java.io.Serializable
public class Message
extends java.lang.Object
implements java.io.Serializable
entities
) and the servers (also known as hippodrome regions
).| Modifier and Type | Field | Description |
|---|---|---|
private int |
ability |
This message's pair Horse/Jockey's ability
|
private int |
bet |
This message's bet
|
private BrokerState |
brokerState |
The state of this message's Broker
|
private int |
gains |
This message's gains
|
private int |
horseID |
This message's identification of a pair Horse/Jockey
|
private int |
horseIteration |
This message's pair Horse/Jockey iteration
|
private HorseJockeyState |
horseJockeyState |
The state of this message's pair Horse/Jockey
|
private int |
horsePosition |
This message's pair Horse/Jockey position
|
private int |
horseProbability |
This message's odds for the pair Horse/Jockey
|
private int |
horses |
This message's number of horses
|
private int |
increments |
This message's increments
|
private Race |
race |
This message's race
|
private int |
raceDistance |
This message's distance of the race
|
private int |
raceNumber |
This message's number of the race
|
private int |
results |
This message's results
|
private int |
spectatorAmountOfMoney |
This message's amount of money
|
private int |
spectatorBetSelection |
This message's bet selection
|
private int |
spectatorID |
This message's spectator identification
|
private SpectatorState |
spectatorState |
The state of this message's spectator
|
private MessageType |
type |
The type of this message
|
private boolean |
value |
This message's boolean variable value
|
private int |
winner |
This message's identification of the winner
|
| Constructor | Description |
|---|---|
Message(MessageType type) |
Constructs a message which is only defined by its type (as an object of type
MessageType ). |
Message(MessageType type,
boolean value) |
Constructs a message which is defined by its type (as an object of type
MessageType )
and a boolean value. |
Message(MessageType type,
int value) |
Constructs a message which is defined by its type (as an object of type
MessageType )
and one integer value. |
Message(MessageType type,
int value1,
int value2) |
Constructs a message which is defined by its type (as an object of type
MessageType )
and two integer values. |
Message(MessageType type,
int value1,
int value2,
int value3) |
Constructs a message which is defined by its type (as an object of type
MessageType )
and two integer values. |
Message(MessageType type,
int horseID,
HorseJockeyState state) |
Constructs a message which is defined by its type (as an object of type
MessageType ),
one pair Horse/Jockey identification and one pair Horse/Jockey state value defined as HorseJockeyState . |
Message(MessageType type,
int spectatorID,
SpectatorState state) |
Constructs a message which is defined by its type (as an object of type
MessageType ),
one Spectator identification and one Spectator state value defined as SpectatorState . |
Message(MessageType type,
BrokerState state) |
Constructs a message which is defined by its type (as an object of type
MessageType )
and one Broker state value defined as BrokerState . |
Message(MessageType type,
Race race) |
Constructs a message which is defined by its type (as an object of type
MessageType
and a Race . |
| Modifier and Type | Method | Description |
|---|---|---|
int |
getAbility() |
Gets the ability of a pair Horse/Jockey.
|
int |
getBet() |
Gets the bet of a Spectator.
|
BrokerState |
getBrokerState() |
Gets the state of the Broker.
|
int |
getGains() |
Gets the gains of a Spectator.
|
int |
getHorseID() |
Gets the identification of a pair Horse/Jockey.
|
int |
getHorseIteration() |
Gets the iterations of a pair Horse/Jockey.
|
HorseJockeyState |
getHorseJockeyState() |
Gets the state of the pair Horse/Jockey.
|
int |
getHorsePosition() |
Gets the position of a pair Horse/Jockey.
|
int |
getHorseProbability() |
Gets the odds of a pair Horse/Jockey.
|
int |
getHorses() |
Gets the number of pairs Horse/Jockey.
|
int |
getIncrements() |
Gets the increments of a pair Horse/Jockey.
|
Race |
getRace() |
Gets a race.
|
int |
getRaceDistance() |
Gets the distance of a Race.
|
int |
getRaceNumber() |
Gets the identification of a Race.
|
int |
getResults() |
Gets the gains of a Spectator.
|
int |
getSpectatorAmountOfMoney() |
Gets the amount of money of a Spectator.
|
int |
getSpectatorBetSelection() |
Gets the bet selection of a Spectator.
|
int |
getSpectatorID() |
Gets the identification of a Spectator.
|
SpectatorState |
getSpectatorState() |
Gets the state of the Spectator.
|
MessageType |
getType() |
Gets the type of this Message.
|
boolean |
getValue() |
Gets the value of a boolean variable.
|
int |
getWinner() |
Gets the identification of a Winner.
|
void |
setAbility(int ability) |
Sets a new pair Horse/Jockey ability.
|
void |
setBrokerState(BrokerState brokerState) |
Sets a new Broker state.
|
void |
setHorseID(int horseID) |
Sets a new pair Horse/Jockey identification.
|
void |
setHorseJockeyState(HorseJockeyState horseJockeyState) |
Sets a new pair Horse/Jockey state.
|
void |
setRace(Race race) |
Sets a new Race.
|
void |
setRaceNumber(int raceNumber) |
Sets a new race identification.
|
void |
setSpectatorID(int spectatorID) |
Sets a new Spectator identification.
|
void |
setSpectatorState(SpectatorState spectatorState) |
Sets a new Spectator state.
|
void |
setValue(boolean value) |
Sets a new boolean variable value.
|
private MessageType type
private BrokerState brokerState
private HorseJockeyState horseJockeyState
private SpectatorState spectatorState
private int spectatorID
private int bet
private int gains
private int horses
private int results
private int increments
private int horseID
private int winner
private int ability
private int raceNumber
private int raceDistance
private int spectatorAmountOfMoney
private int spectatorBetSelection
private int horseProbability
private int horseIteration
private int horsePosition
private boolean value
private Race race
public Message(MessageType type)
MessageType
).type
- the type of this message.public Message(MessageType type, boolean value)
MessageType
)
and a boolean value.type
- the type of this message.value
- the boolean
value which must be saved with the message.public Message(MessageType type, int value)
MessageType
)
and one integer value.type
- the type of this message.value
- the integer
value which must be saved with the message.public Message(MessageType type, int value1, int value2)
MessageType
)
and two integer values.type
- the type of this message.value1
- the first integer
value which must be saved with the message.value2
- the second integer
value which must be saved with the message.public Message(MessageType type, int value1, int value2, int value3)
MessageType
)
and two integer values.type
- the type of this message.value1
- the first integer
value which must be saved with the message.value2
- the second integer
value which must be saved with the message.value3
- the third integer
value which must be saved with the message.public Message(MessageType type, BrokerState state)
MessageType
)
and one Broker state value defined as BrokerState
.type
- the type of this message.state
- the BrokerState
state of the Broker to be updated.public Message(MessageType type, int horseID, HorseJockeyState state)
MessageType
),
one pair Horse/Jockey identification and one pair Horse/Jockey state value defined as HorseJockeyState
.type
- the type of this message.horseID
- the identification of the pair Horse/Jockey.state
- the HorseJockeyState
state of the pair Horse/Jockey to be updated.public Message(MessageType type, int spectatorID, SpectatorState state)
MessageType
),
one Spectator identification and one Spectator state value defined as SpectatorState
.type
- the type of this message.spectatorID
- the identification of the Spectator.state
- the SpectatorState
state of the Spectator to be updated.public Message(MessageType type, Race race)
MessageType
and a Race
.type
- the type of this message.race
- the new Race.public MessageType getType()
MessageType
.public BrokerState getBrokerState()
BrokerState
.public HorseJockeyState getHorseJockeyState()
HorseJockeyState
.public SpectatorState getSpectatorState()
SpectatorState
.public int getSpectatorID()
int
.public int getBet()
int
.public int getHorseID()
int
.public int getWinner()
int
.public int getAbility()
int
.public int getRaceNumber()
int
.public int getRaceDistance()
int
.public int getSpectatorAmountOfMoney()
int
.public int getSpectatorBetSelection()
int
.public int getHorseProbability()
int
.public int getHorseIteration()
int
.public int getHorsePosition()
int
.public boolean getValue()
boolean
.public int getGains()
int
.public int getHorses()
int
.public int getResults()
int
.public int getIncrements()
int
.public Race getRace()
Race
.public void setBrokerState(BrokerState brokerState)
brokerState
- the new state.public void setHorseJockeyState(HorseJockeyState horseJockeyState)
horseJockeyState
- the new state.public void setSpectatorState(SpectatorState spectatorState)
spectatorState
- the new state.public void setSpectatorID(int spectatorID)
spectatorID
- the new identification.public void setHorseID(int horseID)
horseID
- the new identification.public void setAbility(int ability)
ability
- the new ability.public void setRaceNumber(int raceNumber)
raceNumber
- the new identification.public void setValue(boolean value)
value
- the new value.public void setRace(Race race)
race
- the new race.


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onix.Sequence¶
-
class
onix.
Sequence
(id_number)[source]¶ The sequence object contains information about the burnup and time sequence that ONIX will follow during simulations.
With the sequence object, the user can:
Set the macrosteps for the simultion (points in time or burnup at which ONIX will call OpenMC to update the neutron flux and one-group reaction rates)
Set the microsteps that divide each macrostep (ONIX depletes the system over each microstep)
Set the normalization for each macrostep (flux or power density)
Set operational change during the simulation such as temperature changes, density changes or isotopic changes
Each BUCell is automatically associated with a unique copy of the ‘master’ sequence defined by the user. Each sequence object contains data on the evolution of all relevant quantities (\(k_{inf}\), isomeric branchings, neutron flux spectrum, power, flux, burnup and time).
-
MC_flux_point
(s)[source]¶ Returns the Monte Carlo neutron flux of the BUCell at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
MC_flux_seq
¶ Returns the Monte Carlo neutron flux macrostep vector (\(cm^{-2}s^{-1}\) per source particle) for the BUCell.
-
bucell_bu_point
(s)[source]¶ Returns the burnup level of the BUCell at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
bucell_bu_seq
¶ Returns the burnup macrostep vector (MWd/kg) for the BUCell.
-
bucell_bu_subpoint
(s, ss)[source]¶ Returns the burnup level of the BUCell at macrostep s and microstep ss.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
bucell_bu_subseq_mat
¶ Returns a list of burnup microstep vectors (MWd/kg) for the BUCell where each microstep vector corresponds to one macrostep.
-
property
current_pow_dens_subseq
¶ Returns the power density microsequence of current macrostep for BUCell
-
property
current_tot_pow
¶ Returns the current total power of the system.
-
property
density_change_dict
¶ Returns the density change dictionnary set by the user.””
-
property
flux_approximation
¶ Returns the method used for approximating the flux between two microsteps
Note: This method should not be used by the user in version 0.1
-
flux_point
(s)[source]¶ Returns the neutron flux of the BUCell at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
flux_seq
¶ Returns the neutron flux macrostep vector (\(cm^{-2}s^{-1}\)) for the BUCell.
-
property
flux_spectrum_seq
¶ Returns a list of 300-group neutron flux arrays, one array per macrostep for the BUCell.
-
flux_subpoint
(s, ss)[source]¶ Returns the neutron flux of the BUCell at macrostep s and microstep ss.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
flux_subseq_mat
¶ Returns a list of neutron flux microstep vectors (\(cm^{-2}s^{-1}\)) for the BUCell where each microstep vector corresponds to one macrostep.
-
get_bucell_bu_intvl
(s)[source]¶ Gets the burnup interval for the BUCell between macrostep s-1 and macrostep s.
- Parameters
s (int) – Macrostep number s.
-
get_bucell_bu_subintvl
(s, ss)[source]¶ Gets the burnup interval for the BUCell between microstep ss-1 and microstep ss for macrostep s.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
get_system_bu_intvl
(s)[source]¶ Gets the average burnup interval for the whole system between macrostep s-1 and macrostep s.
- Parameters
s (int) – Macrostep number s.
-
get_system_bu_subintvl
(s, ss)[source]¶ Gets the average burnup interval for the whole system between microstep ss-1 and microstep ss for macrostep s.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
get_time_intvl
(s)[source]¶ Gets the time interval (seconds) between macrostep s nd macrostep s-1
- Parameters
s (int) – Macrostep number s.
-
get_time_subintvl
(s, ss)[source]¶ Gets the time interval (seconds) between macrostep s and macrostep s-1
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
isomeric_branching_ratio_seq
¶ Returns the isomeric branching ratios macrostep vector for the BUCell.
-
kinf_point
(s)[source]¶ Returns the multiplication factor of the BUCell at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
kinf_seq
¶ Returns the multiplication factor macrostep vector for the BUCell.
-
property
macrostep_unit
¶ Returns the units of the macrosteps.
-
property
macrostep_vector
¶ Returns the macrostep vector.
-
property
macrosteps_number
¶ Returns the number of macrosteps.
-
property
microstep_vector
¶ Returns the microstep vector
-
microsteps_number
(s)[source]¶ Returns the number of microsteps for macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
norma_unit
¶ Returns the normalization unit.
-
property
norma_vector
¶ Returns the normalization vector.
-
pow_dens_point
(s)[source]¶ Returns the power density of the BUCell at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
pow_dens_seq
¶ Returns the power density macrostep vector (\(kW/l\)) for the BUCell.
-
pow_dens_subpoint
(s, ss)[source]¶ Returns the neutron flux of the BUCell at macrostep s and microstep ss.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
pow_dens_subseq_mat
¶ Returns a list of power density microstep vectors (\(kW/l\)) for the BUCell where each microstep vector corresponds to one macrostep.
-
set_density_change
(cell, cell_density_change)[source]¶ Manually changes the total density (in atm per \(cm^{3}\)) of the material of the BUCell for user-specified macrosteps.
Note: This method trumps the other method “onix.Sequence.set_isotopic_change”, i.e., the new isotopic densities set in set_isotopic_change will be renormalized by the new value from set_density_change
- Parameters
cell (onix.Cell) – BUCell in which the density change is to be operated
cell_density_change (dict) – A dictionnary where keys are macrostep numbers (int) and entries are densities in atm per \(cm^{3}\).
-
set_isotopic_change
(cell, cell_isotopic_change, unit='number density')[source]¶ Manually changes the isotopic densities of user-specified nuclides in a BUCell for user-specified macrosteps.
Note: If the method onix.Sequence.set_density_change is also used for the same BUCell, the isotopic change set by the user must be in atom fraction.
- Parameters
cell (onix.Cell) – BUCell in which the isotopic change is to be operated
cell_isotopic_change (dict) – A dictionnary where keys are nuclides’ name and entries are evolution sub-dictionnaries. The sub-dictionnaries contain desired density evolution per macrostep where keys are macrostep numbers (int) and entries are densities (unit specified by the user).
unit (str) – Specifies the unit for isotopic density evolution. ‘number density’ (default) for density in atm per \(cm^{3}\) ‘atom fraction’ for density as atomic fraction
-
set_macrostep
(macrostep_vector, macrostep_unit)[source]¶ Sets the macrosteps and its units.
- Parameters
macrostep_vector (list) – List of integers defining the points in time or burnup for which OpenMC will be run to update neutron flux and one-group reaction rates.
macrostep_unit (str) – ‘MWd/kg’ for burnup units or ‘s’ for seconds, ‘m’ for minutes, ‘d’ for days, and ‘y’ for years.
-
set_master_bucell
()[source]¶ Sets the BUCell against which macrostep normalization is implemented
This feature allows the user to define the sequence steps with the burnup points of the chosen master BUCell
By default, the macrostep normalization is implemented against the whole system and thus the burunup points defined for the sequence are those of the whole system
-
set_norma
(norma_vector, norma_unit)[source]¶ Sets the normalization for each macrostep.
Note 1: In version 0.10, in standalone mode, the flux set by the user is going to be used for all BUCells of the system. In other words, all BUCells will have the same neutron flux.
Note 2: The user should specify the power density as the total power divided by the total volume of the system. The total volume of the system should include all regions of the system, even regions that are not BUCells (for example, it should include the water region around the fuel BUCell).
Note 3: In version 0.10, the couple mode can only accept constant power depletion (i.e. the normalization should be against power). The standalone mode can only accept constant flux depletion (i.e. the normalization should be against flux)
- Parameters
norma_vector (list) – List of float defining the value of the normalization (kW/l for power density, \(cm^{-2}s^{-1}\) for neutron flux).
macrostep_unit (str) – ‘power’ for power density, ‘flux’ for neutron flux
-
set_temperature_change
(cell, cell_temperature_change)[source]¶ Manually changes the temperature (Kelvin) of the material of the BUCell for user-specified macrosteps
- Parameters
cell (onix.Cell) – BUCell in which the temperature change is to be operated
cell_temperature_change (dict) – A dictionnary where keys are macrostep numbers (int) and entries are temperature in Kelvin.
-
system_bu_point
(s)[source]¶ Returns the average burnup level of the whole system at macrostep s.
- Parameters
s (int) – Macrostep number s.
-
property
system_bu_seq
¶ Returns the average burnup macrostep vector (MWd/kg) for the whole system.
-
system_bu_subpoint
(s, ss)[source]¶ Returns the average burnup level of the whole system at macrostep s and microstep ss.
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
system_bu_subseq_mat
¶ Returns a list of average burnup microstep vectors (MWd/kg) for the whole system where each microstep vector corresponds to one macrostep.
-
property
temperature_change_dict
¶ Returns the density change dictionnary set by the user.””
-
time_point
(s)[source]¶ Returns the time (seconds) for macrostep s
- Parameters
s (int) – Macrostep number s.
-
property
time_seq
¶ Returns the macrostep vector in time (seconds).
-
time_subpoint
(s, ss)[source]¶ Returns the time (seconds) for macrostep s and microstep ss
- Parameters
s (int) – Macrostep number s.
ss (int) – Microstep number ss.
-
property
time_subseq_mat
¶ Returns a list of time microstep vectors (seconds) where each microstep vector corresponds to one macrostep.
-
tot_pow_point
(s)[source]¶ Returns the total power value for macrostep s
- Parameters
s (int) – Macrostep number s.
-
property
tot_pow_seq
¶ Returns the sequence of total power of the system.


---
layout: default
title: Our services include live streaming video, social media management, video and photography
description: Our newsroom ensures that your success at Davos or Cannes reaches hundreds of thousands of stakeholders worldwide.
permalink: /services/
headercolour: brightxmidgrey
---
{% include nav.html %}
The newsroom — an integrated hub comprising live streaming video, social media management, high-end video production, journalism and photography — ensures that your success at Davos or Cannes reaches hundreds of thousands of stakeholders worldwide, rather than just those lucky enough to be invited to your event.
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