#ifndef _BACI_IDL_ #define _BACI_IDL_ /******************************************************************************* * ALMA - Atacama Large Millimiter Array * (c) European Southern Observatory, 2002 * Copyright by ESO (in the framework of the ALMA collaboration) * and Cosylab 2002, All rights reserved * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; either * version 2.1 of the License, or (at your option) any later version. * * This library 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 * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library; if not, write to the Free Software * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA * * * "@(#) $Id: baci.idl,v 1.15 2012/11/20 15:12:33 acaproni Exp $" * * who when what * -------- -------- ---------------------------------------------- * gchiozzi 2003-09-10 created */ #include #include #include #include #include #pragma prefix "alma" module ACS { //need a forward declaration for this interface interface CharacteristicComponent; /** Exception raised when a non-existent characteristic of a CharacteristicModel is requested. */ exception NoSuchCharacteristic { /** The name of the requested characteristic */ string characteristic_name; /** The name of the CharacteristicModel which raised the exception */ string component_name; }; /** The main BACI components, such as CharacteristicComponent and Property have * characteristics: * * A characteristic is a data item that is considered static. It is represented by a name/value * pair, where the value parameter is typed. A characteristic is accessed either through a single * accessor method (a CORBA readonly attribute) which returns its value, or * through general BACI functionality that encapsulates names and values into CORBA * Property Service PropertySet interface, or through generic methods declared by * components and properties. Some characteristics can be state-dependent, which means * that their value can change depending on the condition the owner of the characteristic is * in. This does not break the notion of a static item, since every possible value is prescribed * in advance and is, by itself, considered static. The state only determines which of the * values should be used at the moment. It is possible for the user to obtain the set of all * possible values of a state-dependent characteristic through this interface. */ interface CharacteristicModel { /** Generic access to characteristics, even those that are not declared in the IDL * interfaces. * @param name The name of the characteristic to be accessed. * @return The characteristic's value encoded inside a CORBA any. * @throw NoSuchCharacteristic Thrown if the derived interface does not implement the * characteristic. * @roseuid 3AC90A2402FF *
*/ any get_characteristic_by_name (in string name) raises (NoSuchCharacteristic); /** Returns a sequence of characteristic names that match the regular expressions reg_exp. * It returns a sequence of length 0 if no match is found. * @param reg_exp A Windows style regular expression (e.g., "*"). * @return A sequence of strings where each string is the name of a characteristic (to be passed * as the parameter to the get_characteristic_by_name method) which matched the regular expression * passed in as the parameter to this method. * @roseuid 3AC90A240301 *
*/ stringSeq find_characteristic (in string reg_exp); /** Returns all of the derived interfaces characteristics conveniently packaged within * a PropertySet interface. * @return PropertySet Provides support for defining and modifying properties, * getting properties and their names and deleting properties. *
*/ CosPropertyService::PropertySet get_all_characteristics (); }; /** The root interface of a Property. A Property cannot exist on its own - it is * always a readonly attribute of a CharacteristicComponent. It has a name and knows * the name of the containing CharacteristicComponent. It does not keep a reference * to the CharacteristicComponent for security reasons. */ interface Property : CharacteristicModel, OffShoot { /** Property name */ readonly attribute string name; /** The name of the parent CharacteristicComponent */ readonly attribute string characteristic_component_name; }; /** The descriptor for a Property. A descriptor is an IDL structure that contains key * data used by the typical clients and enables the clients to retrieve this data in * a single network call. The same information can be obtained via multiple calls to * attributes and characteristics. */ struct PropertyDesc { /** The IOR to the Property. This is just a reference to a single property */ Property property_ref; /** The fully qualified name of the Property */ string name; /** The PropertySet object that allows access to all of the property's * characteritics */ CosPropertyService::PropertySet characteristics; }; /** A sequence of \ref PropertyDescSeq. See \ref stringSeq for more on sequences. */ typedef sequence PropertyDescSeq; /** The event source interface. Also the superclass for monitors. */ interface Subscription : OffShoot { /** temporarily suspends dissemination of event callbacks. * @roseuid 3AC90A2403DC *
*/ void suspend (); /** resumes dissemination of event callbacks. Is ignored if no previous * suspend occured. * @roseuid 3AC90A2403DD *
*/ void resume (); /** stops dissemination of event callbacks and releases all resources. * @roseuid 3AC90A2403DE *
*/ void destroy (); }; //Monitors//////////////////////////////////////////////////////////////////////////// /** The monitor interface through which the client can control the flow of * monitoring notifications. Monitors are created in Properties via the create_monitor * and create_postponed_monitor methods. This interface is considered to be abstract as * it cannot be used directly. */ interface Monitor : Subscription { /** Returns the absolute time when the first monitor callback will occur for normal * monitors. */ readonly attribute Time start_time; /** Sets the requested delta time between two consecutive monitor callbacks. Note that * the TimInterval timer is the minimal time, as real-time performance can not be guaranteed. * * The TimeInterval is related to the monitor, not to the property, i.e. two clients can request * monitors at different rates. Timer trigger can be disabled by passing the value 0 for timer * parameter. Invalid values (out-of-limits) are treated as valid extremes (a time interval * out-of-limits defined by the server is interpreted as maximum allowed time interval). * @param timer Duration of time between two consecutive monitor triggers. A value of 0 turns * the monitor off. * @roseuid 3AC90A25002F *
*/ void set_timer_trigger (in TimeInterval timer); /** Returns the current TimeInterval between two consecutive monitor callbacks. * @param timer The duration of time between two consecutive monitor callbacks. * @roseuid 3AC90A250031 *
*/ void get_timer_trigger (out TimeInterval timer); }; /** The Monitor for Properties that have value of type double or doubleSeq. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). * @todo There should be a seperate MonitordoubleSeq interface. */ interface Monitordouble : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_trigger (out double delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; interface Monitorfloat : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_trigger (in float delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_trigger (out float delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type Pattern. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . The delta trigger value is ignored and a notification * will be sent on every change of the monitored value. */ interface Monitorpattern : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by any delta value at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta This value is completely ignored and irrelevant. * @param enable A value of true enables on-change monitors and false disables them. * @warning delta parameter is ignored by the implementations. *
*/ void set_value_trigger (in pattern delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @warning delta parameter is ignored by the implementations. *
*/ void get_value_trigger (out pattern delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** * @warning This is currently unused within BACI and should be ignored. * @todo string properties should return monitors of this type. */ interface Monitorstring : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by any delta value at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta This value is completely ignored and irrelevant. * @param enable A value of true enables on-change monitors and false disables them. * @warning delta parameter is ignored by the implementations. *
*/ void set_value_trigger (in string delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @warning delta parameter is ignored by the implementations. *
*/ void get_value_trigger (out string delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type stringSeq. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . The delta trigger value is ignored and a notification * will be sent on every change of the monitored value. */ interface MonitorstringSeq : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by any delta value at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta This value is completely ignored and irrelevant. * @param enable A value of true enables on-change monitors and false disables them. * @warning delta parameter is ignored by the implementations. *
*/ void set_value_trigger (in stringSeq delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @warning delta parameter is ignored by the implementations. *
*/ void get_value_trigger (out stringSeq delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type long or longSeq. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). * @todo There should be a seperate MonitorlongSeq interface. */ interface Monitorlong : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250075 *
*/ void set_value_trigger (in long delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A250078 *
*/ void get_value_trigger (out long delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type uLong or uLongSeq. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). */ interface MonitoruLong : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250075 *
*/ void set_value_trigger (in uLong delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A250078 *
*/ void get_value_trigger (out uLong delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type longLong. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). */ interface MonitorlongLong : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250075 *
*/ void set_value_trigger (in longLong delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A250078 *
*/ void get_value_trigger (out longLong delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type uLongLong. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). */ interface MonitoruLongLong : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250075 *
*/ void set_value_trigger (in uLongLong delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A250078 *
*/ void get_value_trigger (out uLongLong delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; /** The Monitor for Properties that have value of type boolean or booleanSeq. On * creation, the only trigger present will be the timer trigger. Calling the set_value_trigger * method determines the behaviour of the value trigger. The enable parameter determines whether * the value trigger is active or not . Value 0 assigned to delta trigger means that a notification * should be sent on every change of the monitored value. Invalid values (out-of-limits) are treated * as valid extremes (a delta trigger below the min_delta_trigger found in the ACS CDB is treated as * min_delta_trigger). */ interface Monitorboolean : ACS::Monitor { /** * set_value_trigger is a method used to enable or disable on-change monitors. When enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by delta at some point in time inbetween T0 and T1 (where * T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250075 *
*/ void set_value_trigger (in boolean delta, in boolean enable); /** * Returns the current on-change delta value and a boolean value which tells whether on-change * monitors are being utilized. * @param delta Current on-change delta value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A250078 *
*/ void get_value_trigger (out boolean delta, out boolean enable); /** * set_value_percent_trigger is a method used to enable or disable percentual on-change monitors. When * enabled,the monitor * is triggered by one of two conditions: * 1. If an amount of time equivalent to the value returned by the get_timer_trigger method has passed, * the callback will be invoked. * 2. If the value we're interested in changes by a percentage delta at some point in time inbetween * T0 and T1 (where T1-T0==get_timer_trigger()), the callback is invoked. * * @param delta For a description of what this does, see 2. * @param enable A value of true enables on-change monitors and false disables them. * @roseuid 3AC90A250057 *
*/ void set_value_percent_trigger (in double delta, in boolean enable); /** * Returns the current on-change delta percentage value and a boolean value which tells whether * on-change monitors are being utilized. * @param delta Current on-change delta percentage value * @param enable Boolean value which tells whether on-change monitors are being utilized. * @roseuid 3AC90A25005A *
*/ void get_value_percent_trigger (out double delta, out boolean enable); }; //Property interfaces/////////////////////////////////////////////////////////////////////////// /** The base type used by all Properties. This interface defines common characteristics * which are attributable to all types of properties. At this time, there are no restrictions * as to what format the values of these characteristics need to follow. That is, it's entirely * up to the developer to use them as they please. The only other piece of relevant information * here is like other characterstics, these are settable from the ACS configuration database. */ interface TypelessProperty : Property { /** The description of the Property */ readonly attribute string description; /** The format in C-syntax how to display values of the Property */ readonly attribute string format; /** The units of the Property */ readonly attribute string units; /** Bitpattern representing the significant bits of the word carrying the value. * Useful also for returning the resolution of analog-digital convertion */ readonly attribute pattern resolution; /** * Publish the value of the property. * This method is meant to be called when the value of this property must be * archived/monitored in relation to a change or error of another monitor point. */ oneway void publish_now(); }; /** The descriptor for a Component with Characteristics (CharacteristicComponent). * A CharacteristicComponentDesc is an IDL structure that contains key data used by the typical clients * and enables the clients to retrieve this data in a single network call. The same * information can be obtained via multiple calls to attributes and characteristics. */ struct CharacteristicComponentDesc { /** The IOR (CORBA reference) to the CharacteristicComponent */ ACS::CharacteristicComponent characteristic_component_ref; /** The fully qualified name of the CharacteristicComponent */ string name; /** A sequence of all property descriptors that belong to the CharacteristicComponent */ PropertyDescSeq properties; /** The PropertySet object that allows access to all characteritics */ CosPropertyService::PropertySet characteristics; }; /** CharacteristicComponent is the root interface for low-level devices. If you intended * on adding properties to your component, it should derive from this interface and not * ACSComponent. */ interface CharacteristicComponent : ACSComponent, CharacteristicModel { /** The descriptor that contains all characteristics of the CharacteristicComponent * and of all properties of the CharacteristicComponent * @return The CharacteristicComponentDesc describing this particular component. * @roseuid 3AC90A25013D *
*/ CharacteristicComponentDesc descriptor (); }; /** PropertyActionExecutor will be called from CharacteristicComponent if property changes or errors * are configured to trigger the execution of some external action. * The implementation of a generic PropertyActionExecutor component will be done outside of ACS. */ interface PropertyActionExecutor : ACSComponent { /** To avoid dependency issues (module acsalarmidl currently after baciidl), * we define our own alarm struct here. */ struct PropertyAlarm { string FF; string FM; long FC; // (needed?) ACS::Time sourceTimestamp, CosPropertyService::Properties alarmProperties; }; oneway void dispatchPropertyAction( in string propertyName, in string propertyValue, in string propertyType, in PropertyAlarm alarm, in CosPropertyService::Properties extra ); }; //////////////////////////////////////////////////////////////////////////////////////////////////////////// /////// Callbacks (see also acscommon.idl which provides already the less specialized CBxxx classes) /////// //////////////////////////////////////////////////////////////////////////////////////////////////////////// /** * CBpattern objects are used to asynchronously execute an action which takes a large amount of * time to complete and returns pattern value(s). * * When the callback is used for asynchronous notification in response to some action, the * done method will be invoked when the action terminates, either with error condition or * success (discovered by examining the Completion parameter). When the client processes the done * invocation, it may discard the callback. The completion condition and the timestamp are reported * through the Completion structure as a part of the callback notification. If the action is time * consuming, i.e. it cannot be completed before the normal_timeout parameter found in the CBDescIn * structure, the server must issue a working notification periodically (the server works under * presupposition that each invocation resets the client's timeout timer to the * normal_timeout period). The client must not discard the callback before done notification is * called or one of the notifications timeouts on the client side. * * See the BACI specifications for a detailed discussion on timeouts. */ interface CBpattern : Callback { /** * The working method can be invoked by the servant any number of times provided it sets * the appropriate timeout fields in the CBDescOut structure to inform the client. This is a * oneway method so the developer need not be worried about how long it takes their implementation * of the method to complete. * @param value Most recent value. * @param c A completion structure containing a description of how the operation completed (success * or failure) and a timestamp. * @param desc A structure used to inform the client how long it will take the callback to finish * (i.e., invoke done) or invoke this method again. * @roseuid 3AC90A260044 *
*/ oneway void working (in pattern value, in ACSErr::Completion c, in CBDescOut desc); /** * The done method is invoked only one time by the servant and signifies the end of future method * invocations on this particular callback instance. Once this method has been invoked, the instance * can be discarded. * @param value Most recent value. * @param c A completion structure containing a description of how the operation completed (success * or failure) and a timestamp. * @param desc A structure used to inform the client how long it will take the callback to finish * (i.e., invoke done) or invoke this method again. * @roseuid 3AC90A260051 *
*/ oneway void done (in pattern value, in ACSErr::Completion c, in CBDescOut desc); }; //Alarms////////////////////////////////////////////////////////////////////////////////////////// /** Alarms are a concrete implementation of BACI events (see BACI Specifications, * section 3.4). BACI realises events as the generalised callbacks, i.e. the conceptual * act of delivering an event is implemented as the execution of a method on client's * callback by the server. Alarms are defined as event sets, to which the client can * subscribe as a listener. There is no way to subscribe to a subset of events declared * by an event set. For each value type there is an Alarm event set. They all follow the same design pattern: * * Each alarm event set contains two events, alarm_raised and alarm_cleared. Each event is a * callback method call that returns the value that is responsible for the event, a completion * structure that contains the reasons for the alarm and a CBDescOut structure, which is * returned with all callbacks. */ interface Alarmpattern : Callback { /** * @roseuid 3AC90A260117 */ oneway void alarm_raised (in pattern value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A260124 */ oneway void alarm_cleared (in pattern value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for double values. See \ref Alarmpattern. */ interface Alarmdouble : Callback { /** @roseuid 3AC90A26013F */ oneway void alarm_raised (in double value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26014C */ oneway void alarm_cleared (in double value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for float values. See \ref Alarmpattern. */ interface Alarmfloat : Callback { /** @roseuid 3AC90A26013F */ oneway void alarm_raised (in float value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26014C */ oneway void alarm_cleared (in float value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for long values. See \ref Alarmpattern. */ interface Alarmlong : Callback { /** @roseuid 3AC90A260167 */ oneway void alarm_raised (in long value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26016B */ oneway void alarm_cleared (in long value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for uLong values. See \ref Alarmpattern. */ interface AlarmuLong : Callback { /** @roseuid 3AC90A260167 */ oneway void alarm_raised (in uLong value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26016B */ oneway void alarm_cleared (in uLong value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for double values. See \ref Alarmpattern. */ interface Alarmstring : Callback { /** @roseuid 3AC90A260185 */ oneway void alarm_raised (in string value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A260190 */ oneway void alarm_cleared (in string value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for boolean values. See \ref Alarmpattern. */ interface Alarmboolean : Callback { /** @roseuid 3AC90A260167 */ oneway void alarm_raised (in boolean value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26016B */ oneway void alarm_cleared (in boolean value, in ACSErr::Completion c, in CBDescOut desc); }; /** Alarms for sequence strubg values. See \ref Alarmpattern. */ interface AlarmstringSeq : Callback { /** @roseuid 3AC90A260185 */ oneway void alarm_raised (in stringSeq value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A260190 */ oneway void alarm_cleared (in stringSeq value, in ACSErr::Completion c, in CBDescOut desc); }; /** Following are the interfaces for all the properties in alphabetic order * of they base type (i.e. double, long, pattern and string). They all follow * the same patterns, described in the documents "BACI specifications" and "Application * of BACI for ACS 1.0". The patterns are: P, the base class of a Property, which * subclasses RO, a read-only version and RW, a read-write version of the * Property class. Additional patterns are for Properties that return sequences of values, * i.e PSeq, ROSeq and RWSeq. Here, only the double type occurence of a * pattern is documented in detail, others are equivalent, unless the difference is explicitely commented. * * Note that all Property patterns are typesafe, i.e. they return the explicit type of * the property value and its characteristics - no casting or use of type any is required. * Even the callbacks and in some cases the Monitors are of the correct type. * * The interfaces have been all obtained by a generator, that expands meta-IDL template definitions. * The comments that start with the symbol @ denote the templates used by the generator * The generator is not yet available for ACS1.0. */ interface Pdouble : TypelessProperty { /** default time interval between two consecutive monitor callbacks */ readonly attribute TimeInterval default_timer_trigger; /** the minimum allowed threshold for value change in value triggers */ readonly attribute TimeInterval min_timer_trigger; /** default value, error-free value, etc. */ readonly attribute double min_delta_trigger; /** default value, error-free value, etc. */ readonly attribute double default_value; /** the recommended minimum for charts and gauges that display the value */ readonly attribute double graph_min; /** the recommended maximum for charts and gauges that display the value */ readonly attribute double graph_max; /** smallest incremental step over whole range */ readonly attribute double min_step; /** Synchronous call that returns the value of the property in the correct type, no * casting is required. * @roseuid 3AC90A26022F */ double get_sync (out ACSErr::Completion c //The Completion structure of the request is returned as out parameter ); /** Request one value through callback. The callback cb and its desciptor desc * have to be created by the client. The callback is of type CBdouble, because * it explicitely carries a value of type double. * @roseuid 3AC90A26024D */ void get_async (in CBdouble cb, in CBDescIn desc); /** Read n_last_lalues or all values (whichever is less) from the server�s local archive. * If n_last_values is 0, then read complete local archive. Method returns number of * actually transmitted values. * @roseuid 3AC90A260262 */ long get_history (in long n_last_values, //The number of last monitored values to return out doubleSeq vs, //a sequence returning the requested values in ascending temporal order out TimeSeq ts //a sequence returning the timestamps corresponding to the returned values ); /** Start continuous monitoring (with default time interval). As in all * asynchronous requests, a callback object cb and its descriptor desc * have to be provided. See \ref Callback for more details. * @roseuid 3AC90A260281 */ Monitordouble create_monitor (in CBdouble cb, in CBDescIn desc); /** Register a monitor whose beginning will be postponed until the specified start_time, * which is given in absolute time. See create_monitor for more details on monitors. * @roseuid 3AC90A2602B2 */ Monitordouble create_postponed_monitor (in Time start_time, in CBdouble cb, in CBDescIn desc); /** smallest incremental step over whole range */ }; /** See \ref Pdouble. */ interface Pfloat : TypelessProperty { /** default time interval between two consecutive monitor callbacks */ readonly attribute TimeInterval default_timer_trigger; /** the minimum allowed threshold for value change in value triggers */ readonly attribute TimeInterval min_timer_trigger; /** default value, error-free value, etc. */ readonly attribute float min_delta_trigger; /** default value, error-free value, etc. */ readonly attribute float default_value; /** the recommended minimum for charts and gauges that display the value */ readonly attribute float graph_min; /** the recommended maximum for charts and gauges that display the value */ readonly attribute float graph_max; /** smallest incremental step over whole range */ readonly attribute float min_step; /** Synchronous call that returns the value of the property in the correct type, no * casting is required. * @roseuid 3AC90A26022F */ float get_sync (out ACSErr::Completion c //The Completion structure of the request is returned as out parameter ); /** Request one value through callback. The callback cb and its desciptor desc * have to be created by the client. The callback is of type CBfloat, because * it explicitely carries a value of type float. * @roseuid 3AC90A26024D */ void get_async (in CBfloat cb, in CBDescIn desc); /** Read n_last_lalues or all values (whichever is less) from the server�s local archive. * If n_last_values is 0, then read complete local archive. Method returns number of * actually transmitted values. * @roseuid 3AC90A260262 */ long get_history (in long n_last_values, //The number of last monitored values to return out floatSeq vs, //a sequence returning the requested values in ascending temporal order out TimeSeq ts //a sequence returning the timestamps corresponding to the returned values ); /** Start continuous monitoring (with default time interval). As in all * asynchronous requests, a callback object cb and its descriptor desc * have to be provided. See \ref Callback for more details. * @roseuid 3AC90A260281 */ Monitorfloat create_monitor (in CBfloat cb, in CBDescIn desc); /** Register a monitor whose beginning will be postponed until the specified start_time, * which is given in absolute time. See create_monitor for more details on monitors. * @roseuid 3AC90A2602B2 */ Monitorfloat create_postponed_monitor (in Time start_time, in CBfloat cb, in CBDescIn desc); /** smallest incremental step over whole range */ }; /** See \ref Pdouble. */ interface Plong : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute long min_delta_trigger; readonly attribute long default_value; readonly attribute long graph_min; readonly attribute long graph_max; readonly attribute long min_step; /** @roseuid 3AC90A26035B */ long get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A260366 */ void get_async (in CBlong cb, in CBDescIn desc); /** @roseuid 3AC90A26036F */ long get_history (in long n_last_values, out longSeq vs, out TimeSeq ts); /** @roseuid 3AC90A26037A */ Monitorlong create_monitor (in CBlong cb, in CBDescIn desc); /** @roseuid 3AC90A260383 */ Monitorlong create_postponed_monitor (in Time start_time, in CBlong cb, in CBDescIn desc); /** @static */ }; /** See \ref Pdouble */ interface PuLong : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute uLong min_delta_trigger; readonly attribute uLong default_value; readonly attribute uLong graph_min; readonly attribute uLong graph_max; readonly attribute uLong min_step; /** @roseuid 3AC90A26035B */ uLong get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A260366 */ void get_async (in CBuLong cb, in CBDescIn desc); /** @roseuid 3AC90A26036F */ long get_history (in long n_last_values, out uLongSeq vs, out TimeSeq ts); /** @roseuid 3AC90A26037A */ MonitoruLong create_monitor (in CBuLong cb, in CBDescIn desc); /** @roseuid 3AC90A260383 */ MonitoruLong create_postponed_monitor (in Time start_time, in CBuLong cb, in CBDescIn desc); /** @static */ }; /** The pattern Property has no monitor with value trigger, as a difference of * values makes no sense. However, it has three other attributes that provide sequences * that describe the meaning of each bit in the pattern: bitDescription, whenSet and * whenCleared. The latter two keep one value of type condition per bit, which is an enum * that describes the meaning of a bit in the status being set (to one) or cleared (to * zero). The values correspond to usual colors of status LEDs. * * The rest of the interface is equivalent to the Pdouble property. */ interface Ppattern : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute pattern default_value; /** one description for each bit */ readonly attribute stringSeq bitDescription; /** for each bit, defines the colour of LED when bit is set */ readonly attribute ConditionSeq whenSet; /** for each bit, defines the colour of LED when bit is cleared */ readonly attribute ConditionSeq whenCleared; /** @roseuid 3AC90A270082 */ pattern get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270084 */ void get_async (in CBpattern cb, in CBDescIn desc); /** @roseuid 3AC90A270096 */ long get_history (in long n_last_values, out patternSeq vs, out TimeSeq ts); /** @roseuid 3AC90A2700A1 */ Monitorpattern create_monitor ( in CBpattern cb, in CBDescIn desc); /** @roseuid 3AC90A2700AB */ Monitorpattern create_postponed_monitor (in Time start_time, in CBpattern cb, in CBDescIn desc); /** for each bit, defines the colour of LED when bit is cleared */ }; /** The string Property has no monitor with value trigger, as a * difference of values makes no sense. * * The rest of the interface is equivalent to the Pdouble property. */ interface Pstring : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute string default_value; /** @roseuid 3AC90A270140 */ string get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270142 */ void get_async (in CBstring cb, in CBDescIn desc); /** @roseuid 3AC90A27014B */ long get_history (in long n_last_values, out stringSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270156 */ Monitor create_monitor (in CBstring cb, in CBDescIn desc); /** @roseuid 3AC90A27015F */ Monitor create_postponed_monitor (in Time start_time, in CBstring cb, in CBDescIn desc); /** @static */ }; /** The boolean Property has no monitor with value trigger, as a * difference of values makes no sense. * * The rest of the interface is equivalent to the Pdouble property. */ interface Pboolean : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute boolean default_value; /** @roseuid 3AC90A270140 */ boolean get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270142 */ void get_async (in CBboolean cb, in CBDescIn desc); /** @roseuid 3AC90A27014B */ long get_history (in long n_last_values, out booleanSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270156 */ Monitor create_monitor (in CBboolean cb, in CBDescIn desc); /** @roseuid 3AC90A27015F */ Monitor create_postponed_monitor (in Time start_time, in CBboolean cb, in CBDescIn desc); /** @static */ }; /** The PstringSeq Property manages sequences of string values. */ interface PstringSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute stringSeq default_value; /** @roseuid 3AC90A270140 */ stringSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270142 */ void get_async (in CBstringSeq cb, in CBDescIn desc); /** @roseuid 3AC90A27014B */ long get_history (in long n_last_values, out stringSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270156 */ MonitorstringSeq create_monitor (in CBstringSeq cb, in CBDescIn desc); /** @roseuid 3AC90A27015F */ MonitorstringSeq create_postponed_monitor (in Time start_time, in CBstringSeq cb, in CBDescIn desc); /** @static */ }; /** The PbooleanSeq Property manages sequences of string values. */ interface PbooleanSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute boolean default_value; /** @roseuid 3AC90A270140 */ booleanSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270142 */ void get_async (in CBbooleanSeq cb, in CBDescIn desc); /** @roseuid 3AC90A27014B */ long get_history (in long n_last_values, out booleanSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270156 */ Monitorboolean create_monitor (in CBbooleanSeq cb, in CBDescIn desc); /** @roseuid 3AC90A27015F */ Monitorboolean create_postponed_monitor (in Time start_time, in CBbooleanSeq cb, in CBDescIn desc); /** @static */ }; /** The PdoubleSeq Property manages sequences of double values. All methods and * callbacks that return those sequences have modified signatures with respect to * the Pdouble Property. The characteristics, however, remain simple doubles, as they * apply to all elements in the sequence. Also the monitor is a simple Monitordouble. * The pattern of the interface is equivalent to the Pdouble property. */ interface PdoubleSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute double min_delta_trigger; readonly attribute double default_value; readonly attribute double graph_min; readonly attribute double graph_max; readonly attribute double min_step; /** @roseuid 3AC90A2701EA */ doubleSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A2701EC */ void get_async (in CBdoubleSeq cb, in CBDescIn desc); /** @roseuid 3AC90A2701F6 */ long get_history (in long n_last_values, out doubleSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270200 */ Monitordouble create_monitor (in CBdoubleSeq cb, in CBDescIn desc); /** @roseuid 3AC90A270209 */ Monitordouble create_postponed_monitor (in Time start_time, in CBdoubleSeq cb, in CBDescIn desc); /** @static */ }; /** The PfloatSeq Property manages sequences of float values. All methods and * callbacks that return those sequences have modified signatures with respect to * the Pfloat Property. The characteristics, however, remain simple floats, as they * apply to all elements in the sequence. Also the monitor is a simple Monitorfloat. * The pattern of the interface is equivalent to the Pfloat property. */ interface PfloatSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute float min_delta_trigger; readonly attribute float default_value; readonly attribute float graph_min; readonly attribute float graph_max; readonly attribute float min_step; /** @roseuid 3AC90A2701EA */ floatSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A2701EC */ void get_async (in CBfloatSeq cb, in CBDescIn desc); /** @roseuid 3AC90A2701F6 */ long get_history (in long n_last_values, out floatSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A270200 */ Monitorfloat create_monitor (in CBfloatSeq cb, in CBDescIn desc); /** @roseuid 3AC90A270209 */ Monitorfloat create_postponed_monitor (in Time start_time, in CBfloatSeq cb, in CBDescIn desc); /** @static */ }; /** The PlongSeq Property is completely equivalent to the PdoubleSeq property. */ interface PlongSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute long min_delta_trigger; readonly attribute long default_value; readonly attribute long graph_min; readonly attribute long graph_max; readonly attribute long min_step; /** @roseuid 3AC90A27028A */ longSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270294 */ void get_async (in CBlongSeq cb, in CBDescIn desc); /** @roseuid 3AC90A270297 */ long get_history (in long n_last_values, out longSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A2702A9 */ Monitorlong create_monitor (in CBlongSeq cb, in CBDescIn desc); /** @roseuid 3AC90A2702AC */ Monitorlong create_postponed_monitor (in Time start_time, in CBlongSeq cb, in CBDescIn desc); /** @static */ }; /** The PuLongSeq Property is completely equivalent to the PdoubleSeq property. */ interface PuLongSeq : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute uLong min_delta_trigger; readonly attribute uLong default_value; readonly attribute uLong graph_min; readonly attribute uLong graph_max; readonly attribute uLong min_step; /** @roseuid 3AC90A27028A */ uLongSeq get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A270294 */ void get_async (in CBuLongSeq cb, in CBDescIn desc); /** @roseuid 3AC90A270297 */ long get_history (in long n_last_values, out uLongSeqSeq vs, out TimeSeq ts); /** @roseuid 3AC90A2702A9 */ MonitoruLong create_monitor (in CBuLongSeq cb, in CBDescIn desc); /** @roseuid 3AC90A2702AC */ MonitoruLong create_postponed_monitor (in Time start_time, in CBuLongSeq cb, in CBDescIn desc); /** @static */ }; /** Here follow the property definitions that are actually used by the control * system: RO for read-only and RW for read-write. The patterns are described in the * specification documents, "BACI specifications" and "Application of BACI for ACS 1.0". * They will be briefly described for the Properties of type double. * * The following types are missing, because they were not requested for ACS1.0: RWpattern, patternSeq, PstringSeq. */ interface ROdouble : Pdouble { /** below this value alarm is set */ readonly attribute double alarm_low_on; /** below this value alarm is set */ readonly attribute double alarm_low_off; /** above this value alarm is set */ readonly attribute double alarm_high_on; /** below this value alarm is cleared */ readonly attribute double alarm_high_off; /** Request a subscription to the alarnm event set for this property. Only properties * of type RO have alarms, as RW properties should not even be able to set values in * the alarm ranges. The method returns a Subscription object, which has to be used * to destroy the subscription to the alarm events. Alarms are passed asychronously as * usual through callbacks, which correspond to the type of the property value. As always, * a callback descriptor has to be given in the parameter list. * @roseuid 3AC90A2702F9 */ Subscription new_subscription_Alarm (in Alarmdouble cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** Here follow the property definitions that are actually used by the control system: RO * for read-only and RW for read-write. The patterns are described in the specification documents, * "BACI specifications" and "Application of BACI for ACS 1.0". They will be briefly described for * the Properties of type double. * * The following types are missing, because they were not requested for ACS1.0: RWpattern, patternSeq, PstringSeq. */ interface RWdouble : Pdouble { readonly attribute double min_value; readonly attribute double max_value; /** Synchronous setting of the property value - the returned Completion structure * informs of the success/failure of the operation. * @roseuid 3AC90A270321 */ ACSErr::Completion set_sync (in double value); /** Aynchronous setting of the property value - it is equivalent to the synchronous * case, only that the Completion structure informing of the success/failure is returned via * the callback object cb. As it does not carry a value, the callback is of type CBvoid. As usual, * a callback descriptor is at the end of the signature. * @roseuid 3AC90A270323 */ void set_async (in double value, in CBvoid cb, in CBDescIn desc); /** Method for fast consecutive sets that minimizes communication overhead. No assurance * exists that the command has actually arrived to the server. Therefore also no completion * code is returned. * @roseuid 3AC90A27032E */ void set_nonblocking (in double value); /** @roseuid 3AC90A270336 */ void increment (in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A27033F */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** See \ref ROdouble. */ interface ROfloat : Pfloat { /** below this value alarm is set */ readonly attribute float alarm_low_on; /** below this value alarm is set */ readonly attribute float alarm_low_off; /** above this value alarm is set */ readonly attribute float alarm_high_on; /** below this value alarm is cleared */ readonly attribute float alarm_high_off; /** Request a subscription to the alarnm event set for this property. Only properties * of type RO have alarms, as RW properties should not even be able to set values in * the alarm ranges. The method returns a Subscription object, which has to be used * to destroy the subscription to the alarm events. Alarms are passed asychronously as * usual through callbacks, which correspond to the type of the property value. As always, * a callback descriptor has to be given in the parameter list. * @roseuid 3AC90A2702F9 */ Subscription new_subscription_Alarm (in Alarmfloat cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** Here follow the property definitions that are actually used by the control system: RO * for read-only and RW for read-write. The patterns are described in the specification documents, * "BACI specifications" and "Application of BACI for ACS 1.0". They will be briefly described for * the Properties of type float. * * The following types are missing, because they were not requested for ACS1.0: RWpattern, patternSeq, PstringSeq. */ interface RWfloat : Pfloat { readonly attribute float min_value; readonly attribute float max_value; /** Synchronous setting of the property value - the returned Completion structure * informs of the success/failure of the operation. * @roseuid 3AC90A270321 */ ACSErr::Completion set_sync (in float value); /** Aynchronous setting of the property value - it is equivalent to the synchronous * case, only that the Completion structure informing of the success/failure is returned via * the callback object cb. As it does not carry a value, the callback is of type CBvoid. As usual, * a callback descriptor is at the end of the signature. * @roseuid 3AC90A270323 */ void set_async (in float value, in CBvoid cb, in CBDescIn desc); /** Method for fast consecutive sets that minimizes communication overhead. No assurance * exists that the command has actually arrived to the server. Therefore also no completion * code is returned. * @roseuid 3AC90A27032E */ void set_nonblocking (in float value); /** @roseuid 3AC90A270336 */ void increment (in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A27033F */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** See \ref ROdouble. */ interface ROpattern : Ppattern { /** bit mask for alarm */ readonly attribute pattern alarm_mask; /** condition when an alarm is triggered: if bit is 1 or 0 */ readonly attribute pattern alarm_trigger; /** @roseuid 3AC90A28005B */ Subscription new_subscription_Alarm (in Alarmpattern cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @eventable */ }; /** See \ref RWdouble. */ interface RWpattern : Ppattern { /** @roseuid 3AC90A28006F */ ACSErr::Completion set_sync (in pattern value); /** @roseuid 3AC90A28007A */ void set_async (in pattern value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28007E */ void set_nonblocking (in pattern value); /** @nonblocking */ }; /** See \ref RWdouble. */ interface RWstring : Pstring { /** @roseuid 3AC90A28006F */ ACSErr::Completion set_sync (in string value); /** @roseuid 3AC90A28007A */ void set_async (in string value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28007E */ void set_nonblocking (in string value); /** @nonblocking */ }; /** See \ref ROdouble. */ interface ROstring : Pstring { /** @roseuid 3AC90A280097 */ Subscription new_subscription_Alarm (in Alarmstring cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** See \ref ROdouble. */ interface ROstringSeq : PstringSeq { /** @roseuid 3AC90A280097 */ Subscription new_subscription_Alarm (in AlarmstringSeq cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** See \ref RWdouble. */ interface RWboolean : Pboolean { /** @step */ readonly attribute boolean min_value; /** @static */ readonly attribute boolean max_value; /** @roseuid 3AC90A28006F */ ACSErr::Completion set_sync (in boolean value); /** @roseuid 3AC90A28007A */ void set_async (in boolean value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28007E */ void set_nonblocking (in boolean value); /** @nonblocking */ }; /** See \ref ROdouble. */ interface ROboolean : Pboolean { /** @roseuid 3AC90A280097 */ Subscription new_subscription_Alarm (in Alarmboolean cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** See \ref ROdouble. */ interface RObooleanSeq : PbooleanSeq { /** @roseuid 3AC90A280097 */ Subscription new_subscription_Alarm (in Alarmboolean cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); }; /** A sequence of RWboolean. */ interface RWbooleanSeq : PbooleanSeq { /** @step */ readonly attribute boolean min_value; /** @static */ readonly attribute boolean max_value; /** @Property @roseuid 3AC90A2800D3 */ ACSErr::Completion set_sync (in booleanSeq value); /** @mutators @sync @roseuid 3AC90A2800D5 */ void set_async (in booleanSeq value, in CBvoid cb, in CBDescIn desc); /** @mutators @async @roseuid 3AC90A2800DF */ void set_nonblocking (in booleanSeq value); /** @nonblocking @roseuid 3AC90A2800E1 */ void increment (in CBvoid cb, in CBDescIn desc); /** @step @roseuid 3AC90A2800E8 */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** A sequence of ROdouble. */ interface ROdoubleSeq : PdoubleSeq { readonly attribute double alarm_low_on; readonly attribute double alarm_low_off; readonly attribute double alarm_high_on; readonly attribute double alarm_high_off; /** @roseuid 3AC90A2800B5 */ Subscription new_subscription_Alarm (in Alarmdouble cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** A sequence of RWdouble. */ interface RWdoubleSeq : PdoubleSeq { /** @step */ readonly attribute double min_value; /** @static */ readonly attribute double max_value; /** @Property @roseuid 3AC90A2800D3 */ ACSErr::Completion set_sync (in doubleSeq value); /** @mutators @sync @roseuid 3AC90A2800D5 */ void set_async (in doubleSeq value, in CBvoid cb, in CBDescIn desc); /** @mutators @async @roseuid 3AC90A2800DF */ void set_nonblocking (in doubleSeq value); /** @nonblocking @roseuid 3AC90A2800E1 */ void increment (in CBvoid cb, in CBDescIn desc); /** @step @roseuid 3AC90A2800E8 */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** A sequence of ROfloat. */ interface ROfloatSeq : PfloatSeq { readonly attribute float alarm_low_on; readonly attribute float alarm_low_off; readonly attribute float alarm_high_on; readonly attribute float alarm_high_off; /** @roseuid 3AC90A2800B5 */ Subscription new_subscription_Alarm (in Alarmfloat cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** A sequence of RWfloat. */ interface RWfloatSeq : PfloatSeq { /** @step */ readonly attribute float min_value; /** @static */ readonly attribute float max_value; /** @Property @roseuid 3AC90A2800D3 */ ACSErr::Completion set_sync (in floatSeq value); /** @mutators @sync @roseuid 3AC90A2800D5 */ void set_async (in floatSeq value, in CBvoid cb, in CBDescIn desc); /** @mutators @async @roseuid 3AC90A2800DF */ void set_nonblocking (in floatSeq value); /** @nonblocking @roseuid 3AC90A2800E1 */ void increment (in CBvoid cb, in CBDescIn desc); /** @step @roseuid 3AC90A2800E8 */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** A sequence of ROlong. */ interface ROlongSeq : PlongSeq { /** @eventable */ readonly attribute long alarm_low_on; /** @static */ readonly attribute long alarm_low_off; /** @static */ readonly attribute long alarm_high_on; /** @static */ readonly attribute long alarm_high_off; /** @Property @roseuid 3AC90A280105 */ Subscription new_subscription_Alarm (in Alarmlong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** A sequence of RWlong. */ interface RWlongSeq : PlongSeq { /** @step */ readonly attribute long min_value; /** @static */ readonly attribute long max_value; /** @Property @roseuid 3AC90A280123 */ ACSErr::Completion set_sync (in longSeq value); /** @mutators @sync @roseuid 3AC90A280125 */ void set_async (in longSeq value, in CBvoid cb, in CBDescIn desc); /** @mutators @async @roseuid 3AC90A28012F */ void set_nonblocking (in longSeq value); /** @nonblocking @roseuid 3AC90A280131 */ void increment (in CBvoid cb, in CBDescIn desc); /** @step @roseuid 3AC90A280138 */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** A sequence of ROuLong. */ interface ROuLongSeq : PuLongSeq { /** @eventable */ readonly attribute uLong alarm_low_on; /** @static */ readonly attribute uLong alarm_low_off; /** @static */ readonly attribute uLong alarm_high_on; /** @static */ readonly attribute uLong alarm_high_off; /** @Property @roseuid 3AC90A280105 */ Subscription new_subscription_Alarm (in AlarmuLong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** A sequence of RWuLong. */ interface RWuLongSeq : PuLongSeq { /** @step */ readonly attribute uLong min_value; /** @static */ readonly attribute uLong max_value; /** @Property @roseuid 3AC90A280123 */ ACSErr::Completion set_sync (in uLongSeq value); /** @mutators @sync @roseuid 3AC90A280125 */ void set_async (in uLongSeq value, in CBvoid cb, in CBDescIn desc); /** @mutators @async @roseuid 3AC90A28012F */ void set_nonblocking (in uLongSeq value); /** @nonblocking @roseuid 3AC90A280131 */ void increment (in CBvoid cb, in CBDescIn desc); /** @step @roseuid 3AC90A280138 */ void decrement (in CBvoid cb, in CBDescIn desc); /** @static */ }; /** See \ref ROdouble. */ interface ROlong : Plong { readonly attribute long alarm_low_on; readonly attribute long alarm_low_off; readonly attribute long alarm_high_on; readonly attribute long alarm_high_off; /** @roseuid 3AC90A28000C */ Subscription new_subscription_Alarm (in Alarmlong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** See \ref RWdouble. */ interface RWlong : Plong { /** @roseuid 3AC90A280034 */ ACSErr::Completion set_sync (in long value); /** @roseuid 3AC90A280036 */ void set_async (in long value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28003E */ void set_nonblocking (in long value); /** Increment the raw value by one bit. This method can be used * for fine-tuning actuators controlled by the property. * @roseuid 3AC90A280040 */ void increment (in CBvoid cb, in CBDescIn desc); /** Increment the raw value by one bit. This method can be used * for fine-tuning actuators controlled by the property. * @roseuid 3AC90A280047 */ void decrement (in CBvoid cb, in CBDescIn desc); /** maximal allowed value for set */ readonly attribute long max_value; readonly attribute long min_value; }; /** See \ref ROdouble. */ interface ROuLong : PuLong { readonly attribute uLong alarm_low_on; readonly attribute uLong alarm_low_off; readonly attribute uLong alarm_high_on; readonly attribute uLong alarm_high_off; /** @roseuid 3AC90A28000C */ Subscription new_subscription_Alarm (in AlarmuLong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; /** See \ref RWdouble. */ interface RWuLong : PuLong { /** @roseuid 3AC90A280034 */ ACSErr::Completion set_sync (in uLong value); /** @roseuid 3AC90A280036 */ void set_async (in uLong value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28003E */ void set_nonblocking (in uLong value); /** Increment the raw value by one bit. This method can be used for * fine-tuning actuators controlled by the property. * @roseuid 3AC90A280040 */ void increment (in CBvoid cb, in CBDescIn desc); /** Increment the raw value by one bit. This method can be used * for fine-tuning actuators controlled by the property. * @roseuid 3AC90A280047 */ void decrement (in CBvoid cb, in CBDescIn desc); /** maximal allowed value for set */ readonly attribute uLong max_value; readonly attribute uLong min_value; }; /*********************** LONG LONG */ interface PlongLong : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute longLong min_delta_trigger; readonly attribute longLong default_value; readonly attribute longLong graph_min; readonly attribute longLong graph_max; readonly attribute longLong min_step; /** @roseuid 3AC90A26035B */ longLong get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A260366 */ void get_async (in CBlongLong cb, in CBDescIn desc); /** @roseuid 3AC90A26036F */ long get_history (in long n_last_values, out longLongSeq vs, out TimeSeq ts); /** @roseuid 3AC90A26037A */ MonitorlongLong create_monitor (in CBlongLong cb, in CBDescIn desc); /** @roseuid 3AC90A260383 */ MonitorlongLong create_postponed_monitor (in Time start_time, in CBlongLong cb, in CBDescIn desc); /** @static */ }; interface AlarmlongLong : Callback { /** @roseuid 3AC90A260167 */ oneway void alarm_raised (in longLong value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26016B */ oneway void alarm_cleared (in longLong value, in ACSErr::Completion c, in CBDescOut desc); }; interface ROlongLong : PlongLong { readonly attribute longLong alarm_low_on; readonly attribute longLong alarm_low_off; readonly attribute longLong alarm_high_on; readonly attribute longLong alarm_high_off; /** @roseuid 3AC90A28000C */ Subscription new_subscription_Alarm (in AlarmlongLong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; interface RWlongLong : PlongLong { /** @roseuid 3AC90A280034 */ ACSErr::Completion set_sync (in longLong value); /** @roseuid 3AC90A280036 */ void set_async (in longLong value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28003E */ void set_nonblocking (in longLong value); /** Increment the raw value by one bit. This method can be used for fine-tuning * actuators controlled by the property. * @roseuid 3AC90A280040 */ void increment (in CBvoid cb, in CBDescIn desc); /** Increment the raw value by one bit. This method can be used for fine-tuning actuators controlled by the property. @roseuid 3AC90A280047 */ void decrement (in CBvoid cb, in CBDescIn desc); /** maximal allowed value for set */ readonly attribute longLong max_value; readonly attribute longLong min_value; }; /****** unsigned long long ***/ interface PuLongLong : TypelessProperty { readonly attribute TimeInterval default_timer_trigger; readonly attribute TimeInterval min_timer_trigger; readonly attribute uLongLong min_delta_trigger; readonly attribute uLongLong default_value; readonly attribute uLongLong graph_min; readonly attribute uLongLong graph_max; readonly attribute uLongLong min_step; /** @roseuid 3AC90A26035B */ uLongLong get_sync (out ACSErr::Completion c); /** @roseuid 3AC90A260366 */ void get_async (in CBuLongLong cb, in CBDescIn desc); /** @roseuid 3AC90A26036F */ long get_history (in long n_last_values, out uLongLongSeq vs, out TimeSeq ts); /** @roseuid 3AC90A26037A */ MonitoruLongLong create_monitor (in CBuLongLong cb, in CBDescIn desc); /** @roseuid 3AC90A260383 */ MonitoruLongLong create_postponed_monitor (in Time start_time, in CBuLongLong cb, in CBDescIn desc); /** @static */ }; interface AlarmuLongLong : Callback { /** @roseuid 3AC90A260167 */ oneway void alarm_raised (in uLongLong value, in ACSErr::Completion c, in CBDescOut desc); /** @roseuid 3AC90A26016B */ oneway void alarm_cleared (in uLongLong value, in ACSErr::Completion c, in CBDescOut desc); }; interface ROuLongLong : PuLongLong { readonly attribute uLongLong alarm_low_on; readonly attribute uLongLong alarm_low_off; readonly attribute uLongLong alarm_high_on; readonly attribute uLongLong alarm_high_off; /** @roseuid 3AC90A28000C */ Subscription new_subscription_Alarm (in AlarmuLongLong cb, in CBDescIn desc); //** Enables the propagation of Property Alarms to the ACS Alarm System **/ void enable_alarm_system(); //** Disables the propagation of Property Alarms to the ACS Alarm System **/ void disable_alarm_system() raises (baciErrTypeProperty::DisableAlarmsErrorEx); //** Returns the current status of the propagation of Property Alarms to the ACS Alarm System **/ boolean alarm_system_enabled(); /** @static */ }; interface RWuLongLong : PuLongLong { /** @roseuid 3AC90A280034 */ ACSErr::Completion set_sync (in uLongLong value); /** @roseuid 3AC90A280036 */ void set_async (in uLongLong value, in CBvoid cb, in CBDescIn desc); /** @roseuid 3AC90A28003E */ void set_nonblocking (in uLongLong value); /** Increment the raw value by one bit. This method can be used for * fine-tuning actuators controlled by the property. * @roseuid 3AC90A280040 */ void increment (in CBvoid cb, in CBDescIn desc); /** Increment the raw value by one bit. This method can be used * for fine-tuning actuators controlled by the property. * @roseuid 3AC90A280047 */ void decrement (in CBvoid cb, in CBDescIn desc); /** maximal allowed value for set */ readonly attribute uLongLong max_value; readonly attribute uLongLong min_value; }; }; #endif /* _BACI_IDL_ */