13#ifndef EFORMAT_WRITE_FULLEVENTFRAGMENT_H
14#define EFORMAT_WRITE_FULLEVENTFRAGMENT_H
46 uint32_t
lvl1_id, uint32_t lvl1_type,
47 uint32_t lvl2_info,
const uint32_t* ef_info);
66 uint32_t
lvl1_id, uint32_t lvl1_type,
67 uint32_t lvl2_info,
const uint32_t* ef_info);
139 inline uint32_t
nstatus (
void)
const {
return m_node[0].
base[5]; }
144 inline const uint32_t*
status (
void)
const {
return m_node[1].
base; }
158 {
return 0xffff & m_node[0].
base[3]; }
166 { m_node[0].
base[4] =
s; }
172 {
return m_node[0].
base[4]; }
180 { m_node[2].
base[1] =
s; }
185 inline uint32_t
time (
void)
const
186 {
return m_node[2].
base[1]; }
194 { m_node[2].
base[2] =
s; }
200 {
return m_node[2].
base[2]; }
208 { m_node[2].
base[3] =
s; }
214 {
return m_node[2].
base[3]; }
222 { m_node[2].
base[4] =
s; }
228 {
return m_node[2].
base[4]; }
236 { m_node[2].
base[5] =
s; }
242 {
return m_node[2].
base[5]; }
250 { m_node[2].
base[6] =
s; }
256 {
return m_node[2].
base[6]; }
264 { memcpy(&m_node[2].base[7],
s, 4*
sizeof(uint32_t)); }
270 {
return &m_node[2].
base[7]; }
278 {
return m_node[0].
base[2]; }
284 {
return m_node[0].
base[1]; }
317 { m_node[0].
base[1] -= o; m_node[0].
base[1] +=
n; }
340 uint32_t m_header[17];
345 uint32_t m_extra_count;
**********Class see also m_nmax DOUBLE PRECISION m_amel DOUBLE PRECISION m_x2 DOUBLE PRECISION m_alfinv DOUBLE PRECISION m_Xenph INTEGER m_KeyWtm INTEGER m_idyfs DOUBLE PRECISION m_zini DOUBLE PRECISION m_q2 DOUBLE PRECISION m_Wt_KF DOUBLE PRECISION m_WtCut INTEGER m_KFfin *COMMON c_KarLud $ !Input CMS energy[GeV] $ !CMS energy after beam spread beam strahlung[GeV] $ !Beam energy spread[GeV] $ !z boost due to beam spread $ !electron beam mass *ff pair spectrum $ !minimum v
Helps the user to define and build a SubDetector fragment.