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ORA BANDA MINING LTD Capital/Financing Update 2026

Mar 10, 2026

65475_rns_2026-03-10_07266987-b32d-406d-867b-179a72941f8d.pdf

Capital/Financing Update

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ASX ANNOUNCEMENT

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	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE:


	MEASURED		INDICATED		INFERRED		TOTAL MATERIAL

	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000oz)

OPEN PIT	-	-	7, 152	1.8	18, 199	1.6	25, 351	1.6	1,3 3 0
TOTAL	-	-	7,152	1.8	18,199	1.6	25,351	1.6	1,330

	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE	ROUND DAM GOLD PROJECT MINERAL RESOURCE ESTIMATE
	MEASURED		INDICATED		INFERRED		TOTAL MATERIAL
	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000t)	(g/t Au)	(‘000oz.)
WALHALLA	-	-	4,921	2.0	15,559	1.7	20,480	1.7	1,142
SALMON GUMS	-	-	2,231	1.3	2,640	1.1	4,871	1.2	188
TOTAL	-	-	7,152	1.8	18,199	1.6	25,351	1.6	1,330

PROJECT	('000t) (g/t Au) MEASURED	('000t) (g/t Au) MEASURED	INDICATED	INDICATED	INFERRED	INFERRED	('000t) (g/t Au) ('000oz.) TOTAL MATERIAL	('000t) (g/t Au) ('000oz.) TOTAL MATERIAL	('000t) (g/t Au) ('000oz.) TOTAL MATERIAL
		(g/t Au)	('000t)	(g/t Au)	('000t)	(g/t Au)	('000t)	(g/t Au)
LIGHTS OF ISRAEL	-	-	74	4.3	180	4.2	254	4.2	34
MAKAI SHOOT	-	-	1,985	2.0	153	1.7	2,138	2.0	136
Open Pit	-	-	2,057	2.3	95	2.0	2,152	2.3	157
WAIHI Underground	-	-	278	3.6	324	3.5	602	3.5	68
TOTAL	-	-	2,335	2.5	419	3.5	2,754	2.5	225
Central Davyhurst Subtotal	-	-	4,394	2.3	752	3.3	5,146	2.4	396
LADY GLADYS	-	-	1,858	1.9	190	2.4	2,048	1.9	125
Open Pit	476	1.7	2,118	1.6	117	1.5	2,711	1.6	138
RIVERINA AREA Underground	266	3.3	3,953	2.7	2,826	2.4	7,046	2.6	586
TOTAL	742	2.3	6,071	2.3	2,943	2.4	9,757	2.3	724
Open Pit	-	-	386	1.6	17	1.6	403	1.6	21
BRITISH LION Underground	-	-	36	3.2	3	3.8	39	3.2	4
TOTAL	-	-	422	1.7	20	2.0	442	1.7	25
Open Pit	-	-	-	-	691	1.5	691	1.5	33
FOREHAND Underground	-	-	-	-	153	2.5	153	2.5	12
TOTAL	-	-	-	-	844	1.7	844	1.7	46
Open Pit	-	-	-	-	127	2.3	127	2.3	9
SILVER TONGUE Underground	-	-	-	-	77	4.5	77	4.5	11
TOTAL	-	-	-	-	204	3.1	204	3.1	21
SUNRAYSIA	-	-	175	2.1	318	2.0	493	2.0	32
Riverina-Mulline Subtotal	742	2.3	8,526	2.1	4,519	2.3	13,788	2.2	972
Open Pit	-	-	-	-	-	-	- - -
SAND KING Underground	108	3.2	1,900	2.7	1,901	2.9	3,909	2.8	348
TOTAL	108	3.2	1,900	2.7	1,901	2.9	3,909	2.8	348
Open Pit	-	-	-	-	-	-	-	-	-
MISSOURI Underground	-	-	464	3.4	246	4.9	710	3.9	89
TOTAL	-	-	464	3.4	246	4.9	710	3.9	89
PALMERSTON / CAMPERDOWN	-	-	118	2.3	174	2.4	292	2.4	23
BLACK RABBIT	-	-	-	-	434	3.5	434	3.5	49
Siberia Subtotal	108	3.2	2,482	2.8	2,755	3.1	5,345	3.0	508
Open Pit	-	-	241	3.7	28	1.6	269	3.5	30
CALLION Underground	-	-	255	6.0	156	5.5	411	5.8	77
TOTAL	- -		496	4.9	184	4.9	680	4.9	107
Callion Subtotal	-	-	496	4.9	184	4.9	680	4.9	107
WALHALLA Open Pit	-	-	4,921	2.0	15,559	1.7	20,480	1.7	1,142
SALMON GUMS Open Pit	-	-	2,231	1.3	2,640	1.1	4,871	1.2	188
TOTAL	-	-	7,152	1.8	18,199	1.6	25,351	1.6	1,330
Round Dam Subtotal	-	-	7,152	1.8	18,199	1.6	25,351	1.6	1,330
Davyhurst Total	900	2.2	23,100	2.2	26,400	1.9	50,300	2.0	3,310

Project	Hole ID	MGA North	Depth To	Au g/t interval
ROUND DAM	97DRB381	6669759 273152 448 90 -60 11 RAB	11	N.S.I.
ROUND DAM	97DRB382	6669759 273094 447 90 -60 25 RAB	25	N.S.I.
ROUND DAM	97DRB383	6669759 273034 447 90 -60 41 RAB	41	N.S.I.
ROUND DAM	97DRB384	6669762 272974 446 90 -60 30 RAB	30	N.S.I.
ROUND DAM	97DRB385	6669763 272915 446 90 -60 19 RAB	19	N.S.I.
ROUND DAM	97DRB386	6669760 272851 446 90 -60 42 RAB	42	N.S.I.
ROUND DAM	97DRB387	6669760 272795 446 90 -60 41 RAB	41	N.S.I.
ROUND DAM	97DRB388	6669763 272734 447 90 -60 35 RAB	35	N.S.I.
ROUND DAM	97DRB389	6669759 272674 447 90 -60 40 RAB	40	N.S.I.
ROUND DAM	97DRB390	6669761 272615 447 90 -60 59 RAB	59	N.S.I.
ROUND DAM	97DRB391	6669767 272551 448 90 -60 60 RAB	60	N.S.I.
ROUND DAM	97DRB392	6669765 272493 449 90 -60 61 RAB	61	N.S.I.
ROUND DAM	97DRB393	6669765 272433 449 90 -60 63 RAB	63	N.S.I.
ROUND DAM	97DRB394	6669768 272371 450 90 -60 57 RAB	57	N.S.I.
ROUND DAM	97DRB395	6669766 272309 451 90 -60 68 RAB	68	N.S.I.
ROUND DAM	97DRB396	6669761 272250 451 90 -60 58 RAB	58	N.S.I.
ROUND DAM	97DRB397	6669761 272191 452 90 -60 17 RAB	17	N.S.I.
ROUND DAM	97DRB398	6669766 272130 452 90 -60 51 RAB	51	N.S.I.
ROUND DAM	97DRB399	6669766 272072 452 90 -60 50 RAB	50	N.S.I.
ROUND DAM	97DRB400	6669764 272013 453 90 -60 68 RAB	68	N.S.I.
ROUND DAM	97DRB401	6669765 271951 453 90 -60 69 RAB	69	N.S.I.
ROUND DAM	97DRB402	6669765 271890 454 90 -60 17 RAB	17	N.S.I.
ROUND DAM	97DRB442	6669356 273122 444 90 -60 23 RAB	23	N.S.I.
ROUND DAM	97DRB443	6669356 273063 444 90 -60 43 RAB	43	N.S.I.
ROUND DAM	97DRB444	6669368 273001 444 90 -60 52 RAB	52	N.S.I.
ROUND DAM	97DRB445	6669361 272943 444 90 -60 46 RAB	46	N.S.I.
ROUND DAM	97DRB446	6669357 272883 445 90 -60 44 RAB	44	N.S.I.
ROUND DAM	97DRB447	6669360 272822 445 90 -60 48 RAB	48	N.S.I.
ROUND DAM	97DRB448	6669356 272762 445 90 -60 52 RAB	52	N.S.I.
ROUND DAM	97DRB449	6669360 272703 445 90 -60 39 RAB	39	N.S.I.
ROUND DAM	97DRB450	6669360 272644 446 90 -60 38 RAB	38	N.S.I.
ROUND DAM	97DRB451	6669357 272583 446 90 -60 33 RAB	33	N.S.I.
ROUND DAM	97DRB452	6669359 272523 447 90 -60 35 RAB	35	N.S.I.
ROUND DAM	97DRB453	6669362 272462 447 90 -60 40 RAB	40	N.S.I.
ROUND DAM	97DRB454	6669368 272404 448 90 -60 48 RAB	48	N.S.I.
ROUND DAM	97DRB455	6669357 272342 448 90 -60 51 RAB	51	N.S.I.
ROUND DAM	97DRB456	6669363 272302 449 90 -60 23 RAB	23	N.S.I.
ROUND DAM	97DRB457	6669357 272224 449 90 -60 45 RAB	45	N.S.I.
ROUND DAM	97DRB458	6669362 272163 449 90 -60 51 RAB	51	N.S.I.
ROUND DAM	97DRB459	6669365 272106 450 90 -60 50 RAB	50	N.S.I.
ROUND DAM	97DRB460	6669360 272052 450 90 -60 66 RAB	66	N.S.I.
ROUND DAM	97DRB484	6670657 272747 452 90 -60 47 RAB	47	N.S.I.
ROUND DAM	97DRB485	6670657 272727 452 90 -60 45 RAB	45	N.S.I.
ROUND DAM	97DRB486	6670657 272707 452 90 -60 49 RAB	49	N.S.I.
ROUND DAM	97DRB487	6670657 272677 452 90 -60 38 RAB	38	N.S.I.
ROUND DAM	97DRB496	6670557 273057 455 90 -60 78 RAB	78	N.S.I.
ROUND DAM	97DRB497	6670557 272977 454 90 -60 72 RAB	72	N.S.I.
ROUND DAM	97DRB498	6670557 272937 453 90 -60 49 RAB	49	N.S.I.
ROUND DAM	97DRB499	6670557 272897 453 90 -60 47 RAB	47	N.S.I.
ROUND DAM	97DRB500	6670557 272817 452 90 -60 42 RAB	42	N.S.I.
ROUND DAM	97DRB501	6670557 272827 452 90 -60 40 RAB	40	N.S.I.
ROUND DAM	97DRB502	6670557 272707 452 90 -60 35 RAB	35	N.S.I.
ROUND DAM	97DRB503	6670557 272687 451 90 -60 25 RAB	25	N.S.I.
ROUND DAM	97DRB504	6670557 272667 451 90 -60 34 RAB	34	N.S.I.
ROUND DAM	97DRB505	6670557 272637 451 90 -60 37 RAB	37	N.S.I.
ROUND DAM	97DRB506	6670557 272597 451 90 -60 55 RAB	55	N.S.I.
ROUND DAM	97DRB515	6670157 273077 452 90 -60 17 RAB	17	N.S.I.
ROUND DAM	97DRB516	6670157 273047 451 90 -60 34 RAB	34	N.S.I.
ROUND DAM	97DRB517	6670157 273017 451 90 -60 54 RAB	54	N.S.I.
ROUND DAM	97DRB518	6670157 272917 450 90 -60 60 RAB	60	N.S.I.
ROUND DAM	97DRB519	6670157 272897 450 90 -60 60 RAB	60	N.S.I.
ROUND DAM	97DRB520	6670157 272847 450 90 -60 57 RAB	57	N.S.I.
ROUND DAM	97DRB521	6670157 272767 449 90 -60 48 RAB	48	N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	97DRB522	6670157 272647 449 90 -60 45 RAB	0	45				N.S.I.
ROUND DAM	97DRB523	6670157 272597 449 90 -60 47 RAB	0	47				N.S.I.
ROUND DAM	97DRB524	6670157 272517 450 90 -60 46 RAB	0	46				N.S.I.
ROUND DAM	97DRB525	6670157 272437 451 90 -60 49 RAB	0	49				N.S.I.
ROUND DAM	97DRB526	6670157 272357 451 90 -60 48 RAB	0	48				N.S.I.
ROUND DAM	97DRB527	6670157 272277 452 90 -60 60 RAB	0	60				N.S.I.
ROUND DAM	97DRB533	6669957 272957 448 90 -60 42 RAB	0	42				N.S.I.
ROUND DAM	97DRB534	6669957 272877 448 90 -60 63 RAB	0	63				N.S.I.
ROUND DAM	97DRB535	6669957 272797 448 90 -60 57 RAB	0	57				N.S.I.
ROUND DAM	97DRB536	6669957 272717 448 90 -60 60 RAB	0	60				N.S.I.
ROUND DAM	97DRB537	6669957 272637 448 90 -60 57 RAB	0	57				N.S.I.
ROUND DAM	97DRB538	6669957 272607 448 90 -60 54 RAB	0	54				N.S.I.
ROUND DAM	97DRB539	6669957 272577 449 90 -60 44 RAB	0	44				N.S.I.
ROUND DAM	97DRB540	6669957 272547 449 90 -60 45 RAB	0	45				N.S.I.
ROUND DAM	97DRB541	6669957 272457 450 90 -60 48 RAB	0	48				N.S.I.
ROUND DAM	97DRB542	6669957 272387 450 90 -60 69 RAB	0	69				N.S.I.
ROUND DAM	97DRB543	6669957 272317 451 90 -60 63 RAB	0	63				N.S.I.
ROUND DAM	DSR1	6667321 272525 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR10	6667353 272656 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR100	6671011 272446 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR101	6671007 272432 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR102	6671004 272417 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR103	6671000 272403 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR104	6670942 272582 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR105	6670938 272568 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR106	6670935 272554 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR107	6670931 272538 452 77 -60 9 RAB	0	9				N.S.I.
ROUND DAM	DSR108	6670927 272524 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR109	6670924 272509 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR11	6667357 272670 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR110	6670920 272495 452 77 -60 30 RAB	15	16	1	1.45	1.5	1.0m @ 1.5 g/t
ROUND DAM	DSR111 DSR111	6670916 272480 452 77 -60 24 RAB	13	14	1	1.00	1.0	1.0m @ 1.0 g/t
			17	18	1	1.30	1.3	1.0m @ 1.3 g/t
ROUND DAM	DSR112	6670913 272466 452 77 -60 18 RAB	0	18				N.S.I.
ROUND DAM	DSR113	6670909 272451 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR114	6670906 272437 452 77 -60 30 RAB	26	27	1	1.50	1.5	1.0m @ 1.5 g/t
ROUND DAM	DSR115	6670902 272422 452 77 -60 30 RAB	27	30				N.S.I.
ROUND DAM	DSR116	6670898 272407 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR117	6670841 272592 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR118	6670837 272577 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR119	6670834 272563 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR12	6667361 272685 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR120	6670830 272548 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR121	6670827 272534 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR122	6670823 272519 452 77 -60 21 RAB	0	21				N.S.I.
ROUND DAM	DSR123	6670819 272504 452 77 -60 30 RAB	25	27	2	2.17	4.3	2.0m @ 2.2 g/t
ROUND DAM	DSR124	6670816 272490 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR125	6670812 272475 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR126	6670808 272461 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR127	6670805 272446 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR128	6670801 272432 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR129	6670798 272417 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR13	6667364 272700 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR130	6670945 272597 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR131	6670949 272611 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR132	6670845 272606 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR133	6670740 272601 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR134	6670737 272587 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR135	6670733 272572 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR136	6670730 272558 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR137	6670726 272543 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR138	6670722 272529 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR139	6670719 272514 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR14	6667368 272714 441 77 -60 33 RAB	0	33				N.S.I.
ROUND DAM	DSR140	6670715 272499 452 77 -60 30 RAB	16	17	1	1.08	1.1	1.0m @ 1.1 g/t
ROUND DAM	DSR141	6670711 272485 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR142	6670708 272470 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR143	6670704 272456 452 77 -60 30 RAB	0	30				N.S.I.

AI assistant

ORA BANDA MINING LTD Capital/Financing Update 2026

65475_rns_2026-03-10_07266987-b32d-406d-867b-179a72941f8d.pdf

ASX ANNOUNCEMENT

Ora Banda’s targeted organic growth strategy sees group Mineral Resources rapidly grow to 3.3 million ounces[1]

ROUND DAM RESOURCE

LOCATION AND TENURE

INFRASTRUCTURE

GEOLOGY & GEOLOGICAL INTERPRETATION

Lithology

Alteration & Mineralisation

Weathering

DRILLING AND SAMPLING, AND SAMPLE ANALYSIS TECHNIQUES

Sample Analysis Methods

ESTIMATION METHODOLOGY

CRITERIA USED FOR CLASSIFICATION

CUT-OFF GRADES AND MODIFYING FACTORS

MINING METHOD

PROCESSING METHOD

OTHER MINERAL RESOURCE ESTIMATES

COMPETENT PERSONS STATEMENTS

FORWARD-LOOKING STATEMENTS

Appendix 1 - Significant Intersection Table

Section 1 Sampling techniques and data – Round Dam

Commentary

Section 2 Reporting of Exploration Results – Round Dam

Section 3 Estimation and Reporting of Mineral Resources – Round Dam

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSR144	6670701 272441 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR145	6670697 272427 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR146	6670647 272640 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR147	6670643 272625 452 77 -60 30 RAB	29	30	1	2.05	2.1	1.0m @ 2.1 g/t
ROUND DAM	DSR148	6670640 272611 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR149	6670636 272595 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR15	6667372 272729 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR150	6670633 272582 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR151	6670629 272567 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR152	6670625 272553 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR153	6670622 272538 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR154	6670618 272524 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR155	6670614 272509 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR156	6670611 272494 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR157	6670607 272480 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR158	6670604 272465 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR159	6670600 272451 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR16	6667375 272743 441 77 -60 33 RAB	0	33				N.S.I.
ROUND DAM	DSR160	6670596 272436 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR161	6670532 272591 450 77 -60 30 RAB	27	29	2	1.54	3.1	2.0m @ 1.5 g/t
ROUND DAM	DSR162	6670528 272577 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR163	6670525 272562 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR164	6670521 272548 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR165	6670517 272533 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR166 DSR166	6670514 272519 450 77 -60 30 RAB	19	23	4	8.70	34.8	4.0m @ 8.7 g/t
			Incl 20.00	22	2	15.13	30.3	2.0m @ 15.1 g/t
ROUND DAM	DSR167	6670510 272504 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR168	6670507 272490 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR169	6670503 272475 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR17	6667379 272758 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR170	6670499 272460 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR171	6670496 272446 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR172	6670492 272431 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR173	6670488 272417 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR174	6670485 272402 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR175	6670431 272601 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR176	6670428 272586 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR177	6670424 272572 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR178	6670420 272557 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR179	6670417 272543 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR18	6667382 272772 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR180 DSR180	6670413 272528 450 77 -60 21 RAB	18	21	3	6.75	20.3	3.0m @ 6.8 g/t
			Incl 18.00	19	1	12.20	12.2	1.0m @ 12.2 g/t
ROUND DAM	DSR181	6670411 272519 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR182	6670406 272499 450 77 -60 24 RAB	0	24				N.S.I.
ROUND DAM	DSR183	6670402 272485 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR184	6670399 272470 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR185	6670395 272455 450 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR186	6670391 272441 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR187	6670388 272426 451 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR188	6669297 272600 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR189	6669294 272585 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR19	6667386 272787 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR190	6669290 272571 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR191	6669287 272556 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR192	6669283 272542 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR193	6669279 272527 446 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR194	6668691 272648 444 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR195	6668687 272633 444 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR196	6668684 272619 444 77 -60 30 RAB	29	30	1	2.30	2.3	1.0m @ 2.3 g/t
ROUND DAM	DSR197	6668680 272604 444 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR198	6668676 272589 444 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR199	6668673 272575 444 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR2	6667324 272539 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR20	6667390 272801 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR200	6668182 272671 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR201	6668178 272657 443 77 -60 30 RAB	0	30				N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSR202	6668174 272642 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR203	6668171 272628 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR204	6668167 272613 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR205	6668164 272599 443 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR207	6668388 272672 443 12 -60 44 RAB	0	44				N.S.I.
ROUND DAM	DSR21	6667393 272816 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR210	6668381 272643 443 12 -60 38 RAB	0	38				N.S.I.
ROUND DAM	DSR211	6668376 272623 443 12 -60 39 RAB	0	39				N.S.I.
ROUND DAM	DSR215	6669431 272721 446 12 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR216	6669428 272711 446 12 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR217	6669968 272395 450 12 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR218	6669971 272406 450 12 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR22	6667397 272831 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR23	6667401 272845 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR24	6667404 272861 441 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR3	6667328 272554 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR39	6671457 272583 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR4	6667332 272569 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR40	6671454 272568 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR41	6671450 272554 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR42	6671446 272539 455 77 -60 30 RAB	28	30	2	1.30	2.6	2.0m @ 1.3 g/t
ROUND DAM	DSR43	6671443 272524 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR44	6671439 272510 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR45	6671435 272495 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR46	6671432 272481 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR47	6671428 272466 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR48	6671425 272452 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR49	6671421 272437 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR5	6667335 272583 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR50	6671417 272423 456 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR51	6671414 272408 456 77 -60 15 RAB	0	15				N.S.I.
ROUND DAM	DSR52	6671353 272578 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR53	6671349 272563 455 77 -60 30 RAB	27	28	1	1.06	1.1	1.0m @ 1.1 g/t
ROUND DAM	DSR54	6671346 272549 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR55	6671342 272534 455 77 -60 18 RAB	0	18				N.S.I.
ROUND DAM	DSR56	6671338 272520 455 77 -60 25 RAB	0	25				N.S.I.
ROUND DAM	DSR57	6671335 272505 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR58	6671331 272490 455 77 -60 30 RAB	28	29	1	1.95	2.0	1.0m @ 2.0 g/t
ROUND DAM	DSR59	6671327 272476 455 77 -60 15 RAB	0	15				N.S.I.
ROUND DAM	DSR6	6667339 272598 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR60	6671324 272461 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR61	6671320 272447 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR62	6671317 272432 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR63	6671313 272418 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR64	6671309 272403 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR65	6671241 272544 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR66	6671238 272529 454 77 -60 30 RAB	15	16	1	1.98	2.0	1.0m @ 2.0 g/t
ROUND DAM	DSR67	6671234 272515 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR68	6671230 272500 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR69	6671227 272485 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR7	6667343 272612 442 77 -60 22 RAB	0	22				N.S.I.
ROUND DAM	DSR70	6671223 272471 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR71	6671220 272456 454 77 -60 30 RAB	21	22	1	1.00	1.0	1.0m @ 1.0 g/t
ROUND DAM	DSR72	6671216 272442 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR73	6671212 272427 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR74	6671209 272413 454 77 -60 24 RAB	0	24				N.S.I.
ROUND DAM	DSR75	6671205 272398 454 77 -60 15 RAB	0	15				N.S.I.
ROUND DAM	DSR76	6671201 272384 455 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR77	6671148 272582 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR78	6671144 272568 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR79	6671141 272553 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR8	6667346 272627 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR80	6671137 272539 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR81	6671133 272524 454 77 -60 12 RAB	0	12				N.S.I.
ROUND DAM	DSR82	6671130 272510 454 77 -60 30 RAB	3	30				N.S.I.
ROUND DAM	DSR83	6671126 272495 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR84	6671123 272480 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR85	6671119 272466 453 77 -60 30 RAB	0	30				N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSR86	6671115 272451 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR87	6671112 272437 453 77 -60 18 RAB	0	18				N.S.I.
ROUND DAM	DSR88	6671108 272422 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR89	6671104 272408 454 77 -60 28 RAB	0	28				N.S.I.
ROUND DAM	DSR9	6667350 272641 442 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR90	6671101 272393 454 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR91	6671044 272577 453 77 -60 28 RAB	0	28				N.S.I.
ROUND DAM	DSR92	6671040 272563 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR93	6671036 272548 453 77 -60 30 RAB	15	16	1	1.04	1.0	1.0m @ 1.0 g/t
ROUND DAM	DSR94	6671033 272534 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR95	6671029 272519 453 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSR96	6671026 272505 452 77 -60 21 RAB	0	21				N.S.I.
ROUND DAM	DSR97	6671022 272490 452 77 -60 13 RAB	0	12				N.S.I.
ROUND DAM	DSR98	6671018 272476 452 77 -60 21 RAB	15	16	1	1.35	1.4	1.0m @ 1.4 g/t
ROUND DAM	DSR99	6671015 272461 452 77 -60 30 RAB	0	30				N.S.I.
ROUND DAM	DSRB001	6666957 272417 444 0 -90 86 RAB	0	86				N.S.I.
ROUND DAM	DSRB002	6666957 272457 444 0 -90 90 RAB	0	90				N.S.I.
ROUND DAM	DSRB003	6666957 272497 444 0 -90 91 RAB	0	91				N.S.I.
ROUND DAM	DSRB004	6666957 272537 444 0 -90 82 RAB	0	82				N.S.I.
ROUND DAM	DSRB005	6666957 272577 443 0 -90 68 RAB	0	68				N.S.I.
ROUND DAM	DSRB006	6666957 272617 443 0 -90 67 RAB	0	67				N.S.I.
ROUND DAM	DSRB007	6666957 272657 443 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB008	6666957 272697 442 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB009	6666957 272737 442 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB010	6666957 272777 442 0 -90 68 RAB	60	61	1	1.02	1.0	1.0m @ 1.0 g/t
ROUND DAM	DSRB011	6666957 272817 442 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB012	6666957 272857 442 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB013	6666957 272897 441 0 -90 55 RAB	0	55				N.S.I.
ROUND DAM	DSRB014	6666957 272937 441 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB015 DSRB015 DSRB015	6666957 272977 441 0 -90 86 RAB	52	53	1	3.29	3.3	1.0m @ 3.3 g/t
			72	73	1	2.86	2.9	1.0m @ 2.9 g/t
			84	86	2	5.02	10.0	2.0m @ 5.0 g/t
ROUND DAM	DSRB016	6666957 273017 441 0 -90 61 RAB	0	61				N.S.I.
ROUND DAM	DSRB017	6667757 272417 443 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB018	6667757 272457 443 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB019	6667757 272497 443 0 -90 64 RAB	0	64				N.S.I.
ROUND DAM	DSRB020	6667757 272537 443 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB021	6667757 272572 442 0 -90 37 RAB	0	37				N.S.I.
ROUND DAM	DSRB022	6667757 272617 442 0 -90 69 RAB	0	69				N.S.I.
ROUND DAM	DSRB023	6667757 272657 442 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB024	6667757 272697 442 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB025	6667752 272737 442 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB026	6667757 272777 442 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB027	6667757 272817 441 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB028	6667757 272857 441 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB029	6667757 272897 441 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB030	6667757 272937 441 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB031	6667757 272977 441 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB032	6667757 273017 440 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB033	6668157 273017 441 0 -90 37 RAB	0	37				N.S.I.
ROUND DAM	DSRB034	6668157 272977 442 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB035	6668157 272937 442 0 -90 32 RAB	0	32				N.S.I.
ROUND DAM	DSRB036	6668157 272897 442 0 -90 34 RAB	0	34				N.S.I.
ROUND DAM	DSRB037	6668157 272857 442 0 -90 30 RAB	0	30				N.S.I.
ROUND DAM	DSRB038	6668157 272817 442 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB039	6668157 272777 442 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB040	6668157 272737 442 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB041	6668157 272697 443 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB042	6668157 272657 443 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB043	6668157 272617 443 0 -90 33 RAB	0	33				N.S.I.
ROUND DAM	DSRB044	6668157 272577 443 0 -90 52 RAB	0	52				N.S.I.
ROUND DAM	DSRB045	6668157 272537 443 0 -90 64 RAB	0	64				N.S.I.
ROUND DAM	DSRB046	6668157 272497 444 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB047	6668157 272457 444 0 -90 58 RAB	0	58				N.S.I.
ROUND DAM	DSRB048	6668157 272417 444 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB049	6669557 272417 449 0 -90 43 RAB	0	43				N.S.I.
ROUND DAM	DSRB050	6669557 272457 448 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB051	6669557 272497 448 0 -90 50 RAB	0	50				N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSRB052	6669557 272537 447 0 -90 48 RAB	0	48				N.S.I.
ROUND DAM	DSRB053	6669557 272577 447 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB054	6669562 272617 447 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB055	6669557 272657 446 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB056	6669557 272697 446 0 -90 35 RAB	0	35				N.S.I.
ROUND DAM	DSRB057	6669557 272737 446 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB058	6669557 272777 446 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB059	6669557 272817 446 0 -90 39 RAB	0	39				N.S.I.
ROUND DAM	DSRB060	6669557 272857 446 0 -90 32 RAB	0	32				N.S.I.
ROUND DAM	DSRB061	6669557 272897 445 0 -90 42 RAB	0	42				N.S.I.
ROUND DAM	DSRB062	6669557 272937 445 0 -90 26 RAB	0	26				N.S.I.
ROUND DAM	DSRB063	6668957 273017 443 0 -90 38 RAB	0	38				N.S.I.
ROUND DAM	DSRB064	6668957 272977 443 0 -90 43 RAB	36	37	1	1.09	1.1	1.0m @ 1.1 g/t
ROUND DAM	DSRB065	6668957 272937 443 0 -90 40 RAB	0	40				N.S.I.
ROUND DAM	DSRB066	6668957 272897 443 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB067	6668957 272857 443 0 -90 29 RAB	0	29				N.S.I.
ROUND DAM	DSRB068	6668957 272817 443 0 -90 41 RAB	0	41				N.S.I.
ROUND DAM	DSRB069	6668957 272777 444 0 -90 35 RAB	0	35				N.S.I.
ROUND DAM	DSRB070	6668957 272737 444 0 -90 32 RAB	0	32				N.S.I.
ROUND DAM	DSRB071	6668957 272697 444 0 -90 39 RAB	0	39				N.S.I.
ROUND DAM	DSRB072	6668952 272657 444 0 -90 42 RAB	0	42				N.S.I.
ROUND DAM	DSRB073	6668957 272617 445 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB074	6668957 272577 445 0 -90 45 RAB	0	45				N.S.I.
ROUND DAM	DSRB075	6668957 272537 445 0 -90 60 RAB	0	60				N.S.I.
ROUND DAM	DSRB076	6668957 272497 445 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB077	6668957 272457 446 0 -90 43 RAB	0	43				N.S.I.
ROUND DAM	DSRB078	6668957 272417 446 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB079	6668557 272417 445 0 -90 59 RAB	0	59				N.S.I.
ROUND DAM	DSRB080	6668557 272457 444 0 -90 48 RAB	0	48				N.S.I.
ROUND DAM	DSRB081	6668557 272497 444 0 -90 38 RAB	0	38				N.S.I.
ROUND DAM	DSRB082	6668557 272537 444 0 -90 40 RAB	0	40				N.S.I.
ROUND DAM	DSRB083	6668557 272577 444 0 -90 32 RAB	0	32				N.S.I.
ROUND DAM	DSRB084	6668557 272617 444 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB085	6668557 272657 444 0 -90 24 RAB	0	24				N.S.I.
ROUND DAM	DSRB086	6668557 272697 443 0 -90 20 RAB	0	20				N.S.I.
ROUND DAM	DSRB087	6668557 272737 443 0 -90 41 RAB	0	41				N.S.I.
ROUND DAM	DSRB088	6668557 272777 443 0 -90 34 RAB	0	34				N.S.I.
ROUND DAM	DSRB089	6668557 272817 443 0 -90 43 RAB	0	43				N.S.I.
ROUND DAM	DSRB090	6668557 272857 442 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB091	6668557 272897 442 0 -90 38 RAB	0	38				N.S.I.
ROUND DAM	DSRB092	6668557 272937 442 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB093	6668557 272977 442 0 -90 45 RAB	0	45				N.S.I.
ROUND DAM	DSRB094	6668557 273017 442 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB095	6669957 272507 449 0 -90 45 RAB	0	45				N.S.I.
ROUND DAM	DSRB096	6669957 272837 448 0 -90 57 RAB	0	57				N.S.I.
ROUND DAM	DSRB097	6669957 272917 448 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB098	6666757 272617 443 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB099	6666757 272657 443 0 -90 55 RAB	0	55				N.S.I.
ROUND DAM	DSRB100	6666757 272897 441 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB101	6666757 272937 441 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB102	6666757 272977 441 0 -90 61 RAB	0	61				N.S.I.
ROUND DAM	DSRB103	6666757 273017 441 0 -90 73 RAB	0	73				N.S.I.
ROUND DAM	DSRB104	6666757 273057 441 0 -90 73 RAB	63	65	2	1.93	3.9	2.0m @ 1.9 g/t
ROUND DAM	DSRB105	6666757 273097 441 0 -90 63 RAB	47	51	4	1.59	6.4	4.0m @ 1.6 g/t
ROUND DAM	DSRB106	6667157 272577 443 0 -90 68 RAB	0	68				N.S.I.
ROUND DAM	DSRB107	6667157 272617 443 0 -90 60 RAB	0	60				N.S.I.
ROUND DAM	DSRB108	6667157 272657 442 0 -90 42 RAB	0	42				N.S.I.
ROUND DAM	DSRB109	6667157 272697 442 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB110	6667157 272737 442 0 -90 47 RAB	38	39	1	5.41	5.4	1.0m @ 5.4 g/t
ROUND DAM	DSRB111	6667157 272777 442 0 -90 59 RAB	0	59				N.S.I.
ROUND DAM	DSRB112	6667157 272817 441 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB113	6667157 272857 441 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB114	6667157 272897 441 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB115	6667157 272937 441 0 -90 101 RAB	0	101				N.S.I.
ROUND DAM	DSRB116	6667157 272977 440 0 -90 80 RAB	0	80				N.S.I.
ROUND DAM	DSRB117	6667157 273017 440 0 -90 81 RAB	0	81				N.S.I.
ROUND DAM	DSRB118	6667157 273057 440 0 -90 61 RAB	0	61				N.S.I.
ROUND DAM	DSRB119	6667957 272497 443 0 -90 53 RAB	0	53				N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSRB120	6667957 272537 443 0 -90 65 RAB	0	65				N.S.I.
ROUND DAM	DSRB121	6667957 272577 443 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB122	6667957 272617 443 0 -90 63 RAB	0	63				N.S.I.
ROUND DAM	DSRB123	6667957 272657 442 0 -90 51 RAB	49	51	2	5.58	11.2	2.0m @ 5.6 g/t
ROUND DAM	DSRB124	6667957 272697 442 0 -90 36 RAB	0	36				N.S.I.
ROUND DAM	DSRB125	6667957 272737 442 0 -90 39 RAB	0	39				N.S.I.
ROUND DAM	DSRB126	6667957 272777 442 0 -90 39 RAB	0	39				N.S.I.
ROUND DAM	DSRB127	6667957 272817 442 0 -90 40 RAB	0	40				N.S.I.
ROUND DAM	DSRB128	6667957 272857 442 0 -90 38 RAB	0	38				N.S.I.
ROUND DAM	DSRB129	6667957 272897 441 0 -90 36 RAB	0	36				N.S.I.
ROUND DAM	DSRB130	6667957 272937 441 0 -90 38 RAB	0	38				N.S.I.
ROUND DAM	DSRB131	6667957 272977 441 0 -90 42 RAB	0	42				N.S.I.
ROUND DAM	DSRB132	6667957 273017 441 0 -90 39 RAB	0	39				N.S.I.
ROUND DAM	DSRB133	6669157 272417 447 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB134	6669157 272457 447 0 -90 44 RAB	0	44				N.S.I.
ROUND DAM	DSRB135	6669157 272497 446 0 -90 33 RAB	0	33				N.S.I.
ROUND DAM	DSRB136	6669157 272657 445 0 -90 52 RAB	0	52				N.S.I.
ROUND DAM	DSRB137	6669157 272697 445 0 -90 35 RAB	0	35				N.S.I.
ROUND DAM	DSRB138	6669157 272737 445 0 -90 25 RAB	0	25				N.S.I.
ROUND DAM	DSRB139	6669157 272777 445 0 -90 31 RAB	0	31				N.S.I.
ROUND DAM	DSRB140	6669157 272817 444 0 -90 34 RAB	0	34				N.S.I.
ROUND DAM	DSRB141	6669157 272857 444 0 -90 35 RAB	0	35				N.S.I.
ROUND DAM	DSRB142	6669157 272897 444 0 -90 36 RAB	0	36				N.S.I.
ROUND DAM	DSRB143	6669157 272937 444 0 -90 27 RAB	0	27				N.S.I.
ROUND DAM	DSRB144	6669157 272977 444 0 -90 31 RAB	0	31				N.S.I.
ROUND DAM	DSRB145	6669157 273017 444 0 -90 55 RAB	0	55				N.S.I.
ROUND DAM	DSRB191	6667557 272497 442 0 -90 59 RAB	0	59				N.S.I.
ROUND DAM	DSRB192	6667557 272537 442 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB193	6667557 272577 442 0 -90 53 RAB	52	53	1	1.97	2.0	1.0m @ 2.0 g/t
ROUND DAM	DSRB194	6667557 272617 442 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB195 DSRB195	6667557 272657 442 0 -90 58 RAB	30	31	1	1.24	1.2	1.0m @ 1.2 g/t
			51	52	1	1.53	1.5	1.0m @ 1.5 g/t
ROUND DAM	DSRB196	6667557 272697 442 0 -90 54 RAB	49	50	1	2.99	3.0	1.0m @ 3.0 g/t
ROUND DAM	DSRB197	6667557 272737 441 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB198	6667557 272777 441 0 -90 77 RAB	0	77				N.S.I.
ROUND DAM	DSRB199	6667557 272817 441 0 -90 95 RAB	0	95				N.S.I.
ROUND DAM	DSRB200	6667557 272857 441 0 -90 88 RAB	0	88				N.S.I.
ROUND DAM	DSRB201	6667557 272897 440 0 -90 88 RAB	0	88				N.S.I.
ROUND DAM	DSRB202	6667557 272937 440 0 -90 67 RAB	0	67				N.S.I.
ROUND DAM	DSRB203	6667557 272977 440 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB204	6667557 273017 440 0 -90 63 RAB	0	63				N.S.I.
ROUND DAM	DSRB205	6668357 272417 444 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB206	6668357 272457 444 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB207	6668357 272497 444 0 -90 41 RAB	0	41				N.S.I.
ROUND DAM	DSRB208	6668357 272777 443 0 -90 43 RAB	0	43				N.S.I.
ROUND DAM	DSRB209	6668357 272817 442 0 -90 33 RAB	0	33				N.S.I.
ROUND DAM	DSRB210	6668357 272857 442 0 -90 28 RAB	0	28				N.S.I.
ROUND DAM	DSRB211	6668357 272897 442 0 -90 29 RAB	0	29				N.S.I.
ROUND DAM	DSRB212	6668357 272937 442 0 -90 30 RAB	0	30				N.S.I.
ROUND DAM	DSRB213	6668357 272977 442 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB214	6668357 273017 442 0 -90 34 RAB	0	34				N.S.I.
ROUND DAM	DSRB232	6666657 273217 441 0 -90 31 RAB	0	31				N.S.I.
ROUND DAM	DSRB233	6666657 273177 441 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB234	6666657 273137 441 0 -90 61 RAB	0	61				N.S.I.
ROUND DAM	DSRB235	6666657 273097 441 0 -90 64 RAB	0	64				N.S.I.
ROUND DAM	DSRB236 DSRB236 DSRB236	6666657 273057 441 0 -90 81 RAB	68	69	1	1.66	1.7	1.0m @ 1.7 g/t
			76	80	4	14.02	56.1	4.0m @ 14.0 g/t
			Incl 76.00	77	1	50.90	50.9	1.0m @ 50.9 g/t
ROUND DAM	DSRB237	6666757 273177 441 0 -90 37 RAB	0	37				N.S.I.
ROUND DAM	DSRB238	6666757 273137 441 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB239	6666857 273137 440 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB240	6666857 273097 440 0 -90 63 RAB	0	63				N.S.I.
ROUND DAM	DSRB241	6666857 273057 440 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB242	6666857 273017 441 0 -90 81 RAB	57	58	1	2.91	2.9	1.0m @ 2.9 g/t
ROUND DAM	DSRB243	6666857 272977 441 0 -90 70 RAB	0	70				N.S.I.
ROUND DAM	DSRB244	6666857 272817 442 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB245	6666857 272777 442 0 -90 67 RAB	0	67				N.S.I.

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
ROUND DAM	DSRB246	6666857 272737 442 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB247	6667057 272657 443 0 -90 66 RAB	0	66				N.S.I.
ROUND DAM	DSRB248	6667057 272697 442 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB249	6667057 272737 442 0 -90 50 RAB	36	37	1	1.13	1.1	1.0m @ 1.1 g/t
ROUND DAM	DSRB250	6667057 272777 442 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB251	6667057 272817 442 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB252	6667057 272857 441 0 -90 59 RAB	0	59				N.S.I.
ROUND DAM	DSRB253	6667057 272897 441 0 -90 57 RAB	0	57				N.S.I.
ROUND DAM	DSRB254	6667057 272937 441 0 -90 71 RAB	0	71				N.S.I.
ROUND DAM	DSRB255	6667057 272977 440 0 -90 74 RAB	55	56	1	2.34	2.3	1.0m @ 2.3 g/t
ROUND DAM	DSRB256	6667057 273017 440 0 -90 66 RAB	0	66				N.S.I.
ROUND DAM	DSRB257	6667257 272977 440 0 -90 71 RAB	0	71				N.S.I.
ROUND DAM	DSRB258	6667257 272937 441 0 -90 84 RAB	62	63	1	1.28	1.3	1.0m @ 1.3 g/t
ROUND DAM	DSRB259	6667257 272897 441 0 -90 86 RAB	78	79	1	1.19	1.2	1.0m @ 1.2 g/t
ROUND DAM	DSRB260	6667257 272857 441 0 -90 71 RAB	0	71				N.S.I.
ROUND DAM	DSRB261	6667257 272817 441 0 -90 68 RAB	0	68				N.S.I.
ROUND DAM	DSRB262	6667257 272777 442 0 -90 77 RAB	0	77				N.S.I.
ROUND DAM	DSRB263	6667257 272737 442 0 -90 63 RAB	0	63				N.S.I.
ROUND DAM	DSRB264	6667257 272697 442 0 -90 57 RAB	0	57				N.S.I.
ROUND DAM	DSRB265	6667257 272657 442 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB266	6667257 272617 442 0 -90 52 RAB	0	52				N.S.I.
ROUND DAM	DSRB267	6667357 272537 442 0 -90 66 RAB	0	66				N.S.I.
ROUND DAM	DSRB268	6667357 272577 442 0 -90 62 RAB	0	62				N.S.I.
ROUND DAM	DSRB269	6667357 272617 442 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB270	6667357 272657 442 0 -90 60 RAB	0	60				N.S.I.
ROUND DAM	DSRB271	6667357 272697 442 0 -90 61 RAB	26	27	1	1.09	1.1	1.0m @ 1.1 g/t
ROUND DAM	DSRB272	6667357 272737 441 0 -90 72 RAB	0	72				N.S.I.
ROUND DAM	DSRB273	6667357 272777 441 0 -90 73 RAB	0	73				N.S.I.
ROUND DAM	DSRB274	6667357 272817 441 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB275	6667357 272857 441 0 -90 93 RAB	0	93				N.S.I.
ROUND DAM	DSRB276	6667357 272897 441 0 -90 74 RAB	0	74				N.S.I.
ROUND DAM	DSRB277	6667357 272937 440 0 -90 56 RAB	0	56				N.S.I.
ROUND DAM	DSRB278	6667457 272897 440 0 -90 82 RAB	0	82				N.S.I.
ROUND DAM	DSRB279	6667457 272857 441 0 -90 87 RAB	0	87				N.S.I.
ROUND DAM	DSRB280	6667457 272817 441 0 -90 90 RAB	0	90				N.S.I.
ROUND DAM	DSRB281	6667457 272777 441 0 -90 68 RAB	0	68				N.S.I.
ROUND DAM	DSRB282	6667457 272737 441 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB283	6667457 272697 442 0 -90 58 RAB	0	58				N.S.I.
ROUND DAM	DSRB284	6667457 272657 442 0 -90 48 RAB	36	45	9	1.63	14.7	9.0m @ 1.6 g/t
ROUND DAM	DSRB285	6667457 272617 442 0 -90 42 RAB	0	42				N.S.I.
ROUND DAM	DSRB286	6667457 272577 442 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRB287	6667457 272537 442 0 -90 46 RAB	0	46				N.S.I.
ROUND DAM	DSRB288	6667457 272497 442 0 -90 53 RAB	0	53				N.S.I.
ROUND DAM	DSRB289	6666657 273017 441 0 -90 59 RAB	58	59	1	1.03	1.0	1.0m @ 1.0 g/t
ROUND DAM	DSRB290	6666657 272937 441 0 -90 60 RAB	0	60				N.S.I.
ROUND DAM	DSRB291	6666657 272977 441 0 -90 55 RAB	0	55				N.S.I.
ROUND DAM	DSRB292	6666557 272977 442 0 -90 47 RAB	0	47				N.S.I.
ROUND DAM	DSRB293	6666557 273017 442 0 -90 43 RAB	0	43				N.S.I.
ROUND DAM	DSRB294	6666557 273057 442 0 -90 54 RAB	0	54				N.S.I.
ROUND DAM	DSRB295	6666557 273097 441 0 -90 66 RAB	52	53	1	1.45	1.5	1.0m @ 1.5 g/t
ROUND DAM	DSRB296	6666457 273097 442 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB297	6666457 273057 442 0 -90 55 RAB	0	55				N.S.I.
ROUND DAM	DSRB298	6666457 273017 442 0 -90 49 RAB	0	49				N.S.I.
ROUND DAM	DSRB299	6666457 272977 442 0 -90 50 RAB	0	50				N.S.I.
ROUND DAM	DSRC001	6670570 272536 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC002	6670566 272521 460 77 -60 60 RC	0	56				N.S.I.
ROUND DAM	DSRC003	6670562 272507 460 77 -60 60 RC	20	21	1	1.30	1.3	1.0m @ 1.3 g/t
ROUND DAM	DSRC004	6670512 272504 460 77 -60 60 RC	34	36	2	1.77	3.5	2.0m @ 1.8 g/t
ROUND DAM	DSRC005	6670465 272521 460 77 -60 60 RC	14	56				N.S.I.
ROUND DAM	DSRC006 DSRC006	6670414 272528 460 77 -60 60 RC	15	22	7	8.77	61.4	7.0m @ 8.8 g/t
			Incl 15.00	17	2	23.75	47.5	2.0m @ 23.8 g/t
ROUND DAM	DSRC007	6670462 272506 460 77 -60 60 RC	14	60				N.S.I.
ROUND DAM	DSRC008	6670409 272514 460 77 -60 60 RC	49	50	1	1.18	1.2	1.0m @ 1.2 g/t
ROUND DAM	DSRC009	6670366 272545 460 77 -60 60 RC	0	52				N.S.I.
ROUND DAM	DSRC010 DSRC010	6670358 272532 460 77 -60 60 RC	13	18	5	3.60	18.0	5.0m @ 3.6 g/t
			Incl 14.00	15	1	10.00	10.0	1.0m @ 10.0 g/t
ROUND DAM	DSRC011	6670359 272516 460 77 -60 60 RC	34	35	1	1.04	1.0	1.0m @ 1.0 g/t

Project	Hole ID	MGA North	Depth From	Depth To	Interval	Grade	Gram Metres	Au g/t interval
	DSRC011		40	44	4	1.33	5.3	4.0m @ 1.3 g/t
ROUND DAM	DSRC012	6671021 272485 460 77 -60 60 RC	54	55	1	1.25	1.3	1.0m @ 1.3 g/t
ROUND DAM	DSRC020	6669390 272543 460 77 -60 60 RC	19	22	3	2.57	7.7	3.0m @ 2.6 g/t
ROUND DAM	DSRC021	6669391 272566 460 77 -60 60 RC	15	16	1	2.35	2.4	1.0m @ 2.4 g/t
ROUND DAM	DSRC022	6669392 272592 460 77 -60 60 RC	21	51				N.S.I.
ROUND DAM	DSRC023	6669185 272550 460 77 -60 60 RC	3	60				N.S.I.
ROUND DAM	DSRC024	6669193 272575 460 77 -60 60 RC	39	51				N.S.I.
ROUND DAM	DSRC025	6669189 272596 460 77 -60 60 RC	30	60				N.S.I.
ROUND DAM	DSRC026 DSRC026	6668366 272584 460 77 -60 60 RC	27	31	4	5.58	22.3	4.0m @ 5.6 g/t
			Incl 29.00	30	1	15.50	15.5	1.0m @ 15.5 g/t
ROUND DAM	DSRC027	6668372 272609 460 77 -60 60 RC	27	30				N.S.I.
ROUND DAM	DSRC028	6668378 272633 460 77 -60 60 RC						N.S.I.
ROUND DAM	DSRC029	6668384 272657 460 77 -60 60 RC						N.S.I.
ROUND DAM	DSRC030	6668390 272681 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC031	6668396 272706 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC032	6670314 272543 460 77 -60 50 RC	0	50				N.S.I.
ROUND DAM	DSRC033	6670310 272528 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC034	6670338 272537 460 77 -60 50 RC	0	50				N.S.I.
ROUND DAM	DSRC035	6670343 272556 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC036	6670391 272544 460 258 -60 45 RC	0	45				N.S.I.
ROUND DAM	DSRC037	6670395 272559 460 258 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC038	6670436 272517 460 77 -60 35 RC	2	35				N.S.I.
ROUND DAM	DSRC039	6670434 272508 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC040	6670483 272500 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC041	6670487 272515 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC042	6670491 272530 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC043	6670533 272493 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC044	6670538 272513 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC045	6669342 272532 460 77 -60 70 RC	0	70				N.S.I.
ROUND DAM	DSRC046	6669337 272554 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC047	6669342 272573 460 77 -60 50 RC	0	50				N.S.I.
ROUND DAM	DSRC048	6669381 272522 460 77 -60 70 RC	0	70				N.S.I.
ROUND DAM	DSRC049	6669429 272510 460 77 -60 70 RC	0	70				N.S.I.
ROUND DAM	DSRC050	6669434 272530 460 77 -60 60 RC	0	60				N.S.I.
ROUND DAM	DSRC051	6669439 272549 460 77 -60 50 RC	0	50				N.S.I.
ROUND DAM	DSRC052	6668363 272564 460 77 -60 75 RC	66	68	2	1.29	2.6	2.0m @ 1.3 g/t
ROUND DAM	DSRC053	6668315 272587 460 77 -60 60 RC	30	32	2	1.19	2.4	2.0m @ 1.2 g/t
ROUND DAM	DSRC054	6668319 272604 460 77 -60 50 RC	0	50				N.S.I.
ROUND DAM	DSRC067	6666657 273017 455 90 -60 120 RC	59	60	1	1.02	1.0	1.0m @ 1.0 g/t
ROUND DAM	DSRC068	6666657 272977 455 90 -60 170 RC	0	170				N.S.I.
ROUND DAM	DSRC069	6667960 272650 455 90 -60 80 RC	0	80				N.S.I.
ROUND DAM	DSRC070	6667960 272610 455 90 -60 108 RC	0	108				N.S.I.
ROUND DAM	DSRC071	6668010 272650 455 90 -60 80 RC	0	80				N.S.I.
ROUND DAM	DSRC072	6668010 272610 455 90 -60 84 RC	0	84				N.S.I.
ROUND DAM	DSRC073	6668340 272595 455 90 -60 78 RC	0	78				N.S.I.
ROUND DAM	DSRC074	6668340 272575 455 90 -60 90 RC	0	90				N.S.I.
ROUND DAM	DSRC075	6668340 272555 455 90 -60 99 RC	0	99				N.S.I.
ROUND DAM	DSRC076	6668400 272580 455 90 -60 102 RC	0	102				N.S.I.
ROUND DAM	DSRC077	6668400 272560 455 90 -60 99 RC	44	48	4	1.03	4.1	4.0m @ 1.0 g/t
ROUND DAM	DVHC114	6671077 272578 450 90 -60 50 RC	0	50				N.S.I.
ROUND DAM	DVHC115	6671077 272558 450 90 -60 50 RC	0	50				N.S.I.
ROUND DAM	DVHC116	6671077 272518 450 90 -60 50 RC	0	1	1	2.03	2.0	1.0m @ 2.0 g/t
ROUND DAM	DVHC117	6671077 272498 450 90 -60 50 RC	0	50				N.S.I.
ROUND DAM	DVHC118	6671077 272478 450 90 -60 70 RC	16	19	3	4.20	12.6	3.0m @ 4.2 g/t
ROUND DAM	DVHC119	6671077 272458 450 90 -60 70 RC	37	38	1	1.16	1.2	1.0m @ 1.2 g/t
ROUND DAM	DVHC120	6671077 272438 450 90 -60 60 RC	40	41	1	1.07	1.1	1.0m @ 1.1 g/t
ROUND DAM	DVHC152 DVHC152 DVHC152	6671357 272477 450 90 -60 70 RC	49	50	1	4.50	4.5	1.0m @ 4.5 g/t
			54	56	2	2.82	5.6	2.0m @ 2.8 g/t
			69	70	1	4.60	4.6	1.0m @ 4.6 g/t
ROUND DAM	DVHC153 DVHC153 DVHC153	6671357 272487 450 90 -60 60 RC	37	39	2	3.57	7.1	2.0m @ 3.6 g/t
			42	43	1	1.13	1.1	1.0m @ 1.1 g/t
			46	47	1	1.88	1.9	1.0m @ 1.9 g/t
ROUND DAM	DVHC154	6671357 272497 450 90 -60 50 RC	0	50				N.S.I.
ROUND DAM	DVHC155	6671437 272477 450 90 -60 65 RC	0	65				N.S.I.
ROUND DAM	DVHC156	6671437 272487 450 90 -60 56 RC	0	56				N.S.I.
ROUND DAM	DVHC157 DVHC157	6671437 272497 450 90 -60 50 RC	13	15	2	20.15	40.3	2.0m @ 20.2 g/t
			Incl 13.00	14	1	36.00	36.0	1.0m @ 36.0 g/t

Criteria	JORC Code explanation	Commentary
Drilling techniques	• Drill type (eg core, reverse circulation, open - hole hammer, rotary air blast, auger, Bangka, sonic, etc) and details (eg core diameter, triple or standard tube, depth of diamond tails, face - sampling bit or other type, whether core is oriented and if so, by what method, etc).	• Aberfoyle/Bardoc - RC, RAB and Diamond details unknown however NQ diamond known to be used. RC drilling with use of face sampling hammer known from 1992 onwards. • ConsGold – NQ diamond, RAB and RC. 4.25 to 5.5 inch RC drilling with stabilisers and face sampling hammers. • Croesus – Diamond holes NQ2 diameter. RC details unknown but assumed to be face sampling hammers • DPPL - NQ and RC. RC drilling with stabilisers and face sampling hammers. • EGS - NQ and RC. RC drilling using Face sampling Hammer, 5.25" diameter • Monarch - RC samples were collected by Kennedy Drilling using a 4 inch blade. 5.5 inch diameter RC drilling • Swan Gold "HQ3 to approx. 40m, then NQ2 to BOH. All core oriented by spear RC: 5.125 inch face sampling hammer" • Texas Gulf – RC hammer type unknown • West Coast Holdings – Bit, roller and open hole hammer used for RAB drilling. • WMC - RC and RAB drilling details unknown • WESCEF - 5.5 – 5.625 inch diameter RC holes using face sampling hammer with samples collected from a rig mounted cone splitter into calico b ags which are submitted for assay at ALS . • Ora Banda Mining Limited (OBM) – 5.5 – 5.625 inch diameter RC holes using face sampling hammer with samples collected from a rig mounted cone splitter into calico bags which are submitted for assay. Some core holes have RC pre - collars, then NQ2, HQ3 or PQ3 coring to BOH. All core oriented by Axis instrument. Drilling was carried out by contractors Top Drill Pty Ltd.
Drill sample recovery	• Method of recording and assessing core and chip sample recoveries and results assessed. • Measures taken to maximise sample recovery and ensure representative nature of the samples. • Whether a relationship exists between sample recovery and grade and whether sample bias may have occurred due to preferential loss/gain of fine/coarse _material. _	• RC drill recoveries were not recorded by Aberfoyle/Bardoc, Consolidated Gold, Croesus, DPPL, EGS, Monarch, Texas Gulf, West c oast holdings or WMC • Swan - Diamond drill recoveries are recorded as a percentage calculated from measured core against downhole drilled intervals (core blocks). • WESCEF - RC sample recoveries are approximated based on the size of the bulk sample and recorded in drill log tables. Sample weights a re determined by the laboratory. • OBM - RC sample recoveries are approximated based on the size of the bulk sample and recorded in drill log tables. Sample weights are determined by the laboratory. Diamond drill recoveries are recorded as a percentage calculated from measured core against downhole drilled intervals (core blocks).
Logging	• Whether core and chip samples have been geologically and geotechnically logged to a level of detail to support appropriate Mineral Resource estimation, mining studies and metallurgical studies. • Whether logging is qualitative or quantitative in nature. Core (or costean, channel, etc) photography. • The total length and percentage of the relevant intersections logged.	• Aberfoyle/Bardoc - Qualitative: lithology, colour, grainsize, structures, alteration Quantitative: Quartz mineralisation • Consolidated Gold/ DPPL - Qualitative: lithology, colour, oxidation, alteration, with grainsize, texture and structure often recorded in diamond drilli ng. Quantitative: Quartz veining. Core photographed • Croesus - Most holes photographed, geologically logged and geotechnical and magnetic susceptibility measurements were taken. Qualitative: Lithology, colour, grainsize, alteration, oxidation, texture, structures, regolith Quantitative: Quartz veining • EGS - Qualitative: Lithology, colour, oxidation, grainsize, texture, structure, hardness, regolith Quantitative: estimates are made of quartz veining, sulphide and alteration percentages. Core photographed • Monarch - Qualitative: lithology, colour, oxidation, grainsize, texture, structure, hardness, regolith Quantitative: estimates are made of quartz veining, sulphide percentages. Core photographed • Swan - Qualitative: lithology, colour, oxidation, grainsize, texture, structure, regolith Quantitative: estimates are made of quartz veining, sulphide and alteration percentages. • Texas Gulf - Qualitative: lithology, oxidation • West coast holdings - Qualitative: colour, oxidation, lithology, alteration Quantitative: Quartz, Iron • WMC RC: Qualitative: Lithology, Colour, Grainsize, Alteration and oxidation. Some logging detail was lost during translation from one logging system to another. This has been rectified by referring back to original logs. • WESCEF - Holes are geologically logged in their entirety. • OBM - Field logging was conducted using Geobank MobileTM software on Panasonic Toughbook CF - 31 ruggedized laptop computers. Qualitative: Lithology, colour,oxidation, grainsize,texture,structure,hardness,regolith.Quantitative: estimates are made ofqu artz veining,sulphide and alteration

Criteria	JORC Code explanation	Commentary
		percentages. Core photographed wet and dry. Magnetic susceptibility recorded for core holes. Bulk density measurements taken at regular intervals for core holes (determined by Archimedes Principle). Downhole density measurements also acquired from selected holes, principally for additional data from oxide and transitional material.
Sub-sampling techniques and sample preparation	• If core, whether cut or sawn and whether quarter, half or all core taken. • If non - core, whether riffled, tube sampled, rotary split, etc and whether sampled wet or dry. • For all sample types, the nature, quality and appropriateness of the sample preparation technique. • Quality control procedures adopted for all sub - sampling stages to maximise representivity of samples. • Measures taken to ensure that the sampling is representative of the in situ material collected, including for instance results for field duplicate/second - half sampling. • Whether sample sizes are appropriate to the grain size of the material being _sampled. _	• Aberfoyle/Bardoc – Diamond core sawn in half. RC and RAB samples with variable compositing lengths and often 1m samples. Method unknown before 1992, but thereafter riffle split to approximately 2kg samples. RC and RAB was usually prepared by single stage mixer and grind. Diamond, when known was jaw c rushed and ring milled for a 50g charge fire assay. Duplicate studies undertaken at times, usually with good correlation . • Consgold RC Samples collected via cyclone at 1m intervals and passed through 3 stage riffle splitter. A 2 - 3kg fraction was calico bagged for analysis, the residue collected in plastic bags and stored on site. Potentially mineralised zones were sampled at 1 m intervals, the remainder composited to 4m by unknown method. Composite samples returning >0.19g/t were re submitted at 1m intervals. Samples underwent mixermill preparati on (2 - 3kg) by Amdel Laboratories. RAB 4m composite samples using PVC spear. Samples returning >0.19g/t were re submitted at 1m intervals Diamond drill samples were sawn into half core. One half was jaw crushed, then pulverised using a labtechnics mill. A quartz blank was pulverised between eac h sample to avoid contamination. Field duplicates at 1 in 20 frequency from residues submitted. • Croesus RC - 1m samples collected under cyclone. 5m comps, spear sampled with 50mm PVC pipe. Wet RC drill samples were thoroughly mixed in the sample retention bag and scoop sampled to form a composite sample. 3 - 5kg five metre composite analytical samples, returning values greater than 0.1g/t gold, were riffle split at 1m intervals, were samples where dry, and grab sampled where wet. Diamond tails were cut to half core and sampled based on geological boundaries and identified prospective zones. Samples size varied from 0.2m to1m. Core samples were sent to Ultratrace Laboratories of Perth • DPPL – RC 3 stage riffle split then 4m compositing. RAB 4m composite samples using PVC spear. BOTH RC and RAB composites returning >0.1 9ppm Au re - submitted as 1m samples. Duplicates at 1 in 20 frequency from residues submitted. • EGS - Riffle split into calico bags. Wet or moist samples are noted during sampling • Monarch - RC samples were collected at 4m or 1m composites intervals and despatched for analysis. Samples were riffle split and prepare d with single stage mix and grinding. Duplicates are taken 1 in 25 when taking 1m splits straight from the rig. When doing re - splits on composite results 1 in 20 duplicate with occasional triplicates (about 1 every 50 re - splits) • Swan - Core was cut with Almonte diamond saw and half core sampled • Texas Gulf - Whole metres placed in plastic sacks and were then split to approximately 500g samples. Split method unknown. Samples crushed, disc pulverized then split to 250g. Petrographic study completed by Mintek Services. • West C oast H oldings - 2m intervals with passed though riffle splitter for approximately 1kg sample. • WMC - RC Sampling on 1m basis, methods undocumented. Assay by aqua regia method, unknown laboratory. • WESCEF - RC samples for non gold elements were submitted as individual 1m samples taken from the onsite cone splitter. 4m comp samples taken from 1m sample piles for gold assay. Samples submitted for gold analysis with OBM routine blanks and standards for monitoring lab performance. • OBM - RC samples were submitted either as individual samples taken from the onsite cone splitter or as four metres composite sample s taken by metal scoop. Core sample intervals selected by geologist and defined by geological boundaries, cut by saw and subm itted as half core. RC and core samples were initially dispatched to the SGS laboratory at the Davyhurst site for pulverising. Prepared samples were then despatched to SGS laboratories in Kalgoorlie for a 50g charge Fire Assay (GO_FAP50V10). Field duplicat es, blanks and standards were submitted for QAQC analysis. From 10 March 2025 samples were crushed by Orbis crushers at the site lab and analysed by 500g photon analysis by SGS. Field duplicates, blanks and standards were submitted forQAQC analysis.
Quality of assay data and laboratory tests	• The nature, quality and appropriateness of the assaying and laboratory procedures used and whether the technique is considered partial or total. • For geophysical tools, spectrometers, handheld XRF instruments, etc, the parameters used in determining the analysis including instrument make and model, reading times, calibrations factors applied and their derivation, etc. • Nature of quality control procedures adopted (eg standards, blanks, duplicates, external laboratory checks) and whether acceptable levels of accuracy (ie lack of bias) andprecision	• Aberfoyle/Bardoc - multiple methods at Sheen, Amdel, Genalysis, Classic, Comlabs and Australian Laboratories usually 50g fire assay for RC and a qua regia or 50g fire assay for RAB. QA samples unknown • Consolidated Gold/ DPPL – RC and RAB - Mixermill prep with fire assay 50g charge at AMDEL, Minilab or Analabs Laboratories in Kalgoorlie . Core was diamond sawn, jaw crushed, milled using LABTECHNICS mill at AMDEL for 50g charge by fire assay. Gannet standards submitted to monitor lab accuracy for infill resource drilling. Pulp umpire analysis was done but frequency unknown (1995). Screen fir e assays of selected high grade samples. Quartz blanks between each diamond sample • Croesus - S amples analysed for Au by Fire Assay/ICPOES by Ultratrace in Perth. Samples were dried, crushed and split to obtain a sample less than 3.5kg, and then fine pulverised prior to a 50gm charge being collected and analysed. Every 20 th sample was duplicated in the field and submitted for analysis. Gannet standards and blank samples made by Croesus were submitted with split sample submissions. QAQC analysis of repeats was analysed by Croesus Mining NL. for their drilling completed during 2000 • Monarch - ALS Laboratory procedures: The samples were sort and dried where necessary. The samples were split via a riffle splitter to <3 kg and round in a ring mi ll pulverized using a standard low chrome steel ring set to >85% passing 75 micron. If sample was >3 kg it was split prior to pulve rising and the remainder retained or discarded. Then a 250g representative split sample was taken and the remaining residue sample stored. A 50g sample charge was taken from the 25 0g representative sample,

Criteria	JORC Code explanation	Commentary
	have been established.	fused with a lead concentrate using the laboratory digestion method FA - Fusion, then digested and analysed by Atomic Absorption Spectroscopy (Au - AA26) against matrix matched standards. Ultra Trace procedures: The samples were sort and dried where necessary. 2.5 – 3kg sample was pulverized using a vibrating disc then split into a 200 - 300g charge and the residue sample stored. A 40g sample charge is taken and analysed for gold (Au) by lead collection fire assay. • Texas Gulf - Samples crushed, disc pulverized then split to 250g. Bromine digest followed by ketone extraction at Pilbara Las, Kalgoorlie. Noted as not suitable in presence of sulphides. Values greater than 0.8g/t re - assayed by Fire Assay. • WMC - D rill samples were assayed by aqua regia method, unknown laboratory. • WESCEF - Commercially prepared standard samples and blanks are inserted in the sample stream at a rate of 1:25 for standards and 1:25 for blanks, when analysing for gold. Sizing results (percentage of pulverised sample passing a 75 μ m mesh) are undertaken on approximately 1 in 40 samples. Duplicate samples are submitted for RC holes only at a rate of approximately 1:30. The accuracy (standards) and precision (repeats) of assaying are acceptable • OBM – Up to 2022 Samples sent to Nagrom in Perth. The samples have been analysed by Firing a 50gm portion of the sample. Lower samp le weights may be employed for samples with very high sulphide and metal contents. This is the classical fire assay process a nd will give total separation of gold. An ICPOES finish is used. Commercially prepared standard samples and blanks are inserted in the sample stream at a rate of 1:25 for standards and 1:25 for blanks. Sizing results (percentage of pulverised sample passin g a 75μ m mesh) are undertaken on approximately 1 in 40 samples. Duplicate samples are submitted for RC holes only at a rate of approximately 1:30. The accuracy (standards) and precision (repeats) of assaying are acceptable. For all drilling from 2022, All samples were sent to the accredited onsite SGS laboratory at Davyhurst for sample preparation. Prepared samples were then despatched to SGS laboratories in Kalgoorlie for a 50g charge Fire Assay (GO_FAP50V10) with MP - AES finish or 500g Photon analysis. Com mercially prepared standard samples and blanks are inserted in the sample stream at an average rate of 1:25. Sizing results (percentage of pulverised sam ple passing a 75 μ m mesh) are undertaken on approximately 1 in 20 samples. The accuracy (standards) and precision (repeats) of assaying are acceptable. Standards and blanks were inserted into the sample stream at a rate of approximately 1:12. Duplicates were submitted at a rate of approximately 1:30. The accuracy (standards)andprecision(repeats)of assayi ngare acceptable. Holes not deliberatelytwinned.
Verification of sampling and assaying	• The verification of significant intersections by either independent or alternative company personnel. • The use of twinned holes. • Documentation of primary data, data entry procedures, data verification, data storage (physical and electronic) protocols. • Discuss any adjustment to assay data.	• OBM - Geological and sample data logged directly into field computer at the drill rig or core yard using Geobank Mobile. Data is tr ansferred to Perth via email or through a shared server and imported into Geobank SQL database by the database administrator (DBA). Assay files are received in .csv format and loaded directly into the database by the DBA. Hardcopy and/or digital copies of data are kept for reference if necessary. • WESCEF – Geological logging and Li sampling data all supplied to OB M . Gold sampling and assay verification same as for OBM. procedures • Monarch Gold Mining Company Ltd; Geological and sample data was logged digitally and .csv or .xls files imported into Datashe d SQL database with in - built validation. Samples bags were put into numbered plastic bags and then cable tied. Samples collected da ily from site by laboratory. • Data entry, verification and storage protocols for remaining operators is unknown. • No adjustments have been made to assay data.
Location of data points	• Accuracy and quality of surveys used to locate drill holes (collar and down - hole surveys), trenches, mine workings and other locations used in Mineral Resource estimation. • Specification of the grid system used. • Quality and adequacy of topographic _control. _	• RAB and AC holes are/were not routinely collar surveyed or downhole surveyed due to their limited use in resource estimation. To this end, discussion of RAB and AC drilling is omitted from this section. RC/GC (grade control) and shallow RC holes are/were n ot routinely downhole surveyed due to their shallow nature reducing the chance of significant deviation. Barren exploration RC holes not routinely downhole surveyed or c ollar surveyed. DD holes routinely collar and downhole surveyed by most operators or ha ve been re - surveyed by subsequent operators . • The influence of magnetic rocks on the azimuths of magnetic down hole surveys is minor. Early holes surveyed in AMG zone 51 a nd converted to MGA using Geobank and or Datashed data management software. • Aberfoyle/Bardoc (RC, RC/DD, DD) Various local grids which have undergone 2 point transformations. RC collars and downhole su rveys known to be surveyed at times, presumably when anomalous gold intersected. DD holes downhole surveyed by Eastman single shot (25m interval average) or Multishot (5m interval average) • Cons Gold/DPPL (RC, DD) Local grids and AMG84 zone 51 used. RC and DD Collars surveyed by licensed surveyors to respective gr ids. Holes of all types routinely collar surveyed whist RC resource holes routinely downhole surveyed by various methods including gyro and EMS with average intervals ranging between 10 - 25m. • Croesus (RC, DD) Various local grids and AMG zone 51. RC, DD holes routinely collar surveyed and downhole surveyed using Elec tronic Multishot (EMS), GRYO, Eastman single shot or combination thereof at 10 - 15m average interval. • Monarch (RC) - Various local grids and MGA. Holes routinely collar surveyed and downhole surveyed using EMS, or GYRO at 5m interval average or Eastman single shot (28m interval average). • Texas G ulf (RC) Local grid: MC30/1317 based on 351.5 ⁰ baseline, parallel to tenement boundary. MC30/1327 based on 355.5 • WMC (RC, DD) - Digital data provided by ConsGold. (Wamex report a50226). Downhole surveys when performed were by undocumented method with a 16m interval average • EGL and Swan; Collar locations were surveyed by DGPS and downhole surveys were collected using electronic multishot by the dr illers. Subsequent to drillingholes were open holegyro surveyed byABIMS wherepossible. Thegird system used is GDA1994 MGA Zone 51.

Criteria	JORC Code explanation	Commentary	Commentary	Commentary


Mineral tenement and land tenure status	• Type, reference name/number, location and ownership including agreements or material issues with third parties such as joint ventures, partnerships, overriding royalties, native title interests, historical sites, wilderness or national park and environment al settings. • The security of the tenure held at the time of reporting along with any known impediments to obtaining a licence to operate in the area.	• • • •	All tenure pertaining to this report is listed below:			AGREEMENTS Farm - in and JV with Davyston Exploration Pty Ltd for all minerals other than gold and its byproducts (portion of tenement only) Davyston Exploration Pty Ltd holds a consent caveat and a mortgage e area.
			TENEMENT	HOLDER	Expiry Date	AGREEMENTS
			M30/255	CARNEGIE GOLD PTY LTD.	10/01/2038	Farm - in and JV with Davyston Exploration Pty Ltd for all minerals other than gold and its byproducts (portion of tenement only) Davyston Exploration Pty Ltd holds a consent caveat and a mortgage
			Carnegie Gold PT There are no kno There are no kno	Y LTD is a wholly owned subsidiary wn heritage or native title issues. wn impediments to obtaining a lice	of OBM. nce to operate in th
Exploration done by other parties	• Acknowledgment and appraisal of exploration by other parties.	•	Drilling, sampling and assay procedures and methods considered acceptable and to industry standards of t majority of drilling in the Round Dam area. The time. As part of each resource upgrade, OBM will co		as stated in the da he time. There is su company is confide mmit to additional	tabase and confirmed from Wamex reports and hard copy records are fficient understanding of drilling, sampling an d assay methodologies for the nt that previous operators completed work to standards considered acceptable for the drill ing to confirm the style, widths and tenor of mineralisation at each deposit.
Geology	• Deposit type, geological setting and style of mineralisation.	• • • F B B	Regional Geology - Rocks of the Coolgardie domain (Kalgoorlie Terrane) are prevalent in the Davyhurst area. Rocks of the Coolgardie Domain are n ot well exposed at Davyhurst and the distribution of rock types suggests that it is mainly represented by the upper part of the stratigraphic sequence, namely basalts, felsic volcanics and sedimentary rocks. The abundant ultramafic - mafic sills of the Ora Banda Domain do not occur in the Coolgardie Domain. Granitoids in the Davyhurst Project area can be classified by magnetic signature into three types: low, medium and high magnetic response. Binns et al. (1976) distinguished ‘static style’ and ‘dynamic style’ regional metamorphism. Static style areas generally occupy the centra l, low - strain part of the greenstone reg ions away from the granitoids and typically have lower metamorphic grades (prehnite – pumpellyite to upper greenschist facies). Strain is concentrated in narrow zones so that textures are well preserved in more massive and competent rocks. Dynamic - style area s of greenstone have higher metamorphic grades (upper greenschist to upper amphibolite facies) and are characterized by more pervasive foliation, particu larly along the contacts with large granitoid terrains. There appears to be two major controls on miner alisation in the Davyhurst area. Both mineralisation styles rely on mineralisation taking place during reactivation of earlier ductile shear zones. In the case of the Lights of Israel group of deposits, the early shears are moderately to gently west dippin g, whereas in the Federal Flag – Lady Eileen group of deposits, the early shear is steeply west dipping. In the northern portion of the Davyhurst tenements most gold mineralisation is aligned in planar corridors that have N - to NW - trends. The overall dip o f the mineralised corridors is mostly steep (>75º) E - or W - dipping with moderate to steep (~60º) and shallow - dipping (~15º) ore zones at the Federal Flag and Lady Gladys deposits, respectively. Within these planar corridors of mineralisation linear trends to gold distribution are mostly shallowly plunging. Internal variations within the corridors at individual deposits are common and discussed later. Mineralisation at the Lights of Israel and Makai deposits differs from the other examined deposits in that m ineralisation has a linear form that plunges moderately (~20º) to the NNW. Local Geology • EAST – Interbedded volcaniclastic sediments / tuffs • CENTRAL – mafic / ultramafic sequence consisting of: • Eastern Ultramafic unit (chlorite tremolite schist), sometimes contains internally a wedge of high - Mg pillow basalt (chlorite schist) • Western Basalt unit, this basalt weathers much deeper than the UM • Potentially a thin (~5m) unit of interflow sediment lies along the contact of the basalt and UM • WEST – Interbedded shales and volcaniclastic sediments Mineralisation our principal gold lodes identified at Round Dam: asalt Lode • Gold lode wholly within the basalt asalt/UM Contact Lode

Criteria	JORC Code explanation	Commentary
		• Highly altered basalt immediately in hanging wall to ultramafic / basalt contact. Strong banded biotite - silica - sulphide (pyrrhotite) alteration + py/cpy. Possible narrow interflow sediment on this contact UM Quartz Vein Lode(s) • Highly deformed early quartz veining within ultramafic unit acts as preferential host for gold mineralisation due to rheologi cal contract. Visible gold associated with pyrrhotite + py/cpy/apy • Main lode is consistent thick zone of quartz veining approximately 40m east of UM/Mb contact. Minor other lodes come and go a long strike • Plunge of mineralisation defined by plunge of folded / boudined quartz veins Eastern Lode • High - grade lode in eastern portion of the mafic/ultramafic sequence. No available access to map this lode and define its controls / alteration – diamond drillingrequired
• Drill hole Information	• A summary of all information material to the understanding of the exploration results including a tabulation of the following information for all Material drill holes: `o` easting and northing of the drill hole collar `o` elevation or RL (Reduced Level – elevation above sea level in metres) of the drill hole collar `o` dip and azimuth of the hole `o` down hole length and interception depth `o` hole length. • If the exclusion of this information is justified on the basis that the information is not Material and this exclusion does not detract from the understanding of the report, the Competent Person should clearly explain why this is the case.	• See list of drill intercepts. • Widths reported in the Significant Intercepts table are all down hole lengths.
Data aggregation methods	• In reporting Exploration Results, weighting averaging techniques, maximum and/or minimum grade truncations (eg cutting of high grades) and cut - off grades are usually Material and should be stated. • Where aggregate intercepts incorporate short lengths of high grade results and longer lengths of low grade results, the procedure used for such aggregation should be stated and some typical examples of such aggregations should be shown in detail. • The assumptions used for any reporting of metal equivalent values should be clearly stated.	• Original assays are length weighted. Grades are not top cut. Intercepts are reported at a Lower cut off of 0.5g/t with a secondary cut off of 1.0g/t or a Lower cut off of 1.0g/t with a secondary cut off of 10.0g/t . Maximum 4m internal dilution. • No metal equivalents reported
Relationship between mineralisation	• These relationships are particularly important in the reporting of Exploration Results. • If thegeometry of the mineralisation	• Intercept widths are down hole lengths. True widths are not reported . • The geometry of the mineralisation on the Round Dam Trend is approx. 3 5 0 o and 60 o to 70 o West dipping . Drilling is oriented perpendicular the strike of the mineralisation.

Criteria	JORC Code explanation	Commentary
widths and intercept lengths	with respect to the drill hole angle is known, its nature should be reported. • If it is not known and only the down hole lengths are reported, there should be a clear statement to this effect (eg ‘down hole length, true width not known’).
Diagrams	• Appropriate maps and sections (with scales) and tabulations of intercepts should be included for any significant discovery being reported These should include, but not be limited to a plan view of drill hole collar locations and appropriate sectional views.	• See plans and sections.
Balanced reporting	• Where comprehensive reporting of all Exploration Results is not practicable, representative reporting of both low and high grades and/or widths should be practiced to avoid misleading reporting of Exploration Results.	• Results from all holes in the current drilling have been reported. • Results reported include both low and high gram metre (g/t x down hole length) values. • The significant intercept table provides details of drill hole intercepts shown on diagrams. There is no lower cut - off grade, the holes listed include those with NSI (no significant intercept). Holes in the significant intercept table are shown on diagrams coloured according to gram metre grade bins. This provides spatial context to the number of holes in the project area with significant gold intercepts versus the number of hol es with lesser or no significant intercepts
Other substantive exploration data	• Other exploration data, if meaningful and material, should be reported including (but not limited to): geological observations; geophysical survey results; geochemical survey results; bulk samples – size and method of treatment; metallurgical test results; bulk density, groundwater, geotechnical and rock characteristics; potential deleterious or contaminating substances.	• Preliminary M etallurgical leach tests have demonstrated gold recoveries of >95% using standard CIL processing • Numerous deposits on the Round Dam Trend were previously mined and processed at Davyhurst plant with no known metallurgical i ssues. • Geotechnical work is ongoing. • Waste rock characterisation is progressing.
Further work	• The nature and scale of planned further work (eg tests for lateral extensions or depth extensions or large - scale step - out drilling). • Diagrams clearly highlighting the areas of possible extensions, including the main geological interpretations and future drilling areas, provided this information is not commercially sensitive.	• Exploration and Resources Development drilling is continuing • Statutory approvals for mining in progress.

Criteria	JORC Code explanation	Commentary
Database integrity	• Measures taken to ensure that data has not been corrupted by, for example, transcription or keying errors, between its initial collection and its use for Mineral Resource estimation purposes. • Data validation procedures used.	• Data from EGL/OBM drilling captured into Field Marshall or Geobank Mobile logging software. Data sent from site and imported into SQL database via DBMS. Validation checks in SQL database are carried out to ensure data integrity is not compromised. • The data is verified by company geologists before being sent to the DBA for validation or passing Geobank Software validation protocols • A drill hole database validation report was completed on the historical and recent drilling. This included collar location, downhole survey confidence and assay reviews. • The Competent Person has undertaken a number of validation checks on the database, using Leapfrog and Micromine software which include, but are not limited to, checks for overlapping intervals, checks for missing data/records, visual checks on drillhol e locations and traces to identifyany possible surveyissues. No major issues were detected.
Site visits	• Comment on any site visits undertaken by the Competent Person and the outcome of those visits. • If no site visits have been undertaken indicate why this is the case.	• Numerous site visits have been completed by the Competent Person with the following objectives: `o` View geology in existing open pit `o` View and log drill core
Geological interpretation	• Confidence in (or conversely, the uncertainty of) the geological interpretation of the mineral deposit. • Nature of the data used and of any assumptions made. • The effect, if any, of alternative interpretations on Mineral Resource estimation. • The use of geology in guiding and controlling Mineral Resource estimation. • The factors affecting continuity both of grade and _geology. _	• Lodes were generally interpreted on E - W sections and flitches using LeapfrogTM software. Round Dam mineralisation is generally 60 - 70° west dipping, 350° striking parallel lodes. The mineralisation follows along the contacts of the Ultramafic in the HW and FW as well as internally in the Ultramafic . Mineralisation in the HW mafic and FW sediments is present but not well constrained or defined. • Late stage E - W structures have been mapped and may offset the mineralised lodes slightly. These structures have also been exploited by thin pegmatite dykes . • Gold mineralization along The Round Dam Trend is associated with shear folding and shear structures producing boudinage quart z veins. The main high - grade shoot or plunge of mineralization ranges from - 20 to - 35 degrees to the North. This is matched with th e measured fold hinges, lineations and boudinage quartz veins in both diamond drill core and from mapping within the historic open pits of Federal Flag and Walhalla. • The proximity to the Zulieka shear likely had a great impact on the amount of simple shearing that occurred along the Round D am Trend. We can observe this in the shear jog at Walhalla North, with approximately 100m of West – East offset of the lithology an d lodes. Resulting in the high - grade shoots forming on either side of the jog. • Inspection of core, RC chips and pit exposures shows the mineralisation to be associated with biotite and silica alteration a nd quartz - carbonate veining. • Geological continuity of mineralised strictures are well defined, although sometimes terminate abruptly, possibly due to the minor offsets caused by the E - W structures. The Lynx and Grizzly lodes at Round Dam are geologically continuous over 8 km. Grade continuity is less extensive but well defined at a low cut - offgrade(0. 3 g/t)
Dimensions	• The extent and variability of the Mineral Resource expressed as length (along strike or otherwise), plan width, and depth below surface to the upper and lower limits of the Mineral Resource.	• The Lynx and Grizzly lodes at Round Dam are geologically continuous over 8 km in an N NW - S SE direction and defined to a depth of 310 m below surface.
Estimation and modelling techniques	• The nature and appropriateness of the estimation technique(s) applied and key assumptions, including treatment of extreme grade values, domaining, interpolation parameters and maximum distance of extrapolation from data points. If a computer assisted estim ation method was chosen include a description of computer software and parameters used. • The availability of check estimates, previous estimates and/or mine production records and whether the Mineral Resource estimate takes appropriate account of such data. • The assumptions made regarding recovery of by - products. • Estimation of deleterious elements or other non - grade variables of economic significance (eg sulphur for acid mine drainage characterisation). • In the case of block model interpolation, the block	• 1m composite samples coded to the mineralised domains were used as inputs to estimation. Only RC and diamond drilling samples used for estimation. • Ordinary Kriging (OK) was used to estimate gold grades into a 3 - dimensional block model. Estimation parameters derived from modelled semi - variograms. Leapfrog software was used for the estimation. • For some of the mineralised zones categorical subdomains were created and estimated with Ordinary kriging. Thresholds for cat egorical subdomains are chosen from log probability inflections that are representative of the geological understanding of grade po pulations. Typically, only a single low - grade threshold was chosen to allow separation of lower grade zones for better estimation of the ore sub - domains. • Lodes with a low number of samples or discrete lodes with a low coefficient of variation were interpolated by Inverse Distanc e Squared (ID2). • High grade cuts up to 8 0 g/t were applied to 1m composite data based on analysis of individual domains. • The parent block dimensions used were 20 mN by 5 mE by 10mRL with sub - cells of 1 .25 m by 1 . 2 5m by 1. 25 m. Drillhole spacing is approximately 50 m between section and 5 0m along section. The parent block size was selected (approx. 50% of data spacing) using QKNA. • An orientated ellipsoid search was used to select data and was based on Kriging Neighbourhood parameters derived from the var iography. • Estimation completed in 3 runs each with less restrictive search, and minimum sample parameters. The initial interpolation pa ss was used with a maximum range greater than the range of the principal direction of the modelled variograms. Maximum number of sa mples was 1 2 , minimum was 4. Range increased progressively and the minimum number of samples reduced. • No estimation of deleterious elements was carried out. Deleterious elements have not been recorded duringminingby previous operators

Criteria	JORC Code explanation	Commentary
		• WESCEF - MGA94, zone 51. Drill hole collar positions were picked up by an OBM mining surveyor using RTKGPS subsequent to drilling. All downhole surveys were taken every 10m by Gyro. • OBM (RC, DD) MGA94, zone 51. Drill hole collar positions were picked up by a contract surveyor using RTKGPS subsequent to dri lling. Drill - hole, downhole surveys are recorded every 30m using a reflex digital downhole camera. Some RC holes not surveyed if ho les short and/or drilling an early stage exploration project. For all drilling from 2022 Drill hole collar positions were picked up by an OBM mining surveyor using RTKGPS subsequent to drilling. All downhole surveys were taken every 10m by Gyro.
Data spacing and distribution	• Data spacing for reporting of Exploration Results. • Whether the data spacing and distribution is sufficient to establish the degree of geological and grade continuity appropriate for the Mineral Resource and Ore Reserve estimation procedure(s) and classifications applied. • Whether sample compositing has been _applied. _	• Data spacing highly variable from wide spaced ~800m x ~80m regional RAB to close spaced resource drilling ~10m x ~10m and gra de control drilling at ~5m x ~5m. • Drill hole spacing is adequate to establish geological and grade continuity for the deposits that currently have resources re ported. • Drill i ntercepts are reported at a Lower cut off of 0.5g/t with a secondary cut off of 1.0g/t or a Lower cut off of 1.0g/t with a secondary cut off of 10.0g/t. Maximum 4m internal dilution.
Orientation of data in relation to geological structure	• Whether the orientation of sampling achieves unbiased sampling of possible structures and the extent to which this is known, considering the deposit type. • If the relationship between the drilling orientation and the orientation of key mineralised structures is considered to have introduced a sampling bias, this should be assessed and reported if _material. _	• Drilling by Aberfoyle/Bardoc, Consolidated Gold, Croesus, DPPL, EGS, Monarch, Texas Gulf and WMC was predominately inclined at between - 50 and - 60 degrees towards local grid east (~80 o MGA Azi). Some early exploration RAB holes drilled vertically • OBM – RC drilling is predominately inclined at between - 50 and - 60 degrees towards local grid east (~80 o MGA Azi). Drilling inclined to the west is only done when lodes are deemed to be vertical or if local landforms prevent access. • WESCEF – Holes primarily drilled for lithium e x ploration in varying orientations that are frequently not perpendicular to gold mineralisation.
Sample security	• The measures taken to ensure sample _security. _	• Unknown for earlier operators. • West coast holdings - Residues stored on site but security measures unknown • Texas Holdings - Residues stored on site but security measures unknown • Monarch - Pre - numbered sample bags were put into numbered plastic bags. These numbers were written on the submission forms which were chec ked by the geologist. Plastic bags were then securely cable tied and placed in a secure location. Samples were then picked up by the Lab in Kalgoorlie or deliver to Perth via courier. Awork order conformation was emailed to Monarch personnel for each sample submission once sampl es were received by the Laboratory. • Swan Gold – Samples are bagged, tied and in a secure yard. Once submitted to the laboratories they are stored in cages within a secure fe nced compound. Samples are tracked through the laboratory via their LIMS. • WESCEF – Same as OBM for samples assayed for gold. • OBM – Samples are bagged into cable - tied polyweave bags and stored in bulka bags in a secure yard. Once submitted to the laboratories they are stored in cages within a secure fenced compound. Samples are tracked through the laboratory via their LIMS
Audits or reviews	• The results of any audits or reviews of sampling techniques and data.	• No audits of sampling techniques have been done.

Criteria	JORC Code explanation	Commentary
	size in relation to the average sample spacing and the search employed. • Any assumptions behind modelling of selective mining units. • Any assumptions about correlation between variables. • Description of how the geological interpretation was used to control the resource estimates. • Discussion of basis for using or not using grade cutting or capping. • The process of validation, the checking process used, the comparison of model data to drillhole data, and use of reconciliation data if available.	Only Au was interpolated into the block model. • • No assumptions have been made regarding recovery of by - products. Silver has not been routinely assayed. • Selective mining units were not modelled in the Mineral Resource • Only Au was estimated so correlation analysis was not possible • The deposit mineralisation was constrained by wireframes constructed using a 0. 3 g/t Au cut - off grade in association with logged geology, particularly the presence of quartz veining and biotite - sulphide alteration. The wireframes were applied as hard boundaries in the estimate. • Grade capping was applied on a domain by domain basis due to the usually highly positively skewed grade populations • The validation was carried out by three methods: `o` Visual comparison of block grades with nearby drill assay results on a section by section basis. `o` Statistical comparison of estimated grades and composite grades on a domain by domain basis. `o` Trend analysis of estimated block modelgrades versus compositegrades on 4 0m northingand 20 m vertical intervals.
Moisture	• Whether the tonnages are estimated on a dry basis or with natural moisture, and the method of determination of the moisture content.	• Tonnages and grades were estimated on a dry in situ basis. No moisture values were reviewed.
Cut-off parameters	• The basis of the adopted cut - off grade(s) or quality parameters applied.	• The Mineral Resource has been reported at a 0. 3 g/t Au cut - off within an optimised pit shell, based on assumptions about economic cut - off grades for open pit mining.
Mining factors or assumptions	• Assumptions made regarding possible mining methods, minimum mining dimensions and internal (or, if applicable, external) mining dilution. It is always necessary as part of the process of determining reasonable prospects for eventual economic extraction to consider potential mining methods, but the assumptions made regarding mining methods and parameters when estimating Mineral Resources may not always be rigorous. Where this is the case, this should be reported with an explanation of the basis of the mining assumptions made.	• It is intended to adopt a selective open cut mining practise at the deposit. • The MRE is reported under conditions that are considered to b e RPEE E through open pit mining operations. R esources have been reported within a $5000 reporting pit shell derived from contractor derived mining costs, projected processing costs and pit wall angels determined from geot e chnical assessment . Reporting shells were produced using diluted grades derived from M ine Stope Optimised (MSO) shapes with 2.5m minimum width .
Metallurgical factors or assumptions	• The basis for assumptions or predictions regarding metallurgical amenability. It is always necessary as part of the process of determining reasonable prospects for eventual economic extraction to consider potential metallurgical methods, but the assumption s regarding metallurgical treatment processes and parameters made when reporting Mineral Resources may not always be rigorous. Where this is the case, this should be reported with an explanation of the basis of the metallurgical assumptions made.	• Round Dam has no known reported metallurgical issues and has been previously mined. • Preliminary Metallurgical leach tests have demonstrated gold recoveries of >95% using standard CIL processing • Numerous deposits on the Round Dam Trend were previously mined and processed at Davyhurst plant with no known metallurgical i ssues.
Environmental factors or assumptions	• Assumptions made regarding possible waste and process residue disposal options. It is always necessary as part of the process of determining reasonable prospects for eventual economic extraction to consider the potential environmental impacts of the mining and processing operation. While at this stage the determination of potential environmental impacts, particularly for a greenfields project, may not always be well advanced, the status of early consideration of these potential environmental impacts should be reported. Where these aspects have not been considered this should be reported with an	• Flora and Faun a surveys are complete. • Waste rock characterisation is ongoing

Criteria	JORC Code explanation	Commentary
	explanation of the environmental assumptions _made. _
Bulk density	• Whether assumed or determined. If assumed, the basis for the assumptions. If determined, the method used, whether wet or dry, the frequency of the measurements, the nature, size and representativeness of the samples. • The bulk density for bulk material must have been measured by methods that adequately account for void spaces (vugs, porosity, etc), moisture and differences between rock and alteration zones within the deposit. • Discuss assumptions for bulk density estimates used in the evaluation process of the different _materials. _	• Bulk density determinations were derived from measurements (immersion method) made on recent core samples drilled by OBM and from downhole density measurements take n from selected RC and diamond holes . • Bulk densityvalues used in the MRE were assigned bylithologyand oxidisation and shown below in the table .
		LITH OX TRANS FRESH
		Mafic 1.71 2.33 2.80
		Pegmatite 2.00 2.59 2.63
		Sediments 2.09 2.41 2.57
		Ultramafic 1.78 2.50 2.90
		Dolerite 1.71 2.33 2.80

Classification	• The basis for the classification of the Mineral Resources into varying confidence categories. • Whether appropriate account has been taken of all relevant factors (ie relative confidence in tonnage/grade estimations, reliability of input data, confidence in continuity of geology and metal values, quality, quantity and distribution of the data). • Whether the result appropriately reflects the Competent Person’s view of the deposit.	• Mineral Resources were classified in accordance with the Australasian Code for the Reporting of Exploration Results, Mineral Resources and Ore Reserves (JORC, 2012). The classification takes account of confidence in the geological interpretation, sample de nsity and assay QAQC. In order to avoid a mosaic style of classification, solid wireframes were constructed to encompass areas considered to adequately fulfil the requirement to be classified as either, measured, indicated or inferred: • Measured – No areas of the current resource attained Measured status. • Indicated – Areas with drill spacing up to approximately 25m x 25mN up to 25m x 40m along strike and with reasonable confidence in the geological interpretation and grade continuity • Inferred – Areas with drill spacing up to approximately 50m x 50mN up to 50m x 80m along strike and where grade continuity is poorer as defined by a lower sample density, even though geological continuity may be apparent. • Areas of some lodes, particularly at depth have fairly low/no sample support and were not classified. • The input data is comprehensive and of sufficient quality for use in the MRE. Significant recent drilling, has confirmed the location and tenor of many historic drill - holes. Assay QAQC is of sufficient quality for the assays to be used in the MRE. There is sufficient understanding of the geology to support the current interpretation in terms of continuity. • The Mineral Resource estimate appropriatelyreflects the view of the Competent Person.
Audits or reviews	• The results of any audits or reviews of Mineral Resource estimates.	• The MRE has not been internally peer reviewed.
Discussion of relative accuracy/ confidence	• Where appropriate a statement of the relative accuracy and confidence level in the Mineral Resource estimate using an approach or procedure deemed appropriate by the Competent Person. For example, the application of statistical or geostatistical procedures to quantify the relative accuracy of the resource within stated confidence limits, or, if such an approach is not deemed appropriate, a qualitative discussion of the factors that could affect the relative accuracy and confidence of the estimate. • The statement should specify whether it relates to global or local estimates, and, if local, state the relevant tonnages, which should be relevant to technical and economic evaluation. Documentation should include assumptions made and the procedures used. • These statements of relative accuracy and confidence of the estimate should be compared withproduction data, where available.	• The Round Dam Mineral Resource estimate is considered to be reported with a reasonable degree of confidence. The data quality is good and the drillholes from recent drilling have detailed logs produced by qualified geologists. Historic logging has been review ed. • The Mineral Resource statement relates to global estimates of tonnes and grade. Confidence in the estimate allows reasonable quantification of global metal content. The interpretation is considered globally robust but at a local scale , variations to ore geometry and/or grade can be expected. • The deposit is not currently being mined.

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ORA BANDA MINING LTD — Capital/Financing Update 2026

65475_rns_2026-03-10_07266987-b32d-406d-867b-179a72941f8d.pdf

ASX ANNOUNCEMENT

Ora Banda’s targeted organic growth strategy sees group Mineral Resources rapidly grow to 3.3 million ounces[1]

ROUND DAM RESOURCE

LOCATION AND TENURE

INFRASTRUCTURE

GEOLOGY & GEOLOGICAL INTERPRETATION

Lithology

Alteration & Mineralisation

Weathering

DRILLING AND SAMPLING, AND SAMPLE ANALYSIS TECHNIQUES

Sample Analysis Methods

ESTIMATION METHODOLOGY

CRITERIA USED FOR CLASSIFICATION

CUT-OFF GRADES AND MODIFYING FACTORS

MINING METHOD

PROCESSING METHOD

OTHER MINERAL RESOURCE ESTIMATES

COMPETENT PERSONS STATEMENTS

FORWARD-LOOKING STATEMENTS

Appendix 1 - Significant Intersection Table

Section 1 Sampling techniques and data – Round Dam

Commentary

Section 2 Reporting of Exploration Results – Round Dam

Section 3 Estimation and Reporting of Mineral Resources – Round Dam

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ORA BANDA MINING LTD Capital/Financing Update 2026