Title of Invention

FROZEN AERATED CONFECTIONS

Abstract A frozen aerated confection having an overrun of at least 40% and a fat component in an amount of 2 to 20% (by weight of the frozen aerated confection), said fat component comprising triglycerides of fatty acids wherein no more than 55% (by weight of the fatty acids) of the fatty acids in the triglycerides are saturated, less than 8% (by weight of the triglycerides) of the triglycerides are long chain SSS triglycerides; characterized in that the ratio of the percentage of fat that is solid at 5°C to the percentage of the fatty acids in the triglycerides that are saturated (by weight of the fatty acids) is greater than 1 and in that the fat component comprises at most 60% (by weight) cocoa butter or shea nut oil.
Full Text F3379/C
FORM - 2
THE PATENTS ACT, 1970
(39 of 1970)
&
The Patents Rules, 2003
COMPLETE SPECIFICATION
(See Section 10 and Rule 13)
FROZEN AERATED CONFECTIONS
HINDUSTAN LEVER LIMITED, a company incorporated under the Indian Companies Act, 1913 and having its registered office at Hindustan Lever House, 165/166, Backbay Reclamation, Mumbai -400 020, Maharashtra, India
The following specification particularly describes the invention and the manner in which it is to be performed

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Frozen Aerated Confections
Technical Field of the Invention
5 The invention relates to a fat-containing frozen aerated confection such as ice cream, wherein the fat content of the frozen aerated confection comprises fats which contain relatively low amounts of saturated fatty acids.
Background to the invention
10 Fat is an important constituent of frozen aerated confections such as ice cream. Fats are largely made up of triglycerides (approximately 98%), together with minor amounts of other components such as phospholipids and diglycerides. Triglycerides are esters of glycerol with three fatty acids, which may be the same or different. Fatty acids which have no carbon-carbon double bonds are said to be saturated (herein abbreviated as SAFA),
15 whereas fatty acids that contain one or more carbon-carbon double bonds are said to be unsaturated.
The conventional manufacturing process for frozen aerated confections consists of a number of steps: (i) mixing the ingredients, (ii) pasteurisation and homogenisation, (iii)
20 ageing, (iv) aerating and partially freezing the mix, (v) extrusion from the freezer, and (vi) hardening. This process is described in detail in, for example, Arbuckle, W.S., Ice Cream, 4th Edition, AVI publishing 1986, chapters 11-13. In the ageing step, the mix is held at a low temperature, typically 4°C, for a period of time, typically a few hours. One purpose of the ageing step is to allow time for the fat (which is liquid at the pasteurization
25 temperature) to crystallize before the mix is frozen and aerated. Traditionally, frozen aerated confections such as ice cream have been prepared with fats having a high proportion of saturated fat, for example dairy fat (60-70%) or coconut oil (>90%). Saturated fats are used because they crystallise relatively easily during the ageing step so that most of the fat is solid during freezing and aeration. This is important because the
30 presence of solid fat results in ice cream that can be aerated uniformly and consistently, retains its shape after extrusion and has a good texture when eaten. Shape retention is a critical factor in producing some product formats, for example Viennetta™. Such products cannot normally be produced with a low level of solid fat.
35 Consumers are now looking for frozen aerated confections which have all the properties of these traditional products but which are healthier. One concern that consumers have is

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that eating saturated fats increases the low density lipoproteins (LDL) in their circulation. Increased LDL levels are believed to be associated with increased risk of coronary heart disease and stroke. Replacing the saturated fats in the diet with unsaturated fats has been proposed as one way to reduce the amount of potentially harmful LDLs in the blood.
5
Ice creams made with fats having SAFA levels lower than those of dairy fat are known. JP 55/153561 describes the use of the medium-melting fraction of palm oil to produce ice cream which has similar palatability and melting properties in the mouth to ice cream based on milk fat. However, the SAFA contents relatively high and the problem of
10 reducing the SAFA content is not addressed.
Attempts have also been made to produce frozen aerated confections using fats with low saturated fatty acid contents. However, it is difficult to design low SAFA fats for frozen aerated confections because a number of different interacting criteria must be satisfied
15 simultaneously. Simply replacing saturated fats with unsaturated fats provides the health benefit, but at the expense of the processability and texture of the confection because unsaturated fats do not contain sufficient solid fat. JP 57/036944 describes the production of ice cream with oils that are very low in SAFA, such as safflower oil and sunflower oil. To overcome the problem of producing good ice cream with liquid fat, it was found
20 necessary to use a special emulsifier in the form of a sucrose fatty acid ester. However, such additives can detract from the attractiveness of the product to consumers.
There is a need therefore to provide low SAFA fats for use in frozen aerated confections which give good processing properties (such as aeration and shape retention on extrusion) and good texture
2 5 for the consumer, but do not require other additives, such as sucrose fatty acid esters.
Tests and Definitions
All percentages given herein, with the exception of overrun, are on a weight /weight basis, unless otherwise stated.
30
Frozen aerated confection
The term "frozen aerated confection" as used in this specification means a frozen confection made by freezing a pasteurised mix of ingredients with agitation to incorporate air, for example ice cream. This term is not intended to encompass other components such as chocolate with which may be
3 5 used in combination with a frozen aerated confection (for example as a coating or an inclusion) to
make a final product Frozen aerated confections contain water, a fat component, one or more

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sweeteners, proteins (normally milk proteins), and optionally other ingredients such as emulsifiers, stabilisers, colours and flavours.
Fatty acids
5 The term "fatty acids" as used herein includes fatty acid residues in a triglyceride molecule.
Classification of Triglycerides
Triglycerides are classified according to the number of saturated (denoted S) and
10 unsaturated (denoted U) fatty acids they contain, i.e. SSS (triglycerides with three saturated fatty acids), SSU (two saturated and one unsaturated); SUU (one saturated and two unsaturated); and UUU (three unsaturated). This notation does not distinguish between the alternative possible positions for the fatty acids in the triglyceride. Natural sources of fats, for example coconut oil, palm oil, sunflower oil and dairy fat are mixtures
15 of triglycerides. The relative amounts of SSS, SSU, SUU and UUU triglycerides depend on the source of the fat.
The triglyceride composition (in terms of SSS, SSU, SUU and UUU) is determined using an Agilent 6890+ gas chromatography system with automated on column injection onto a
20 capillary column with flame ionization detection and oven track injection mode. A Quadrex 15m, 0.25mm internal diameter, 0.1pm film 65% phenyl-methyl silicone gas chromatography column is used. Fats are dissolved in iso-octane at a concentration of around 0.3mg/ml_ (0.25-0.50 mg/mL) and a volume of 0.1 μl_ is injected using the Agilent nano adaptor set to ON with 1μl_ volume setting. The carrier gas is helium, at a constant
25 flow of 1 ml/minute (initial linear velocity ~30cm/s). The oven program is as follows: hold at 80°C for 0.5 minutes, ramp to 330°C at 50°C/minute, triglyceride separation from 3306C to 350°C ramping at 1°C/minute.
Calibration is by reference to standard triglyceride carbon number data, which is acquired
30 using a Quadrex 10m 0.53mm internal diameter 0.1pm film methyi-5%phenyl capillary gas chromatography column. The column is fitted into a Perkin Elmer AutoXL system with a programmable temperature vaporising injector configured in direct on-column mode. The oven program is: ramp from 200°C to 325°C at 10°C/minute, and then from 325°C to 355°C at 5°C/minute. The carrier gas is helium at typically 40kPa.

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Long chain SSS triglycerides
Long chain SSS triglycerides are SSS triglycerides for which the sum of the aryl chain lengths of the three fatty acids is greater than 46 carbon atoms. Long chain SSS triglycerides melt at relatively high temperatures, above the temperature of the mouth.
5
SAFA
The amount of SAFA in a fat or a blend of fats is the percentage (by weight) of saturated fatty acids, i.e. fatty acids which have no carbon-carbon double bonds. The SAFA content of fate can be found in standard reference works such as 'The Lipid Handbook", Second Edition, Authors Frank D
10 Gunstone, John L Harwood, Fred B Padley, Published by Chapman & Hall 1994 from which the data in this specification are taken.
Solid fat
The amount of solid fat means the percentage of the fat in solid form at 5°C as measured
15 by pulse NMR spectroscopy as follows. The fat or fat blend is first heated to 80°C and then held at 60°C for 30 minutes, so that the fat is completely melted. It is then cooled to and held at 0°C for one hour. It is then warmed to 5°C (the measurement temperature) and held for 30 minutes. The amount of solid fat is then measured with a standard pulse NMR technique using a NMS 120 Minispec NMR spectrometer.
20
Vegetable fat
The term "vegetable fat" used herein means fat obtained from a plant source, including fats that have been fractionated and blends of fats from plant sources. Vegetable fats that are liquid at ambient temperatures are often referred to as egetable oils. In this
2 5 specification the term "vegetable fat" includes such vegetable oils.
Overrun
Overrun is calculated according to the formula
3 0 %Overrun = 100 x [Wtmix - Wtfac]/Wtfac
in which Wtmix is the weight of a certain volume of the mix from which the frozen aerated confection is to be prepared and Wtfac is the weight of the same volume after it has been frozen and aerated.

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Sweetener
Sweetener means a mono-, di- or oligosaccharide, or a corn syrup, or a sugar alcohol, or a mixture thereof. Sweeteners include sucrose, fructose, lactose, dextrose, invert sugar, corn syrup and sorbitol.
5
Stabilisers
Stabilisers are defined as in Arbuckle, W.S., Ice Cream, 4th Edition, AVI publishing 1986, chapter 6, pages 84-92. Stabilisers include alginates, gum arabic, gum ghatti, gum karaya, gum tragacanth, locust bean gum, carrageenan, xanthan gum, guar gum, gelatine, agar, sodium
10 carboxymethylcellulose, microcrystalline cellulose, methyl and methylethyl celluloses, hydroxypropyl and hydroxypropylmethyl celluloses, low and high methoxyl pectins and mixtures thereof.
Emulsifiers
Emulsifiers are defined as in Arbuckle, W.S., Ice Cream, 4th Edition, AVI publishing 1986,
15 chapter 6, pages 92-94. Emulsifiers include mono- and di-glycerides of saturated or unsaturated fatty acids (e.g. monoglyceryl palmitate - MGP), polyoxyethylene derivatives of hexahydric alcohols (usually sorbitol), glycols, glycol esters, polyglycerol esters, sorbitan esters, stearoyl lactylate, lactic acid esters, citric acid esters, acetylated mohoglyceride, diacetyl tartaric acid esters, polyoxyethylene sorbitan esters, lecithin and
2 0 egg yolk and mixtures thereof.
Brief Description of the Invention
It has now been found that by carefully selecting the fat according to specific criteria, it is possible to make frozen aerated confections with low SAFA contents whilst maintaining
25 good processing properties and texture.. Accordingly, the present invention provides a frozen aerated confection having an overrun of at least 40% and a fat component in an amount of 2 to 20% (by weight of the frozen aerated confection), said fat component comprising triglycerides of fatty acids wherein:
• no more than 55% (by weight of the fatty acids) of the fatty acids in the
3 0 triglycerides are saturated;
• less than 8% (by weight of the triglycerides) of the triglycerides are long chain
SSS triglycerides;
characterized in that the ratio of the percentage of fat that is solid at 5°C to the percentage of the fatty acids in the triglycerides that are saturated (by weight of the fatty 35 acids) is greater than 1 and in that the fat component comprises at most 60% (by weight) cocoa butter or she a nut oil.

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We have found that by ensuring that the ratio of solid fat: SAFA is greater than 1 and by avoiding long chain SSS triglycerides, it is possible to make frozen aerated confections with low SAFA contents whilst maintaining good processing properties and avoiding the unpleasant waxy texture arising from the high-melting long chain SSS triglycerides.
5
Preferably the sum of the percentages of SSU and SUU triglycerides (by weight of the triglycerides) is greater than 50%, more preferably greater than 60%. Preferably the ratio of the percentage of SSU triglycerides (by weight of the triglycerides) to the percentage of the SUU triglycerides (by weight of the triglycerides) is greater than 1. It is known that
10 adding SSS triglycerides to aid crystallisation can increase the solids content of fats. For example EP 740905 discloses adding fats rich in SSS trig'ycerides (such as hydrogenated coconut oil, hydrogenated palm kernel oil or hydrogenated rapeseed oil) to a fat rich in SSU triglycerides (such as palm mid fraction or cocoa butter) to improve the processing properties and mouthfeel of ice cream. However, it has now been found that
15 SSU triglycerides are as effective as SSS triglycerides at increasing the sc fat content of fats rich in SUU triglycerides, and advantageously also have lower SAFA content. Accordingly, by carefully selecting the appropriate combination of SSS, SSU, SUU and UUU triglycerides it is possible to provide a low SAFA fat with a high solid fat content. As a result it is possible to make frozen aerated confections with low SAFA contents wh^st
2 0 maintaining good processing properties and texture and without requiring other additives.
It will be appreciated by those skilled in the art that the desired combination of SSS, SSU, SUU and UUU triglycerides may be achieved by mixing two or more fats.
Preferably the ratio of the percentage of SSU triglycerides (by weight of the triglycerides)
25 to the percentage of the SUU triglycerides (by weight of the triglycerides) is less than 10, preferably less than 7, most preferably less than 3. The lower this ratio, the lower the amount of saturated fat, and therefore the greater the health benefit.
Preferably the fat component comprises at least 90%, preferably at least 95% vegetable
3 0 fat. Dairy fat is relatively high in saturated fats.
Preferably the total amount of saturated fatty acids (by weight of the fatty acids) is less than 50%, more preferably less than 45%, most preferably less than 40%. The lower the amount of saturated fat, the greater the health benefit.
35

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Preferably the total amount of saturated fatty acids (by weight of the fatty acids) is greater than 30%. It has been found that fats having at least this amount of saturated fatty acids result in very good processing properties and texture.
5 Preferably less than 7%, more preferably less than 6%, most preferably less than 5% (by weight of the triglycerides) of the triglycerides are long chain SSS triglycerides. The lower the amount of long chain SSS triglycerides, the less waxy is the texture.
Preferably less than 8% (by weight of the triglycerides) of the triglycerides are SSS
10 triglycerides.
Preferably at least 60% (by weight of the saturated fatty acids) are palmitic acid. Fats from sources such as palm oil in which a high proportion of the saturated fatty acids are palmitic acid are suitable bases for providing fractions and blends according to the
15 invention.
Preferably the frozen aerated confection comprises at least 5%, more preferably at least 8% fat component (by weight of the frozen aerated confection). Preferably the frozen aerated confection comprises at most 12%, more preferably at most 10% fat component
20 (by weight of the frozen aerated confection). Frozen aerated confections with fat contents in these ranges are particularly acceptable to consumers.
Preferably the frozen aerated confection has an overrun of at least 50%, more preferably at least 80%. Preferably the frozen aerated confection has an overrun of at most 250%,
25 more preferably at most 150%, most preferably at most 110%. Frozen aerated confections with overruns in these ranges are particularly acceptable to consumers.
Preferably the frozen aerated confection additionally comprises at least 0.25% milk solids not fat (MSNF) (by weight of the frozen aerated confection). MSNF contains milk proteins
30 and lactose. Preferably the frozen aerated confection comprises at most 20% MSNF. MSNF may be provided by using dried skimmed milk and/or dried whey.
Preferably the frozen aerated confection additionally comprises at least 0.01% emulsifier,
more preferably at least 0.1% (by weight of the frozen aerated confection). Preferably the
35 frozen aerated confection additionally comprises at most 1% emulsifier, more preferably

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at most 0.5% (by weight of the frozen aerated confection). Preferably the emulsifier is not a sucrose fatty acid ester.
Preferably the frozen aerated confection additionally comprises at least 0.01% stabiliser,
5 more preferably at least 0.05%, most preferably at least 0.1% (by weight of the frozen
aerated confection). Preferably the frozen aerated confection additionally comprises at
most 1% stabiliser, more preferably at most 0.8%, most preferably at most 0.5% (by
weight of the frozen aerated confection). Stabilisers can improve the mouthfeel of frozen
aerated confections.
10
Detailed Description of the Invention
The present invention will be further described in the following examples and comparative examples
in which compositions demonstrating various facets of the invention were prepared. The examples
are by way of illustration only, and are not to limit the invention.
15
Examples
Table 1 lists the sources of the fats used in the examples and comparative Examples.
Table 1

Fat Abbreviation Supplier Supplier's Code
Palm Oil PO Cargill RPO
Olein fraction of palm oil (single fractionation) POF Cargill ROL
Mid fraction of palm oil (single fractionation) PMF Loders Croklaan Creamelt900
Stearin fraction of palm oil (single fractionation) PSF Loders Croklaan Revel A
Olein fraction of palm oil (double fractionation) POF2 Loders Croklaan LC200
Mixture of palm fractions PF Loders Croklaan Creamelt700
Sunflower oil SF Cargill RYOW
Rapeseed oil RP Cargill RRO
Coconut oil CN Van den Bergh Oils

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Fat crystallisation
The effect of adding 20% of a fat rich in SSS triglycerides (the stearin fraction of palm oil) or 20% of a fat rich in SSL) (the mid fraction of palm oil) on the solids content at 5°C of a fat rich in SUU (the double fractionated olein fraction of palm oil) was determined using
5 the method described above. The SAFA contents, the measured solids contents and the solid. SAFA ratios are given in Table 2.
Table 2

Fat SAFA (%) Solid fat at 5°C (%) Solid fat/SAFA
100%POF2 40 2.5 0.063
80% POF2 20% PSF 49 50 1.0
80% POF2 20% PMF 45 50 1.1
10 Adding a fat rich in SSU produced the same increase in solid fat at 5°C as adding a fat rich in SSS, but with a smaller increase in the amount of SAFA i.e. to 45% rather than to 49%. This data shows that SSU triglycerides are more effective than SSS at increasing the solids: SAFA ratio of a SUU rich fat.
15 Ice Creams
Ice creams were prepared using fats and fat blends according to the present invention (Examples 1-11). These are based on one or more palm oil components, some of which are diluted with rapeseed oil or sunflower oil. Ice creams were also prepared using fats and fat blends which are outside the scope of the invention (Comparative Examples A-F).
20 The fats and fat blends are listed in Table 3..
Table 3

Example Fat blend
1 65P035RP
2 57 PMF 43 RP
3 65 PMF 35 SF
4 83POF17RP
5 80POF220PMF
6 40POF240PMF20SF
7 23POF44PF33SF
8 27POF50PF23SF
9 15POF2 35PMF50SF

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10 80PMF20SF

Comparative A 100CN
Comparative B 100 PO
Comparative C 65 PO 35 PSF
Comparative D 29CN71SF
Comparative E 100POF2
Comparative F 60PO40SF
The triglyceride composition, SAFA content, and solid fat content of the Examples and Comparative Examples are given in Table 4. The exact composition of fats varies b-' /een sources and the numbers given are typically averages. Because of experimental and J ending errors, the sum 5 SSS+SSU+SUU+UUU may not be exactly 100% in every case.
Table 4

Examples sss ssu suu uuu SSU/suu SSU +suu SAFA Solid fat Solid fat/ SAFA
1 5.9 31.8 28.8 32.3 1.10 60.6 36 40 1.1
2 3.5 51.4 8.6 35.4 6.01 59.9 40 57 1.4
3 4.2 60.4 11.2 23.7 5.37 71.6 ••■7 66 1.4
4 1.2 42.4 36.4 19.0 1.16 78.7 40 49 1.2
5 1.7 46.4 44.5 6.0 1.04 90.9 44 50 1.1
6 2.9 52.1 27.7 16.4 1.88 79.8 45 54 1.2
7 1.6 49.0 24.3 24.5 2.02 73.3 41 47 1.2
8 1.8 55.2 24.3 18.1 227 79.5 45 55 1.2
9 2.5 40.3 21.8 34.8 1.85 62.0 35 40 1.2
10 5.0 72.7 8.1 13.6 9.04 80.8 55 79 1.4

Comparative Examples SSS SSU suu UUU SSU/suu SSU +suu SAFA Solid fat Solid fat/ SAFA
A 76.2 22.1 0.3 0.0 65.1 22.5 92 87 0.95
B 9.1 48.2 36.3 5.5 1.33 84.5 51 55 1.1
C 31.7 37.3 26.0 4.0 1.43 63.3 64 69 1.1
D 22.4 11.2 17.9 47.9 0.63 29.1 36 18 0.49
E 0.8 37.7 52.8 7.2 0.71 90.5 40 2.5 0.06
F 5.6 31.6 31.8 30.3 0.99 63.4 36 34 0.94

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Examples 1-10 according to the invention all have SAFA contents of no more than 55%, SSS 1. Comparative Examples A-F do not satisfy all of these criteria and are therefore outside the scope of the invention.
5
Ice creams were prepared to the formulation given in Table 5 using the examples as the fat source, according to the following process. Water was placed in a jacketed mix tank at 85°C, then all the ingredients except for the colour and flavour were dissolved by mixing with a high shear mixer. Hot water was circulated in the jacket of the tank to maintain a
10 premix temperature of 65°C. The premix was heated using a plate heat exchanger to a temperature of 83°C, homogenised using a the first stage of a Crepaco double stage valve homogeniser at a pressure of 140 bar. After holding the mix at 82 to 85°C for 12 seconds, the mix was cooled using a tubular heat exchanger to 4-6°C and held at this temperature for at least 2 hours before freezing. The colour and flavour were added to
15 the cooled mix. The mix was processed through a continuous ice cream freezer (type APV Technohoy MF75) fitted with an open dasher rotating at a speed of 370 to 400 rpm and operating with a barrel pressure in the range 1-4 bar. The ice creams were produced with a mix flow rate of between 0.6 and 0.63 litres/minute, with an overrun of 100% and an extrusion temperature in the range -7.5 to -7.8°C. They were collected in 500 ml
20 waxed paper cartons and then hardened in a blast freezer at -35°C for a period of 2 hours. The hardened ice creams were stored at -25°C.
Table 5

Ingredient Amount (% by weight)
Water 59.76
Skimmed milk powder 4.12
Concentrated whey Avonol 600 3.24
Glucose syrup LF9 (63DE) 11.66
Emulsifier GMS 0.285
Guar gum 0.0625
Carrageenan L100 0.0175
Locust bean gum 0.145
Sucrose 11.5
Vanillin 0.011
Vanilla pods 0.033
Vanillin flavour 0.16

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Colour (beta carotene 10%) 0.0042
Fat component 9.00
Results
Examples 1-10 according to the invention all produced ice creams which processed well (i.e. they could reliably be aerated to 100% overrun and were smooth and dry on extrusion) and had good
5 shape retention. On eating, the ice creams had a good texture and did not have a waxy mouthfeel.
Comparative example A (coconut oil) is a conventional fat source for ice cream. The ice cream processed well and had good shape retention on extrusion. However the fat has a very high SAFA content (92%). Although the amount of SSS triglycerides is high (76%),
10 the SSS triglycerides in coconut oil almost entirely have short aryl chains, so that the amount of long chain SSS triglycerides is less than 8%. As a result, comparative example A did not have a waxy texture. Comparative examples B (palm oil) and C (a blend of palm oil and the stearin fraction of palm oil) have somewhat lower SAFA contents, solid fatSAFA >1, SSU:SUU > 1 and SSU+SUU > 50%. However, unlike coconut oil, the SSS
15 triglycerides in palm oil and palm oil fractions are almost entirely long chain SSS triglycerides (approximately 99% for PO and PSF). As a result, the long chain SSS triglyceride contents of comparative examples B and C are greater than 8%, and although the ice cream made with these fats processed well, it had an unpleasant waxy texture.
20 Comparative examples D, E and F have low SAFA contents (36 to 40%), but have solid fatSAFA 25 of the ice cream arises from the low solid fat content. Although this blend has a SSS triglyceride content of about 22%, these are almost entirely short chain triglycerides which do not cause a waxy mouthfeel.
Comparative example E (the double fractionated olein fraction of palm oil) has SSU+SUU
30 of 90% and SSS
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very cold-eating. Again, the poor quality of the ice cream is due to the very low solid fat content.
Comparative example F (a blend of palm oil and sunflower oil) had solids: SAFA and
5 SSU:SUU ratios of 0.94 and 0.99 respectively. Ice cream made with this fat also processed poorly and suffered from the same defects as comaparative example D.
The comparative examples show that simply replacing some of a fat high in SAFA with one low in SAFA is not sufficient to produce good quality ice cream with a SAFA content
10 of no more than 55%. However, the examples according to the invention show that by carefully choosing the fat source according to certain specific criteria (the solid fat content and triglyceride composition), good quality ice cream can be produced with SAFA contents of less than 55%, and even as low as 35%.

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CLAIMS
1. A frozen aerated confection having an overrun of at least 40% and a fat component
in an amount of 2 to 20% (by weight of the frozen aerated confection), said fat
5 component comprising triglycerides of fatty acids wherein:
no more than 55% (by weight of the fatty acids) of the fatty acids in the triglycerides are saturated;
less than 8% (by weight of the triglycerides) of the triglycerides are long chain
SSS triglycerides;
10 characterized in that the ratio of the percentage of fat that is solid at 5°C to the
percentage of the fatty acids in the triglycerides that are saturated (by weight of the
fatty acids) is greater than 1 and in that the fat component comprises at most 60%
(by weight) cocoa butter or shea nut oil.
5 2. A frozen aerated confection according to claim 1 wherein the sum of the percentages of SSU and SUU triglycerides (by weight of the triglycerides) is greater than 50%.
3. A frozen aerated confection according to any preceding claim wherein the ratio of
10 the percentage of SSU triglycerides (by weight of the triglycerides) to the
percentage of the SUU triglycerides (by weight of the triglycerides) is greater than 1.
4. A frozen aerated confection according to any preceding claim wherein the ratio of
the percentage of SSU triglycerides (by weight of the triglycerides) to the
15 percentage of the SUU triglycerides (by weight of the triglycerides) is less than 10.
5. A frozen aerated confection according to any preceding claim wherein the fat
component comprises at least 90% (by weight) vegetable fat.
20 6. A frozen aerated confection according to any preceding claim wherein the total amount of saturated fatty acids (by weight of the fatty acids) is less than 50%.
7. A frozen aerated confection according to any preceding claim wherein the total amount of saturated fatty acids (by weight of the fatty acids) is greater than 30%.

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8. A frozen aerated confection according to any preceding claim wherein the saturated fatty acids comprise at least 60% palmitic acid (by weight of the saturated fatty acids).
5 9. A frozen aerated confection according to any preceding claim which comprises 5 to 12% fat component (by weight of the frozen aerated confection).
10. A frozen aerated confection according to any preceding claim having an overrun of between 40% and 250%.
Dated this 22nd day of June 2007


Documents:

944-MUMNP-2007-CANCELLED PAGES(22-5-2009).pdf

944-MUMNP-2007-CANCELLED PAGES(6-3-2009).pdf

944-MUMNP-2007-CLAIMS(22-5-2009).pdf

944-MUMNP-2007-CLAIMS(22-6-2007).pdf

944-MUMNP-2007-CLAIMS(6-3-2009).pdf

944-MUMNP-2007-CLAIMS(AMENDED)-(22-5-2009).pdf

944-MUMNP-2007-CLAIMS(AMENDED)-(6-3-2009).pdf

944-mumnp-2007-claims(granted)-(21-8-2009).pdf

944-mumnp-2007-claims.doc

944-mumnp-2007-claims.pdf

944-MUMNP-2007-CORRESPONDENCE(17-10-2007).pdf

944-MUMNP-2007-CORRESPONDENCE(20-7-2009).pdf

944-MUMNP-2007-CORRESPONDENCE(22-5-2009).pdf

944-MUMNP-2007-CORRESPONDENCE(22-6-2007).pdf

944-MUMNP-2007-CORRESPONDENCE(6-3-2009).pdf

944-MUMNP-2007-CORRESPONDENCE(6-7-2009).pdf

944-MUMNP-2007-CORRESPONDENCE(IPO)-(26-8-2009).pdf

944-mumnp-2007-correspondence-others.pdf

944-mumnp-2007-correspondence-received.pdf

944-mumnp-2007-description (complete).pdf

944-MUMNP-2007-DESCRIPTION(COMPLETE)-(22-5-2009).pdf

944-MUMNP-2007-DESCRIPTION(COMPLETE)-(22-6-2007).pdf

944-MUMNP-2007-DESCRIPTION(COMPLETE)-(6-3-2009).pdf

944-mumnp-2007-description(granted)-(21-8-2009).pdf

944-MUMNP-2007-FORM 1(22-5-2009).pdf

944-MUMNP-2007-FORM 1(22-6-2007).pdf

944-MUMNP-2007-FORM 13(24-8-2007).pdf

944-MUMNP-2007-FORM 18(17-10-2007).pdf

944-mumnp-2007-form 2(22-5-2009).pdf

944-mumnp-2007-form 2(6-3-2009).pdf

944-MUMNP-2007-FORM 2(COMPLETE)-(22-6-2007).pdf

944-mumnp-2007-form 2(granted)-(21-8-2009).pdf

944-MUMNP-2007-FORM 2(TITLE PAGE)-(22-5-2009).pdf

944-MUMNP-2007-FORM 2(TITLE PAGE)-(6-3-2009).pdf

944-MUMNP-2007-FORM 2(TITLE PAGE)-(COMPLETE)-(22-6-2007).pdf

944-mumnp-2007-form 2(title page)-(granted)-(21-8-2009).pdf

944-MUMNP-2007-FORM 3(22-6-2007).pdf

944-MUMNP-2007-FORM 3(6-3-2009).pdf

944-MUMNP-2007-FORM 5(22-6-2007).pdf

944-MUMNP-2007-FORM 5(6-3-2009).pdf

944-mumnp-2007-form-1.pdf

944-mumnp-2007-form-2.doc

944-mumnp-2007-form-2.pdf

944-mumnp-2007-form-3.pdf

944-mumnp-2007-form-5.pdf

944-mumnp-2007-form-pct-ipea-409.pdf

944-mumnp-2007-form-pct-ipea-416.pdf

944-mumnp-2007-form-pct-separate sheet-409.pdf

944-MUMNP-2007-GENERAL POWER OF ATTORNEY(6-3-2009).pdf

944-mumnp-2007-pct-search report.pdf

944-MUMNP-2007-SCHEDULE TO FORM 3(6-3-2009).pdf

944-MUMNP-2007-WO INTERNATIONAL PUBLICATION REPORT(22-6-2007).pdf


Patent Number 235753
Indian Patent Application Number 944/MUMNP/2007
PG Journal Number 35/2009
Publication Date 28-Aug-2009
Grant Date 21-Aug-2009
Date of Filing 22-Jun-2007
Name of Patentee HINDUSTAN UNILEVER LIMITED
Applicant Address HINDUSTAN LEVER HOUSE, 165-166 BACKBAY RECLAMATION, MUMBAI.
Inventors:
# Inventor's Name Inventor's Address
1 DILLEY KEVIN MICHAEL UNILEVER R&D COLWORTH, SHARNBROOK, BEDFORDSHIRE MK44 1LQ.
2 GREENACRE JULIA HELEN FLAT 6, HAMPTON HOUSE, PORTLAND ROAD, RUSHDEN, NN10 0DE
3 SMITH KEVIN WARREN UNILEVER R&D COLWORTH, SHARNBROOK, BEDFORDSHIRE MK44 1LQ
4 UNDERDOWN JEFFREY UNILIVER R&D COLWORTH, SHARNBROOK, BEDFORDSHIRE MK44 1LQ
PCT International Classification Number A23G9/32
PCT International Application Number PCT/EP2005/014241
PCT International Filing date 2005-12-19
PCT Conventions:
# PCT Application Number Date of Convention Priority Country
1 04258092.8 2004-12-23 EUROPEAN UNION