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Background
The
US telecommunications industry is currently experiencing one of the
worst slumps in its history. Order terminations, buildout
cancellations, bankruptcies, collapsing stock prices, and deteriorating
margins have left the euphoria felt by the industry little more than a
year ago in tatters. Major companies now expect low growth
throughout the remainder of 2001, and an inventory write-off to the tune
of billions of dollars. Insight Research expects that the decline
will continue into early 2002.
How
did this happen? What further ripple effects could occur
throughout the industry? Most importantly, what can firms do to
navigate safely through these rough waters? This report examines
these issues and others from the perspective of the key support
serviceswhat we call the functional common core componentsthat
underpin the entire telecommunications industry.
In
this report, the term functional common core components broadly
describes a group of business services and equipment used by the network
operator to provide telecom and data communications services. The
functional common core components sectors fall under the following broad
categories:
-
Integrated
Electronic Enclosure Packaging (IEEP);
-
Telecommunications
Construction and Professional Services;
-
Power
Plants and Systems;
-
Wire
and Cable.
Functional
common core components are used when building and upgrading telephone
equipment facilities, such as central offices (COs), or installing
enclosures, racks, and frames required to house communications products
in a given location. The term professional services covers a
spectrum of fee-based services for engineering and planning,
installation, and support.
The Telecom
Industry & Its Supply Chain
The Crash of
2000-2001
Telecommunications
has become a highly dynamic sector which has been undergoing profound
structural changes of a magnitude having few parallels with other
industries in the US or the rest of the world.
It
is important to understand that for decades the telecommunications
industry was anything but dynamic. It has a long history of very
stable and predictable growthpredictable in the sense that growth has
been largely dependent on the plans of the incumbent network operator to
expand its embedded infrastructure. In the US, telecommunications
companies were regulated by the Federal Communications Commission (FCC)
and individual state public utility agencies, who determined prices and
the rate of technology deployment. Although the basic telephone
system was continuously being improved, such as through the transition
from analog to digital switching, or the shift from pulse to touch-tone
dialing, few major innovations could create new markets or replace
existing ones.
For
the most part, the industrys newfound dynamism has been due to market
deregulation, as well as a supply push created by new technologies
entering the marketplace. The introduction of local services
competition, new broadband access methods, computer/telephony
convergence, and the explosion of wireless technologies led to
heightened interest from inventors, entrepreneurs, and investors.
As a result, the telecommunications industry has shown an economic
growth rate in the mid-to-late 1990s which few other industries could
match.
Beginning
in the third quarter of 2000, the optimistic outlook of the e-business
and communications sectors abruptly changed. There was a
realization that Wall Street expectations for communications companies
were becoming extravagant, and that credit and capital financing were a
bit too easy to find. In addition, booked orders were excessive,
business practices were lax, and inventories were allowed to grow to
unacceptable levels. The failure of many dot coms, Internet
service providers (ISPs), competitive local exchange carriers (CLECs),
and data local exchange carriers (DLECs) led to declining demand for
computers and networking infrastructure. The cutbacks forced
established carriers like AT&T and MCI WorldCom to limit their own
spending plans and set the stage for the current downturn.
Structural
Change in the Purchasing Process
The
current market perturbations are unmasking a profound structural change
at the very core of the industry. Network deployment and service
introduction strategies are determined by a number of factors, including
subscriber demand, cost structure, economic environment, and the need
for network modernization. Two general models exist for the
deployment of services and technology infrastructure:
In
the supply-push scenario, technology is deployed in advance of high
levels of market demand. The technology is made available in an
attempt to stimulate market demand. This model assumes that
end-users will find new and innovative uses for technology after it is
deployed, and it supports a more rapid deployment of network technology
based on the suppliers vision. The supply-push model, however,
also creates risk for both the network operator and its stockholders.
In
the demand-pull scenario, technology is deployed only if it enables
services that have proven demand, provides efficiencies, and/or reduces
overall network operating costs. The demand-pull model results in
slower deployment of technology and creates less risk for the network
operator and its stockholders. In the long-run, however,
dependence on the demand-pull scenario invites the entry of multiple
competitors and leads to a loss of market share by the incumbent
operators.
Over
the past year, the telecommunications industry has seen a radical shift
from the supply-push financing model to the demand-pull financing
model. In short, we are currently in a global communications
marketplace that is demand-driven, not supply-driven.
Common
Core Components and Supply Chain Management
The
shift to a demand-driven procurement model will have a considerable
impact on how network operators purchase products. In this market
environment, achieving operational efficiencies and cost reductions has
taken on new importance. There still is a great deal of complexity
in the purchasing processes that service providers use. For
example, a single purchasing agent within one of the operators may
purchase telecom equipment from hundreds of suppliers. In the US
alone, Insight estimates that telecom products and functional common
components are supplied by over 1,000 manufacturers, distributors, and
wholesalers.
The
supply chain encompasses all the activities associated with moving goods
from the raw materials stage through to the end user. The supply
chain includes a variety of companies, ranging from firms that process
raw materials to firms engaged in retailing and wholesaling products.
Functions of these firms include procurement, production scheduling,
manufacturing, order processing, inventory management, warehousing, and
customer service.
Supply
chain management (SCM) enables telecom equipment purchasers in
fragmented markets to reduce procurement process inefficiencies.
Purchasers can reduce their time-to-market pressures, improve their
purchasing processes, and easily access current product specifications
and information. Suppliers are able to post updated product data
on bulletin boards, cost-effectively access global markets, and
streamline their sales, marketing, and distribution channel
operations.
Key
Success Factors
A
large number of products and services are currently being produced,
continually expanding oversupply for many offerings. A gray market
for products is becoming quite pervasive as providers unload excessive
inventories of cable modems, set-top boxes, digital subscriber line
access multiplexers (DSLAMs), servers, routers, and data cabinets.
Operators are selling these products to other operators at discounts
below current list prices posted by vendors. Gray market sales
will have a direct effect on the original manufacturers inventories,
which are already at record levels. Successful companies will be
able to manage inventory levels efficiently as demand changes.
The
introduction of new operators and services often requires the new
construction of telecom buildings, the refurbishment of non-CO
facilities, and substantial re-configuration of existing COs.
These facilities are required to house digital switches, transmission
systems (copper, fiber-optic, and coax), DSL equipment, Internet
protocol (IP) equipment, Web servers, and cable headends. New
construction, while tempered by the slowdown, still exerts a positive
effect on demand in the functional common core components sector.
The investments required for constructing and maintaining the existing
plant and infrastructure, as well as superimposing new technologies,
amount to billions every year.
Successful
vendors will pay close attention to product standards and how to
integrate new technologies within the network. Standards have
played a key role in increasing the use and acceptance of telecom
infrastructure products and core components. Network operators
often struggle to implement numerous new infrastructure products with
less-than-stable specifications and standards. Vendors also need
to understand the true nature of the installed base of equipment.
Despite the many advantages of new and improved standardized products,
ample quantities of legacy copper, fiber-optic, and coax cables are
already buried under cities, laid along highways and railroads, and
strung over poles and towers. This infrastructure will continue to
be used for decades.
More
and more equipment suppliers (such as Lucent Technologies, Motorola,
Cisco Systems, and Nortel Networks) are outsourcing basic manufacturing
to third-party electronic manufacturing suppliers (EMSes). The EMS
firms (such as Flextronics International, Sanmina, and C-MAC) now form
strategic relationships directly with the network operators and
equipment suppliers to coordinate logistics, installations,
manufacturing, and e-commerce interactions. The products and
services that EMSes offer include:
In
short, many of the EMSes offer services provided previously solely by
the equipment suppliers.
Leaders
in the functional common core component sectors will also be technology
innovators. For decades, functional common core components have
not been considered high-tech products, at least when compared to
next-generation equipment, such as optical switches. Even though
such components are crucial, they have tended to be ignored. For
example, power plants are traditionally the last items to be ordered by
an operator, but the first items needed. Many improvements can
still be made for these products in terms of cost, performance, and
functionality. Power plants are presently being upgraded to:
-
Provide
distributed power for various pieces of equipment and apparatus;
-
Offer
monitoring and management functions; and
-
Tolerate
rolling blackouts, brownouts, and large voltage swings that can
still occur in rural areas.
Only
by learning the lessons of effective supply chain management will the
operators and their suppliers be able to navigate safely through the
current rough waters that have already swamped so many in the industry.
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Chapter I
EXECUTIVE SUMMARY
1.1 Background
1.2 The Telecom Industry & Its Supply Chain
1.2.1 The Crash of 2000-2001
1.2.2 Structural Change in the Purchasing Process
1.2.3 Common Core Components and Supply Chain Management
1.3 Market Growth and Key Success Factors
Chapter II
MARKET OVERVIEW
2.1 Definitions and Background
2.1.1 AT&T Establishes Design and Engineering Standards
2.1.2 Western Electric and Bellcore
2.1.3 AT&Ts Bell System Specifications
2.1.3.1 New Equipment Building Systems Standards
2.1.3.2 Bellcore Updates NEBS
2.1.4 Role of Functional Common Core Components
2.2 Telecommunications Construction Overview
2.2.1 Central Office Facilities
2.2.2 Central Office Hardware Configurations
2.2.3 Other Network Nodal Points
2.2.4 Co-Location
2.2.5 Cable TV Network Modernization
2.3 Integrated Electronic Enclosure Packaging Overview
2.3.1 Typical Electronic Enclosure Packaging Configurations
2.3.2 Distribution Frames, Racks, and Enclosures
2.4 Power Plants and Systems Overview
2.4.1 AC vs. DC Powering Options
2.4.1.1 Power System Elements
2.4.1.2 Power Distribution
2.4.1.3 Grounding and Protection
2.4.1.4 Management of Power Supplies
2.4.2 Power Requirements for Different Scenarios
2.4.2.1 CO and Co-Lo Installations
2.4.2.2 Customer Premises Installations
2.4.3 Alternative Energy Sources
2.4.4 Network-based vs. Subscriber-based Powering
2.5 Wire and Cable Overview
2.5.1 Early Network Wiring Characteristics
2.5.2 Interconnection Interface
2.5.3 Premises Wiring
2.5.4 Outside Wiring
2.5.5 Wiring Types
2.5.5.1 Copper Wire
2.5.5.2 Optical Fiber
2.5.5.3 Coax and Hybrid Fiber-Coax Cable
Chapter III
INDUSTRY TRENDS AND CHARACTERISTICS
3.1 Historical Evolution of the Market
3.1.1 The Monopoly Environment
3.1.2 The Emergence of Local Competition
3.1.3 Navigating Current Market Uncertainty
3.2 Factors Influencing New Product Acceptance
3.2.1 Technological Rate of Change
3.2.2 Standardization Process
3.2.3 Economic Reasons for Deploying New Technologies
3.3 Co-Location Trends
3.3.1 Mandated Co-Location Requirements
3.3.2 Effect on Functional Common Core Component Firms
3.3.3 Co-Location Case Study: Allegiance Telecom, Inc
3.4 Impact of Industry Slowdown on Component Firms
3.4.1 Impacts on Electronics Manufacturing Services Suppliers
3.4.2 Impacts on Functional Common Core Component Suppliers
3.4.2.1 Impacts on Integrated Electronic Enclosure Packagers
3.4.2.2 Impacts on Wire and Cable Suppliers
3.4.2.3 Impacts on Power Plant and Systems Suppliers
3.4.2.4 Impacts on Telecommunications Construction Firms
3.5 Shifts in Marketing Focus
3.5.1 Historical Marketing Focus
3.5.2 Transformations in Marketing Strategy
3.5.3 Various Distribution Channels
3.5.3.1 Wholesale Distribution
3.5.3.2 Direct Sales
3.5.4 The Typical Purchasing Process
3.5.5 New Marketing Avenues and Promotional Events
3.6 Supply Chain Structure
3.6.1 Supply Chain Components
3.6.2 Traditional vs. Improved Supply Chain Interactions
3.6.3 Web-based Transactions
3.7 Support Services for Procurement
3.7.1 Program Management
3.7.2 Key Account Support Programs
Chapter IV
VENDORS
4.1 Introduction
4.2 Electronics Manufacturing Services Firms
4.3 Telecommunications Construction Firms
4.4 Integrated Electronic Enclosure Packaging Firms
4.5 Wire and Cable Firms
4.6 Power Plants and Power Systems Firms
Chapter V
FUTURE TRENDS AND OPPORTUNITIES
5.1 Key Challenges
5.2 Meeting Support Requests of Providers
5.2.1 Scarcity of Qualified Personnel
5.2.2 Functional Support Services
5.3 The Move Towards Outsourcing
5.3.1 Manufacturing Outsourcing
5.3.2 Logistics Outsourcing
5.4 Functional Common Core Component Segment Trends
5.4.1 Integrated Electronic Enclosure Packaging Opportunities
5.4.2 Power Plants and Systems Opportunities
5.4.3 Wire and Cable Opportunities
5.4.4 Telecommunications Construction Opportunities
5.5 Service Provider-Specific Opportunities
5.5.1 CO Growth-on-Demand
5.5.2 Greenfield Locations
5.5.3 Co-Location
5.5.4 Carrier Hotels
Chapter VI
FUNCTIONAL COMMON CORE COMPONENTS INDUSTRY FORECAST
6.1 Introduction
6.2 Methodology
6.3 US Economic Outlook
6.4 General Trends
6.5 Functional Common Core Components Industry Forecast
6.5.1 Integrated Electronic Enclosure Packaging
6.5.2 Telecommunications Construction and Professional Services
6.5.3 Wire and Cable
6.5.4 Power Plants
Table
of Figures
Chapter I
I-1 Supply Chain Management Framework
I-2 US Functional Common Core Component Revenues, 2001-2006
($Millions)
Chapter II
II-1 The Role of Functional Common Core Components Within a Central
Office
II-2 Next-Generation Central Office Switch: Integrated Electronic
Enclosure Packaging Configuration
II-3 Four-Bay DSLAM: Integrated Electronic Enclosure Packaging
Configuration (Front View)
II-4 DC and AC Power Supply System Configurations
II-5 Hybrid Fiber-Coax Architecture
Chapter III
III-1 Proposed Multi-Tenant Building Specification: Conceptual
Layout
III-2 Multi-Tier Distribution Channel Used by Functional Common Core
Component Firms
III-3 Supply Chain Management Framework
III-4 A Typical Program Management Model
Chapter VI
VI-1 Functional Common Core Component Revenues by Industry Segment,
2001-2006 ($Millions)
VI-2 Integrated Electronic Equipment Packaging Revenues by Region,
2001-2006 ($Millions)
VI-3 US Telecom Construction and Professional Services Revenue by Type,
2001 vs. 2006
VI-4 US Wire and Cable Revenue by Type, 2001 vs. 2006
VI-5 US Cable Harnesses Revenue, 2001-2006 ($Millions)
VI-6 US Insulated Fiber Optic Cable Revenue, 2001-2006 ($Millions)
VI-7 US Copper Wire Revenue, 2001-2006 ($Millions)
VI-8 US Coax Cable Revenue, 2001-2006 ($Millions)
VI-9 US Power Plant Revenues by Type, 2001 vs. 2006
VI-10 US Small-to-Medium-Sized Power Plant Revenues, 2001-2006
($Millions)
VI-11 Large Power Plant Revenues, 2001-2006 ($Millions)
VI-12 AC-to-DC Converter Revenues, 2001-2006 ($Millions)
Table
of Tables
Chapter I
I-1 Functional Common Core Component Segment Definitions
I-2 Key Elements for Success of Functional Common Core Component Firms
Chapter II
II-1 Updates to Original NEBS Specifications
II-2 Types of Professional Services Offered to Service Providers
II-3 Number of Mobile, Cable TV, IXC POP, and Non-CO Switch Sites
II-4 Different Types of Integrated Electronic Enclosure Packaging
Equipment
II-5 Typical Configuration Components
for a Next-Generation Central Office Packaged Switch
II-6 Typical Configuration Components for a Four-Bay DSL Access
Multiplexer
II-7 Typical DC Voltages for Selected Applications
II-8 Power Plant Installation Locations
II-9 Premises Wiring Categories
II-10 Standardized Digital and Optical Transmission Rates
II-11 Central Office Terminations of Loop Plant, Equipped Channels,
1994-1999
II-12 Central Office Terminations of Loop Plant, Working Channels,
1994-1999
II-13 CLEC and ILEC Fiber-Optic Route Miles, 1998
II-14 Fiber-Optic Route Miles by Interexchange Carrier, 2000
Chapter III
III-1 Critical Issues for the Functional Common Core Components
Industry
III-2 Representative North American Telecommunications Standards
Organizations
III-3 Proposed Specifications for Multi-Tenant Building
Telecommunications Equipment Rooms
III-4 CLEC Co-Location Demands
III-5 Advanced Services Order Co-Location Requirements
III-6 Allegiance Telecoms Smart Build Co-Location Strategy
III-7 Variables Determining Capital Buildout Requirements
III-8 Key Near-Term Challenges Facing Network Operators
III-9 Products Manufactured by EMS Firms
III-10 Typical Companies Outsourcing Manufacturing to EMS Firms
III-11 Strategic Goals for EMS Acquisitions of Integrated Electronic
Enclosure Packaging Firms
III-12 EMS Acquisitions of Integrated Electronic Enclosure Packaging
Suppliers
III-13 Major EMS Acquisitions of Wire and Cable Suppliers
III-14 Power Plant Manufacturer Acquisitions of Other Power Plant
Suppliers
III-15 Purchasing Criteria of Typical Customer Types
III-16 Key Criteria Considered by Service Providers When Selecting a
Vendor
Chapter IV
IV-1 Strategic Acquisition Objectives
For Functional Common Core Component Suppliers
Chapter V
V-1 Functional Support Services Offered to Network Operators
V-2 Potential Benefits and Problems of Outsourcing Manufacturing and
Logistics
V-3 Outsourcing Vendor Capabilities Checklist
V-4 Key Value-Added Services for Electronic Enclosure Packagers
V-5 Fiber Terminations at Customer Premises, DS-1 vs. DS-3 & Higher
Rate, 1994-1999
Chapter VI
VI-1 Functional Common Core Component Segment Definitions
VI-2 US Functional Common Core Component Revenues, 2001-2006
($Millions)
VI-3 Worldwide Integrated Electronic Equipment Packaging Revenues,
2001-2006 ($Millions)
VI-4 US Telecom Construction and Professional Services Revenue 2001-2006
($Millions)
VI-5 US Wire and Cable Revenue, 2001-2006 ($Millions)
VI-6 US Power Plant Revenue, 2001-2006 ($Millions)
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