COMMISSION DECISION of 4 December 1996 declaring a concentration to be incompatible with the common market and the functioning of the EEA Agreement (Case No IV/M.774 - Saint-Gobain/Wacker-Chemie/NOM) (Council Regulation (EEC) No 4064/89) (Only the English text is authentic) (Text with EEA relevance) (97/610/EC)

THE COMMISSION OF THE EUROPEAN COMMUNITIES,

Having regard to the Treaty establishing the European Community,

Having regard to the Agreement on the European Economic Area, and in particular Article 57 thereof,

Having regard to Council Regulation (EEC) No 4064/89 of 21 December 1989 on the control of concentrations between undertakings (1), as amended by the Act of Accession of Austria, Finland and Sweden, and in particular Article 8 (3) thereof,

Having regard to the Commission Decision of 31 July 1996 to initiate proceedings in this case,

Having given the undertakings concerned the opportunity to make known their views on the objections raised by the Commission,

Having regard to the opinion of the Advisory Committee on Concentrations (2),

WHEREAS:

(1) On 1 July 1996 Société Européenne des Produits Réfractaires, Courbevoie ('SEPR`), Elektroschmelzwerk Kempten GmbH, Munich ('ESK`), and NV Noordelijke Ontwikkelingsmaatschappij, Groningen ('NOM`), jointly notified the creation of a joint venture under Dutch law for the manufacture, processing, marketing and sale of silicon carbide. SEPR will acquire 60 % and ESK and NOM will each acquire 20 % of the share capital of the newly created company.

(2) After examination of the notification, the Commission has concluded that the notified operation constitutes a concentration falling within the scope of Council Regulation (EEC) No 4064/89 ('the Merger Regulation`).

(3) In order to ensure the full effectiveness of any decision taken later pursuant to Article 8 (3) or (4), on 22 July 1996 the Commission decided, pursuant to Articles 7 (2) and 18 (2) of the Merger Regulation, to continue the suspension of the concentration in question until a final decision is reached in this case.

(4) By decision dated 31 July 1996, the Commission found that the proposed concentration raised serious doubts as to its compatibility with the common market. The Commission accordingly initiated proceedings pursuant to Article 6 (1) (c) of the Merger Regulation. On 20 September 1996 the Commission, in accordance with Article 18 (1) of the Merger Regulation, submitted its objections to the parties to the proposed operation.

I. THE PARTIES

(5) SEPR is a French company active in the manufacture of fused-cast refractory products used mainly for glass furnaces. Its ultimate parent company is the French Compagnie de Saint-Gobain SA, Paris ('Saint-Gobain`) (3). SEPR handles the worldwide activities of Saint-Gobain's industrial ceramics division. Besides industrial ceramics, the Saint-Gobain group is mainly active in the manufacture and sale of flat glass, insulation, fibre reinforcement and building materials, abrasives, pipes and glass containers. The group's silicon carbide business is in the hands of its subsidiaries Norton AS, Norway ('Norton`), and Intermat SA, Belgium ('Intermat`). The Saint-Gobain group of companies had a total worldwide turnover of ECU 10 775 million in 1995, of which ECU [. . .] (4) million was generated within the Community.

(6) ESK incorporates the material business unit of Wacker-Chemie GmbH, Munich ('Wacker Chemie`) (5). Wacker-Chemie is a German chemicals group jointly controlled by Hoechst AG and the Wacker family (6). Apart from the materials business the company is active in the manufacture and sale of silicones, polymers, hyper-pure silicon-based semiconductors and poly-silicon. ESK's silicon carbide business consists of its Dutch subsidiary Elektroschmelzwerk Delfzijl BV, Delfzijl ('ESD`), and its processing plants in Grefrath and Kempten in Germany. Wacker-Chemie had a total worldwide turnover of ECU 2 091 million in 1995. Hoechst AG is one of the world's largest manufacturers of chemicals and pharmaceuticals and had a total worldwide turnover of ECU 28 181 million, of which ECU [. . .] million was generated within the Community.

(7) NOM is a private investment and development company for the northern provinces of the Netherlands. Its shares are held by the Netherlands Government (99,97 %). NOM offers entrepreneurs advisory and financing services and, in particular, invests in the share capital of companies that are regarded as important for the economy of the Northern Netherlands. The company had a turnover of ECU 10 million in 1995.

II. THE OPERATION

(8) On 27 June 1996 SEPR, ESK and NOM signed a contract to establish and to incorporate a Dutch joint venture in the form of a BV (public limited company). Shortly after its incorporation the new joint venture will establish and incorporate a German subsidiary in the form of a GmbH. Under the terms of the agreement, the new Dutch joint venture will acquire all the assets of ESK's Dutch subsidiary ESD and, through its newly created German subsidiary, will acquire all the assets of ESK's processing facilities in Grefrath as well as some assets of ESK's processing plant in Kempten which are dedicated to the silicon carbide business. The assets to be acquired from ESD are the production equipment of ESD's plant in Delfzijl, the stocks of raw materials and finished products, the accounts receivable, the silicon carbide order book of ESK as well as the intangible assets relating to the silicon carbide business. The assets to be acquired from ESK's Grefrath plant are the land and buildings, plant equipment, and all the other assets related to the silicon carbide business. Not included in the joint venture and therefore retained by ESK are the land and buildings of its Kempten plant, and all the assets specially related to the other non-silicon carbide activities conducted by ESK or Wacker-Chemie in the Kempten plant. The joint venture will control the silicon carbide production in Delfzijl and will coordinate the processing in Grefrath via its newly created German subsidiary.

(9) The notified operation does not include Wacker-Chemie's 50 % interest in the US company Exolon-ESK, Tonawanda/New York. Therefore, the 50 % interest that Exolon-ESK holds in the Norwegian company Orkla-Exolon AS KS is not included either. [. . .]. In Article 9.1 of the Joint Venture Agreement the parties have agreed that the coming into force of the proposed concentration is subject to the condition precedent that Wacker-Chemie is no longer the indirect shareholder of any of the abovementioned companies. In Article 9.2 of the Agreement the parties have agreed that the joint venture agreement will not come into force should Wacker-Chemie, six months from the day of its conclusion, still be a shareholder in these companies.

(10) In addition to the abovementioned transfers of assets the parties have also agreed that the new Dutch joint venture will enter into a Licence and Technical Assistance Agreement with Norton for the purpose of transferring certain technology and technical assistance from Norton to the joint venture, for a consideration in the form of royalties at the rate of [. . .] of the joint venture's net sales. Furthermore, the parties have agreed that the joint venture will enter into a Toll Manufacturing Agreement with ESK relating to the manufacture by ESK of silicon carbide micro grits and powders for the joint venture for a transitory period of three years. After the expiry of the three-year period, the production line in ESK's Kempten plant will be closed, and some of its assets (machinery) will be transferred to the joint venture's plants in Grefrath or Delfzijl.

III. THE CONCENTRATION

Joint control

(11) The proposed joint venture will be jointly controlled by SEPR, ESK and NOM. The parent companies will hold differing proportions of the joint venture. However, no single shareholder will have the power to determine the strategic decisions of the joint venture. The Joint Venture Agreement provides for a shareholders' meeting, a Supervisory Board and a Management Board to be put in place in the joint venture. The Management Board of the proposed joint venture will be responsible for the day-to-day management and decide by simple majority. SEPR will have the right to propose the president of the Management Board who will be responsible for determining the number and functions of the other members of the Management Board. He will be appointed by a unanimous vote of the shareholders' meeting. If unanimity cannot be reached, SEPR will have the right to propose another candidate. Although SEPR will decide on matters concerning the day-to-day management, certain strategic decisions regarding the joint venture's business will require a unanimous vote by the Supervisory Board. The Supervisory Board will comprise five members, three of which will be appointed by SEPR and one each by ESK and NOM respectively. The strategic decisions taken unanimously by the members of the Supervisory Board will include, in particular, the prior approval of balance sheets and of profit and loss accounts, the approval of the three-year business plans, the approval of the annual budgets, and the approval of investments or capital expenditure by the joint venture companies above Fl [. . .] million which are not within the budget previously approved by the Supervisory Board.

Autonomous full-function entity on a lasting basis

(12) The proposed joint venture will operate as an independent producer and processor of silicon carbide on a lasting basis. It will have its own production and processing facilities and will own all the intangible assets that are related to ESK's current silicon carbide business carried on in Delfzijl and Grefrath, such as patents, know-how and trade marks. The proposed joint venture will produce and sell silicon carbide on its own account and is under no obligation to enter into supply contracts with its parent companies. Under the terms of the Toll Manufacturing Agreement, ESK will produce silicon carbide powders and micro grits exclusively for the proposed joint venture for a period of up to three years (see above). The fact that the proposed joint venture, for a transitional period, purchases processed products from ESK does not affect its full-function character, since the scope of this agreement is limited, and the joint venture could meet its needs for silicon carbide powders and micro grits from its own production. The joint venture will, from the beginning, operate its own processing facilities in Grefrath. The joint venture is, therefore, full-function.

(13) The parties have agreed to remain shareholders of the proposed joint venture for the first seven years and not to sell their respective shares within this period. Therefore, the joint venture will be established on a lasting basis.

Absence of coordination of competitive behaviour

(14) After the completion of the proposed concentration, the Saint-Gobain group of companies will be active on the same markets as the joint venture through its subsidiaries Norton and Intermat. ESK will retain no activities on these markets. After the Toll Manufacturing Agreement with the joint venture has expired, ESK's production line for silicon carbide micro grits and powders in the Kempten plant will be closed. According to the parties, products other than silicon carbide, which are currently manufactured and marketed by ESK, and which include boron carbide in grits and grain mixtures for grinding and lapping applications as well as for sintered parts, boride and nitrides in the form of powdered or sintered parts, and synthetic diamonds in micro grits, have entirely different applications from silicon carbide and cannot be considered substitute products for silicon carbide. As far as boron carbide is used for the grinding and lapping of ceramic parts and hard metal, it cannot, according to the parties, be replaced by silicon carbide since it is much harder than these two materials and much more expensive. Moreover, boron carbide oxidizes to boron acid at temperatures above 500 °C. Accordingly, it is unsuitable for making grinding wheels. With respect to the use of synthetic diamonds, ESK undertakes the coating with a nickel/diamond layer of machine parts for the textile industry. Borides and nitrides are raw materials for sintered parts.

(15) As regards Wacker-Chemie's interest in the US company Exolon-ESK and the Norwegian company Orkla-Exolon, any coordination of competitive behaviour between the parent companies of the proposed joint venture can be excluded, since the Joint Venture Agreement only enters into force under the condition precedent that Wacker-Chemie divests itself of its interest in Exolon-ESK prior to the establishment of the joint venture.

Conclusion

(16) For the above reasons the joint venture resulting from the notified operation constitutes a concentration within the meaning of Article 3 (1) (b) of the Merger Regulation.

IV. COMMUNITY DIMENSION

(17) The combined aggregate worldwide turnover of Saint-Gobain, Wacker-Chemie, Hoechst AG, and NOM exceeds ECU 5 000 million. Two of the undertakings concerned, Saint-Gobain and Wacker-Chemie/Hoechst AG, have a Community-wide turnover in excess of ECU 250 million, but they do not achieve more than two-thirds of their aggregate Community-wide turnover within one and the same Member State. The notified operation therefore has a Community dimension according to Article 1 (2) of the Merger Regulation.

V. COMPATIBILITY WITH THE COMMON MARKET

(18) The proposed joint venture will be active in the production, processing, marketing and sale of silicon carbide (SiC).

A. RELEVANT PRODUCT MARKETS

A.1. Product market definition

Production process

(19) SiC is a synthetic mineral, which is produced from washed silica sand (SiO2) and carbon (C) in the form of low-ash petroleum coke. In a specific carbon-to-silica sand granulation ratio the raw materials are melted in a resistance-type electric furnace. Crystallization of SiC occurs at very high temperatures, between 1 600 °C and 2 500 °C. The production of SiC is highly energy consuming (7) and sets free emissions of sulphur compounds and CO-gas.

(20) A SiC furnace consists of two energizing electrodes which are connected by a graphite core. The graphite core is covered with the reaction mixture which, upon heating, converts into SiC by forming a polycrystalline, compact cylinder around the graphite core. Such a cylinder consists of several inner layers of crystallized SiC and an outside layer of less-crystallized material, known as metallurgical grade SiC. The most compact structure of crystallized SiC is found closest to the core of the cylinder. The more one moves away from the inner layer the more the SiC content decreases.

(21) Crystallized SiC is basically produced as so-called 'green` or 'black` SiC. The difference is due to differences in chemical trace elements (nitrogen, aluminium or boron) built into the crystal lattice. Green SiC is characterized by a very high chemical purity, whereas black SiC has a higher aluminium content. For this reason green SiC is more brittle than black SiC but less tough. Furthermore, green SiC shows a much higher electrical conductivity which makes it useful for the manufacture of heating elements, electrical resistors and light-emitting diodes. Green SiC can only be produced by using virgin raw materials, whereas black SiC can be produced from unreacted material that has remained from earlier furnacing as well.

(22) The outer layer of less crystallized SiC is sold to the steel industry as metallurgical grade SiC, and is used as an additive in steel production. The well-crystallized inner layers of the cylinder, so-called crude SiC, are carefully separated according to the SiC content and further processed. Depending on the final use of the product, crude SiC is crushed to pieces, milled, micronized, de-ironized (iron removal), water-washed, and chemically treated. Finally, by sieving, air separation, and water-sedimentation, the SiC grits are classified to defined grain size distributions and either sold as abrasive or refractory grade SiC or further processed and sold as SiC powder. The production and separation process of SiC is shown in a simplified form in Figure 1.

Figure 1

>REFERENCE TO A GRAPHIC>

(23) SiC producers like Saint-Gobain and ESK are active at all stages of the production process. They manufacture crude SiC in a furnacing plant and then process it. However, there are also companies active in the market that solely process SiC. These companies either operate as recyclers, buy crude or semiprocessed SiC from producers within the EEA or import the crude material from outside the EEA. They are referred to as processors.

Crude crystallized SiC is a different relevant product market from metallurgical SiC

(24) Metallurgical grade SiC and crude crystallized SiC, because of their different physical and chemical characteristics, are used in different applications. Substitutability of both products is limited due to differences in the SiC content. The SiC content indicates the level of impurities contained in the material. The amount and the kind of impurities (aluminium, iron, free silica and carbon) affect the colour of the SiC and the size, shape and modification of its crystals (8). A high SiC content is necessary for abrasive applications since the SiC content, besides other parameters, determines the shape of the crystals and, therefore, has a direct impact on the abrasive capacity and the abrasive performance of the material. As regards refractory applications, material with a low SiC content does not provide the chemical purity required for the manufacture of heat-resistant products. For abrasive and refractory applications, therefore almost exclusively the crystallized types of SiC with a high SiC content are used, whereas metallurgical SiC used in the ferrous metals industry has a significantly lower SiC content. According to the article 'Silicon Carbide` by Roger Loughborough in the journal Industrial Minerals, November 1994 (Annex 12 to the Notification, page 47), metallurgical SiC generally has a SiC content of 85 to 94 %, refractory SiC of 92 to 99 %, and abrasive SiC of 98 to 100 %. This has been confirmed by the Commission's investigation (9).

(25) The parties have taken the view that the SiC content has no significance with regard to the distinction of metallurgical SiC and crystallized SiC. However, according to the responses to the Commission's inquiries of 67 abrasive manufacturers, 26 manufacturers of refractory products as well as five customers that use crystallized SiC in other industrial applications, end-users consider the SiC content to be an important characteristic with regard to the manufacture of their final products. Furthermore, several suppliers stated that the SiC content, together with grading, chemical composition and density, is the main differential characteristic as to different categories and qualities of SiC. None of the suppliers asked by the Commission considered the SiC content to be unimportant as regards the distinction of metallurgical SiC and crystallized SiC.

(26) For use in foundry and blast furnace operations, metallurgical SiC can technically be replaced by crystallized SiC. However, from an economic point of view crystallized SiC cannot be considered a substitute, because of the difference in price. According to the findings of the Commission's investigation, the price of metallurgical grade SiC sold in the EEA was about ECU 445 per tonne in 1995, whereas the price of crude crystallized SiC was about ECU 471 per tonne. On the other hand, metallurgical SiC is not a substitute for crystallized SiC because it does not generally provide the crystal properties required for abrasives, and the chemical purity needed for refractory and other industrial applications.

(27) According to the parties 'the production technology for SiC is a classic case of joint production, i.e. metallurgical and crystallized grade SiC are derived simultaneously. . .` (Response to the Commission Statement of Objections ('Response`), page 20). The ratio between metallurgical SiC and crystallized SiC which results from the furnacing process depends on the construction and the size of the furnace and the quality of the raw materials. A furnace can be run in such a way that only metallurgical SiC is produced. However, it is technically impossible to increase the proportion of crystallized SiC above a certain level. In the conventional Acheson furnaces used by most producers, including Norton, the proportion of crystallized SiC can be increased to about 80 %, whereas in the large furnaces used by ESK in Delfzijl, the ratio of metallurgical SiC to crystallized SiC is about [. . .]. Any significant rise in the proportion of crystallized material above these levels would strongly increase the consumption of energy and costs for chemical treatment.

(28) In the EEA the production of metallurgical grade SiC is a by-product of the production of crystallized SiC, because the production of metallurgical SiC is less profitable at current prices. The parties in the Response, page 15, third paragraph, recognize that metallurgical SiC is only a by-product. This can also be inferred from the fact that one of the main synergies to be achieved from the operation is the possibility to increase the proportion of crystallized SiC produced in ESK's plant in Delfzijl (Response, page 16, paragraphs 4 and 5).

(29) The parties have argued that metallurgical SiC can in some cases be processed to refractory grade SiC by chemical treatment. They have, therefore, argued that 'supply-side substitutability justifies to conclude one single SiC market comprising both metallurgical and crystalline SiC` (Response, page 22). However, this is not the same as supply-side substitutability, since further processing is necessary. The process of upgrading metallurgical SiC to crude crystallized SiC involves additional cost, principally due to higher energy input. Indeed, it would seem irrational to sell metallurgical grade SiC at all, if it could simply be processed to a more profitable refractory grade. In a joint production process, which results in simultaneous production of metallurgical SiC and crystallized SiC, and where the incentive is to reduce the production of metallurgical SiC as much as possible, it is difficult to see why there should be any significant supply-side substitutability. Indeed, if that were the case, it would seem more rational to produce mainly crystallized SiC, and thereby avoid production of metallurgical SiC as a by-product. Joint production is a strong constraint on supply-side substitution, which is clearly evident from the fact that metallurgical SiC continues to be produced, despite the fact that it is the least profitable product.

(30) For the above reasons, indications are that supply-side substitutability between crude crystallized SiC and metallurgical grade SiC is highly limited and inadequate, and that crystallized SiC and metallurgical SiC are two different relevant product markets. Demand-side considerations confirm this conclusion. However, the market definition can be left open, since there are no competition problems on these two markets.

Processed crystallized SiC for abrasive and for refractory applications are separate relevant product markets

(31) Processed SiC for abrasive and refractory applications is almost exclusively produced from crude crystallized SiC. First, crude crystallized SiC is sorted according to the SiC content and afterwards crushed, milled, de-ironized, and sieved. SiC grains for refractory and abrasive applications are classified in different ways. SiC abrasive grains are classified according to the European FEPA standards, which are agreed by the European abrasives industry (10), whereas SiC refractory grains are classified according to individual customer requirements.

(32) There are two separate FEPA standards, the P-standard for coated abrasive grains and the F-standard for bonded abrasive grains. Bonded abrasives include wheels, segments, bricks and sticks, where the abrasive grains are held together by a bonding material, usually glass-based vitrified bonds, resin, shellac, or rubber. In coated abrasives, on the other hand, one layer of abrasive grains, without any adherence between the single grits, is firmly fixed on flexible backings, such as paper, cloth, fibre, papercloth, or cloth fibre. Both FEPA standards comprise several SiC grades which indicate the average grain size and the variability of sizes of particles within a given lot. P-grades have smaller tolerances than F-grades. Any deviation from the defined grain size distribution would put the abrasive material's performance at risk, since oversized grits will scratch the treated surface while undersized grains will not contribute to the material's abrasive capacity. For this reason all abrasives manufacturers, asked by the Commission, consider the FEPA standards to be important, both with respect to the manufacture of their final products and to the selection of their suppliers.

(33) For refractories, SiC grains for bricks and shapes for furnace linings should be in block form in order to achieve maximum density to provide for strength and thermal conductivity. In the case of kiln furniture the products must be as light as possible, but still have sufficient strength to support the products to be fired through the firing cycles. For that reason, grains of angular type with a lower bulk density are chosen.

(34) Generally speaking the processing of refractory grains is more simple than the processing of abrasive grains, since SiC grains for the manufacture of abrasive products, in addition to the crushing, sieving and de-ironizing, often undergo chemical treatment, are water-washed, and sometimes are wet classified (see Annex 13 to the Notification). The additional processing adds to the cost of production of abrasive SiC grains compared to refractory grains, and the price differential between abrasive grains and refractory grains to some extent reflects differences in processing costs. According to the findings of the Commission's investigation, the price of SiC refractory grains sold in the EEA was about ECU 835 per tonne in 1995, whereas SiC abrasive grains cost about ECU 1 255 per tonne.

(35) Refractory grains are processed to individual customer requirements, whereas abrasive grains are processed to the FEPA standard. Therefore, in view of a generally lower SiC content of refractory grains compared to abrasive grains, and the different grading of abrasive grains, abrasives manufacturers would never consider buying refractory grains, because it would not meet their requirements. On the other hand, although it would be theoretically possible for refractory manufacturers to use abrasive grains in some situations, it would never be considered in practice due to the individual requirements of refractory manufacturers and the significantly higher price of abrasive grains. Therefore, viewed from the demand-side SiC abrasive grains and SiC refractory grains are two separate relevant product markets.

(36) SiC grains for refractory and abrasive applications are crushed, sieved and de-ironized on the same equipment, which is simply adjusted according to the type of grains which need to be produced. However, the additional processing of many types of abrasive grains means that there are limited possibilities for shifting from the production of refractory grains to abrasive grains, whereas the shifting from abrasive grains to refractory grains is possible. However, it should also be noted here that a major shift in production to refractory grains would mean that abrasive processing facilities such as chemical treatment and wet classification could be underused, which would limit the commercial incentive to shift from processing of abrasive grains to refractory grains.

(37) In conclusion processed SiC for abrasive and for refractory applications are two different relevant product markets. It should also be borne in mind in this respect that buyers of abrasive and refractory grains are two completely different customer groups, and that price differentiation between these two groups of customers is possible due to the product differences.

Processed SiC for other industrial purposes is a separate relevant product market distinct from processed SiC for abrasive and refractory applications

(38) Apart from the abovementioned applications, relatively small quantities of SiC are further processed, e.g. milled to SiC powders, and used in a number of other diverse industrial applications. These applications include in particular SiC powder for metal matrix composites and SiC for the manufacture of flooring materials, heating elements, lightning arresters, voltage-dependent electrical resistors, and sand-blasting.

Conclusion on SiC product markets

(39) Based on the above, the relevant product markets are:

- the market for SiC for metallurgical purposes,

- the market for crude crystallized SiC,

- the market for processed SiC for abrasive applications,

- the market for processed SiC for refractory applications,

- the market for processed SiC for other industrial applications.

(40) The approach to market definition taken by the Commission in the present case is consistent with the approach taken in previous cases. Thus, the above distinction between five different SiC markets is in accordance with the line adopted by the Commission in the Starck/Wienerberger case concerning a concentration in the market for corundum (electro-fused aluminum oxide), a raw material that is also used in the abrasives and refractory industries as well as for other industrial applications (11). In that decision, the Commission took the view that no single market for corundum exists, but, rather separate product markets according to their main applications and to the differences regarding customers and distribution channels, qualities required, price levels and range of possible substitute products. In this case as well, the customers and competitors questioned by the Commission almost unanimously agreed with the above distinction between five different SiC markets.

(41) Furthermore, in Case IV/M.619 - GencorLonrho (12), platinum group metals (platinum, palladium, rhodium, iridium, osmium and ruthenium) were clearly produced in a joint production process. However, the Commission still concluded that each metal constituted a separate relevant product market, since the price setting, price levels, and applications of the metals were different.

(42) The parties have argued (Response, page 22, fourth paragraph) that SiC for abrasive, for refractory, and for other industrial applications are not distinct markets, but part of one overall SiC market. However, as discussed above, abrasive and refractory SiC grains are produced from crude crystallized SiC. The parties have, therefore, effectively argued that the raw-material is in the same relevant product markets as the processed grains. This argument would only be reasonable, if processing was trivial and the prices in the raw-material and finished-product markets were more or less the same, but this is not the case. In the Commission's investigation it was found that, on average, the price of crude crystallized SiC sold in the EEA was about ECU 471 per tonne in 1995, whereas the price of SiC refractory grains was about ECU 835, and the price of SiC abrasive grains was about ECU 1 255.

(43) The limited supply-side substitutability between the various grades of SiC is also evident in the different profit margins of the different grades. In their response to the Statement of Objections the parties acknowledge that [. . .] (Response, page 4). Furthermore, [. . .] (Response, page 15). Such differences in profit margins could not persist in a case with significant supply-side substitutability, since supply-side substitutability would lead to largely uniform profit rates for all grades. It is therefore evident that supply-side substitutability is low between the various grades of SiC.

(44) The parties, in the response to the Statement of Objections, argued that in the anti-dumping investigation in 1994 'the Commission reached the conclusion that supply-side arguments are strong enough that a definition of the market in terms of end-use applications is not justified in the case of SiC` (Response, page 19). According to the parties, the Commission would be acting inconsistently with the Council anti-dumping Regulation of April 1994, if it were to define the five abovementioned markets as the relevant product markets for the purpose of the current proceedings (13).

(45) In this respect, it should be noted that the purpose of an anti-dumping proceeding and a merger proceeding is not the same. An anti-dumping proceeding is intended to rectify distortions in international trade, so that measures can be taken against dumping which is causing material injury to producers in the Community, to the extent that the measures offset the injury caused to those producers.

(46) In an anti-dumping procedure, measures may only be taken in so far as it has been established that the product produced by the Community industry is a 'like product` to the imported product under consideration. This definition of the like product in an anti-dumping proceeding can therefore be of a different nature from the definition of the relevant product market(s) for the purposes of the Merger Regulation.

(47) In an investigation under the Merger Regulation, a detailed assessment of, among other things, the applications of a product in the Community, customer groups or substitute products is given more attention. This can, therefore, lead to a wider or narrower definition of the relevant product market than would be the case under the assessment of the anti-dumping legislation.

(48) In the present case, it was considered that the notified operation required also an examination of the downstream markets of crystallized SiC intended for abrasive, refractory, and other industrial applications, whereas the Council Regulation adopting the anti-dumping measures considered that, although different grades of SiC with different uses existed, the similar physical characteristics, the similar production process and the existence of a certain degree of substitutability between metallurgical grade SiC and crude crystallized SiC constituted sufficient grounds for deciding that SiC in general, sold by the Community producers, should be considered a like product to that imported from the countries concerned. However, supply-side substitutability was only considered in the anti-dumping proceeding to the extent that it was recognized that crude crystallized SiC could be used as a substitute for metallurgical SiC. It follows that metallurgical SiC was not a substitute for crystallized SiC intended for abrasive, refractory, and other industrial applications.

(49) For all the above reasons, it is justified for the Commission to decide that there exist the abovementioned five markets for the purposes of these merger proceedings. However, it is also clear that the abrasive and refractory SiC markets are differentiated product markets, and therefore each of those markets consists of a number of different product segments. Nevertheless, it would not be justified to argue that each of those segments should be considered to be separate relevant product markets, as there are demand and supply-side substitutabilities within both the abrasive and refractory market.

(50) The parties have argued that substitute products to SiC exist for abrasive, refractory and metallurgical purposes, and therefore these substitute products should be included in the relevant product markets. As discussed below, this is not borne out by the Commission's investigation.

A.2. Silicon carbide for metallurgical purposes

(51) The parties have taken the view that SiC for metallurgical purposes can be replaced by 75 % ferro-silicon (FeSi) with normal or low aluminum content since both materials serve the same applications. According to the parties, the prices of both metallurgical SiC and FeSi are based on the silicon content of the respective material. End-users surveyed by the Commission have attributed particular advantages to SiC for metallurgical applications. However, the question as to whether metallurgical SiC and FeSi both belong to one and the same relevant product market can be left open, as the proposed concentration would in neither case create or strengthen a dominant position.

A.3. Crude crystallized silicon carbide

(52) Crude crystallized SiC is sold to processors, who process the raw material further to SiC grades for abrasive, refractory, and other industrial applications. No other raw materials can be considered alternatives to SiC at this production level, since only crude SiC can be processed to SiC for abrasive, refractory, and other industrial applications. However, the market definition can be left open, since no dominant position is created or strengthened.

A.4. Processed silicon carbide for abrasive applications

(53) The parties to the concentration have taken the view that SiC, despite differences in its physical properties and existing preferences by end-users in the abrasives industry for certain abrasive materials in certain applications, competes with other raw materials for abrasive applications. According to the parties, some of these materials can be regarded as forming a single product market together with SiC. The parties have, therefore, taken the view that there is not a separate product market for SiC for abrasive applications, but rather that SiC should be part of an overall market for raw materials for the abrasives industry including abrasive minerals like synthetic diamonds, cubic boron nitride (CBN), white and brown aluminium oxide, electro-fused alumina, zirconium aluminium oxide, and seeded gel aluminium oxide (14). However, the parties have conceded that SiC cannot in all applications be replaced by these materials totally, but only to a certain extent. According to the parties, SiC can be replaced directly by synthetic diamonds in 40 % of its applications, and by white aluminium oxide in 10 % of its applications (15). Therefore it was considered appropriate to add 40 % of the sales of synthetic diamonds, and 10 % of the sales of white aluminium oxide in the abrasives industry, to the market volume for SiC for abrasive applications (16). The parties have stressed that the market in their definition has been very narrowly defined and that this must be kept in mind when evaluating the competitive impact of the proposed concentration.

(54) In order to verify the view of the parties, the Commission undertook an extensive survey of the major manufacturers of abrasives in the EEA. Of the total of 67 abrasives manufacturers that responded to the inquiry, 32 produced bonded abrasives, 16 produced coated abrasives and 19 produced either both types of abrasives or did not indicate what type of abrasives they produced. The abrasive manufacturers who replied to the Commission inquiry accounted for about one-third of the EEA market in 1995 (excluding captive use by the parties) (17). Of the total of 67 abrasives manufacturers, who responded to the Commission questionnaire, 10 (14,9 %) purchased more than 500 tonnes SiC in 1995, 19 (28,4 %) more than 250 tonnes and 37 (55,2 %) more than 100 tonnes. The abrasives manufacturers purchased on average 238 tonnes SiC in 1995. The largest customer accounted for 2,7 % of total SiC for abrasive applications sold in the EEA.

Abrasive minerals - physical and chemical characteristics

(55) The size of the abrasive grains is of major importance for customers since coarse grits cut faster and cooler but burr can be minimized by using finer grits. In general, coarser grits are used for heavy duty work aimed at rapid stock removal from workpieces with rough finishes, whereas finer grits are used for finishing and polishing applications. The crystal shape and the grain size determine the abrasive capacity of the abrasive grains, whereas the chemical purity affects the manufacturing process of the final abrasive products. The higher the chemical purity, the better the abrasive grits react to the bonding material (resins, ceramics). This is of particular importance for the manufacture of bonded grinding wheels, which must resist high temperatures generated during the grinding process, as a significant rise in temperature can increase chemical reactivity.

(56) Apart from the grit size, the bonding material and the crystal shape, the kind of abrasive mineral and its characteristics are of decisive importance for the grinding capacity and the performance of the final abrasive product. Each type of abrasive mineral is characterized by different properties regarding hardness, toughness (ability to fracture), chemical inertness, thermal conductivity and the geometry of its cutting edges. For example, the harder an abrasive mineral, the better its ability to penetrate other materials (workpieces) and to remove stock. The tougher an abrasive mineral, the greater its ability to withstand long periods of high heat, pressure, impacts, and friction. Whereas abrasive minerals characterized by high brittleness fracture after dulling and thereby produce new exposed cutting edges to continue the grinding process.

Silicon carbide

(57) SiC is extremely hard, has a good durability and resists heating to around 1 500 °C. Due to its hardness combined with its brittleness, SiC is an excellent material for abrasive applications, in particular, according to the parties, for tool-room grinding, roll grinding (steel and paper), grinding and polishing of hypodermic needles and welds as well as for cutting of carbide. SiC is most widely used for grey iron, hard non-ferrous metals such as soft bronze, copper, aluminium, brass, and non-metallic materials such as glass, rubber, wood parts, natural stone, marble and cemented carbides (18). Manufacturers of coated abrasives recommend SiC for paint, varnish, lacquer, plastic, and plaster (19). Green SiC is harder but more brittle than black SiC (20). Therefore it is primarily used for the precision grinding and polishing of hard non-ferrous metals where sharp needle-like cutting edges are necessary for material removal, e.g. for the removal of hardened scale on steel rolls in steel mills. Black SiC, on the other hand, is predominantly used for the grinding of non-metallic materials. The manufacturers of bonded abrasives are apparently more able to replace black SiC by green SiC, but for certain abrasive applications, because of its high purity and hardness, green SiC cannot be replaced by black SiC (21).

(58) According to the responses to the Commission's survey, 95,7 % of the abrasive manufacturers consider the hardness of SiC to be at least 'rather important` with regard to the production of their final products, 75,4 % of them consider it to be 'very important`. Compared to other abrasive minerals only synthetic diamonds, cubic boron nitride (CBN) and boron carbide are harder than SiC. White or brown electro-fused aluminium oxide and zirconium aluminium oxide each have a significantly lower hardness than SiC (see Table 1).

(59) According to the Commission's inquiry, all abrasives manufacturers already use in addition to SiC other abrasive materials for the manufacture of their final products. Most also use white and brown aluminium oxide, some use zirconium aluminium oxide and seeded gel, and a small number of abrasives manufacturers use synthetic diamonds or CBN as well. However, most of them have stated that SiC cannot be replaced by other abrasive minerals. Moreover, because of its special product characteristics, SiC is indispensable in grinding and polishing applications. A large majority of manufacturers stated that they would use SiC in applications different from other abrasive minerals, and that the substitution of SiC by other abrasive minerals would only be possible to a very limited extent. In any case, as these abrasive minerals show different product characteristics and characteristics of performance, any replacement of SiC would require research and development effort, testing, and changes in production process. Abrasives manufacturers have stated that the costs associated with changing from a SiC-based product to another abrasive mineral would exceed an amount of 5 to 10 % of total costs. For these reasons, the overwhelming

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majority of abrasives manufacturers stated that they would not consider replacing SiC by other abrasive materials, assuming the price for SiC were to increase permanently by 5 to 10 % (see below).

(60) In their Response to the Statement of Objections the parties have said that '. . .the Commission ignores that in the abrasive market end-users do not care about the raw material they use but about the solution for the treatment of a specific material` (Response, page 70). This has not been confirmed by the Commission's inquiry among EEA abrasives manufacturers.

Aluminium oxide

(61) Electro-fused aluminium oxide is a synthetic mineral produced from bauxite in a furnacing process at high temperatures. Fused alumina are produced in two major qualities, white aluminium oxide, which is characterized by its chemical purity (Al2O3 content of at least 98 %), and brown aluminium oxide, which has a higher content of impurities (Al2O3 content of below 98 %). The hardness of SiC is significantly higher than the hardness of the different types of aluminium oxide, which makes SiC useful in different areas. In addition, the scratching pattern of SiC is different from aluminium oxide since the latter is much tougher. End-users, therefore, decide to use either SiC or aluminium oxide depending on the particular result, in surface roughness, desired. Fused alumina, because of their superior toughness, are most widely used for heavy-duty grinding applications of hard metals like carbon tool steel, alloy steel, stainless steel, high-speed steel, ductile iron, wrought iron, and hard bronzes (22). They are, therefore, predominantly used in grinding and snagging applications in the steel industry and in foundries. Typical products treated with aluminium oxide are steel castings, crank-shafts and all kinds of steel tools, as well as dies and gauges. Due to its inferior hardness, aluminium oxide cannot be used for the treatment of materials like glass, ceramics and cast iron.

(62) In contrast, SiC is most widely used for grinding and polishing applications of grey iron, hard non-ferrous metals such as soft bronze, copper, aluminum, brass, and non-metallic materials such as glass, rubber, wood parts, stone, marble and cemented carbides (23). The reason why SiC cannot effectively be used for the grinding of ferrous-metals, high carbon tool steels and alloy steels is its tendency to react chemically with these materials at temperatures usually generated during grinding applications (24). SiC reacts in particular with all kinds of oxides, such as copper oxide, nickel oxide, manganese oxide, chrome oxide, iron oxide, calcium oxide and magnesium oxide and would have an undesired effect on the workpiece. Aluminium oxide on the other hand is extremely inert even at high temperatures and there are only a few materials with which aluminium oxide reacts (25). This finding is supported by the Norton Specification Manual which recommends cut-off wheels made of aluminium oxide for most metals, whereas cut-off wheels made of SiC are recommended for non-metallic workpieces such as plastics, glass and ceramics (26). In addition, there are different FEPA standards concerning the chemical analysis of SiC (27) and fused alumina (28).

(63) Resinoid and vitrified-bound grinding wheels made of both SiC or fused alumina can be produced with the same equipment. Differences of minor importance concern the compacting by use of hydraulic presses and the baking temperature. However, any replacement of SiC by fused alumina would require an adaptation of the respective backings and formulation of the bonding materials. Since both are of major importance for the abrasive performance to be achieved, any change in the composition of the bonding materials would require investment in research and development and a testing phase in close cooperation with potential customers (29). Several abrasives manufacturers said that they doubt whether their customers would accept substitute minerals in all instances. In any case, the replacement would be associated with additional costs resulting from customer support, sales and marketing.

(64) However, indications are that it is mainly because of different physical and product characteristics that replacement of SiC by fused alumina is not considered to be likely, even if prices for SiC were to increase by 5 to 10 %. According to the responses to the Commission's survey, the large majority of the abrasives manufacturers, from a physical-technical point of view, could 'not at all` manufacture their final products without SiC and instead replace it by white aluminium oxide. Assuming the SiC price were to increase permanently by 5 to 10 %, an even larger number of customers would not replace SiC by white aluminium oxide. With respect to brown aluminium oxide the abrasives manufacturers consider the possibilities of replacing SiC to be even more limited.

(65) The parties have argued that the above results have not been evaluated in a methodologically consistent way, as they are simply derived from a headcount of the answers received without taking into account the economic weight of the companies which gave the particular answers. Thus the opinion of an abrasives manufacturer with a SiC consumption of some 5 tpa concerning the ability to switch to other materials is given the same weight as the opinion of a company with a SiC consumption of some 850 tpa.

(66) However, as the Commission has asked almost all major abrasives manufacturers in the EEA it seems probable that for the overwhelming majority of customers the possibilities of replacing SiC are even more limited than is suggested by the results of the Commission's inquiry. The parties indirectly conceded this when they stated that '. . . a smaller manufacturer specialized in SiC products can of course only use SiC for the manufacture of these tools` (30). Tyrolit, a large abrasives manufacturer, has indicated that it could 'partly` replace SiC by aluminium oxide. However, other large SiC customers have not suggested that they have great scope to replace SiC by other raw materials, since abrasive manufacturers that purchased the same or even greater tonnages of SiC grains than Tyrolit, indicated that they could not produce their final products without SiC and using instead other raw materials. Furthermore, as the majority of the abrasives manufacturers in the EEA are small and medium-sized companies, it can be concluded that the overall demand for SiC in response to a small and non-transitory price increase is likely to be even more inelastic than the responses to the Commission's survey have already indicated. These considerations suggest that a small but significant price increase would be profitable.

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(67) For the above reasons, the Commission does not consider white and brown alumina to be direct and effective substitutes for SiC. This view is supported by the fact that fused alumina have not displaced SiC in abrasive applications although the latter is much more expensive. Indications are that the average price per tonne of aluminium oxide for abrasive applications is significantly lower than the average price per tonne for SiC abrasive grains. In Germany, for example, the average price for white fused aluminum oxide (FEPA-F 60-120) was about DM 1 637 per tonne on 1 February 1996, whereas the average price for black SiC abrasives grains (FEPA-F 60-120) was DM 2 475 per tonne (see Table 2). This resulted in a price difference of 51,2 %. The average price for green SiC grains (FEPA-F 60-120) was 67,8 % higher. The Commission, in preceding cases, has considered substantial and permanent differences in price between similar products to be indicative of different product markets (31). Furthermore, even the evolution of the average prices over the last five years was different. Since 1991, the price for white fused aluminium oxide has decreased by 14,3 % while the price for black SiC abrasive grains has decreased by only 3,7 %. In the same period, the price for brown fused aluminium oxide has even decreased by 14,8 %.

(68) For the above reasons, from the point of view of an abrasives manufacturer, white and brown aluminium oxide are not considered to be direct and effective substitutes for SiC.

Synthetic diamonds

(69) Diamond wheels cannot be produced on the same equipment as grinding wheels made of conventional grains such as SiC or fused alumina. The technology applied for the production of diamond wheels is different as synthetic diamonds are bonded on a thin layer of resin, vitrified resin or metal that is finally connected to an abrasive body made of aluminium. All abrasives manufacturers asked by the Commission have stated that they could not manufacture diamond wheels with the same equipment and machinery they use for the manufacture of grinding wheels made of SiC or other conventional abrasive grains. Unless a customer is already a manufacturer of diamond wheels, the costs associated with switching demand from SiC to synthetic diamonds would include substantial investment in new equipment (32). According to estimates by various abrasive manufacturers, total investments in switching would amount to some DM 2,5 to 15 million (33). In addition, any change of the products would be an important strategic decision and would require a lasting commitment of the abrasives manufacturer to largely different groups of customers. Furthermore, there would be uncertainty whether customers of the final abrasive products would accept changes in the abrasives composition, since it would also require significant investment in new equipment on their part (see below). Both factors make it very unlikely that manufacturers of conventional abrasives would switch their orders for SiC to synthetic diamonds in response to a small, but significant change in their relative prices (34).

(70) According to abrasives manufacturers, synthetic diamonds can only be used for the production of metal-bound or galvanic wheels, but not for the production of flexible grinding wheels. Furthermore, any replacement of SiC by diamonds would not be possible for the manufacturers of coated abrasives since diamonds, because of their superior lifetime against the traditional backings used, would not be cost-effective in these applications. In addition, it is technically not possible to produce resin or vitrified bonded grinding wheels with diamonds.

(71) Because of the superior hardness of diamonds, grinding wheels made with diamonds can be used for much longer than wheels made with conventional grains like SiC. However, due to the high price of diamonds, they will be used only in conjunction with very hard metals, glass, ceramics, and stone in applications which, by virtue of their value, are able to carry the higher costs. In the stone-working and construction industries and in grinding applications in toolrooms of the metal-working industries, diamond tools have to a large extent replaced SiC. This substitution process has largely come to an end. In the remaining applications where SiC is still in use, any further substitution of SiC by synthetic diamonds is not expected because of their very high price. Such applications are discontinuous, short-run applications, in which SiC has a superior cost-performance ratio to diamonds.

(72) The effectiveness of modern toolroom machinery requires grinding wheels made of synthetic diamonds, even assuming the price for conventional abrasive grains, including SiC, were to fall permanently by 5 to 10 %. The costs associated with every interruption of the toolroom process are far greater than the abovementioned savings in price of conventional abrasive minerals (35). The switching costs between SiC and synthetic diamonds make it unlikely that conventional abrasive grains could regain ground they have already lost to more advanced products, even if their price were to fall (36). The replacement of conventional abrasive minerals in this area, in particular SiC, is caused by technological invention and is not the result of price-driven competition between SiC and diamonds (37). Rather it is expected that conventional grinding wheels have lost ground in this application and manufacturers are not considered capable of reversing this process (38).

(73) For the above reason, from the point of view of an abrasives manufacturer, synthetic diamonds are not considered to be direct and effective substitutes for conventional abrasive grains, in particular for SiC. According to the findings of the Commission's survey, the large majority of abrasives manufacturers, from a physical-technical point of view, could 'not at all` manufacture their final products without SiC and instead replace it by synthetic diamonds. However, assuming the SiC price were to increase permanently by 5 to 10 %, an even larger number of customers would not replace SiC by diamonds.

(74) Furthermore, since the Commission asked all the major abrasives manufacturers in the EEA, the possibilities of replacing SiC by synthetic diamonds are likely to be even more limited than indicated by the Commission's inquiry when account is taken of the large number of smaller manufacturers. Several large abrasives manufacturers with a broad range of abrasive products already have facilities for the production of diamond tools. But none of these manufacturers has indicated that they could produce abrasive products made of conventional grains and abrasive products made of diamonds with the same equipment or with the same production technology. Even the parties have not claimed that this could be possible. The overwhelming majority of abrasives manufacturers in the EEA, however, do not produce diamond tools and would, therefore, have to make considerable investment in new production lines if they wanted to replace SiC by synthetic diamonds (see above).

(75) For the above reasons the Commission does not consider synthetic diamonds to be direct and effective substitutes for SiC for abrasive applications. This differing price trend support this view. Since 1995, the price for synthetic diamonds (FEPA-D 252) has decreased by 9,5 %, whereas the price for SiC abrasive grains has increased (see Table 2).

Other abrasive minerals

(76) Other abrasive minerals considered by the parties to be interchangeable with SiC are cubic boron nitride (CBN), zirconium aluminium oxide, and seeded gel alumina.

(77) CBN is used in similar applications to synthetic diamonds. CBN is, for example, preferred for synthetic diamonds in applications where the heat generated by the abrasive process exceeds 800 °C, since synthetic diamonds will start to transform into graphite at this temperature. According to the Commission's survey, assuming the SiC price were to increase permanently by 5 to 10 %, the large majority of the abrasives manufacturers would 'not at all` manufacture their products without SiC and instead replace it by CBN. Furthermore, since 1991 the price for CBN has decreased by 13 %, whereas the price for black SiC abrasive grains has decreased by only 3,7 %.

(78) Zirconium aluminium oxide ('zirconia`) is produced from very pure aluminium oxide and baddeleyite (zircon sand) and was invented by Norton in the early 1970s. Today, Saint-Gobain is the leading supplier of zirconia. Zirconia has a superior ability to fracture when heat from the surface of the workpiece reaches critical levels. Zirconia possesses the advantage of being self-sharpening and withstands long periods of pressure (39). However, it is a very costly product and has predominantly replaced ordinary alumina for the coarse grinding of ferrous metals and armatures. In a recent decision the Commission considered that zirconia belonged to a separate relevant product market from white and brown fused aluminium oxide (40). Assuming the SiC price were to increase permanently by 5 to 10 %, according to the Commission's survey, the large majority of abrasives manufacturers would 'not at all` manufacture their products without SiC and instead replace it by zirconia.

(79) Seeded gel aluminium oxide ('seeded gel`) is a high-purity, premium aluminium oxide manufactured by the seeded-gel process and was developed by Norton in 1987. Saint-Gobain and 3M hold the patents to this product and will be the only suppliers for the foreseeable future. Seeded gel is a hard, sharp, micro-crystalline abrasive primarily used for precision grinding of difficult-to-grind high carbon steels and alloy steels (41). This new abrasive grain possesses a combination of the toughness associated with brown fused alumina, while exceeding the sharpness of a white alumina grain and, therefore, is considered to compete primarily with white alumina (42). Assuming the SiC price were to increase permanently by 5 to 10 %, according to the Commission's survey, the large majority of abrasives manufacturers would 'not at all` manufacture their products without SiC and instead replace it with seeded gel.

(80) Boron carbide is an abrasive mineral with outstanding hardness and good mechanical properties. It is used in lapping, polishing and cutting applications, where economics favour its use over diamonds. It has not been mentioned by the parties as an abrasive to be included in the relevant product market. ESK is the world leader in the supply of boron carbide. Assuming the SiC price were to increase permanently by 5 to 10 %, according to the Commission's inquiry, nearly all the abrasives manufacturers would 'not at all` manufacture their final products without SiC and instead replace it by boron carbide.

Conclusion

(81) The parties have argued that SiC is interchangeable with the abovementioned materials, with the exception of boron carbide, but particularly with synthetic diamonds and to a lesser extent with aluminium oxide. Therefore, according to the parties, it is entirely justifiable to include 40 % of synthetic diamond sales and 10 % of white aluminium sales in the market volume.

(82) It is unclear why only 40 % of synthetic diamonds sales and 10 % of white aluminium are to be included in the market volume. If synthetic diamonds and white aluminium were substitutes for SiC to a significant extent, it would seem more natural to define the relevant product market as including SiC, synthetic diamonds as well as aluminium oxide. However, for this to be correct, switching back and forth between these raw materials would be observed. Such switching does not take place as far as the Commission is aware.

(83) For the reasons stated above, the Commission is of the opinion that synthetic diamonds and alumina oxide are not part of the same relevant product market as SiC for abrasive applications. Matching characteristics in terms of functionality are not sufficient to establish substitutability in competition terms (43). In so far as SiC and other abrasive minerals are used in the same applications, the evidence is that there are significant price differences between these abrasive minerals, and in particular between SiC and aluminium oxide. Persistent price differences between various abrasive minerals for the same applications serve as a strong indication that, from a customer's point of view, these abrasive minerals have different performance characteristics and do not serve as direct and effective substitutes (44). Differences in physical characteristics and grinding performance, as well as considerable switching costs, indicate the existence of a distinct market for SiC grains for abrasive applications, where suppliers are able to act independently of the actions of companies selling other abrasive minerals, in particular aluminium oxide and synthetic diamonds.

(84) Indeed, the parties' argument for including synthetic diamonds and aluminium oxide in the same market as SiC could just as well be extended to CBN, zirconia, seeded gel aluminium oxide, and boron carbide (the latter has not been mentioned by the parties as forming part of the relevant product market). In any case the Commission is of the opinion that none of these raw materials forms part of the same relevant product as SiC by extension of the same reasoning as for synthetic diamonds and aluminium oxide.

A.5. Processed silicon carbide for refractory applications

(85) The refractory industry produces refractory bricks and shapes including monolithics and kiln furniture. The bricks, shapes and the monolithic refractory products are used as inner linings for blast furnaces and zinc furnaces; for waste incinerators; aluminium reduction cells; the production of crucibles and ladles; and as inner linings for oil and coal-fired power stations. Kiln furniture is mainly used in the ceramics and porcelain industry.

(86) Because of its properties (chemical inertness at relatively high temperatures, high abrasion resistance, very low thermal expansion, high thermal shock resistance and high thermal conductivity), SiC is an attractive material for the manufacture of various refractory products. In addition, SiC has a high thermal conductivity at elevated temperatures and is resistant to acids and alkalis. Ceramics represent a smaller segment of the overall refractory market. In this area SiC is used in the production of body armour, wear parts, nozzles for pressure blasting, and structural ceramics. Green SiC is typically used for ceramic applications, whereas because of traces of free silicon and carbon black SiC is less pure but is fabricated into many complex shapes common to both ceramics and refractories (45).

(87) The parties have indicated in the Notification that the average price for refractory SiC in the EEA in 1995 was about ECU 800 per tonne. However, wide price differences exist, particularly for specialized applications. SiC powder for the production of ceramic pieces is thus found at the high-quality end of the market for materials for the refractory industry. The ceramic pieces are sintered using SiC powder. Powders have an average size of below 2 microns. The price of these powders is about 10 times the price of ordinary refractory SiC reaching on average ECU 5 300 per tonne. The price depends on the grain size, the purity and the shape of the powders.

(88) According to the parties SiC for refractory applications can, to a certain extent, be replaced by other raw materials:

- fused aluminium oxide competes with SiC in particular as the raw material for the interlinings of blast furnaces and the production of monolithics. According to the parties, 50 % of the stack in a blast furnace can be lined with either fused aluminium oxide or SiC-containing bricks. They estimate that about 27 % (ECU 8,5 million) of the total fused aluminum oxide sales to the refractory industry of about ECU 32,3 million in the EEA (1995) are directly substitutable for SiC. The average price of fused white aluminium oxide in 1995 was about ECU 580 per tonne in the EEA,

- carbon and graphite compete with SiC in the aluminium industry for the sidewall linings of the cells ([. . .] % of the cells are currently lined with SiC),

- cordierite is an oxide/clay substance which is used for linings of furnaces in the production of porcelain and other ceramic products and for the production of kiln furniture. It competes with SiC in all areas where the temperature exposure is less than 1 380 °C. In 1995 the average price in the EEA was ECU 560 per tonne,

- mullite is produced in two basic types, fused and sintered mullite. It competes with SiC in particular for the production of kiln furniture. The average price of mullite in the EEA was ECU 790 per tonne,

- magnesium oxide and other oxides are not included in the market definition by the parties because the overlap is small but, according to the parties, the influence of these products must be taken into account in the assessment of the operation.

(89) As evidence for the substitutability between SiC and the abovementioned materials, the parties quote a number of articles and product documentation from producers of refractory products:

(a) the parties argue that the listing of products in the product catalogues of the two producers of refractory material, [two large producers], demonstrates that there is substitution between SiC and other materials used as linings in blast furnaces. However, such catalogues cannot simply be taken as evidence of substitution. Indeed, as is recognized by the parties, the choice of material depends on the type of furnace. SiC is, for example, indispensable in water-cooled blast furnaces due to its good thermal conductivity. Aluminium oxide is simply not an alternative. Therefore, just because companies like [two large producers] present SiC and aluminium oxide products together in their product catalogues, it cannot be concluded that these products are substitutes. This has been confirmed by the producers of refractory products, who say that they have no substitutes for SiC (see below);

(b) the parties argue that, according to an article in 'Eisen und Stahl`, No 11, November 1995, Thyssen only uses aluminium oxide for the lining of blast furnaces. This is not correct according to Table 5 of the article, where it is indicated that SiC bricks were used in Thyssen's new blast furnace 2;

(c) the parties argue that scientific documentation by Ray, an industry expert, demonstrates that other material can be substituted for SiC in blast furnaces. The articles by Ray discuss, among other things, the choice of refractory products for linings of blast furnaces. The articles do not stress the substitutability between SiC and other materials, but rather the superior performance of SiC for its particular applications in blast furnaces;

(d) as far as kiln furniture is concerned, the parties argue that the product brochures of Annawerk demonstrate that SiC, cordierite, mullite and aluminium oxide can only be distinguished in very minor ways from the point of view of their applications. However, in these brochures it is clearly stated that SiC kiln furniture has different properties from cordierite, mullite and aluminium oxide kiln furniture. SiC products thus have the highest cold-crushing strength, hot-bending strength and thermal conductivity. These properties are important for the choice of material for a particular type of oven and for a particular type of application. Indeed, this is the reason for having different types of products, since SiC-based products are more expensive.

(90) In conclusion the parties estimate that 27 % of the white aluminium oxide used in the refractory industry and approximately 40 % of the consumption of mullite, cordierite and graphite should be included in the relevant product market.

(91) In order to verify the view of the parties, the Commission has undertaken a survey of the major manufacturers of refractory products and ceramics in the EEA. The total number of responses received was 26. The refractory manufacturers who replied to the Commission survey accounted for about 50 % of the EEA market in 1995 (excluding captive use by the parties). The largest customer accounted for 10,5 % of total SiC volume for refractory applications sold in the EEA.

(92) According to the responses to the Commission's survey, none of the manufacturers of refractory products can, simply from a physical-technical point of view, produce their final products without SiC and instead replace it by fused white or brown aluminium oxide, cordierite, mullite, carbon or graphite. Likewise, none of the main producers questioned considered that they would replace SiC in any of their final products by white aluminium oxide, cordierite, mullite, carbon or graphite, assuming the SiC price were to increase permanently by 5 to 10 %. Even Carborundum GmbH, an affiliate of the Saint-Gobain group, has stated that it could 'not at all` produce its final products without SiC and instead replace it by other raw materials.

(93) The parties consider that substitution cannot be refuted in such general terms, because it is not correct to base the definition of the product market on one single refractory SiC market as the substitutability occurs on three different levels: monolithics, bricks and shapes, and kiln furniture. These segments have to be considered separately in terms of substitutability. However, the refractory manufacturers contacted cover all these different final products. Furthermore, these manufacturers are the largest refractory producers who generally should have better substitution possibilities than smaller producers. Their view can therefore be taken to represent the market as a whole.

(94) Moreover, as with the abrasives markets, the various refractory materials have very different physical and technical characteristics. Indeed, as the parties have themselves argued, these raw materials are in many instances not used separately, but are blended in many variations to give end-products with a particular performance for a particular use. It would, therefore, seem that these products are complementary products and not substitutes. They are thus often used at the same time, but in different places and for different purposes, in a blast furnace or for ceramic applications. Indeed, the main producers of refractory products contacted by the Commission stated that most of their sales are to customers who demand specific product definitions or require characteristics typical of SiC. Moreover, they state that many years of research have been carried out to find the correct balance of SiC to achieve the required performance.

(95) Price data supports the view that SiC for refractory applications is in a different product market from fused aluminium oxide, cordierite, mullite, carbon or graphite. In the case of aluminium oxide this is illustrated by the price data supplied by the parties. According to those data, the price of refractory SiC (with a SiC content of 98 %) passed from ECU 874 per metric tonne in 1993 to ECU 962 per metric tonne in 1995, i.e. a rise of approximately 10 %, whereas the prices of brown and white aluminium oxide decreased during the last three years. In these circumstances it would seem illogical to continue to use a more expensive product, i.e. SiC, in situations where a cheaper substitute product was available, e.g. aluminium oxide. Therefore, those price data would rather seem to indicate that refractory grade SiC constitutes a relevant product market distinct from white and brown aluminium oxide.

(96) In particular, it is not clear from the evidence presented by the parties that there is a simple demand-side substitutability between SiC and the other materials in the sense that, if the price of SiC goes up by a small percentage, then customers would simply shift to, for example, aluminium oxide. It would rather seem that any shift between materials would necessitate new product developments by the producers of refractories.

(97) It has to be concluded, after a survey of refractory producers and taking into account the opinion presented by the parties, that there are no substitution possibilities between SiC, fused aluminium oxide and other materials. SiC for refractory applications is a separate relevant product market.

A.6. Processed silicon carbide for other industrial applications

(98) As mentioned in Section A.1 above, relatively small quantities of processed SiC are also used in a number of other diverse industrial applications (see above). The parties have taken the view that SiC can be entirely substituted by other materials. As regards flooring materials, brown aluminium oxide serves exactly the same purpose. As far as lightning arresters and electrical resistors are concerned, Zincoxide is a full substitute for SiC (46). It appears that the product-market definition can be left open, since no competition problem exists even on the narrowest possible market definition.

B. RELEVANT GEOGRAPHIC MARKETS

General remarks on the import data

(99) According to the Eurostat statistics, total imports of SiC into the EU (12) amounted to 141 254 tonnes (ECU 88 million) in 1995. Of that total, imports from Norway accounted for 41,4 % in volume terms and 59,5 % in value terms, SiC originating in China for 16,1 % and 6,7 %, and imports from Russia for 10,3 % and 6,7 %.

(100) Total imports of SiC into the EU (12), excluding imports from Norway, amounted to 82 832 tonnes (ECU 35,7 million) in 1995. According to the Eurostat statistics imports from non-EEA countries into the three new Member States, Sweden, Finland and Austria, amounted to 109 tonnes (ECU 71 000). Finally, according to the official Norwegian import statistics, imports of SiC from non-EU countries into Norway amounted to 3 716 tonnes (ECU 1,5 million). Adding all figures together, total imports of SiC into the EEA amounted to 86 657 tonnes (ECU 37,2 million) in 1995.

(101) The parties have claimed that the Eurostat statistics do not reflect certain SiC imports from non-EEA countries into the three new Member States (1 038 tonnes imported into Sweden and 415 tonnes imported into Austria and Finland). Furthermore, according to the parties, imports of 3 603 tonnes SiC into Denmark are wrongly shown in the Eurostat statistics as imports originating in Norway, when they should have been shown as originating in the Ukraine. By adding these volumes, according to the parties, total imports into the EEA should amount to [> 90 000] tonnes. This figure is [5-10] % higher than imports derived from the official statistics. However, according to the market-share tables provided by the parties, total imports of SiC amounted to [> 90 000] tonnes (ECU [> 40] million) (47). These figures exceed the import figures derived from the Eurostat statistics by [. . .] or [. . .] respectively.

(102) The Commission is of the opinion that the Eurostat statistics establish a reliable source of information on total imports of SiC into the Community. The parties have not provided verifiable information about the country of origin and the quality of the allegedly imported materials or about the processors or end-users they were delivered to. The parties could not indicate whether this material was finally-processed SiC or semi-processed feed for further treatment by processors in the Community. Furthermore, the possibility cannot be excluded that this discrepancy could be explained by a wrong declaration of certain imports in the Danish import statistics. For these reasons, the Commission has decided not to take those amounts into account. Therefore, according to the Eurostat statistics and the Norwegian import statistics total imports of SiC into the EEA amounted to 86 657 tonnes (ECU 37,2 million) in 1995.

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(103) Official import statistics that differentiate between metallurgical grade SiC and crude crystallized SiC, as well as between the different grades of processed SiC used for different applications, are not available. The Eurostat statistics only show the total volume and value of SiC imported into the Community. However, according to the market-share tables provided by the parties, total imports of crude SiC amounted to [< 25 000] tonnes (ECU [< 10] million) in 1995, imports of metallurgical grade SiC amounted to [> 45 000] tonnes (ECU [> 15] million), imports of processed abrasive grains amounted to [> 10 000] tonnes (ECU [> 10] million), imports of processed refractory grains amounted to [> 10 000] tonnes (ECU [> 5] million). These figures are, as the parties admit, estimates derived from their market experience and the monthly import statistics of the Member States. The parties have calculated the average prices of the respective imports and on that basis attributed the imports to certain applications.

(104) The Commission has doubts as to whether the figures furnished by the parties give a correct picture of the market structure and the importance of imports into the EEA. Firstly, according to the purchase figures provided by the suppliers and the customers, it seems likely that the parties have underestimated the proportion of metallurgical grade SiC in total imports, and thus have overestimated the amount of imported processed crystallized SiC. Secondly, the parties have only incomplete information about the sources of supply and the sales structure of processors and traders in the EEA. In order to verify the estimates of the parties, the Commission has undertaken a survey of all major suppliers (producers, processors, traders) in the EEA. These suppliers and the parties together have imported 74 466 tonnes (ECU 35,6 million) of SiC in 1995. That total comprises 45 851 tonnes (ECU 20,8 million) metallurgical grade SiC, 19 000 tonnes (ECU 8,2 million) crude crystallized SiC, and 9 615 tonnes (ECU 6,6 million) processed crystallized grains (48).

(105) Furthermore, according to the Commission's customer survey, abrasives manufacturers purchased 881 tonnes (ECU 975 000) of processed grains from traders or agents closely linked to non-EEA producers. Similarly manufacturers of refractory products and ceramics purchased 112 tonnes (ECU 240 000). These purchases have been treated as direct-imports by end-users. As the Commission's survey, according to the parties' figures, has covered 29,1 % of the abrasive market volume and 53,2 % of the refractory market volume, the import figures were extrapolated accordingly. As a result the Commission estimates that imports of processed crystallized SiC by end-users amounted to some 3 240 tonnes (ECU 3,8 million). These figures rather overestimate the amount of direct imports by customers, since the Commission's survey has covered all the bigger customers. The smaller customers are likely to import relatively less.

(106) Adding both figures up, total imports by suppliers or end-users surveyed by the Commission amounted to 77 706 tonnes (ECU 39,4 million). In volume terms this accounts for 89,3 % of total imports derived from the official Eurostat statistics, and for about [< 85] % calculated on the basis of the parties' import figures.

(107) As the Commission's survey does not cover total imports into the EEA, the import figures derived from the supplier survey were extrapolated accordingly. As a result the Commission estimates that imports of metallurgical grade SiC amounted to some 51 362 tonnes (ECU 23,3 million), imports of crude crystallized SiC amounted to some 21 284 tonnes (ECU 9,2 million), and imports of processed crystallized grains amounted to some 14 567 tonnes (ECU 11,6 million) in 1995. Total imports of processed crystallized SiC comprised 9 100 tonnes (ECU 8,2 million) of abrasive grains, 4 911 tonnes (ECU 3 million) of refractory grains, and 556 tonnes (ECU 425 000) of grains for other industrial applications (see above, Table 3 and Sections B.3, B.4, C.5, and C.6 below).

B.1. Silicon carbide for metallurgical purposes

(108) The market for metallurgical SiC is characterized by sizeable imports into the EEA from suppliers located in various geographical areas of the world, in particular China, Eastern Europe and South America. Transportation costs are of minor importance, as metallurgical SiC is shipped as bulk material in large quantities. According to the parties, prices have increased by 32 % since anti-dumping duties were introduced in 1994. However, the anti-dumping duties have apparently not hindered effective competition from suppliers outside the EEA, since imports originating in China, for example, still accounted for more than 15 % of the EEA market and total imports accounted for about 50 % in market value in 1995.

(109) For the above reasons, the geographical scope of the relevant product market for SiC for metallurgical purposes appears to be worldwide.

B.2. Crude crystallized silicon carbide

(110) According to the parties, imports of crude crystallized SiC into the EEA amounted to some [< 25 000] tonnes (ECU [< 10] million) in 1995. However, the Commission investigation has found that total imports amounted to some 21 300 tonnes (ECU 9,2 million). Apart from imports, there have been only minor sales of crude SiC on the market (non-captive) in 1995 by producers located in the EEA. The largest single importer of crude crystallized SiC into the EEA was Saint-Gobain. The company imported [. . .] tonnes originating in [. . .] for further processing by its subsidiary Intermat. ESK imported [. . .] tonnes of crude SiC originating in [. . .]. The parties together imported [. . .] tonnes of crude SiC into the EEA accounting for about [. . .] % of total imports. Most of the other imported material originated in Russia (Volzhsky), Venezuela (SiCVen), Romania (Casirom and Carbochim) as well as in Switzerland (Timcal). According to the Commission investigation imported crude SiC accounted for about 89 % in volume terms and for about 85 % in value terms of total crude crystallized SiC traded in the EEA (excluding sales for captive use).

(111) Although the high import share of 85 % is a strong indication that the geographical scope of the relevant product market for crude crystallized SiC is wider than the EEA, the final determination of the geographic market can be left open, as the proposed concentration would not create or strengthen a dominant position for crude crystallized SiC even if the relevant geographic market was the EEA.

B.3. Processed silicon carbide for abrasive applications

(112) The parties have argued that the relevant market for SiC abrasive grains is worldwide. However, the majority of the abrasive manufacturers questioned by the Commission do not consider non-EEA suppliers to be alternative suppliers. Since the Commission questioned all large customers, who should have the best possibilities to buy outside the EEA, it can be assumed that the opportunities in the whole population of abrasives manufacturers for sourcing the material outside the EEA would be even less than in the Commission sample. The main reasons for the EEA being a separate relevant product market are:

Different industry standards and differences in product characteristics

(113) In Western Europe the FEPA standards have been established as a result of cooperation between industrial associations in the Member States of the European Union, Norway and Switzerland. These standards specify the designation and the size distribution of grains of fused aluminium oxide and SiC for bonded abrasive products (FEPA-F) and for coated abrasives (FEPA-P) (49). The FEPA standards have been incorporated into the various national standards throughout the European Union. At present, different grain size distribution standards apply to SiC grains for abrasive applications in Western Europe, the United States of America, Japan, China, Poland and Russia.

(114) In the United States of America, the American National Standards Institute (ANSI) has adopted its own standards which, in the case of macro grains for bonded abrasives, are identical with the FEPA-F standard. For coated abrasives, the FEPA-P standard is stricter than the ANSI standard. In Japan, the Japanese Industrial Standard (JIS) for grains for coated abrasives is identical to the FEPA-P standard. Although the JIS standard for macro grains for bonded abrasives is identical to the FEPA-F standard, the JIS standard for micro grains for bonded abrasives is different from the FEPA-F standard. China and Poland have already adopted the FEPA-P standard, but it has not been incorporated into the national standards yet. The certification according to the International Organization for Standardization (ISO) standard is still pending. Furthermore, as regards the classification of grains for bonded abrasives, there are still differences compared to the FEPA-F standard, in particular compared to the FEPA-F standard for micro grains.

(115) The European FEPA-F standard has been adopted by the ISO as the international standard for bonded abrasive grains (50). However, the incorporation of the standard into the various national standards throughout the world is still pending. In any case the standards are voluntary. Furthermore, even the ISO standard does not provide for the full range of grain sizes determined by the FEPA-P standard since the micro grits FEPA-P 1500 to FEPA-P 2500 standards have not yet been specified (51). At present, the graded material produced in the other geographical areas often does not serve as a direct substitute for SiC grains used in the EEA. For this reason, most of the SiC grains imported into the EEA have to undergo an additional grading process according to the FEPA standards, which entails additional costs. Furthermore, this classification process requires certain equipment such as sieves and sedimentation machinery and cannot, therefore, be done by the customers themselves.

(116) Nearly all of the abrasives manufacturers consulted by the Commission stated that the observance of the European FEPA standards is considered to be an important characteristic both with respect to the production of their final products and to the selection of their suppliers.

(117) Moreover, the existence of significant differences in product characteristics between suppliers within and suppliers outside the EEA has been established by the findings of the Commission's survey. Most of the abrasives manufacturers stated that suppliers from outside the EEA are not able to meet their requirements regarding chemical purity, SiC content and grain-size distribution according to the FEPA-P standard. Most of the suppliers in Eastern Europe and China produce SiC grades characterized by a low SiC content and a high degree of impurities and are not capable of providing the full range of SiC grades for abrasives applications.

(118) There are at present significant differences in product range between supplies from producers within the EEA and supplies from producers outside the EEA. The product range offered by importers does not entirely meet the requirements of customers. This has indirectly been confirmed by the parties, which have stated that producers outside the EEA are constantly improving the quality of their processing facilities and, consequently, of their products. The parties conclude that within the next few years those producers will continue to expand with the aim of providing the entire range of products and specifications (52). Furthermore, most producers outside the EEA do not yet have domestic standards for all the types of grades required by EEA customers. The supply of an entire range would therefore require both the creation of additional capacity as well as specialized production runs for EEA customers. As a result, non-EEA producers would not be able to adapt quickly to any changes in individual customer demand.

Unreliability of supplies from non-European suppliers

(119) According to the responses to the Commission's survey, the manufacturers of abrasive products consider the quality of the SiC abrasive grains, a uniform quality of supplies over time and the reliability of suppliers as regards delivery to be important with regard to the production of their final products (53). In particular, the fact that SiC grains are supplied uniformly over time is of major importance for European abrasives manufacturers. As the importance of both quality and reliability outweighs even the importance of price, suppliers outside the EEA, in particular in Eastern Europe and China have difficulties in meeting the requirements of EEA customers. Although non-European suppliers offer from time to time certain quantities of SiC abrasive grains classified according to FEPA standards, those offers are not considered by the EEA customers to be acceptable supply alternatives. At present, such offers are made only occasionally and, therefore, do not serve as a reliable source of supply over time. Despite the ongoing harmonization of standards, EEA customers at present do not expect non-EEA suppliers to be capable of meeting the FEPA standards. Importing SiC from non-EEA sources would rather impose additional risks and costs on the customers resulting from the need to test the chemical composition and the classification of the material.

Proximity to customers

(120) At the Hearing of the case, the parties stated that proximity to customers has to be considered as an important competitive advantage. Furthermore, the parties have stated that the grain size distribution resulting from the crushing and classification of crude SiC is not fixed but rather can be adapted to the present needs of the customers. Within certain limits, a processor is free to use already classified macro grits and crush them further to finer grades. A supplier who has processing capacities established within the EEA therefore has a significant advantage compared to non-EEA suppliers as he can adapt his production process to the product range demanded by the customers in the short-term. According to the Commission's survey, 95,5 % of the abrasives manufacturers considered 'short-term delivery on demand` to be an important factor with regard to the selection of their SiC suppliers. Only 2,9 % of them considered it to be 'rather unimportant`. Furthermore, about 78 % of the abrasives manufacturers considered the 'duration of cooperation` with their suppliers and the mutual knowledge to be important factors. Only 8,8 % considered it to be 'rather unimportant` regarding the selection of their suppliers. Those findings confirm the importance of the supplier's proximity to his customers and have to be considered as an additional factor limiting the geographical scope of the market.

Import duties

(121) The current import duties on SiC from outside the EEA are 4,5 % for developing countries except for China, and 6,5 % for China and industrialized countries.

Anti-dumping measures concerning the imports of SiC

(122) On 12 April 1994 the Council adopted a Regulation imposing definitive anti-dumping measures on imports into the European Community of SiC originating in the People's Republic of China, Poland, the Russian Federation and Ukraine (54). The measures were imposed to remedy the injurious effects of dumped imports from those countries. The request for the imposition of measures was lodged by a large proportion of the European Community industry, including one of the parties but also other producers of SiC in the EU. The rate of the anti-dumping duty applicable to the net, free-at-Community-frontier price, before duty, is 52,6 % on imports from China, 23,3 % on imports from Russia and from Ukraine, and 8,3 % on imports from Poland. The Commission has accepted from the Russian Federation in conjunction with the State-trading company V/O Stanko-Import an undertaking of a quantitative nature. The anti-dumping measures have a normal duration of five years and will therefore expire in April 1999, unless the Community industry requests the measures to be reviewed and supplies sufficient evidence that dumping and injury will recur should the measures lapse. It is also possible to review the measures during the course of their application if sufficient prima facie evidence can be presented of changed circumstances. The measures for Ukraine are currently under review. The review concerns the dumping margin only. The review has not yet been concluded.

(123) According to the parties, the anti-dumping measures are the main reason why there are currently only minimal imports of high-quality processed SiC into the Community originating in the countries which are subject to the anti-dumping measures (Response, pp. 38, 40, Preamble to the Undertaking submitted). In particular the parties are of the opinion that the current anti-dumping duty of 52,6 % is the major obstacle for Chinese imports into the Community of processed SiC for abrasive and refractory applications. However, in their Notification the parties argued that 'recent import figures show that even the anti-dumping duties imposed do not hinder the continuous flow of cheap imports into the EEA` (55).

(124) The large majority of abrasives manufacturers asked by the Commission stated that the imposition of anti-dumping duties on imports of SiC originating in the abovementioned countries has made it more difficult to divert orders from suppliers inside the EEA to suppliers in the above countries, and hence has increased prices. Furthermore, some suppliers and traders have indicated that they consider anti-dumping duties and import quotas to be an obstacle to the import of SiC for abrasives applications into the EEA (56). However according to the customers, the imposition of anti-dumping duties on imports of SiC originating in the above countries has predominantly affected the markets for metallurgical grade SiC and for crude crystallized SiC. On the markets for processed SiC grains, the imposition of anti-dumping duties has had only a limited effect, as imports are relatively low, and the required qualities are not yet available in large quantities from suppliers in China and Eastern Europe. This was confirmed in the Commission survey on the Undertaking submitted by the parties (see Section G, and Annex III).

Import and price data

(125) Absolute price differences: The parties consider the relevant geographic market to be worldwide, as prices for SiC products in various applications do not show a large degree of variation and are homogeneous throughout the world. However, even the market data provided by the parties show that there are significant absolute differences in price for SiC grains for abrasive applications between the EEA and the other geographical areas of the world. In 1995, according to the parties, the average price of SiC for abrasive applications in the EEA was ECU [. . .] per tonne, whereas the equivalent price in Eastern Europe was ECU [. . .], in China ECU [. . .] and in the rest of Europe ECU [. . .] (57). The parties argue that these differences in absolute prices are due to differences in SiC content and SiC-grade. However, according to the information furnished by the parties, the price levels for the same SiC-standards are also quite different. Prices in Japan were thus found to be more than 30 % higher than those for important customers in the EEA for the equivalent grades.

(126) Differences in price evolution: In addition, the price development was different in the respective areas. In the EEA, the average price calculated by the parties for SiC abrasive grains has increased since 1994 by about [5 to 10] %, whereas the average price in North- and South-America has decreased by 6,7 %, in Eastern Europe by 0,6 % and has remained the same in China.

(127) Furthermore, the Commission has undertaken a comparison of prices for certain categories of SiC for abrasive applications in North-America and in the EEA. Prices for black SiC grains classified to the European FEPA standard F60-120 are significantly higher than black SiC grains classified according to the respective American standard. According to the results of the investigation, prices in the EEA in 1986 were 96