72676 FSPLT3 1447394.Pdf

Total Page:16

File Type:pdf, Size:1020Kb

72676 FSPLT3 1447394.Pdf Table of Contents Introduction ................................................................................................................................. 1 Silvicultural Overview ................................................................................................................ 1 Need for action ........................................................................................................................ 1 Project objectives..................................................................................................................... 2 Regulatory Framework ............................................................................................................ 2 Effects Analysis Methodology ........................................................................................................ 4 Background ............................................................................................................................. 4 Specific Assumptions .............................................................................................................. 7 Affected Environment/Environmental Consequences ........................................................... 11 Environmental Consequences ....................................................................................................... 17 Alternative 1 - No Action .......................................................................................................... 21 Direct and Indirect Effects ..................................................................................................... 21 Cumulative Effects ................................................................................................................ 24 Alternative 2 - Proposed Action ................................................................................................ 24 Product Removal ................................................................................................................... 28 Design Features ..................................................................................................................... 28 Direct and Indirect Effects ..................................................................................................... 30 Cumulative Effects ................................................................................................................ 32 Alternative 3 – Non-commercial alternative ............................................................................. 32 Direct and Indirect Effects ..................................................................................................... 33 Cumulative Effects ................................................................................................................ 36 Comparison of Alternatives ........................................................................................................... 36 Comparison of Alternatives-Simulated Wildfire under 97th Percentile Conditions ................. 41 Summary ....................................................................................................................................... 42 References ..................................................................................................................................... 43 Appendix A -Forest pests and diseases of concern ....................................................................... 46 Appendix B- Metrics for Density Measurement of Tree Vegetation ............................................ 51 Appendix C-Sequoia National Forest Hazard Tree Guidelines ..................................................... 53 Appendix D - Sugar Pine Management ......................................................................................... 54 i Glossary (Terms, Abbreviations and Acronyms) Basal Area (BA) – See Appendix B, this document for explanation; the cross-sectional area of all stems in a stand measured at breast height (4.5 feet) and expressed per unit of land area, generally square feet per acre. California Wildlife Habitat Relationship (CWHR) – A vegetative classification system developed in California to classify wildlife habitats and vegetative structures. Clearcut (clearcutting) – removal of the entire stand in one cutting with reproduction obtained artificially or from seeds germinating after the clearing operation. Common Stand Exams (CSE) – Inventory plots installed to collect stand data and information Diameter @ Breast Height (DBH) – height at which tree diameter is normally measured specified as 4.5 feet above ground base of the tree. Fuelwood – material collected Individual tree selection (free thinning) – removal of individual trees based on project objectives. Pounds per Square Inch (PSI): The number of pounds of ground pressure exerted over one square inch of soil; a metric to assess soil compaction and to define equipment limits. Quadratic Mean Diameter (QMD): The square root of the arithmetic average of the squared values across a particular inventory (Avery and Burkhart 2002). Shade-tolerance – Species that have a tolerance to shading by other species. Shade tolerant species will grow and regenerate under a stand’s over-story. Stand density index (SDI): See Appendix B, this document for explanation; a metric for measuring forested stand density. For this document, averages are reported within the treatment units, where stand examination inventories have been conducted. This is an FVS modeled average for this document. Stocking – an indication of growing space occupancy relative to a pre-established standard, such as basal area or trees per acre. Trees per acre (TPA): The number of trees, on average, on an acre of land where stand examination inventories have been conducted; this is a modeled average for this document. Weighted average: for this document, the forest metric of interest (QMD, TPA, SDI, etc.) multiplied by the sum FVS output times the number of acres divided by the total acres affected. Uneven-aged: Forest stand composed of intermingling of trees that differ markedly in age (Avery and Burkhart 2002) Upper Diameter Limit (UDL) – the diameter at which removal of trees is restricted or meets the objectives of the silvicultural prescription. This may be a hard value or a flexible estimate depending on the type of thinning and the objectives of the silvicultural prescription. i Introduction This report summarizes the potential effects on forest vegetation resources from silvicultural activities proposed for the Rancheria Forest Restoration Project of the Kern River Ranger District of the Sequoia National Forest. This assessment addresses how the different alternatives impact the forest vegetation within the project area proposed by the Rancheria EA document. The report also addresses the scientific and analytical basis for the comparison of alternatives as presented in this report. This specialist report is being prepared for the Rancheria Forest Restoration Environmental Analysis (EA). Silvicultural Overview This assessment addresses how the different alternatives impact forest vegetation, as measured by stand density (basal area or stand density index, and indirectly crown canopy cover), stand composition (trees per acre by species), and stand structure (trees per acre by diameter class, ). These measurements are correlated to appropriate stocking levels, and stand conditions to maintain stand growth and health, including resistance to epidemic levels of insects and disease. This report addresses current and desired stand conditions and the silvicultural treatment options. The Rancheria Project proposes to treat vegetation to achieve several goals and objectives, which includes improving forest health by treating vegetation for insect and disease. Silvicultural treatments will reduce tree density, alter stand composition and stand structure creating conditions which will control insect populations, maintain them at endemic levels and improve the growth of trees, forest stands, and the vegetation across the landscape. Tree and forest health conditions also contribute significantly to the fire risk; therefore silvicultural treatments that improve forest health and lower risk of insect and disease outbreaks, would contribute to altering fire risk and behavior. For example, in certain stand structure conditions, the amount of vegetation mortality from insect/disease conditions, can increase both crown fire potential and contribute to increased fuel levels now and over time. Thinning forest stands to specific standards contributes to maintaining forest health while achieving fire behavior objectives. Mechanical thinning operations have the ability to effectively (both economically and ecologically) remove trees of varying sizes while managing the reduction of canopy cover, and residual fuel levels. Need for action Vegetation conditions in the project area are departed from historic norms, and are at or beyond the range of natural variability. Large ponderosa pine (Pinus ponderosa), Jeffrey pine (P. jefferyii), and California black oak (Quercus kelloggii) were logged from the Greenhorn Mountains around the mid-1800’s, in concert with the development of local mining, agriculture, tourism, ranching and town of Bakersfield. The result of a 100 year policy of fire suppression combined with historic logging is a dense second-growth forest with trees that are smaller, more uniform, and of different relative species composition than were historically present, leaving
Recommended publications
  • Stand Visualization System Version 3.30
    Stand Visualization System Version 3.30 Robert J. McGaughey -- USDA Forest Service -- Pacific Northwest Research Station The Stand Visualization System (SVS) was developed by Robert J. McGaughey, USDA Forest Service, Pacific Northwest Research Station. SVS is public domain software and can be freely distributed. For additional information, contact the author via email: [email protected] Information describing SVS and the latest version of the software are also available on the World Wide Web at: http://forsys.cfr.washington.edu/svs.html Contents SVS Overview ........................................................................................................... 6 SVS menu selections ................................................................................................ 6 Display ................................................................................................................... 7 Right Mouse Button Menu ......................................................................................... 8 Specifying SVS preferences...................................................................................... 8 Image size preferences........................................................................................ 11 Tree legend preferences...................................................................................... 13 Working with SVS Tree Lists ................................................................................... 14 Tree Lists ............................................................................................................
    [Show full text]
  • Restoration of Dry Forests in Eastern Oregon
    Restoration of Dry Forests in Eastern Oregon A FIELD GUIDE Acknowledgements Many ideas incorporated into this field guide originated during conversations between the authors and Will Hatcher, of the Klamath Tribes, and Craig Bienz, Mark Stern and Chris Zanger of The Nature Conservancy. The Nature Conservancy secured support for developing and printing this field guide. Funding was provided by the Fire Learning Network*, the Oregon Watershed Enhancement Board, the U.S. Forest Service Region 6, The Nature Conservancy, the Weyerhaeuser Family Foundation, and the Northwest Area Foundation. Loren Kellogg assisted with the discussion of logging systems. Bob Van Pelt granted permission for reproduction of a portion of his age key for ponderosa pine. Valuable review comments were provided by W.C. Aney, Craig Bienz, Mike Billman, Darren Borgias, Faith Brown, Rick Brown, Susan Jane Brown, Pete Caligiuri, Daniel Donato, James A. Freund, Karen Gleason, Miles Hemstrom, Andrew J. Larson, Kelly Lawrence, Mike Lawrence, Tim Lillebo, Kerry Metlen, David C. Powell, Tom Spies, Mark Stern, Darin Stringer, Eric Watrud, and Chris Zanger. The layout and design of this guide were completed by Keala Hagmann and Debora Johnson. Any remaining errors and misjudgments are ours alone. *The Fire Learning Network is part of a cooperative agreement between The Nature Conservancy, USDA Forest Service and agencies of the Department of the Interior: this institution is an equal opportunity provider. Suggested Citation: Franklin, J.F., K.N. Johnson, D.J. Churchill, K. Hagmann, D. Johnson, and J. Johnston. 2013. Restoration of dry forests in eastern Oregon: a field guide. The Nature Conservancy, Portland, OR.
    [Show full text]
  • Tree Density and Forest Productivity in a Heterogeneous Alpine Environment: Insights from Airborne Laser Scanning and Imaging Spectroscopy
    Article Tree Density and Forest Productivity in a Heterogeneous Alpine Environment: Insights from Airborne Laser Scanning and Imaging Spectroscopy Parviz Fatehi 1,*, Alexander Damm 1, Reik Leiterer 1, Mahtab Pir Bavaghar 2, Michael E. Schaepman 1 and Mathias Kneubühler 1 1 Remote Sensing Laboratories (RSL), University of Zurich, Winterthurerstrasse 190, 8057 Zurich, Switzerland; [email protected] (A.D.); [email protected] (R.L.); [email protected] (M.E.S.); [email protected] (M.K.) 2 Center for Research and Development of Northern Zagros Forests, Faculty of Natural Resources, University of Kurdistan, 66177-15175 Sanandaj, Iran; [email protected] * Correspondence: [email protected]; Tel.: +41-44-635-6508 Academic Editors: Christian Ginzler and Lars T. Waser Received: 8 March 2017; Accepted: 9 June 2017; Published: 16 June 2017 Abstract: We outline an approach combining airborne laser scanning (ALS) and imaging spectroscopy (IS) to quantify and assess patterns of tree density (TD) and forest productivity (FP) in a protected heterogeneous alpine forest in the Swiss National Park (SNP). We use ALS data and a local maxima (LM) approach to predict TD, as well as IS data (Airborne Prism Experiment—APEX) and an empirical model to estimate FP. We investigate the dependency of TD and FP on site related factors, in particular on surface exposition and elevation. Based on reference data (i.e., 1598 trees measured in 35 field plots), we observed an underestimation of ALS-based TD estimates of 40%. Our results suggest a limited sensitivity of the ALS approach to small trees as well as a dependency of TD estimates on canopy heterogeneity, structure, and species composition.
    [Show full text]
  • Implications of Selective Harvesting of Natural Forests for Forest Product Recovery and Forest Carbon Emissions: Cases from Tarai Nepal and Queensland Australia
    Article Implications of Selective Harvesting of Natural Forests for Forest Product Recovery and Forest Carbon Emissions: Cases from Tarai Nepal and Queensland Australia Bishnu Hari Poudyal, Tek Narayan Maraseni * and Geoff Cockfield Centre for Sustainable Agricultural Systems, University of Southern Queensland, Queensland 4350, Australia * Correspondence: [email protected] Received: 5 July 2019; Accepted: 13 August 2019; Published: 15 August 2019 Abstract: Selective logging is one of the main natural forest harvesting approaches worldwide and contributes nearly 15% of global timber needs. However, there are increasing concerns that ongoing selective logging practices have led to decreased forest product supply, increased forest degradation, and contributed to forest based carbon emissions. Taking cases of natural forest harvesting practices from the Tarai region of Nepal and Queensland Australia, this study assesses forest product recovery and associated carbon emissions along the timber production chain. Field measurements and product flow analysis of 127 commercially harvested trees up to the exit gate of sawmills and interaction with sawmill owners and forest managers reveal that: (1) Queensland selective logging has less volume recovery (52.8%) compared to Nepal (94.5%) leaving significant utilizable volume in the forest, (2) Stump volume represents 5.5% of total timber volume in Nepal and 3.9% in Queensland with an average stump height of 43.3 cm and 40.1 cm in Nepal and Queensland respectively, (3) Average sawn timber output from the harvested logs is 36.3% in Queensland against 3 3 61% in Nepal, (4) Nepal and Queensland leave 0.186 Mg C m− and 0.718 Mg C m− on the forest floor respectively, (5) Each harvested tree damages an average of five plant species in Nepal and four in Queensland predominantly seedlings in both sites, and (6) Overall logging related total emissions in 3 3 Queensland are more than double (1.099 Mg C m− ) those in Nepal (0.488 Mg C m− ).
    [Show full text]
  • How Should We Measure the DBH of Multi-Stemmed Urban Trees? T Yasha A.S
    Urban Forestry & Urban Greening 47 (2020) 126481 Contents lists available at ScienceDirect Urban Forestry & Urban Greening journal homepage: www.elsevier.com/locate/ufug How should we measure the DBH of multi-stemmed urban trees? T Yasha A.S. Magarika,*, Lara A. Romanb, Jason G. Henningc a Yale School of Forestry & Environmental Studies, 195 Prospect Street, New Haven, CT, 06511, USA b USDA Forest Service, Philadelphia Field Station, 100 N. 20thSt., Suite 205, Philadelphia, PA, 19103, USA c The Davey Institute and USDA Forest Service, 100 N. 20thSt., Suite 205, Philadelphia, PA, 19103, USA ARTICLE INFO ABSTRACT Handling Editor: Justin Morgenroth Foresters use diameter at breast height (DBH) to estimate timber volumes, quantify ecosystem services, and ffi Keywords: predict other biometrics that would be di cult to directly measure. But DBH has numerous problems, including Diameter at breast height a range of “breast heights” and challenges with applying this standard to divergent tree forms. Our study focuses Crown diameter on street trees that fork between 30 and 137 cm of height (hereafter “multi-stemmed trees”), which researchers Ecological monitoring have identified as particularly challenging in the ongoing development of urban allometric models, as well as Street tree consistency in measurements across space and time. Using a mixed methods approach, we surveyed 25 urban Tree allometry forestry practitioners in twelve cities in the northeastern United States (US) about the measurement and man- Urban forest agement of multi-stemmed street trees, and intensively measured 569 trees of three frequently planted and commonly multi-stemmed genera (Malus, Prunus, and Zelkova) in Philadelphia, PA, US.
    [Show full text]
  • A Treemendous Educator Guide
    A TREEmendous Educator Guide Throughout 2011, we invite you to join us in shining a deserving spotlight on some of Earth’s most important, iconic, and heroic organisms: trees. To strengthen efforts to conserve and sustainably manage trees and forests worldwide, the United Nations has declared 2011 as the International Year of Forests. Their declaration provides an excellent platform to increase awareness of the connections between healthy forests, ecosystems, people, and economies and provides us all with an opportunity to become more aware, more inspired, and more committed to act. Today, more than 8,000 tree species—about 10 percent of the world’s total—are threatened with extinction, mostly driven by habitat destruction or overharvesting. Global climate change will certainly cause this number to increase significantly in the years to come. Here at the Garden, we care for many individual at-risk trees (representing 48 species) within our diverse, global collection. Many of these species come from areas of the world where the Garden is working to restore forest ecosystems and the trees in them. Overall, we have nearly 6,000 individual trees in our main Garden, some dating from the time of founder Henry Shaw. Thousands more trees thrive at nearby Shaw Nature Reserve, as part of the Garden’s commitment to native habitat preservation, conservation, and restoration. Regardless of where endangered trees are found—close to home or around the world—their survival requires action by all of us. The Great St. Louis Tree Hunt of 2011 is one such action, encouraging as many people as possible to get out and get connected with the spectacular trees of our region.
    [Show full text]
  • As the Piedmont Regional Forester and Also the Incident Commander
    April 2018 As the Piedmont Regional Forester and also the Incident Commander (IC) of our Incident Management Team (IMT), I’d like to share some of what I have learned in my nearly 35 years with the Commission about how leadership opportunities can make each one of us the best March Fire Photos version of ourselves. Page 8 These thoughts reinforce several of our Our IMT is founded on the three new State Forester’s five overarching Wildland Fire Leadership Principles of goals, including providing a safe, Duty, Respect, and Integrity. Let’s look desirable and friendly workplace that at them and how each one can help us relies on good communications, which to be the best version of ourselves while results in outstanding customer service. striving for our goals. I believe that to be successful you must Duty – Be proficient in your job daily, set goals and then focus on the progress both technically and as a leader you make towards those goals. But one - Make sound and timely decisions must be able to measure that progress; Tree Farm Legislative Day - Ensure tasks are understood, Page 16 if you can’t measure it, you can’t change it. So as we make progress we should supervised, and accomplished celebrate those accomplishments. - Develop your subordinates for the This celebration of progress in the end future helps us to persevere towards those Respect - Know your subordinates and goals. Because as we sense that we are look out for their well-being making progress, we tend to be filled - Build the team with passion, energy, enthusiasm, purpose and gratitude.
    [Show full text]
  • Individual-Tree Diameter Growth and Mortality Models for Bottomland
    Forest Ecology and Management 199 (2004) 307–322 Individual-tree diameter growth and mortality models for bottomland mixed-species hardwood stands in the lower Mississippi alluvial valley Dehai Zhaoa,*, Bruce Bordersb, Machelle Wilsona aSavannah River Ecology Laboratory, University of Georgia, Aiken, SC 29802 USA bWarnell School of Forest Resources, University of Georgia, Athens, GA 30602 USA Received 19 November 2003; received in revised form 4 February 2004; accepted 16 May 2004 Abstract Individual-tree diameter growth and mortality models were developed for the bottomland mixed-species hardwood stands in the Lower Mississippi Alluvial Valley (LMAV). Data came from 5-year remeasurements of continuous forest inventory plots. Six species groups were created according to diameter structure, tree growth, mortality, recruitment and light demand of species. A 5-year basal area increment model and logistic mortality model were calibrated for species groups. Potential predictor variables at tree-level and stand-level were selected based on the available data and their biological significance to tree growth and mortality. The resulting models possess desirable statistical properties and model behaviors, and can be used to update short- term inventory. # 2004 Elsevier B.V. All rights reserved. Keywords: Individual-tree growth model; Distance-independent; Mixed-species; Bottomland hardwoods; Mortality 1. Introduction have been developed and evaluated for more complex mixed-species stands (Burkhart and Tham, 1992). Recently, active management of mixed-species Mixed-species forests with a high diversity of tree stands is becoming more prevalent and seems to be species exhibit a huge range of life forms and stem a worldwide trend. This change from pure, single sizes.
    [Show full text]
  • An Improved Weise's Rule for Efficient Estimation of Stand Quadratic Mean
    Forests 2015, 6, 2545-2559; doi:10.3390/f6082545 OPEN ACCESS forests ISSN 1999-4907 www.mdpi.com/journal/forests Article An Improved Weise’s Rule for Efficient Estimation of Stand Quadratic Mean Diameter Róbert Sedmák 1,2,*, Ľubomír Scheer 1, Róbert Marušák 2, Michal Bošeľa 2,3, Denisa Sedmáková 4 and Marek Fabrika 1 1 Faculty of Forestry, Technical University in Zvolen, Zvolen 96053, Slovakia; E-Mails: [email protected] (L.S.); [email protected] (M.F.) 2 Faculty of Forestry and Wood Sciences, Czech University of Life Sciences Prague, Prague 6 165 21, Czech Republic; E-Mail: [email protected] 3 National Forest Centre––Forest Research Institute in Zvolen, Zvolen 96053, Slovakia; E-Mail: [email protected] 4 Institute of Forest Ecology, Slovak Academy of Sciences, Zvolen 96053, Slovakia; E-Mail: [email protected] * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +421-455-206-305, Fax: +421-455-332-654. Academic Editor: Maarten Nieuwenhuis Received: 1 June 2015 / Accepted: 22 July 2015 / Published: 27 July 2015 Abstract: The main objective of this study was to explore the accuracy of Weise’s rule of thumb applied to an estimation of the quadratic mean diameter of a forest stand. Virtual stands of European beech (Fagus sylvatica L.) across a range of structure types were stochastically generated and random sampling was simulated. We compared the bias and accuracy of stand quadratic mean diameter estimates, employing different ranks of measured stems from a set of the 10 trees nearest to the sampling point. We proposed several modifications of the original Weise’s rule based on the measurement and averaging of two different ranks centered to a target rank.
    [Show full text]
  • Field Guideline for Biomass Baseline Survey
    GHG Emission Assessment Guideline Volume II: Aboveground Biomass Field Guide for Baseline Survey FEDERAL DEMOCRATIC REPUBLIC OF ETHIOPIA MINISTRY OF AGRICULTURE ADDIS ABABA ETHIOPIA About the authors: Dr. Tadesse Woldemariam Acknowledgements The authors would like to thank the Ministry of Agriculture – Natural Resources Management Directorate – CRGE unit for providing financial assistance and technical support in the development of this guideline. Produced by Echnoserve Consulting April 2015 Front cover photo: Echnoserve Credit: Bayu Nebsu & Assefa Tadesse i | P a g e Table of Contents List of Tables List of Figures List of Acronyms IV CHAPTER ONE 1 1. Introduction 1 1.1. Background 1 1.2 Objectives of the Guideline 3 1.3. Methodology 3 CHAPTER TWO 4 2. Concepts and Definitions terms 4 2.1 The concept of Climate change 4 2.2. Greenhouse Gases in AFOLU 5 2.2.1. Emission and Removal Processes 6 2.3. Definition of some key terms 6 2.3.1 Carbon pool definitions and non-CO2 gases 8 2.3.2 Flux of Carbon Pools 10 2.4 Why Carbon Inventory 11 2.4.1 Carbon Pools and Measurement Frequency for Carbon Inventory 12 2.5 Carbon Inventory for Climate Change Mitigation Projects or Programmes 13 CHAPTER THREE 14 3. Methodological Issues in Land-Based Carbon Inventory Projects 14 3.1 Baseline 14 3.1.1 Fundamental Steps in Establishing a Baseline 15 3.2 Generic Methods for Inventory of Carbon Pools 16 3.2.2 Carbon “Gain–Loss” Method 17 3.2.3 Carbon “Stock-Difference” Method 17 3.2.4 Comparison of “Gain–Loss” and “Stock-Difference” Approaches 18 3.3 Methodological Options for Estimating Carbon Pools 18 CHAPTER FOUR 20 4.
    [Show full text]
  • Conducting a Simple Timber Inventory Conducting a Simple Timber Inventory Jason G
    PB1780 Conducting a Simple Timber Inventory Conducting a Simple Timber Inventory Jason G. Henning, Assistant Professor, and David C. Mercker, Extension Specialist Department of Forestry, Wildlife and Fisheries Purpose and Audience This publication is an introduction to the terminology The authors are confident that if the guidelines and methodology of timber inventory. The publication described herein are closely adhered to, someone with should allow non-professionals to communicate minimal experience and knowledge can perform an effectively with forestry professionals regarding accurate timber inventory. No guarantees are given timber inventories. The reader is not expected to that methods will be appropriate or accurate under have any prior knowledge of the techniques or tools all circumstances. The authors and the University of necessary for measuring forests. Tennessee assume no liability regarding the use of the information contained within this publication or The publication is in two sections. The first part regarding decisions made or actions taken as a result provides background information, definitions and a of applying this material. general introduction to timber inventory. The second part contains step-by-step instructions for carrying out Part I – Introduction to Timber a timber inventory. Inventory A note of caution The methods and descriptions in this publication are What is timber inventory? not intended as a substitute for the work and advice Why is it done? of a professional forester. Professional foresters can tailor an inventory to your specific needs. Timber inventories are the main tool used to They can help you understand how an inventory determine the volume and value of standing trees on a may be inaccurate and provide margins of error for forested tract.
    [Show full text]
  • Land at Newton Croft, Bucksburn 5.2 Site Address Land At
    5. Site Details 5.1 What name would you like the Land at Newton Croft, Bucksburn site to be known by? (Please note if the site is currently included within the ALDP2017 please use the OP site number) 5.2 Site Address Land at Newton Croft, Bucksburn 5.3 Postcode AB21 9PD 5.4 Have you any information for No the site on the internet? If so please provide the web address: 5.5 Is the site currently being The land is under option to Mactaggart & Mickel marketed? Homes Ltd, an established national housebuilder. 5.6 Site Location Map OS Base Map attached. (Please include an OS Map with the Boundary of the site clearly marked) 5.7 Please provide the National Grid reference of the site. 5.8 What is the current use of the Grazing land site? 5.9 Has there been any previous No development on the site? If yes please provide details 6. Legal and Planning History 6.1 Please indicate the Sole owner relationship to the Part owner Proposer or Person / Option to purchase Organisation they are working on No legal interest behalf of, has with the site. 6.2 Is the site under Yes, the site is under option to Mactaggart & option to a Mickel Homes Ltd, an established national developer? housebuilder. 6.3 Is the proposed site No included in the ALDP2017? 6.4 Is the proposed site N/A included in the Aberdeen City Centre Masterplan? 6.5 Has the site been Yes, through previous LDP processes. subject of previous discussions with the Council or any agent there of? 6.6 Has the site been No subject of previous Planning Applications? (Please 6.7 Has the site been Yes, Partially.
    [Show full text]