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Patent Clearinghouse and Technology Diffusion: What is the Contribution of Arbitration Agreements?

  • Emanuele Bacchiega , Olivier Bonroy ORCID logo EMAIL logo and Adrien Hervouet
Published/Copyright: September 6, 2024

Abstract

One of the acknowledged advantages of patent clearinghouses is that they favor the diffusion of technology. In traditional clearinghouses, patents are usually bundled in pools and sold at a pre-set price. Recently, in the biotechnology industry a new form of clearinghouse has been observed, where patent tariffs are instead bargained over by the clearinghouse members. Exchange is then guaranteed by arbitration agreements to which the negotiating parties are bound, should their bargaining reach a dead end. This paper assesses the effect on technology diffusion of this new type of clearinghouse. We show that such arbitration agreements, through their effect on the outside options, may reduce the incentives of a member of the clearinghouse to license to non-members. This result highlights the role of such arbitration agreements in the diffusion of technology outside the clearinghouse.

JEL Classification: L14; Q16

Corresponding author: Olivier Bonroy, Université Grenoble Alpes, INRAE, UMR GAEL, Grenoble, France, E-mail: 

We wish to thank Vincenzo Denicolò and Geertrui Van Overwalle for extremely useful comments and discussions and the audiences at European Association of Agricultural Economists 2021 Congress, the European Economic Association 2020 Congress, the Law, Institutions and Economics Seminar of the Université Paris-Nanterre, the CATT seminar of the Université de Pau, and at the worskhop “Producer organizations, Quality Incentives and Agribusiness Strategies”, Southwestern University of Finance and Economics, China 2019. The usual disclaimer applies.


Appendix A: Non Profitability for U Not to License or Not to Produce in the Scenario Without PaC

A.1 No Licensing and Production by U (M)

Assume that firm U issues no license. The relevant demand is (4), with i = U. Basic computations return

(33) q M = α 2 , p M = α 2 , Π M = α 2 4 .

Direct comparison shows that Π M < Π E .

A.2 Exclusive Contract and No Production by U ( E ̇ )

Firm U enters an exclusive relationship with firm 1 or 2, with the contract T m = w m , T m , where w m is the royalty rate and T m is the fixed fee. Profits to firms U and 1 are

(34) Π m ( q m , T m ) = q m w m + t m ,

(35) π m ( q m , T m ) = [ p m ( q m ) w m ] q m t m ,

where the inverse demand p m (q m ) is as in (4) with m = 1, 2. At the last stage, Firm i maximizes its own profit, given T m by setting

(36) q ̄ m = 1 2 ( α w m ) .

Substituting back (36) into (34) and (35) returns

(37) Π ̄ m ( T m ) = 1 2 w m ( α w m ) + t m ,

(38) π ̄ m ( T m ) = 1 4 ( α w m ) 2 t m .

The upstream firm has committed to an exclusive relationship, thus both the outside options of U and i are nil. Accordingly, the Nash product is

(39) N P E ̇ ( T m ) = Π ̄ ( T m ) μ [ π ̄ m ( T m ) ] 1 μ ,

where μ (res. 1 − μ) is the bargaining weight of the upstream (res. downstream) firm. Maximization of the Nash product with respect to T m leads to

(40) T E ̇ w E ̇ , t E ̇ = 0 , α 2 μ 4 .

At optimal tariff the royalty rate equals firm U’s marginal production to maximize the industry surplus, which is appotioned according to the bargaining power distribution. We state

Lemma 5.

With exclusive licensing, an no production by U, T E ̇ is the equilibrium tariff. Equilibrium price and quantity are p E ̇ = q E ̇ = α 2 . The profit of the upstream and the downstream firms are Π E ̇ = α 2 μ 4 and π E ̇ = α 2 ( 1 μ ) 4 . The consumer surplus is C S E ̇ = α 2 8 .

Direct comparison reveals that Π M Π E ̇ , with equality if, and only if, μ = 1.

A.3 Non-Exclusive Contract and No Production by U ( N ̇ )

The upstream firm offers two licenses and does not produce. The firms’ profits are

(41) Π ( q 1 , q 2 , T 1 , T 2 ) = q 1 w 1 + q 2 w 2 + t 1 + t 2 ,

(42) π i ( q i , q j , T i ) = [ p i ( q i , q j ) w i ] q i t i , i { 1,2 } , i j ,

where p i (q i , q j ) is as in (3).

By plugging the best reply q i q ̂ j N ̇ , w i = 1 4 2 α 2 w i q ̂ j N ̇ of firm i ∈ {1, 2}, evaluated at the equilibrium quantity from firm j, q ̂ j N ̇ , back in (41) and (42), we get

(43) Π ̄ q ̂ j N ̇ , T 1 , T 2 = 1 4 w 1 2 α 2 w i q ̂ j N ̇ + w j q ̂ j N ̇ + t i + t j ,

(44) π ̄ i q ̂ j N ̇ , T i = 1 16 2 α 2 w i q ̂ j N ̇ 2 t i , i { 1,2 } , i j .

If the negotiation fails, downstream firms cannot operate, thus their profits and outside options nil. Conversely, if negotiation with i fails, U still expects that the negotiation goes ahead successfully with j. Hence the outside option of U with firm i is the profit it would reap in an exclusive relationship with firm j. With non-contingent contracts, the Nash products write

(45) N P i N ̇ q ̂ j N ̇ , T i , T j = Π ̄ q ̂ j N ̇ , T i , T j Π ̄ m ( T j ) μ π ̄ i q ̂ j N ̇ , T i 1 μ , i { 1,2 } , i j

By maximizing Nash products in (45) with respect to T 1 and T 2, substituting back the equilibrium quantities q ̄ i N ̇ ( w i , w j ) = 2 15 ( 3 α 4 w i + w j ) , i , j = 1,2 , i j and solving for w i and t i we have

(46) T i N ̇ w i N ̇ , t i N ̇ = 0 , 4 α 2 μ 25 , i { 1,2 } .

The royalty rates are set to zero, the marginal cost of the upstream monopolist. The fixed fee dictates the sharing of firm i’s profit with U.

Lemma 6.

With a non-exclusive contract and no production by firm U, the equilibrium tariffs are T i N ̇ . Equilibrium prices and quantities are p i N ̇ = q i N ̇ = 2 α 5 and profits of the upstream and the downstream firms are Π N ̇ = 8 α 2 μ 25 and π i N ̇ = 4 α 2 ( 1 μ ) 25 . The consumer surplus is C S N ̇ = 6 α 2 25 .

Direct comparison reveals that Π N ̇ < Π N .

Appendix B: Non Profitability for U Not to Produce in the Scenario with the PaC

B.1 Exclusive Contract and No Production by Firm U ( E C ̇ )

This case coincides with E ̇ (Appendix A.2) with the exception that, because of the presence of the PaC, the outside options of the firms at the bargaining stage are now determined by arbitration. Given the exclusivity choice of firm U, the royalty rate chosen by the arbitrator is w 1 = 0, and the value of the sales of the unique product available is α 2 4 . This is shared between U and 1, following the arbitrator’s preferences. The outside options are thus η α 2 4 and ( 1 η ) α 2 4 for U and 1 respectively. The negotiation between U and 1 is then set to the terms of contract chosen by the arbitrator. If μ > η, U’s profit μ α 2 4 is lower than in case M. If η > μ then Π E C ̇ = η α 2 4 , which is lesser than Π EC .

B.2 Non-Exclusive Contracts and No Production by Firm U ( N C ̇ )

This case coincides with N ̇ (see Appendix A.3) except for the presence of the arbitrator. The royalty rate chosen by the arbitrator is w 1 = 0, and the value of the sales of the product 1 is then 4 α 2 25 . This value is shared between firms U and 1, according to the arbitrator’s preferences, which reap, η 4 α 2 25 and ( 1 η ) 4 α 2 25 respectively. As in the case without PaC, w 2 = 0 and the value of the sales of the product 2 is 4 α 2 25 . This value is shared according to the bargaining weights between firms U and 2, which reap, μ 4 α 2 25 and ( 1 μ ) 4 α 2 25 respectively.

Lemma 7.

With a non-exclusive contract and no production by firm U, equilibrium prices and quantities are p i N C ̇ = q i N C ̇ = 2 α 5 . The profits are Π N C ̇ = 4 α 2 ( η + μ ) 25 , π 1 N C ̇ = 4 α 2 ( 1 η ) 25 and π 2 N C ̇ = 4 α 2 ( 1 μ ) 25 , respectively. The consumer surplus is C S N C ̇ = 6 α 2 25 .

Direct comparison reveals that Π N C ̇ < Π N C .

Appendix C: Proposition 4

Direct comparison of the profits of firm U Firm in the possible scenarios reveals that U joins the PaC and offers

  1. An exclusive contract (EC) for

    1. μ ∈ [0, 0.2920] ∩ η ∈ [(0.4048μ + 0.5952), 1],

    2. μ ∈ [0.2920, 0.4889] ∩ η ∈ [(1.4550μ + 0.2886), 1].

  2. A non-exclusive contract (NC) for

    1. μ ∈ [0.2920, 0.3447] ∩ η ∈ [(0.0567μ + 0.6968), (1.4550μ + 0.2886)],

    2. μ ∈ [0.3447, 0.4889] ∩ η ∈ [(0.4327μ + 0.5672), (1.4550μ + 0.2886)],

    3. μ ∈ [0.4889, 1] ∩ η ∈ [(0.4327μ + 0.5672), 1].

Appendix D: Proof of Proposition 5

From the proof of Proposition 4 the minimum value of η for which Firm U joins the PaC is

η ̲ = ( 0.4048 μ + 0.5952 )  for  μ [ 0,0.2920 ] , ( 0.0567 μ + 0.6968 )  for  μ [ 0.2920 , 0.3447 ] , ( 0.4327 μ + 0.5672 )  for  μ [ 0.3447 , 1 ] .

Clearly, η ̲ is always larger than μ.

Appendix E: Effect of the IP Owner’s Membership in the PaC on the License Offer

Comparison Propositions 1 and 2 we conclude that:

  1. In region μ ∈ [0.2920, 0.3447] ∩ η ∈ [(0.0567μ + 0.6968), (1.4550μ + 0.2886)], firm U’s membership in the PaC increases the number of license offered.

  2. In region μ ∈ [0.3447, 0.4889] ∩ η ∈ [(1.4550μ + 0.2886), 1], firm U’s membership in the PaC restricts the license offered.

  3. In all other regions firm U’s membership in the PaC does not affect the licenses offered.

Appendix F: Alternative Arbitration Pricing Schemes

We have carried out our analysis by assuming that the arbitrator implements non-linear contracts based on two-part tariffs. Our results remain qualitatively unchanged under two alternative, commonly used, payment schemes: a lump-sum transfer and a linear fee. Here we will limit ourselves to discuss how these pricing schemes affect the arbitration outcomes withing the clearinghouse.[32]

Figure 3 depicts the two alternative tariff structures, and diagrammatically confirms our claim that the main message goes through with different arbitration pricing schemes. Two remarks are worth making, which will be helpful in the ensuing discussion. The first one is that – as in the main model – the IP owner always finds it profitable to produce its own good. The second one is that alternative pricing schemes affect only the outside options of the firms in the platform. This, in turn, entails that the equilibrium two-part tariffs governing the trade between firm U and firm 1 are modified only in the fixed fee, as the royalty rate remains the same as in the main text. The ultimate consequence is that the equilibrium prices, quantities and total surplus generated in the industry do not depend on the tariff structure implemented by the arbitrator, which affects only the equilibrium apportioning between U and 1 of the surplus generated by the sales of good 1.

Figure 3: 
Alternative pricing schemes. (a) Lump-sum tariff. (b) Linear tariff.
Figure 3:

Alternative pricing schemes. (a) Lump-sum tariff. (b) Linear tariff.

The situation in which the arbitrator opts for a lump sum transfer mirrors the scenario discussed in the main text, with the royalty rate set to zero in case of disagreement. Because the arbitrator aims at maximizing the value of the license only, with a two-part tariff it sets a negative royalty rate, in order to boost the sales of good 1. As mentioned above, that negative royalty rate is too low from the standpoint of firm U. Consequently, the use by the arbitrator of a lump sum transfer, which implicitly amounts to increasing the royalty rate as compared to the two-part tariff, makes product 1 relatively less competitive than product U and increases the outside option of firm U at the expenses of that of firm 1. Eventually, this results in higher equilibrium profits for firm U than in the two-part tariff case. Yet, the ExE is still at work with a lump-sum tariff, because, the – implicit – royalty rate under a lump sum transfer, although larger than that under the arbitrated two-part tariff, still falls short of the one maximizing the joint profit of firms U and 1. Therefore, for given η and μ, U finds it more attractive to join the PaC with the arbitration tariff being a fixed fee.

With linear tariffs, the royalty rate both determines the total surplus to be shared and the apportioning thereof, thus the efficiency of linear tariffs within the vertical hierarchy is lower than that of non-linear contracts. It is clear that firm 1 would select the lowest rate acceptable to firm U, namely zero, while firm U would choose the one maximizing its own profit: label this royalty rate w U  > 0.[33] Clearly the arbitrator must choose a value between these two extremes, and accordingly, we assume that the chosen royalty rate is a weighted average of these extremes, with weights equal to the preference of the arbitrator for the firms, namely η × w U  + (1 − η) × 0. An immediate consequence is that, for any η < 1 the arbitrated royalty rate is lower than the one which fully internalizes the effect on the profits of firm U, which results in the existence of the ExE. Interestingly, in this case the actual size of this effect is negatively correlated with η. Consequently, the attractiveness of joining the PaC for firm U is larger under linear contracts than under two-part tariffs only if η is large enough.

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Supplementary Material

This article contains supplementary material (https://doi.org/10.1515/bejeap-2023-0220).


Received: 2023-06-22
Accepted: 2024-07-31
Published Online: 2024-09-06

© 2024 Walter de Gruyter GmbH, Berlin/Boston

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