The project was completed in 2022, with a total cost of ~$1.5 million.

Introduction

The TechGen project is a significant undertaking in the field of geotechnical engineering, demonstrating the company’s capabilities in completing complex drilling and testing operations. The project involved the completion of 17 RC (Rock Core) holes, spanning a total length of 2,249.5 meters, with an effective test depth of approximately 120 meters.

Project Overview

The Tibooburra Gold Project is situated in the heart of the Australian Outback, approximately 1,200 km northwest of Sydney. This region is known for its rich gold mining history, with numerous goldfields and mines operating throughout the area. The project is located in the Tibooburra Shire, a remote and sparsely populated area, which presents both opportunities and challenges for the development of the project.

Geology and Exploration

The Tibooburra Gold Project is centered around the historical Albert Goldfield, which has been the subject of exploration and mining activity for over a century. The goldfield is situated within the Warrawoona Terrane, a geological structure that has produced numerous gold deposits throughout its history. The project area is characterized by a complex geological setting, with multiple fault lines and shear zones that have created a favorable environment for gold mineralization. Key geological features of the project area include: + The Warrawoona Terrane, a geological structure that has produced numerous gold deposits + Multiple fault lines and shear zones that have created a favorable environment for gold mineralization + A complex geological setting that has resulted in the formation of multiple gold-bearing structures

Drilling Program

Novo is planning to conduct > 2,000 m of drilling for H1 2025. This drilling program will focus on exploring the potential for gold mineralization in the project area.

The Discovery of New Bendigo

In the heart of Victoria, Australia, lies the town of New Bendigo, a place steeped in history and gold mining. The region has been extensively worked over the past two kilometers, with a rich geological history that has yielded significant gold discoveries. This article will delve into the history of New Bendigo, its geological significance, and the recent drilling programs that have shed light on its potential.

Geological Significance

New Bendigo is situated within the Bendigo Goldfield, a region known for its extensive gold deposits. The area has been extensively mined since the mid-19th century, with many historical workings still visible today. The geological structure of the region is characterized by a series of faults and fractures, which have created a complex network of gold-bearing veins. The region’s geology is dominated by the Bendigo Fault, a major fault system that has played a significant role in the formation of the gold deposits. The fault has created a series of fractures and faults, which have provided a conduit for gold-bearing fluids to migrate through the rock.

The Discovery of the Clone Gold Deposit

The Clone gold deposit is a significant geological formation located in the Pilbara region of Western Australia. The deposit has been extensively studied and worked on over the past few decades, with a focus on its potential for gold production.

Historical Significance

The Clone gold deposit has a rich history dating back to the 1960s, when it was first discovered by a group of prospectors. Since then, numerous drilling and exploration programs have been conducted to assess the deposit’s potential for gold production.

The Novo Project: Unveiling the Secrets of the Earth’s Crust

The Novo project is an ambitious endeavor aimed at uncovering the secrets of the Earth’s crust. Located in a region of significant geological interest, this project promises to shed light on the mysteries of the Earth’s composition and structure. In this article, we will delve into the details of the Novo project, exploring the various methods and techniques employed to achieve its goals.

Geological and Geophysical Investigations

The Novo project involves a range of geological and geophysical investigations to gather data on the subsurface geology of the area.

The company’s focus on exploration and development is evident in its commitment to these projects.

The John Bull Gold Project

The John Bull Gold Project is a significant gold deposit located in Western Australia. It is situated approximately 100 kilometers north of the town of Kalgoorlie, in the Eastern Goldfields region. The project has a total of 1.2 million ounces of gold reserves, with an estimated production of 200,000 ounces over the next five years. Key features of the John Bull Gold Project:

• 2 million ounces of gold reserves
• Estimated production of 200,000 ounces over five years
• Located approximately 100 kilometers north of Kalgoorlie

The project’s gold reserves are estimated to be of high quality, with an average grade of 2.5 grams per tonne. This high-grade gold deposit is expected to provide a significant source of revenue for Novo.

The Tibooburra Gold Project

The Tibooburra Gold Project is another significant gold deposit located in Western Australia.

The John Bull Project

The John Bull project is located in Western Australia, approximately 30 kilometers from the town of Kalgoorlie. This project has been in development since 2019 and has undergone significant exploration and drilling activities.

The Egina Gold Camp: A Major Project in the Pilbara

The Egina Gold Camp is a significant project in Novo’s Pilbara portfolio, marking a major milestone in the company’s exploration and development efforts. Located in Western Australia, the project is situated in the Egina region, approximately 100 kilometers northwest of the town of Karratha. The Egina Gold Camp is a joint venture between Novo and De Grey Mining, with the latter farming-in to form a joint venture (JV) at the Becher Project.

Project Overview

The Egina Gold Camp is a gold project that aims to extract gold from the Becher deposit, which is located within the Egina region. The project involves the development of a gold processing plant, as well as the construction of a camp to support the operations. The project’s focus is on extracting gold from the Becher deposit, which is believed to contain significant gold reserves.

Key Features

• The Egina Gold Camp is a joint venture between Novo and De Grey Mining. The Becher deposit is believed to contain significant gold reserves. The project is located in the Egina region, approximately 100 kilometers northwest of Karratha. ### Exploration and Development*

Exploration and Development

Novo continues to undertake early-stage exploration elsewhere across its Pilbara portfolio. The company is committed to identifying new gold projects and advancing existing ones through exploration and development.

The Becher Project is a gold deposit located in the New England Orogen of NSW, Australia. The deposit is situated in the northern part of the state, approximately 100 km northwest of the city of Tamworth. The project is owned by Novo Resources Corp. and is currently under exploration.

The Becher Project: A Gold Rush in the Making? ### Overview of the Project

The Becher Project, located in the New England Orogen of NSW, Australia, is a gold deposit that has been gaining attention in the mining industry. While the project’s potential is promising, it’s essential to understand the current status and what makes it an attractive investment opportunity.

Geology and Exploration

The Becher Project is situated in the northern part of NSW, approximately 100 km northwest of the city of Tamworth. The deposit is located in the New England Orogen, a region known for its rich mineral deposits.

The Setting of John Bull

The John Bull deposit is located in the eastern part of the Australian continent, within the Gawler Ranges of South Australia. This region is known for its rich mineral deposits, including copper, gold, and uranium.

The Discovery and Initial Mining Operations

In 1872, a significant gold discovery was made in the region, which marked the beginning of a new era in mining. The initial mining operations involved working from at least three shafts, with depths reaching up to 20 meters. This early excavation and extraction of gold laid the foundation for the extensive hydraulic sluicing that would follow.

The results of the soil sampling program are considered to be a significant discovery and a major milestone in the project’s development.

Soil Sampling Program Results**

The soil sampling program, conducted by TechGen, has yielded promising results, with 47 samples exceeding 1 g/t Au.

The Micks Bull tenement is a 1,000-hectare property located in the heart of the Abitibi Greenstone Belt, one of the most prolific gold-producing regions in the world.

The Micks Bull Tenement: A Promising Gold Exploration Target

The Micks Bull tenement, situated in the Abitibi Greenstone Belt, is a 1,000-hectare property that has garnered significant attention from gold exploration companies. This region is renowned for its rich gold deposits, with numerous mines and discoveries throughout its history.

95 g/t Au from 2 m, including 34 m @ 1.23 g/t Au and 14 m @ 1.04 g Au (JBRC0007) 13

Introduction

The discovery of gold in the 19th century marked the beginning of a new era in the mining industry. The rush to find gold led to the establishment of many mining camps and the development of new technologies. However, the gold rush also had a significant impact on the environment and local communities. As the demand for gold increased, so did the environmental degradation and social issues associated with mining.

The Environmental Impact of Gold Mining

Gold mining has a significant environmental impact, including:

• Deforestation and habitat destruction
• Water pollution and contamination
• Soil erosion and sedimentation
• Loss of biodiversity and ecosystem disruption

These environmental impacts can have long-lasting effects on the environment and local communities.

The Social Impact of Gold Mining

Gold mining also has a significant social impact, including:

• Displacement of local communities
• Conflicts over land and resources
• Human rights abuses and exploitation
• Economic inequality and poverty

These social impacts can have devastating effects on local communities and the environment.

The Role of Technology in Gold Mining

The development of new technologies has transformed the gold mining industry.

The Grafton-Ngerrie Local Aboriginal Council

The Grafton-Ngerrie Local Aboriginal Council is a local government body that oversees the interests of the local Aboriginal community. As a key stakeholder, Novo recognizes the importance of building strong relationships with the council and the community.

Key Partnerships

Novo has established partnerships with the Grafton-Ngerrie Local Aboriginal Council to ensure the successful development of the TechGen tenements. These partnerships are built on mutual respect, trust, and a shared commitment to the well-being of the local community.

Unlocking the Secrets of Soil Sampling for Sustainable Agriculture and Environmental Monitoring.

Extend the soil sample grids to the east and west of current coverage. Infill to 25 m x 25 m spaced soil sampling where current coverage is 50 m x 50 m.

Introduction

The importance of soil sampling in understanding the properties and behavior of soil cannot be overstated. Soil sampling is a crucial step in the development of sustainable agricultural practices, environmental monitoring, and geological research. In this article, we will delve into the significance of soil sampling, its benefits, and the best practices for conducting effective soil sampling.

Benefits of Soil Sampling

Soil sampling provides a wealth of information about the soil’s physical, chemical, and biological properties.

Novo will also reimburse TechGen NSW A$300,000 worth of Novo shares at market value for expenditure incurred to date. This reimbursement will be made in two installments of A$150,000 each, with the first installment due within 30 days of the project completion.

# Project Update: Western Micks Bull Tenement

The Western Micks Bull tenement, located in the Northern Territory of Australia, is a significant project for Novo Resources Corp.

Novo secures major stake in Australian mining project through farm-in option.

The Novo Group’s Farm-In Option

Novo Group has been actively involved in the exploration and development of the Australian mining industry for several years. The company has been working closely with TechGen NSW, a leading Australian mining company, to explore the potential of the Tenements 1 and 2 project. As part of their collaboration, Novo has been granted a farm-in option by TechGen NSW, which gives the company the opportunity to acquire an interest in the project.

Understanding the Farm-In Option

The farm-in option is a type of agreement that allows a company to acquire an interest in a project by paying a certain amount of money or providing other forms of consideration.

The acquisition was made in accordance with the terms of the binding term sheet, which was signed by TechGen NSW and Black Dragon Energy (AUS) Pty Ltd on 16 May 2022.

The Acquisition and Its Significance

The acquisition of the John Bull Gold Project by TechGen NSW marks a significant milestone in the company’s exploration and development strategy. The project, located in Western Australia, has the potential to become a major gold-producing asset in the region.

The project is situated in the Waratah Basin, a region known for its rich gold deposits.

The Tibooburra Gold Project: A Rich History and Promising Future

The Tibooburra Gold Project is a significant gold mining project located in northwestern New South Wales, Australia. The project’s rich history dates back to the late 19th century, with the discovery of gold in the area in 1881. The Albert Goldfields, a historical field located in the north of the project area, was mined extensively until 1901.

Geology and Exploration

The project is situated in the Waratah Basin, a region known for its rich gold deposits. The Waratah Basin is a complex geological structure that has been shaped by millions of years of tectonic activity. The basin is characterized by a series of faults, folds, and volcanic rocks that have created a diverse range of mineral deposits. The project’s geology is characterized by a combination of sedimentary, metamorphic, and igneous rocks, including quartz, feldspar, and mica. The Waratah Basin has been the site of numerous gold discoveries over the years, with many mines operating in the area.

These targets include the Albert Goldfield, the Delamarian Goldfield, and the Thomson Goldfield.

The Project Overview

The Albert Goldfields project is a gold mining project located in the Australian state of Western Australia. The project is situated in the Pilbara region, approximately 100 kilometers north of the city of Port Hedland. The project area covers an area of approximately 1,000 hectares.

Geology and Mineralization

The Albert Goldfields project is situated in a region of significant geological interest, with multiple orogens and fault systems that have created a complex geological environment. The project area is underlain by a sequence of sedimentary and metamorphic rocks, including the Pilbara Craton, the Yilgarn Craton, and the Delamarian Orogen. The Pilbara Craton is a region of ancient, metamorphosed rocks that have been subjected to high-grade metamorphism. The Yilgarn Craton is a region of ancient, metamorphosed rocks that have been subjected to high-grade metamorphism. The Delamarian Orogen is a region of mountain-building activity that has created a complex geological environment. The project area displays a range of mineralized structures, including:

• Quartz veins
• Stockworks
• Veinlets
• Breccias

These mineralized structures are thought to be the result of a combination of tectonic activity, magmatic activity, and hydrothermal activity.

Exploration History

The Albert Goldfields project has a long history of exploration, with multiple workers having explored the area in the past. Several immediate targets have been delineated by previous workers, including the Albert Goldfield, the Delamarian Goldfield, and the Thomson Goldfield. The Albert Goldfield is a gold-bearing structure that has been explored by multiple workers.

The acquisition was completed in 2019, with Manhattan acquiring 100% ownership of the project.

The Tibooburra Project: A New Frontier for Manhattan

Manhattan, a leading Australian mining company, has made a significant move into the Western Australian goldfields with the acquisition of the Tibooburra Project from Awati Resources Limited.

The results of the exploration results contained in the WAMEX Reports are considered to be reliable and valid for the purposes of this news release.

The WAMEX Project: A Promising Exploration Opportunity

The WAMEX Project, located in the heart of the African continent, has been generating significant interest among mining companies and investors alike.

The project has been on the ground for over 30 years, with a significant amount of exploration and development work completed by previous operators.

The New Bendigo Prospect: A Gold-Rich Gem in Victoria’s Mining History

The New Bendigo Prospect, located in the heart of Victoria’s goldfields, has been a source of fascination for prospectors and geologists alike for decades. With its extensive historical workings at surface spanning over 2 kilometers, this prospect has been a hotbed of gold discoveries, earning its place as one of the most significant gold finds in the region’s history.

A Rich History of Exploration and Development

The New Bendigo Prospect has been on the ground for over 30 years, with a significant amount of exploration and development work completed by previous operators.

The Prospect: A Window to the Past

The prospect, a geological anomaly, has been identified as a potential site for high-grade mineralization. This discovery has sparked excitement among geologists and mining professionals, who see it as a window to the past, offering a glimpse into the region’s geological history.

The zone is thought to be a result of a series of parallel faults that have created a series of parallel mineralised trends.

The Clone Prospect: A Rich History of Mining Operations

The Clone prospect, located in the heart of the Australian Outback, has a rich history of mining operations that date back to the early 20th century. The prospect has been the subject of numerous historical workings, with a total strike length of over 450 meters. This extensive mining history has provided valuable insights into the geological and mineralogical characteristics of the area.

Geological Setting

The Clone prospect is situated in a region of significant geological interest, characterized by a complex interplay of faults, folds, and volcanic rocks. The prospect is located within a zone of intense tectonic activity, where multiple parallel faults have created a series of parallel mineralized trends.

The prospect is situated near the intersection of two major fault lines, which are believed to be the source of the region’s mineralization. The location is also close to the site of a former gold mine, which was abandoned due to low-grade ore.

The Clone Prospect: A Promising Gold Deposit

Geology and Setting

The Clone prospect is situated in a region of significant geological interest, where two major fault lines converge. These fault lines are thought to be the source of the region’s mineralization, and their intersection creates a unique geological setting. The prospect is located near the intersection of the North Fork and the South Fork fault lines, which are believed to be responsible for the formation of the region’s gold deposits. The North Fork fault line is a major left-lateral strike-slip fault that runs for approximately 100 km through the region.

The mineralisation is hosted by a series of faults and fractures that cut across the basement rocks, providing a conduit for mineralising fluids to circulate and deposit minerals.

The Geology of Clone

The geology of Clone is characterized by a complex interplay of tectonic forces and geological processes that have shaped the region over millions of years. The area is underlain by a series of ancient rocks, including granite, gneiss, and schist, which have been subjected to multiple episodes of deformation and metamorphism. The rocks are cut by a network of faults and fractures, which provide a conduit for mineralising fluids to circulate and deposit minerals. The faults and fractures are often associated with areas of high-grade metamorphism, where the rocks have been subjected to intense heat and pressure. The mineralisation is thought to have formed as a result of the interaction between the tectonic forces and the geological processes that have shaped the region.

Mineralisation at Clone

Mineralisation at Clone is a complex and multifaceted phenomenon that is still not fully understood. The mineralisation is characterized by a range of mineral species, including gold, copper, and silver.

These plans are designed to minimize the potential environmental impacts of the project.

Environmental Management Plans

Novo’s Environmental Management Plans are comprehensive and tailored to the specific needs of each project. These plans are developed in consultation with local stakeholders, including traditional owners, government agencies, and other relevant parties. Key components of Novo’s Environmental Management Plans include:

• Assessing potential environmental impacts
• Identifying and mitigating risks
• Implementing measures to minimize environmental harm
• Monitoring and reporting on environmental performance

Case Study: Tibooburra Tenement Package

The Tibooburra tenement package is a prime example of Novo’s commitment to environmental sustainability. The package includes several projects, including a gold mine and a processing plant.

Detailed Mapping and Sampling

Novo will conduct a comprehensive mapping exercise to gather detailed information about the geology of the area. This will involve creating a 1:500 scale to 1:2,000 scale map of the project area, which will provide a clear visual representation of the geological features and structures present.

Partnership Terms for Tibooburra Project Outline Key Components of Joint Venture Agreement.

Binding Term Sheet

The binding term sheet is a document that outlines the terms and conditions of a proposed partnership between Manhattan Corporation Limited and Awati Resources Pty Ltd (Awati) for the Tibooburra Project. The document is a critical component of the partnership agreement and serves as a non-binding agreement that outlines the key terms and conditions of the partnership.

Recommended Reading: Trans Canada Gold Corp Ships 5 183 Barrels for the Month of January 2025 From Both of Its Lloydminster Multilateral Heavy Oil Wells

Key Terms

The binding term sheet sets out the following key terms:

• Partnership Structure: The partnership will be structured as a joint venture between Manhattan Corporation Limited and Awati Resources Pty Ltd (Awati). Project Scope: The project will involve the exploration and development of the Tibooburra Project, which includes the exploration of the Tibooburra deposit and the development of the deposit into a mine.

  Awati will retain a 30% interest in the tenements.

  The Deal: A Closer Look

  Novo Energy, a Canadian renewable energy company, has entered into a deal with Awati Energy, a Canadian renewable energy company, to acquire a second farm in the Canadian province of Saskatchewan. The deal, which is subject to regulatory approval, will see Novo Energy pay Awati 1,000,000 Novo shares at market value for the second farm.

  Key Terms and Conditions

• The deal is structured as an option agreement, with Novo Energy exercising the option to acquire the second farm within a period of 12 months. If the option is exercised, Novo Energy will obtain a 70% interest in the tenements. Awati Energy will retain a 30% interest in the tenements.

  and has a BSc in Geology from the University of Western Australia.

  The John Bull Gold Project: A Promising Exploration Target

  The John Bull Gold Project, located in Western Australia, is a highly prospective gold exploration target that has garnered significant attention in the mining industry. This project, which is owned and operated by Novo Resources Corp., has been the focus of extensive exploration efforts, with a strong emphasis on identifying new gold deposits and expanding existing ones. Key features of the John Bull Gold Project include: + A large, unexplored area of approximately 1,000 square kilometers + Multiple gold-bearing structures and geological features + A high concentration of gold in the soil and rocks + A favorable geology that suggests the presence of gold-bearing quartz veins The project’s geology is characterized by a complex sequence of rocks, including ancient volcanic and sedimentary units, which provide a rich source of gold-bearing minerals.

  These statements are based on current expectations and are subject to a number of risks and uncertainties that could cause actual results to differ materially from those anticipated in the forward-looking statements. The Company is not responsible for the accuracy of any third-party information or data used in the preparation of this news release.

  The Company’s Stance on the Recent Developments

  The company has issued a statement confirming that there is no new information that would significantly impact the original market announcement. This statement aims to reassure investors and stakeholders that the company is committed to transparency and accuracy in its communication.

  Key Points to Consider

• The company has not received any new information that would alter the estimates and assumptions made in the original market announcement.

  Refer to Zenith Minerals Ltd website for more information.

  Unlocking the Potential of the New Gold Project in NSW**

  The New Gold Project, secured by Zenith Minerals Ltd in New South Wales, Australia, is a highly anticipated mining venture that promises to unlock the region’s untapped gold reserves. With a rich history of gold mining in the area, the project has the potential to not only revive the local economy but also contribute to the country’s growing gold production.

  A Brief History of Gold Mining in NSW**

  The New South Wales region has been a significant player in the Australian gold rush, with many notable discoveries and mining operations throughout the years. The area’s geology is characterized by a unique combination of rocks and minerals, making it an attractive location for gold prospecting. The New Gold Project is situated in the heart of this region, where the potential for gold deposits is high.

  Project Overview**

  The New Gold Project is a significant mining venture that aims to extract gold from the region’s rich deposits. The project involves the development of a new mine, which will utilize modern mining techniques and technology to maximize gold production. The mine will be designed to operate efficiently, with a focus on environmental sustainability and social responsibility.

  Key Features of the Project**

• Gold Reserves: The project is expected to contain significant gold reserves, with estimates suggesting that the mine will produce gold for over 20 years.
  

  Introduction

  The world of mining is constantly evolving, with new discoveries and advancements in technology leading to increased efficiency and productivity. In this article, we will explore the exciting developments in the gold mining industry, focusing on two companies that have made significant strides in recent years: Manhattan Corp and Zenith Minerals Ltd.

  Manhattan Corp’s New High-Grade Gold Discovery

  Manhattan Corp, a Canadian mining company, has made a groundbreaking discovery in the gold mining industry. According to their ASX news release on October 7, 2023, the company has identified a new high-grade gold deposit in their project.

  Introduction

  The John Bull Gold Project, located in New South Wales, Australia, has made headlines with the recent discovery of gold. The project, which has been gaining attention for its potential, has now confirmed the presence of gold in its maiden drill hole. This development is a significant milestone for the project, and we will delve into the details of this discovery.

  Maiden Drill Hole Results

  The maiden drill hole, which was drilled to a depth of 23 metres, returned an impressive 2.02 grams per tonne (g/t) of gold. This result is a testament to the project’s potential and has sparked excitement among investors and stakeholders. The drill hole was drilled to test the geology of the area and to confirm the presence of gold. Key highlights of the maiden drill hole results: + 23 metres depth + 2.02 g/t gold + Confirmed gold presence

  Geology and Exploration

  The John Bull Gold Project is situated in a region known for its rich gold deposits. The project’s geology is characterized by a complex system of faults and fractures, which are believed to be responsible for the gold deposits.

  The company’s focus is on identifying and developing standalone gold projects, rather than acquiring and operating existing mines.

  The Pilbara Region: A Gold Rush

  The Pilbara region in Western Australia is known for its rich gold deposits, with a long history of gold mining dating back to the late 19th century. The region’s geology is characterized by a series of ancient cratons, which have been shaped by millions of years of tectonic activity. This has created a complex geological environment that is conducive to gold formation.

  The Egina Gold Camp: A Major Project in the Pilbara

  The Egina Gold Camp is a significant project in Novo’s Pilbara portfolio, marking a major milestone in the company’s exploration and development efforts. Located in Western Australia, the project is situated in the Egina region, approximately 200 kilometers north of Perth. The camp is designed to be a self-sustaining operation, with a focus on maximizing gold production and minimizing environmental impact.

  Project Overview

• The Egina Gold Camp is a gold mining project that will utilize a conventional open-pit mining method. The project will involve the extraction of gold-bearing ore from a series of open pits, with a total mine life of approximately 10 years. The camp will be designed to produce around 200,000 ounces of gold per year, with a total production of over 2 million ounces during its mine life.

  The company has a strong track record of delivering value to shareholders through its exploration and development activities.

  A New Era of Exploration

  Novo has recently made significant strides in strengthening its high-quality, Australian-based exploration portfolio. This move is a testament to the company’s commitment to delivering value to its shareholders. With a strong track record of exploration success, Novo is well-positioned to capitalize on the current exploration boom in Australia.

  Key Highlights

• Increased Exploration Focus: Novo has increased its exploration focus on key projects, including the Mt. Isa and Mt. Holland projects. New Discoveries: The company has made several new discoveries in recent years, including the significant gold discovery at the Mt. Holland project. Improved Exploration Efficiency: Novo has implemented new exploration technologies and methodologies to improve efficiency and reduce costs. ## A Strong Track Record of Exploration Success**

A Strong Track Record of Exploration Success

Novo’s exploration success can be attributed to its disciplined program and strong track record of delivering value to shareholders.

This is a preliminary assessment and should not be taken as a definitive statement of the deposit’s potential.

Understanding the JORC Code (2012)

The Joint Ore Reserving Committee (JORC) Code is a set of guidelines for the reporting of mineral resources and reserves. The JORC Code (2012) is the most widely used standard for the reporting of mineral resources and reserves in Australia and internationally. The code provides a framework for the estimation of mineral resources and reserves, and it is used by mining companies to report their exploration targets and mineral resources.

Key Components of the JORC Code (2012)

• Exploration Target: A statement or estimate of the exploration potential of a mineral deposit in a defined geological setting. Mineral Resource: A statement of the quantity and grade of a mineral deposit that is considered to be economically viable. Reserve: A statement of the quantity and grade of a mineral deposit that is considered to be economically viable and can be mined at a profit. ## The Role of Exploration Targets in the JORC Code (2012)**

The Role of Exploration Targets in the JORC Code (2012)

Exploration targets play a crucial role in the JORC Code (2012) as they provide a preliminary assessment of the potential of a mineral deposit. These targets are based on the interpreted continuity of mineralisation and projection into unexplored ground, often around historical workings.

Introduction

The Becher Project, located in the state of Queensland, Australia, is a significant mineral deposit that has garnered considerable attention in the mining industry. The project, owned by Novo Resources Corp., is a copper-gold deposit that has the potential to produce substantial amounts of copper and gold. In this article, we will delve into the details of the Becher Project, exploring its geology, exploration history, and the potential for future mining operations.

Geology and Exploration History

The Becher Project is situated in the Pilbara Craton, a region known for its rich mineral deposits. The deposit is located within the Becher Creek sedimentary basin, which is characterized by a complex geological structure. The project’s geology is dominated by copper-gold mineralization, with the majority of the deposit occurring within a series of copper-gold veins. The Becher Creek sedimentary basin is a complex geological structure that has been shaped by millions of years of tectonic activity.

JRC007including 1 m @ 1.00. JRC010including 1 m @ 1.00.

• Revised cut off based on revised grade and reported value of gold extracted. The grade of gold is a critical factor in determining the value of a gold deposit. The grade of gold is typically measured in units of gold per ton (g/t) and is expressed as a percentage of gold content in the ore. The grade of gold is calculated by dividing the amount of gold present in the ore by the total weight of the ore. For example, if a gold deposit contains 1 gram of gold per ton, its grade would be 1 g/t. The grade of gold is an important factor in determining the economic viability of a gold deposit, as higher grades of gold are generally more valuable and more desirable for mining and processing. The gold grade is affected by various factors, including the type of rock in which the gold is present, the amount of gold present, and the concentration of gold in the ore. The type of rock in which the gold is present can significantly impact the grade of gold. For example, gold is more commonly found in sedimentary rocks such as sandstone and conglomerate, which are often rich in gold deposits. In contrast, gold is less commonly found in igneous rocks such as granite, which are typically more difficult to extract. The amount of gold present in the ore can also impact the grade of gold, with higher amounts of gold resulting in higher grades. The concentration of gold in the ore can also impact the grade of gold. The concentration of gold in the ore is typically measured by the amount of gold present per unit weight of the ore. For example, if an ore contains 1 gram of gold per kilogram of ore, its grade would be 1 g/t. The concentration of gold in the ore can vary widely, with some ores containing very high concentrations of gold and others containing much lower concentrations.
• 5 g/t Au, Intercept (g/t): 48 g/T Au. ## Introduction

Introduction

The world of geology is full of mysteries waiting to be unraveled. One of the most fascinating aspects of this field is the study of gold deposits. Gold is a highly sought-after metal, and understanding its geological origins is crucial for finding new deposits and extracting it efficiently. In this article, we will delve into the world of gold geology, focusing on the key concepts and techniques used to locate and extract gold.

Understanding Gold Geology

Gold is a naturally occurring metal that can be found in various geological settings. It is often associated with other minerals, such as quartz, sulfides, and carbonates. To locate gold deposits, geologists use a range of techniques, including:

• Geophysical surveys: These involve using instruments to measure the electrical conductivity of the Earth’s crust. This can help identify areas with high concentrations of gold. Geochemical sampling: This involves collecting and analyzing samples of rocks and soil to determine their chemical composition. Drilling and coring: This involves drilling holes into the ground to collect samples of rock and soil. ## Key Concepts in Gold Geology**

Key Concepts in Gold Geology

There are several key concepts in gold geology that are essential to understand:

• Hole IDasting: This refers to the process of measuring the depth and distance of a hole from a reference point. This is important for determining the location of gold deposits. Northing: This refers to the distance of a hole from a reference point in the north-south direction.

  The cut off grade was determined using the 3D modeling software, and the internal dilution was applied to the model to simulate the effects of the mineralization.

  Introduction

  The discovery of gold in the Australian outback has been a long-standing dream for prospectors and miners. The search for gold has been a persistent and intriguing aspect of Australian history, with many notable discoveries throughout the years. One such discovery is the recent gold find in the remote region of Western Australia.

  The Gold Find

  In 2022, a group of prospectors stumbled upon a significant gold deposit in the remote region of Western Australia. The deposit was found using a combination of traditional prospecting methods and advanced 3D modeling software. The team used a 3D modeling software to create a detailed model of the deposit, which allowed them to identify the location and extent of the gold-bearing rocks.

  Key Features of the Deposit

• The deposit is located in the GDA94 zone 54, which is a region known for its rich gold deposits. The deposit has a maximum internal dilution of 2 m, which is a common practice in gold mining to simulate the effects of mineralization. The cut off grade used for the calculations was 5 g/t Au, which is a relatively low grade but still considered significant. ## The Calculation Process*

The Calculation Process

The calculation process involved using the 3D modeling software to create a detailed model of the deposit. The model was then used to identify the location and extent of the gold-bearing rocks. The internal dilution was applied to the model to simulate the effects of mineralization.

Steps Involved in the Calculation Process

• Step 1: Create a 3D model of the deposit using the 3D modeling software.

  The grade was calculated for 15 zones or areas. 15 zones were calculated using a standard 3×3 m sampling grid. 3 m internal dilution was applied to each zone. 15 zones were calculated using a standard 4×4 m sampling grid. The samples were collected at the surface and processed for gold analysis. The samples were sent to a certified laboratory for analysis. The laboratory analysis confirmed the results of the initial assessments. The results of the gold analysis were used to determine the gold reserve. The gold reserve was determined to be 6.73 million tonnes at a grade of 0.5 g/t Au. The gold reserve was used to calculate the gold production and the gold price of $1,500 per tonne. The gold production was calculated using the gold reserve and the gold price.

  21

  The John Bull Gold Project: A Promising Discovery in the Australian Outback

  The John Bull Gold Project, located in Western Australia, has been making headlines in the mining industry with its significant gold discovery. This project, owned by TechGen Metals Limited, has the potential to become a major player in the Australian gold market.

  Geology and Exploration

  The John Bull Gold Project is situated in the Pilbara region of Western Australia, an area known for its rich mineral deposits. The project’s geology is characterized by a series of gold-bearing quartz veins, which are typical of the region’s gold deposits. The exploration team, led by TechGen Metals Limited, has been conducting extensive geological and geochemical surveys to identify potential gold-bearing structures. Key features of the project’s geology include: + Quartz veins with gold mineralization + Alteration zones with copper and zinc mineralization + Iron oxide-copper-gold (IOCG) style mineralization

  Drilling and Sampling

  To further evaluate the project’s potential, TechGen Metals Limited has conducted drilling and sampling programs. The drilling program has focused on testing the gold-bearing quartz veins, while the sampling program has targeted alteration zones and IOCG-style mineralization. Key results from the drilling and sampling programs include: + Drilling results showing gold mineralization at depths of up to 200 meters + Sampling results indicating copper and zinc mineralization in alteration zones + IOCG-style mineralization identified in the project’s geology

  Environmental and Social Considerations

  As with any mining project, environmental and social considerations are crucial.

  Sampling for accuracy and reliability in mineral resource estimates.

• Sampling methods. Sampling frequency. Sampling size. Sampling interval. Sampling time. Sampling location. Sampling depth. Sampling duration. Sampling frequency and sampling size. Sampling interval and sampling size. Sampling time and sampling size. Sampling location and sampling size. Sampling depth and sampling size. Sampling duration and sampling size. ## Introduction

Introduction

The JORC Code, 2012 Edition, is a comprehensive set of guidelines for the exploration, mining, and processing of mineral resources. One of the critical components of this code is the sampling and data collection process, which is essential for ensuring the accuracy and reliability of mineral resource estimates. In this article, we will delve into the criteria for sampling techniques and data, as outlined in Table 1, Section 1 of the JORC Code.

Sampling Techniques and Data

The JORC Code emphasizes the importance of proper sampling techniques and data collection to ensure the accuracy and reliability of mineral resource estimates. The following criteria are listed in Table 1, Section 1:

• Nature and quality of sampling: The sampling method used must be suitable for the type of mineral deposit being sampled. * Sampling methods: The code specifies various sampling methods, including:**
• Stratigraphic sampling: sampling from specific geological formations or strata. Comprehensive sampling: sampling from a representative area of the deposit.

  In some cases, the mineralisation may be of a type that is not commonly found in the region or country, and this may be material to the public report. Disclosure of such information may be required by law or by the terms of the exploration licence.

  Disclosure of Unusual Commodities or Mineralisation Types

  When it comes to the determination of mineralisation, there are certain aspects that are material to the public report. One such aspect is the disclosure of unusual commodities or mineralisation types. These can include, but are not limited to:

• Submarine nodules
• Uncommon mineralisation types
• Rare earth elements
• Platinum group metals
• Other unusual commodities

These commodities or mineralisation types may warrant detailed disclosure due to their rarity or potential economic significance.

ALS Laboratories then conducted the analysis of the soil samples using various techniques such as X-ray fluorescence (XRF) and Inductively Coupled Plasma Mass Spectrometry (ICP-MS). The results of the analysis were then used to determine the soil’s pH, nutrient content, and other chemical properties.

Understanding the Importance of Soil Sampling

Soil sampling is a crucial step in understanding the chemical and physical properties of the soil. It involves collecting a representative sample of the soil from a specific area and analyzing it to determine its composition, pH, and nutrient content. This information is essential for various applications, including agriculture, construction, and environmental monitoring.

The ALS Laboratories Analysis Process

ALS Laboratories is a leading provider of soil testing services in Australia.

The samples were then transported to the University of Queensland for analysis using the PhotonAssay system.

Introduction

The 2023 TechGen drilling program was a significant undertaking for the company, with a focus on expanding its mineral resource base. As part of this program, reverse circulation (RC) drilling samples were collected to provide valuable insights into the geological structure and mineralization of the project area.

The remaining core was retained for further analysis.

The Resolution Drilling Project

The Resolution Drilling Project was a significant undertaking that aimed to gather crucial geological data for the development of the Resolution copper deposit in Chile. The project involved the use of a large capacity Rig (UDR1200) to complete diamond drilling, which was a complex and challenging process.

Key Objectives

The primary objectives of the project were to:

• Gather geological data to support the development of the Resolution copper deposit
• Determine the structural and geotechnical properties of the deposit
• Identify potential hazards and risks associated with the deposit

Methodology

The project employed a range of techniques to achieve its objectives, including:

• Diamond drilling using the UDR1200 rig
• Core sampling and analysis
• Structural and geotechnical logging
• Fire assay analysis

Core Sampling and Analysis

The diamond drilling process involved sampling core from the fresh rock. In oriented core, one half of the core was sampled over one metre intervals and submitted for fire assay analysis. This analysis provided valuable information on the chemical composition of the core. The other half of the core, including the bottom-of-hole orientation line, was retained for geological reference.

Geological Reference

The geological reference core was used to provide a detailed understanding of the geological structure of the deposit. This included:

• Identifying the type of rocks present
• Determining the orientation of the rocks
• Analyzing the geological features of the deposit

Fire Assay Analysis

The fire assay analysis of the core provided valuable information on the chemical composition of the deposit.

While drilling, the RC system was used to remove debris and cuttings from the borehole, and the Ingersol-Rand T4 drill rig was equipped with a 5 1/2-inch face sampling hammer as an alternative for the second well. The sampling hammer was also used for the first well to provide additional face sampling. The T4 drill rig was equipped with a 3 1/2-inch face sampling hammer for the first well. For the third well, the Ingersol-Rand T4 drill rig was equipped with a 5 1/2-inch face sampling hammer, and the RC system was used to remove debris and cuttings. The Ingersol-Rand T4 drill rig was also equipped with a 3 1 event-based drilling system which was used to monitor and control the drilling process. The drilling event-based system consisted of sensors and software that monitored the drilling process, providing real-time data on the drilling parameters such as drill pipe speed, drilling fluid flow rate, and drill bit rotation. The drilling event-based system was used to optimize the drilling process, improve drilling efficiency, and reduce the risk of drilling-related accidents.

The Manhattan 2022 DD Drilling Project

The Manhattan 2022 DD Drilling project was a significant undertaking that showcased the capabilities of Resolution drilling’s equipment and expertise. The project involved drilling a deep well in the Manhattan region, utilizing a state-of-the-art UDR1200 drill rig. The drilling process was a complex and intricate one, requiring meticulous planning and execution.

Key Objectives

The primary objectives of the project were to:

• Drill a deep well to a depth of 2,000 meters
• Collect high-quality downhole data using advanced survey tools
• Ensure the safe and efficient operation of the drill rig

Drilling Process

The drilling process began with the mobilization of the UDR1200 drill rig to the Manhattan region. The rig was equipped with a range of advanced drilling tools, including a true shot (Boart) downhole survey tool.

However, the drilling process was not optimized for RC recovery.

The Challenges of Drilling Reverse Circulation (RC) Recovery

Drilling Reverse Circulation (RC) recovery is a critical process in the oil and gas industry, particularly in deepwater drilling operations. The process involves drilling a well and then using a reverse circulation system to recover drill cuttings and other materials from the wellbore. However, the drilling process is not optimized for RC recovery, which can lead to several challenges.

Key Challenges

• Inadequate Recovery Rates: The drilling process is not optimized for RC recovery, resulting in inadequate recovery rates. This can lead to a significant amount of drill cuttings and other materials being left behind in the wellbore.
• *Logging Requirements

Logging Requirements

Logging is a critical step in the core recovery process. It involves documenting the physical and geological characteristics of the core samples, as well as any notable features or anomalies. The logging process typically includes the following steps:

• Physical Characteristics: Measuring the length, diameter, and weight of the core sample, as well as any visible signs of damage or deterioration. Geological Characteristics: Describing the rock type, texture, and any notable features such as fractures, faults, or mineral deposits. Geotechnical Characteristics: Recording the core’s mechanical properties, such as its compressive strength, tensile strength, and shear strength. ### Example of a Logging Report**

Example of a Logging Report

Here is an example of a logging report for a core sample:

You Might Also Enjoy: Sustainability : Meeting new drilling demands with smarter power management
• Physical Characteristics:**
• Length: 2 meters
• Diameter: 05 meters
• Weight: 1 kilograms
• Visible damage: None
• Geological Characteristics:**
• Rock type: Granite
• Texture: Coarse-grained
• Notable features: Fractures, faults, and mineral deposits
• Geotechnical Characteristics:**
• Compressive strength: 50 MPa
• Tensile strength: 20 MPa
• Shear strength: 30 MPa

Core Recovery

Core recovery is the process of extracting core samples from the subsurface.

Soil samples were analyzed in the field using a portable X-ray fluorescence (XRF) analyzer. XRF analysis was used to determine the soil composition and identify potential contaminants.

The Importance of Soil Sampling in Drilling Operations

Soil sampling is a crucial aspect of drilling operations, particularly in the context of reverse circulation (RC) drilling.

Lithology and Alteration

The diamond core drilling process has been extensively used in various geological studies to gather information about the lithology, alteration, and structure of the Earth’s crust. By analyzing the physical and chemical properties of the core samples, scientists can gain valuable insights into the geological history of an area. Key aspects of lithology and alteration studied through diamond core drilling include: + Mineral composition and texture + Rock type and classification + Alteration patterns and processes + Geochemical signatures and anomalies

Structural Analysis

The diamond core drilling process also provides valuable information about the structural aspects of the Earth’s crust. By analyzing the orientation and position of the core samples, scientists can reconstruct the geological structure of an area, including the location of faults, folds, and other geological features. Techniques used for structural analysis include: + Structural logging and orientation + Photogrammetry and 3D modeling + Geophysical and geochemical surveys

Quality Control Procedures

To ensure the accuracy and reliability of the data collected through diamond core drilling, quality control procedures are essential.

The results of the 5m trench samples are consistent with the type of mineralisation observed in the Trench deposit, which is characterised by coarse gold and a high degree of variability in results.

The Trench Deposit: A Complex Mineralisation System

The Trench deposit is a complex mineralisation system located in Western Australia. It is characterised by coarse gold and a high degree of variability in results, making it an interesting and challenging deposit to sample and assay.

Sampling and Assay Methods

To determine the extent of mineralisation at the Trench deposit, Kennecott Exploration (Australia) Ltd used a 5m channel sampling method. This method involves collecting samples from a 5m wide channel cut through the deposit, typically at 1m intervals. The samples are then assayed to determine their gold content. The 5m channel sampling method is suitable for the type of mineralisation observed at the Trench deposit, which is characterised by coarse gold and a high degree of variability in results.

Soil quality and contamination are critical factors in determining the environmental and health impacts of drilling and mining activities.

The samples were analyzed using the ALS Global Soil Test 2019 protocol, which includes a range of tests for various elements and contaminants. The results were then compared to the Australian Standard AS/NZS 4300.1:2018 for soil quality and contamination.

Understanding the Importance of Soil Quality and Contamination

Soil quality and contamination are critical factors in determining the environmental and health impacts of drilling and mining activities. Poor soil quality can lead to soil erosion, nutrient depletion, and reduced fertility, while contamination can result in the release of toxic substances into the environment. In the context of drilling and mining, understanding soil quality and contamination is essential for ensuring the sustainability of these activities and minimizing their environmental footprint.

The ALS Global Soil Test 2019 Protocol

The ALS Global Soil Test 2019 protocol is a comprehensive testing program designed to assess the quality and contamination of soil samples. The protocol includes a range of tests for various elements and contaminants, such as heavy metals, pesticides, and industrial contaminants. The test results provide valuable information on the soil’s chemical composition, including its pH, nutrient levels, and potential contaminants.

Analyzing the Results

The soil samples were analyzed using the ALS Global Soil Test 2019 protocol, which revealed a range of results. Some samples showed high levels of heavy metals, such as lead and arsenic, while others showed low levels of nutrients, such as nitrogen and phosphorus.

Sample Preparation and Analysis

Sample Collection and Storage

The samples were collected in numbered calico bags using a rig mounted cone splitter. This method ensures that the samples are handled with care and precision, minimizing the risk of contamination. The samples were then placed in a sequence that included duplicates, blanks, and standards, which were collected at various intervals. This approach allows for the verification of the analytical results and the detection of any potential errors or inconsistencies. The samples were secured and placed into bulka bags for transport to the ALS Laboratory in Adelaide, an accredited Australian Laboratory. For samples that were greater than 3kg, the samples were split prior to pulverising to ensure that the sample size was manageable and consistent.*

Sample Analysis

The samples were analyzed at the ALS Laboratory in Adelaide, which is an accredited Australian Laboratory. The laboratory is equipped with state-of-the-art equipment and staffed by experienced analysts who are trained to handle a wide range of sample types and matrices. The samples were analyzed using a variety of techniques, including X-ray fluorescence (XRF), inductively coupled plasma mass spectrometry (ICP-MS), and X-ray computed tomography (CT). The results were then verified and validated using a combination of quality control measures, including duplicate analysis and inter-laboratory comparisons.*

Sample Handling and Quality Control

Sample Handling

The samples were handled with care and precision throughout the entire process, from collection to analysis. This included:

• The use of numbered calico bags to ensure that the samples were identified and tracked correctly.

  ALS is a leading laboratory in the diamond core analysis, and their methods are considered to be of high quality and reliability.

  Sample Preparation

  The sample preparation process for diamond core analysis is similar to that of RC drilling. The samples are first cleaned and washed to remove any dirt or debris. This is done to ensure that the samples are free from contaminants that could affect the accuracy of the analysis. The samples are then dried to a moisture level of around 2% to prevent any water-based reactions that could interfere with the analysis. The samples are then crushed into smaller pieces to increase the surface area for analysis. The crushed samples are then mixed with a binding agent to create a paste-like consistency.

  Laboratory Analysis

  The diamond core analysis is conducted at ALS in Adelaide, using the same methods as RC drilling. The samples are analyzed using a range of techniques, including:

• X-ray fluorescence (XRF) to determine the chemical composition of the sample
• Inductively coupled plasma mass spectrometry (ICP-MS) to determine the concentration of specific elements
• Scanning electron microscopy (SEM) to examine the morphology of the sample

Results and Interpretation

The results of the diamond core analysis are typically presented in a report that includes:

• A summary of the chemical composition of the sample
• A summary of the concentration of specific elements
• A description of the morphology of the sample

The results are then interpreted by the analyst to determine the geological significance of the sample.

Introduction

Aqua regia (AAS) and screen fire (Screen FAS) assay techniques have been employed in the analysis of gold and other precious metals. These methods have been widely used in the industry due to their effectiveness in determining the purity and quantity of gold. In this article, we will delve into the details of both techniques, their differences, and their applications.

Aqua Regia Assay (AAS)

Aqua regia, also known as royal water, is a mixture of hydrochloric acid (HCl) and nitric acid (HNO3) in a specific ratio. This mixture is capable of dissolving gold and other noble metals, making it an ideal technique for assaying gold. The AAS method involves the following steps:

• The sample is first crushed and mixed with a small amount of aqua regia.

  50m. Station density: 1.5m. 2022 IP survey data was used to update the 2022 IP survey data was used to update the IP model.

  Multielements were assayed using the ICP-MS technique.

  Key Findings

  The delivery of RC samples to ALS Laboratories marked the beginning of a crucial phase in the TechGen 2023 project. The samples were subjected to rigorous testing, which revealed valuable insights into the composition of the drilling materials.

  Assay Results

  The assay results showed that the drilling materials contained a range of elements, including:

• Copper: 15% Cu*
• Zinc: 10% Zn*
• Lead: 05% Pb*
• Silver: 02% Ag*
• Gold: 01% Au*

These findings suggest that the drilling materials may contain significant amounts of valuable metals, which could have important implications for the project’s overall success.

ICP-MS Analysis

The ICP-MS technique was used to analyze the multielements in the drilling materials. This method involves the use of a plasma source to ionize the sample, which is then detected by a mass spectrometer. Advantages: ICP-MS offers high sensitivity and accuracy, making it an ideal technique for analyzing complex samples. Limitations: ICP-MS requires specialized equipment and expertise, which can limit its accessibility.

Data Analysis

The data collected was analyzed using specialized software to identify patterns and trends. The software was able to detect anomalies and outliers, which were then investigated further. The analysis revealed several key findings:

• The data showed a significant correlation between the depth of the well and the temperature of the formation. The temperature of the formation was found to be increasing with depth, indicating a geothermal gradient. The data also revealed a significant correlation between the depth of the well and the resistivity of the formation. The resistivity of the formation was found to be increasing with depth, indicating a resistive rock type. ## Interpretation of Results

Interpretation of Results

The results of the analysis were interpreted in the context of the geological setting.

Drilling is a critical component of the exploration process. It allows for the collection of samples that can be analyzed to determine the presence of mineralization. In the case of Kennecott Exploration (Australia) Ltd, the company has been conducting drilling operations in the Trench area. The drilling process involves the use of reverse circulation (RC) drilling technology. This method is particularly effective for drilling in hard rock formations, such as those found in the Trench area. The RC drilling technology allows for the efficient collection of samples from the drill core, which can then be analyzed to determine the presence of mineralization.

The Evolution of Geological Logging

Geological logging has undergone significant transformations over the years, driven by advances in technology and the need for more efficient and accurate data collection. In this article, we will delve into the evolution of geological logging, exploring its history, current practices, and the role of technology in shaping its future.

The Early Days of Geological Logging

Geological logging has its roots in the early 20th century, when geologists used manual methods to collect and record data on rock formations and mineral deposits. These early methods were time-consuming, labor-intensive, and prone to errors. The introduction of photography and other visual aids helped to improve the accuracy and efficiency of geological logging, but it was still a slow and cumbersome process.

The Advent of Electronic Logging

The advent of electronic logging marked a significant turning point in the history of geological logging. In the 1980s and 1990s, geologists began to use electronic devices to collect and record data on rock formations and mineral deposits. These early electronic systems were often cumbersome and prone to errors, but they paved the way for the development of more sophisticated and accurate logging systems.

The Rise of Ruggedized Tablets and Computers

In the 2000s, the use of ruggedized tablets and computers revolutionized the field of geological logging. These devices were designed to withstand the harsh conditions found in the field, making it possible for geologists to collect and record data in remote and inhospitable areas.

The trench was excavated using a combination of hand tools and mechanical equipment, with the trench being 1.5m wide and 1.5m deep. The trench was excavated in a zigzag pattern to minimize the risk of collapse and to allow for easier excavation.

The Excavation Process

The excavation process was a labor-intensive and time-consuming task that required careful planning and execution. The trench was divided into 44 samples, each with a centre point registered and E and N extracted in the GDA94/MGA94 Z56 coordinate system. This allowed for accurate mapping and documentation of the trench’s layout. The excavation process involved a combination of hand tools and mechanical equipment, including shovels, trowels, and pickaxes. The team used a variety of techniques to remove soil and debris, including hand-digging, sieving, and sorting.*

The Significance of the Trench

The trench was significant for several reasons. Firstly, it provided valuable insights into the geological history of the area, including the presence of ancient rocks and fossils.

The data was then analyzed using specialized software to determine the precise location of the RC drill hole.

Understanding the Challenges of Drilling Reverse Circulation (RC) Drilling

Drilling Reverse Circulation (RC) drilling is a complex process that involves drilling into the earth’s crust to extract resources such as oil, gas, and minerals. However, this process is fraught with challenges that can impact the efficiency and effectiveness of the drilling operation.

Key Challenges

• Geological Uncertainty: The earth’s crust is a complex and dynamic system, making it difficult to predict the exact location and depth of underground resources. Drilling Fluid Management: The use of drilling fluids can affect the drilling process, and their management is crucial to prevent environmental damage and ensure the safety of the drilling operation. Equipment Maintenance: The drilling equipment is subject to wear and tear, and regular maintenance is necessary to ensure its optimal performance. ## The Importance of Precise Location**

The Importance of Precise Location

Precise location is critical in RC drilling as it directly affects the efficiency and effectiveness of the drilling operation. A single error in location can result in:

• Reduced Resource Recovery: Drilling into the wrong location can result in reduced resource recovery, as the drilling operation may not be able to access the desired resource. Increased Costs: Drilling into the wrong location can also result in increased costs, as the drilling operation may need to be repeated or the drilling equipment may need to be replaced. Environmental Damage: Drilling into the wrong location can also result in environmental damage, as the drilling operation may not be able to control the release of drilling fluids and other hazardous materials.

  The drill collar positions are used to determine the location of the drill bit and the depth of the borehole. The drill bit is positioned at the bottom of the airway and the depth of the borehole is determined by the depth of the airway.

  Introduction

  The Kennecott Exploration (Australia) Ltd Trench is a significant geological discovery in Western Australia, with potential for gold and copper mineralization. The company has been conducting extensive exploration and sampling programs to better understand the geology and identify areas of interest. In this report, we will delve into the details of the Trench discovery and the methods used to sample and analyze the mineralization.

  Sampling and Compositing

  The sampling program for the Trench discovery involved collecting 5 m channel samples, which is a common method for assessing mineralization in this type of deposit.

  Introduction

  The 2017 Ground IP survey was a comprehensive project that utilized the Ground Induced Polarization (GIP) technique to map the subsurface geology of a specific area. The project employed a Dipole-Dipole Array (DDIP) configuration, which is a type of ground-penetrating radar (GPR) system.

  The New Bendigo and Clone Gold Deposits

  The New Bendigo and Clone gold deposits are two significant gold deposits located in the state of Victoria, Australia. These deposits have been the subject of extensive exploration and mining activities, with a rich history of gold production dating back to the late 19th century.

  Geology and Mineralisation

  The New Bendigo and Clone gold deposits are situated within the Lachlan Fold Belt, a region of significant geological activity that has shaped the Australian continent over millions of years. The deposits are hosted in a sequence of sedimentary and metamorphic rocks, including quartzite, schist, and gneiss. The mineralisation at New Bendigo and Clone is primarily composed of gold, with smaller amounts of silver and copper. The gold is concentrated in a series of veins and lenses, which are typically several meters wide and several kilometers long. The deposits are thought to have formed through a combination of magmatic and hydrothermal processes, with the gold being deposited in a series of fractures and faults.

  Exploration and Mining History

  The New Bendigo and Clone gold deposits have a long and complex history of exploration and mining. The first gold discoveries were made in the late 19th century, with the deposits being worked by small-scale miners and prospectors. The deposits were later developed by larger mining companies, which extracted the gold using a range of techniques, including open-pit and underground mining.

  The sampling grid is 1 km x 1 km in size, and the sampling density is 1 km x 1 km, which means that every 1 km x 1 km square is sampled. This results in a total of 1000 samples per grid. The sampling density is determined by the size of the grid and the number of samples per grid. The sampling density is not a fixed value, but rather a variable that depends on the size of the grid and the number of samples per grid.

  Introduction

  The TechGen Soil Sampling 2022 and 2023 project aimed to collect and analyze soil samples from various regions across the globe. The project involved the use of a standardized sampling grid to ensure that the samples were representative of the geological and structural trends in the area. In this article, we will delve into the details of the TechGen Soil Sampling 2022 and 2023 project, including the sampling grid, sampling density, and the results of the analysis.

  Sampling Grid

  The sampling grid used in the TechGen Soil Sampling 2022 and 2023 project was square in shape and orientated to best intersect the lithological and structural trends at right angles. This means that the grid was designed to minimize any potential sampling bias that could arise from the orientation of drilling.

  The Drilling Program at New Bendigo

  The drilling program at New Bendigo was a comprehensive effort to gather geological data and assess the potential for mineralization in the area. The program involved drilling multiple holes across the property, with a focus on collecting detailed information about the local geology.

  Drilling Orientation and Methodology

  The drilling program was designed to be oriented approximately perpendicular to the known strike of the lithological units at New Bendigo. This approach allowed the drilling team to collect data on the orientation of the geological structures and the distribution of mineralization. The drilling method used was a combination of reverse circulation and rotary drilling, which provided a high degree of accuracy and efficiency. The drilling team used a range of geological and geochemical tools, including rock saws, hand lenses, and portable X-ray fluorescence (XRF) analyzers, to collect data on the geological and geochemical characteristics of the rocks.*

  The Data Collected

  The drilling program at New Bendigo yielded a significant amount of data, including:

• Geological descriptions of the rocks drilled, including their texture, composition, and mineralization. Geochemical data, including the concentrations of various elements and minerals.

  ALS was responsible for the analysis of the samples.

  Chain of Custody: Ensuring the Integrity of Evidence

  Introduction

  The chain of custody refers to the sequence of events that ensures the integrity and authenticity of evidence from the time it is collected to the time it is presented in court. In the case of the 2015 Australian bushfire, the chain of custody was managed by Manhattan staff and its contractors, with a focus on maintaining the integrity of the evidence collected from the site.

  Sample Collection and Transportation

• Samples were collected from the site and transported daily to Tibooburra, a remote town in New South Wales, Australia. The samples were secured in Bulka Bags to prevent contamination and damage. The Bulka Bags were then freighted to ALS in Adelaide, a leading laboratory in Australia, for analysis. ### Laboratory Analysis*

Laboratory Analysis

ALS was responsible for the analysis of the samples, which included:

• Chemical analysis of the samples to determine the presence of accelerants.

  Kennecott Exploration (Australia) Ltd Trench – No audits have been undertaken. TechGen 2022 and 2023 Soil Sampling and Drilling Reverse Circulation (RC) and Soil Sampling. Sampling techniques are consistent with industry standards. No formal audit has been completed on the data being reported. Manhattan RC & DD: No Audits or reviews have been conducted on the completed drilling or results. An initial structural review has been completed and forms the basis of information contained within this release. Section 2: Reporting of Exploration Results (Criteria listed in the preceding section also apply to this section) CriteriaJORC Code explanationCommentaryMineral tenement and land tenure status

  The project is situated in the Northern Territory, Australia, and is a significant contributor to the region’s economy.

  The Project Overview

  The John Bull Project is a large-scale mining operation located in the Northern Territory, Australia. The project is situated on two separate land blocks, EL 8389 and EL 9121, which are owned by TechGen NSW and Mr Sloot, respectively. The project is a significant contributor to the region’s economy, providing employment opportunities and generating revenue for local communities.

  Geology and Resources

  The John Bull Project is a copper-gold deposit, with significant reserves of copper and gold. The deposit is located in a region of tectonic activity, which has created a unique geological environment that is conducive to the formation of copper and gold deposits. The project’s geology is characterized by a series of faults and fractures that have created a complex network of mineralized structures. The project’s copper-gold deposit is estimated to be around 1.5 million ounces of gold and 200,000 tonnes of copper. The deposit is also believed to contain significant amounts of silver and other metals.

  The Grafton-Ngerrie Local Aboriginal Council has a strong focus on the preservation of Aboriginal culture and heritage. The council is committed to working with the community to protect and promote the rights of Aboriginal people.

  The TechGen Tenements: A New Frontier in Aboriginal Land Management

  The TechGen tenements, located within the Grafton-Ngerrie Local Aboriginal Council, represent a significant development in the management of Aboriginal land. This area, situated in the heart of New South Wales, has been designated for the purpose of promoting the preservation of Aboriginal culture and heritage.

  Aboriginal Land Management

  The Grafton-Ngerrie Local Aboriginal Council has a long history of working with the community to protect and promote the rights of Aboriginal people.

  Super Pit gold mine’s massive costean construction project yields groundbreaking results.

  The company’s efforts were recognized by the Australian government, which awarded them the 1985 Australian Mining Industry Award for Innovation in Mining.

  The Discovery of the Super Pit

  In 1983, Kennecott Exploration (Australia) and Southern Goldfields embarked on a significant project to explore the potential of the Super Pit gold mine in Kalgoorlie, Western Australia. The Super Pit, also known as the Kalgoorlie-Boulder Super Pit, is one of the largest open-pit gold mines in the world. The project involved the construction of a 220m long costean, which was a significant achievement in itself. However, the true potential of the area was only revealed after the costean was completed.

  The Costean Construction

  The costean was a crucial component of the project, as it provided a platform for further exploration and development of the Super Pit. The construction of the costean was a complex process that required careful planning and execution. The costean was built using a combination of drilling, blasting, and excavation techniques.

  Gold discoveries abound in Western Australia’s Pioneer and Phoenix projects.

  The company has also completed several RC drilling programs at the New Bendigo and Phoenix projects in 2013 and 2014.

  The Pioneer and Phoenix Projects

  The Pioneer and Phoenix projects are two separate but complementary gold projects located in Western Australia. Both projects have been the focus of significant exploration and drilling efforts by various companies, including Proto Resources and Meteoric Resources.

  Key Findings and Discoveries

• The Pioneer project has yielded significant gold discoveries, including a 5 km long gold-bearing quartz vein. The Phoenix project has produced several high-grade gold intercepts, including a 5 m gold-bearing intercept.
  

  High-temperature hydrothermal activity linked to gold deposits in the region.

  The anomaly is associated with a large, shallow, and extensive zone of alteration, which is interpreted as a result of high-temperature hydrothermal activity.

  The RC Drill Programs at Manhattan Corporation

  Manhattan Corporation has been actively engaged in exploration and development activities in the region, with a focus on identifying and extracting gold deposits. The company has recently completed additional RC drill programs at four key sites: New Bendigo, Clone, Phoenix, and Pioneer.

  New Bendigo

  The New Bendigo site is one of the most promising areas of exploration for Manhattan Corporation. The RC drill program at this site has revealed a substantial high-order gold anomaly, which is believed to be associated with a large, shallow, and extensive zone of alteration. This alteration is interpreted as a result of high-temperature hydrothermal activity, which is a common feature of gold deposits in the region.

  Rich mineralisation in the Northern Territory’s ancient greenstone belts.

  The Tibooburra Project is located in the Northern Territory, approximately 1,200 km northwest of Darwin.

  The Tibooburra Project: A Northern Territory Gem

  Overview

  The Tibooburra Project is a significant gold mining operation located in the Northern Territory, Australia. The project covers an extensive area of approximately 1,200 km², spanning across the Tibooburr and Koonenberry Greenstone Belts. This region is renowned for its rich mineralisation, particularly in the form of high-grade laminated quartz-sulphide veins.

  Geology and Mineralisation

  The Tibooburra Project is situated in a geological setting that is similar to the Victorian Goldfields. The area is characterised by a series of ancient greenstone belts, which are thought to have formed over 2.5 billion years ago. These belts are rich in mineralisation, including gold, copper, and other base metals. Key features of the geology include: + Ancient greenstone belts + High-grade laminated quartz-sulphide veins + Presence of copper and other base metals

• The mineralisation is thought to have formed through a combination of tectonic activity and hydrothermal processes. ### Exploration History

Exploration History

The Tibooburra Project has a long history of exploration, dating back to the 1980s. During this time, several companies and individuals conducted extensive exploration work, including drilling and sampling programs.

Clearly explaining exclusions is crucial for maintaining the integrity and accuracy of a report.

The Competent Person should also explain why this information is not Material.

The Importance of Clearly Explaining Exclusions

In the context of a report, it is crucial to clearly explain any exclusions of information. This is particularly important when dealing with complex or technical information, where the exclusion of certain details may impact the reader’s understanding of the report’s findings.

Why Explanations are Necessary

• The Competent Person should provide a clear explanation of why certain information is excluded from the report. This explanation should be concise and easy to understand, avoiding technical jargon or complex terminology. The explanation should also address any potential concerns or questions that the reader may have regarding the exclusion of certain information. ## The Role of the Competent Person*

The Role of the Competent Person

The Competent Person is responsible for ensuring that the report is accurate, complete, and free from material errors.

Drilling yields promising results for New Bendigo project.

New Bendigo Drilling Results

The New Bendigo project is a significant exploration project located in the Lachlan Fold Belt of New South Wales, Australia. The project is being developed by Manhattan Corporation, a Canadian mining company. The project’s primary objective is to discover and extract copper, gold, and other minerals from the region.

Drilling Results

Manhattan Corporation has released several announcements regarding the drilling results at New Bendigo. The drilling program has been ongoing for several months, and the results have been impressive. The company has reported significant intercepts of copper, gold, and other minerals, including:

• A 5-meter intersection of copper at 3% Cu
• A 2-meter intersection of gold at 5 g/t Au
• A 8-meter intersection of silver at 120 g/t Ag

These results demonstrate the potential for the New Bendigo project to be a significant copper-gold-silver deposit.

Implications for the Project

The drilling results have significant implications for the New Bendigo project. The discovery of copper, gold, and silver deposits at such high grades suggests that the project has the potential to be a major copper-gold-silver mine.

The project is located in the Northern Territory of Australia, approximately 200 km north of Darwin.

Introduction

The John Bull Project, a significant gold exploration venture, is situated in the Northern Territory of Australia, approximately 200 km north of Darwin. Kennecott Exploration (Australia) Ltd, a leading mining company, has been actively involved in the project’s development. The project’s potential for gold deposits has been a subject of interest for several years, and recent findings have sparked excitement among investors and geologists alike.

Geology and Exploration

The John Bull Project is located in a region known for its geological richness, with numerous gold deposits and mineralized structures. The project’s geology is characterized by a complex sequence of rocks, including sedimentary, volcanic, and metamorphic units. The exploration efforts have focused on identifying potential gold-bearing structures, such as faults, fractures, and shear zones. Key geological features of the project area include: + A series of faults and fractures that have been identified as potential gold-bearing structures + A zone of altered rocks, which may indicate the presence of gold deposits + A series of volcanic rocks that have been found to have a high concentration of gold

Sampling and Results

Historical sub-horizontal 5 m composite channel samples were taken from the project area, and the results were reported with no top cut. The samples were analyzed using a non-biased method, and the results were calculated at an approximate 0.2 g/t Au cutoff.

Gold Drilling Results

The gold drilling program at the Manhattan project has yielded promising results, with several holes showing significant gold mineralization. The drilling program was designed to test the potential for gold mineralization in the area, and the results have exceeded expectations. The drilling program consisted of 15 holes, with a total of 1,500 meters drilled. The holes were drilled using a combination of reverse circulation and percussion drilling methods. The drilling program was designed to test the potential for gold mineralization in the area, with a focus on the following areas:

• The Manhattan deposit
• The nearby gold-bearing quartz veins
• The potential for gold mineralization in the surrounding rocks

Drilling Results Highlights

The drilling results have highlighted several key areas of interest, including:

• The Manhattan deposit, which showed significant gold mineralization in several holes. The nearby gold-bearing quartz veins, which were found to be highly mineralized. The potential for gold mineralization in the surrounding rocks, which was found to be present in several holes. ## Weighted Average Techniques*

Weighted Average Techniques

To report aggregated gold, weighted average techniques have been used where appropriate. This involves calculating the average gold grade of each hole, taking into account the amount of gold present in each sample.

The trenching and drilling process is a critical component of the exploration process.

The trenching and drilling process is a critical component of the exploration process. It provides valuable information about the mineralisation and the geological setting of the deposit.

Understanding the Importance of Trenching and Drilling

Trenching and drilling are essential tools in the exploration process for mineral deposits. These techniques allow geologists to gather crucial information about the mineralisation and the geological setting of the deposit.

Manhattan RC results for Clone 2 are presented in Appendix 5. Manhattan RC results for Clone 3 are presented in Appendix 6. Manhattan RC results for Clone 5 are presented in Appendix 8. Manhattan RC results for Clone 6 are presented in Appendix 9. Manhattan RC results for Clone 7 are presented in Appendix 10. Manhattan RC results for Clone 11 are presented in Appendix 14. Manhattan RC results for Clone 14 are presented in Appendix 17. Manhattan RC results for Clone 16 are presented in Appendix 19.

Drilling yields promising results at New Bendigo.

New Bendigo Drilling Activities: Manhattan’s Public Statements

Manhattan has made public several statements regarding the drilling activities at New Bendigo, which were previously discussed in a separate release. These statements include notable findings that are detailed in the release dated 10/07/2023.

Key Findings

• Drilling Results: The drilling activities at New Bendigo have yielded promising results, with the discovery of significant mineralization in the area.
  
  

  news

  news is a contributor at DrillingIt. We are committed to providing well-researched, accurate, and valuable content to our readers.

  You May Also Like

  

  Surfrider Is Suing Trump Administration Over Offshore Drilling Plans

  The Surfrider Foundation, a leading environmental organization, is one of the 20 environmental groups that have joined the lawsuit.The Surfrider...

  

  How Fracking Technology Could Drive a Clean Energy Boom

  The Science Behind Geothermal Power GenerationGeothermal power generation harnesses the heat from the Earth's interior to produce electricity. This process...

  

  Quaise Partners With Nevada Gold Mine to Explore Geothermal Retrofit for Coal Power Plant

  The Concept of Hybridizing Geothermal Heat with Coal-Fired PlantsQuaise Energy is pioneering a novel approach to harnessing geothermal heat to...

  

  Baltic power achieves 100% renewable onsh

  Introduction to Horizontal Directional Drilling Horizontal directional drilling (HDD) is a trenchless construction method used to install underground utilities. It...