README
¶
heppdt
heppdt provides access to the HEP Particle Data Table.
It has been heavily inspired from the C++ HepPDT library.
Installation
$ go get go-hep.org/x/hep/heppdt
Documentation
Documentation is available on https://godoc.org/go-hep.org/x/hep/heppdt
References
Documentation
¶
Overview ¶
Package heppdt provides access to the HEP Particle Data Table.
Index ¶
- Constants
- func Len() int
- func Name() string
- func PDT() map[PID]*Particle
- type Constituent
- type Measurement
- type PID
- func (pid PID) A() int
- func (pid PID) AbsPID() int
- func (pid PID) Charge() float64
- func (pid PID) Digit(loc location) int
- func (pid PID) ExtraBits() int
- func (pid PID) FundamentalID() int
- func (pid PID) HasBottom() bool
- func (pid PID) HasCharm() bool
- func (pid PID) HasDown() bool
- func (pid PID) HasStrange() bool
- func (pid PID) HasTop() bool
- func (pid PID) HasUp() bool
- func (pid PID) IsBaryon() bool
- func (pid PID) IsDiQuark() bool
- func (pid PID) IsDyon() bool
- func (pid PID) IsHadron() bool
- func (pid PID) IsLepton() bool
- func (pid PID) IsMeson() bool
- func (pid PID) IsNucleus() bool
- func (pid PID) IsPentaquark() bool
- func (pid PID) IsQBall() bool
- func (pid PID) IsRhadron() bool
- func (pid PID) IsSUSY() bool
- func (pid PID) IsValid() bool
- func (pid PID) JSpin() int
- func (pid PID) LSpin() int
- func (pid PID) Lambda() int
- func (pid PID) Quarks() Quarks
- func (pid PID) SSpin() int
- func (pid PID) Z() int
- type Particle
- type Quarks
- type Resonance
- type SpinState
- type Table
Constants ¶
View Source
const ( PDG_d = 1 PDG_anti_d = -1 PDG_u = 2 PDG_anti_u = -2 PDG_s = 3 PDG_anti_s = -3 PDG_c = 4 PDG_anti_c = -4 PDG_b = 5 PDG_anti_b = -5 PDG_t = 6 PDG_anti_t = -6 PDG_l = 7 PDG_anti_l = -7 PDG_h = 8 PDG_anti_h = -8 PDG_g = 21 PDG_e_minus = 11 PDG_e_plus = -11 PDG_nu_e = 12 PDG_anti_nu_e = -12 PDG_mu_minus = 13 PDG_mu_plus = -13 PDG_nu_mu = 14 PDG_anti_nu_mu = -14 PDG_tau_minus = 15 PDG_tau_plus = -15 PDG_nu_tau = 16 PDG_anti_nu_tau = -16 PDG_L_minus = 17 PDG_L_plus = -17 PDG_nu_L = 18 PDG_anti_nu_L = -18 PDG_gamma = 22 PDG_Z0 = 23 PDG_W_plus = 24 PDG_W_minus = -24 PDG_Higgs0 = 25 PDG_reggeon = 28 PDG_pomeron = 29 PDG_Z_prime0 = 32 PDG_Z_prime_prime0 = 33 PDG_W_prime_plus = 34 PDG_W_prime_minus = -34 PDG_Higgs_prime0 = 35 PDG_A0 = 36 PDG_Higgs_plus = 37 PDG_Higgs_minus = -37 PDG_R0 = 40 PDG_anti_R0 = -40 PDG_specflav = 81 PDG_rndmflav = 82 PDG_anti_rndmflav = -82 PDG_phasespa = 83 PDG_c_minushadron = 84 PDG_anti_c_minushadron = -84 PDG_b_minushadron = 85 PDG_anti_b_minushadron = -85 PDG_t_minushadron = 86 PDG_anti_t_minushadron = -86 PDG_Wvirt_plus = 89 PDG_Wvirt_minus = -89 PDG_diquark = 90 PDG_anti_diquark = -90 PDG_cluster = 91 PDG_string = 92 PDG_indep = 93 PDG_CMshower = 94 PDG_SPHEaxis = 95 PDG_THRUaxis = 96 PDG_CLUSjet = 97 PDG_CELLjet = 98 PDG_table = 99 PDG_pi0 = 111 PDG_pi_plus = 211 PDG_pi_minus = -211 PDG_pi_diffr_plus = 210 PDG_pi_diffr_minus = -210 PDG_pi_2S0 = 20111 PDG_pi_2S_plus = 20211 PDG_pi_2S_minus = -20211 PDG_eta = 221 PDG_eta_2S = 20221 PDG_eta_prime = 331 PDG_rho0 = 113 PDG_rho_plus = 213 PDG_rho_minus = -213 PDG_rho_2S0 = 30113 PDG_rho_2S_plus = 30213 PDG_rho_2S_minus = -30213 PDG_rho_3S0 = 40113 PDG_rho_3S_plus = 40213 PDG_rho_3S_minus = -40213 PDG_omega = 223 PDG_omega_2S = 30223 PDG_phi = 333 PDG_a_00 = 10111 PDG_a_0_plus = 10211 PDG_a_0_minus = -10211 PDG_f_0 = 10221 PDG_f_prime_0 = 10331 PDG_b_10 = 10113 PDG_b_1_plus = 10213 PDG_b_1_minus = -10213 PDG_h_1 = 10223 PDG_h_prime_1 = 10333 PDG_a_10 = 20113 PDG_a_1_plus = 20213 PDG_a_1_minus = -20213 PDG_f_1 = 20223 PDG_f_prime_1 = 20333 PDG_a_20 = 115 PDG_a_2_plus = 215 PDG_a_2_minus = -215 PDG_f_2 = 225 PDG_f_prime_2 = 335 PDG_K0 = 311 PDG_anti_K0 = -311 PDG_K_S0 = 310 PDG_K_L0 = 130 PDG_K_plus = 321 PDG_K_minus = -321 PDG_K_star0 = 313 PDG_anti_K_star0 = -313 PDG_K_star_plus = 323 PDG_K_star_minus = -323 PDG_K_0_star0 = 10311 PDG_anti_K_0_star0 = -10311 PDG_K_0_star_plus = 10321 PDG_K_0_star_minus = -10321 PDG_K_10 = 10313 PDG_anti_K_10 = -10313 PDG_K_1_plus = 10323 PDG_K_1_minus = -10323 PDG_K_2_star0 = 315 PDG_anti_K_2_star0 = -315 PDG_K_2_star_plus = 325 PDG_K_2_star_minus = -325 PDG_K_prime_10 = 20313 PDG_anti_K_prime_10 = -20313 PDG_K_prime_1_plus = 20323 PDG_K_prime_1_minus = -20323 PDG_D_plus = 411 PDG_D_minus = -411 PDG_D0 = 421 PDG_anti_D0 = -421 PDG_D_star_plus = 413 PDG_D_star_minus = -413 PDG_D_star0 = 423 PDG_anti_D_star0 = -423 PDG_D_0_star_plus = 10411 PDG_D_0_star_minus = -10411 PDG_D_0_star0 = 10421 PDG_anti_D_0_star0 = -10421 PDG_D_1_plus = 10413 PDG_D_1_minus = -10413 PDG_D_10 = 10423 PDG_anti_D_10 = -10423 PDG_D_2_star_plus = 415 PDG_D_2_star_minus = -415 PDG_D_2_star0 = 425 PDG_anti_D_2_star0 = -425 PDG_D_prime_1_plus = 20413 PDG_D_prime_1_minus = -20413 PDG_D_prime_10 = 20423 PDG_anti_D_prime_10 = -20423 PDG_D_s_plus = 431 PDG_D_s_minus = -431 PDG_D_s_star_plus = 433 PDG_D_s_star_minus = -433 PDG_D_s0_star_plus = 10431 PDG_D_s0_star_minus = -10431 PDG_D_s1_plus = 10433 PDG_D_s1_minus = -10433 PDG_D_s2_star_plus = 435 PDG_D_s2_star_minus = -435 PDG_D_prime_s1_plus = 20433 PDG_D_prime_s1_minus = -20433 PDG_B0 = 511 PDG_anti_B0 = -511 PDG_B_plus = 521 PDG_B_minus = -521 PDG_B_star0 = 513 PDG_anti_B_star0 = -513 PDG_B_star_plus = 523 PDG_B_star_minus = -523 PDG_B_0_star0 = 10511 PDG_anti_B_0_star0 = -10511 PDG_B_0_star_plus = 10521 PDG_B_0_star_minus = -10521 PDG_B_10 = 10513 PDG_anti_B_10 = -10513 PDG_B_1_plus = 10523 PDG_B_1_minus = -10523 PDG_B_2_star0 = 515 PDG_anti_B_2_star0 = -515 PDG_B_2_star_plus = 525 PDG_B_2_star_minus = -525 PDG_B_prime_10 = 20513 PDG_anti_B_prime_10 = -20513 PDG_B_prime_1_plus = 20523 PDG_B_prime_1_minus = -20523 PDG_B_s0 = 531 PDG_anti_B_s0 = -531 PDG_B_s_star0 = 533 PDG_anti_B_s_star0 = -533 PDG_B_s0_star0 = 10531 PDG_anti_B_s0_star0 = -10531 PDG_B_s10 = 10533 PDG_anti_B_s10 = -10533 PDG_B_s2_star0 = 535 PDG_anti_B_s2_star0 = -535 PDG_B_prime_s10 = 20533 PDG_anti_B_prime_s10 = -20533 PDG_B_c_plus = 541 PDG_B_c_minus = -541 PDG_B_c_star_plus = 543 PDG_B_c_star_minus = -543 PDG_B_c0_star_plus = 10541 PDG_B_c0_star_minus = -10541 PDG_B_c1_plus = 10543 PDG_B_c1_minus = -10543 PDG_B_c2_star_plus = 545 PDG_B_c2_star_minus = -545 PDG_B_prime_c1_plus = 20543 PDG_B_prime_c1_minus = -20543 PDG_eta_c = 441 PDG_eta_c_2S = 20441 PDG_J_psi = 443 PDG_psi_2S = 20443 PDG_chi_c0 = 10441 PDG_chi_c1 = 10443 PDG_chi_c2 = 445 PDG_eta_b_2S = 20551 PDG_eta_b_3S = 40551 PDG_Upsilon = 553 PDG_Upsilon_2S = 20553 PDG_Upsilon_3S = 60553 PDG_Upsilon_4S = 70553 PDG_Upsilon_5S = 80553 PDG_h_b = 10553 PDG_h_b_2P = 40553 PDG_h_b_3P = 100553 PDG_chi_b0 = 551 PDG_chi_b1 = 20553 PDG_chi_b2 = 555 PDG_chi_b0_2P = 30551 PDG_chi_b1_2P = 50553 PDG_chi_b2_2P = 10555 PDG_chi_b0_3P = 50551 PDG_chi_b1_3P = 110553 PDG_chi_b2_3P = 20555 PDG_eta_b2_1D = 40555 PDG_eta_b2_2D = 60555 PDG_Upsilon_1_1D = 120553 PDG_Upsilon_2_1D = 30555 PDG_Upsilon_3_1D = 557 PDG_Upsilon_1_2D = 130553 PDG_Upsilon_2_2D = 50555 PDG_Upsilon_3_2D = 10557 PDG_Delta_minus = 1114 PDG_anti_Delta_plus = -1114 PDG_n_diffr = 2110 PDG_anti_n_diffr = -2110 PDG_n0 = 2112 PDG_anti_n0 = -2112 PDG_Delta0 = 2114 PDG_anti_Delta0 = -2114 PDG_p_diffr_plus = 2210 PDG_anti_p_diffr_minus = -2210 PDG_p_plus = 2212 PDG_anti_p_minus = -2212 PDG_Delta_plus = 2214 PDG_anti_Delta_minus = -2214 PDG_Delta_plus_plus = 2224 PDG_anti_Delta_minus_minus = -2224 PDG_Sigma_minus = 3112 PDG_anti_Sigma_plus = -3112 PDG_Sigma_star_minus = 3114 PDG_anti_Sigma_star_plus = -3114 PDG_Lambda0 = 3122 PDG_anti_Lambda0 = -3122 PDG_Sigma0 = 3212 PDG_anti_Sigma0 = -3212 PDG_Sigma_star0 = 3214 PDG_anti_Sigma_star0 = -3214 PDG_Sigma_plus = 3222 PDG_anti_Sigma_minus = -3222 PDG_Sigma_star_plus = 3224 PDG_anti_Sigma_star_minus = -3224 PDG_Xi_minus = 3312 PDG_anti_Xi_plus = -3312 PDG_Xi_star_minus = 3314 PDG_anti_Xi_star_plus = -3314 PDG_Xi0 = 3322 PDG_anti_Xi0 = -3322 PDG_Xi_star0 = 3324 PDG_anti_Xi_star0 = -3324 PDG_Omega_minus = 3334 PDG_anti_Omega_plus = -3334 PDG_Sigma_c0 = 4112 PDG_anti_Sigma_c0 = -4112 PDG_Sigma_c_star0 = 4114 PDG_anti_Sigma_c_star0 = -4114 PDG_Lambda_c_plus = 4122 PDG_anti_Lambda_c_minus = -4122 PDG_Xi_c0 = 4132 PDG_anti_Xi_c0 = -4132 PDG_Sigma_c_plus = 4212 PDG_anti_Sigma_c_minus = -4212 PDG_Sigma_c_star_plus = 4214 PDG_anti_Sigma_c_star_minus = -4214 PDG_Sigma_c_plus_plus = 4222 PDG_anti_Sigma_c_minus_minus = -4222 PDG_Sigma_c_star_plus_plus = 4224 PDG_anti_Sigma_c_star_minus_minus = -4224 PDG_Xi_c_plus = 4322 PDG_anti_Xi_c_minus = -4322 PDG_Xi_prime_c0 = 4312 PDG_Xi_primeanti__c0 = -4312 PDG_Xi_c_star0 = 4314 PDG_anti_Xi_c_star0 = -4314 PDG_Xi_prime_c_plus = 4232 PDG_Xi_primeanti__c_minus = -4232 PDG_Xi_c_star_plus = 4324 PDG_anti_Xi_c_star_minus = -4324 PDG_Omega_c0 = 4332 PDG_anti_Omega_c0 = -4332 PDG_Omega_c_star0 = 4334 PDG_anti_Omega_c_star0 = -4334 PDG_Sigma_b_minus = 5112 PDG_anti_Sigma_b_plus = -5112 PDG_Sigma_b_star_minus = 5114 PDG_anti_Sigma_b_star_plus = -5114 PDG_Lambda_b0 = 5122 PDG_anti_Lambda_b0 = -5122 PDG_Xi_b_minus = 5132 PDG_anti_Xi_b_plus = -5132 PDG_Sigma_b0 = 5212 PDG_anti_Sigma_b0 = -5212 PDG_Sigma_b_star0 = 5214 PDG_anti_Sigma_b_star0 = -5214 PDG_Sigma_b_plus = 5222 PDG_anti_Sigma_b_minus = -5222 PDG_Sigma_star_ = 5224 PDG_anti_Sigma_b_star_minus = -5224 PDG_Xi_b0 = 5232 PDG_anti_Xi_b0 = -5232 PDG_Xi_prime_b_minus = 5312 PDG_anti_Xi_prime_b_plus = -5312 PDG_Xi_b_star_minus = 5314 PDG_anti_Xi_b_star_plus = -5314 PDG_Xi_prime_b0 = 5322 PDG_anti_Xi_prime_b0 = -5322 PDG_Xi_b_star0 = 5324 PDG_anti_Xi_b_star0 = -5324 PDG_Omega_b_minus = 5332 PDG_anti_Omega_b_plus = -5332 PDG_Omega_b_star_minus = 5334 PDG_anti_Omega_b_star_plus = -5334 PDG_dd_0 = 1101 PDG_anti_dd_0 = -1101 PDG_ud_0 = 2101 PDG_anti_ud_0 = -2101 PDG_uu_0 = 2201 PDG_anti_uu_0 = -2201 PDG_sd_0 = 3101 PDG_anti_sd_0 = -3101 PDG_su_0 = 3201 PDG_anti_su_0 = -3201 PDG_ss_0 = 3301 PDG_anti_ss_0 = -3301 PDG_cd_0 = 4101 PDG_anti_cd_0 = -4101 PDG_cu_0 = 4201 PDG_anti_cu_0 = -4201 PDG_cs_0 = 4301 PDG_anti_cs_0 = -4301 PDG_cc_0 = 4401 PDG_anti_cc_0 = -4401 PDG_bd_0 = 5101 PDG_anti_bd_0 = -5101 PDG_bu_0 = 5201 PDG_anti_bu_0 = -5201 PDG_bs_0 = 5301 PDG_anti_bs_0 = -5301 PDG_bc_0 = 5401 PDG_anti_bc_0 = -5401 PDG_bb_0 = 5501 PDG_anti_bb_0 = -5501 PDG_dd_1 = 1103 PDG_anti_dd_1 = -1103 PDG_ud_1 = 2103 PDG_anti_ud_1 = -2103 PDG_uu_1 = 2203 PDG_anti_uu_1 = -2203 PDG_sd_1 = 3103 PDG_anti_sd_1 = -3103 PDG_su_1 = 3203 PDG_anti_su_1 = -3203 PDG_ss_1 = 3303 PDG_anti_ss_1 = -3303 PDG_cd_1 = 4103 PDG_anti_cd_1 = -4103 PDG_cu_1 = 4203 PDG_anti_cu_1 = -4203 PDG_cs_1 = 4303 PDG_anti_cs_1 = -4303 PDG_cc_1 = 4403 PDG_anti_cc_1 = -4403 PDG_bd_1 = 5103 PDG_anti_bd_1 = -5103 PDG_bu_1 = 5203 PDG_anti_bu_1 = -5203 PDG_bs_1 = 5303 PDG_anti_bs_1 = -5303 PDG_bc_1 = 5403 PDG_anti_bc_1 = -5403 PDG_bb_1 = 5503 PDG_anti_bb_1 = -5503 PDG_s_e_minus_L = 1000011 PDG_s_e_plus_L = -1000011 PDG_s_nu_e_L = 1000012 PDG_s_anti_nu_e_L = -1000012 PDG_s_mu_minus_L = 1000013 PDG_s_mu_plus_L = -1000013 PDG_s_nu_mu_L = 1000014 PDG_s_anti_nu_mu_L = -1000014 // L-R mixing significant, use _1 and _2 for names instead PDG_s_tau_minus_1 = 1000015 PDG_s_tau_plus_1 = -1000015 PDG_s_nu_tau_L = 1000016 PDG_s_anti_nu_tau_Lint = -1000016 PDG_s_e_minus_R = 2000011 PDG_s_e_plus_R = -2000011 PDG_s_mu_minus_R = 2000013 PDG_s_mu_plus_R = -2000013 PDG_s_tau_minus_2 = 2000015 PDG_s_tau_plus_2 = -2000015 PDG_s_g = 1000021 PDG_s_chi_0_1 = 1000022 PDG_s_chi_0_2 = 1000023 PDG_s_chi_plus_1 = 1000024 PDG_s_chi_minus_1 = -1000024 // Majorana PDG_s_chi_0_3 = 1000025 PDG_s_chi_0_4 = 1000035 PDG_s_chi_plus_2 = 1000037 PDG_s_chi_minus_2 = -1000037 PDG_s_G = 1000039 // doubly charged Higgs PDG_Higgs_plus_plus_L = 9900041 PDG_Higgs_minus_minus_L = -9900041 PDG_Higgs_plus_plus_R = 9900042 PDG_Higgs_minus_minus_R = -9900042 /// Null particles PDG_deuteron = 0 PDG_tritium = 0 PDG_alpha = 0 PDG_geantino = 0 PDG_He3 = 0 PDG_Cerenkov = 0 PDG_null = 0 )
View Source
const ( Nj location Nq3 Nq2 Nq1 Nl Nr N N8 N9 N10 )
PID digits (base 10) are: n Nr Nl Nq1 Nq2 Nq3 Nj The location enum provides a convenient index into the PID.
Variables ¶
This section is empty.
Functions ¶
Types ¶
type Constituent ¶
Constituent holds a particle constituent (e.g. quark type and number of quarks of this type)
func (Constituent) IsBottom ¶
func (c Constituent) IsBottom() bool
IsBottom returns whether this is a bottom-quark
func (Constituent) IsCharm ¶
func (c Constituent) IsCharm() bool
IsCharm returns whether this is a charm-quark
func (Constituent) IsDown ¶
func (c Constituent) IsDown() bool
IsDown returns whether this is a down-quark
func (Constituent) IsStrange ¶
func (c Constituent) IsStrange() bool
IsStrange returns whether this is a strqnge-quark
func (Constituent) IsTop ¶
func (c Constituent) IsTop() bool
IsTop returns whether this is a top-quark
type Measurement ¶
Measurement holds a value and its associated error
type PID ¶
type PID int
Particle Identification number In the standard numbering scheme, the PID digits (base 10) are:
+/- n Nr Nl Nq1 Nq2 Nq3 Nj
It is expected that any 7 digit number used as a PID will adhere to the Monte Carlo numbering scheme documented by the PDG. Note that particles not already explicitly defined can be expressed within this numbering scheme.
func (PID) ExtraBits ¶
ExtraBits returns everything beyoind the 7th digit (e.g. outside the numbering scheme)
func (PID) FundamentalID ¶
FundamentalID returns the first 2 digits if this is a "fundamental" particle. ID==100 is a special case (internal generator ID's are 81-100) Also, 101 and 102 are now used for geantinos
func (PID) HasStrange ¶
HasStrange returns whether this particle contains a strange quark
func (PID) IsNucleus ¶
IsNucleus returns whether this is a valid nucleus id. This implements the 2006 Monte Carlon nuclear code scheme. Ion numbers are +/- 10LZZZAAAI. AAA is A - total baryon number ZZZ is Z - total charge L is the total number of strange quarks. I is the isomer number, with I=0 corresponding to the ground state.
func (PID) IsPentaquark ¶
IsPentaquark returns whether this is a valid pentaquark id
func (PID) IsQBall ¶
IsQBall checks for QBall or any exotic particle with electric charge beyond the qqq scheme. Ad-hoc numbering for such particles is 100xxxx0, where xxxx is the charge in tenths.
type Particle ¶
type Particle struct {
ID PID // particle ID
Name string // particle name
PDG int // PDG code of the particle
Mass float64 // particle mass in GeV
Charge float64 // electrical charge
ColorCharge float64 // color charge
Spin SpinState // spin state
Quarks []Constituent // constituents
Resonance Resonance // resonance
}
Particle holds informations on a particle as per the PDG booklet
func ParticleByID ¶
ParticleByID returns the particle information via particle ID
func ParticleByName ¶
ParticleByName returns the particle information via particle name
type Resonance ¶
type Resonance struct {
Mass Measurement // mass measurement
Width Measurement // total width measurement
Lower float64 // lower cutoff of allowed width values
Upper float64 // upper cutoff of allowed width values
}
Resonance holds mass and width informations for a Breit-Wigner distribution about a given mass
func (*Resonance) Lifetime ¶
func (r *Resonance) Lifetime() Measurement
Lifetime computes and returns the lifetime from the total width
func (*Resonance) SetTotalWidthFromLifetime ¶
func (r *Resonance) SetTotalWidthFromLifetime(lifetime Measurement)
type SpinState ¶
type SpinState struct {
TotalSpin float64 // total spin
Spin float64
OrbAngMom float64 // orbital angular momentum
}
SpinState contains the total spin, spin and orbital angular momentum
type Table ¶
type Table struct {
// contains filtered or unexported fields
}
Table represents a particle data table.
func (*Table) ParticleByID ¶
ParticleByID returns the particle information via particle ID
func (*Table) ParticleByName ¶
ParticleByName returns the particle information via particle name
Source Files
Click to show internal directories.
Click to hide internal directories.