Technical Report on the Lapa Gold Project, Cadillac Township, … · 2016. 12. 6. · The mineral...

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i Technical Report on the Lapa Gold Project, Cadillac Township, Quebec, Canada Report Prepared for: Agnico-Eagle Mines Limited 145 King Street East, Suite 500 Toronto, Ontario Canada M5C 2Y7 Report Compiled by: Normand Bédard, P.Geo., Senior Geologist Harold Boulanger, Eng., Project Engineer Paul Cousin, Chief Project Metallurgist Dino Lombardi, P.Geo.,Project Geologist Alain Mercier, Eng., Project Engineer Camil Prince, Eng., Metallurgist Cadillac, Quebec, May 31st, 2006

Transcript of Technical Report on the Lapa Gold Project, Cadillac Township, … · 2016. 12. 6. · The mineral...

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    Technical Report on the Lapa Gold Project, Cadillac Township, Quebec, Canada

    Report Prepared for:

    Agnico-Eagle Mines Limited

    145 King Street East, Suite 500

    Toronto, Ontario Canada M5C 2Y7

    Report Compiled by:

    Normand Bédard, P.Geo., Senior Geologist

    Harold Boulanger, Eng., Project Engineer

    Paul Cousin, Chief Project Metallurgist

    Dino Lombardi, P.Geo.,Project Geologist

    Alain Mercier, Eng., Project Engineer

    Camil Prince, Eng., Metallurgist

    Cadillac, Quebec, May 31st, 2006

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    SUMMARY

    The Lapa property, owned 100% by Agnico-Eagle Mines Limited, is located Cadillac

    Township, Municipality of Rivière Héva, in north-western Quebec, Canada (UTM

    NAD83 5,345,000mN, 702,500m E; NTS 32 D/01), and is approximately 45 kilometres

    west of Val d’Or (or more than 700 kilometres by road north of the city of Toronto). The

    property consists of 43 claims and 1 mining concession (799.22 hectares).

    The Lapa Gold project is an underground gold deposit located in the western portion of

    the property that has been the focus of exploration by the Company since 2002. An

    underground exploration program of the Lapa deposit has recently been completed in

    May 2006. The program consisted of sinking a shaft to its current depth of 760 metres,

    diamond drilling (approximately 8,850 metres from stations excavated 490 metres and

    690 metres below surface) and a bulk sampling program (which consisted of excavating,

    mapping and sampling for approximately 140 metres within the mineralization and

    recovering and testing an approximately 2,500 tonne sample). The exploration program

    provided information for a Mineral Resource and Mineral Reserve Estimate and a

    Feasibility Study that shows positive economic results.

    The Lapa deposit is a disseminated gold deposit hosted by deformed and silicified

    volcanic and sedimentary rocks (minor disseminated pyrite, arsenopyrite and stibnite

    occur along with visible gold). The deposit is roughly east-west trending and vertically

    dipping begins at approximately 400 metres depth and that can been traced for over 800

    metres vertically and 400 metres horizontally. The Lapa deposit is made up of at least 4

    narrow subparallel and adjacent lenses (each averaging less than 5 metres in thickness). It

    is open at depths below 1,300 metres.

    The probable mineral reserves of the Lapa deposit are 3.445 million tonnes grading 10.17

    gram per tonne gold (containing 1.127 million ounces of gold). The indicated mineral

    resource is 1.064 million tonnes grading 5.92 gram per tonne gold (containing 0.202

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    million ounces of gold) and the inferred mineral resource is 1.360 million tonnes grading

    9.36 gram per tonne gold (with 0.409 million ounces of contained gold). The metal price

    and foreign exchange assumptions were US$ 405 per ounce of gold and 1.30 C$/US$.

    The cut-off gold grade for the mineral resource model is 5.0 gram per tonne while the cut-

    off for the mineral reserve model is 5.0 gram per tonne (after applying dilution, which

    average 30% at a gold grade of 0.46 gram per tonne). The cut-off assumes a metallurgical

    recovery of 81.4% for gold and mine operating costs of C$68.55 per tonne.

    The feasibility study reviewed an underground mining operation with a shaft to 1,370

    metres below surface and the viability of extracting an average of 1,500 tonnes per day of

    mineralization. The Eureka longitudinal mining method was chosen and will involve

    extracting 30 metre tall by 12 metre long stoping blocks (and backfilling with cemented

    rockfill) using an inverse double pyramidal sequence. A ramp will link mining sub-levels

    spaced 30 metres vertically. Mineralization extracted will be trucked to the LaRonde

    Division where the processing and waste disposable facilities will be adapted for the Lapa

    mineralization.

    The mineral processing will necessitate a separate grinding and gravity circuit, talc and

    sulphide flotation circuits and a leaching circuit for LaRonde; the LaRonde tailings site

    will need to be adapted for the Lapa deposit material. Based on a Lapa average mined

    head grade of 10.2 gram per tonne, the model indicates an in plant gold recovery of

    87.1%.

    The feasibility study projects mine site costs to average approximately C$70 per tonne

    and an additional $90 million in capital costs to bring the Lapa mine into production

    based on a C$/US$ rate of 1.25 (and a gold price of US$450 per ounce). Reserves are

    sufficient for an initial mine life of approximately seven years with an average annual

    gold production of 125,000 ounces. Average annual sustaining capital costs are estimated

    at US$ 4 million. The feasibility study’s base case projects an after tax rate of return of

    21.8%.

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    The Lapa Gold project is economic and a warranted a positive construction decision by

    Agnico-Eagle Mines Limited.

    Additional drilling is recommended by the geology staff in order to possibly increase

    mineral reserves (as the deposit is open below the bottom of the shaft). Additional

    optimisation and characterization studies are also recommended by the mining, processing

    and environmental engineering staff.

    Figure 1: Lapa Gold Project Location map

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    TABLE OF CONTENTS TITLE PAGE i

    SUMMARY ii.

    TABLE OF CONTENTS v

    LIST OF TABLES ix

    LIST OF FIGURES xi

    1 INTRODUCTION 1 1.1 Qualified Persons 1 1.2 Personal Inspection 3 1.3 Basis of the Technical Report 4 1.4 Limitations & Reliance on Information 4 2 PROPERTY DESCRIPTION AND LOCATION 5 2.1 Lapa Gold Project 5 2.2 Underlying Agreements 6 2.3 Mine Workings and Existing Tailings Ponds 10 2.4 Permits Required for Exploration Work 11 2.5 Other Permits 11 2.6 Environmental Considerations 12 2.6.1 Surface Waters 12 2.6.2 Water Management 13 2.6.3 Underwater Excavation and Dewatering 2.6.4 Environmental Considerations Associated with the Treatment of Lapa

    Mineralization at the LaRonde mill 15

    2.7 Potential Environmental Liabilities 15 3 ACCESSIBILITY, CLIMATE, LOCAL RESOURCES, INFRASTRUCTURE

    AND PHYSIOGRAPHY 16

    3.1 Accessibility 16 3.2 Climate 17 3.3 Physiography 17 3.4 Infrastructure 18 4 History 19

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    4.1 Previous Work 19 4.2 Previous Mineral Resource and Mineral Reserve Estimates 22

    5 GEOLOGICAL SETTING 24 5.1 Regional Geology 24

    5.2 Property Geology 24

    5.3 Deposit Types 26

    5.4 Mineralization 26

    6 EXPLORATION 31 6.1 Procedures 31 6.2 Diamond Drilling Results 32 6.2.1 2002-2004 Diamond drilling program 32

    6.2.2 2006 Diamond drilling program 42

    6.3 Sampling method and approach 49 6.4 Sample Preparation, Analysis and Security 50 6.4.1 Sample Preparation 50 6.4.2 Assaying 51 6.4.2.1 Laboratoire Expert Inc. Assaying Procedures 52 6.4.2.2 Bourlamaque Assay Laboratories Ltd. Assaying Procedures 53 6.4.2.3 ALS Chemex Chimitec Inc. Assaying Procedures 53 6.4.3 Laboratory certification 54 6.4.4 Discussion of Sample Quality 54 7 DATA VERIFICATION 54 7.1 Verification of the 2002-2004 Assay Results 55 7.1.1 Expert 55

    7.1.2 Bourlamaque 55

    7.1.3 Chimitec 56

    7.2 Data Verification of the 2006 Assay Results 56 7.2.1 Expert 56

    7.2.2 Bourlamaque 56

    7.2.3 Chimitec 57

    7.3 Discussion 57

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    8 ADJACENT PROPERTIES 57 9 MINERAL PROCESSING AND METALLURGY 59 9.1 Introduction 59 9.2 Sample Composites 60 9.3 Grinding 62 9.4 Gravity Concentration 63 9.5 Flotation 64 9.6 Cyanide Leaching 65 9.7 Gold Recovery 66 10 MINERAL RESOURCE AND RESERVE ESTIMATION 68 10.1 Data 68 10.2 Mineralization solids 68 10.3 Grade Capping 69 10.4 Variography 69 10.5 Specific gravity 70 10.6 Estimation Methodology 70 10.7 Dilution 71 10.8 Mineral Resource Classification 72 10.9 Conversion of Mineral Resources into Mineral Reserves 73 10.10 Mineral Resources and Mineral Reserves Statement 75 10.11 Bulk Sampling and Grade Validation Program 76 11 OTHER RELEVANT DATA AND INFORMATION 101 12 LAPA MINING PROJECT 101 12.1 Mining operations 101 12.1.1 Surface mining 101 12.1.1.1 Mine Site 101 12.1.2 Technical underground mining information 105 12.1.2.1 Mineral Reserves 105 12.1.2.2 Rock mechanics 106 12.1.2.3 Properties of the rock 106 12.1.2.4 Mining method evaluation 112

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    12.1.3 Ventilation 113 12.1.3.1 Air requirement 113 12.1.3.2 Mine air heating 117 12.1.4 Shaft & Hoisting 117 12.1.4.1 Shaft Size 117 12.1.4.2 Hoisting & Headframe 118 12.1.4.2.1 Rock hoist 118 12.1.4.2.2 Headframe 121 12.1.4.3 Shaft development 123 12.1.5 Mine Development 124 12.1.5.1 Horizontal development team and design 124 12.1.5.2 Vertical development team and design 126 12.1.5.3 Development strategy 129 12.1.6 Mining method 131 12.1.6.1 Eureka method 132 12.1.6.2 Transverse Primary/Secondary method 135 12.1.6.3 Ore and waste handling 137 12.1.6.4 Back filling 138 12.1.6.5 Underground equipment list 139 12.1.7 Process and Plant Description 139 12.1.7.1 Crushing and Coarse Ore Handling 139 12.1.7.2 Grinding and Gravity 140 12.1.7.3 Flotation 140 12.1.7.4 Concentrate Leach 141 12.1.8 Production Forecast 143 12.2 Recoverability 149 12.3 Markets 150 12.4 Contracts 150 12.5 Environmental Considerations 150 12.5.1 Bond Posting for the Production Phase 150

    12.5.2 Closure Costs 152

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    12.6 Taxes 152 12.6.1 Introduction 152 12.6.2 Quebec Mining Duties 152 12.6.3 Federal and Provincial Income Taxes 153 12.6.4 Federal and Provincial Capital Taxes 153 12.7 Capital and Operating Costs Estimates 154 12.7.1 Capital Cost Estimates 154 12.7.2 Operating Cost estimates 155 12.8 Economic Analysis 158 12.9 Sensitivity analysis 163 12.10 Payback 165 12.11 Mine Life 165 13 CONCLUSIONS 166 14 RECOMMENDATIONS 170 15 REFERENCES 171

    LIST OF TABLES Table 1.1: List and status of Mining Rights 8

    Table 5.1 Historical Contact Zone Gold Intercepts 29

    Table 6.1: Gold Intercepts ( 2002-2004 DDH Campaign) 33

    Table 6.2: Gold Intercepts ( 2006 DDH Campaign) 43

    Table 9.1 : Lapa Sample Composites 2003/2004 Testwork 61

    Table 9.2: Bond Ball Mill Work Index 64

    Table 9.3: Gravity & Flotation Results 65

    Table 9.4: Whole Ore Leach Results 66

    Table 10.1: Summary of Resources Solids Models 69

    Table 10.2: Variography of Lapa deposit zones 70

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    Table 10.3: Modifying Factors Used by Agnico-Eagle for the Conversion of Mineral

    Resources to Mineral Reserves 74

    Table 10.4: Mineral Resources and Mineral Reserves Statement, Lapa Gold project, Agnico-

    Eagle, May 31st 2006 75

    Table 10.5: Grade comparison of bulk sample 80

    Table 12.1: Probable Reserves (including 95% mining recovery) 106

    Table 12.2: Summary of Rock Quality and Typical Stable Spans 107

    Table 12.3: Global RQD Results 108

    Table 12.4: Complete RDQ Results 109

    Table 12.5: Unconfirmed failure tests 111

    Table 12.6: Preliminary Rock Mechanic Data 111

    Table 12.7: Air Quantity Factor 114

    Table 12.8: LaRonde no. 1 Shaft Hoist Data 121

    Table 12.9: Lapa development summary 129

    Table 12.10: Horizontal Development 130

    Table 12.11: Vertical Development (18 months of pre-production) 131

    Table 12.12: Underground Equipment List 139

    Table 12.13: Daily Production by Horizon 144

    Table 12.14: Production by Year and Elevation 145

    Table 12.15 Total Production by Horizon 145

    Table 12.16: Budget Estimate for closure costs 151

    Table 12.17 Deferred and operating development 154

    Table 12.18: Lapa Project Capital Expenditures by Category 155

    Table 12.19: Average Operating Cost 156

    Table 12.20: Payable Ounces for the life of the Mine 160

    Table 12.21: Lapa Mining Project Cash Flow Evolution ( x 000 Cdn $) 162

    Table 12.22: Summary of the Sensitivity Analysis of the Lapa Mine 164

    Table 12.23: Life of Mine Production Tonnage 165

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    LIST OF FIGURES

    Figure 1.1: Lapa Gold Project Location Map 4

    Figure 2.1: Property location 7

    Figure 2.2: Lapa Property claim map 9

    Figure 2.3: Lapa claim map and proposed location of Lapa mining lease 10

    Figure 2.4: Lapa Area (1: 15 000) 13

    Figure 3.1: Map of property 16

    Figure 3.2: Lapa area (1: 8 000) and Topography 18

    Figure 3.3: Aerial view of the current Lapa project infrastructures 19

    Figure 5.1: The Regional Geology Map and Agnico-Eagle Properties 25

    Figure 5.2: Lapa Geology Map 28

    Figure 8:1 Adjacent Properties 58

    Figure 9.1 : Lapa Sample Composites Location 62

    Figure 9.2: Global Gold Recovery as a function of feed grade 67

    Figure 10.2: Diamond drilling – Level 69 76

    Figure 10.3: Chip samples – Level 69 East 77

    Figure 10.4: Chip samples – Level 69 West 78

    Figure10.5: Muck sampling – Level 69 78

    Figure 10.6: Transverse section 5480E 79

    Figure 10.7: Longitudinal section Contact zone (Upper part) 81

    Figure 10.8: Longitudinal section Contact zone (Lower part) 82

    Figure 10.9: Longitudinal section Contact-South zone 83

    Figure 10.10 : Longitudinal section Contact Center zone 84

    Figure 10.11: Longitudinal section Contact North zone 85

    Figure 10.12: Geology Section 5300E 86

    Figure 10.13: Geology Section 5350E 87

    Figure 10.14: Geology Section 5400E 88

    Figure 10.15: Geology Section 5450E 89

    Figure 10.16: Geology Section 5500E 90

    Figure 10.17: Geology Section 5550E 91

    Figure 10.18: Geology Section 5600E 92

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    Figure 10.19: Geology Section 5650E 93

    Figure 10.20: Geology Section 5700E 94

    Figure 10.21: Geology Section 5750E 95

    Figure 10.22: Geology Section 5800E 96

    Figure 10.23: Level Plan 4600 elevation 97

    Figure 10.24: Level Plan 4300 elevation 98

    Figure 10.25: Level Plan 4000 elevation 99

    Figure 10.26: Level Plan 3850 elevation 100

    Figure 12.1: General View of the Proposed Surface Site 102

    Figure 12.2: Actual and Proposed Mine Site Infrastructure 104

    Figure 12.3: Conceptual View of Proposed Mine Site 105

    Figure 12.4: HR Stable Stope Dimensions 107

    Figure 12.5: Ventilation Circuit 116

    Figure 12.6: Proposed 4.9m Shaft Section 118

    Figure 12.7: LAPA Installation - Nordberg 162 inch by 77 inch Hoist 119

    Figure 12.8: Production Rate vs Shaft Depth 120

    Figure 12.9: LAPA Headframe 122

    Figure 12.10: LAPA Site View 123

    Figure 12.11: Typical Level Development (Level 77) 125

    Figure 12.12: Typical Sub-Level Development (Level 74) 126

    Figure 12.13: Vertical Raise Circuits 128

    Figure 12.14: Schematic View—Eureka Method 133

    Figure 12.15: Proposed Lapa Mining Sequence, Eureka Method 135

    Figure 12.16: Schematic view - Transversal Primary/Secondary method 136

    Figure 12.17: Location of Primary/Secondary Mining 137

    Figure 12.18: Lapa Selected Simplified Milling Flowsheet 142

    Figure 12.19: View of Mining Horizons 144

    Figure 12.20: Mining Sequence Contact Zone 146

    Figure 12.21: Mining Sequence Contact South 147

    Figure 12.22: Mining Sequence Contact Centre and North 148

    Figure 12.23: Global Gold Recovery as a function of feed grade 149

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    Figure 12.24: Operating Cost per Tonne 157

    Figure 12.25: Operating Cost Per Ounce 158

    Figure 12.26: Ounces Payable Per Year 159

    Figure 12.27: Annual & Cumulative Cash Flows M$ 161

    Figure 12.28: Grade Sensitivity 163

    Figure 12.29: Costs Sensitivity 164

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    1 INTRODUCTION On June 2nd, 2006, the Board of Directors of Agnico-Eagle Mines Limited (“Agnico-

    Eagle”) approved the construction of the Lapa mine project. As a result of this approval,

    the Lapa Gold property is now considered material to the Company and, under National

    Instrument 43-101 Standards of Disclosure for Mineral Projects (“NI 43-101”), a

    technical report is required to be prepared in the required form and filed to support

    scientific and technical information disclosed by an issuer relating to a mineral project on

    a property that is material to the Company.

    This technical report presents the technical information supporting the disclosure of

    Mineral Resources and Mineral Reserves for the Lapa Gold Project. The report was

    prepared by a team of Qualified Persons from Agnico-Eagle following the guidelines of

    Canadian Securities Administrators’ NI 43-101 and Form 43-101F1 and in conformity

    with generally accepted CIM “Exploration Best Practices” and “Estimation of Mineral

    Resources and Mineral Reserves Best Practices” guidelines.

    1.1 Qualified Persons The compilation of this technical report represents a collaborative effort by Agnico-Eagle

    staff. Each aspect of this technical report was prepared by or under the supervision of an

    appropriately Qualified Person as defined by NI 43-101. Each qualified person retains the

    responsibility for their contribution as indicated below.

    This technical report was compiled by Mr. Normand Bédard, P.Geo (OGQ #715),

    Madame Louise Grondin, P.Eng, Eng. (PEO #17384504, OIQ #125863), Mr. Paul

    Cousin, Eng. jr (OIQ #98319), Mr. Harold Boulanger, Eng. (OIG #112271), Mr. Dino

    Lombardi, P.Geo. (OGQ #700), Mr. Alain Mercier, Eng. (OIQ #26583) and Mr. Camil

    Prince, Eng. (OIQ #33968).

    Mr. Normand Bédard, P.Geo., is a Qualified Person and has been employed by Agnico-

    Eagle since 2003; he is currently Senior Geologist at the Regional Division. He

    supervised the 2006 underground exploration program and the Mineral Resource and

  • 2

    Mineral Reserve estimation work for the Lapa Gold Project; he authored Sections 1, 3, 4,

    8, 10 and 11 co-authored Sections 2, 5, 6, 7, 13 and 14 of the Technical Report.

    Mr. Paul Cousin is Chief Project Metallurgist for Agnico-Eagle and has been employed

    by the Company since 1990. Mr. Cousin co-authored portions of the Technical Report

    namely, Section 9 and portions of Section 12 that concern mineral processing and

    recoverability, and Sections 13 and 14.

    Ms. Louise Grondin, P.Eng, Eng., is the Regional Environment Manager for Agnico-

    Eagle’s Regional Division. She has been with Agnico-Eagle since 2003. Ms. Grondin is a

    Qualified Person and co-authored Section 2, 12, 13 and 14 of the Technical Report

    concerning the environment.

    Mr. Harold Boulanger, Eng., is a Project Engineer for the Lapa Project and has been

    employed by Agnico-Eagle since 1999. In the Technical Report, he co-authored Sub-

    sections 12.1 and Sections 13 and 14 and is the author of all the other portions of Section

    12 that discuss subjects other than metallurgy and the environment.

    Mr. Dino Lombardi, P.Geo., is Agnico-Eagle’s Senior Geologist for International

    Projects; he has been with Agnico-Eagle since 1997. Mr. Lombardi is a Qualified Person

    and supervised the surface exploration work at Lapa until 2005; he co-authored Sections

    5, 6, 7, 13 and 14 of the Technical Report.

    Mr. Alain Mercier, Eng., is a Qualified Person and has been employed by Agnico-Eagle

    since 2006 as a senior mining engineer for the Technical Services Group. He is a

    Qualified Person and supervised some of the mining engineering work for the Lapa Gold

    Project. He co-authored Sub-sections 12.1 and Sections 13 and 14 of the Technical Report

    which discuss subjects other than metallurgy and the environment.

    Mr. Camil Prince, Eng. is senior metallurgist with Agnico-Eagle Regional Division. As a

    Qualified Person responsible for the metallurgical aspect of the Lapa Gold project, Mr.

    Prince reviewed and supervised the work completed by Mr. Paul Cousin and co-authored

  • 3

    Section 9, portions of Section 12 that describe mineral processing and recoverability and

    Sections 13 and 14.

    1.2 Personal Inspection

    In compliance with NI 43-101 guidelines (Part 6.2), the majority of the people responsible

    for compiling this report have visited the Lapa project site on several occasions.

    Mr. Normand Bédard has personally inspected the Lapa mine project and surrounding

    areas during regular site visits throughout the month of April, 2006.

    Mr. Harold Boulanger has personally inspected the Lapa mine project and surrounding

    areas during regular site visits since 2004.

    Mr. Paul Cousin has visited personally inspected the Lapa mine project and surrounding

    areas during site visits in Quebec on April 25 and 26, 2006.

    Ms. Louise Grondin has personally inspected the Lapa mine project and surrounding areas

    during weekly site visits over 2005 and monthly site visits over 2006 including, most

    recently, a visit on May 19, 2006.

    Mr. Dino Lombardi has personally inspected the Lapa mine project and other adjacent

    Agnico-Eagle Mines’ claim blocks during the years 2002 to 2005.

    Mr. Alain Mercier has personally inspected the Lapa mine project during a site visit on

    May 22, 2006.

    Mr. Prince has not visited the Lapa mine project.

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    1.3 Basis of the Technical Report

    The present report is based on a new Mineral Resource and Mineral Reserve model

    prepared by Agnico-Eagle after completing an underground exploration program at the

    Lapa Gold Project in March 2006, and a feasibility study, dated May 2006, that was also

    prepared by Agnico-Eagle and demonstrated the mineral reserves to be economically

    mineable.

    Additionally, the present technical report benefited from the following sources of

    information:

    • Independent reviews of the Lapa feasibility study; and

    • A review of the 2006 drill hole assay quality assurance and quality control data

    from the Lapa Project by Keith Blair, C.P.G., dated June 1st, 2006.

    1.4 Limitations & Reliance on Information

    The effective date of this technical report is May 31st, 2006. The technical information

    contained herein is based on information available to Agnico-Eagle throughout the course

    of the present investigations, which in turn reflect various technical and economic

    conditions at the time of writing. These conditions can change significantly over

    relatively short periods of time. Consequently actual results may be significantly more or

    less favourable.

    This report includes technical information that requires subsequent calculations to derive

    sub-totals, totals and weighted averages. Such calculations inherently involve a degree of

    rounding and consequently introduce a margin of error. Where these occur, Agnico-Eagle

    does not consider them to be material.

    Each qualified person that contributed to the compilation of this technical report retains

    responsibility for their respective contribution as outlined in Section 1.2 above and as

    indicated in their respective certificates.

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    2 PROPERTY DESCRIPTION & LOCATION

    2.1 Lapa Gold Project

    The Lapa property is located at mid-distance (approximately 50 kilometres) between the

    cities of Val-d’Or and Rouyn-Noranda within the limits of the municipality of Rivière

    Héva, Cadillac Township (NTS 32D/01; UTM NAD83 703,000 mE, 5,345,000 mN) in

    the Province of Quebec, Canada (Figure 2.1).

    The property comprises a total of forty three (43) claims and one (1) mining concession

    that cover an aggregate area of approximately 799.22 hectares (Figures 2.1 and 2.2). The

    mineral titles are listed in Table 2.1. As the registered mineral title holder, Agnico-Eagle

    controls 100% of the mineral rights. The status of each of the claims and the concession

    (obligations and expiration date) was verified using GESTIM, from the “Ministère des

    Ressources naturelles, de la Faune et des Parcs du Québec”, a claim management system

    that is accessible through the internet at https://gestim.mines.gouv.qc.ca. The status results

    of each of the mineral titles are also presented in Table 2.1.

    The boundary of the Zulapa mining concession is determined by ground surveyed points

    whereas the boundaries of the claims have not been legally surveyed. The claim posts of

    the western limit of the Lapa property were located, along with claim 5265593, which

    covered open ground discovered along the northwest boundary of the property,and were

    surveyed with a GPS (Global Positioning System) instrument (of unknown accuracy) in

    November 2003 by an independent firm Valminex Inc. of Val-d’Or. The remaining

    contour of the property and the claims has never been surveyed and is therefore located

    with a limited precision.

    Except for surface rights reserved for powerline, gasline and road rights of way, the

    remaining surface rights are controlled by the Government of Quebec.

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    The property consists of three contiguous claim blocks: Tonawanda, Zulapa and Agnico-

    Eagle. The Tonawanda portion consists of 42 claims (namely Mining Claims Nos.

    3079761 to 3079765, 3079771 to 3079775, 3655611 to 3655615, 3655621 to 3655625,

    3655791 to 3655795, 3655801 to 3655805, 3681041 to 3681044, 3692571, 3692572,

    3692581 to 3692584, 3692591 and 3692592) covering 696.37 hectares; the Zulapa

    portion consists of one mining concession (290 BL-45) covering 93.45 hectares; and the

    Agnico-Eagle claim block consists of a single (1) claim (5265593) covering 9.40 hectares.

    The Lapa deposit is covered by the Tonawanda claim block.

    2.2 Underlying Agreements

    As described above, the Zulapa block covers the former producing Lapa-Cadillac mine

    that is not considered in the current resource estimate and feasibility study. The Zulapa

    block is burdened by a 1 percent (1%) net smelter return (NSR) royalty reserved in favour

    of Bond Gold Canada Inc. (which on June 16th, 2003, was held by Barrick Gold

    Corporation), by a five percent (5%) net profit (NPI) royalty derived (after recoupment of

    the investment) from operations on the properties that is reserved (outstanding as of\

    September 4th, 2003) to Alfer Inc. (100/101) and Mr. René Amyot (1/101) and a 0.5%

    NSR royalty retained by Breakwater Resources Ltd. (Fraser Milner Casgrain LLP, 2003a,

    2003b).

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    Figure 2.1 : Property Location

  • 8

    Claim number Survey's Date Recording Date Expiration Date Area (ha) Township Lot Range Localisation NTS Work credit($) Work required ($)Rente

    ($) Owner

    3079761 1970/07/13 1989/07/13 2007/07/12 17.82 Cadillac 32D/01 256,143.63 1,000.00 24.00 Agnico-Eagle Ltd.3079762 1970/07/13 1989/07/13 2007/07/12 7.97 Cadillac 32D/01 49,267.60 1,000.00 24.00 Agnico-Eagle Ltd.3079763 1970/07/13 1989/07/13 2007/07/12 14.84 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3079764 1970/07/13 1989/07/13 2007/07/12 16.00 Cadillac 32D/01 13,176.00 1,000.00 24.00 Agnico-Eagle Ltd.3079765 1970/07/13 1989/07/13 2007/07/12 12.62 Cadillac 32D/01 21,960.00 1,000.00 24.00 Agnico-Eagle Ltd.3079771 1970/07/14 1989/07/14 2007/07/13 13.62 Cadillac 32D/01 1,415,112.61 1,000.00 24.00 Agnico-Eagle Ltd.3079772 1970/07/14 1989/07/14 2007/07/13 13.08 Cadillac 32D/01 1,686,562.00 1,000.00 24.00 Agnico-Eagle Ltd.3079773 1970/07/14 1989/07/14 2007/07/13 10.60 Cadillac 32D/01 294,263.00 1,000.00 24.00 Agnico-Eagle Ltd.3079774 1970/07/14 1989/07/14 2007/07/13 14.98 Cadillac 32D/01 1,910,136.53 1,000.00 24.00 Agnico-Eagle Ltd.3079775 1970/07/14 1989/07/14 2007/07/13 18.05 Cadillac 32D/01 2,463,588.27 1,000.00 24.00 Agnico-Eagle Ltd.3655611 1977/07/11 1989/07/11 2007/07/10 4.41 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655612 1977/07/11 1989/07/11 2007/07/10 5.64 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655613 1977/07/11 1989/07/11 2007/07/10 19.02 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655614 1977/07/11 1989/07/11 2007/07/10 17.27 Cadillac 32D/01 8,784.06 1,000.00 24.00 Agnico-Eagle Ltd.3655615 1977/07/11 1989/07/11 2007/07/10 5.44 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655621 1977/07/10 1989/07/10 2007/07/09 17.60 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655622 1977/07/10 1989/07/10 2007/07/09 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655623 1977/07/10 1989/07/10 2007/07/09 7.37 Cadillac 32D/01 131,760.00 1,000.00 24.00 Agnico-Eagle Ltd.3655624 1977/07/10 1989/07/10 2007/07/09 6.30 Cadillac 32D/01 43,920.00 1,000.00 24.00 Agnico-Eagle Ltd.3655625 1977/07/10 1989/07/10 2007/07/09 5.63 Cadillac 32D/01 4,893.54 1,000.00 24.00 Agnico-Eagle Ltd.3655791 1977/07/09 1989/07/09 2007/07/08 18.40 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655792 1977/07/09 1989/07/09 2007/07/08 20.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655793 1977/07/09 1989/07/09 2007/07/08 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655794 1977/07/09 1989/07/09 2007/07/08 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655795 1977/07/09 1989/07/09 2007/07/08 12.11 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655801 1977/07/09 1989/07/09 2007/07/08 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655802 1977/07/09 1989/07/09 2007/07/08 15.60 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655803 1977/07/09 1989/07/09 2007/07/08 18.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655804 1977/07/09 1989/07/09 2007/07/08 16.80 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3655805 1977/07/09 1989/07/09 2007/07/08 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3681041 1977/09/29 1989/09/29 2007/09/28 13.60 Cadillac 52 7 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3681042 1977/09/29 1989/09/29 2007/09/28 6.80 Cadillac 51 7 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3681043 1977/09/29 1989/09/29 2007/09/28 39.60 Cadillac 52 5 32D/01 0.00 2,500.00 48.00 Agnico-Eagle Ltd.3681044 1977/09/29 1989/09/29 2007/09/28 39.60 Cadillac 51 5 32D/01 0.00 2,500.00 48.00 Agnico-Eagle Ltd.3692571 1977/09/29 1989/09/29 2007/09/28 40.00 Cadillac 51 6 32D/01 0.00 2,500.00 48.00 Agnico-Eagle Ltd.3692572 1977/09/29 1989/09/29 2007/09/28 40.00 Cadillac 52 6 32D/01 0.00 2,500.00 48.00 Agnico-Eagle Ltd.3692581 1977/09/30 1989/09/30 2007/09/29 12.80 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3692582 1977/09/30 1989/09/30 2007/09/29 16.00 Cadillac 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3692583 1977/09/30 1989/09/30 2007/09/29 20.00 Cadillac 50 6 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3692584 1977/09/30 1989/09/30 2007/09/29 19.60 Cadillac 45 5 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3692591 1977/09/30 1989/09/30 2007/09/29 19.60 Cadillac 46 5 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.3692592 1977/09/30 1989/09/30 2007/09/29 19.60 Cadillac 47 5 32D/01 0.00 1,000.00 24.00 Agnico-Eagle Ltd.5265593 2003/05/09 2004/01/30 1/29/2010 9.40 Cadillac 32D/01 0.00 500.00 24.00 Agnico-Eagle Ltd.CM290 1989/09/22 12/31/2006 93.45 Cadillac 32D/01 0.00 3,270.75 0.00 Agnico-Eagle Ltd.

    List of concession and claimsMines Agnico-Eagle Ltée - Lapa PN-118 (118)

    Table 1.1: List and status of Mining Rights

  • 9

    The Tonawanda claim block is burdened by a five percent (5%) net profit (NPI) royalty

    derived (after recoupment of the investment) from operations on the properties that is

    reserved (as of\ September 4th, 2003) to Alfer Inc. (100/101) and Mr. René Amyot (1/101)

    and by a 1% NSR royalty retained by Breakwater Resources Ltd..

    Claim 5265593, which was covered open ground discovered along the northwest boundary of

    the Lapa property is not encumbered by any royalties.

    Figure 2.2: Lapa Property Claim Map

  • 10

    Figure 2.3: Lapa claim map and proposed location of Lapa mining lease

    2.3 Mine Workings and Existing Tailings Ponds

    The Zulapa property was the object of an underground operation, the Lapa Cadillac mine,

    between 1938 and 1943 (the shaft is located approximately near UTM NAD83 5,344,500,

    703, The secured mine shaft, former mine buildings’ foundations and a portion of the

    abandoned tailings (although not accurately located) are still on site (Figure 2.2).

  • 11

    A 759 metre long exploration ramp was excavated on the Tonawanda property by Breakwater

    Resources Ltd.. in 1987-1988. The ramp, located at the base of the hill where the current

    Lapa project site is constructed (near UTM NAD83 5,345,000mN, 702,000mE) reached a

    vertical depth of approximately 80 metres from surface and the collar is sealed with waste

    rock material.

    2.4 Permits Required for Exploration Work

    A certificate of authorisation was received from the Ministry of the Environment for the

    underground exploration program on August 5, 2004.

    In mid-2004, Agnico-Eagle initiated an underground exploration program which included the

    construction of a headframe, a hoist room, a service garage and temporary office buildings.

    A settling pond, a pump station and a waste pad were also constructed. The exploration

    program included underground diamond drilling and the extraction of a bulk sample.

    For the project to come into full production, a new access road, service building and parking

    area will be added to the existing infrastructures. Given that treatment of the ore will be done

    at the LaRonde mill, the Lapa site will only be affected by mining activities. A certificate of

    authorisation will be required for the new infrastructure at the Lapa site and for the mining

    activities. An amendment to the LaRonde mill certificate of authorisation will be required to

    process the Lapa ore and use the LaRonde tailings pond.

    2.5 Other Permits

    In order to extract gold in Quebec, the Mining Act requires that a mining lease needs to be

    issued by the Ministère des Ressource Naturelles, de la Faune et des Parcs du Québec. Any

    person who already holds a claim, a mining exploration licence or a mining concession

  • 12

    limited to specific mineral substances as described under section 5 of the Mining Act can

    obtain a mining lease.

    To obtain a mining lease, the claim holder must establish the existence of indicators of the

    presence of a workable deposit and describe the nature, extent and probable value of that

    deposit. The surface area of must not exceed 100 hectares, unless the applicant has submitted

    an application to the Minister of Natural Resources and Wildlife and the circumstances

    warrant an exception. The initial term of a mining lease is 20 years, and it can be renewed

    every 10 years while mining continues.

    The holder of a mining lease is required to restore the site once mining has ceased. For this

    purpose, the leaseholder is required to submit a site rehabilitation and restoration plan before

    mining begins, and provide a financial guarantee to ensure the completion and performance

    of the restoration work required. No guarantee payments are required before mining begins,

    but these guarantee payments must be spread progressively over the last fifteen years of

    mining on the site.

    An application to convert approximately 70 hectares of the Lapa property covered by claims

    into a mining lease was submitted by Agnico-Eagle to the Ministère des Ressource

    Naturelles, de la Faune et des Parcs du Québec in April 2006 (Figure 2.2).

    2.6 Environmental Considerations

    2.6.1 Surface Waters

    The site is located at the split of the continental watersheds (Figure 2.X). The surface waters

    on the western and northern claims flow down to the west into Lac Preissac and to the south

    into the St-Lawrence River via the Kinojévis and Outaouais rivers. The surface waters from

    the central and eastern part of the property flow down to the east into the Lac Malartic and to

    the north into James Bay via the Harricana River.

  • 13

    Figure 2.4: Lapa Area (1: 15 000)

    Surface waters were sampled from August to October 2003. Results showed that the only

    surface waters slightly exceeding the guidelines for aquatic life were the ones near the area

    occupied by the abandoned tailings. Surface waters on the northern side of Highway 117

    were of good quality.

    2.6.2 Water Management A sedimentation pond was constructed in a natural depression. It required the construction of

    a dike about 150 m long and 5 000 m3 in volume. The pond capacity is 50 000 m3.

    The sedimentation pond is used to remove suspended solids from the dewatering water before

    either release to the environment or re-use in the underground mining operation. The waste

  • 14

    rock pile naturally drains towards the sedimentation pond. A waste rock sampling program

    was implemented during the shaft sinking phase and verified the non-acid generating nature

    of the waste rock.

    Water overflowing from the sedimentation pond will be sampled according to the

    requirements of Directive 019, the Quebec mining effluent guidelines, and is expected to

    comply with the water quality criteria.

    The sedimentation pond overflows into an old open pit which discharges into Preissac Lake.

    The impact of the additional water from Lapa is expected to be negligible. Part of the water

    is pumped back to the mine for use in the underground mining activities such as drilling.

    2.6.3 Underwater Excavation and Dewatering

    At the end of April 2006, the first phase of the project (the exploration program) was

    completed. The shaft had reached the depth of 703 metes. An access drift was excavated on

    level 69 (690 metre depth) toward the ore zone and 140 metres were excavated in the Lapa

    deposit mineralization. The total amount of waste rock from these excavations was

    approximately 130,000 metric tonnes and the total amount of mineralization extracted was

    2,800 metric tonnes. These materials are stockpiled on surface at the Lapa mine site.

    The waste rock that was not used as fill for the mining site was deposited on a waste rock pile

    west of the shaft. The ore will be transported to the LaRonde mill.

    For the second phase of the project, the shaft will be sunk to 1,360 m in depth. Ventilation

    and fill raises, and an internal service ramp will be excavated, and production will reach the

    full 1,500 metric tonnes of ore per day and approximately 500-800 metric tonnes of waste per

    day. During the mining phase the waste rock produced and the rock in the waste pile at

    surface would be recycled underground as backfill.

  • 15

    2.6.4 Environmental Considerations Associated with the Treatment of Lapa Mineralization at the LaRonde mill

    The Lapa gold mineralization will be treated in a separate circuit at the LaRonde mill. The

    tailings from the flotation circuit will be send to the LaRonde tailings pond and because of

    their neutralisation potential should have a beneficial effect on the acid generating tailings generated by the LaRonde mine. The cyanidation circuit tailings will be contained in a

    separate lined cell in the LaRonde tailings pond because it will contain arsenic. Leaching

    tests will be carried out on the tailings from the pilot tests to determine the stability of the

    arsenic in the tailings and to evaluate the arsenic content of the supernatant water.

    Depending on the arsenic concentration in the water, treatment to remove the arsenic might

    be required. Given the small volume of that water and that the technology to treat water

    containing arsenic is readily available; this is not expected to create undue technical or cost

    constraints.

    2.7 Potential Environmental Liabilities

    There are no known environmental liabilities associated with the Lapa site. The property is

    on crown land. The northern part of the property, north of Highway 117 is mostly rock with

    shallow overburden. The mining site is located on the side of a hill in close proximity to the

    highway. There is an existing access ramp (closed) on the side of the hill. A communication

    tower is currently located on top of the hill. There is no agricultural land use on this side of

    the highway and the neighbouring properties are mostly used for mining exploration and for

    recreational purposes by all terrain vehicles and in the winter by snowmobiles.

    The southern part of the property, south of Highway 117, contains an abandoned tailings area

    from mining activities that took place from 1937 to 1942 under the name of Lapa-Cadillac

    mine.

    It contains approximately 346,000 tons and covers about 15 hectares. The Ministry of Natural

    Resources acknowledged in writing that Agnico-Eagle would not be responsible for the

  • 16

    rehabilitation of this tailings area. In any case, the mining activities would not take place on

    this side of the highway and except for diamond drilling work from the surface; this area

    would be left in its original state. A transmission line crosses the southern part of the

    property. The surrounding land use includes some agricultural lands located on Rang VI in

    the Municipality of Rivière-Héva.

    3 ACCESSIBILITY, CLIMATE, LOCAL RESOURCES, INFRASTRUCTURE & PHYSIOGRAPHY

    3.1 Accessibility

    The Lapa project is located approximately 45 kilometres west of the town of Val-d’Or and it

    is easily accessible by paved road via Highway 117. This road transects the property in an

    east-west direction. The LaRonde Division is less than 10 kilometres to the west of the

    property via Highway 117 for roughly 8 kilometres and north on Highway 395 for 2

    kilometres.

    Figure 3.1: Map of property

  • 17

    The northern portion of the property is accessible via a gravelled road leading up to a

    communications tower located a few hundred metres north of Highway 117. This road is

    actually used to access the infrastructures put in place for the underground exploration

    program. The southern portion is accessible via a gravel road put in place by Agnico-Eagle

    Exploration and then through a network of hydroelectric power lines and tractor roads.

    3.2 Climate

    The area has a typical continental climate, comparable to more well known communities at

    the same latitude in mid Canada like Timmins, Sudbuary and Thunder Bay. The snow stays

    on the ground around mid-November and the ice leaves the lakes in early May. Winter

    temperatures average -15 degrees Celcius in January and February. The ground is frost free

    from May to October. Summers are warm and relatively dry with a mean temperature of 22

    degrees Celcius.

    The climate allows for access and mining activities all year-round.

    3.3 Physiography

    The project area is situated between 320 and 390 meters above sea level. The maximum

    elevation is in the communication tower area and the minimum is in the southern part of the

    property. The topography slopes relatively gently from north to south.

  • 18

    Figure 3.2 : Lapa area (1: 8 000) and Topography

    The property is generally covered by a boreal-type forest consisting mainly of black spruce

    and white pine with minor birch and poplar.

    3.4 Infrastructure

    The project is located in a well developed mining region with all the facilities and services

    easily available. The towns of Rouyn-Noranda and Val-d’Or with populations between 25

    and 35 thousand are well known for their mining history. The manpower will mainly be

    supplied from these towns.

  • 19

    All the main services required for the mining operations are already on site as mentioned

    earlier and the surface rights are sufficient to fulfill all the future requirements.

    The feasibility study envisages that the LaRonde Division milling and tailings facilities will

    be adapted to treat and store Lapa project ores and processing waste.

    Figure 3.3 : Aerial view of the current Lapa project infrastructures

    4 HISTORY 4.1 Previous Work

    A summary of work carried out on the Lapa property is presented below. A detailed

    description of the work described below and of other work carried out on adjacent properties

  • 20

    is available from an claims assessment report submitted by Cambior Inc. in 2000 titled

    “Rapport des travaux – 1999 Propriété Lapa (236)” (Couture, J.F. , 2000).

    1938-43 Lapa-Cadillac Gold Mines, mined 345 844t at 4.3 g/T Au; completed 15,100 metres of

    drilling from underground operations. These estimates are not compliant with the 43-101

    standards.

    1955 Canadian Malartic Gold Mines, 8 drill holes totalling 1,200 metres. Gold mineralization was

    intersected within the Piché volcanic Group.

    1981-86 Breakwater Resources Ltd.: Line cutting, ground geophysics and geological surveys.

    Recognition of 5 gold bearing horizons (A1, A2, A-Nord, B, and C) within the Piché volcanic

    Group.

    1986-89 Breakwater Resources Ltd.: 104 drill holes totalling 25,862 metres over the Tonawanda

    mining concession.

    1987-88 Breakwater Resources Ltd.: Exploration ramp, 759 metres excavated and 60 drill holes (754

    metres).

    1988 Breakwater Resources Ltd.: Resource estimate for “Highway” zone of 676,177 tonnes

    grading 5.3 g/t of gold (J-F Couture, 2000). This estimate is not compliant with the 43-101

    standards

    1989 Breakwater Resources Ltd.: 11 drill holes to test continuity of previously defined zones.

    1999 Cambior Exploration Canada: 4 drill holes for a total of 2,925.9 metes testing the depth

    continuity of Zone A and the Contact Zone.

  • 21

    2002 Agnico-Eagle Mines Limited, Exploration Division: 3 diamond drill holes for a total of

    2,728 meters to fence off the Contact Zone at depth.

    2003 Agnico-Eagle Mines Limited acquires the Lapa property for $8.925 million and net smelter

    royalties ranging from 0.5% to 1%. An additional $1 million will be payable if Lapa’s

    published inferred resource reaches 2 million ounces of gold. Of the $9.925 million in total

    cash considerations, $2 million is creditable against future net smelter royalties.

    2002-2004 Agnico-Eagle Mines Limited, Exploration Division: From the end of 2002 through 2004,

    intensive diamond drilling campaign using up to seven rigs for the delineation of the newly

    discovered Lapa deposit zones at depth for a total of 97 holes and 83,479 meters.

    2004 to present : Underground exploration program

    2004 Agnico-Eagle Mines Limited, Regional Division : Head frame and hoist building erection

    2005 Agnico-Eagle Mines Limited, Regional Division : Shaft sinking start-up in March.

    2006 Agnico-Eagle Mines Limited, Regional Division : Underground diamond drilling from shaft

    station 49 (490 metre depth) was performed from January to March with a total of fourteen

    (14) NQ core holes completed totalling 3,903.5 m. Shaft sinking reached 703m depth in

    February. Horizontal development on level 69 (690 metre depth) was performed from

    February to April with approximately 225 metres of access drift and 140 metres in the

    mineralization to collect a bulk sample. Three diamond drill rigs were in operation in March

    and April from level 69. Fourteen (14) NQ core holes totalling 3,054 m were completed from

    the shaft station on a 40 metre by 40 metre spacing. Thirty (30) BQ core holes totalling

    1,899.2 metres were completed on a 20 metre by 20 metre spacing from a footwall drift

    located about 35 metres north of the mineralized zone.

  • 22

    4.2 Previous Mineral Resource and Mineral Reserve Estimates The following estimates completed and disclosed by Agnico-Eagle Mines Limited were NI

    43-101 compliant and reliable

    April 2003 Agnico-Eagle Mines Limited

    An inferred mineral resource is estimated by the polygonal method by Marc Legault, P.Eng.,

    at 3.3 million tons grading 0.25 ounces per ton containing 816,000 ounces of gold (cut to 1.5

    ounces per ton); parameters and assumptions include $300 per ounce gold price, a 0.13 ounce

    per ton cut-off, polygons limited to 150 feet radius and 9.2 feet minimum horizontal width. .

    (Agnico-Eagle Mines Limited press release dated April 24, 2003).

    June 2003 Agnico-Eagle Mines Limited

    An inferred mineral resource is estimated by the polygonal method by Marc Legault, P.Eng.,

    at 4.0 million tons grading 0.25 ounces per ton containing 1,015,000 ounces of gold (cut to

    1.5 ounces per ton); parameters and assumptions include $300 per ounce gold price, a 0.13

    ounce per ton cut-off, polygons limited to 150 feet radius and 9.2 feet minimum horizontal

    width. (Agnico-Eagle Mines Limited press release dated June 19,, 2003).

    October 2003 Agnico-Eagle Mines Limited :

    A Mineral Resource estimate was completed October 29th, 2003 by Agnico-Eagle Mines

    Limited Toronto office (Marc Legault, P.Eng.) and outlined an indicated mineral resource of

    722,000 ounces of gold in 2.5 million tons grading 0.29 ounces per ton and an inferred

    mineral resource of 462 000 ounces of gold in 1.9 million tons grading 0.25 ounces per ton

    (cut to 1.5 ounces per ton); the estimate used the block model method with inverse square

    distance power squared interpolation and the parameters and assumptions included $300 per

    ounce gold price, a 0.13 ounce per ton cut-off, models limited to 150 feet radius from drill

    hole intercepts and 9.2 feet minimum horizontal width. (Agnico-Eagle Mines Limited press

    release dated October 29th, 2003).

    February 2004 Agnico-Eagle Mines Limited:

  • 23

    In February 2004, Agnico-Eagle Mines Limited (Marc Legault, P.Eng.) estimated probable

    mineral reserves of 1.187 million ounces of gold contained in 4.661 million tons grading 0.25

    ounces per ton (after dilution). The Indicated Mineral Resources were estimated at 705,000

    tons grading 0.16 ounces per ton and the Inferred Mineral Resources were estimated at

    324,000 tons grading 0.18 ounces per ton. The estimate used a block model method with

    inverse square distance power squared interpolation and the parameters and assumptions

    included $325 per ounce gold price, a $C/US$ rate of 1.40, minimum grade cut-offs of 0.17

    ounce per ton and 0.15 ounces per ton respectively for probable reserves and mineral

    resources, models limited to 150 feet radius from drill hole intercepts and 9.2 feet minimum

    horizontal width. The pre-feasibility study was prepared by Rosaire Emond Eng., Regional

    Division senior engineer (Agnico-Eagle Mines Limited press release dated February 25th,

    2004).

    February 2005 Agnico-Eagle Mines Limited:

    In February 2005, Christian D’Amours, P.Geo. from Geopointcom of Val d’Or updated the

    Reserves/Resources estimate. The probable mineral reserve estimate was 1.168 million

    ounces of gold contained in 4.090 millions metric tonnes grading 8.88 g/T (after dilution).

    The Indicated Mineral Resources were estimated at 0.754 million tonnes grading 5.49 g/T

    and the Inferred Mineral Resources were estimated at 1.709 million tonnes grading 7.69 g/T.

    The estimate used a block model method with inverse square distance power squared

    interpolation and the parameters and assumptions included $360 per ounce gold price, a

    $C/US$ rate of 1.42, minimum grade cut-offs of 0.19 ounce per ton and 0.15 ounces per ton

    respectively for probable reserves and mineral resources, models limited to 150 feet radius

    from drill hole intercepts and 9.2 feet minimum horizontal width. The pre-feasibility study

    was prepared by Rosaire Emond Eng., Regional Division senior engineer (Agnico-Eagle

    Mines Limited press release dated February 23th, 2005). (press release dated; D’Amours,

    2005).

  • 24

    5 GEOLOGICAL SETTING 5.1 Regional Geology

    The geology that underlies the Lapa project is located along the southern boundary of the

    Abitibi geological Subprovince (2.7 billion years; Figure 1.1). The contact between the

    Abitibi greenstone belt and the Pontiac Subprovince is the Cadillac-Larder Lake Fault.

    5.2 Property Geology

    The Lapa property straddles the Cadillac-Larder Lake Fault. This fault is regionally

    extensive and is spatially related to numerous gold prospects and past producers. The fault

    zone transects mafic to ultramafic schists intercalated with less deformed mafic and

    ultramafic flows (Piché Group). The Piché Group, varies in thickness from 150 to 300

    metres on the property. Feldspathic porphyritic and aphanitic dykes are frequently injected in

    the schist zones and are also deformed. According to compilation data, these dykes are more

    abundant in the eastern portion of the property where the Piché Group is folded and turns

    north – south. The Piché Group is in contact with Pontiac Group (Pontiac Subprovince)

    greywackes to the south and Cadillac Group (Abitibi Subprovince) greywackes,

    conglomerates and iron formations to the north. All these units are sub vertically dipping.

    Refer to the regional geology map on Figure 5.1.

    Locally, the Piché Group is folded into a series of large dextral asymmetric folds. The gold

    mineralized zones of the Zulapa and Pandora projects are located in the hinges of two of

    these fold structures.

    Between these folds and underlying the Tonawanda property, the Piché Group forms a

    relatively linear panel striking at 105 degrees azimuth. Numerous late brittle faults striking

    northeast and northwest are mapped across the properties. These faults have throws of meter

    scale and are seen to displace gold mineralized lense

  • 25

    Figure 5.1 - The Regional Geology map and Agnico-Eagle Properties

  • 26

    5.3 Deposit Types

    Gold occurrences in the Cadillac-Rivière Héva sector are all vein type epigenetic deposits

    spatially associated to the Cadillac-Larder Lake deformation zone. As such all the deposits

    occur within or proximal to the Piché Group. These deposits are relatively arsenic enriched

    and occur as quartz veins and veinlets or as sulphide disseminations. It is generally agreed

    that the gold mineralization in the Cadillac region was emplaced after regional deformation

    and metamorphism. The most important production in the sector is the O’Brien mine

    immediately north of the town of Cadillac. 18.6 tonnes of gold were extracted from this past

    producer (P.Trudel, 1990). Note that this estimate is not conformable to actual estimation

    standards and was not verified by the author.

    5.4 Mineralization

    Gold mineralization on and proximal to the Lapa property is spatially related to the Piché

    Group volcanics. Gold mineralization in the sector falls into three broad categories and can

    be described as follows:

    • Located in fold hinges of asymmetric dextral folds. Composed of irregular quartz

    veins parallel to axial plan (Pandora shaft 2) or as cylindrical sulphide mineralized

    pods parallel to fold axis (Lapa –Cadillac Zones A to H and Branch North).

    • Low grade tabular shaped zones between fold zones (Zones A, A North, A East,

    B,and

    • Contact) within Piché group schists. Mineralization in these zones consists of gold

    bearing veins and veinlets hosted by biotite altered sulphide mineralized volcanics.

    • Biotite – Mica altered zones associated to sheared feldspathic dykes (Zone C). These

    zones are of limited lateral continuity.

  • 27

    Zulapa:

    Two gold enriched zones were exploited on the Zulapa mining block. The Main Zones (A to

    H) consist of biotite schists, pyrite – pyrhotite – arsenopyrite – chalcopyrite mineralized and

    hosting gold bearing quartz veinlets. Morphologically, these zones are roughly cylindrical

    and measure between 12 and 43 metres in strike length, 1.5 to 7.5 metres wide and of

    considerable vertical extension. Albitite dykes are spatially associated to the mineralization.

    In addition to these zones, eight gold bearing lenses are present to the north of the Main

    Zones. Mineralization consists of smoky quartz veins with arsenopyrite, pyrhotite, pyrite,

    and visible gold.

    Tonawanda

    Following work undertaken in the 1980’s by Breakwater Resources, numerous gold zones

    were identified on the Tonawanda group. Zone A is a tabular shaped biotite schist, silica

    altered, with quartz veining and disseminated sulphides. It has been traced for upwards of

    1km and varies in thickness from 30m to less than 1m. To the west, the A zone is at the

    northern contact of a chlorite schist. It is split into 2 distinct zones (A1 and A2). Eastward

    the A East zone is in contact with graywackes intercalated into the Piché group. It splinters

    into two zones (A East N and A East S) with sterile graywackes separating the zones.

    To the north of the A Zone are two more gold enriched horizons named A North and B.

    These zones are separated by less than 10m. The B zone is located roughly 20 to 40 metres

    north of A and is roughly 10 metres from the Cadillac Group – Piché Group contact. Finally

    the C zone is located to the south of the A zone. This zone is discontinuous. A thorough

    compilation of the known gold enriched zones in the sector is presented in the report titled

    Rapport des travaux – 1999 Propriété Lapa (236) (Couture, J.F. , 2000) prepared for Cambior

    Exploration Canada.

    The next page shows the Lapa geology map.

  • 28

    Figure 5.2 : Lapa Geology Map

  • 29

    Contact Zone

    Previous drilling had defined the Contact zone as a sub-vertically dipping panel proximal to

    the Cadillac Group – Piche Group contact. It is characterized by moderate to strong biotite –

    silica alteration. Hole La99-01 returned 0.8g Au / T/12m and hole La99-02 returned

    1.3gAu/T/8.0m. However, hole La99-02 intersected strong gold mineralization at the contact

    of the Piché Group with the Cadillac Group (Contact Zone). In 2002, Agnico-Eagle Mines

    via its Exploration Division, made 3 diamond drill holes for a total of 2 728m to fence off the

    Contact Zone at depth. A summary of previous holes and the first 3 Agnico-Eagle drill holes

    intersecting the Contact Zone is provided in the table below.

    DDH Zone Grade

    (g/T)

    Length (m) /

    (Horizontal Thickness)

    La99-01 « Contact » .19 2.7

    La99-02 « Contact » 10.67 14.5

    La99-03 « Contact »

    10.57

    3.0

    La99-04

    « Contact »

    5.49

    3.0

    118-02-01A « Contact » 9.8 3.0

    118-02-02B « Contact » 5.77 13.0

    118-02-03 « Contact » 2.54 3.0

    Table 5.1: Historical Contact Zone Gold Intercepts

    Subsequent drilling (2002-2004 campaign) has defined the Contact Zone and appears to have

    cut it off in its eastern and western extents. The ‘Contact Zone’ consists of an anatomising

  • 30

    sheared horizon ranging from one meter to tens of meters in width. The top of the zone is

    roughly 400 metres below surface. Two main horizons form the bulk of the previous

    Reserves/Resources mineral estimate; the Contact Zone and the Contact South Zone.

    Economic grade intersections define a funnel shaped horizon in longsection looking north,

    raking steeply towards East. Following the tightly spaced drilling undertaken during the 2006

    underground programme, the zone was re-interpreted as four sub-parallel sheared and altered

    horizons. In the text, the term ‘Contact Zone’ refers to the corridor containing all the

    mineralized zones proximal to Cadillac Group/Piché Group contact. The newly interpreted

    Contact North and Contact Center were initially assigned to the Contact Zone and are

    detailed in the current reserve estimate.

    The deformation and alteration associated to the Contact Zone crosscut lithologies at a very

    low angle but is spatially associated to the Piché Group – Cadillac Group contact. As a

    result, the ‘Contact Zone’ can be hosted locally by Piché Group chlorite schists and mafic

    volcanics as well as Cadillac Group wackes and conglomerates. The zone is characterized by

    biotite – silica – sericite alteration as millimetric discontinuous wisps parallel to foliation.

    Buff yellow sericitic alteration is more developed within the wackes whereas biotite – silica

    alteration predominates within the Piche Group volcanics. A wide zone of quartz – carbonate

    alteration marks the Piché Group south of its contact with the Cadillac Group sediments.

    Smokey grey quartz stringers, parallel to the shear fabric, make up from 5% to 25% of the ore

    zone. These veins range from millimeters to decimeters in width. Visible gold is frequently

    hosted by these veins but is also sporadically noted outside of the veins within the biotite

    altered zones. Arsenopyrite – pyrite – pyhrotite – stibnite are the characteristic sulphides

    associated to the zone. Arsenopyrite is fine to medium grained, subhedral to euhedral and

    usually proximal to silicified intervals. Stibnite is present as fine grained needles usually

    more abundant proximal to smokey grey quartz veining. Pyhotitite – pyrite as fine grained

    disseminations is usually present in the one to two percent range. Atypically, graphite was

    noted in the smokey grey veins.

  • 31

    6 Exploration

    6.1 Procedures

    Surface exploration drilling (2002-2004) was contracted to, and carried out by, Forages

    Roullier of Amos, Quebec. All aspects of the program were supervised by Mr. Dino

    Lombardi P.Geo.,of Agnico-Eagle Mines Exploration Division in Val d’Or. The position and

    orientation of the diamond drill holes were determined by Agnico-Eagle staff using pertinent

    longitudinal and cross-sectional projections. UTM co-ordinates for the collar and front sites

    were given to surveyors (from the firm of J.L. Corriveau et Associés of Val d’Or) who in turn

    implanted these points in the field using a differential GPS (with an accuracy generally of

    less than 5 centimetres). The diamond drill rig was aligned by Agnico-Eagle staff using these

    surveyed points as reference. A Reflex borehole surveying instrument was used to control

    the hole’s direction as drilling progressed. Once completed, all holes were surveyed using a

    North Seeking gyroscope with intervals of no more than 15m between readings. This

    surveying was done by Sperry Sun Services of North Bay, Ontario. Once the hole was

    completed, and the rig moved off the collar, the casing’s co-ordinates were surveyed by

    surveyors (J.L. Corriveau et Associés) using a differential GPS (with accuracy generally of

    less than 5 centimetres). All orientation and survey data was submitted digitally to Agnico-

    Eagle and appended to the central database by Agnico-Eagle staff (and verified individually).

    When wedges were necessary, they were implanted by the drill crews under the supervision

    of Agnico-Eagle staff. A Reflex survey instrument was used to measure the orientation of

    the wedges.

    The 2006 underground exploration program was awarded to Forage Garant et Fils of Evain,

    Quebec. The program was supervised by Jocelyn Côté P.Geo, and Normand Bédard P.Geo.,

    respectively project geologist and senior geologist at Agnico-Eagle’s Regional Division. The

    drill holes azimuth and location were implanted by the mining contractor’s surveyor (Dumas

    et Fils) who is responsible of the shaft sinking and the drifting on level 69. Upon completion,

  • 32

    drill holes on level 69 deeper than 70 metre were surveyed using a North Seeking gyroscope

    to calculate the borehole trace. Only three of the fourteen drill holes on level 49 had a

    gyroscopic survey but the work will be done in the next few months when the return on site.

    This surveying was done by Sperry Sun Services of North Bay, Ontario. Services of North

    Bay, Ontario. Once completed, the collar of every holes were surveyed by the mining

    contractor’s surveyor for co-ordinates, azimuth and plunge.

    6.2 Diamond Drilling Results 6.2.1 2002-2004 Diamond Drilling Program

    The 2002 – 2004, program undertaken by Agnico-Eagle Mines Exploration Division was

    focused on extending the high-grade Contact Zone first recognized by Cambior Exploration

    in 1999. All the drilling was done on BQ size core. Ninety-seven (97) holes (and wedge cuts)

    crossed the Cadillac Group – Piché Group contact in order to define and test the extent of the

    Contact Zone mineralized envelope. The campaign succeeded in extending and defining the

    upper, western, and eastern limits of the Contact Zone. The deepest hole to have intercepted

    the Cadillac Group –Piché Group contact is hole 118-04-57A at a depth of 1,730 meters. The

    deepest significant Contact Zone gold intercept is 7.24 g/t Au/6.0m is from hole 118-04-57C

    at 1,560 meters vertically from surface. The zone remains open at depth.

    Because of the zones’ depth (450 metres to 1,600 metres below surface), the length of the

    drill holes needed to reach them can be substantial. Drill string deviation must therefore be

    carefully monitored and corrected. The control of the holes has therefore rendered necessary

    the installation of several wedges. Steel wedges were also used to obtain several pierce

    points (through the mineralized zone) from the same collar notably to recover composite

    samples for metallurgical tests. This approach greatly reduced the amount of drill footage

    required to reach targets.

    A total of 9,603 samples were recovered from drill core during the 2002-2004 program. All

    samples were sawed with half sent to Laboratoires Expert Inc. laboratories in Rouyn -

    Noranda for gold analysis. Checks on selected samples were carried out at ALS Chemex

  • 33

    Chimitec and Bourlamaque Assay Laboratories Ltd. in Val d’Or. The other half of the core

    was returned to the core box.

    All core was stored at Agnico-Eagle Mines Limited’s LaRonde and Bousquet mine sites.

    Samples outside the Contact Zone were sent for gold analysis and those assigned to the

    Contact Zone were assayed for Au, Ag, As, Sb.

    Table 6.1 outlines the drill holes and the gold values associated to the Contact North,

    Contact, Contact Center and Contact South Zones. The intersections, grade and thickness

    correspond to the new interpretation of the mineralized zones and differs locally from the

    intercepts reported on previous press releases. All intercepts within each zone corridors are

    listed (inside and outside of the reserves area).

    The Contact Zone is a sub-vertically dipping panel striking approximately at North 105

    degrees, therefore, the horizontal width listed on the following table correspond to the true

    thickness of the zones.

    Table 6.1 : Gold Intercepts ( 2002-2004 DDH Campaign)

    DDH no. from (m) to (m) Zone

    Horizontal

    Width

    (m) Au g/t

    27-43 340.0 343.7 Contact 2.8 0.18

    27-46 376.9 381.5 Contact 2.9 0.03

    27-60 314.5 320.0 Contact 2.9 0.02

    27-77 302.3 307.0 Contact 2.8 4.08

    27-78 320.5 324.6 Contact 2.8 6.48

    27-81 653.0 658.5 Contact 2.8 0.24

    LA99-01 264.0 270.4 Contact 2.8 0.19

    LA99-02 626.2 635.2 Contact 3.8 9.94

    LA99-03 734.1 741.5 Contact 4.1 10.57

    LA99-04 524.5 530.2 Contact 2.9 5.05

  • 34

    118-02-01A 775.1 781.1 Contact 3.4 9.81

    118-02-02B 778.2 784.3 Contact 3.5 12.32

    118-02-03 762.2 766.3 Contact 2.8 2.84

    118-02-04 940.9 948.2 Contact 5.0 20.42

    118-02-05 408.8 419.3 Contact 4.8 5.66

    118-02-06 817.3 826.0 Contact 4.6 9.22

    118-02-07 981.4 986.4 Contact 3.2 9.03

    118-02-08 686.1 695.1 Contact 5.1 20.52

    118-03-04A 983.8 989.3 Contact 3.1 12.96

    118-03-04C 913.2 916.8 Contact 2.8 6.21

    118-03-06A 770.0 774.7 Contact 3.2 7.50

    118-03-07B 860.0 866.0 Contact 4.5 18.57

    118-03-09 365.2 369.0 Contact 2.8 0.02

    118-03-10A 596.8 602.4 Contact 3.1 18.80

    118-03-11 490.9 495.5 Contact 2.8 2.41

    118-03-12A 527.3 532.3 Contact 3.0 2.21

    118-03-13A 427.4 431.5 Contact 2.8 0.72

    118-03-14 621.2 628.6 Contact 4.7 7.37

    118-03-15 558.6 564.0 Contact 3.0 5.44

    118-03-16 1275.9 1281.2 Contact 3.4 17.79

    118-03-16A 1209.5 1213.3 Contact 2.8 23.15

    118-03-16C 1165.0 1169.0 Contact 2.9 18.43

    118-03-16E 1092.0 1096.0 Contact 3.5 7.50

    118-03-18B 602.7 607.4 Contact 2.8 2.23

    118-03-19A 876.5 882.7 Contact 2.8 2.03

    118-03-19B 848.2 853.2 Contact 2.8 2.14

    118-03-20 642.5 650.0 Contact 2.8 5.77

    118-03-21A 1006.0 1010.4 Contact 3.5 2.72

    118-03-22A 896.9 903.1 Contact 3.0 2.31

    118-03-22B 867.5 872.8 Contact 2.9 0.07

  • 35

    118-03-23 514.5 521.3 Contact 2.8 0.55

    118-03-25 1327.3 1332.8 Contact 4.1 8.18

    118-03-25A 1206.6 1209.9 Contact 2.9 2.36

    118-03-25B 1312.4 1316.1 Contact 2.8 2.89

    118-03-25C 1249.4 1253.0 Contact 3.0 1.70

    118-03-25F 1203.3 1207.7 Contact 3.9 11.22

    118-03-26 484.2 488.7 Contact 3.0 1.99

    118-03-27 698.3 710.3 Contact 5.8 5.88

    118-03-27A 580.6 585.2 Contact 2.8 1.89

    118-03-28B 1146.2 1150.7 Contact 3.6 3.73

    118-03-28E 1072.2 1075.4 Contact 2.8 2.20

    118-03-28F 1096.2 1099.2 Contact 2.8 0.60

    118-03-28G 1073.9 1078.2 Contact 3.8 3.12

    118-03-29 1169.5 1173.7 Contact 2.8 5.48

    118-03-29A 1032.9 1036.0 Contact 2.8 1.89

    118-03-29B 1114.3 1117.9 Contact 3.1 8.02

    118-03-29C 964.6 967.9 Contact 2.9 2.47

    118-03-30A 734.4 738.1 Contact 2.8 0.54

    118-03-31 543.8 552.8 Contact 5.3 6.57

    118-03-32 783.5 788.0 Contact 2.8 1.32

    118-03-32A 742.5 746.0 Contact 2.9 0.10

    118-03-33A 764.0 770.1 Contact 4.9 14.36

    118-03-34A 1208.9 1213.9 Contact 2.9 2.34

    118-03-35 1161.6 1168.0 Contact 5.9 8.85

    118-03-35A 1307.0 1319.3 Contact 7.6 24.97

    118-03-35B 1275.5 1280.1 Contact 3.6 11.73

    118-03-35D 1207.3 1216.3 Contact 6.7 21.08

    118-03-35E 1252.4 1257.5 Contact 3.9 16.79

    118-03-36 585.8 591.6 Contact 2.8 2.94

    118-03-37 613.5 617.0 Contact 3.1 1.48

  • 36

    118-03-38 450.0 453.8 Contact 2.8 0.84

    118-03-39 698.0 705.8 Contact 3.3 9.35

    118-03-39A 596.1 605.1 Contact 5.3 6.71

    118-03-39B 540.8 546.0 Contact 3.3 7.80

    118-03-40 1072.0 1076.2 Contact 2.9 4.17

    118-03-40A 1084.8 1089.3 Contact 3.4 5.38

    118-03-42 556.0 560.0 Contact 3.2 6.25

    118-03-43 465.4 470.0 Contact 2.8 5.33

    118-03-44B 557.8 562.5 Contact 2.8 3.74

    118-03-45 647.7 652.0 Contact 2.8 0.66

    118-03-46 379.7 384.0 Contact 2.8 0.79

    118-03-47 460.9 464.1 Contact 2.8 0.96

    118-03-48 308.0 312.7 Contact 2.8 4.62

    118-03-49 289.6 299.5 Contact 4.8 3.23

    118-04-07D 890.4 896.3 Contact 4.2 6.99

    118-04-08B 539.0 543.3 Contact 3.1 5.88

    118-04-21B 986.7 990.6 Contact 3.0 8.04

    118-04-34C 1135.2 1140.5 Contact 3.7 4.39

    118-04-50A 1395.5 1399.1 Contact 2.8 1.01

    118-04-50B 1318.0 1321.1 Contact 2.8 1.29

    118-04-50C 1219.5 1222.5 Contact 2.8 0.48

    118-04-50D 1306.8 1310.0 Contact 2.8 1.40

    118-04-51E 1598.5 1602.7 Contact 2.8 0.28

    118-04-52 1548.2 1552.6 Contact 3.0 1.65

    118-04-52B 1473.8 1477.1 Contact 2.8 6.65

    118-04-52D 1414.8 1418.0 Contact 2.8 3.03

    118-04-52E 1393.8 1396.9 Contact 2.9 4.48

    118-04-53 864.0 868.0 Contact 3.0 0.33

    118-04-54B 1174.0 1178.0 Contact 3.0 0.18

    118-04-55 847.3 851.7 Contact 3.0 0.03

  • 37

    118-04-56 1161.0 1166.5 Contact 2.6 0.03

    118-04-57A 2036.2 2039.7 Contact 2.8 0.05

    118-04-57C 1886.7 1892.9 Contact 5.9 7.24

    118-04-57E 1827.9 1831.8 Contact 3.8 6.71

    118-04-57G 1749.4 1752.6 Contact 3.0 6.05

    118-04-58 1057.4 1061.9 Contact 3.0 1.10

    118-04-59A 1017.0 1020.4 Contact 3.0 0.47

    118-04-60A 1175.1 1178.6 Contact 2.9 0.27

    118-04-63 813.8 816.5 Contact 2.1 1.42

    27-46 294.5 299.5 Contact South 2.8 3.59

    27-60 399.5 404.8 Contact South 2.9 0.01

    27-81 592.0 597.6 Contact South 2.8 1.46

    LA99-02 468.0 475.0 Contact South 2.8 1.59

    LA99-03 636.0 641.2 Contact South 2.8 0.86

    LA99-04 443.7 449.8 Contact South 2.9 4.04

    118-02-01A 679.0 684.0 Contact South 2.8 0.00

    118-02-02B 669.3 674.5 Contact South 2.8 1.05

    118-02-03 691.6 696.2 Contact South 2.8 1.97

    118-02-04 874.8 879.6 Contact South 3.0 2.37

    118-02-07 948.8 953.5 Contact South 2.9 3.26

    118-03-04A 941.3 956.3 Contact South 7.9 7.03

    118-03-04C 847.2 851.2 Contact South 2.9 0.86

    118-03-06A 673.7 678.5 Contact South 2.8 1.25

    118-03-07B 795.0 798.8 Contact South 2.8 0.03

    118-03-14 567.4 572.1 Contact South 2.8 0.47

    118-03-16 1217.4 1222.0 Contact South 2.8 1.62

    118-03-16A 1180.5 1184.4 Contact South 2.8 6.45

    118-03-16C 1108.7 1113.2 Contact South 3.2 1.48

    118-03-16E 1049.0 1052.5 Contact South 2.9 1.76

    118-03-19B 778.0 783.7 Contact South 2.9 1.39

  • 38

    118-03-21A 959.8 964.1 Contact South 3.4 11.36

    118-03-25 1300.6 1304.6 Contact South 2.9 2.27

    118-03-25A 1175.8 1179.1 Contact South 2.8 4.75

    118-03-25B 1271.0 1275.0 Contact South 2.9 0.54

    118-03-25C 1215.6 1219.0 Contact South 2.8 0.45

    118-03-25F 1176.5 1179.8 Contact South 2.8 1.29

    118-03-26 417.8 422.8 Contact South 3.0 5.76

    118-03-27 588.0 593.8 Contact South 2.8 0.71

    118-03-27A 500.5 506.0 Contact South 3.2 7.76

    118-03-28B 1091.3 1095.0 Contact South 3.0 1.61

    118-03-28E 1023.7 1028.0 Contact South 3.7 26.06

    118-03-28F 1036.8 1043.3 Contact South 6.1 6.48

    118-03-28G 1028.0 1031.8 Contact South 3.4 35.13

    118-03-31 465.6 471.0 Contact South 2.9 2.70

    118-03-35 1132.6 1135.6 Contact South 2.8 4.24

    118-03-35A 1226.8 1231.3 Contact South 2.8 0.51

    118-03-35B 1212.5 1216.3 Contact South 2.9 2.48

    118-03-35D 1165.0 1168.8 Contact South 2.8 1.66

    118-03-35E 1206.0 1210.0 Contact South 2.9 1.56

    118-03-36 492.8 498.6 Contact South 2.8 4.76

    118-03-38 378.2 382.3 Contact South 2.8 2.45

    118-03-39 554.2 561.0 Contact South 2.8 0.13

    118-03-39A 509.4 514.6 Contact South 2.8 0.38

    118-03-39B 464.7 469.3 Contact South 2.8 0.60

    118-03-43 388.1 393.0 Contact South 2.8 4.73

    118-04-07D 840.0 844.0 Contact South 2.8 1.33

    118-04-21B 938.5 942.1 Contact South 2.8 2.42

    118-04-50A 1307.7 1311.4 Contact South 2.8 2.44

    118-04-50B 1247.4 1250.7 Contact South 2.9 0.87

    118-04-50C 1160.8 1163.8 Contact South 2.8 1.33

  • 39

    118-04-50D 1241.5 1244.8 Contact South 2.8 0.69

    118-04-51C 1504.0 1509.0 Contact South 2.7 0.00

    118-04-57G 1771.6 1774.7 Contact South 2.8 1.30

    27-81 638.5 644.5 Contact Centre 3.0 0.48

    LA99-02 613.2 620.7 Contact Centre 3.1 7.85

    LA99-03 716.0 721.3 Contact Centre 3.0 1.60

    LA99-04 511.5 517.4 Contact Centre 3.0 0.57

    118-02-01A 769.0 774.0 Contact Centre 2.8 0.43

    118-02-02B 762.7 767.7 Contact Centre 2.9 4.42

    118-02-03 757.9 762.2 Contact Centre 2.9 0.01

    118-02-04 925.7 929.9 Contact Centre 2.8 0.10

    118-02-06 800.5 806.0 Contact Centre 2.9 0.89

    118-02-07 975.0 979.4 Contact Centre 2.8 0.65

    118-02-08 666.7 671.7 Contact Centre 2.8 0.06

    118-03-04A 968.6 977.0 Contact Centre 4.6 25.11

    118-03-04C 905.6 909.2 Contact Centre 2.8 1.10

    118-03-06A 760.1 764.4 Contact Centre 2.9 1.82

    118-03-07B 850.3 854.0 Contact Centre 2.8 0.12

    118-03-10A 586.0 591.6 Contact Centre 3.0 1.68

    118-03-12A 519.6 524.3 Contact Centre 2.8 1.69

    118-03-14 614.0 618.2 Contact Centre 2.7 6.35

    118-03-15 550.2 555.6 Contact Centre 3.0 0.90

    118-03-16 1269.5 1273.9 Contact Centre 2.8 0.75

    118-03-16A 1201.7 1205.5 Contact Centre 2.8 4.13

    118-03-16C 1136.0 1140.0 Contact Centre 2.9 2.15

    118-03-16E 1087.0 1090.2 Contact Centre 2.8 0.77

    118-03-18B 590.1 594.7 Contact Centre 2.8 0.67

    118-03-19A 845.0 851.6 Contact Centre 2.8 1.49

    118-03-19B 819.5 824.7 Contact Centre 2.8 1.11

    118-03-21A 984.3 988.0 Contact Centre 3.0 2.69

  • 40

    118-03-22A 884.7 890.9 Contact Centre 3.0 0.01

    118-03-22B 851.5 856.8 Contact Centre 2.8 0.02

    118-03-25 1317.2 1321.2 Contact Centre 2.9 0.14

    118-03-25A 1191.6 1195.0 Contact Centre 2.9 1.81

    118-03-25B 1293.4 1297.4 Contact Centre 3.0 0.50

    118-03-25C 1224.6 1228.0 Contact Centre 2.8 5.35

    118-03-25F 1188.3 1191.6 Contact Centre 2.9 5.53

    118-03-27 676.6 682.6 Contact Centre 2.9 1.94

    118-03-27A 571.5 576.1 Contact Centre 2.8 0.69

    118-03-28B 1131.0 1134.7 Contact Centre 2.9 1.28

    118-03-28E 1060.3 1063.5 Contact Centre 2.8 0.20

    118-03-28F 1082.6 1085.6 Contact Centre 2.8 4.67

    118-03-28G 1059.9 1063.0 Contact Centre 2.8 2.71

    118-03-31 531.8 536.6 Contact Centre 2.8 0.18

    118-03-32 792.2 796.9 Contact Centre 3.0 0.07

    118-03-32A 748.5 752.0 Contact Centre 2.9 0.05

    118-03-33A 754.9 758.5 Contact Centre 2.8 4.81

    118-03-34A 1220.0 1224.5 Contact Centre 2.6 0.06

    118-03-35 1151.1 1154.2 Contact Centre 2.8 1.56

    118-03-35A 1296.4 1301.0 Contact Centre 2.8 6.67

    118-03-35B 1264.4 1268.0 Contact Centre 2.8 0.91

    118-03-35D 1200.1 1204.0 Contact Centre 2.9 5.60

    118-03-35E 1241.8 1245.5 Contact Centre 2.8 2.69

    118-03-36 571.5 577.5 Contact Centre 2.9 2.64

    118-03-39 677.2 683.8 Contact Centre 2.8 0.90

    118-03-39A 567.6 572.6 Contact Centre 2.9 3.91

    118-03-39B 530.0 534.4 Contact Centre 2.8 0.44

    118-03-40 1092.0 1096.0 Contact Centre 2.8 3.07

    118-03-40A 1102.7 1106.5 Contact Centre 2.8 2.09

    118-03-44B 545.0 550.0 Contact Centre 3.0 1.14

  • 41

    118-04-07D 882.3 886.5 Contact Centre 3.0 0.11

    118-04-08B 525.5 530.0 Contact Centre 3.3 0.00

    118-04-21B 975.4 979.0 Contact Centre 2.8 1.82

    118-04-34C 1155.2 1159.1 Contact Centre 2.8 0.03

    118-04-50A 1354.0 1357.6 Contact Centre 2.8 7.04

    118-04-50B 1282.2 1285.5 Contact Centre 2.9 1.61

    118-04-50C 1189.4 1192.4 Contact Centre 2.8 6.16

    118-04-50D 1290.5 1293.9 Contact Centre 2.9 2.43

    118-04-51E 1561.4 1565.9 Contact Centre 2.9 2.32

    118-04-52 1554.8 1559.0 Contact Centre 2.8 0.99

    118-04-52B 1485.3 1488.7 Contact Centre 2.9 1.04

    118-04-52D 1425.1 1428.5 Contact Centre 2.9 4.05

    118-04-52E 1405.4 1408.4 Contact Centre 2.8 2.49

    118-04-57E 1852.8 1856.8 Contact Centre 3.9 4.58

    118-04-57G 1756.6 1759.7 Contact Centre 2.9 2.77

    LA99-02 639.8 649.2 Contact North 4.0 22.34

    LA99-03 759.0 764.3 Contact North 3.0 2.72

    LA99-04 537.7 543.7 Contact North 3.0 1.09

    118-02-01A 806.6 811.6 Contact North 2.8 5.43

    118-02-02B 796.0 801.3 Contact North 3.1 10.79

    118-02-03 770.2 774.4 Contact North 2.9 0.03

    118-02-04 957.5 961.8 Contact North 3.0 0.08

    118-02-06 831.5 837.2 Contact North 3.0 1.49

    118-02-07 997.0 1001.5 Contact North 2.9 0.10

    118-02-08 702.2 708.0 Contact North 3.3 0.00

    118-03-04C 924.8 928.5 Contact North 2.9 0.42

    118-03-06A 780.7 785.8 Contact North 3.6 12.92

    118-03-07B 879.7 883.5 Contact North 2.9 1.96

    118-03-10A 613.0 618.0 Contact North 2.7 0.00

    118-03-14 640.0 644.5 Contact North 2.9 0.00

  • 42

    118-03-18B 623.6 628.3 Contact North 2.8 6.19

    118-03-19A 901.4 907.6 Contact North 2.8 2.40

    118-03-21A 1017.8 1021.3 Contact North 2.8 0.53

    118-03-26 509.6 513.9 Contact North 2.9 0.70

    118-03-27 716.0 723.0 Contact North 3.4 9.89

    118-03-27A 612.5 617.0 Contact North 2.8 0.23

    118-03-31 560.3 565.0 Contact North 2.8 0.54

    118-03-32 769.1 773.8 Contact North 2.9 0.29

    118-03-32A 719.5 723.0 Contact North 2.8 0.18

    118-03-33A 775.0 778.5 Contact North 2.8 1.94

    118-03-36 595.9 601.9 Contact North 2.9 0.98

    118-03-39 728.7 735.4 Contact North 2.8 1.41

    118-03-39A 606.1 611.0 Contact North 2.9 1.30

    118-03-39B 550.3 554.7 Contact North 2.8 0.53

    118-03-44B 566.4 571.0 Contact North 2.8 0.01

    118-04-07D 916.9 920.8 Contact North 2.8 0.82

    118-04-21B 993.2 997.0 Contact North 3.0 0.44

    6.2.2 2006 Diamond Drilling Program

    The 2006 underground drilling campaign started in January from station 49 (490 metres

    depth). Fourteen (14) NQ core holes were completed totaling 3,903.5 meters (LA06-49—1 to

    14). From March to the end of April, three drill rigs were in operation from level 69 (690

    metres depth). One rig was dedicated to defining the mineralized zone that was developed in

    April during the bulk sampling program (thirty BQ core holes totaling 1,899.2 meters). Two

    rigs were used to complete a 40 metre by 40 metre spaced pattern of intercepts in the vicinity

    of the planned drift (using NQ core). This drilling amounted to 3,054 meters from fourteen

    (14) NQ core holes.

  • 43

    A total of 1,591 samples were recovered from the drill core during the 2006 program. All

    samples were sawed with half sent to lab for assaying; the other half of the core was returned

    to the core box. For the 2006 underground exploration program samples from level 49 were

    sent to Bourlamaque Assay Laboratories in Val d’Or with checks carried out by ALS

    Chemex Chimitec in Val d’Or for the first five holes (LA06-49-1 to 5). Samples from level

    69 were sent to Laboratoires Expert Inc. of Rouyn-Noranda. All samples were analyzed for

    Au, Ag, As, Sb. All core was stored at Agnico-Eagle Mines’ Bousquet 2 mine site.

    Table 6.2 : Gold Intercepts ( 2006 DDH Campaign)

    DDH no. from (m) to (m) Zone

    Horizontal

    Width

    (m) Au g/t

    LA06-49-1 172.0 175.0 Contact 2.9 2.77

    LA06-49-10 230.1 234.7 Contact 3.3 4.85

    LA06-49-11 228.3 232.6 Contact 3.0 8.29

    LA06-49-12 189.6 192.8 Contact 2.9 1.08

    LA06-49-13 210.1 214.1 Contact 3.0 16.11

    LA06-49-14 228.5 233.2 Contact 3.3 6.22

    LA06-49-2 179.0 182.2 Contact 2.8 3.52

    LA06-49-3 237.3 241.8 Contact 3.1 18.04

    LA06-49-4 196.4 201.5 Contact 4.0 2.92

    LA06-49-5 210.8 214.7 Contact 2.9 8.01

    LA06-49-6 278.5 283.7 Contact 3.0 1.73

    LA06-49-7 197.8 202.7 Contact 4.1 15.71

    LA06-49-8 339.6 350.9 Contact 4.9 7.09

    LA06-49-9 176.5 179.5 Contact 3.0 13.92

    LA06-69-1 145.6 148.6 Contact 2.8 4.98

    LA06-69-10 136.8 142.1 Contact 5.0 17.33

  • 44

    LA06-69-11 138.3 141.5 Contact 2.8 0.65

    LA06-69-12 152.0 158.7 Contact 5.7 8.47

    LA06-69-13 138.9 142.1 Contact 2.9 9.33

    LA06-69-14 148.0 151.5 Contact 2.8 1.22

    LA06-69-15 166.0 170.0 Contact 2.8 1.74

    LA06-69-16 190.5 195.0 Contact 2.9 1.83

    LA06-69-18 21.2 24.2 Contact 3.0 7.48

    LA06-69-19 23.9 27.7 Contact 3.4 16.82

    LA06-69-2 136.5 141.2 Contact 4.1 4.39

    LA06-69-20 32.4 36.5 Contact 2.8 23.98

    LA06-69-21 22.3 25.5 Contact 2.9 4.26

    LA06-69-22 27.2 31.0 Contact 2.8 5.55

    LA06-69-23 36.2 39.4 Contact 3.0 12.60

    LA06-69-24 41.6 45.2 Contact 3.0 3.68

    LA06-69-25 48.4 52.4 Contact 3.0 6.96

    LA06-69-26 58.5 62.7 Contact 2.8 5.04

    LA06-69-27 38.0 41.2 Contact 2.8 7.64

    LA06-69-28 40.2 43.7 Contact 3.1 7.59

    LA06-69-29 44.4 48.0 Contact 2.8 2.38

    LA06-69-3 164.8 168.5 Contact 3.0 4.13

    LA06-69-30 43.8 49.3 Contact 4.5 12.92

    LA06-69-31 37.1 40.1 Contact 3.0 11.91

    LA06-69-32 38.4 42.4 Contact 3.9 12.41

    LA06-69-33 41.4 44.4 Contact 2.8 17.84

    LA06-69-34 45.8 50.8 Contact 4.2 7.37

    LA06-69-36 44.7 48.5 Contact 3.5 53.10

    LA06-69-37 40.0 44.0 Contact 3.6 31.12

    LA06-69-38 47.8 51.8 Contact 3.1 26.82

    LA06-69-39 53.9 59.4 Contact 4.2 6.01

    LA06-69-4 144.0 150.7 Contact 5.9 4.88

  • 45

    LA06-69-40 44.4 48.4 Contact 3.6 11.73

    LA06-69-41 40.6 44.7 Contact 3.6 11.28

    L