How to Read This Report
What This Report Is
This report is the official account of Korea's ICT research-and-development experience over five decades β from the establishment of the Korea Institute of Science and Technology (KIST) in 1966, through the founding of ETRI's predecessor in 1976, to the ministerial reorganisation under the Ministry of Science, ICT and Future Planning (MSIP) in 2013. It is a retrospective reconstruction by Sangwon Ko and Insoo Kang of the Korea Information Society Development Institute (KISDI), supervised by MSIP and published in 2014 under the Knowledge Sharing Program. It traces how a country with no commercial digital exchange in 1980 produced the world's first commercial CDMA service in 1996, the world's first commercial WiBro service in 2006, and an ETRI that topped the IPIQ Innovation Anchor Scorecardβ’ in 2011 and 2012.
The report was designed from the outset for one purpose β to share Korea's success with developing countries considering their own ICT R&D strategies. A purposeful text always makes choices about what to include and what to omit. It frames the policy story as four neat periods (Basic Competence 1960β1986; Infrastructure Construction 1987β2003; Demand-Supply Mutual Growth 2004β2007; ICT Convergence 2008βpresent), three iconic technology cases (TDX, CDMA, WiBro), and a closing gardener metaphor (preparing ground, nurturing soil, removing weeds, watering innovation). The Companion takes that confident architecture as the entry point to the harder questions: about Galapagos syndrome, the WiBro market failure, the polarisation between hardware-and-software and between conglomerates-and-SMEs that the report admits only in its last paragraph.
Read this report not as a reliable neutral description, but as a subject for critical analysis. There are still two good reasons to read it: first, it is one of the few accounts written for readers who do not know the Korean ICT context, with concrete numbers β 22.16 trillion KRW in ICT R&D in 2011 (44.4 % of total Korean R&D, 1.8 % of GDP), 1,042 researchers and 99.6 billion KRW for the CDMA commercialisation project, 39 billion KRW invested in WiBro from 2003β2005, 703 patents earning ETRI the top global Innovation Anchor rank in 2012. Second, how Korea narrates its own ICT R&D experience β which decisions it valorises (the Informatization Promotion Fund as a financing innovation), which costs it tucks into footnotes (the brain drain admitted in footnote 3 of chapter 6; the Galapagos syndrome admitted in footnote 1 of chapter 3), which failures it elides (WiBro's 1 million subscribers against an 8 million target) β is itself a legitimate object of study.
- Diagnose your country's ICT R&D challenges using five problem types and identify the most relevant Korean institution, financing instrument, or policy design.
- Explain the four phases of Korea's ICT R&D evolution (Basic Competence Reinforcement; Infrastructure Construction; Demand-Supply Mutual Growth; ICT Convergence) and the logic and key initiatives of each.
- Identify success-bias patterns in the report (e.g., the framing of WiBro's adoption as IEEE 802.16e while the market collapse is treated as a separate matter; the gardener metaphor that obscures the active select-and-focus role of the state) and convert what the report does not say into critical questions.
- Draft a policy memo applying Korean ICT R&D experience critically to a specific developing-country context β choosing what to import, what to modify, and what to reject.
How This Companion Is Organised
The Companion is organised by reader problem type, not by report section order. Answer three questions in the π Diagnose tab and you will be routed to one of five problem types in the π Type Guide. The π Read the Report tab gives a compression of the report's six-chapter structure (Introduction Β· Background Β· Strategy and System Β· Specifics of Policies in four periods Β· Evaluation of the TDX-CDMA-WiBro cases Β· Implications for Developing Countries); the π¬ Critical Reading tab equips you to question the report's own framing β especially its tendency to count technical success and market success in the same column.
Practitioner path: π Diagnose β π Type Guide (your type) β confirm First Action
Course preparation path: π Read the Report β π Diagnose β π Type Guide (all types) β π¬ Critical Reading
Critical reading path: π¬ Critical Reading β Check Understanding β Scenario Writing β Further Reading
What Problem Am I Trying to Solve?
Diagnostic Tool β Find Your Type in Three Questions
Korean Experience Mapped to Your Problem Type
Type A Building Technology Absorptive Capacity
'We can buy any foreign equipment we want, but we cannot adapt it, improve it, or build the next generation ourselves. Our private sector is not investing in R&D, and we have no public research institute that could lead. How do we start?'
Korea's Experience with the Same Problem
In 1966 Korea launched the Korea Institute of Science and Technology (KIST) β the country's first dedicated science and technology research institute β followed by sixteen further state-run institutes by 1979. In 1976 the Korea Electronic Communication Research Institute (KECRI) was founded under the same logic. KECRI was renamed KTRI in 1977, KETRI in 1981, and finally merged into the Electronics and Telecommunications Research Institute (ETRI) in 1985 by integrating three predecessors covering electronics, communications and electric engineering. At every stage the state acted on the explicit premise that absorptive capacity must be built in public institutes before the private sector can be expected to lead. The 1967 Foreign Capital Inducement Law brought 22 multinational enterprises into Korea by end-1969 β only one solely-invested company and two joint ventures had existed before the law. Foreign investment brought equipment that domestic engineers could disassemble; KECRI and KIET then built the reverse-engineering capability that turned imported AXE-10 design and engineering technologies from Ericsson into the differentiated TDX-1 by December 1983.
The TDX project β KRW 24 billion at a time when such a sum was unimaginable for a single research project β was greeted with skepticism by many observers because ETRI had no prior experience with digital switching. The Korean government placed the bet anyway. The trust paid off: TDX-1 in 1983, TDX-1A by 1986, TDX-10 by 1991, and a research consortium of KTA, ETRI, Goldstar, Samsung, Daewoo Telecom and Hanwha Telecom that became the model for every subsequent national project. By 2012 ETRI was first in the IPIQ Innovation Anchor Scorecardβ’ with 703 patents β ahead of MIT, the University of California, Stanford, and Tsinghua. The point is sequencing. Korea built the institute before it had the capacity, then used the institute to build the capacity, then used the capacity to commercialise CDMA in 1996 and WiBro in 2006.
Absorptive capacity does not bootstrap from the private sector in a country without one. A government research institute is not the consequence of a strong ICT sector β it is the precondition. KIST in 1966 had to recruit returning Korean scientists trained abroad; ETRI in 1985 had to give them tasks bigger than any private firm would have funded. Without the GRI as anchor, every subsequent step (foreign technology absorption, joint R&D, commercialisation) loses its centre of gravity.
Where to Read in the Report
| Priority | Section | Why read it |
|---|---|---|
| π΄ Essential | Ch. 1 Β§1 | The evolution of government ICT R&D β KIST 1966, KECRI 1976, ETRI 1985, MIC 1994 |
| π΄ Essential | Ch. 3 Β§1.2 | Establishment of GRIs β the rationale and the renaming history of ETRI |
| π΄ Essential | Ch. 6 Β§1 | Preparing the Ground β the gardener metaphor applied to GRI establishment |
| π‘ Recommended | Table 1-8 | IPIQ Innovation Anchor Scorecard 2012 β ETRI first globally with 703 patents |
| π‘ Recommended | Ch. 4 Β§1 | Basic Competence Reinforcement Period 1960-1986 β how the absorption began |
| βͺ Optional | Ch. 6 footnote 3 | Skilled diaspora and reverse brain drain β admitted but not central to the report |
The mechanics of founding a GRI are highly transferable: charter act, multi-year funding line, recruit returning diaspora scientists, give the institute the lead role in one large national project. Aim for a critical mass of 50-100 researchers before declaring the institute viable; below that, it becomes an administrative shell. The harder element is the political settlement: the institute must outlast the founding minister, the founding government, and the founding crisis.
Identify three returning or returnable engineers in your country β diaspora, recent overseas PhDs, retiring industry seniors β and sketch a one-page founding profile for a small applied-ICT institute that would build around them. Name the people before naming the building or the budget. If no three names can be written, the institute is not yet seriously in scope; if three names can be written, the budget conversation becomes specific.
Type B Forging Industry-Academia-GRI Cooperation
'Our government labs do not talk to industry. Our universities do not talk to either. Each large national R&D project ends up as three parallel projects with no shared output. How do we make them work together?'
Korea's Experience with the Same Problem
The TDX project (1981-1986) institutionalised what the report calls the tripartite cooperation mechanism: government research labs in charge of R&D, private firms in charge of production, the government in charge of procurement and tariff protection. A research consortium of Korea Telecommunications Authority (KTA), ETRI, Goldstar, Samsung, Daewoo Telecom and Hanwha Telecom developed the TDX-1 digital exchange that allowed Korea to leapfrog directly from electro-mechanical switches to digital. The government supported the consortium with three concrete instruments: import limits on foreign switches after local development; a quota system for the four manufacturers' market shares to incentivise learning; and a special procurement law requiring TDX manufacturers to allocate a portion of their profits to ETRI's future research. ETRI estimates the cumulative economic benefit of TDX through 2011 at KRW 20.5 billion.
The CDMA commercialisation (1989-1996) extended the triangle with a fourth element β the lead-customer Project Administration Division. In September 1993 the government established the Mobile Communication Technology Development Project Administration Division inside Korea Mobile Telecommunications (later SK Telecom), the customer for CDMA equipment, to manage the entire R&D process from the demand side. The four equipment manufacturers (Hyundai Electronics, LG Information and Communications, Samsung Electronics, Maxon Electronics) were unwilling partners initially and had to be cajoled with handset subsidies and pre-paid royalty schemes; the customer-side project office gave them no way out. CDMA mobilised 1,042 researchers and 99.6 billion KRW; ETRI estimates cumulative economic value through 2011 at 54.392 trillion KRW β 540 times the investment. The WiBro project (2003-2005) modernised the triangle further with PPP: Samsung supplied 39 billion KRW of R&D funds, ETRI performed joint research, and the customer side included KT, Hanaro, SKT and KTF.
The triangle is not an organogram β it is a contractual settlement. Each side accepts a constrained role: the GRI cannot manufacture, the manufacturers cannot pick the technology, the government cannot fund without a procurement commitment, the lead customer cannot opt out. The constraints are what made the cooperation real. The single most underrated instrument is the Project Administration Division inside the customer firm β it is the institution that translates user requirements into engineering specifications without filtering through any of the three principal parties.
Where to Read in the Report
| Priority | Section | Why read it |
|---|---|---|
| π΄ Essential | Ch. 3 Β§1.5 | Establishment of cooperation system among R&D performers β the triangle institutionalised |
| π΄ Essential | Ch. 5 Β§1 | TDX case β the first and best instance of GRI-industry-state cooperation |
| π΄ Essential | Ch. 5 Β§2.1 | CDMA policy factors β the Project Administration Division within KMT |
| π‘ Recommended | Ch. 6 Β§2 | Nurturing the Soil β tripartite cooperation and the PPP system |
| π‘ Recommended | Table 3-2 | R&D centres of global IT companies in Korea 2004-2006 β extending the triangle to foreign R&D |
The triangle architecture is highly transferable on the supply side (GRI + manufacturers + government). What does not always travel is the lead-customer side. Korea Mobile Telecommunications and Korea Telecom had the scale to anchor CDMA and TDX procurement; smaller markets need a substitute β a multilateral procurement consortium, a regulated mandate that compels uptake, or a strategic export commitment from a regional firm.
For your largest current ICT R&D programme, draw a one-page diagram of who plays the four roles: GRI, manufacturer, lead customer, project administrator. If any role is empty, name the person or institution that would fill it. If two roles collapse into one (the GRI is also playing project administrator; the manufacturer is also the lead customer), name the conflict-of-interest risk. The diagram is the architecture; without it, every meeting becomes a negotiation.
Type C Funding ICT R&D Sustainably
'Our annual budget cycle cannot fund multi-year R&D projects. Spectrum auction revenue goes straight to the general budget. Every change of finance minister cuts our ICT line. How do we build a financing instrument that lasts?'
Korea's Experience with the Same Problem
In January 1993, under Article 5 of the Law on ICT Research and Development (enacted December 1991), Korea created the ICT Promotion Fund β initially modest, financed by mandatory contributions from telecommunications carriers. In January 1996, after the Informatization Promotion Act of August 1995, the fund was reorganised into the Informatization Promotion Fund, split into a General Account (informatization promotion, e-government, broadband network) and an R&D Account (ICT technology development, HRD, standardisation). In January 2005, with the large infrastructure projects complete, the general account was abolished and the fund was renamed back to ICT Promotion Fund, focused on R&D. In February 2008 the managing agency moved from MIC to MKE; in August 2009 the legal basis migrated to the ICT Industry Promotion Act; in March 2013 the managing agency moved again from MKE to MSIP. The fund outlasted three name changes, three legal bases, and three different parent ministries.
The fund's premise was explicit: government funds collected from the ICT industry through new common carrier selection may as well be reinvested into the ICT industry. In most countries spectrum auction revenue flows into the general budget; Korea ring-fenced it. The result was the ability to finance high-cost ICT R&D projects without the year-by-year fiscal negotiations that kill long-cycle programmes. Table 3-5 of the report traces six world-firsts directly to fund money: medium-sized computers and 256MD DRAM in 1994; TDX-10 in 1995; CDMA in 1996; synchronous CDMA-1x in 2000; CDMA-1x EV in 2002; terrestrial DMB in 2003; WiBro prototype in 2004; IEEE adoption of WiBro and ETSI adoption of DMB in 2005. The 22.16 trillion KRW of total ICT R&D in 2011 (44.4 % of all Korean R&D, 1.8 % of GDP) sits on a financing architecture two decades old.
The financing innovation was not the size of the fund β it was the legal insulation. By writing the fund into a Framework Act, Korea made it costly for any single minister or administration to redirect the money. The mandatory contribution from telecoms operators (a tax in all but name) and the spectrum revenue (a windfall) became politically defensible because they returned to the sector that generated them. Build the law before the fund; the fund is downstream of the legal settlement.
Where to Read in the Report
| Priority | Section | Why read it |
|---|---|---|
| π΄ Essential | Ch. 3 Β§2 | Funding for public ICT R&D β the rationale and the legal architecture |
| π΄ Essential | Table 3-3 | Purpose and source of Informatization Promotion Fund β General and R&D accounts |
| π΄ Essential | Table 3-4 | Major history of ICT Promotion Fund β three renamings tracking changing emphases |
| π΄ Essential | Ch. 6 Β§4 | Watering Innovation β the framework act and the inter-ministerial coordination body |
| π‘ Recommended | Table 3-5 | Major research output of the fund 1994-2005 β six world-firsts traced to fund money |
| βͺ Optional | Table 3-6 | ICT Promotion Funds by year 2008-2012 β the scale of the steady-state operation |
The principle is transferable. The execution requires three heavy preconditions: (i) a Ministry of Finance willing to forgo spectrum-auction revenue, (ii) a Framework Act robust to administration changes, (iii) an inter-ministerial coordination body that prevents capture by the sponsor ministry. Without all three the fund risks reverting to the general budget within one political cycle. Watch also for the opposite risk: a captive fund can become a slush fund for politically connected pilots if oversight is thin.
Compile a single page on every ICT-sector receipt your government currently collects: spectrum-auction revenue, licence fees, frequency assignment fees, telecommunications-operator levies, USO contributions. Identify which of these could legally be ring-fenced under a future Framework Act, and what the annual flow would be. The page is the seed of a future fund; without it the fund cannot be costed, defended, or designed.
Type D From Catch-up to Standard-Leading
'Our firms can imitate but they cannot lead. We pay heavy royalties on every standard. International standards bodies (ITU, IEEE, ETSI) treat us as observers, not authors. How do we move from price-taker to standard-setter?'
Korea's Experience with the Same Problem
Korea's transition from catch-up to standard-leading runs through three concrete instances. CDMA (1989-1996) is the hinge case: Korea did not invent CDMA β Qualcomm held the patent β but the Ministry of Information and Communication designated CDMA as the national standard in 1993, against pressure from MCIE to choose the proven TDMA, and Korea produced the world's first commercial CDMA service in 1996. DMB (2003-2007): domestically developed terrestrial DMB was adopted by ETSI as a European standard in July 2005 and by ITU as a 3G standard in October 2007. WiBro (2003-2007): the High-speed Portable Internet (HPi) project under ETRI supervision with KT, Hanaro, SKT, KTF and Samsung produced the world's first IEEE 802.16e-based equipment on 27 November 2004; ETSI 802.16-2004 standard incorporated Korean requirements in June 2004; IEEE 802.16e was adopted as a global standard in December 2005; ITU adopted WiBro as the 6th IMT-2000 standard in October 2007.
The standards mechanism was operational, not accidental. The Telecommunications Technology Association (TTA) ran in parallel with international processes: in June 2003 TTA launched a project group on portable Internet standardisation; in June 2004 TTA Project Group 302 introduced the 802.16-2004 standard and immediately began work on 802.16e to add mobility. The five functional requirements adopted by MIC for 2.3GHz WiBro service in July 2004 were in full accordance with international standards, which is why US trade-dispute pressure on Korea's WiBro development trailed off. ETRI alone earned 703 patents that placed it first in the IPIQ Innovation Anchor Scorecard 2012, with a technology strength index of 466.79 against MIT's 437.41 and Stanford's 297.77. Korea was the third-biggest holder of ICT patents 2005-2009, behind only Japan and the US β more than Germany, France, the UK, Canada and Finland combined.
The transition from catch-up to standard-leading is not a technical achievement β it is a procedural one. The technical work was done by ETRI and Samsung; the standards work was done by TTA running national and international processes simultaneously, by MIC designating national standards before the international bodies acted, and by domestic-deployment timing aligned with global adoption windows. The lesson is that authoring a global standard requires a domestic standards body active inside the global standards body, not merely outstanding technology.
Where to Read in the Report
| Priority | Section | Why read it |
|---|---|---|
| π΄ Essential | Ch. 5 Β§2 | CDMA β the hinge from imitator to leader; how MIC chose CDMA over TDMA |
| π΄ Essential | Ch. 5 Β§3.1 | WiBro technology success β IEEE 802.16e adoption mechanics and the TTA role |
| π΄ Essential | Ch. 6 Β§3 | Removing the Weeds β the top-down standard-selection logic and its caveats |
| π‘ Recommended | Table 1-6 | Patent applications by field of technology 2005-2009 β Korea third in ICT |
| π‘ Recommended | Table 1-8 | IPIQ Innovation Anchor Scorecard 2012 β ETRI first globally |
| βͺ Optional | Ch. 5 Β§3.2 | WiBro market failure β what international standard adoption did not guarantee |
Mechanically transferable: found a TTA-equivalent, fund attendance at IEEE/ITU/ETSI working groups, designate national standards in parallel with international processes. The harder element is the top-down standard-selection bet β MIC chose CDMA against TDMA in 1993 on disputed evidence and was vindicated. The same MIC pushed WiBro and was technically vindicated but commercially defeated. Standard-leading does not equal market success; design for both.
For the most promising indigenous technology in your country, write one page on whether you would pursue the WiBro path (force into a global standard via the standards body) or the absorption path (license and commercialise an existing global standard). Name the trade-off explicitly: a global standard captured commands royalty income for decades but risks WiBro-style market failure; an absorbed standard limits ceiling but accelerates deployment. The page that does not name the trade-off is not yet a strategy.
Type E Technology Succeeds, Market Fails β Avoiding the WiBro Trap
'Our state-led R&D programme produced the technology the engineers asked for. It became an international standard. Then nobody bought it. The Treasury asks me how this happened and what I will do differently next time. What is the answer?'
Korea's Experience with the Same Problem
WiBro is the cautionary case the report tucks into chapter 5 Β§3.2 β and the case any practitioner reading the report should study most carefully. The technology was a textbook public-R&D success: KRW 39 billion invested 2003-2005; world-first prototype connection on 27 November 2004 at the Communication Research Group lab at ETRI; world-first commercial service June 2006 by KT and SKT in Seoul subway lines and college districts; IEEE 802.16e adoption December 2005; ITU adoption October 2007. The market response was meagre and revealing. WiBro subscribers reached 454,994 in 2010, peaked at 1,049,788 in 2012, and were declining by mid-2013 (1,031,381 in July 2013). The original target had been eight million subscribers by 2010. Coverage was extensive β KT WiBro covered 83 cities, 88.2 % of population, 53.4 % of national expressways, 81.2 % of national subway β but the subscriber-to-coverage ratio collapsed against the rising LTE numbers (1.19 million LTE subscribers in December 2011 had become 23.99 million by July 2013).
The cause was structural, not technical. Samsung, the dominant WiBro equipment supplier with KRW 3.05 trillion of cumulative export to 44 countries by 2011, eventually stopped its WiBro business to focus on LTE. The technical advantage that motivated the original WiBro bet β OFDM and MIMO ahead of competing standards β got absorbed into LTE itself, which retained 95 % technological similarity with LTE-TDD. Korea's LTE infrastructure inherited the WiBro engineering investment without inheriting the WiBro business model. The terrestrial DMB case shares the pattern: world-first DMB system 2003, ETSI standard 2005, ITU 3G standard 2007 β but the service failed to generate a business model and some operators ended up with impaired capital. The Galapagos syndrome warning β that exclusive wireless platforms designed for the domestic market deteriorate in global competition β was footnoted in chapter 3 of the report (footnote 1) and named explicitly as one reason the MIC was dismantled in 2008.
Compare CDMA and WiBro: same MIC, same ETRI, same triangle architecture, same national-standard designation, same international-standard pursuit. CDMA succeeded as both technology and market; WiBro succeeded only as technology. The difference was the lead-customer mechanism. CDMA had the Project Administration Division inside Korea Mobile Telecommunications, with explicit handset subsidies and two-year subscriber lock-ins. WiBro had ETRI and Samsung and four operators but no comparable customer-side institution. Budget demand-side policy as carefully as supply-side R&D, or expect WiBro-style outcomes.
Where to Read in the Report
| Priority | Section | Why read it |
|---|---|---|
| π΄ Essential | Ch. 5 Β§3.2 | The Failure in the Market β the report's candid section on WiBro's subscriber ceiling |
| π΄ Essential | Table 5-4 | WiBro user and traffic situation 2010-2013 β the decline curve |
| π΄ Essential | Ch. 4 Β§3 | IT 839 strategy β the supply-side framework and the critics' verdict |
| π‘ Recommended | Ch. 3 Β§1.1 footnote 1 | Galapagos syndrome definition β the warning the report inherits from Japan |
| π‘ Recommended | Table 5-1 | Korea's WiBro coverage status β extensive coverage, thin subscription |
| βͺ Optional | Table 5-3 | LTE development by major global WiBro operators β how the global market shifted |
Avoiding WiBro-style failure is a matter of demand-side instruments: business-model design, lead-user procurement, regulatory mandates that create a domestic market large enough to bootstrap exports. These instruments are mechanically transferable. The political-economy problem is harder: the same select-and-focus state that succeeds at supply-side R&D is structurally weak at admitting demand-side mistakes, because admitting one means reopening the technology bet. Build feedback loops that can kill projects mid-stream, not only at completion.
For your country's most ambitious current ICT R&D programme, write one page identifying which actor in your economy will pay for the output. A lead customer? A regulated mandate? A subsidy with sunset clause? A public procurement programme? If no concrete actor can be named, the programme is closer to WiBro than to CDMA, and the demand-side design must be added before the next investment milestone. The page is the test of whether the programme is a market or only a laboratory.
The Whole Terrain of the Report
1 Introduction β Objectives and Achievements of Korean ICT R&D
1.1 Why this report matters now
Korea's ICT sector accounts for 12.3 % of national real GDP in 2012, attracts 44.4 % of all Korean R&D spending, and ranks first in the world in eight separate ICT product categories β mobile phones (32.5 %), smart phones (35.3 %), DRAM (65.7 % share with Samsung alone at 41 %), NAND flash memory, organic EL panels (93.5 %), LCD panels (24.6 % at LG Display), ultra-thin TV (27.7 %), and lithium-ion batteries (25.1 % at Samsung SDI). The Electronics and Telecommunications Research Institute (ETRI) topped the IPIQ Innovation Anchor Scorecardβ’ in both 2011 and 2012, with 703 patents and a technology-strength index of 466.79 β ahead of MIT (437.41), the University of California (433.26), Stanford (297.77), and Tsinghua (291.64). In ICT-related patent filings under the Patent Cooperation Treaty, Korea ranks third globally (28.0 in ten-thousands, 2005-2009) behind only Japan (67.5) and the US (49.5), and ahead of Germany, France, the UK, Canada and Finland combined.
None of this was the case in 1980. The report is the official KISDI/MSIP account of how the gap was closed β from a country still suffering chronic congestion of telephone calls in the early 1980s (more than 600,000 telephone-line orders in backlog, more than a year to install a new line, white-phone numbers trading on the black market at the price of a three-bedroom apartment in Apgujeong-Dong) to a country that achieved three world-firsts in fifteen years: the world's first commercial CDMA service in 1996, the world's first IEEE 802.16e-based WiBro equipment in 2004, the world's first commercial WiBro service in June 2006.
1.2 The four-period architecture the report imposes
The report divides Korean ICT R&D policy into four periods, each named after its dominant logic. The architecture is the report's primary analytical frame; every later chapter refers back to it.
| Period | Dominant logic | Headline outputs |
|---|---|---|
| 1960-1986 Β· Basic Competence Reinforcement | Device-centred, supply-focused. Foreign investment + GRI establishment + reverse engineering | KIST (1966), KECRI (1976, predecessor of ETRI), TDX-1 (1986), USD 10 billion electronics exports (1986), Samsung 64KDRAM (1983), 256KDRAM (1984), 1MDRAM (1986) |
| 1987-2003 Β· Infrastructure Construction | Network-centred, demand-focused. Catch-up + intensive investment in three strategic products | MIC established (1994), 4MD semiconductor (1988), TDX-10 (1991), world-first 256MD semiconductor (1994), world-first commercial CDMA (1996), ADSL commercial service (1999), CDMA-1x (2000), USD 50 billion ICT exports (2000) |
| 2004-2007 Β· Demand-Supply Mutual Growth | Value-chain integrated. IT 839 strategy and u-Korea; service-infrastructure-device coupling | WiBro IEEE 802.16e adoption (2005), DMB ETSI adoption (2005), WiBro ITU adoption (2007), narrowed technology gap with US (2003: 2.5 years β 2006: 1.6 years) |
| 2008-present Β· ICT Convergence | Convergence across industries. SAN, secondary battery, LED; the dismantling and reconstitution of the champion ministry | MIC dismantled (2008); SAN as IEC standard (2011); lithium-ion battery share 22 % (2008) β 40 % (2011); LED ranking 5th (2008) β 2nd (2010); MSIP reconstituted (2013) |
1.3 The development-stage comparison
Korea's ICT R&D trajectory followed three sequences that the report borrows from Kim (1997): transfer of foreign technology β diffusion of imported technology β indigenous R&D to improve and generate one's own technology. ETRI sat at the centre of each. The TDX (1986) is the case of reverse engineering aimed at localising technology embedded in imported AXE-10 design and engineering technologies bought from Ericsson. The CDMA (1996) is the case of commercialisation of a foreign company's patented technology β Qualcomm held the underlying CDMA theory and the US firm signed a joint research contract with ETRI in 1991, but the actual commercialisation was Korean. WiBro (2006) is the case of indigenous technology strategically developed into a global standard.
| Stage | Korean instance | Diagnostic question for your country |
|---|---|---|
| Reverse engineering | TDX-1 (1983) from AXE-10 design and engineering technologies bought from Ericsson | Do you have a GRI legally and technically able to disassemble imported equipment and produce a differentiated substitute? |
| Commercialisation of licensed foreign technology | CDMA (1996) from Qualcomm-licensed theory; 1,042 researchers and 99.6 billion KRW | Do you have a triangle of GRI + manufacturers + lead-customer firm large enough to commercialise an unproven licensed technology? |
| Indigenous technology to global standard | WiBro (2005 IEEE adoption); DMB (2005 ETSI, 2007 ITU) | Do you have a standards body operating inside the international standards bodies, not only inside your own borders? |
1.4 The financial signature
In 2011, Korea's total R&D expenditure was 48.89 trillion KRW (4.04 % of GDP). ICT R&D was 22.16 trillion KRW (44.4 % of total R&D, 1.8 % of GDP) β a 12.0 % year-on-year increase from 2010. The public-sector share of ICT R&D was 2.19 trillion KRW, 9.9 % of the ICT total, the remainder being private (largely Samsung at 11,892.4 billion KRW in 2012 alone, and LG). The public-sector share has stayed around 10 % since 2005, which means the Korean government has been the minority financier of its own ICT R&D for two decades β but the minority financier that planned and de-risked the projects that the private sector then scaled. The R&D intensity of the ICT industry was 17.4 % in 2009, the highest of any Korean industrial sector, against 13.1 % for automobiles and 9.3 % for medicine.
USD 10 billion in 1986 electronics exports. USD 50 billion in 2000 ICT exports. ETRI first in the IPIQ Innovation Anchor 2011-2012. Three world-firsts (256MD DRAM 1994, CDMA 1996, WiBro 2006). One unfinished bet (WiBro: 1 million subscribers against an 8 million target). The report celebrates the first four. The fifth β WiBro's market failure β is the most useful for developing-country readers.
The report's confident four-period architecture has one structural difficulty: it counts the WiBro IEEE adoption (December 2005) and the WiBro commercial-service launch (June 2006) as outputs of the Demand-Supply Mutual Growth period, but the WiBro market failure (subscribers peaking at 1,049,788 in 2012 against an 8 million target by 2010) is treated separately in chapter 5 Β§3.2. Read against itself, the report records the Demand-Supply Mutual Growth period as simultaneously the moment of greatest international standard-leading and the moment of greatest domestic-market failure. The four-period narrative does not resolve this tension; the practitioner has to.
2 Background and Needs β Why Korea Built an ICT R&D System
2.1 The 1980s starting point
The point of departure for Korea's ICT push was not a clean slate. It was a telecommunications system in crisis. Telephone subscribers had risen from 0.12 million in 1961 to 0.5 million in 1970 and 2.8 million in 1976, but supply lagged demand throughout. Over 600,000 telephone-line orders, more than one-fifth of installed capacity, remained in backlog at the start of the 1980s, and it took more than a year to arrange installation after the initial request (ETRI, 2012). Subscribers had a choice between the white phone β tradeable, transferable β and the blue phone β locked to the subscriber's location. The price of a white phone in the black market rose to the level of a three-bedroom apartment in Apgujeong-Dong, one of the wealthiest districts of Seoul (R. Shuster and C.W. Yeon, 2009). The bottleneck was the inadequate capacity of the existing electro-mechanical stepping switch telecommunications exchange (EMD, Strowger), which was not scalable: maintenance costs rose and quality fell as capacity expanded. The global telecommunications industry was simultaneously moving to digital switches.
The Korean government read this not as a problem to be procured but as a problem to be developed out of. Localise digital switch production technology β the policy decision that produced TDX-1 β was the response. The wider rationale, traced through chapter 2 of the report, was the World Bank framework for technology upgrading in developing countries: foreign equipment imports, multi-national corporations, and skilled diaspora are the channels through which globally available knowledge enters; absorptive capacity decides whether the entering technology stays. Korea's policy was to fund absorptive capacity through government research institutes before the private sector had reason to.
2.2 The innovation-mechanism table the report borrows from OECD
Chapter 2's anchor is Table 2-1, which the report adapts from OECD (2012). It maps innovation mechanisms onto country development stages and tags each with a Korean instance. The table is more useful than the gardener metaphor in chapter 6 because it lets a developing-country reader locate themselves on the matrix.
| Country stage | Innovation mechanism | Korean instance |
|---|---|---|
| Developing / low-income; emerging / middle-income | Adoption requires adaptation: innovation responds to specific local conditions | TDX-1 (1980s) β incremental innovation based on foreign technology, reverse-engineered from Ericsson AXE-10 |
| Developing / low-income; emerging / middle-income | Inclusive innovation for and by low- and middle-income households | TDX-1 installable in remote rural towns; social innovation introducing technical innovation in communities |
| Mainly middle-income, some low-income opportunities | Innovation capacity to escape the middle-income trap and compete with leading world innovators | CDMA commercialisation (1990s); semiconductor, TFT-LCD, handset niche-building |
| Mainly middle-income, some low-income opportunities | Niche competencies β growth and exports in sectors of comparative advantage | Semiconductor, TFT-LCD, handset development in the 1990s |
| Emerging / middle-income after initial progress | Climb the value ladder in global value chains; differentiate contributions | WiBro and DMB technology development in the 2000s |
| Frontier countries | Maintain competitiveness in frontier industries already at the frontier | Semiconductors, TFT-LCD, smartphones, lithium-ion batteries in the 2010s |
2.3 The industrial-policy / technology-policy braid
Korean ICT R&D did not develop as a standalone domain. It tracked industrial-policy phases that ran in parallel through the 1960s-2000s. Through the 1960s, industrial policy emphasised import substitution and export-oriented light industries; technology policy emphasised strengthening science-and-technology education and importing foreign technology. Through the 1970s, industrial policy shifted toward heavy and chemical industries; technology policy shifted to adapting imported technology and aligning research with industrial needs. Through the 1980s, industrial policy added technology-intensive industries and manpower development; technology policy moved to strategic technology development and the build-up of national R&D infrastructure. Through the 1990s and 2000s, industrial policy placed IT at the centre; technology policy followed with the Informatization Promotion Fund, the MIC, and the four-period architecture.
| Decade | Industrial-policy emphasis | Technology-policy emphasis |
|---|---|---|
| 1960s | Import substitution; export-oriented light industries; producer goods | Strengthen S&T education; deepen S&T infrastructure; promote foreign technology imports |
| 1970s | Heavy and chemical industries; capital import β technology import; export-oriented industrial competitiveness | Expand technical training; mechanism for adapting imported technology; research applicable to industrial needs |
| 1980s | Comparative-advantage industries; technology-intensive sectors; manpower development | Strategic technology development; national R&D infrastructure; reverse-engineering capability |
| 1990s | IT at the centre of industrial policy; chaebol-led ICT exports | MIC (1994); CDMA designation; Informatization Promotion Act (1995); Fund (1996) |
| 2000s | IT 839 strategy; u-Korea; value-chain integration | WiBro, DMB; transition from catch-up to leading; PPP financing |
2.4 The premise of an Informatization Promotion Fund
The report's anchor concept for chapter 2 is the Korean financing innovation. Under the slogan We were late in industrialisation; we will lead the information age, the government in 1991 enacted the Law on ICT Research and Development; in 1993 it created the ICT Promotion Fund; in 1995 it enacted the Informatization Promotion Act; in 1996 it reorganised the fund into the Informatization Promotion Fund with two accounts (General and R&D). The financing premise was explicit: government funds collected from the ICT industry through new common carrier selection may as well be reinvested into the ICT industry. This single sentence carries the report's political-economy argument: that infrastructure-funding instruments must be insulated from the general budget if they are to outlast political cycles.
Read chapter 2 not as historical context but as the architecture of every later policy. Three premises run through the whole report: (i) absorptive capacity is the bottleneck, not equipment access; (ii) public institutes precede private capacity, not the other way around; (iii) a ring-fenced sectoral fund outlasts a sponsoring ministry. The four-period story in chapter 1 and the gardener metaphor in chapter 6 sit on top of these three premises. If your country has none of the three, the chapter-3 strategy will not transfer; if it has all three, the chapter-3 strategy is mostly executable.
3 Strategy and System β The Five Pillars and the Fund
3.1 The five strategy pillars
Chapter 3 of the report organises Korea's ICT R&D strategy around five pillars, each addressing a different bottleneck. They are not chronologically separate β they accumulate. By the late 1990s all five operated simultaneously; by 2008 the dismantling of MIC tested whether the architecture could survive without its anchor ministry.
| Pillar | Instrument | Year established |
|---|---|---|
| 1. Government-organisation system responsive to ICT-market and technology change | MIC (1994); MIC dismantled 2008; reconstituted as MSIP 2013 | 1994 / 2008 / 2013 |
| 2. Government-funded research institutes (GRIs) | KIST (1966), KECRI (1976), KIET, KTRI (1977), KETRI (1981), ETRI merger (1985) | 1966-1985 |
| 3. Laws and institutions for ICT R&D promotion | Foreign Capital Inducement Law (1967); Electronics Industry Promotion Act (1969); Law on ICT R&D (1991); Informatization Promotion Act (1995); ICT Industry Promotion Act (2009) | 1967-2009 |
| 4. Systematic ICT R&D planning and managing institution | R&D management regulations amendment (2005); resident PM system; IT prediction and patent-trend research; technology road-mapping | 2005-2006 |
| 5. Cooperation system among R&D performers | Tripartite mechanism (GRI + industry + government, from TDX); PPP (from WiBro); R&D centres of foreign IT firms hosted in Korean clusters | 1980s-2000s |
3.2 The ministerial reorganisation history (Pillar 1)
Before the MIC was launched in December 1994, four ministries shared ICT responsibilities: MOCIE for equipment, MOST for software, MOC for communications networks, and the Ministry of Information for cable broadcasting. The fragmentation produced overlap and duplication. The MIC consolidated these functions into a single agency for the entire IT industry β equipment, software, networks, content, regulation, and promotion. MIC ran the e-government project, established the information superhighway, commercialised CDMA, designed effective competition in the telecommunications market, and authored the IT 839 and u-IT 839 strategies.
In 2008 the Lee Myung-bak administration dismantled the MIC on three grounds the report records candidly: the Galapagos syndrome β the WIPI wireless platform delayed smart-phone introduction in Korea, and WiBro had failed as the next-generation mobile communication; the ICT industry's growth had stagnated, and non-IT productivity through IT was now the priority; the regulator and the promoter could not be the same ministry. ICT responsibilities went to the Ministry of Knowledge Economy (MKE, industry and informatisation), the Ministry of Public Administration and Security (MOPAS, national informatisation), the Ministry of Culture, Sports and Tourism (MCST, digital content), and the Korea Communications Commission (KCC, broadcasting-communications convergence). The decentralisation generated two problems the report names: departments competed rather than cooperated, and large corporations led IT convergence without government direction. In 2013 the Park Geun-hye administration reconstituted ICT functions in the MSIP, which combined the former MIC functions with science-and-technology policy in a larger ministry.
'The Galapagos Syndrome was coined by Natsuno Takeshi, professor of Keio University, and refers to deterioration of the competitive power of Japanese mobile phones in the global market due to isolated evolution for the domestic market and negligence regarding international standards.' β Footnote 1, Chapter 3 of the report
3.3 GRI history (Pillar 2)
ETRI carries the institutional memory of Korean ICT R&D. Its lineage: KECRI (1976, electronic exchangers) β renamed KTRI when MOC took over in 1977 β renamed KETRI in 1981 after the merger with KERTI under MCI β finally merged with KIET (Korea Institute of Electronics Technology) and SERI (System Engineering Research Institute) in 1985 to become ETRI. Each merger added a research domain: communications, electronics, electric engineering, computing, systems. By 2012 ETRI held 703 active patents, more than any university or research institute on the IPIQ Innovation Anchor Scorecard. The state did not wait for absorptive capacity to emerge from the private sector; it built KIST in 1966, KECRI in 1976, 16 state-run research institutes by 1979, and then used them as the lead actor on every large national project.
3.4 The legal architecture (Pillar 3)
The legal architecture accumulated rather than replaced. The Foreign Capital Inducement Law (1967) simplified the import-export procedures of approved electronics firms β 22 multinational enterprises had entered Korea by end-1969 (vs. three before the law). The Electronics Industry Promotion Act (January 1969) gave MCIE legal authority over the electronics industry. The Law on ICT Research and Development (December 1991) created the legal basis for what became the ICT Promotion Fund. The Informatization Promotion Act (August 1995) reorganised the fund into the Informatization Promotion Fund with two accounts. The ICT Industry Promotion Act (August 2009) succeeded the Informatization Promotion Act as the legal basis after the MIC dismantlement. Each statute extended the previous one rather than repealing it; legal continuity outlasted ministerial discontinuity.
3.5 The financing innovation β Informatization Promotion Fund (Pillar 2 of strategy, the focus of chapter 3 Β§2)
The single most-cited Korean innovation in the report is the financing instrument. While most countries direct spectrum-auction revenue, licence fees and operator levies into the general budget, Korea created the Informatization Promotion Fund under the explicit premise that ICT-sector receipts should be reinvested into the ICT sector. The fund passed through three name changes (ICT Promotion Fund 1993-1995; Informatization Promotion Fund 1996-2004; ICT Promotion Fund 2005-present), three legal bases (Law on ICT R&D; Informatization Promotion Act; ICT Industry Promotion Act), and three parent ministries (MIC; MKE from February 2008; MSIP from March 2013).
| Account | Purpose | Source |
|---|---|---|
| General Account (abolished 2005) | Build broadband network and promote its utilisation; facilitate informatisation in public, regional, industrial areas; build a foundation for IT-industry growth | Government contribution; profit from fund operation; borrowings and other revenue |
| Research and Development Account | Develop IT technologies; nurture skilled IT resources; develop and set IT standards; build a foundation for IT research | Government contribution or loans; mandatory contributions from telecom operators; profit from fund operation; borrowings and other revenue |
3.6 The cooperation system (Pillar 5)
The cooperation architecture has three layers. Domestic-industry cooperation with multinational corporations was the 1960s-1970s instrument: foreign equipment firms brought to Korea by the 1967 Law provided technology that domestic engineers absorbed by disassembly and joint production. Tripartite cooperation among GRIs, private firms and government became the 1980s-1990s instrument, formalised through TDX (consortium of KTA, ETRI, Goldstar, Samsung, Daewoo Telecom, Hanwha Telecom) and extended through CDMA (lead-customer mechanism inside KMT). Public-Private Partnership (PPP) became the 2000s instrument: Samsung contributed 39 billion KRW to WiBro R&D 2003-2005; ETRI executed joint research with Samsung, KT, Hanaro, SKT and KTF. Local governments simultaneously built research clusters β Pangyo Techno Valley Global R&D Center (GE and others), Songdo u-IT cluster (Cisco) β to host R&D centres of foreign IT companies (Intel 2004; IBM 2004; Siemens 2004; HP 2004; Agilent 2005; Microsoft 2005; Sun 2005; AMD 2005; SAP 2006; Motorola 2006; Oracle 2006).
ICT Promotion Fund inflow totals (100 million KRW): 2008 β existing-stock years; 2009-2012 the steady-state operation under MKE management. The fund's scale is modest in absolute terms β public ICT R&D remained around 10 % of total Korean ICT R&D since 2005 β but the proportion is misleading. The public 10 % funded the technologies (TDX, CDMA, WiBro, DMB) that the private 90 % later scaled and exported.
Pillar 1 (Government Organisation System) is the only one that visibly failed once: the MIC was dismantled in 2008 amid the Galapagos-syndrome critique and the WiBro disappointment. The other four pillars survived β the GRI, the legal architecture, the fund, and the cooperation system carried on through five years of ministerial fragmentation until MSIP reconstituted the centre in 2013. The lesson for developing-country readers: the four non-ministerial pillars matter most for continuity, because a champion ministry can be dismantled overnight, but a Framework Act, a GRI, a Fund and a triangle architecture cannot.
4 Implementation β Four Periods of Korean ICT R&D Policy
4.1 Basic Competence Reinforcement (1960-1986) β building from zero
The first period's premise was that Korea had no domestic R&D capacity worth speaking of. The Foreign Capital Inducement Law of 1967 brought 22 multinational enterprises (one solely invested, two joint ventures had existed before) by end-1969; US firms made semiconductors, integrated circuits, transistors and computer-related products; Japanese firms made resistors, condensers, transistors and speakers. The 5-year Plan for Communications Businesses (1961-1981) used a US international development loan (1961), the 1st West Germany loan (1962), and a US AID loan (1965) to modernise telecommunications. Telephone lines grew from 123,000 in 1961 (0.44 per 100 persons) to 3,263,000 by 1981 (8.4 per 100 persons) β a 26.5-fold increase. Automation of telephones rose from 52.6 % to 87 %; long-distance lines from 1,777 to 88,571; DDD lines from zero to 26,320 across 147 areas.
The institutional moves were sequential. The Electronics Industry Promotion Act (January 1969) gave MCIE official authority. The 8-year Electronics Products Export Plan (1969-1976) targeted USD 400 million in electronics exports by 1976 with a KRW 14 billion injection; actual exports reached USD 1.036 billion in 1976, 260 % over target, and the electronics industry made up 17.6 % of total Korean exports that year. KIST was founded in 1966; KECRI (predecessor of ETRI) in 1976; 16 state-run research institutes were established between February 1966 and 1979. KECRI introduced electronic exchangers; KIET converted UNIX OS to 16-bit and 32-bit mini-computers and developed 8-bit and 16-bit mini-computers. By 1986 the electronics industry achieved USD 10 billion in exports and TDX-1 was developed.
| Element | Period 1 (1960-1986) β Basic Competence Reinforcement |
|---|---|
| Policy objective | Enhancement of basic competence for ICT R&D |
| Key policy tools | 5-year plan for electronic industry promotion (1966); Electronics Industry Promotion Act (1969); KIST (1966); KCRI/KECRI (1976); 5-year communications business plan (1961-1981); semiconductor industry promotion plan (1983); 1st and 2nd administration computerisation basic plans |
| Key success factors | Export-oriented policy + foreign-investment attraction + opening of domestic R&D centres; leap in the communications field |
| Implementing bodies | Science and Technology Department; Ministry of Commerce and Industry; Ministry of Postal Service |
| Limits and shortcomings | Distributed policy-promotion system across multiple ministries; lack of mechanism to secure resources |
| Outcome | Electronics industry achieved USD 10 billion in exports in 1986; TDX-1 developed |
4.2 Infrastructure Construction (1987-2003) β catch-up and three strategic products
The second period was the catch-up period. The 1st and 2nd Basic Plans for National Network Infrastructure (1987 onwards) built the network. The next-generation semiconductor technology development project (1993-1997) targeted DRAM leadership. MIC was established in 1994 as the consolidated ministry β a hinge institutional move. The Comprehensive Plan for Broadband Infrastructure (1995) and the Basic Plan for Informatization (1996-2000) carried the network deeper. Cyber Korea 21 (1999-2002), e-Korea Vision 2006 (2002-2006), and the Broadband IT Korea Vision 2007 (2003-2007) sequenced the infrastructure layer. The Informatization Promotion Fund's R&D account financed the technology layer.
Three strategic products anchored the period: semiconductors, computers, electronic exchangers. The achievements were measurable and sequential. 4MD semiconductor in 1988. TDX-10 in 1991. Mainframe computer II Ticom in 1991. World-first 256MD semiconductor in 1994. World-first commercial CDMA in 1996. CDMA international standard (Europe and US) in 1998. ADSL commercial service in 1999. Synchronous CDMA-1x service in 2000. CDMA-1x EV in 2002. Terrestrial DMB in 2003. By 2000 the ICT industry surpassed USD 50 billion in exports and Korea ranked first globally in ADSL penetration and internet usage.
| Element | Period 2 (1987-2003) β Infrastructure Construction |
|---|---|
| Policy objective | Focused advance-technology catch-up; build world-class IT infrastructure |
| Key policy tools | Next-generation semiconductor project (1993-1997); 1st/2nd basic plans for national network infrastructure (1987-); MIC setup (1994); broadband infrastructure plan (1995); Basic Plan for Informatization (1996-2000); Cyber Korea 21 (1999-2002); e-Korea Vision 2006 |
| Key technology outcomes | 4MD semiconductor (1988); TDX-10 (1991); Mainframe II Ticom (1991); 256MD semiconductor world-first (1994); CDMA commercialisation world-first (1996); ADSL (1999); CDMA-1x (2000); CDMA-1x EV (2002); Terrestrial DMB (2003) |
| Trade indicators | USD 50 billion in ICT exports by 2000; first in global ADSL penetration; first in internet-usage rate |
| Limits | Catch-up bias; technology-development leadership not yet acquired; foreign-proprietary-technology commercialisation rather than indigenous origination in most cases |
4.3 Demand-Supply Mutual Growth (2004-2007) β IT 839 and the move to standard-leading
The third period was the moment Korea claimed standard-leading status. The IT 839 strategy (2004-2006) and the u-IT 839 strategy (2006-2007) consolidated supply and demand under a value-chain framework: eight new services, three essential infrastructures, nine future growth-engine products. The u-Korea plan extended the framework. The headline outputs were standards-body adoptions: WiBro adopted as IEEE 802.16e in December 2005; DMB adopted as European standard by ETSI in July 2005; WiBro adopted as ITU international standard in October 2007. The technology gap with the US narrowed from 2.5 years (2003) to 1.6 years (2006). The world's first WiBro Internet connection occurred on 27 November 2004 through an ETRI prototype; the world's first commercial WiBro service launched in June 2006 by KT and SKT in Seoul subway lines and college districts.
The period's critics were already audible during its operation. Both IT 839 and u-IT 839 supported highly competitive products made by large corporations β but there was insufficient demand for the new services. The government placed too much focus on early adoption while neglecting business-model development. WiBro, adopted in 2006, aimed at 8 million subscribers by 2010 but barely reached 1 million by 2012; DMB failed to create a business model and resulted in impaired capital for some operators. The criticism, combined with stagnation in the IT industry and acceleration of IT convergence, led directly to the dismantling of MIC in 2008.
4.4 ICT Convergence (2008-present) β fragmentation, reconstitution, and the creative-economy frame
The fourth period began with dismantlement and ended with reconstitution. From 2008 to 2013, ICT R&D was distributed among MKE (industry, R&D), KCC (broadcasting-communications convergence, radio waves), MCST (digital content) and MOPAS (national informatisation). The New IT Strategy (2009), the IT R&D Development Strategy (2010), and the IT Korea Future Strategy (2010) ran across these ministries. Investment scale rose: government ICT R&D totalled KRW 5,054.5 billion across the period, a sharp increase from the previous administration's budget. Outputs included SAN (Ship Area Network) adopted as IEC international standard in 2011 and used by AP Moller (the world's largest shipping company); lithium-ion secondary battery share rising from 22 % in 2008 to 40 % in 2011; LED ranking improving from 5th in 2008 to 2nd in 2010.
In 2013 the Park Geun-hye administration reconstituted ICT in the MSIP β a ministry larger than the former MIC, combining MIC functions with science-and-technology policy. The MSIP announced the Mid-to-Long Term ICT R&D Strategy (2013-2017), branded ICT-WAVE: World's best ICT; Activating R&D ecology; Vitalising industry; Enhancing life. Five priority fields were named: content, platform, network, device, and information protection (C-P-N-D-S). Targets: technology-commercialisation ratio from 8.2 % (2013) to 35 % (2017); ICT R&D investment productivity from 3.42 % to 7 %; international-standard patent ranking from 6th to 4th.
'Criticisms exist over the R&D achievements of this period that there were more noticeable performance goals obtained, such as TDX development, CDMA commercialisation, and terrestrial DMB's adoption as a global standard. Basic R&D investment during the period was insufficient to gain enough core technologies, and support for technology commercialisation was inadequate as well.' β MSIP (2013b), as paraphrased in the report
| Period 3 (2004-2007) | Period 4 (2008-present) |
|---|---|
| IT 839 strategy; u-IT 839; u-Korea | MIC dismantled 2008; New IT Strategy 2009; IT R&D Development Strategy 2010; ICT-WAVE 2013 |
| WiBro IEEE 802.16e (2005); DMB ETSI (2005); WiBro ITU (2007) | SAN IEC standard (2011); secondary battery 22 %β40 %; LED 5thβ2nd |
| Technology gap with US: 2.5y (2003) β 1.6y (2006) | Government ICT R&D total KRW 5,054.5 billion across period |
| Strength: standards-body adoption sequence; Weakness: WiBro and DMB market failures | Strength: ICT convergence across industries; Weakness: fragmented ministerial responsibility 2008-2013 |
4.5 The three iconic cases (introduced; detailed in chapter 5)
Three case studies anchor the report's evaluation. TDX (1986 commercial deployment) β reverse engineering of imported AXE-10 design and engineering technologies; the first instance of the tripartite mechanism. CDMA (1996 world-first commercial service) β commercialisation of Qualcomm-licensed theory; the lead-customer Project Administration Division model. WiBro (2006 world-first commercial service) β indigenous technology developed into a global standard; the case in which technical success and market failure coexisted. Read chapter 4 as the policy-architecture frame; chapter 5 as the cases that test it.
The four-period architecture cleanly separates output achievements (WiBro IEEE adoption, period 3) from output disappointments (WiBro market failure, also period 3 but discussed in chapter 5 Β§3.2). This separation lets each period's headline statistic read as a success. A practitioner-oriented reading would group both achievement and disappointment into one verdict per period β and would notice that period 3, the moment of greatest international standard-leading, is also the moment of greatest domestic-market failure. The reading the report does not offer is the one the practitioner needs.
5 Outcomes β Three Cases that Test the Architecture
5.1 TDX (1981-1986) β the prototype of every later success
In the early 1980s Korea was still suffering chronic congestion and poor telephone-call quality. More than 600,000 telephone-line orders were in backlog. The Korean government decided to localise digital-switch production technology and formed a research consortium consisting of Korea Telecommunications Authority (KTA), ETRI, and four private firms (Goldstar, Samsung Electronics, Daewoo Telecom, Hanwha Telecom). ETRI purchased AXE-10 digital-switching design and engineering technologies from Ericsson and used them as the starting point for a reverse-engineering effort. A prototype, TDX-1X, was developed in July 1982. The differentiated TDX-1, judged more effective than AXE-10, was developed in December 1983. ETRI transferred the TDX-1 technology to the four private manufacturers, and the consortium continued to produce TDX-1A in 1986. The TDX-1A was quickly disseminated to manufacturers for mass production, initially targeted at rural and small-city markets; only after the experimental installations succeeded did Korea Telecom commit to large-scale installation in late 1986.
The Korean government supported the local manufacturers with three concrete instruments. (i) Import limits on foreign switches after local development was realised β a quota effect rather than a tariff. (ii) A quota system for the market shares of the four manufacturers, to incentivise learning and encourage investment. (iii) A special procurement law guaranteeing sustained funding for ETRI by requiring TDX manufacturers to allocate a portion of their profits to ETRI's future research. The TDX request β KRW 24 billion for a single research project β was unimaginable at the time; the government granted it despite ETRI's lack of prior digital-switching experience. ETRI estimates the cumulative economic benefit of TDX through 2011 at KRW 20.5 billion. Korea became the tenth country to have ever produced and the sixth to export a digital exchange system, leapfrogging directly from electro-mechanical to digital switching without an intervening analogue stage.
5.2 CDMA (1989-1996) β the move from reverse engineering to commercialisation
CDMA commercialisation ran from 1989 to 1996 through a mega-project that mobilised 1,042 researchers and 99.6 billion KRW. Unlike TDX, the technology was not embedded in any commercial product yet; it existed as a theoretical patented concept held by the small American firm Qualcomm. ETRI signed a joint research contract with Qualcomm in 1991. The Ministry of Information and Communication designated CDMA as the Korean national standard in 1993 β two years before global commercialisation existed anywhere. The choice was contested. MCIE preferred the proven TDMA, on the grounds that development could complete faster and many countries had already adopted it. MIC argued the technical superiority of CDMA (10Γ analog capacity, 3Γ TDMA capacity, better radio-wave efficiency and base-station assignment), the meaning of being first to commercialise the newest digital mobile-communications system in the world, and active participation from domestic firms. The CDMA commercialisation schedule was shortened by two years to complete deployment in 1995-1996 (original plan: 1997).
The R&D structure was the key. Development was led by ETRI and four manufacturers (Hyundai Electronics, LG Information and Communications, Samsung Electronics, Maxon Electronics), with target commercial service by early 1996. In September 1993 the government established the Mobile Communication Technology Development Project Administration Division within Korea Mobile Telecommunications (later renamed SK Telecom). This was the lead customer for CDMA products. It thoroughly managed the entire R&D process, ensuring commercialisation tests proceeded on the shortened schedule. The handset subsidy β two-year exclusive contracts in exchange for free handsets β created the initial market. ETRI researchers were dispatched to research departments of partner firms for joint research; ETRI shared research outputs in real time with system and equipment makers in what the report describes as successful concurrent engineering of R&D, field tests and commercialisation. ETRI estimates the cumulative economic value of CDMA through 2011 at 54.392 trillion KRW β 540 times the 99.6 billion KRW investment.
'There are some caveats about the unfairness done to subscribers who were not subsidized or relatively less subsidized; nonetheless the handset subsidy was an effective policy for creating an initial demand for relatively expensive services.' β Report, on the handset-subsidy mechanism that underwrote CDMA commercialisation (paraphrased from Han, 2007)
5.3 WiBro (2003-2013) β the case that tests every assumption
WiBro is the report's most candid case study. It is also the case the Companion gives the most weight to, because it tests the boundary between technical success and market success. The HPi (High-speed Portable Internet) project began in 2003 under ETRI supervision with Samsung Electronics, KT, Hanaro Telecom, SK Telecom and KTF. From 2003 to 2005 a total of KRW 39 billion was invested; Samsung contributed an additional KRW 3 billion under the PPP system. On 27 November 2004 the world's first WiBro Internet connection was made through an ETRI prototype base station and devices. WiBro made its global debut at the November 2005 APEC meeting and was successfully demonstrated at the 2006 Torino Winter Olympics. The IEEE adopted Mobile WiMAX (802.16e) β the WiBro technology β as a global standard in December 2005, ten years after ETRI's CDMA world-first. In June 2006 KT and SK Telecom launched commercial WiBro services in Seoul subway lines and college districts. ITU adopted WiBro as the 6th IMT-2000 standard in October 2007. In January 2012 ITU adopted WiBro-Advanced alongside LTE-Advanced as 4G standards.
The market never materialised. The subscriber curve, traced in Tables 5-1 and 5-4 of the report, shows the failure. WiBro subscribers reached 454,994 in 2010, peaked at 1,049,788 in 2012, then declined: 1,046,639 in January 2013; 1,047,078 in March 2013; 1,043,598 in May 2013; 1,031,381 in July 2013. The original target had been 8 million subscribers by 2010 β the actual peak was one-eighth of the original target, and the curve was descending. KT WiBro covered 83 cities and 88.2 % of the population; SKT WiBro covered 83 cities and 72.4 % of the population; coverage was not the problem. LTE subscribers, by contrast, rose from 1.19 million in December 2011 to 23.99 million by July 2013. WiBro's share of total wireless traffic fell from 9 % (January 2013) to 6.2 % (December 2013) to 5.1 % (July 2013). Samsung, having previously dominated WiBro equipment exports to 44 countries by 2011 (KRW 3.05 trillion cumulative export), stopped its WiBro business to focus on LTE.
| Year | WiBro subscribers (Korea) | LTE subscribers (Korea) | WiBro share of wireless traffic |
|---|---|---|---|
| 2010 | 454,994 | β | β |
| 2011 | 798,363 | β | β |
| December 2011 | β | 1.19 million | β |
| 2012 | 1,049,788 (peak) | β | β |
| January 2013 | 1,046,639 | β | 9.0 % |
| July 2013 | 1,031,381 | 23.99 million | 5.1 % |
| Original target (2010) | 8,000,000 | n/a | β |
5.4 What the WiBro case did contribute
The report mounts a partial defence of WiBro in chapter 5 Β§3.2 that the Companion accepts as legitimate. WiBro was the first South Korean mobile-communication technology adopted as an international standard; it facilitated domestic communication-technology development and competitiveness. The OFDM and MIMO technologies first used in WiBro were further used in LTE, playing the role of bridge for LTE technological advancement. Korean firms accumulated multiple LTE patents on the back of WiBro development. Korean firms dominated the initial WiBro equipment market and expanded equipment exports; the number of countries with Korean WiBro presence rose from 4 (2006) to 44 (2011), with cumulative export of KRW 3.05 trillion. WiBro was the first opportunity for Samsung to advance into the global mobile-communications equipment market, previously dominated by Ericsson and others. By August 2006, WiBro made inroads into the US market β the biggest and most advanced ICT market in the world. The technology mattered; the market for the technology did not develop.
5.5 Cross-case verdict
The three cases reveal an underappreciated pattern. TDX (reverse engineering) and CDMA (commercialisation of licensed theory) both succeeded as technology and as market because both had a lead customer with regulatory backing β Korea Telecom for TDX, KMT/SKT (with the embedded Project Administration Division) for CDMA. WiBro succeeded as technology and failed as market because it had a more diffuse customer side β KT and SKT both as commercial operators rather than as state-anchored lead customers, with no equivalent of the embedded Project Administration Division to enforce demand-side delivery. The supply-side architecture was identical across all three cases; what differed was the demand-side architecture. The lesson reads naturally only if WiBro is given the same analytical weight as TDX and CDMA β which the report does in chapter 5 but not in the gardener-metaphor wrap of chapter 6.
The TDX success factor was government trust in unproven domestic R&D capacity: the KRW 24 billion bet on ETRI without prior digital-switching experience. The CDMA success factor was the embedded lead customer: the Project Administration Division inside KMT that translated user requirements directly into engineering specifications and held the manufacturers to schedule. The WiBro success factor β the part that worked β was simultaneous domestic and international standards processes via TTA. The WiBro failure factor was the absence of a CDMA-style embedded lead customer; the operators were not the same kind of state-anchored institution they had been in 1993.
Four conditions limit transfer of the TDX-CDMA-WiBro experience to today's developing countries. State capacity for long-cycle R&D bets: Korea sustained TDX through five years, CDMA through seven, WiBro through four β across multiple administration changes β without political reversal of the funding line. A domestic lead-customer firm: KMT/SKT had the scale to anchor CDMA commercialisation; Korea Telecom had the scale to anchor TDX procurement. Smaller markets need substitutes (multilateral procurement; regulated mandates; strategic-export anchoring). A standards body active inside global standards bodies: TTA's simultaneous national and international tracks for WiBro is not easily replicable for countries without standing in IEEE/ITU/ETSI working groups. A private sector ready to scale public R&D outputs: Samsung and LG's ability to commercialise public outputs at global scale is the precondition the report does not name. Without all four, the architecture transfers but the outputs do not.
6 Conclusion β Lessons, Constraints and the Unfinished Agenda
6.1 Overall assessment
The aggregate outcome of Korean ICT R&D policy is undeniable. Three world-firsts traced directly to public-led national projects (256MD DRAM 1994; CDMA 1996; terrestrial DMB 2003; WiBro IEEE 802.16e 2005). An ETRI that ranks first globally on the IPIQ Innovation Anchor Scorecard 2011-2012 with 703 patents. A national R&D intensity of 4.04 % of GDP (2011), the highest in the OECD. A private sector with eight world-leading product positions in 2012. An economy that recycled spectrum-auction revenue into ICT for two decades through a Fund insulated from the general budget. The cost is also undeniable, but less prominent in the report: WiBro's 1-million-subscriber ceiling against an 8-million target; the Galapagos-syndrome critique that contributed to the MIC dismantlement in 2008; the polarisation between hardware (large-conglomerate-led) and software (small-and-medium-enterprise-led, undercapitalised) that the report admits only in its final paragraph. A balanced one-sentence summary would say: Korea built world-leading ICT R&D capacity by sustaining a four-pillar architecture across three decades; the speed and concentration of the supply-side build produced demand-side mismatches (WiBro, DMB) and structural polarisation (hardware-versus-software, conglomerate-versus-SME) that the report tucks into footnotes and last paragraphs.
6.2 Constraints and how Korea addressed them
| Constraint | Korean response | Honest verdict |
|---|---|---|
| No domestic R&D capacity in ICT in the 1960s | Founded KIST (1966), KECRI (1976), 16 state-run institutes by 1979; staffed with returning diaspora; gave them lead role on every large national project | Worked because returning scientists existed; not all developing countries today have an equivalent diaspora to recall |
| No financing instrument suitable for long-cycle R&D | Created ICT Promotion Fund (1993), Informatization Promotion Fund (1996); ring-fenced spectrum-auction revenue and operator levies | Highly transferable in principle; in practice requires Framework Act, MoF concession, and inter-ministerial oversight that not all countries can muster |
| No technology-development experience suitable for global standards bodies | Founded TTA; ran simultaneous national and international standards processes; let MIC designate national standards ahead of international adoption | Worked for CDMA, WiBro, DMB; the WiBro market failure shows that international adoption is not the same as market acceptance |
| Risk of GRI-industry-state cooperation devolving into silos | TDX consortium model; embedded Project Administration Division inside CDMA lead customer; PPP for WiBro | Highly transferable on supply side; lead-customer architecture harder to replicate without a dominant domestic operator |
| Continuity across administration changes | Four non-ministerial pillars (GRI, Fund, legal architecture, cooperation system) carried the structure through the 2008-2013 MIC interregnum | Worked because the four pillars were already mature in 2008; transferable as a design principle (do not let any one ministry be the single point of failure) |
| Galapagos syndrome β domestic technology stranded from global market | Pushed WiBro and DMB into IEEE/ITU/ETSI standards adoption; promoted equipment exports to 44 countries by 2011 | Worked at standards level; failed at user-experience level β WiBro never displaced LTE; the lesson is to test demand-side fit before committing to a standard-leading strategy |
6.3 The unfinished agenda
The report ends with three open agenda items that the Companion is more candid about than the gardener metaphor allows. Hardware-software polarisation is unresolved. Korean private-sector ICT R&D is led by a few large conglomerates focused on hardware. The report admits this in its last paragraph: Korea's SW sector accounted for 3.4 % of total private R&D in 2008, second-lowest after Japan; the US SW R&D expenditure was 36-fold higher than Korea's; the SW R&D intensity in Korea (6.7 %) was misleadingly high only because SW value-added was so low (1.44 %). The 1960s-1970s select-and-focus strategy that built the hardware-export base now constrains the software-and-services future. Conglomerate-SME polarisation is unresolved. Samsung's 2012 R&D investment alone (KRW 11,892.4 billion) dwarfs the entire public ICT R&D budget. The transferability claim is not stress-tested. The report describes Korea's economic miracle and rapid private-sector scale-up as success factors rather than as boundary conditions, leaving developing-country readers without a clear answer to the question what if my country has neither the conglomerates nor the growth nor the lead-customer firms.
6.4 What Korean ICT R&D really teaches
The strongest reading of the report is not that Korea succeeded by aid concentration on a few large national projects β that is the report's preferred reading, but it works only with the conglomerate-scale-up assumption hidden behind it. The stronger reading is that each phase produced an institutional residue that survived political turnover: KIST and ETRI outlasted any one administration; the Informatization Promotion Fund outlasted three name changes, three legal bases, and three parent ministries; the tripartite cooperation mechanism outlasted MIC itself. Institutions accumulate; political moments and individual ministries do not. The three world-firsts (256MD DRAM, CDMA, WiBro) are visible; the institutional architecture under them is what travels.
If you have one week back in your office, do not draft the list of technology priorities. Draft the Framework Act and the Fund design that will outlast you. Korea produced three world-firsts on top of (i) a Framework Act ring-fencing a sectoral revenue stream, (ii) a GRI with a clear lead role on each large national project, and (iii) a tripartite cooperation mechanism with an embedded lead-customer institution. Without those three institutional anchors, the same priorities and the same investment would have produced parallel pilot projects, not a national innovation system.
6.5 First action β concrete and specific
This week, write a single page on the financing instrument your country uses for ICT R&D. Two questions: who owns the ICT-sector revenue (spectrum auctions, licence fees, operator levies, USO contributions) β the Ministry of Finance or your ministry? And who decides the multi-year line β the annual budget process or a Framework Act? If the answers are MoF + annual budget, you have a discretionary line, not a Fund. The page is the seed of every later decision β GRI funding, multi-year project commitments, foreign-partner credibility, the timing of standards-body engagement. Most ICT R&D programmes that have failed in the last twenty years failed not on technology choice but on the absence of this financing settlement.
This Companion is a learning aid produced for the Ministry of Strategy and Finance Β· Korea Information Society Development Institute (KISDI) Β· KDI School of Public Policy and Management, KSP Knowledge Sharing Program β ICT R&D System and Policy (2014). Use alongside the original report.
What This Report Does Not Say
1 Success Bias β What the Report Says and What It Leaves Out
The purpose of this report is "to share Korea's success with developing countries." Look for the traces that purpose has left in the text. A purposeful text always makes choices about what to include and what to omit. A report having success bias does not mean it lies β it means it selects. Reading well is reading what is selected against.
| What the report says | What the report does not say |
|---|---|
| "WiBro adopted as IEEE 802.16e in December 2005 and as ITU standard in October 2007 β a transformation of Korea's ICT status from imitator to leader." | WiBro subscribers peaked at 1,049,788 in 2012 against an 8 million target by 2010. Samsung exited the WiBro business to focus on LTE. The report places these facts in chapter 5 Β§3.2 but the chapter 4 narrative and the chapter 6 gardener metaphor do not reckon with them. |
| "ETRI ranked first in the IPIQ Innovation Anchor Scorecard 2011 and 2012 with 703 patents, ahead of MIT and Stanford." | The IPIQ scoring privileges patent counts and technology-strength indices over industrial impact (where MIT scores 2.46 to ETRI's 0.96). The headline ranking is technically correct but rests on metrics that under-count the gap between patent volume and market influence. |
| "The Informatization Promotion Fund was a uniquely Korean financing innovation that recycled ICT-sector revenue back to ICT R&D." | The fund's premise β that spectrum-auction revenue should be reinvested in ICT β is "still controversial in many countries since the money from spectrum auctions is usually used to finance the general budget." The report admits this in chapter 6 Β§4 but does not say how Korea overcame the MoF resistance, which is the part the developing-country reader needs. |
| "Korea's ICT R&D policy followed a typical path of technological absorptive capacity building, catching-up with foreign technology, and indigenous R&D." | Footnote 3 of chapter 6 admits that "high-caliber scientists and engineers trained in prominent foreign universities, who came back to Korea with the establishment of GRIs in the 1960s and 1970s, played a pivotal role." The skilled-diaspora prerequisite is conceded only in a footnote and is absent from the main lessons. |
| "The MIC was disbanded in 2008 amid stagnation in the ICT industry and acceleration of IT convergence." | The Galapagos-syndrome footnote in chapter 3 reveals the deeper diagnosis: the WIPI exclusive wireless platform delayed smart-phone introduction in Korea, and WiBro had failed. The MIC was dismantled at least partly because its select-and-focus strategy produced standards-body wins that did not translate to user uptake. |
| "The role of the government in ICT R&D is to focus on areas where the private sector cannot or will not invest β high-risk, basic, long-cycle, public-interest research." | The last paragraph of chapter 6 admits that Korean private-sector ICT R&D is dominated by a few conglomerates focused on hardware, with software-and-service capabilities undercapitalised. The select-and-focus state strategy did not produce a balanced private sector; it produced a polarised one. The lesson is delivered as a warning to developing countries but not as a self-criticism. |
Find Success Bias for Yourself
For each pattern below, find one quotation from the report, write it down, and write the question that hides behind it.
| Pattern of statement | What to look for in the report |
|---|---|
| Standards adoption stated, market reception omitted | Find sentences celebrating IEEE/ITU/ETSI adoption of WiBro and DMB. Then read chapter 5 Β§3.2 for the subscriber curve. Does the celebration sit comfortably alongside the curve? |
| Gardener metaphor as substitute for analysis | Chapter 6 (Preparing the Ground Β· Nurturing the Soil Β· Removing the Weeds Β· Watering Innovation) presents itself as a synthesis. Re-read it as a metaphor that obscures the active select-and-focus role of the state. What policy choice does the metaphor make invisible? |
| Conglomerate scale presented as transferable lesson | The report attributes ICT R&D success to public-private cooperation. But the private side was Samsung, LG, Hyundai. Without conglomerates at that scale, would the same architecture produce the same outputs? |
| Counter-evidence in footnotes | Footnote 1 of chapter 3 (Galapagos syndrome) and footnote 3 of chapter 6 (skilled diaspora as success precondition) are the report's two clearest counter-narratives. Read them after the main text; they re-frame the chapter you just read. |
| Causation conflated with succession | The report attributes Korea's ICT exports rising from USD 10 billion (1986) to USD 50 billion (2000) to the policy architecture. But Samsung's independent rise as a global memory-semiconductor leader, and the 1997 financial-crisis-era currency depreciation, also drove that rise. How much of the post-1990 success is the report's policy architecture, and how much is exogenous? |
2 Check Your Understanding
Answer the questions below to check your grasp of the report and this Companion.
3 Scenario Writing β What Would You Have Done?
This scenario presents an implementation barrier encountered in the field. The goal is to engage with real-world complexity, not textbook solutions. Read the questions below and write your response freely. Nothing you write is saved or shared.
Scenario
You are Ravi Subramaniam, a 45-year-old Director of ICT R&D Policy at the Ministry of Communications and Information Technology in a lower-middle-income country. Following a successful spectrum auction that raised the equivalent of USD 320 million, the Cabinet has asked your ministry to prepare, within six weeks, a proposal for a dedicated ICT R&D fund modelled explicitly on Korea's Informatization Promotion Fund. A consulting firm has produced a 60-page draft Framework Act, lifted in large parts from the 1995 Korean Informatization Promotion Act, and has identified two priority technology bets β a national 5G standards-leading project, and a domestic cloud-platform development project β each requested at USD 80 million over five years.
Three pressures arrive on the same Wednesday. The Minister of Finance writes that the spectrum revenue is already committed to two fiscal-year deficit-reduction lines; she will consider ring-fencing 30 % (USD 96 million) but only if the Framework Act includes a five-year sunset clause and explicit Treasury approval of every individual project above USD 5 million. Separately, a senior advisor from your country's science academy β herself an ETRI alumna who returned home in 2010 β telephones to warn that the 5G standards-leading project will replicate the WiBro pattern: technical success without market acceptance, because your country has no domestic mobile-network equipment manufacturer at the scale of Samsung. The consulting firm's lead designer separately asks whether your government will, "in line with the Korean practice of designating CDMA before global commercialisation existed," pre-emptively designate a national 5G technical standard before the ITU completes its 2025 deliberations.
The Minister of Finance wants your response by Friday. The Cabinet wants a complete proposal by month-end. The ETRI alumna wants you to publish her warning in the technical annex. What do you write?
Core Tensions in This Scenario
| Conflicting Values | Fundamental question |
|---|---|
| Standard-leading ambition vs. market-fit caution | Korea's pre-emptive CDMA designation worked in 1993; the pre-emptive WiBro push of 2005 produced an IEEE standard but no domestic market. Without a domestic equipment manufacturer at Samsung's scale, can your country survive a WiBro-style outcome β and what is the cost of choosing not to try? |
| Ring-fenced Fund vs. Treasury oversight | The Korean Informatization Promotion Fund worked because it was insulated from year-by-year Treasury negotiation. Accepting a five-year sunset clause and per-project Treasury approval may convert the Fund back into a discretionary line; refusing the conditions may lose the spectrum revenue entirely. |
| Supply-side investment vs. lead-customer architecture | The CDMA-vs-WiBro lesson is that supply-side R&D succeeds commercially only when paired with a demand-side institution (lead customer, regulated mandate, procurement programme). The two USD 80 million bets the consulting firm has identified are both supply-side. What demand-side investment must be added before the Fund is launched? |
Connection to Korean Experience
Ravi's situation is close to the situation Korea was in around 1991 when the Law on ICT R&D was first enacted, with four differences. First, modern fiscal frameworks impose Medium-Term Expenditure Framework constraints and PFM transparency requirements that did not constrain the early-1990s Korean Treasury. Second, the standards-body landscape has hardened: the IEEE 802.16e adoption that WiBro achieved in 2005 reflected a more open standards process than the closed 5G standards process of the 2020s, in which incumbent equipment vendors hold structural advantage. Third, the conglomerate ecosystem that made CDMA and WiBro commercialisation possible (Samsung, LG, Hyundai) does not exist in most developing countries today; the Korean architecture transfers but the Korean scale does not. Fourth, the failure mode of WiBro is no longer hypothetical β it is documented in the report Ravi is reading. The Korean model is a tempting template precisely because its successes are well-known; the practitioner has the advantage of also knowing the failures.
Re-read the scenario above and write down β on paper or in a document β how you would act if you were Ravi. There is no right answer. Draw on your own experience and home-country context; aim for 50β100 words. Nothing you write is saved.
Questions to consider β β Would you accept the Minister of Finance's 30 %-ring-fence with sunset clause and per-project Treasury approval, or hold out for unconditional ring-fencing of 50 % over a permanent statutory horizon β and on what basis would you defend either choice to the Cabinet? β‘ Would you pursue the consulting firm's 5G standards-leading bet, the cloud-platform bet, both, or neither β and what demand-side instruments (lead-customer procurement, regulated mandates, public-cloud anchor tenants) would you propose alongside whichever supply-side bet you keep? β’ Would you pre-emptively designate a national 5G technical standard before ITU completes its 2025 deliberations, or wait β and how do you weigh the WiBro precedent against the CDMA precedent in your reasoning? β£ Have you seen a Fund-design negotiation between a sectoral ministry and a Ministry of Finance in your country? What did the negotiating official actually obtain, and what concession surprised you in retrospect?
4 Assignments
- a.Summarise the chosen footnote in 3β5 sentences. Quote one original sentence and identify exactly where that material appears, or fails to appear, in the main text of the chapter.
- b.Is this issue specific to Korea, or could it occur in a similar form in your own country? Compare against one specific case from an ICT R&D or standards-leading programme you know.
- c.Why do you think the report places this material in a footnote rather than in the main lessons chapter? What would change in the reader's overall impression if it were moved into the main text?
- a.Choose one Korean institution or instrument that corresponds to your type, and evaluate its transferability along three dimensions: legal basis, financing, demand-side architecture.
- b.What must absolutely be modified before transfer, and what can be imported substantially as-is?
- c.Write the "First Action" in one sentence. It must specify a responsible person, a deadline, and one success metric.
- β Current diagnosis β which of the five problem types applies, with evidence from the report and from country data
- β‘Two or three Korean institutions or instruments worth learning from β why these, with transferability assessment
- β’Transfer conditions and required modifications β what to change from the Korean original, and why (consider especially the absence of conglomerate-scale private partners)
- β£Roadmap β what to do in years 1β2, 3β5, with the sequence justified (Framework Act before Fund; Fund before GRI; GRI before national project)
- β€Limits of this report β what cannot be learned from it, and where you would look to supplement (especially on WiBro-style market failure, on Galapagos-syndrome risk, and on the role of skilled diaspora)
5 Further Reading
- Linsu Kim, Imitation to Innovation: The Dynamics of Korea's Technological Learning (Harvard Business School Press, 1997). The single most-cited source inside the report. The three-stage absorptive-capacity framework (transfer of foreign technology β diffusion β indigenous R&D) that organises the report's narrative comes from this book. Essential background for any policy memo on Korean ICT R&D.
- World Bank, Innovation Policy: A Guide for Developing Countries (World Bank, 2010). The source of Figure 2-1 of the report and of the gardener metaphor in chapter 6. Read it for the framework Korea places itself inside; useful for understanding how the KSP report positions Korean experience within the global development-policy conversation.
- Sangwon Ko et al., ICT R&D System and Industrialization Strategies, KISDI (2012, in Korean). The technical foundation of the present KSP report. Provides the detailed financial and institutional reconstructions that the KSP report compresses for the international reader; essential if you read Korean.
- In-Soo Han, "Success of CDMA Telecommunications Technology in Korea: The Role of the Mobile Triangle", in Mahlich and Pascha (eds.), Innovation and Technology in Korea: Challenges of a Newly Advanced Economy (Physica-Verlag, 2007). The most-cited single source on the CDMA case. Documents the Project Administration Division mechanism and the handset-subsidy design in detail; the empirical foundation for the report's chapter 5 Β§2.
- S. Mani, "Effectiveness of Innovation Policy Instruments: A Case Study of CDMA Technology Development in the Republic of Korea" (2007). An independent international evaluation of Korea's CDMA commercialisation; useful as a cross-check on the KSP report's self-account.
- ETRI, 35 Years' History of ETRI, Daejeon (2012, in Korean). ETRI's own institutional history. Documents the KECRI β KTRI β KETRI β ETRI lineage in detail, with primary-source material on the TDX and CDMA projects. The internal counterpart to the KSP report's external account.
- UNDP, Korea: An Industrial Success Story (1999). Older international evaluation of Korean industrial-and-technology policy, predating the WiBro period. Useful for understanding how Korean ICT R&D was perceived internationally before the IEEE 802.16e moment and the subsequent WiBro market failure shifted the conversation.
- OECD STAN Database (and OECD Patent Database). The empirical source for Tables 1-3, 1-4, 1-5 and 1-7 of the report. Necessary if you wish to update the Korean indicators to the current year, or to compare Korean indicators with your own country's β note that the report's data stops in 2009-2011 across most tables.
- Yong-Sik Hong, "Evolution of the Korean National Innovation System: Towards an Integrated Model", in Governance of Innovation Systems: Case Studies in Innovation Policy (OECD, 2005). Independent academic analysis that frames Korea's ICT R&D inside the broader national innovation system; useful for comparative reading against your own country's innovation system.
This Companion is a learning aid produced for the Ministry of Strategy and Finance Β· Korea Information Society Development Institute (KISDI) Β· KDI School of Public Policy and Management, KSP Knowledge Sharing Program β ICT R&D System and Policy (2014). Use alongside the original report.