This chapter focuses on the issues affecting equity recognition and hedging. Many of the concepts outlined herein are within the scope of IFRS 9 and IAS 32 Financial Instruments: Disclosure and Presentation. Besides the hedging of equity risk of investments in other companies, this chapter also covers the accounting treatment of preference shares, derivatives on own shares and convertibles (see Figure 9.1).
In this section I will refer to investments in non-structured entities (i.e., entities that have sufficient equity and provide the equity investors voting rights that enable them to make significant decisions relating to the entity's operations). An investment in equity securities of another company is recognised according to the degree of influence over the investee (see Figure 9.2) as follows:
IFRS 9 prohibits designating an investment accounted for by the equity method as a hedged item to avoid conflicts with existing accounting requirements for that item. Under the equity method of accounting, the investor records its share of the investee's gains or losses from its investment. It does not account for changes in the price of the equity shares, which would become part of the basis of an equity method investment if fair value hedge accounting were permitted. Changes in earnings of an equity method investee presumably would affect the fair value of its equity shares. Applying fair value hedge accounting to an equity method investment thus could result in some amount of “double counting” of the investor's share of the investee's earnings. The IASB believed that result was inappropriate. In addition, the IASB was concerned that it would be difficult to develop a method of implementing fair value hedge accounting, including measuring hedge ineffectiveness, for equity method investments and that the results of any method would be difficult to understand. For similar reasons, IFRS 9 prohibits fair value hedge accounting for a firm commitment to acquire or dispose of an investment accounted for using the equity method.
Because unconsolidated equity investments are measured at fair value, there is no need to test them for impairment. If an investment has experienced a significant and prolonged decline in its fair value, such decline would already be presented in the entity's financial statements when fair valuing the asset.
IAS 32 establishes the principles for distinguishing between liabilities and equity. The appropriate classification is determined on initial recognition and is not subsequently changed unless the terms of the instrument are modified. The classification of financial instruments issued by the entity as debt or equity can be complex. The economic substance of a financial instrument, rather than its legal form, governs its classification. Liabilities within the scope of IFRS 9 are those that arise from present contractual obligations. Conversely, IAS 32 identifies a critical feature of an equity instrument as including no present contractual obligation to pay cash or to transfer another financial asset.
A fundamental characteristic of a financial liability is a present contractual obligation to transfer assets to the holder of the instrument, over which the issuer has no discretion. A financial instrument is a liability if there is a contractual obligation:
An equity instrument represents a residual interest in the net assets of the issuer. More precisely, a financial instrument is considered an equity instrument if either of the following conditions is met:
The IASB issued a remarkably narrow amendment in 2008 whereby certain instruments that would otherwise meet the definition of a liability (because of the obligation to redeem the instrument at the option of the holder) could be classified as equity if very strict criteria were met. One of those criteria is that the puttable share is the most subordinate instrument. A puttable instrument is one that requires the issuer to repurchase or redeem the instrument for cash or some other financial asset on exercise of the put.
Not all instruments are classified as either only debt or only equity. The following table summarises the classification of the most common hybrid and equity instruments:
Instrument | Classification |
Ordinary shares | Equity |
Redeemable preference shares with non-discretionary dividends | Liability |
Redeemable preference shares with discretionary dividends | Liability for principal, and equity for dividends |
Non-redeemable preference shares with discretionary dividends | Equity |
Non-redeemable preference shares with non-discretionary dividends | Liability |
Convertible bond which converts into a fixed number of shares only, if converted | Liability for bond and equity for conversion option |
Convertible bond which converts into a variable number of shares to the value of the liability | Liability |
The financial capital markets have witnessed over the last several decades a strong development of different types of securities. Because some of these securities simultaneously have debt and equity elements, they are called “hybrid securities”. In general there are three types of hybrid securities: preference shares, convertible debt and contingent convertible debt. The aim of preference shares is to optimise their equity treatment by the rating agencies, their dividend tax deductibility, their investor demand and their IFRS accounting impact. It is critical to understand all the terms and conditions of the preference shares to ensure their appropriate classification as debt or equity.
An instrument will be considered an equity instrument if the entity has a contractual “discretion” over whether to make any cash payments. A strong economic incentive to make payments does not amount to a contractual obligation and is therefore not sufficient for liability classification. Anything outside the contractual terms is not considered when classifying an instrument under IAS 32. Therefore, contractual discretion is not affected by the following:
Economic compulsion takes place when an entity has an economic motivation, but is not obliged, to make a specific decision. For example, an issuer of a callable bond may have a strong motivation to call the bond on the call date if the bond pays a much higher than market interest rate.
In general, economic compulsion does not play a role in the classification decision under IAS 32. For example, a sold call option on an entity's own shares may be classified as either equity or liability depending on its form of settlement. The option will be considered as equity if upon exercise the issuer of the shares is obliged to deliver a fixed number of shares in exchange for a fixed amount of cash. The option will be considered as a liability if the option can only be settled in cash or if either of the two parties to the option has the right to choose between cash (or an equivalent variable number of shares) and physical settlement. Whilst there might be a strong economic compulsion to physically settle the option (e.g., because the entity owns sufficient treasury shares to meet the exercise), the existence of a right on the part of either of the two parties to choose cash settlement would cause it to be classified as a liability.
However, once a financial obligation has been established through the terms and conditions, economic compulsion may be relevant in special circumstances. One example in which economic compulsion may play a role in the instrument's classification would be an undated preference share issue with a contractually accelerating dividend, whereby in the foreseeable future the dividend yield was scheduled to be so large that the issuer would be economically compelled to redeem the instrument. In these circumstances, classification as a financial liability was appropriate because the issuer had little, if any, discretion to avoid redeeming the instrument.
IAS 32 does not take into account the level of seniority of payment of the instrument when classifying it as equity or liability. For example, an instrument can be pari passu with all the senior debt and be classified as equity. Similarly, an instrument can be pari passu with all other preference shares and be classified as liability. The seniority of payment is only relevant on liquidation of the entity and does not play a role in indicating whether the issuer has discretion to make payments under the instrument.
When deciding the classification of a financial instrument between liability and equity, attention should be paid to the underlying substance and economic reality of the contractual obligation and not just its legal form. For example, the mere fact that a financial instrument has the legal title of “shares” does not mean that the instrument should be classified as equity.
In general, the rule of thumb regarding the classification of preference shares as a liability or as equity is as follows:
The entity's history of making distributions in prior years or its ability to make distributions does not impact the classification of an instrument.
In general, convertible bonds are instruments which give the holder the right to “convert” a bond into a fixed number of the issuer's common stock (i.e., ordinary shares) at a pre-specified price –the conversion price. Let us assume a convertible bond issued by ABC with a EUR 100 million notional and conversion price of EUR 10.00. The value of the convertible bond at maturity had the profile depicted in Figure 9.3:
Convertible bonds have both common stock and straight bond features. Like common stock, convertible bondholders benefit from an appreciation of the issuer's common stock (in our previous example, when ABC's share price was above EUR 10.00). Like straight bonds (i.e., non-convertible bonds), convertible bonds can have cash redemption at maturity (in our previous example, when ABC's share price was at or below EUR 10.00) and fixed coupon payments.
From an issuer's perspective, at inception a convertible bond is split into two components: a bond part (the host contract) and an embedded option part. The bond part represents the coupon payments and the potential redemption in cash at par. The option part represents the right to exchange the bond for a number of shares. The embedded option can be recognised as either a derivative (i.e., a liability) or an equity instrument.
If a convertible bond allows the holder to convert the bond into a fixed number of the entity's equity instruments in exchange for a fixed amount of cash (or other assets), the written option is an equity instrument from an issuer's perspective. This instrument is called a compound instrument (Figure 9.4), and from an accounting standpoint is split into a liability component (the host contract) and an equity component.
On the issue date, the fair value of the liability component is determined using a market interest rate for an equivalent non-convertible bond. This amount is recorded as a liability on an amortised cost basis until extinguished on conversion or redemption of the bond. The remainder of the proceeds of the issue is allocated to the equity component (see Figure 9.5). No gain or loss arises from initially recognising the components of the instrument separately. The equity part is recognised in shareholders' equity, net of income tax effects.
If a convertible bond allows the holder to convert the bond into anything other than a fixed number of the entity's equity instruments in exchange for a fixed amount of cash (or other assets), the written option is a derivative from the issuer's perspective. This instrument is called a “hybrid instrument” (Figure 9.6) and from an accounting standpoint is split into a liability component (the host contract) and a derivative component.
On the issue date, the fair value of the liability component is determined using a market interest rate for an equivalent non-convertible bond. This amount is recorded as a liability on an amortised cost basis until extinguished on conversion or redemption of the bond. The remainder of the proceeds of the issue is allocated to the derivative component (see Figure 9.7). No gain or loss arises from initially recognising the components of the instrument separately. The derivative part is recognised as a liability and fair valued at each reporting date.
Suppose that an entity whose functional currency is the EUR issues a USD-denominated convertible bond that can be converted into a fixed number of the entity's shares for a fixed amount of USD. Because the amount is fixed in USD, it is a variable in the functional currency of the issuer (EUR).
IAS 32 states that a contract that will be settled by the entity delivering a fixed number of its own equity instruments in exchange for a variable amount of cash is a financial liability. Consequently, the written option should be classified as a liability, from an issuer perspective.
This treatment would result in reporting gains and losses arising from the entity's own equity through profit or loss, along with the currency gains and losses. Therefore, IFRS 9 permits cash flow hedges of such FX exposure.
From an investor's perspective, a convertible bond is recognised in its entirety at FVTPL because the host contract and the embedded derivative are not closely related. The host contract resembles a debt instrument while the embedded derivative resembles an equity derivative instrument. As a result, at each reporting date the convertible bond would be fair valued and the change in fair value since the last fair valuation would be recognised in profit or loss.
The term “own equity instruments” usually refers to equity instruments issued by the parent company. However, the term also refers to equity instruments issued by its fully consolidated subsidiaries, as these instruments are in substance equivalent to equity instruments of the parent company.
IFRS 9 prohibits an equity instrument classified by an entity in its shareholders' equity in the statement of financial position from being designated as a hedged item. For example, an equity instrument does not meet the following hedge accounting requirements: (a) that a hedged item is a firm commitment, a highly expected forecast transaction or an already recognised asset or liability (the equity instrument is not an asset or liability, but an element of shareholders' equity); and (b) that the hedged item represents an exposure to changes in fair value that could affect reported profit or loss, or OCI in the case of investments at FVOCI (an equity instrument is not fair valued, and its repurchase/reissuance does not affect profit or loss). This prohibition does not apply to the holder of the equity instrument.
A derivative on an own equity instrument may be accounted for as a derivative instrument or an equity instrument, depending on the type of derivative and method of settlement.
The following table illustrates whether a derivative on own shares is a financial liability or an equity instrument:
Physical delivery only (1) | Physical delivery or cash settlement (at the discretion of the issuer or the holder) | Cash settlement only (or net share equivalent) (2) | |
Forward contract to buy own shares | Equity plus recognition of a financial liability | Derivative plus recognition of a financial liability | Derivative |
Forward contract to sell own shares | Equity | Derivative | Derivative |
Purchased call on own shares | Equity | Derivative | Derivative |
Written call on own shares | Equity | Derivative | Derivative |
Purchased put on own shares | Equity | Derivative | Derivative |
Written put on own shares | Equity plus recognition of a financial liability | Derivative plus recognition of a financial liability | Derivative |
Notes:
(1) Assuming the settlement is made by exchanging a fixed amount of cash for a fixed number of the entity's own shares
(2) In a net share settlement, a variable number of shares is delivered/received having a fair value equivalent to the derivative's fair value at the time of exercise
This case study covers the accounting of securities lending transactions. Suppose that an entity has a large investment in equity shares of another company. If the entity wants to earn additional income, or to lower its cost of funding, it might lend those shares to a financial institution. The financial institution may need to borrow those instruments to cover a short position or to meet delivery obligations. Securities lending is a transaction where a lender (the entity in our case) transfers legal title to securities to a borrower (the financial institution) and the borrower is obliged to return the same type of securities to the lender at the end of the lending period.
Securities lending transactions are usually collateralised by receiving cash or low-risk securities. In the event of a default by the borrower, the securities lending agreement provides the entity with the right to liquidate the collateral held.
Suppose that, on 1 April 20X0, ABC had 40 million shares in DEF and that it lent those shares to XYZ Bank. As a consequence of the stock lending agreement, legal ownership of the shares was transferred to XYZ Bank. The shares were trading at EUR 10.00 on that date. To reduce its credit exposure to XYZ Bank, ABC received EUR 400 million cash from XYZ Bank as collateral at the beginning of the transaction. The lending agreement matured on 1 August 20X0 (usually there is no maturity to the agreement, and either the lender or the borrower can terminate the agreement at any time). Figure 9.8 highlights the initial flows of the transaction.
ABC derived income by investing the EUR 400 million cash collateral in a deposit yielding 5%. Normally, as in our case, this income would be paid over to the borrower, less a margin to represent a stock lending fee for providing securities to the financial institution. In our case, this interest was to be received (and passed to the borrower) on maturity of the lending agreement. The lending margin was 50 basis points, or 0.50%. Figure 9.9 shows the transaction's interest cash flows.
Suppose also that the DEF shares paid a EUR 0.50 dividend per share on 15 July 20X0. The dividend was received by XYZ Bank as it was the legal owner of the shares. Under the lending agreement, XYZ Bank was required to pass the dividend on a gross basis to ABC on the dividend payment date, as shown in Figure 9.10.
On maturity of the transaction (1 August 20X0), the initial flows were reversed as shown in Figure 9.11: XYZ Bank returned the shares to ABC in exchange for the repayment of the EUR 400 million collateral. ABC became the legal owner of the shares.
Suppose that ABC reported its financial statements quarterly, at the end of each March, June, September and December. The required journal entries were as follows:
The DEF shares were classified at FVTPL. The 40 million DEF shares were fair valued by ABC on the previous reporting date (31 March 20X0) at EUR 9.00 per share. When an entity lends its securities, it reports these securities as pledged assets in its statement of financial position (i.e., balance sheet). The shares remained on ABC's asset side.
The DEF shares were trading at EUR 11.00 on 30 June 20X0. ABC classified the investment in DEF shares at FVTPL. On the previous reporting date (30 March 20X0), the shares were fair valued at EUR 9.00 per share. The change in fair value of the shares represented a EUR 80 million (=40 million × (11 – 9)) gain.
The DEF 40 million shares paid a EUR 20 million dividend (EUR 0.50 per share) on 15 July 20X0. Under the lending agreement, XYZ Bank was required to pass the dividend to ABC on the dividend payment date.
The number of days elapsed since 30 June 20X0 was 32. Thus, the deposit accrued interest amount was EUR 1,778,000 (=400 million × 5% × 32/360).
Looking at ABC's profit or loss statement during the life of the lending agreement, it can be noted that the rationale behind the lending of DEF shares was to enhance the yield on the investment. ABC obtained 50 basis points for lending DEF shares (or EUR 678,000). Figure 9.12 compares the pre-tax profit or loss statements of ABC without and with the lending agreement in place.
The transaction, however, had two major disadvantages. Firstly, ABC lost the voting rights on the DEF shares during the life of the transaction. Secondly, ABC received an interest amount equivalent to the gross dividend of DEF shares, but could not claim any tax deductions related to such dividend.
Finally, two particular comments are worth noting. Firstly, in our case study the amount of collateral was based on the market value of the DEF shares at the beginning of the lending agreement, and this amount remained unchanged during the life of the agreement. Commonly, the collateral amount changes in order to eliminate credit exposure of the lender (ABC) to the borrower (XYZ Bank). The lender monitors the market value of the shares lent on a daily basis and requests additional collateral or returns surplus collateral in accordance with the market value of the lent/borrowed shares. The corresponding accounting entries are then produced on a daily basis to record the additional collateral received or returned, a substantial operational burden. Secondly, lending agreements usually do not have a fixed maturity. At any time, either the lender or the borrower can terminate the agreement by providing notice to the other party.
This case study covers the accounting of both a bond mandatorily convertible into a fixed number of shares (a fixed parity mandatory convertible) and a bond mandatorily convertible into a variable number of shares (a variable parity mandatory convertible). A mandatorily convertible (or exchangeable) bond is an instrument that includes an unconditional obligation requiring the issuer to redeem the bond by delivering a specified number of shares of the issuer (or a third party in the case of an exchangeable bond) at a specified date or dates.
Let us assume that on 1 January 20X0 ABC issued a fixed-parity mandatory convertible bond on its own shares with the following terms:
Fixed Parity Mandatory Convertible Bond Terms | |
Issue date | 1 January 20X0 |
Issuer | ABC Corporation (“ABC”) |
Issue proceeds | EUR 99.5 million |
Principal | EUR 100 million |
Maturity | 3 years |
Interest | 5%, annually payable each 31 December |
Conversion | Obligatorily convertible on maturity into 10 million new shares of ABC |
Let us also assume that, at bond maturity, ABC issued 10 million ordinary shares with a par value of EUR 1.00 each. The issue value was EUR 10.00 per share. Therefore, the share premium was EUR 9.00 per share.
Two are the potential accounting treatments of mandatory convertibles depending whether the conversion implies the delivery of a fixed number for a fixed amount of cash (or its equivalent in other assets).
Mandatory convertibles which upon conversion the issuer has an obligation to deliver a fixed number of its own shares, are compound instruments that have both debt and equity characteristics. Under IFRS, the components of a mandatory convertible are bifurcated at the time of issuance into a debt component and an equity component. The initial carrying amount of the debt component is calculated as the present value of the bond cash flows for which the entity has a potential obligation to pay. The cash flows are discounted using the prevailing yield of similar debt without the conversion feature. The equity component represents the requirement to convert the mandatory convertible into ABC shares. Its initial value is calculated as the difference between the issue proceeds and the debt component. There is no subsequent fair valuation for either component, assuming that the debt component is recognised at amortised cost. This was the situation in our case.
Let us assume that when the mandatory convertible bond was issued, the prevailing yield of similar debt without the conversion feature was 5.70%. The debt component, EUR 98.12 million, was determined as the present value of the bond cash flows, assuming that the bond does not have the equity conversion feature. The calculation of the carrying amount of the debt component was performed as follows (amounts in EUR millions):
As the proceeds of the mandatory convertible issue were EUR 99.5 million, the equity component represented EUR 86.06 million (=99.5 mn – 13.44 mn), as shown in Figure 9.13. Therefore, the bifurcation resulted in a positive value being ascribed to the equity component and a lower value (discount) to the debt component. This discount was amortised as an adjustment (increase) to interest expense over the term of the mandatory convertible.
The amortised cost and interest expense of the liability component at each accounting date was determined as follows:
Year | Amortised cost Beginning Year (a) | Interest expense (b) = (a) × 5.7% | Cash payment (c) | Amortised cost at end of year (d) = (a) + (b) – (c) |
1 | 13,440,000 | 766,000 | 5,000,000 | 9,206,000 |
2 | 9,206,000 | 525,000 | 5,000,000 | 4,731,000 |
3 | 4,731,000 | 271,000 (*) | 5,000,000 | -0- |
(*) The calculation was in reality 270,000. The difference was due to rounding. The figure 271,000 was used to reach a EUR 100 million redemption amount
The issue proceeds were EUR 99.5 million. The initial fair value of the equity component was EUR 86.060,000. The initial value of the debt component was EUR 13,440,000.
To record the interest expense and payment:
In the previous example, the embedded equity conversion was recognised as an equity instrument because the conversion feature implied the issuer delivering a fixed number of own shares in exchange for a fixed amount of cash (i.e., it met the “fixed-for-fixed” requirement for equity instruments). Next I will cover a mandatory convertible in which the number of own shares to be delivered was variable.
Suppose that on 1 January 20X0 ABC issued a mandatorily convertible bond on its own shares with the following terms:
Variable parity mandatory convertible bond terms | |
Issue date | 1 January 20X0 |
Issuer | ABC Corporation |
Issue proceeds | EUR 99.5 million |
Principal | EUR 100 million |
Maturity | 3 years |
Interest | 5.7% annually, payable 31 December |
Conversion | Obligatorily convertible on maturity into the following number of shares the issuer: Number of shares = Bond principal/Share price at maturity |
On maturity the issuer had the obligation to deliver a variable number of shares. The number of shares to be delivered was equal to the bond principal (i.e., EUR 100 million) divided by the share price at conversion (i.e., the bondholder had no equity price risk). The fair value of the embedded conversion was nil during the life of the mandatory convertible and, as result, the instrument was initially recognised as a liability without any embedded option (see Figure 9.14). In other words, the mandatory convertible was theoretically equivalent to (i) the issuance of a straight bond (i.e., a bond without any conversion features), (ii) the issuance of shares at maturity and (iii) the redemption of the straight bond using the proceeds from the share issuance.
The bond was recognised at amortised cost using the effective interest rate (EIR) method. The bond's EIR was 5.887%. The EIR was determined by taking into account the EUR 99.5 million issue proceeds and the EUR 5.7 million annual coupon, as follows:
The liability's amortised cost and interest expense at each accounting date was determined as follows:
Year | Amortised cost at beginning year (a) | Interest expense (b) = (a) × 5.887% | Cash payment (c) | Amortised cost at end of year (d) = (a) + (b) – (c) |
1 | 99,500,000 | 5,858,000 | 5,700,000 | 99,658,000 |
2 | 99,658,000 | 5,867,000 | 5,700,000 | 99,825,000 |
3 | 99,825,000 | 5,875,000 (*) | 5,700,000 | 100,000,000 |
(*) The calculation was in reality 5,880,000. The difference was due to rounding. The figure 5,875,000 was used to reach the EUR 100 million redemption amount
Suppose that on maturity (31 December 20X2), ABC's share price was EUR 12.50. As a result, the bond converted into 8 million (=100 mn/12.5) shares of ABC with a nominal value of EUR 1.00 per share. The bond also paid a EUR 5.7 million coupon on that date.
The previous two examples covered mandatory convertibles with fixed parity and variable parity features. Mandatory convertibles that combine both features (e.g., a bond mandatorily convertible into a fixed number of shares plus an additional variable number of shares that is a function of the share price at maturity) are recognised as hybrid instruments. At the time of issuance the instrument is split into a debt component (the host contract) and a derivative component (see Figure 9.7). The initial carrying amount of the debt component is calculated as the present value of the bond cash flows assuming that the bond does not have the equity conversion feature. The cash flows are discounted using the prevailing yield of similar debt without the conversion feature. The derivative component represents the requirement to redeem the principal in shares. The derivative component is calculated as the difference between the issue proceeds and the debt component. There is a subsequent fair valuation of the derivative component at each reporting date and at maturity.
This case study covers the accounting of convertibles. A convertible bond is an instrument which can be converted into shares of the bond issuer at the holder's option. At specific dates (usually at any time during the life of the convertible), the bondholder can exercise his/her conversion right.
There are two potential accounting treatments of convertibles depending on their conversion characteristics. If the potential conversion implies the delivery of a fixed number of issuer shares for a fixed amount of cash (or its equivalent in other assets), the instrument is called a compound instrument and is recognised as a liability and an equity instrument. Otherwise, the instrument is called a hybrid instrument and is recognised as a liability and a derivative.
In this first example, upon conversion the issuer would deliver a fixed number of the issuer's shares. Suppose that, on 1 January 20X0, ABC issued a convertible bond on its own shares with the following terms:
Convertible bond terms | |
Issue date | 1 January 20X0 |
Issuer | ABC |
Issue proceeds | EUR 99.5 million |
Principal | EUR 100 million |
Maturity | 3 years (31 December 20X2) |
Interest | 2% annually, payable 31 December |
Conversion | At the holder's option on maturity. Convertible into 10 million new shares of ABC, to be issued on maturity |
Conversion rate | EUR 10 per share |
Price of ABC shares on the issue date | EUR 7 per share |
At maturity the bondholders had the right to receive shares of ABC rather than receiving the EUR 100 million principal. Were the bondholders to exercise their conversion right, ABC would deliver 10 million (= Principal/Conversion rate = EUR 100 mn/EUR 10 per share) own shares. In the situation where, when exercised by the holder, the issuer has the obligation to deliver a fixed number of shares, convertibles are compound instruments that have both debt and equity characteristics. The fixed-for-fixed criterion is met as following conversion the holder receives a fixed number of shares in exchange for the bond's principal (i.e., in exchange for a fixed amount of cash – or other assets worth a fixed amount).
From an issuer's perspective, the components of fixed-for-fixed convertibles are bifurcated at the time of issuance into a debt component and an equity component (see Figure 9.7). The initial carrying amount of the debt component is calculated as the present value of the bond cash flows assuming that the bond's conversion right is not exercised. The cash flows are discounted using the prevailing yield of similar debt without the conversion feature (i.e., a straight bond issued by the issuer with similar maturity). The equity component represents the option to convert the bond into ABC shares. It is calculated as the difference between the issue proceeds and the debt component. There is no subsequent fair valuation for either component.
Suppose also that at the time of issuance, the prevailing yield for ABC debt with a 3-year term but without a conversion option was 5%. The initial carrying amount of debt component was EUR 91.83 million, calculated as the present value of the bond cash flows (i.e., the EUR 2 million annual coupons and the EUR 100 million redemption amount) discounted using the 5% yield for similar straight debt of the issuer, as follows:
The remainder of the proceeds of the issue were allocated to the equity component. As the proceeds of the convertible issue were EUR 99.5 million, the equity component was EUR 7.67 million (=99.5 mm – 91.83 mn), as shown in Figure 9.15. Therefore, the bifurcation resulted in a positive value being ascribed to the equity component and a lower value (discount) to the debt component. This discount was amortised as an adjustment (increase) to interest expense over the term of the convertible bond.
The liability discount (i.e., the difference between the EUR 100 million redemption amount and the EUR 91.83 million initial carrying amount) was amortised as an adjustment (increase) to interest expense over the term of the convertible. The amortised cost and interest expense of the liability at each accounting date were calculated as follows:
Year | Amortised cost at beginning year (a) | Interest expense (b)=(a) × 5% | Cash payment (c) | Amortised cost at end of year (d) = (a) + (b) – (c) |
1 | 91,830,000 | 4,592,000 | 2,000,000 | 94,422,000 |
2 | 94,422,000 | 4,721,000 | 2,000,000 | 97,143,000 |
3 | 97,143,000 | 4,857,000 | 2,000,000 | 100,000,000 |
At this point there are two different scenarios to consider, depending on the share price at maturity.
Scenario 1: Conversion. Suppose that at maturity, ABC shares were trading at EUR 13, above the EUR 10 conversion rate. As a consequence, the bondholders would exercise their conversion right and ABC would issue 10 million ordinary new shares with a par value of EUR 1.00 each. The share issue value was EUR 10.00 per share or EUR 100 million. Therefore, the share premium was EUR 9.00 per share or EUR 90 million. The related accounting entries would be as follows:
In a second example, I will cover a convertible bond in which, following conversion by the bondholders, the issuer may deliver a fixed amount of shares (physical settlement), a cash amount (cash settlement) or a combination of cash and shares (net share settlement). Suppose that, on 1 January 20X0, ABC issued a convertible bond on its own shares with the following terms:
Convertible bond terms | |
Issue date | 1 January 20X0 |
Issuer | ABC |
Issue proceeds | EUR 99.5 million |
Principal | EUR 100 million |
Redemption amount | 100% of the principal amount |
Maturity | 3 years (31 December 20X2) |
Interest | 2% annually, payable on 31 December |
Conversion | At the holder's option, on maturity. If holder exercises conversion right, issuer my choose to deliver either:
|
Conversion rate | EUR 10 per share |
Current price of ABC shares | EUR 7 per share |
In the situation where, upon conversion, the issuer is under no obligation to deliver a fixed number of its own shares, convertibles are hybrid instruments that have both debt and equity derivative characteristics. Under IFRS, the components of convertibles of this type are bifurcated at the time of issuance into a debt (liability) component and a derivative component.
The calculation of the debt (liability) component (EUR 91.83 million) was identical to that in the previous fixed-for-fixed convertible example. The remainder of the proceeds of the issue was allocated to a derivative component. As the proceeds of the convertible issue were EUR 99.5 million, the initial carrying amount of the derivative component was EUR 7.67 million (=99.5 mm – 91.83 mn), as shown in Figure 9.16.
The amortised cost and interest expense of the liability component at each accounting date were identical to those of the previous fixed-for-fixed convertible example:
Year | Amortised cost at beginning year (a) | Interest expense (b) = (a) × 5% | Cash payment (c) | Amortised cost at end of year (d) = (a) + (b) – (c) |
1 | 91,830,000 | 4,592,000 | 2,000,000 | 94,422,000 |
2 | 94,422,000 | 4,721,000 | 2,000,000 | 97,143,000 |
3 | 97,143,000 | 4,857,000 | 2,000,000 | 100,000,000 |
The derivative component had to be fair valued at each reporting date. The change in fair value was recognised in profit or loss. Suppose that the derivative's fair values were as follows:
Year | ABC's share price | Derivative component fair value | Change in fair value |
Inception | 7.00 | 7,670,000 | |
1 | 9.00 | 8,380,000 | 710,000 |
2 | 10.00 | 9,450,000 | 1,070,000 |
3 | 13.00 | 30,000,000 | 20,550,000 |
At maturity ABC shares were trading at EUR 13, above the EUR 10 conversion rate. As a result, the bondholders exercised their conversion right. Let us cover next three different scenarios, one for each type of conversion.
Scenario 1: Conversion in shares only. Under this scenario, ABC issued 10 million ordinary new shares with a par value of EUR 1.00 each. The share issue value was EUR 13.00 per share or EUR 130 million. Therefore, the share premium was EUR 12.00 per share or EUR 120 million. The related accounting entries would be as follows:
The aim of this case study is to illustrate the process of deciding whether an instrument, a step-up callable perpetual preference share, is classified as equity or as a liability. It also highlights the challenge of hedging equity instruments.
A perpetual step-up instrument is an irredeemable callable financial instrument with fixed or floating dividend payments. The instrument includes a “step-up” dividend clause that would increase the dividend at a predetermined date in the future unless the instrument has previously been called by the issuer. Suppose that on 1 January 20X0, ABC issued the following step-up callable perpetual preference shares:
Step-up callable preference shares – terms | |
Issue date | 1 January 20X0 |
Issuer | ABC |
Principal | EUR 200 million |
Maturity | Perpetual, subject to call right |
Call Right | The issuer has the right, but not the obligation, to redeem the shares on 31-Dec-X2 and every 3 years thereafter |
Dividend (annually) | Euribor 12M + 100 bps up to and including 31-Dec-X2. Euribor 12M + 500 bps, thereafter |
Dividend payment | Payment of dividend is mandatory only if dividends are paid on ABC's ordinary shares |
Seniority | Upon liquidation of the issuer, principal is paid out ahead of ordinary shares, but subordinated to other senior and subordinated claims of the issuer |
First of all, let us analyse whether the elements of the instrument were classified as debt or equity. In our preference shares, ABC had potentially two types of payments to the holder of the preference shares: principal and dividends.
IAS 32 considers that the seniority of payment of an obligation, which arises only on liquidation of the entity, does not affect the classification of the financial instrument. So in our case, the seniority of the preference shares between subordinated debt and ordinary shares did not affect the liability/equity classification. Similarly, the legal definition of the instrument as “shares” had no impact on the classification. Substance rather than legal form rules the liability/equity classification.
The instrument was classified as equity under IAS 32, as the entity could choose not to redeem the instrument and to pay no distributions on it in perpetuity. Whilst a consequence of a non-payment of interest was that the entity could not pay an ordinary dividend, this restriction did not amount to a contractual obligation.
By issuing the step-up callable preference shares, ABC strengthened its capital base as the issue was deemed by the credit rating agencies to be an equity instrument. The accounting consideration of an instrument as equity or debt is not relevant for the rating agencies when assessing the impact of the instrument on the issuer's credit rating. Conversely, factors that are relevant for the credit rating agencies, such as the seniority of the instrument relative to other claims, may be irrelevant from an accounting viewpoint.
The classification of the dividends as equity may cause a problem: dividends distributed by the entity cannot be considered a hedged item under IFRS 9. The fundamental principle under IFRS 9 is that, in a hedging relationship, the hedged item creates an exposure to risk that could affect the profit or loss statement (or permanently OCI, for equity investments at fair value through OCI). In our case, any paid dividends were considered a distribution of profits, and thus were not recorded in profit or loss. As a consequence, the dividends of ABC's step-up callable preference shares were not eligible for designation as a hedged item in a hedge accounting relationship.
If ABC wanted to hedge the dividends exposure to rising Euribor rates by entering into a pay-fixed receive-floating interest rate swap, it was left with three options:
Suppose that ABC decided to pursue the third option. The strategy encompassed including the receive-floating pay-fixed interest rate swap in an asset or liability that could be recognised at amortised cost as a whole – that is, that did not require the whole instrument to be recognised at FVTPL (for an asset), or did not require the bifurcation of the swap from the host contract (for a liability).
One way to implement this strategy was the following. Suppose that, simultaneously with the preference shares issue, ABC issued a fixed rate bond. The bond was accounted for at amortised cost, and therefore, no fair valuing of the bond was required. The bond had the following terms:
Fixed rate bond – terms | |
Issue date | 1 January 20X0 |
Issuer | ABC |
Principal | EUR 200 million |
Maturity | 3 years (31-Dec-X2) |
Interest (annually) | 4%, paid every 31 December |
The proceeds of the bond were invested in a floating rate deposit. The deposit was accounted for at amortised cost. The deposit had the following terms:
Floating rate deposit – terms | |
Issue date | 1 January 20X0 |
Issuer | XYZ Bank |
Investor | ABC |
Principal | EUR 200 million |
Maturity | 3 years (31-Dec-X2) |
Interest (annually) | Euribor 12-month minus 0.10%, paid on 31 December |
In order to generate the strategy's accounting entries, suppose that the Euribor 12-month rates and the interest/dividend payments were as follows:
Payment date | Euribor 12-month | Pref. shares dividend rate | Deposit rate | Bond rate | Resulting rate |
31-Dec-X0 | 3.00% | 4.00% | 2.90% | 4.00% | 5.10% |
31-Dec-X1 | 3.40% | 4.40% | 3.30% | 4.00% | 5.10% |
31-Dec-X2 | 3.70% | 4.70% | 3.60% | 4.00% | 5.10% |
The required journal entries were the following.
The proceeds of the preference shares issue and the fixed rate bond issue were EUR 200 million. The investment in the bank deposit was EUR 200 million as well.
Suppose that the ordinary shares paid a dividend, and as a result that the holders of the preference shares were entitled to receive a dividend payment. As the preference shares rate was 4%, the dividend was EUR 8 million (=4% × 200 million). Note that the accounting entry shown below is simplified: in reality, and previously to 31 December 20X0, ABC would have declared a dividend and recognised its related payable that would be eliminated on dividend payment. The interest expense and payment on the fixed rate bond was EUR 8 million (=4% × 200 million). Similarly, the interest income from the bank deposit was EUR 5.8 million (=2.90% × 200 million).
Suppose that ABC paid a EUR 8.8 million (=4.40% × 200 million) dividend to the holders of the preference shares. The interest expense and payment on the fixed rate bond was EUR 8 million (=4% × 200 million). Similarly, the interest income from the bank deposit was EUR 6.6 million (=3.3% × 200 million).
Suppose that ABC paid a EUR 9.4 million (=4.7% × 200 million) dividend to the holders of the preference shares. The interest expense and payment on the fixed rate bond was EUR 8 million (=4% × 200 million). Similarly, the interest income from the bank deposit was EUR 7.2 million (=3.6% × 200 million).
Suppose that ABC exercised its preference shares' call right on 31 December 20X2 to avoid paying the step-up dividend rate thereafter. The redemption amount of the preference shares was EUR 200 million. The redemption amounts of the fixed rate bond issue and the bank deposit were each EUR 200 million.
The main objective of the hedge was to fix the expected cash flow to be paid each year under the preference shares. Figure 9.17 highlights the resulting cash flow from the strategy during the year ending on 31 December 20X2. ABC paid a combined EUR 10.2 million fixed amount (an overall yield of 5.1%).
The secondary objective was to avoid recording the mark-to-market of the hedging strategy in profit or loss. This objective was also achieved as none of the three instruments was marked-to-market.
Whilst the two objectives were achieved, there were some effects that made the hedging strategy far from optimal. Firstly, the balance sheet was notably enlarged and some ratios deteriorated because of the hedge (e.g., ABC's return on assets). Secondly, there was an additional cost because the funding level of the bond was higher than the yield of the deposit. Thirdly, there could be a potential mismatch of cash flows as the dividend payment may not be paid (e.g., because a dividend was not distributed to the ordinary shareholders) while the deposit and bond cash flows always took place. Finally, ABC's profit or loss statement showed an exposure to interest rate risk (see Figure 9.18), to rising Euribor 12-month rates when dividends were not distributed to the preference shareholders.
This case study shows an obsolete strategy –a base instrument linked to a debt instrument – to achieve equity recognition for dividends of an instrument that otherwise would have been recognised as a liability, enhancing an entity's capital position. This loop was closed by the IFRS Interpretations Committee (IFRIC) but allows me to provide an interesting short example on debt versus equity classification.
Assume that a “base” instrument consisted of irredeemable (i.e., perpetual) callable preference shares with dividends that had to be paid if interest was paid on another (the “linked”) instrument, as shown in Figure 9.19. The terms of the linked instrument obliged the issuer to make interest payments, and hence the “linked” instrument was classified as a liability. The linked instrument was callable by the issuer at any time, and had a small notional.
In the old days, this strategy's preference shares dividends were classified as equity because the base instrument (i.e., the preference shares) did not have a contractual obligation to deliver cash (or any other financial asset). After an opinion issued by the IFRIC, these dividends were classified as a liability because the linkage to the linked instrument created an implicit contractual obligation for the entity to pay dividends on the base instrument.
The linked instrument frequently had a small face value compared to the base instrument. This insignificant value did not impact the liability classification. It did not eliminate the fact that the issuer had no discretion over the payment of the dividend on the base instrument (i.e., the linking created a contractual obligation with regard to the base instrument).
If the linked instrument was callable by the issuer at any time, the issuer could avoid paying interest on the base instrument. However, until the linked instrument was called, a contractual obligation to pay interest on the base instrument existed.
This case study covers a transaction to monetise an existing investment in shares of another company. It may be used to finance the acquisition of shares as well. An equity total return swap (TRS) may allow for cash settlement, physical settlement or a combination of both. A TRS involves receiving the total return on a specified reference asset in exchange for a string of interest payments. The total return is the capital gain or loss on the reference asset, plus any interim dividends. The TRS allows an entity to derive the economic benefit of owning an asset without having to commit cash resources to it.
TRSs have many potential uses. For example, through a TRS an entity may postpone a monetary gain, may comply with ownership regulations, or may raise collateralised financing. A TRS can also be used as an investment tool to get exposure to the appreciation (and depreciation) of a group of shares. This last use of TRSs is quite uncommon among corporates but quite popular among hedge funds.
Suppose that ABC was a highly leveraged entity and did not want to use the debt capital markets to raise new financing. ABC had an investment in shares of DEF – an unrelated company – and decided to raise financing by monetising its investment in DEF. The investment was classified at fair value through OCI. As part of the strategy, ABC entered into the following TRS:
Total return swap terms | |
Trade date | 1 January 20X0 |
Counterparties | ABC and XYZ Bank |
Underlying shares | Ordinary shares in DEF |
Number shares | 20 million |
Initial price | EUR 10 per share |
Notional amount | EUR 200 million |
Maturity | 2 years (31 December 20X1) |
ABC receives on dividend payment date | An amount equal to the gross dividend distributed to the underlying shares. This amount is received on the date that the dividend is paid |
ABC pays annually | Euribor 12-month plus 50 bps, on the notional amount, paid annually on 31 December |
Settlement | At maturity, ABC has the right to choose between cash and physical settlement |
Cash settlement | Final amount = Number shares × (Final price – Initial price) If the final amount is positive, ABC receives the final amount at maturity. If the final amount is negative, ABC pays the absolute value of the final amount at maturity |
Final price | The closing price of the underlying shares at maturity |
At the beginning of the transaction, ABC sold 20 million DEF shares to XYZ Bank at market value. As DEF shares were trading at EUR 10 on that date, ABC received EUR 200 million for the sale. Figure 9.20 highlights the initial flows of the monetisation strategy. Legal ownership of the DEF shares was transferred to XYZ Bank.
During the term of the TRS, ABC paid Euribor plus 50 bps annually on the notional amount, as shown in Figure 9.21.
DEF distributed a dividend periodically to its shareholders. Suppose that on 31 December 20X0 ABC declared and simultaneously paid a EUR 0.10 dividend per share, and on 31 December 20X1 a EUR 0.12 dividend per share. Because XYZ Bank was the legal owner of the shares, it received the dividends. Through the TRS, XYZ Bank was obliged to pass to ABC an amount equal to the dividends received on the underlying DEF shares. Figure 9.22 shows the cash flows related to the dividends.
At the end of the transaction, ABC could choose either to buy back the shares (physical settlement), or to cash settle the TRS. ABC would choose the latter if it were not interested in continuing to own the DEF shares. Under the cash settlement alternative, the closing price of the DEF shares prevailing on the TRS maturity date (the “final price”) would be determined. If the final price was greater than the initial price, XYZ Bank would pay to ABC the appreciation of the shares. The cash settlement amount would be calculated as:
Final amount = Number of shares × (Final price–Initial price)
If the final price was lower than the initial price, ABC would pay to XYZ Bank the depreciation of the shares. The cash settlement amount would be calculated as:
Final amount = Number of shares × (Initial price–Final price)
Suppose that the closing price of DEF shares on 31 December 20X1 was EUR 13.00 and that ABC opted for cash settlement. As a consequence, XYZ Bank was obliged to pay to ABC the appreciation of the DEF shares, or EUR 60 million (=20 million shares × (13 – 10)). In reality, and in order not to be exposed to the price of the DEF shares, XYZ Bank would have sold the shares in the market near the close of the trading session. As a consequence, XYZ Bank would have received EUR 260 million (=20 million shares × 13) for selling the shares in the market. Figure 9.23 shows the different flows taking place at maturity.
From an accounting standpoint, the key element was to assess whether ABC could derecognise the sold DEF shares at the beginning of the TRS. Whilst ABC physically sold the DEF shares to XYZ Bank and ABC had no obligation to repurchase the shares at maturity, it retained all risks and rewards on the shares. As a result, ABC continued to recognise the DEF shares in its statement of financial position (i.e., balance sheet). This accounting treatment made sense: in essence the TRS replicated the position of a secured financing transaction in which ABC borrowed EUR 200 million, paid a Euribor + 50 bps interest and posted the DEF shares as collateral. The required journal entries were as follows.
Suppose that the DEF shares were trading at EUR 12.00 per share and that they were classified at FVOCI. Thus the change in their fair value since the last valuation was a gain of EUR 40 million (=20 mn shares × (12 – 10)), recorded in OCI. To record the fair valuation of the shares:
First, let us assume that the DEF shares were trading at EUR 13 per share. Thus the change in their fair value since the last valuation was a gain of EUR 20 million (=20 mn shares × (13 – 12)). Second, assuming that the Euribor 12-month fixing for the interest period was 4.40%, ABC paid to XYZ Bank EUR 9,936,000 in interest (=200 million × (4.40%+0.50%) × 365/360) under the TRS. Finally, assuming that the DEF shares paid a dividend of EUR 0.12 per share, ABC received EUR 2,400,000 (=20 million shares × 0.12) through the TRS.
Regarding the termination of the TRS on 31 December 20X1, I will cover the accounting entries for the two settlement alternatives available to ABC.
Under the cash settlement alternative, a final amount was calculated and paid by one party to the other. The DEF shares were trading at EUR 13 per share, above the EUR 10.00 initial value. As a result, ABC received EUR 60 million (=20 mn shares × (13 – 10)) from XYZ Bank. Once the TRS was terminated, ABC was not exposed to the risks and rewards of the DEF shares, and as a result the DEF shares were derecognised from ABC's balance sheet and the amount accumulated in OCI was recycled within equity. In this example, EUR 60 million was assumed to be the amount accumulated in OCI related to the derecognised 20 million DEF shares.
The aim of this case study is to illustrate the application of hedge accounting when hedging the market risk of an equity investment classified at FVOCI using a purchased put option.
Suppose that on 31 January 20X7, ABC purchased 10 million shares in DEF at EUR 10 per share. ABC classified this investment at FVOCI. To protect the investment from a decline in DEF's share price during the next 4 months, ABC purchased a put option on 31 January 20X7. The main terms of the put option were as follows:
Put option terms | |
Trade date | 31 January 20X7 |
Option type | Put option |
Counterparties | ABC and XYZ Bank |
Option buyer | ABC |
Expiry | 31 May 20X7 (4 months) |
Strike | EUR 9.00 |
Nominal | 10 million shares |
Underlying | DEF ordinary shares |
Premium | EUR 6 million |
Settlement | Cash settlement |
ABC designated the put option as the hedging instrument in a fair value hedge of its equity investment. Two alternatives are discussed below. In the first the time value of the put option was excluded from the hedging relationship (i.e., only the option's intrinsic value was designated as the hedging instrument), an alternative that was arguably inefficient from an operational perspective. In the second, the put option in its entirety was designated as the hedging instrument, the preferred choice.
When an entity designates only the intrinsic value of a purchased option (or an option combination) as the hedging instrument in a hedge accounting relationship, the change in fair value of an option's time value is recognised in OCI to the extent that it relates to the hedged item. Under IFRS 9, the accounting treatment of an option time value depends on whether the hedged item is transaction related or time-period related (see Section 2.10.3).
In this case, we are dealing with a time-period related hedged item because ABC hedged the fair value of the DEF shares over a period of time (4 months). As a result, the accounting for the time value of the put option was recorded in a two-step process:
The following table and Figure 9.24 detail the amortisation of the aligned time value:
Date | Days in period | Time value amortisation (a) | Change in time value (b) | Time value reserve entry (a) – (b) |
31 January 20X7 | — | |||
31 March 20X7 | 59 | <2,950,000> (1) | <1,000,000> | 1,950,000 (2) |
31 May 20X7 | 61 | <3,050,000> | <5,000,000> | <1,950,000> |
Total | 120 | <6,000,000> | <6,000,000> | 0 |
Notes:
(1) <2,950,000> = 59/120 × <6,000,000>
(2) 1,950,000 = <1,000,000> – <2,950,000>
At its inception, the hedging relationship was documented as follows:
Hedging relationship documentation | |
Risk management objective and strategy for undertaking the hedge | The objective of the hedge is to protect the EUR value of 10 million shares of DEF against unfavourable movements in DEF's share price below EUR 9.00. This hedging objective is consistent with ABC's overall risk management policy of reducing the variability of its profit or loss statement using options |
Type of hedge | Fair value hedge |
Hedged item | 10 million DEF shares classified at FVOCI |
Hedging instrument | The cash settled put option contract with reference number 023547, traded on 31 January 20X7 with strike EUR 9.00 on 10 million DEF shares. The counterparty to the option is XYZ Bank |
Hedge effectiveness assessment | See below |
Only the intrinsic value of the hedging instrument is designated in the hedging relationship. Hence, the time value of the hedging instrument is excluded from the hedging relationship.
The “aligned” option would be an option with terms identical to those of the hedging instrument, except that the counterparty to the aligned option is assumed not to expose the entity to credit risk. Because both the actual and aligned time values were identical at inception of the hedging relationship, the entity has decided to use the guidelines for cases in which actual time values exceed aligned time values, amortising the initial time value based on the aligned time value. The amortisation method to be used is the straight-line amortisation.
Hedge effectiveness will be assessed prospectively at hedging relationship inception and on an ongoing basis at least upon each reporting date and upon occurrence of a significant change in the circumstances affecting the hedge effectiveness requirements.
The hedging relationship will qualify for hedge accounting only if all the following criteria are met:
The hedging relationship will be considered effective if the following three requirements are met:
Whether there is an economic relationship between the hedged item and the hedging instrument would be assessed on a qualitative basis by comparing the critical terms of the hedging instrument and the hedged item. The critical terms considered would be the number of shares, the strike price, the term and the underlying.
Because the hedging instrument will only have intrinsic value when the share price of DEF shares is below EUR 9.00, effectiveness will be assessed only during those periods in which the put option has an intrinsic value. The effective and ineffective amounts of the change in intrinsic value of the hedging instrument would be computed by comparing the cumulative change in intrinsic value of the hedging instrument with that of the hedged item. Any part of the cumulative change in intrinsic value of the hedging instrument that does not offset a corresponding cumulative change in the fair value of the hedged item would be treated as ineffective and recorded in OCI.
DEF share prices, in EUR, on the relevant dates were as follows:
Date | DEF share price |
31 January 20X7 | 10 |
31 March 20X7 | 8 |
31 May 20X7 | 6 |
The fair value of the hedging instrument was calculated using the Black–Scholes model, ignoring counterparty credit risk. The option intrinsic value was calculated using the spot rates. The time value of the option was calculated as the difference between the option fair value and the option intrinsic value. This fair valuation did not take into account XYZ Bank's credit risk.
Option fair values (EUR) | 31-Jan-X7 | 31-Mar-X7 | 31-May-X7 |
Share price | 10 | 8 | 6 |
Fair value | 6,000,000 | 15,000,000 | 30,000,000 |
Undiscounted intrinsic value | -0- (1) | 10,000,000 (2) | 30,000,000 (3) |
Discount factor | 1.00 (4) | 1.00 | |
Intrinsic value (discounted) | -0- | 10,000,000 | 30,000,000 |
Time value | 6,000,000 | 5,000,000 (5) | -0- |
Change in intrinsic value | — | 10,000,000 (6) | 20,000,000 |
Change in time value | — | <1,000,000> | <5,000,000> (7) |
Notes:
(1) 10 million shares × max [0, Strike – Spot] = 10 million × max [0; 9 – 10] = 0
(2) 10 million shares × max [0, Strike – Spot] = 10 million × max [0; 9 – 8] = 10,000,000
(3) 10 million shares × max [0, Strike – Spot] = 10 million × max [0, 9 – 6] = 30,000,000
(4) Assumed to be 1.00 due to the notably short term remaining life
(5) Fair value – Intrinsic value = 15,000,000 – 10,000,000 = 5,000,000
(6) Intrinsic valueCurrent – Intrinsic valuePrevious = 10,000,000 – 0 = 10,000,000
(7) Time valueCurrent – Time valuePrevious = 0 – 5,000,000 = <5,000,000>
According to the previous table, on 31 March 20X7 the fair value of the put option was EUR 15 million. This fair value did not take into account XYZ Bank's credit risk because the transaction was fully collateralised.
Suppose as an exercise that the transaction was uncollateralised and that on 31 March 20X7 ABC assessed whether the adjustment for counterparty credit risk had a material impact on the option fair valuation. The EUR 15 million fair value was the present value of the option's expected payoff discounted at Euribor. The option had two months (i.e., 61 days) to expiry and Euribor for such maturity was trading at 3.10%. Therefore, the expected payoff of the option was calculated as the future value of the EUR 15 million:
Expected payoff = 15 million × (1 + 3.10% × 61/360) = 15,079,000 (rounded)
Two-month EUR-denominated CDs issued by XYZ Bank were trading at 20 bps over 2-month Euribor. The option's credit adjusted fair value was calculated as the present value of the expected payoff using XYZ Bank's credit spread:
The difference between the credit adjusted and the unadjusted fair values was an immaterial EUR 5,000 (=15,000,000 – 14,995,000). Therefore, even in the case of an uncollateralised transaction, assumption of identical actual and aligned time values would have been reasonable.
The share fair value calculation was as follows:
Share fair values (EUR) | 31-Jan-X7 | 31-Mar-X7 | 31-May-X7 |
Share price | 10 | 8 | 6 |
Number of shares | 10,000,000 | 10,000,000 | 10,000,000 |
Fair value | 100,000,000 | 80,000,000 (1) | 60,000,000 |
Change in fair value | — | <20,000,000> | <20,000,000> (2) |
Notes:
(1) 10 million shares × EUR 8 per share = 80,000,000
(2) Fair valueCurrent – Fair valuePrevious = 60,000,000 – 80,000,000 = <20,000,000>
The hedge qualified for hedge accounting as it met the three effectiveness requirements:
Potential sources of ineffectiveness are a change in the credit collateral agreement generating substantial credit risk, or a change in the holding of the shares below the number of shares underlying the put option.
Another effectiveness assessment was also performed on 31 March 20X7, yielding similar conclusions.
The change in the fair value of the shares represented a EUR 20 million loss, split between an effective part and an excess part. The effective part, EUR 10 million, was recognised in retained earnings. The excess, EUR 10 million, was recognised in OCI as the equity investment was recognised at FVOCI.
The change in fair value of the option produced a EUR 9 million gain. Of this amount, a EUR 10 million gain and a EUR 1 million loss were related to the option's intrinsic value and time value, respectively. The change in intrinsic value was 100% effective because the hedged item's fair value for share prices below EUR 9.00 had an identical behaviour to the put option's change in intrinsic value. The change in time value produced a EUR 1 million loss, split between a EUR <2,950,000> amortisation and a EUR 1,950,000 excess. The latter amount was recognised in the time value reserve in OCI.
The change in the fair value of the shares produced a EUR 20 million loss, split between an effective part and an excess part. The effective part, EUR 20 million, was recognised in retained earnings. There was no excess amount.
The change in fair value of the option produced a EUR 15 million gain. Of this amount, a EUR 20 million gain and a EUR 5 million loss were related to the option's intrinsic value and time value, respectively. The change in intrinsic value was 100% effective because the hedged item's fair value for share prices below EUR 9.00 had an identical behaviour to the put option's change in intrinsic value. The change in time value produced a EUR 5 million loss, split between a EUR <3,050,000> amortisation and a EUR <1,950,000> excess. This latter amount was recognised in the time value reserve in OCI.
The put option was cash settled. XYZ Bank paid to ABC the option's EUR 30 million fair value (i.e., its intrinsic value).
As the hedging relationship ended on 31 May 20X7, any subsequent changes in the fair value of DEF shares were recognised in OCI.
ABC's investment in DEF shares did not expose the entity to a more volatile profit or loss because the shares were recognised at FVOCI. However, the volatility of ABC's OCI could potentially increase due to the revaluation of the equity investment at each reporting date. If the shares had a prolonged decline, ABC's OCI position could suffer a severe decline.
In our example, had ABC not hedged its investment, the equity investments reserve account in OCI would have shown a EUR 40 million decline (see Figure 9.25).
Fortunately, ABC was cautious and hedged its investment. At the end of the hedge term, the equity investments reserve account showed a EUR 10 million decline, an amount considerably lower than EUR 40 million. However, because ABC wanted to benefit from full appreciation of the shares, the EUR 6 million cost of the protection ended up reducing ABC's capital position.
Note that ABC used the retained earnings account to record the effects of the hedge. IFRS 9 does not specify which equity account to use for this purpose. ABC could have chosen a capital account such as “share premium”.
My final comment is to question the decision to exclude the option time value from the hedging relationship that caused an arguably “unnecessary” operational burden. In the next subsection I will cover the accounting mechanics when an option time value is included in the hedging relationship, an operationally easier approach.
In the case just covered, the put time value was excluded from the hedging relationship and amortised through retained earnings. That accounting process required ABC to calculate and post special entries related to the time value. Next, I will take a look at the strategy's accounting entries when the option in its entirety is designated as the hedging instrument.
The change in the fair value of the shares was a loss of EUR 20 million, split between an effective part and an excess part. The effective part, EUR 10 million (i.e., the part fully offset by change in the option's intrinsic value), was recognised in retained earnings. The excess, EUR 10 million, was recognised in OCI as the equity investment was recognised at FVOCI.
The change in fair value of the option was a gain of EUR 9 million, to be recognised in retained earnings. The option in its entirety constituted the hedging instrument, and as a result there was no need to split the option change in fair value between the change in its intrinsic and time values.
The change in the fair value of the shares was a loss of EUR 20 million, split between an effective part and an excess part. The effective part, EUR 20 million (related to the change in the option's intrinsic value), was recognised in retained earnings. There was no excess amount. The change in fair value of the option was a gain of EUR 15 million. The put option was cash settled. XYZ Bank paid to ABC the option's EUR 30 million fair and intrinsic value.
The reader may notice that by designating the option in its entirety as the hedging instrument, the accounting process was greatly simplified. However, ABC still had to compute the cumulative change in the option intrinsic value to determine the effective part of the hedge item's change in fair value. The effective part was recorded in retained earnings as opposed to OCI. The overall final result was identical to that of the previous case (see Figure 9.25).
The aim of this case study is to illustrate the accounting implications of selling a forward on own shares. I begin with a forward that allows for physical settlement only, which is recognised as an equity instrument. Then I will turn to a forward that can be other than physically settled, which is recognised as a derivative.
Suppose that on 1 January 20X0 ABC entered into a forward purchase on its own shares that allowed for physical settlement only with the following terms:
Physically settled forward terms | |
Start date | 1 January 20X0 |
Counterparties | ABC and XYZ Bank |
Maturity date | 31 December 20X2 (3 years) |
Reference price | EUR 10.00 |
Number of shares | 10 million |
Nominal amount | EUR 100 million |
Underlying | ABC ordinary shares |
Settlement | Physical delivery only |
At maturity (i.e., 31 December 20X2) ABC was obliged to acquire 10 million own shares and to pay EUR 100 million. Because in all scenarios the instrument implied the exchange of a fixed number of shares for a fixed amount of cash (i.e., it met the fixed-for-fixed requirement), it was classified as an equity instrument.
The forward was initially recognised as deduction of equity and a liability. The initial carrying amount of the liability represented the present value of the final consideration, discounted using the yield of debt issued by ABC with the same term. Suppose that 3-year straight bonds issued by ABC were trading at a 5% yield on 1 January 20X0. The present value of the final consideration was EUR 86,384,000 (=100 mn/(1+5%)3). The liability component was recognised at amortised cost using the effective interest rate method. During the life of the forward the carrying value of the liability would be increasing to reach the final EUR 100 million consideration as follows:
Date | Interest expense | Liability carrying value |
1-Jan-X0 | 86,384,000 | |
31-Dec-X0 | 4,319,000 (1) | 90,703,000 |
31-Dec-X1 | 4,535,000 (2) | 95,238,000 (3) |
31-Dec-X2 | 4,762,000 | 100,000,000 |
Notes:
(1) 4,319,000 = 86,384,000 × 5%
(2) 4,535,000 = 90,703,000 × 5%
(3) 95,238,000 = 90,703,000 + 4,535,000
The following accounting entries were required:
On 1 January 20X0: | ||
Forward on own shares (Equity) | 86,384,000 | |
Forward obligation (Liability) | 86,384,000 | |
On 31 December 20X0: | ||
Interest expense (Profit or loss) | 4,319,000 | |
Forward obligation (Liability) | 4,319,000 | |
On 31 December 20X1: | ||
Interest expense (Profit or loss) | 4,535,000 | |
Forward obligation (Liability) | 4,535,000 | |
On 31 December 20X2: | ||
Interest expense (Profit or loss) | 4,762,000 | |
Forward obligation (Liability) | 4,762,000 |
Additionally, on 31 December 20X2 the forward was physically settled. ABC received 10 million own shares and paid to XYZ Bank EUR 100 million. The related accounting entries were as follows:
Forward obligation (Liability) | 100,000,000 | |
Cash (Asset) | 100,000,000 | |
Treasury shares (Equity) | 86,384,000 | |
Forward on own shares (Equity) | 86,384,000 |
Suppose that on 1 January 20X0 ABC entered into a forward purchase on its own shares with the following terms:
Forward terms | |
Start date | 1 January 20X0 |
Counterparties | ABC and XYZ Bank |
Maturity date | 31 December 20X2 (3 years) |
Reference price | EUR 10.00 |
Number of shares | 10 million shares |
Nominal amount | EUR 100 million |
Underlying | ABC ordinary shares |
Settlement | Physical delivery, cash settlement or net share settlement (at ABC's election) |
At maturity (i.e., 31 December 20X2) ABC could choose the type of settlement:
Because the forward could be settled other than by physical settlement (i.e., the forward allowed the choice of cash or net share settlement), it did not comply with the fixed-for-fixed requirement for equity treatment and therefore was recognised as a derivative. The derivative had to be fair valued at each reporting date. Suppose that the fair valuation of the forward at each reporting date and at maturity was as follows:
Date | ABC share price | Forward fair value | Change in fair value |
1-Jan-X0 | 9.44 | Nil | — |
31-Dec-X0 | 8.50 | <14,418,000> | <14,418,000> |
31-Dec-X1 | 11.00 | 9,804,000 | 24,222,000 |
31-Dec-X2 | 13.00 | 30,000,000 | 20,196,000 |
At inception, on 1 January 20X0, the forward fair value was nil. Nonetheless, ABC had to recognise a liability to take into account the potential payment of EUR 100 million were ABC to choose physical settlement. As in our previous example, the liability was initially recognised at its present value and accrued to the EUR 100 million final amount:
Date | Interest expense | Liability carrying value |
1-Jan-X0 | 86,384,000 | |
31-Dec-X0 | 4,319,000 | 90,703,000 |
31-Dec-X1 | 4,535,000 | 95,238,000 |
31-Dec-X2 | 4,762,000 | 100,000,000 |
The following accounting entries were required:
Additionally, on 31 December 20X2 the forward was settled. The related accounting entries depended on the type of settlement elected by ABC. ABC could choose among physical settlement, cash settlement and net share settlement.
If ABC chose physical settlement, it received 10 million of its own shares and paid EUR 100 million to XYZ Bank. The related accounting entries were as follows:
If ABC elected cash settlement, it received from XYZ Bank EUR 30 million in cash (the forward's fair value at maturity). The related accounting entries were as follows:
If ABC elected net share settlement, it received from XYZ Bank own shares worth EUR 30 million (the forward's fair value at maturity). Because ABC shares were trading at 13.00, ABC received 2,307,692 (=30 mn/13) own shares. The related accounting entries were as follows: