PART 1
1
General
1.1 Normative references
1.2 Abbreviations and acronyms
2
Scope of IN distributed functional plane for capability set 2
2.1 End user access
2.2 Service invocation and control
2.3 End user interaction
2.4 IN service management functionality
2.5 Call Party Handling
2.5.1 Overview
2.5.2 Background and motivation
2.5.3 Scope
2.5.4 Assumptions
2.5.5 Core Capabilities
2.6 Internetworking
2.7 Security
2.8 Out-Channel Call Related User Interaction (OCCRUI)
2.9 Out-channel Call Unrelated User Interaction (OCUUI)
2.10 Wireless access
2.11 Feature interactions
3
Distributed functional model for IN CS-2
3.1 Explanation of diagram
3.2 IN functional model
3.3 Definition of functional entities related to IN service
execution
3.3.1 CCA function (CCAF)
3.3.2 CC function (CCF)
3.3.3 SS function (SSF)
3.3.4 SC function (SCF)
3.3.5 SD
function (SDF)
3.3.6 SR function (SRF)
3.3.7 IA function (IAF)
3.3.8 CUS Function (CUSF)
3.3.9 SCUA function
3.3.10 SM
function (SMF)
3.4 Use of individual relationships between functional entities
related to IN service execution
3.4.1 SCF-SSF relationship
3.4.2 SCF-SCF relationship
3.4.3 SCF-IAF relationships
3.4.4 SRF-CCF relationship
3.4.5 SCF-SRF relationship
3.4.6 SRF-SCF relationship
3.4.7 SRF-SMF relationship
3.4.8 SDF-SDF relationship
3.4.9 SCF-SDF relationship
3.4.10 SCF-CUSF relationship
3.4.11 CUSF-SSF relationship
3.4.12 CUSF-CCF relationship
3.4.13 SMF-SCF relationship
3.4.14 SMF-SDF relationship
3.4.15 SMF-SSF/CCF relationship
3.4.16 SMF-SRF relationship
3.4.17 SMF-SMAF relationship
3.4.18 SMF-SCEF relationship
3.4.19 SMF-SMF relationship
3.4.20 SMF-CUSF relationship
3.5 Overview of functional entity call/service logic processing
models
4
SSF/CCF model
4.1 General
4.2 Basic Call Manager (BCM)
4.2.1 BCSM
4.2.2 CS-2 BCSM description
4.2.3 BCSM resume points and BCSM transitions
in the IN CS-2 call model
4.2.4 BCSM indications for the CS-2 call model
4.2.5 BCSM detection points
4.2.6 DP Criteria
4.2.7 Trigger types and trigger precedence
4.2.8 DP processing
4.2.9 Out-Channel
Call Related User Interaction (OCCRUI)
4.3 IN-Switching Manager (IN-SM)
4.3.1 IN-Switching State Model (IN-SSM)
4.3.2 IN-SM Core Capabilities for Call Party
Handling
4.3.3 The
Connection View State (CVS) approach
4.3.4 The Hybrid Approach
4.3.5 IN-SSM EDPs
4.3.6 SSF resource control
4.4 Feature Interactions Manager (FIM)/Call Manager (CM)
4.4.1 FIM/CM Functions
4.4.2 Service logic instance interactions
considerations
4.4.3 FIM mechanisms
4.5 Relationship of SSF/CCF Model Components
4.5.1 General
4.5.2 Typical sequence of model actions
4.6 Relationship of SSF/CCF to SCF
5
Specialized Resource Function (SRF) model
5.1 General
5.2 SRF Components
5.2.1
Functional Entity Access Manager (FEAM)
5.2.2 Resource Control Part (RCP)
5.2.3 Resource Function Part (RFP)
5.2.4 Data Part (DP)
5.3 Objects of SRF management
6
Service Control Function (SCF) model
6.1 General
6.2 SCF components
6.2.1 General
6.2.2 Service logic execution manager (SLEM)
6.2.3 SCF data access manager
6.2.4 Functional routine manager
6.2.5 Functional Entity Access Manager (FEAM)
6.2.6 SLP manager
6.2.7 Security manager
6.3 Functional routine categories
6.3.1 SLPI management functional routines
6.3.2 SLPI communication functional routines
6.3.3 Timer management functional routines
6.3.4 Data management interface functional
routines
6.3.5 Asynchronous event handling functional
routines
6.3.6 Connection management functional routines
6.3.7 Specialized resource management
functional routines
6.3.8 OAM functional routines
7
Service Data Function (SDF) model
7.1 General
7.2 SDF components
7.2.1 General
7.2.2 SDF data manager
7.2.3
Functional entity access manager
7.2.4 Security manager
7.3 Data types handled by SDF
8
Call Unrelated Service Function (CUSF) model
8.1 General
8.2 Basic Non-Call Manager (BNCM)
8.2.1 BCUSM
8.2.2 BCUSM description for CS-2
8.2.3 Transition for BCUSM
8.2.4 BCUSM DP criteria
8.3 Description of relationship model
9
Service Management Function (SMF) model
9.1 General
9.2 SMF components
9.2.1 General
PART 2
10 Mapping of the global functional
plane to the distributed functional plane
10.1 Mapping of POIs and POSs to DPs and PICs
11 Information flow diagrams and
distributed service logic in the DFP
11.1 Introduction
11.1.1 Functional model
11.1.2 Description of functional entities
11.1.3
Numbering of functional entity actions
11.1.4 Relationship with clause 12 (information
flow descriptions)
11.1.5 Organization of clause 11
11.1.6 Generic security information flows
11.1.7 SDF-SDF interactions
11.1.8 SCF-SCF interactions
11.2 SIB stage 2 descriptions
11.2.1 ALGORITHM SIB
11.2.2 AUTHENTICATE SIB
11.2.3 CHARGE SIB
11.2.4 COMPARE SIB
11.2.5 DISTRIBUTION SIB
11.2.6 END SIB
11.2.7 INITIATE SERVICE PROCESS SIB
11.2.8 JOIN SIB
11.2.9 LOG
CALL INFORMATION SIB
11.2.10 MESSAGE HANDLER SIB
11.2.11 QUEUE SIB
11.2.12 SCREEN SIB
11.2.13 SERVICE DATA MANAGEMENT SIB
11.2.14 SERVICE
FILTER SIB
11.2.15 SPLIT SIB
11.2.16 STATUS NOTIFICATION SIB
11.2.17
TRANSLATE SIB
11.2.18 USER INTERACTION SIB
11.2.19 VERIFY SIB
11.3 BASIC PROCESS SIBs
11.3.1 BASIC CALL PROCESS SIB
11.3.2 BASIC CALL UNRELATED PROCESS SIB
11.4 Stage 2 description of other distributed functionality
11.4.1
Activity test functionality
11.4.2 Call gap capability
11.5 Distributed service logic
11.5.1 SDL diagrams
11.5.2 Distributed service logic for SSF
11.5.3 Distributed
service logic for assist/handoff SSF
11.5.4 Distributed service logic for SRF
11.5.5 Distributed service logic for SCF
11.5.6 Distributed service logic for SDF
11.5.7 Distributed service logic for CUSF
11.6 Mapping between information flows and SIBs
PART 3
12 Relationships between FEs
12.1 General
12.2 Relationships
12.3 Information flows between FEs
12.4 SCF-SSF relationship
12.4.1 General
12.4.2 DP Specific Common Elements
12.4.3 Information flows between SCF and SSF
12.4.4 IE Definitions for SSF/CCF to SCF
Information Flows
12.5 SCF-SRF relationship
12.5.1 General
12.5.2 Information flows between the SCF and SRF
12.5.3 IE Definitions for SCF to SRF Information
Flows
12.6 SCF-SCF relationship
12.6.1 General
12.6.2 Information flows between the SCF and SCF
12.6.3 IE Definitions for SCF to SCF Information
Flows
12.7 SCF-CUSF relationship
12.7.1 General
12.7.2 Information flows between the SCF and
CUSF
12.7.3 IE Description for the SCF-CUSF
information flows
12.8 SCF-SDF relationship
12.8.1
General
12.8.2 Information flows between the SCF and SDF
12.8.3 IE Description for the SCF-SDF
information flows
12.9 SDF-SDF relationship
12.9.1 General
12.9.2 Information flows between the SDF and SDF
12.9.3 IE Description for the SDF-SDF
information flows
12.10 IE Population Rules
12.10.1 SSF/CCF to SCF Information Flows
12.11 Summary of information flows and related SIBs
PART 4
Annex A – Mobility aspects
A.1 General
A.2 Scope
A.3 Mobility Aspects of Distributed Functional Model for IN CS-2
A.3.1 Explanation of the diagram
A.3.2 Wireless access enhancements to the IN
functional model
A.3.3 Definitions of wireless access specific
functional entities related to IN service execution
A.3.4
Use of individual relationships between FEs for wireless access
A.4 Example mapping of wireless access FEs to physical platforms
A.4.1 Example mapping 1
A.4.2 Example mapping 2
A.4.3 Example
mapping 3
A.4.4 Example mapping 4
A.4.5 Example mapping 5
A.4.6 Example mapping 6
A.4.7 Example mapping 7: RCF and CRACF in RS,
CURACF in SCP
A.4.8 Example mapping 8: RCF and CRACF in RS,
CURACF in standalone platform
A.4.9 Example mapping 9: RCF in Radio System,
CRACF in standalone platform and CURACF in SCP
A.4.10 Example mapping 10: RCF in Radio System, CRACF in standalone
platform and CURACF in standalone platform
Annex B – Telecommunications Management Network (TMN) concepts
B.1 Introduction
B.2 The TMN functional architecture
B.2.1 Operations Systems
B.2.2 Work Station Functions
B.2.3 The Human Machine Adaptation (HMA)
B.2.4 TMN information modelling
B.3 Applying TMN concepts to the IN
B.3.1 IN management functional model
B.3.2 Correspondence between the IN concept of
SIB and the TMN concept of MO
B.3.3 IN management protocols
B.4 Modelling aspects imported from TMN
B.4.1 Mappings of IN SMF onto TMN logical
layers
B.4.2 Mapping of IN SMF onto TMN management
functions
B.4.3 Mapping of the IN SCEF onto TMN logical
layers
B.5 IN management and
generic TMN management
B.5.1 Management process independence
B.5.2 SMF complexity
B.6 IN SMF-SMF internetworking relationship mapping to TMN
B.6.1 Fault management example
Annex C – IN SSF Q3 Management Information Model
C.1 Introduction
C.1.1 Technical approach
C.2 SSF functional decomposition
C.2.1 Rationale
C.2.2 Method
C.3 SSF management requirements
C.3.1 Rationale
C.3.2 Method
C.4 SSF management information model
Annex D – IN testing and fault management
D.1 Introduction
D.2 IN testing capabilities for the SSF/CCF
D.2.1 Translation Check
D.2.2 Trigger Data Check
D.2.3 SSF/CCF Query Test
D.2.4 Using the SSF/CCF testing capabilities
D.3 IN end-to-end testing
D.3.1 IN end-to-end testing information
elements
D.3.2 SSF to SCF
D.3.3 SCF to SSF
D.3.4 SCF-SRF
D.3.5
SRF-SCF
Appendix I – Example/application of IN SSF Q3 management information model
I.1 Introduction
I.2 SSF functional decomposition
I.2.1 SSF model
I.3 Example to illustrate development of information models and
managed object requirements
I.3.1 General
I.3.2 Example of trigger management information
model and managed object requirements
I.3.3 SMF functionality mapping to information
model
I.3.4 SSF/CCF functionality mapping to
information model
I.3.5 SSF/CCF information model managed object
requirements
Appendix II – Information flows and call models for terminal mobility
II.1 General
II.2 Functional entity call/service processing models for wireless
access
II.2.1 Overview
II.2.2 Terminal Access State Model (TASM)
II.2.3
Basic Non-Call Associate State Model for CURACF (BNCSM')
II.2.4 BCSM
II.3 Information flow enhancements for wireless access
II.3.1 General
II.3.2 Relationships
II.3.3 Information flows between FEs
II.3.4 SCF-SSF relationship
II.3.5 SCF-CRACF relationship
II.3.6 SCF-CURACF relationship