
{
return;
}
if(m_json_last_row == 0 || m_json_last_row >= sample_data->size() - 1)
{
m_json_last_row = sample_data->size() - 1;
}
printf("\"data\": [\n");
for(k = m_json_first_row; k <= m_json_last_row; k++)
{
Json::Value root;
Json::Value jd;
auto row = sample_data->at(k);
for(uint32_t j = 0; j < m_n_fields - 1; j++)
{
sinsp_filter_check* extractor = m_extractors->at(j + 1);
uint64_t td = 0;
if(extractor->m_aggregation == A_TIME_AVG ||
extractor->m_merge_aggregation == A_TIME_AVG)
{
td = time_delta;
}
m_printer->set_val(m_types->at(j + 1),
row.m_values[j].m_val,
row.m_values[j].m_len,
row.m_values[j].m_cnt,
legend->at(j + 1).m_print_format);
jd.append(m_printer->tojson(NULL, 10, td));
}
auto key = get_row_key_name_and_val(k, false);
root["k"] = key.second;
root["d"] = jd;
res = writer.write(root);
printf("%s", res.substr(0, res.size() - 1).c_str());
m_json_output_lines_count++;
if(k >= m_json_last_row)
{
break;
}
if(j < sample_data->size() - 1)
{
printf(",");
}
printf("\n");
j++;
}
printf("],\n");
}