REG - Shanta Gold Limited - West Kenya - Ramula Resource Announcement
09/03/2022 07:00
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RNS Number : 1091E Shanta Gold Limited 09 March 2022
9 March 2022
Shanta Gold Limited
("Shanta Gold", "Shanta" or the "Company")
Transformative drilling results deliver 37% increase in West Kenya Resource
and confirm confidence in district scale potential
Shanta Gold (AIM: SHG), the East Africa-focused gold producer, developer and
explorer, is pleased to announce a maiden resource estimate for the Ramula
target at the West Kenya Project ("West Kenya") in Kenya. This maiden resource
estimate follows the successful completion of the Company's 2021 drilling
programme at West Kenya and the Company expects to announce further updates in
relation to Isulu-Bushiangala and Bumbo in the coming weeks.
Eric Zurrin, Chief Executive Officer, commented:
"We are delighted with the transformative drilling results announced at the
Ramula target, adding 434k oz grading to 2.08 g/t and increasing total
resources at our West Kenya Project by a significant 37% to 1.6 million oz,
further strengthening our view that the region is a major new gold district
and an area of massive future growth for the Company.
I visited the site with fellow Shanta Board members in March 2022 and
witnessed the outstanding potential of the Ramula Region. Situated in close
proximity to the Liranda Region which holds the Isulu-Bushiangala resource, we
are confident that in time, we will be able to expand Ramula into the second
significant resource region in the wider West Kenyan Project.
In the near-term, we are looking forward to updating shareholders on the
updated mineral resource estimate at Isulu-Bushiangala as well as the
re-estimated historical maiden resource at the Bumbo polymetallic target. The
West Kenya Project continues to produce exciting results the more we look, and
we are confident that it has the potential to be a multi-million ounce gold
district comparable with other prolific greenstone belts in the world."
Ramula Highlights:
· New potential confirmed at the Ramula target and 6 proximal targets
("Ramula Region");
· Results in a 37% increase in total resources at West Kenya to 1.6
million ounces ("oz");
· Ramula target has an inferred unconstrained in-situ resource estimate
of 433,900 ounces grading 2.08 g/t, using a cut-off grade of 0.7g/t Au;
· Ramula target maiden resource was completed using the Canadian
National Instrument 43-101 guidelines (NI 43-101);
· Total of 19 mineralised sub-horizontal zones at Ramula modelled to 240
metres depth;
· Several of the 19 zones include high grade inferred resources currently
summing to 107,684 ounces grading 6.43 g/t using a cut-off grade of 3.0 g/t;
· Preliminary indications of favourable low stripping ratio;
· Ramula target lies in the West Kenya Project, 35 kilometres ("km") from
Isulu-Bushiangala (Liranda Region);
· Management reviewing an accelerated timeline to full economic
assessment;
· Targeting increased potential of numerous anomalies across the Ramula
Region, as Shanta's 2(nd) project area within the wider West Kenya Project;
· Mineralisation is open at southeast and Shanta drilling to 450 metres
depth confirms mineralisation is open at depth;
· Total of 10 holes drilled at Ramula target covering 2,243 metres
completed in 2021 costing US$0.36 million; in addition 12 holes drilled by
previous owners;
· Considered by Shanta's geologists as analogous to the recent numerous
discoveries in the Val d'Or multi-million oz mining district of Abitibi,
Canada. Deposits of this style have vertical extents typically over 1,000
metres and gold deposits expected in clusters;
· Expansion drilling planned across the Ramula Region, metallurgical
testing, scoping study, and infill drilling for conversion to mineable
resources.
Ramula Region
· Located approximately 35 km from the Liranda Region which contains
the high grade Isulu and Bushiangala deposits;
· Ramula Region currently holds 7 high priority targets including
Ramula, Miruka, Anomaly 22, Ramba-Lumba, Aila, Masumbi, and the former
colonial mine Kiboko, all within 1-20 km of Ramula target;
· Miruka and Anomaly 22, located within a 5 km radius from Ramula
target are high priority exploration areas;
o Shanta's first hole drilled at Anomaly 22 confirmed a gold mineralised
system, hosted in mineralised porphyry and diorite at the contact with the
mafic volcanic rocks with continuous gold mineralisation extending 242 metres
from surface;
o The known strong gold-in-soil anomaly at Anomaly 22 extends across 1.5 km
on surface.
· Ramula Mineral Resource Model was independently verified and maiden
resource estimated by Adiuvare GE (Cath Pitman P. Geo) and was completed using
NI 43-101 reporting standards.
The location of the Ramula Region and its proximity to the Liranda Region can
be viewed in the PDF via this link:
https://www.shantagold.com/operations/exploration/#gallery
(https://www.shantagold.com/operations/exploration/#gallery)
Table 1 - Mineral Resource Estimate - Ramula target
Inferred
Cut off grade Tonnes Grade (Au g/t) Ounces
0.7 6,490,134 2.08 433,905
1.0 4,591,245 2.60 383,225
1.5 3,083,499 3.27 324,023
2.0 2,221,657 3.86 275,985
Investor conference call
Shanta Gold is also hosting a live investor presentation via the Investor Meet
Company platform today, 9 March 2022, at 10:30 am GMT. The presentation is
open to all existing and potential shareholders and questions can be submitted
any time during the live presentation.
Investors can sign up to Investor Meet Company for free and add to
meet Shanta Gold via:
https://www.investormeetcompany.com/shanta-gold-limited/register-investor
(https://www.investormeetcompany.com/shanta-gold-limited/register-investor)
Investors who already follow Shanta Gold on the Investor Meet Company
platform will automatically be invited.
Shanta Gold Limited
Eric Zurrin (CEO) +44 (0) 14 8173 2153
Luke Leslie (CFO)
Nominated Adviser and Joint Broker
Liberum Capital Limited
Scott Mathieson / Ed Thomas / Nikhil Varghese +44 (0) 20 3100 2000
Joint Broker
Tamesis Partners LLP
Charlie Bendon / Richard Greenfield +44 (0) 20 3882 2868
Public Relations
FTI Consulting
Sara Powell / Nick Hennis / Jourdan Webb +44 (0) 20 3727 1426
About Shanta Gold
Shanta Gold is an East Africa-focused responsible gold producer, developer and
explorer. The company has an established operational track record, with
defined ore resources on the New Luika and Singida projects in Tanzania, with
reserves of 666 koz grading 3.0 g/t, and exploration licences covering
approximately 1,100 km(2) in the country. Alongside New Luika and Singida,
Shanta also owns the high-grade West Kenya Project in Kenya and licences
covering approximately 1,162 km(2). With a strong balance sheet, a growing
diversified portfolio and a maiden dividend paid in 2021, Shanta offers a
resilient investment opportunity for the near and long-term. Shanta is quoted
on London's AIM market (AIM: SHG) and has approximately 1,048 million shares
in issue.
Competent Person Statement
The Ramula mineral resource model was independently verified and the resource
estimated by AdiuvareGE (Cath Pitman P.Geo, ON and NL) using Canadian NI
43-101 guidelines.
The technical information contained in this announcement was reviewed by Yuri
Dobrotin, P.Geo. Membership No.0702 (Shanta's Group Exploration Manager), who
is a practicing member of the Association of Professional Geoscientists of
Ontario, Canada (PGO).
Mr Dobrotin has sufficient experience that is relevant to the style of
mineralization and type of deposit under consideration and to the activity
being undertaken to qualify as a Competent Person as defined for the purposes
of the AIM Guidance Note on Mining and Oil & Gas Companies dated June
2009, and Canadian National Instrument 43-101 (''NI 43-101").
The information contained within this announcement is deemed by the Company to
constitute inside information as stipulated under the Market Abuse Regulation
(EU) No. 596/2014 as amended by The Market Abuse (Amendment) (EU Exit)
Regulations 2019.
Glossary
Glossary of Technical Terms
"Au" chemical symbol for gold
"cut off grade" (COG) the lowest grade value that is included in a resource statement. It must
comply with JORC requirement 19: "reasonable prospects for eventual economic
extraction" the lowest grade, or quality, of mineralised material that
qualifies as economically mineable and available in a given deposit. It may
be defined on the basis of economic evaluation, or on physical or chemical
attributes that define an acceptable product specification
"g/t" grammes per tonne, equivalent to parts per million
"Inferred Resource" that part of a Mineral Resource for which tonnage, grade and mineral content
can be estimated with a low level of confidence. It is inferred from
geological evidence and assumed but not verified geological and/or grade
continuity. It is based on information gathered through appropriate
techniques from locations such as outcrops, trenches, pits, workings and drill
holes which may be limited or of uncertain quality and reliability
"Indicated Resource" that part of a Mineral Resource for which tonnage, densities, shape, physical
characteristics, grade and mineral content can be estimated with a reasonable
level of confidence. It is based on exploration, sampling and testing
information gathered through appropriate techniques from locations such as
outcrops, trenches, pits, workings and drill holes. The locations are too
widely or inappropriately spaced to confirm geological and/or grade continuity
but are spaced closely enough for continuity to be assumed
"JORC" The Australasian Joint Ore Reserves Committee Code for Reporting of
Exploration Results, Mineral Resources and Ore Reserves 2012 (the "JORC Code"
or "the Code"). The Code sets out minimum standards, recommendations and
guidelines for Public Reporting in Australasia of Exploration Results, Mineral
Resources and Ore Reserves
"koz" thousand troy ounces of gold
"Measured Resource" that part of a Mineral Resource for which tonnage, densities, shape, physical
characteristics, grade and mineral content can be estimated with a high level
of confidence. It is based on detailed and reliable exploration, sampling
and testing information gathered through appropriate techniques from locations
such as outcrops, trenches, pits, workings and drill holes. The locations
are spaced closely enough to confirm geological and grade continuity
"Mineral Resource" a concentration or occurrence of material of intrinsic economic interest in or
on the Earth's crust in such form, quality and quantity that there are
reasonable prospects for eventual economic extraction. The location,
quantity, grade, geological characteristics and continuity of a Mineral
Resource are known, estimated or interpreted from specific geological evidence
and knowledge. Mineral Resources are sub-divided, in order of increasing
geological confidence, into Inferred, Indicated and Measured categories when
reporting under JORC
"Mt" million tonnes
"oz" troy ounce (= 31.103477 grammes)
"Reserve" the economically mineable part of a Measured and/or Indicated Mineral Resource
"t" tonne (= 1 million grammes)
APPENDIX 1: SAMPLING TECHNIQUES AND DATA
Sampling techniques · Nature and quality of sampling (eg cut channels, random chips, or · Drill core (half) sampled and assayed at 1m interval with max.
specific specialised industry standard measurement tools appropriate to the 1.5m and min. 0.5m intervals based on visually observed geology and
minerals under investigation, such as down hole gamma sondes, or handheld XRF mineralisation.
instruments, etc). These examples should not be taken as limiting the broad
meaning of sampling. · Core samples are processed using industry standard practices of
drying, crushing, splitting and
· Include reference to measures taken to ensure sample representivity
and the appropriate calibration of any measurement tools or systems used. Pulverization, then 50g fire assayed with AAS
finish for gold at the SGS Mwanza (Tanzania) and ALS Johannesburg (South
· Aspects of the determination of mineralisation that are Material to Africa).
the Public Report.
· In cases where 'industry standard' work has been done this would be
relatively simple (eg 'reverse circulation drilling was used to obtain 1 m
samples from which 3 kg was pulverised to produce a 30 g charge for fire
assay'). In other cases more explanation may be required, such as where there
is coarse gold that has inherent sampling problems. Unusual commodities or
mineralisation types (eg submarine nodules) may warrant disclosure of detailed
information.
Drilling techniques · Drill type (eg core, reverse circulation, open-hole hammer, rotary · Diamond core drilling; All holes are collared using
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, HQ and lately triple tube is used to maximise core recovery in the weathered
whether core is oriented and if so, by what method, etc). zone; drill hole diameter is usually
reduced to NQ when the hole enters fresh rock. NQ core routinely oriented
using Reflex core orientation tools.
Drill sample recovery · Method of recording and assessing core and chip sample recoveries · Core recovery is recorded as a measure of the drill run against
and results assessed. the actual core in tray, and stored in an acQuire
· Measures taken to maximise sample recovery and ensure software database. Triple tube is used to maximise core recovery in the
representative nature of the samples. weathered zone. The average core recovery equates to approximately 95%.
· 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.
Logging · Whether core and chip samples have been geologically and · The geologist logs the diamond drill core for lithology,
geotechnically logged to a level of detail to support appropriate Mineral alteration, structure, mineralisation and geotechnical parameters. All core is
Resource estimation, mining studies and metallurgical studies. logged and photographed after marking up metre intervals and prior to cutting
and sampling. Logging data are entered into the acQuire database via a
· Whether logging is qualitative or quantitative in nature. Core (or Panasonic Toughbook laptop computer on site.
costean, channel, etc) photography.
· All of diamond drill holes are geologically logged in entirety.
· The total length and percentage of the relevant intersections
logged.
Sub-sampling techniques and sample preparation · If core, whether cut or sawn and whether quarter, half or all core · Core samples are half core and sawn. Split line is consistent
taken. orientation with respect to orientation marks.
· If non-core, whether riffled, tube sampled, rotary split, etc and · Sample preparation (drying, crushing, splitting and pulverising)
whether sampled wet or dry. is carried out by SGS Mwanza and ALS Jo'burg using industry standard
protocols:
· For all sample types, the nature, quality and appropriateness of
the sample preparation technique. o Kiln dried at 95 deg C.
· Quality control procedures adopted for all sub-sampling stages to o Entire sample crushed to sub 2mm to minimize bias.
maximise representivity of samples.
o Riffle split 800g to 1kg sub-sample.
· Measures taken to ensure that the sampling is representative of the
in situ material collected, including for instance results for field o Sub-sample pulverised to 90% passing 75um, monitored by sieving.
duplicate/second-half sampling.
o Aliquot selection from pulp packet.
· Whether sample sizes are appropriate to the grain size of the
material being sampled. · Aggregated half core; Entire 2-3kg sample pulverized at
laboratory, prior to fire assay, in order to minimize bias.
· Drilling planned orthogonal to the strike of structures /
lithologies in order to maximize representativity.
· Quality Control (QC) samples are inserted at a rate of 1 in 20.
All standards used are Certified Reference Materials (CRM). The insertion of
QC (CRM, blanks and duplicates) is under the control of the geologist after
logging.
· The sampling protocols are adequate to ensure representativity of
orogenic, shear-zone-hosted quartz-carbonate vein subtype mineralisation.
Quality of assay data and laboratory tests · The nature, quality and appropriateness of the assaying and · All diamond core samples are assayed for gold by 50g Fire Assay
laboratory procedures used and whether the technique is considered partial or with AAS finish.
total.
· Core samples were shipped for preparation and analysis at SGS
· For geophysical tools, spectrometers, handheld XRF instruments, Mwanza (2018 to 2021) and ALS Johannesburg SA (2012 to 2018). The
etc, the parameters used in determining the analysis including instrument make documentation regarding sample analyses is well documented.
and model, reading times, calibrations factors applied and their derivation,
etc. · Given the occurrence of coarse gold, Screen Fire Assays (SFA) or
Gravimetric checks are routinely undertaken.
· Nature of quality control procedures adopted (eg standards, blanks,
duplicates, external laboratory checks) and whether acceptable levels of · The QA/QC with CRMs, blanks, quartz flush checks and grind checks
accuracy (ie lack of bias) and precision have been established. routinely monitored. The coarse duplicates from crush residue, and pulp
duplicates from pulp residues were regularly monitored to test the quality
of sub sampling stages. Blank and CRM results are reviewed on receiving assays
and any failure triggers investigations. Regular communication was had with
analytical Laboratories.
· The QAQC procedures and results show acceptable levels of
accuracy and precision, allowing the sample data to be used for the Mineral
Resource Estimate.
Verification of sampling and assaying · The verification of significant intersections by either independent · There are strong visual indicators for high grade mineralisation
or alternative company personnel. observed in drill core at the West Kenya Project and significant intersections
are visually validated against drill core, check calculated by alternative
· The use of twinned holes. company personnel.
· Documentation of primary data, data entry procedures, data · To date no holes have been twinned.
verification, data storage (physical and electronic) protocols.
· All assay data is stored in the acQuire database in an
· Discuss any adjustment to assay data. as-received basis from the laboratory, with no adjustment made to the returned
data.
Location of data points · Accuracy and quality of surveys used to locate drill holes (collar · Drill collars have been surveyed in by
and down-hole surveys), trenches, mine workings and other locations used in differential GPS (Leica GNSS receivers) by a registered survey contractor
Mineral Resource estimation. except for holes after LCD0259, that are recent, or in progress holes that are
estimates by handheld GPS only.
· Specification of the grid system used.
· Down hole surveys are recorded at 12m intervals by
· Quality and adequacy of topographic control. using a Reflex digital downhole survey camera tool, holes drilled in 2018 were
gyroscope surveyed.
· Drillholes surveyed in UTM Coordinates System Arc
1960.
· Surface topography in the West Kenya Project is based on a
combination of DGPS surveyed ground pick-ups and DEM data from air surveys.
DEM data is levelled by ground surveyed points.
Data spacing and distribution · Data spacing for reporting of Exploration Results. · Drillhole spacing was generally between 30-100m at the Ramula
deposit.
· Whether the data spacing and distribution is sufficient to
establish the degree of geological and grade continuity appropriate for the · The data spacing is sufficient to establish the degree of
Mineral Resource and Ore Reserve estimation procedure(s) and classifications geological and grade continuity appropriate for Inferred Mineral Resource
applied. classification.
· Whether sample compositing has been applied. · All samples were composited to 1m length, with a minimum
allowable length of 0.5m.
Orientation of data in relation to geological structure · Whether the orientation of sampling achieves unbiased sampling of · Drill holes are designed to intersect known mineralised features
possible structures and the extent to which this is known, considering the in a nominally perpendicular orientation as much as is practicable given the
deposit type. availability of drilling platforms. All drill core is oriented to assist with
interpretation of mineralisation and structure.
· If the relationship between the drilling orientation and the
orientation of key mineralised structures is considered to have introduced a · There does not appear to be any bias between drilling orientation
sampling bias, this should be assessed and reported if material. and assay results.
Sample security · The measures taken to ensure sample security. · Samples are transported from drill site to the core shed by
company personnel, using covered core boxes. On completion of cutting the
core, the samples are sealed into bags with cable-tie fastenings and
dispatched by hired truck to the SGS Laboratory in Mwanza, Tanzania or by
courier to ALS in South Africa Sample dispatches are reconciled against
Laboratory samples received and discrepancies reconciled by geology staff.
Audits or reviews · The results of any audits or reviews of sampling techniques and · No audits or reviews of sampling techniques and data have been
data. performed.
APPENDIX 2: REPORTING OF EXPLORATION RESULTS
Mineral tenement and land tenure status · Type, reference name/number, location and ownership including · The Western Kenya Project area is located in the Counties of
agreements or material issues with third parties such as joint ventures, Kakamega, Vihiga and Siaya in western Kenya. The Ramula prospect is
partnerships, overriding royalties, native title interests, historical sites, approximately 40 km northwest of Kisumu City (Kenya's third largest City).
wilderness or national park and environmental settings.
· Ramula deposit is situated within PL/2019/0222, granted 1(st) Aug
· The security of the tenure held at the time of reporting along with 2019 and covering 241.89 sq km. is wholly owned by Shanta Gold Kenya Ltd.
any known impediments to obtaining a licence to operate in the area.
· There are no material issues affecting the tenements.
Exploration done by other parties · Acknowledgment and appraisal of exploration by other parties. · Gold prospecting and small-scale mining commenced in the area by
1920s, as part of the Kakamega Gold Rush. The focus was on eluvial and
alluvial gold and narrow high-grade veins. Most of this activity ceased in the
1950s. Between 1982-2000, the Bureau de Recherches Géologiques et Minières
(BRGM) carried out gold and base metals exploration.
In 2003, AfriOre Ltd took up exploration licences, which included the Ramula
prospect. Their exploration focused on investigating known gold occurrences
rather than following a grassroots approach.
In 2007 Lonmin Plc took over AfriOre Ltd, but exploration work was restricted
to regional soil surveys. Aviva Mining Ltd (Aviva) entered into a Joint
Venture agreement with AfriOre in 2010. Aviva collected and collated all
existing data into a single data set. They acquired regional airborne
magnetics and radiometrics and combined them with existing BRGM data to create
a seamless geophysical dataset. Regional mapping and prospect scale mapping
was done and used together with historical data to reinterpret the geology.
Extension and infill of existing soil grids was completed followed up by
shallow diamond and RC drilling.
In late 2012 African Barrick Gold (now Acacia Mining Ltd) purchased Aviva
Mining Ltd and commenced exploration activities.
Shanta Gold took over the project in August 2020.
Geology · Deposit type, geological setting and style of mineralisation. The Ramula prospect is located within the Busia-Kakamega Greenstone Belt. The
prospect lies primarily within a small diorite stock and it's contact zones
with adjacent volcanics. The stock has intruded a sequence of intermediate
volcanic rocks (breccias, tuffs and lavas). Minor quartz feldspar porphyry
intrusives are present. The elongated diorite body is approximately 200 m x
400 m with a northwest-southeast trending long axis.
Mineralisation mostly occurs within shallow north-west dipping, stacked quartz
veins, hosted in the diorite. However narrow zones of steep mineralised quartz
veins also occur within the intermediate volcanics close to the diorite body.
The Ramula prospect mineralisation is classified as orogenic,
shear-zone-hosted quartz-carbonate vein subtype.
Drill hole Information · A summary of all information material to the understanding of the · For a summary of the drill holes used for this resource estimate
exploration results including a tabulation of the following information for see Appendix 4
all Material drill holes:
· The treatment of drill data has been articulated in Section 1.
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.
Data aggregation methods · In reporting Exploration Results, weighting averaging techniques, · The assay high grades used for this estimate were cut to 40 g/t
maximum and/or minimum grade truncations (eg cutting of high grades) and for the mineralised veins and 3 g/t for the background mineralisation.
cut-off grades are usually Material and should be stated.
· Cut-off grades were applied after compositing of the raw assay
· Where aggregate intercepts incorporate short lengths of high grade data into 1m lengths.
results and longer lengths of low grade results, the procedure used for such
aggregation should be stated and some typical examples of such aggregations · Blank intervals contained within the mineralisation were treated
should be shown in detail. as zero. Due to selective sampling of the core, blank intervals lying outside
of the veins had a grade of 0.001 g/t Au applied to them.
· The assumptions used for any reporting of metal equivalent values
should be clearly stated.
Relationship between mineralisation widths and intercept lengths · These relationships are particularly important in the reporting of · The holes drilled varied between -38 and -85 degrees from
Exploration Results. surface, with the mineralisation being sub-horizontal. Intercepts vary between
65% and 97% of their true width, with the average being 80%.
· If the geometry of the mineralisation 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 · No exploration results are reported in this release; therefore,
intercepts should be included for any significant discovery being reported this section is not relevant.
These should include, but not be limited to a plan view of drill hole collar
locations and appropriate sectional views.
Balanced reporting · Where comprehensive reporting of all Exploration Results is not · See Appendix 5 for significant intercepts table.
practicable, representative reporting of both low and high grades and/or
widths should be practiced to avoid misleading reporting of Exploration
Results.
Other substantive exploration data · Other exploration data, if meaningful and material, should be · From the 25 completed holes a total of 2,937 rock density
reported including (but not limited to): geological observations; geophysical measurements were recoded and used in the estimate.798 structural measurements
survey results; geochemical survey results; bulk samples - size and method of of mainly veins, plus faults and contacts were recorded and used in modelling.
treatment; metallurgical test results; bulk density, groundwater, geotechnical
and rock characteristics; potential deleterious or contaminating substances. · Soil geochemistry, geological mapping and airborne magnetic
survey completed over Ramula prospect.
Further work · The nature and scale of planned further work (eg tests for lateral · Approximately 35 holes for +6,000m planned infill drilling for
extensions or depth extensions or large-scale step-out drilling). conversion to mineable resources and expansion drilling across the Ramula
Region has been budgeted for in 2022.
· Diagrams clearly highlighting the areas of possible extensions,
including the main geological interpretations and future drilling areas, · Metallurgical testing underway and scoping study planned.
provided this information is not commercially sensitive.
APPENDIX 3: ESTIMATION AND REPORTING OF MINERAL RESOURCES
Database integrity · Measures taken to ensure that data has not been corrupted by, for · Data are stored in an SQL acQuire database. Assay and geological
example, transcription or keying errors, between its initial collection and data are electronically loaded into acQuire and a validation process run.
its use for Mineral Resource estimation purposes. Regular reviews of data quality are conducted by site and management teams
prior to resource estimation.
· Data validation procedures used.
Site visits · Comment on any site visits undertaken by the Competent Person and · Although site visits to the West Kenya Project have been
the outcome of those visits. completed three times between 2016 and 2019, a site visit specifically for the
Ramula Region has not been recently completed due to Covid-19 restrictions.
· If no site visits have been undertaken indicate why this is the
case. · As a substitute for the site visit a series of video reports on
the project area were created at the request of C. Pitman and interactive
video conference calls completed via social media.
Geological interpretation · Confidence in (or conversely, the uncertainty of ) the geological · The level of confidence in the interpretations of the mineralised
interpretation of the mineral deposit. zones is reflected by the Mineral Resource classification.
· Nature of the data used and of any assumptions made. · Geological data from core drilling provides the information for
the deposits. The main mineralisation
· The effect, if any, of alternative interpretations on Mineral
Resource estimation. zones were defined by the presence of gold values at cut-off of 0.5 g/t Au, as
well as the presence of other indicators such as shear intensity, brecciation,
· The use of geology in guiding and controlling Mineral Resource sulphide content and alteration. The interpretations relied on the structural
estimation. information collected from orientated core and were completed along sections
typically at spacings of 20m. The interpretations were triangulated to form 3D
· The factors affecting continuity both of grade and geology. solids (mineralised zones) using Leapfrog software and verified in Datamine
software.
· The geology has guided the resource estimation, particularly the
lithological and structural control.
· Grade and geological continuity have been established by the
existing 3D data. The continuity is well understood at Ramula especially in
relation to structural effects.
Dimensions · The extent and variability of the Mineral Resource expressed as · The main zones of mineralisation at Ramula extend up to 480m
length (along strike or otherwise), plan width, and depth below surface to the along strike. The resource estimate includes mineralisation down to 240m
upper and lower limits of the Mineral Resource. depth.
· The deposit remains open along strike and at depth.
Estimation and modelling techniques · The nature and appropriateness of the estimation technique(s) Grade estimation for Ramula was carried out using Micromine software to
applied and key assumptions, including treatment of extreme grade values, generate a block model; with the individual zones separated out for grade
domaining, interpolation parameters and maximum distance of extrapolation from interpolation.. The following process was followed.
data points. If a computer assisted estimation method was chosen include a
description of computer software and parameters used. · All the individual mineralisation zone wireframe solids were
verified using Micromine® software.
· The availability of check estimates, previous estimates and/or mine
production records and whether the Mineral Resource estimate takes appropriate · Drill data was de-surveyed and assessed for overlaps and outlier
account of such data. values.
· The assumptions made regarding recovery of by-products. · Individual assay samples were selected from within each zone.
· Estimation of deleterious elements or other non-grade variables of · The selected samples were composited to 1m intervals.
economic significance (eg sulphur for acid mine drainage characterisation).
· Statistical analysis was carried out to define capping levels.
· In the case of block model interpolation, the block size in
relation to the average sample spacing and the search employed. · Gold values were adjusted for true absent or zero values.
· Any assumptions behind modelling of selective mining units. · The block model used dimensions of:
· Any assumptions about correlation between variables. o X = 15 m
· Description of how the geological interpretation was used to o Y = 15 m
control the resource estimates.
o Z = 5 m.
· Discussion of basis for using or not using grade cutting or
capping. · Each individual zone was filled with blocks using sub-cells down
to 1 m in the north and east directions and 0.5 m in the vertical direction..
· The process of validation, the checking process used, the
comparison of model data to drill hole data, and use of reconciliation data if · Blocks were estimated for dip and dip direction data based on the
available. geometry of the wireframes constraining the mineralisation.
· Block grades and density values were estimated into each parent
block within individual zones.
· A default specific gravity using a value of 2.75 was used for
fresh rock blocks that may not have been estimated.
· Adefault specific gravity value of 1.9 was applied to oxide.rock.
The model was regularized to 2.5 x 2.5 x 2.5 m blocks. All samples were
composited to 1m length, with a minimum allowable length of 0.5m. Capping of
the composites was carried out.The capping levels were assigned using log
probability plots for the grade and were assigned at 40 g/t for the veins and
3 g/t for the background mineralisation.
Interpolation of the grade was carried out using Ordinary Kriging with dynamic
anisotropy. The search ellipses were orientated along the dip and plunge of
the mineralisation and aligned for each of the zones.
Resource classification was assigned according to the continuity of the
mineralization, known geological controls and drill spacing. Each zone was
divided into Oxide and Fresh rock and a cut-off value applied.
An initial validation comparing the mean raw gold grades and tonnes contained
within the wireframe solids to the block model output was made. The model
was then validated visually by comparing the block model grades and their
distribution to the original drill data.
Moisture · Whether the tonnages are estimated on a dry basis or with natural · Tonnages are reported on a dry basis.
moisture, and the method of determination of the moisture content.
Cut-off parameters · The basis of the adopted cut-off grade(s) or quality parameters · The Mineral Resource has been reported at a minimum cut-off grade
applied. of 0.7 g/t Au for both the oxidised rock and fresh rock, which was assigned to
reflect current commodity prices, geometry of mineralised zones and comparison
with the analogous operations.
· Additional cut-off values have been included in order to assess
the sensitivity of output ounces to change in the cut-off value.
Mining factors or assumptions · Assumptions made regarding possible mining methods, minimum mining · Based on the currently identified mineralisation the probable
dimensions and internal (or, if applicable, external) mining dilution. It is mining method for the Ramula project would be open pit extraction.
always necessary as part of the process of determining reasonable prospects
for eventual economic extraction to consider potential mining methods, but the · Mining factors such as dilution and ore loss have not been
assumptions made regarding mining methods and parameters when estimating applied.
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.
Metallurgical factors or assumptions · The basis for assumptions or predictions regarding metallurgical · No metallurgical assumptions have been built into the resource
amenability. It is always necessary as part of the process of determining models.
reasonable prospects for eventual economic extraction to consider potential
metallurgical methods, but the assumptions 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.
Environmental factors or assumptions · Assumptions made regarding possible waste and process residue · The Ramula deposit is at an early stage of evaluation and
disposal options. It is always necessary as part of the process of determining environmental studies have not yet been undertaken.
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 explanation of the environmental assumptions made.
Bulk density · Whether assumed or determined. If assumed, the basis for the · Specific gravity sampling has continued through the life of the
assumptions. If determined, the method used, whether wet or dry, the frequency project, the measurements are carried out in accordance with site standard
of the measurements, the nature, size and representativeness of the samples. procedures for Specific Gravity. Intervals for bulk density determination are
selected according to lithology/ alteration/mineralization type to best
· The bulk density for bulk material must have been measured by represent certain intervals as defined by the geologist. The measurements are
methods that adequately account for void spaces (vugs, porosity, etc), performed on site by geologists or geological assistants as part of the
moisture and differences between rock and alteration zones within the deposit. logging process. Measurements are generally after every 20 metres or a change
in lithology within the 20 metres and 1-metres interval for mineralized zones.
· Discuss assumptions for bulk density estimates used in the
evaluation process of the different materials.
Classification · The basis for the classification of the Mineral Resources into · Classification for the Ramula Mineral Resource is based upon the
varying confidence categories. continuity of geology, mineralisation and grade, using drill hole data
spacing, data quality and estimation statistics.
· 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). · The Mineral Resources are classified as Inferred.
· Whether the result appropriately reflects the Competent Person's
view of the deposit.
· The classification considers all available data and quality of
the estimate and reflects the Competent Person's view of the deposit.
Audits or reviews · The results of any audits or reviews of Mineral Resource estimates. · The resource estimate (Inferred Category) has been reviewed by
the Shanta staff Tanzanian Operations.
Discussion of relative accuracy/ confidence · Where appropriate a statement of the relative accuracy and · The assigned classification of Inferred reflects the Competent
confidence level in the Mineral Resource estimate using an approach or Person's aassessment of the accuracy and confidence levels in the global
procedure deemed appropriate by the Competent Person. For example, the Mineral Resource estimate. The resource has been assigned as an Inferred
application of statistical or geostatistical procedures to quantify the Resource contained within the modelled mineralised veins. Waste rock adjacent
relative accuracy of the resource within stated confidence limits, or, if such to these has not been included in this classification as the resource is
an approach is not deemed appropriate, a qualitative discussion of the factors currently unconstrained by any mining shape.
that could affect the relative accuracy and confidence of the estimate.
· It is the opinion of the CP that the level of accuracy achieved
· The statement should specify whether it relates to global or local throughout the modelling of the veins by using both structural information and
estimates, and, if local, state the relevant tonnages, which should be geological criteria, combined with drill spacing, allows these zones to be
relevant to technical and economic evaluation. Documentation should include classified as Inferred.
assumptions made and the procedures used.
· The tonnes and grade reported out of the Ramula model take into
· These statements of relative accuracy and confidence of the account both the mineralised and unmineralised portions of the rock mass but
estimate should be compared with production data, where available. as they do not take in to account any dilution that will be generated once a
mining shape has been put on to the deposit.
APPENDIX 4: DRILL HOLE DETAILS
Drill Hole ID Easting Northing Elevation Azimuth Dip Hole Depth Intercepts Depth
From (m) To (m)
ANRDD001 671000 487 1442 179.9 -50.2 215.9 32.6 33.6
42.5 43.5
47.1 50.4
49.0 50.4
63.7 65.2
72.8 73.8
79.7 80.4
102.7 104.4
108.6 115.6
169.5 171.6
185.5 186.5
192.6 197.3
201.2 201.7
205.3 206.3
211.1 211.9
ANRDD002 670808 367 1452 17.0 -52.6 289.5 47.4 50.2
92.6 95.5
98.0 99.0
104.7 107.4
111.3 113.7
117.7 118.5
129.2 130.5
143.2 144.2
197.7 202.4
218.8 221.1
237.7 243.1
254.6 255.4
ANRDD003 671003 395 1450 192.6 -50.9 289.4 10.8 11.8
44.9 47.2
52.6 55.9
58.9 67.9
74.9 76.0
79.5 82.6
94.5 96.5
105.6 111.0
125.0 126.0
129.0 132.0
144.7 146.7
151.2 156.0
170.6 179.1
182.0 185.0
194.0 195.0
199.0 210.6
213.8 215.0
233.0 234.0
251.9 256.0
261.0 261.8
269.8 270.8
ANRDD004 671008 263 1449 187.6 -49.6 281.9 19.0 19.9
70.5 75.1
83.5 89.5
94.6 95.8
106.1 109.8
113.7 114.5
123.2 135.4
142.7 145.3
151.5 153.0
ANRDD005 671202 533 1441 204.5 -48.7 281.9 259.0 259.8
ANRDD006 670963 557 1435 180.6 -49.8 277.9 2.4 4.7
23.8 24.6
53.2 54.2
57.6 58.3
96.0 97.0
106.7 109.1
119.7 122.7
144.6 145.7
148.8 153.5
163.0 164.0
172.0 173.1
177.5 178.5
199.3 200.3
221.1 227.9
233.8 238.8
253.1 258.8
ANRDD007 670907 406 1448 209.0 -47.0 280.7 2.6 11.8
53.7 57.0
66.0 70.0
80.9 82.0
88.9 89.8
93.2 94.2
103.2 104.8
108.8 109.8
134.2 134.8
147.4 148.4
161.5 165.3
182.2 185.2
199.1 201.6
ANRDD008A 671144 457 1446 199.5 -50.0 59.8 No significant intercepts
ANRDD008B 671144 375 1447 199.5 -50.0 281.8 77.5 78.6
92.4 98.5
110.0 111.0
244.0 244.6
ANRDD009 670872 292 1453 201.9 -53.0 179.9 4.8 10.0
50.0 53.0
84.0 90.0
99.0 100.1
126.0 129.0
163.0 164.0
ANRDD010 671024 457 1447 195.0 -50.0 455.7 59.0 65.0
70.0 71.0
77.0 78.0
90.0 92.2
125.0 128.0
146.0 147.0
156.0 157.0
173.0 174.0
184.0 186.0
189.0 191.0
194.0 197.0
201.0 208.0
212.0 218.0
221.0 227.0
231.0 232.0
235.0 236.0
239.3 243.0
249.0 250.0
253.0 263.0
266.0 274.0
277.5 284.0
301.0 302.0
332.0 333.0
359.8 361.0
372.0 373.0
381.0 382.0
ANRDD011 671086 226 1440 200.0 -56.0 257.8 0.0 0.5
32.0 33.0
51.0 55.0
65.0 66.0
73.0 78.0
85.0 88.0
91.0 95.5
101.0 104.0
114.0 115.0
121.0 122.0
131.0 134.0
139.0 143.0
148.0 149.0
154.0 160.0
166.7 169.0
243.0 244.0
RMD0001 670941 225 1451 225.0 -50.0 195.7 74.0 75.0
137.8 138.8
166.7 167.2
RMD0002 671005 284 1450 225.6 -50.0 336.8 66.9 68.4
73.5 74.5
90.9 91.4
95.4 99.0
114.2 114.7
122.4 123.0
143.6 144.1
153.0 164.7
RMD0005 670737 397 1440 14.8 -50.0 255.3 201.3 201.8
209.8 210.3
228.8 229.5
234.2 235.0
RMD0010 671014 143 1445 331.8 -49.1 450.6 8.0 17.0
28.5 30.0
54.0 55.0
64.0 66.0
87.0 90.0
108.6 110.7
128.0 130.0
133.7 136.6
150.0 152.0
155.8 163.0
167.2 167.8
175.2 175.7
181.6 182.6
187.9 203.5
209.0 216.6
226.7 227.3
235.7 236.9
240.0 241.0
253.0 254.0
257.0 259.0
278.0 285.0
287.9 292.0
297.0 304.0
320.0 323.0
326.0 327.0
329.9 342.6
352.7 353.7
376.0 377.0
386.1 390.0
411.0 417.0
420.4 421.1
427.0 428.0
431.0 438.8
449.8 450.6
RMD0011 671059 236 1444 209.6 -60.3 150.0 0.0 8.1
27.6 29.1
33.6 35.1
42.6 47.0
53.0 53.7
59.0 64.0
70.5 73.6
78.7 79.2
86.0 86.6
94.0 95.0
99.0 101.0
103.6 111.9
121.2 121.7
133.0 135.2
139.9 140.6
RMD0012 671089 323 1449 180.2 -59.4 136.0 6.7 8.2
11.2 12.7
36.7 39.7
60.0 66.0
76.3 77.2
83.0 84.0
89.0 89.5
113.0 114.0
120.0 121.0
124.8 125.6
130.0 131.0
RMD0013 671045 317 1450 201.2 -59.8 233.3 14.2 15.7
43.5 47.2
50.0 52.0
57.8 58.8
63.8 64.7
69.0 71.0
82.8 91.0
109.5 110.0
118.5 119.5
130.5 133.0
139.7 144.0
148.0 148.7
156.0 156.8
160.0 161.7
164.3 175.0
181.0 185.0
194.0 198.0
207.0 207.9
214.5 215.0
222.3 223.1
RMD0014 670943 270 1451 303.8 -74.8 242.3 0.9 2.4
15.9 17.4
29.4 38.4
48.0 52.8
57.3 58.3
64.0 69.6
76.0 83.0
123.0 125.5
131.0 139.0
143.7 144.3
153.8 154.3
156.8 157.3
163.0 172.3
188.0 189.0
200.0 201.0
218.0 219.0
233.0 237.0
240.0 242.3
RMD0015 670940 269 1451 239.7 -59.2 164.2 15.7 17.2
26.2 27.7
33.7 35.2
38.2 39.7
42.7 46.0
53.0 55.0
60.0 62.1
83.6 84.2
87.0 90.0
93.0 94.7
97.9 98.5
106.0 107.0
127.0 130.0
136.5 143.0
RMD0016 670978 350 1451 239.2 -59.6 214.6 6.7 8.2
41.0 43.0
55.0 64.0
73.0 73.6
91.0 92.0
101.7 102.8
129.0 130.0
144.0 152.0
167.8 168.3
173.0 175.3
180.7 181.3
184.0 190.2
RMD0017 670859 364 1451 350.2 -70.0 230.5 45.9 49.9
87.0 94.0
101.0 102.0
108.0 109.5
126.0 126.5
137.0 138.0
140.6 144.0
152.0 153.0
158.0 159.0
175.8 176.5
201.0 208.0
RMD0018 670930 388 1449 251.0 -80.0 179.3 41.0 45.0
48.0 49.0
74.0 74.5
104.0 104.5
112.0 113.2
141.1 141.7
161.0 162.0
178.0 179.3
RMD0019 670973 393 1449 239.6 -84.8 215.2 30.9 41.0
69.0 69.5
84.7 85.7
100.5 101.6
136.0 137.0
174.0 177.0
187.7 190.0
199.0 204.0
APPENDIX 5: SIGNIFICANT INTERCEPTS TABLE
Drill Hole Interval (m) Au (g/t) From (m) To (m) Prospect
ANRDD001 1.0 0.64 32.6 33.6 Ramula
1.0 1.62 42.5 43.5
3.4 0.71 47.1 50.4
including:
1.5 1.35 49.0 50.4
3.4 0.71 47.1 50.4
1.5 1.35 49.0 50.4
1.4 1.44 63.7 65.2
1.0 0.74 72.8 73.8
0.6 4.72 79.7 80.4
1.7 5.19 102.7 104.4
7.0 2.00 108.6 115.6
including:
0.8 8.30 114.8 115.6
2.1 0.73 169.5 171.6
1.0 0.57 185.5 186.5
4.6 1.41 192.6 197.3
0.4 1.33 201.2 201.7
1.0 1.71 205.3 206.3
0.8 0.86 211.1 211.9
ANRDD002 2.8 1.28 47.4 50.2 Ramula
2.9 1.41 92.6 95.5
including:
1.0 3.25 92.6 93.6
1.0 1.45 98.0 99.0
2.8 10.86 104.7 107.4
including:
0.9 23.70 106.5 107.4
2.4 1.13 111.3 113.7
0.9 1.48 117.7 118.5
1.2 0.63 129.2 130.5
1.0 0.99 143.2 144.2
4.7 1.00 197.7 202.4
2.3 0.68 218.8 221.1
5.4 0.77 237.7 243.1
including:
1.0 2.63 239.2 240.2
0.8 1.67 254.6 255.4
ANRDD003 1.0 0.79 10.8 11.8 Ramula
2.3 2.43 44.9 47.2
3.3 5.19 52.6 55.9
including:
0.6 26.20 54.2 54.7
9.0 1.12 58.9 67.9
1.1 0.68 74.9 76.0
3.0 1.02 79.5 82.6
2.0 0.83 94.5 96.5
5.5 0.86 105.6 111.0
including:
1.0 3.05 110.0 111.0
1.0 0.52 125.0 126.0
3.0 0.61 129.0 132.0
2.0 1.16 144.7 146.7
4.8 0.87 151.2 156.0
8.5 5.05 170.6 179.1
including:
0.5 52.50 177.6 178.1
3.0 1.47 182.0 185.0
1.0 0.54 194.0 195.0
11.6 5.25 199.0 210.6
including:
3.0 15.16 206.7 209.7
1.2 1.61 213.8 215.0
1.0 0.55 233.0 234.0
4.1 10.41 251.9 256.0
including:
1.2 28.50 251.9 253.2
0.8 0.56 261.0 261.8
1.0 0.52 269.8 270.8
ANRDD004 0.9 3.72 19.0 19.9 Ramula
4.6 1.35 70.5 75.1
6.0 2.76 83.5 89.5
including:
1.0 12.90 83.5 84.5
1.2 2.48 94.6 95.8
3.7 15.30 106.1 109.8
including:
1.0 57.80 108.9 109.8
0.8 1.94 113.7 114.5
12.2 4.27 123.2 135.4
including:
1.9 21.47 133.5 135.4
2.6 12.24 142.7 145.3
including:
0.5 52.60 142.7 143.3
1.5 1.63 151.5 153.0
including:
0.2 9.43 153.9 154.0
ANRDD005 0.8 1.08 259.0 259.8 Ramula
ANRDD006 2.3 1.13 2.4 4.7 Ramula
0.8 3.61 23.8 24.6
1.0 1.36 53.2 54.2
1.0 1.07 96.0 97.0
2.4 2.47 106.7 109.1
3.0 3.89 119.7 122.7
including:
1.1 9.20 120.7 121.8
1.1 1.05 144.6 145.7
4.7 1.00 148.8 153.5
including:
1.0 3.29 152.5 153.5
1.0 0.51 163.0 164.0
1.0 4.05 172.0 173.1
1.0 2.54 177.5 178.5
1.0 3.54 199.3 200.3
6.8 4.73 221.1 227.9
including:
1.2 25.14 225.6 226.8
5.0 1.00 233.8 238.8
including:
2.1 2.10 236.7 238.8
5.7 0.85 253.1 258.8
including:
0.6 4.86 258.3 258.8
ANRDD007 9.2 0.76 2.6 11.8 Ramula
including:
3.2 1.19 2.6 5.8
including:
1.0 1.13 9.9 10.9
3.3 7.71 53.7 57.0
including:
0.8 22.00 55.4 56.2
4.0 0.85 66.0 70.0
including:
1.0 2.54 69.0 70.0
1.1 0.51 80.9 82.0
1.0 25.40 88.9 89.8
1.0 2.10 93.2 94.2
1.6 8.27 103.2 104.8
including:
0.8 15.05 104.0 104.8
1.0 1.45 108.8 109.8
0.6 4.71 134.2 134.8
1.0 32.30 147.4 148.4
3.8 0.97 161.5 165.3
including:
0.9 2.92 164.4 165.3
3.0 0.37 182.2 185.2
2.5 18.83 199.1 201.6
including:
0.8 62.10 200.9 201.6
ANRDD008A No significant intercepts Ramula
ANRDD008B 1.1 0.52 77.5 78.6 Ramula
6.1 0.71 92.4 98.5
1.0 1.80 110.0 111.0
5.1 0.54 233.9 239.0
ANRDD009 5.2 0.48 4.8 10.0 Ramula
3.0 5.05 50.0 53.0
including:
1.0 13.65 50.0 51.0
0.9 0.89 66.0 66.9
6.0 2.63 84.0 90.0
including:
1.0 13.55 89.0 90.0
1.1 2.60 99.0 100.1
3.0 60.10 126.0 129.0
including:
2.0 89.70 126.0 128.0
1.0 0.74 163.0 164.0
ANRDD010 0.8 0.86 26.4 27.2 Ramula
1.0 0.53 39.0 40.0
1.0 0.64 51.0 52.0
6.0 3.44 59.0 65.0
including:
1.0 19.05 62.0 63.0
1.0 0.51 70.0 71.0
1.0 3.36 77.0 78.0
2.2 3.79 90.0 92.2
including:
1.0 7.59 90.0 91.0
3.0 5.61 125.0 128.0
including:
1.0 13.90 127.0 128.0
1.0 1.20 146.0 147.0
1.0 0.93 156.0 157.0
1.0 0.71 173.0 174.0
2.0 0.68 184.0 186.0
2.0 2.33 189.0 191.0
3.0 0.59 194.0 197.0
7.0 0.56 201.0 208.0
6.0 0.81 212.0 218.0
6.0 2.43 221.0 227.0
including:
3.0 4.33 221.0 224.0
1.0 3.74 231.0 232.0
1.0 0.95 235.0 236.0
3.7 1.36 239.3 243.0
1.0 0.58 249.0 250.0
10.0 1.13 253.0 263.0
including:
3.0 1.74 257.0 260.0
8.0 0.78 266.0 274.0
6.5 1.04 277.5 284.0
1.0 2.13 301.0 302.0
1.0 0.83 332.0 333.0
1.2 0.80 359.8 361.0
1.0 0.53 372.0 373.0
1.0 4.55 381.0 382.0
1.0 3.35 413.0 414.0
ANRDD011 0.5 1.42 0.0 0.5 Ramula
1.0 11.00 32.0 33.0
4.0 0.69 51.0 55.0
including:
1.0 1.78 51.0 52.0
1.0 0.60 65.0 66.0
5.0 1.18 73.0 78.0
including:
2.0 2.70 76.0 78.0
3.0 1.74 85.0 88.0
4.5 1.28 91.0 95.5
including:
2.5 2.09 93.0 95.5
3.0 0.46 101.0 104.0
1.0 0.94 114.0 115.0
1.0 0.74 121.0 122.0
3.0 1.25 131.0 134.0
4.0 0.63 139.0 143.0
including:
1.0 1.81 142.0 143.0
1.0 0.50 148.0 149.0
6.0 1.48 154.0 160.0
including:
4.0 2.03 156.0 160.0
2.3 7.96 166.7 169.0
including:
0.8 20.70 166.7 167.5
1.0 0.50 243.0 244.0
RMD0001 1 4.97 74 75 Ramula
1 2.26 137.8 138.8
0.5 2.35 166.7 167.2
RMD0002 1.5 2.09 66.9 68.4 Ramula
1 1.41 73.5 74.5
0.5 21.7 90.9 91.4
3.6 2.85 95.4 99
including:
1.1 3.95 95.4 96.5
including:
1 5.29 98 99
0.5 1.27 114.2 114.7
0.6 24.9 122.4 123
0.5 1.05 143.6 144.1
11.7 3.61 153 164.7
including:
2 12.1 153 155
including:
0.5 18.6 164.2 164.7
RMD0005 0.5 1.95 201.3 201.8 Ramula
0.5 1.56 209.8 210.3
0.7 1.24 228.8 229.5
0.8 27.0 234.2 235
RMD0010 9 1.37 8.0 17.0 Ramula
1.5 4.74 28.5 30.0
1 3.23 54.0 55.0
2.1 1.57 108.6 110.7
2.9 1.37 133.7 136.6
2 1.13 150.0 152.0
60.8 3.75 155.8 216.6
including:
7.2 8.31 155.8 163.0
including:
15.6 9.37 187.9 203.5
including:
7.6 1.04 209.0 216.6
1.2 2.07 235.7 236.9
1 1.33 253.0 254.0
2 1.33 257.0 259.0
7 1.08 297.0 304.0
3 1.89 320.0 323.0
12.7 1.46 329.9 342.6
including:
1.5 5.12 341.1 342.6
1 5.44 352.7 353.7
6 1.99 411.0 417.0
including:
1 10.20 413.0 414.0
0.7 3.04 420.4 421.1
7.8 2.86 431.0 438.8
including:
0.8 13.90 438.0 438.8
0.8 2.36 449.8 450.6
RMD0011 8.1 1.17 0.0 8.1 Ramula
including:
0.6 7.96 0.0 0.6
1.5 2.62 27.6 29.1
4.4 1.27 42.6 47.0
3.1 3.22 70.5 73.6
0.5 9.83 78.7 79.2
2.0 1.27 99.0 101.0
8.3 3.08 103.6 111.9
including:
2.5 3.84 103.6 106.1
including:
3.5 4.40 108.4 111.9
0.5 5.82 121.2 121.7
0.7 1.56 139.9 140.6
RMD0012 1.5 2.17 6.7 8.2 Ramula
0.5 6.31 89.0 89.5
1.0 1.59 113.0 114.0
1.0 1.81 120.0 121.0
RMD0013 1.5 14.90 14.2 15.7 Ramula
3.7 4.48 43.5 47.2
including:
1.1 11.40 44.6 45.7
2.0 1.17 50.0 52.0
2.0 2.14 69.0 71.0
8.2 1.00 82.8 91.0
0.5 5.29 109.5 110.0
4.3 1.05 139.7 144.0
10.7 3.44 164.3 175.0
including:
0.8 27.40 173.2 174.0
4.0 2.03 181.0 185.0
4.0 1.83 194.0 198.0
0.5 2.24 214.5 215.0
0.8 1.04 222.3 223.1
RMD0014 9.0 2.37 29.4 38.4 Ramula
including:
1.5 12.50 35.4 36.9
4.8 23.40 48.0 52.8
including:
0.5 220.00 48.5 49.0
1.0 2.65 57.3 58.3
7.0 0.70 76.0 83.0
including:
0.5 2.24 82.5 83.0
2.5 9.86 123.0 125.5
8.0 4.12 131.0 139.0
including:
2.5 11.78 136.5 139.0
0.5 7.69 153.8 154.3
0.5 1.26 156.8 157.3
9.3 6.35 163.0 172.3
including:
1.0 44.50 171.3 172.3
1.0 2.39 188.0 189.0
2.3 1.46 240.0 242.3
RMD0015 3.0 1.24 87.0 90.0 Ramula
1.7 2.21 93.0 94.7
6.5 1.10 136.5 143.0
including:
0.5 5.30 140.0 140.5
RMD0016 1.5 3.29 6.7 8.2 Ramula
9.0 18.90 55.0 64.0
including:
0.6 240.00 62.8 63.4
0.6 19.30 73.0 73.6
1.0 1.42 91.0 92.0
1.0 1.00 129.0 130.0
8.0 3.35 144.0 152.0
including:
3.6 6.08 144.0 147.6
0.5 1.78 167.8 168.3
2.3 5.42 173.0 175.3
0.6 1.79 180.7 181.3
6.2 5.86 184.0 190.2
including:
1.6 15.10 187.0 188.6
RMD0017 7.0 2.07 87.0 94.0 Ramula
including:
0.8 14.00 93.2 94.0
1.0 1.23 101.0 102.0
1.5 2.22 108.0 109.5
0.5 1.40 126.0 126.5
1.0 1.18 137.0 138.0
3.4 1.74 140.6 144.0
1.0 1.36 152.0 153.0
1.0 3.66 158.0 159.0
0.7 1.25 175.8 176.5
7.0 0.67 201.0 208.0
including:
0.5 3.50 203.9 204.4
RMD0018 4.0 13.90 41.0 45.0 Ramula
including:
0.9 56.20 43.6 44.5
1.0 1.55 48.0 49.0
0.5 1.66 74.0 74.5
0.5 3.28 104.0 104.5
1.2 3.16 112.0 113.2
0.6 7.15 141.1 141.7
1.0 3.14 161.0 162.0
1.3 1.06 178.0 179.3
RMD0019 10.1 1.71 30.9 41.0 Ramula
including:
3.0 2.55 30.9 33.9
1.0 4.01 84.7 85.7
1.1 6.95 100.5 101.6
3.0 4.17 174.0 177.0
2.3 3.49 187.7 190.0
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