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Central Appalachian Broadleaf Forest Coniferous Forest Meadow Province
Selecting Plants for Pollinators A Regional Guide for Farmers, Land Managers, and Gardeners In the Central Appalachian Broadleaf Forest Coniferous Forest Meadow Province Including the states of: Maryland, Pennsylvania, Virginia, West Virginia And parts of: Georgia, Kentucky, and North Carolina, NAPPC South Carolina, Tennessee Table of CONTENTS Why Support Pollinators? 4 Getting Started 5 Central Appalachian Broadleaf Forest 6 Meet the Pollinators 8 Plant Traits 10 Developing Plantings 12 Far ms 13 Public Lands 14 Home Landscapes 15 Bloom Periods 16 Plants That Attract Pollinators 18 Habitat Hints 20 This is one of several guides for Check list 22 different regions in the United States. We welcome your feedback to assist us in making the future Resources and Feedback 23 guides useful. Please contact us at [email protected] Cover: silver spotted skipper courtesy www.dangphoto.net 2 Selecting Plants for Pollinators Selecting Plants for Pollinators A Regional Guide for Farmers, Land Managers, and Gardeners In the Ecological Region of the Central Appalachian Broadleaf Forest Coniferous Forest Meadow Province Including the states of: Maryland, Pennsylvania, Virginia, West Virginia And parts of: Georgia, Kentucky, North Carolina, South Carolina, Tennessee a nappc and Pollinator Partnership™ Publication This guide was funded by the National Fish and Wildlife Foundation, the C.S. Fund, the Plant Conservation Alliance, the U.S. Forest Service, and the Bureau of Land Management with oversight by the Pollinator Partnership™ (www.pollinator.org), in support of the North American Pollinator Protection Campaign (NAPPC–www.nappc.org). Central Appalachian Broadleaf Forest – Coniferous Forest – Meadow Province 3 Why support pollinators? In theIr 1996 book, the Forgotten PollInators, Buchmann and Nabhan estimated that animal pollinators are needed for the reproduction “ Farming feeds of 90% of flowering plants and one third of human food crops. -
Reproduction in Plants Which But, She Has Never Seen the Seeds We Shall Learn in This Chapter
Reproduction in 12 Plants o produce its kind is a reproduction, new plants are obtained characteristic of all living from seeds. Torganisms. You have already learnt this in Class VI. The production of new individuals from their parents is known as reproduction. But, how do Paheli thought that new plants reproduce? There are different plants always grow from seeds. modes of reproduction in plants which But, she has never seen the seeds we shall learn in this chapter. of sugarcane, potato and rose. She wants to know how these plants 12.1 MODES OF REPRODUCTION reproduce. In Class VI you learnt about different parts of a flowering plant. Try to list the various parts of a plant and write the Asexual reproduction functions of each. Most plants have In asexual reproduction new plants are roots, stems and leaves. These are called obtained without production of seeds. the vegetative parts of a plant. After a certain period of growth, most plants Vegetative propagation bear flowers. You may have seen the It is a type of asexual reproduction in mango trees flowering in spring. It is which new plants are produced from these flowers that give rise to juicy roots, stems, leaves and buds. Since mango fruit we enjoy in summer. We eat reproduction is through the vegetative the fruits and usually discard the seeds. parts of the plant, it is known as Seeds germinate and form new plants. vegetative propagation. So, what is the function of flowers in plants? Flowers perform the function of Activity 12.1 reproduction in plants. Flowers are the Cut a branch of rose or champa with a reproductive parts. -
Seed and Seed Dispersal
1st GRADE SEEDS AND SEED DISPERSAL Summary: This lab is all about seeds. First, students take apart a swollen lima bean seed and find the seed coat, food storage area, and the plant embryo. Second, the students sort a bag of seeds into groups and notice that all seeds look different but have the same three seed parts. Finally, students sort seeds that are dispersed in different ways. Students identify seeds that are dispersed by wind, hitchiking, animals carrying and burying, and animals eating and pooping. Intended Learning Outcomes for 1st Grade: Objective 1: Framing questions. Conducting investigations. Drawing conclusions. Objective 2: Developing social interaction skills with peers. Sharing ideas with peers. Connecting ideas with reasons. Objective 3: Ideas are supported by reasons. Communicaiton of ideas in science is important for helping to check the reasons for ideas. Utah State Core Curriculum Tie: Standard 4 Objective 1: Life Science Analyze the individual similarities and differences within and across larger groups. Standard 4 Objective 2: Life Science Describe and model life cycles of living things. Make observations about living things and their environment using the five senses. Preparation time: 1 hour to locate seeds the first time, then 20 min if seeds are reused Lesson time: 50 min Small group size: works best with one adult for every 5 students Materials: 1. one petri dish or paper towel per student 2. 1 bag of dried lima beans 3. One seed classification bag per group, this should include 5-6 seeds of about 15 different seed types. Use old seeds from seed packets or spices or seeds or nuts you may have in your kitchen. -
Attracting Hummingbirds to Your Garden Using Native Plants
United States Department of Agriculture Attracting Hummingbirds to Your Garden Using Native Plants Black-chinned Hummingbird feeding on mountain larkspur, fireweed, and wild bergamot (clockwise from top) Forest National Publication April Service Headquarters Number FS-1046 2015 Hummingbird garden guide Many of us enjoy the beauty of flowers in our backyard and community gardens. Growing native plants adds important habitat for hummingbirds and other wildlife—especially pollinators. Even small backyard gardens can make a difference. Gardening connects us to nature and helps us better understand how nature works. This guide will help you create a hummingbird- What do hummingbirds, friendly garden. butterflies, and bees have in common? They all pollinate flowering plants. Broad-tailed Hummingbird feeding on scarlet gilia Hummingbirds are Why use native plants in restricted to the Americas with more your garden? than 325 species of Hummingbirds have evolved with hummingbirds in North, Central, and native plants, which are best adapted South America. to local growing seasons, climate, and soil. They prefer large, tubular flowers that are often (but not always) red in color. In this guide, we feature seven hummingbirds that breed in the United States. For each one, we also highlight two native plants found in its breeding range. These native plants are easy to grow, need little water once established, and offer hummingbirds abundant nectar. 2 Hummingbirds and pollination Ruby-throated Hummingbird feeding on the At rest, a hummer’s nectar and pollen heart beats an of blueberry flowers average of 480 beats per minute. On cold nights, it goes into What is pollination? torpor (hibernation- like state), and its Pollination is the process of moving pollen heart rate drops to (male gamete) from one flower to the ovary of another 45 to 180 beats per minute. -
Bee and Pollinator Activities for Kids
let’s BEE friends Bee and Pollinator Activities for Kids Hi! I’m Buzz the bee! I’m a solitary bee, which means I don’t make honey or live in a colony. I live alone and like to keep to myself. I don’t even want to sting you because I would rather find food, lay eggs, and pollinate plants at the same time. But I’m not the only pollinator out there—my friends are important pollinators too! Bees, butterflies, moths, beetles, ants, flies, and wasps are all pollinators. Even birds and bats can pollinate too! Join me to learn about bees and pollination! 1 Get help from an adult Build a Bee Hotel when working with tools. Then put up your bee hotel near some flowers so me and my friends will be able to find it and have food near by. Place it off the ground, or attach to a tree or fence post with nails or a small rope. Make sure it won’t move in the wind. You Will Need: A waterproof container, such as a milk carton, bucket , pipe or old How To Make It: crate. 1. Drill holes into wood blocks, ranging from 7/64, 1/8, Wood blocks or logs 11/64, 3/16 or 1/4 inch diameter. Use 6” or 12” long drill bits if possible. Straws or natural stalks, such as bamboo or 2. Insert wood blocks into container. Add straws or raspberry canes natural stalks, such as bamboo. 3. Hang your bee hotel outside, facing south or southeast. -
Pollination of Cultivated Plants in the Tropics 111 Rrun.-Co Lcfcnow!Cdgmencle
ISSN 1010-1365 0 AGRICULTURAL Pollination of SERVICES cultivated plants BUL IN in the tropics 118 Food and Agriculture Organization of the United Nations FAO 6-lina AGRICULTUTZ4U. ionof SERNES cultivated plans in tetropics Edited by David W. Roubik Smithsonian Tropical Research Institute Balboa, Panama Food and Agriculture Organization of the United Nations F'Ø Rome, 1995 The designations employed and the presentation of material in this publication do not imply the expression of any opinion whatsoever on the part of the Food and Agriculture Organization of the United Nations concerning the legal status of any country, territory, city or area or of its authorities, or concerning the delimitation of its frontiers or boundaries. M-11 ISBN 92-5-103659-4 All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted in any form or by any means, electronic, mechanical, photocopying or otherwise, without the prior permission of the copyright owner. Applications for such permission, with a statement of the purpose and extent of the reproduction, should be addressed to the Director, Publications Division, Food and Agriculture Organization of the United Nations, Viale delle Terme di Caracalla, 00100 Rome, Italy. FAO 1995 PlELi. uion are ted PlauAr David W. Roubilli (edita Footli-anal ISgt-iieulture Organization of the Untled Nations Contributors Marco Accorti Makhdzir Mardan Istituto Sperimentale per la Zoologia Agraria Universiti Pertanian Malaysia Cascine del Ricci° Malaysian Bee Research Development Team 50125 Firenze, Italy 43400 Serdang, Selangor, Malaysia Stephen L. Buchmann John K. S. Mbaya United States Department of Agriculture National Beekeeping Station Carl Hayden Bee Research Center P. -
Plant-Pollinator Interactions in an Ecological and Evolutionary Context: the Promising
Plant-Pollinator Interactions in an Ecological and Evolutionary Context: The Promising Role of 3D-Printing Technology and Mathematical Modeling Eric Octavio Campos A dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy University of Washington 2017 Reading Committee: Thomas L. Daniel, Chair H.D. ‘Toby’ Bradshaw Janneke Hille Ris Lambers Program Authorized to Offer Degree: Biology ©Copyright 2017 Eric Octavio Campos University of Washington Abstract Plant-Pollinator Interactions in an Ecological and Evolutionary Context: The Promising Role of 3D-Printing Technology and Mathematical Modeling Eric Octavio Campos Co-Chairs of the Supervisory Committee: Professor H.D. ‘Toby’ Bradshaw Department of Biology Professor Thomas L. Daniel Department of Biology This dissertation concerns itself with the role of flower shape in affecting the foraging performance of pollinating animals. The pollinator used in this study is a model organism representing crepuscular hawkmoths in research involving the study of flight neuromuscular physiology and plant-pollinator interactions, Manduca sexta (hereafter Manduca). The broader goal of the work is to develop a new experimental framework for investigating the ecological and evolutionary consequences of plant-pollinator interactions. To that end, I have combined 3D-printing technology and mathematical modelling to construct artificial flowers, which can be manufactured with great precision and with objective, quantitatively describable shapes. First, I present a proof-of-concept study to demonstrate the feasibility of collecting foraging data from a real animal pollinator attempting to feed from 3D-printed artificial flowers. I show that Manduca’s foraging performance is extremely sensitive to variation in floral corolla curvature and nectary diameter. -
Pollinator Preferences and the Persistence of Crop Genes in Wild Radish Populations (Raphanus Raphanistrum, Brassicaceae)1
American Journal of Botany 85(3): 333±339. 1998. POLLINATOR PREFERENCES AND THE PERSISTENCE OF CROP GENES IN WILD RADISH POPULATIONS (RAPHANUS RAPHANISTRUM, BRASSICACEAE)1 TED N. LEE2, 4 AND ALLISON A. SNOW3, 5 2Department of Biology, University of Michigan, 830 N. University, Ann Arbor, Michigan 48109±1048; and 3Department of Plant Biology, Ohio State University, 1735 Neil Avenue, Columbus, Ohio 43214 Crop±weed hybridization can potentially in¯uence the evolutionary ecology of wild populations. Many crops are known to hybridize with wild relatives, but few studies have looked at the long-term persistence of crop genes in the wild. This study investigated one factor in the hybridization process in radish: differential pollinator visitation to wild radish (Raphanus raphanistrum) vs. crop±wild F1 hybrids (R. sativus 3 R. raphanistrum). Wild genotypes had yellow ¯owers, a recessive single-locus trait, whereas hybrids always had white or pale pink ¯owers. In experimental arrays in northern Michigan, total pollinator visitation was signi®cantly biased toward wild plants when the frequencies of wild and hybrid plants were equal. Syrphid ¯ies, the most frequent visitors, preferred wild plants while bumble bees showed no preference. This pattern was also observed when hybrid plants were overrepresented in the array (12 hybrid : 2 wild). In contrast, when hybrid plants were rare (2 hybrid : 12 wild), neither morph was preferred by any pollinator group. Later in the summer, pollinators were also observed in a large experimental garden with nearly equal frequencies of wild and hybrid plants. Cabbage butter¯ies (Pieris rapae) strongly overvisited wild plants, while bumble bees showed a slight preference for hybrids. -
Seed Dispersal: Part 2 in Seed Dispersal Part 2, Find out Three Ways That Seeds Are Dispersed from the Initial Seed Producing Plant: Wind, Water, and Gravity
Finally Fall: Seed Dispersal: Part 2 In Seed Dispersal Part 2, find out three ways that seeds are dispersed from the initial seed producing plant: wind, water, and gravity. Seed Dispersal Part 1 focused on the movement of seeds from the parent plant to different areas of the environment and that gravity alone, wildlife and humans are often involved. Plants disperse their seeds throughout an ecosystem and this limits competition of necessary resources like sunlight as they grow and mature. Seed Dispersal by Wind Seed dispersal by wind is a very common mechanism. Use the space below to make predictions about how wind is involved in seed dispersal. Do you know any plant species where wind disperses their seeds? ___________________________________________________________________________________________ ___________________________________________________________________________________________ ___________________________________________________________________________________________ Wind is the main source of seed dispersal for many native plants. Have you ever seen a little yellow dandelion? Have you ever looked at that same flower and noticed that it has turned fluffy and white? The fluff you may have seen were the seeds of the dandelion! Generally, when flowers are at the end of their life cycle they will go to seed, which means the plant will use its energy to focus on reproduction. In the case of a dandelion, seeds are so light and fluffy, they are easily transported by the wind as it blows. Other factors can help the wind pick up the seeds. For example, if an animal walks into the dandelion that has gone to seed, the seeds may be released from the stalk of the plant. Seeds then can be transported by the wind even more effortlessly, having gotten a jump start on the process thanks to that animal. -
Pollination and Botanic Gardens Contribute to the Next Issue of Roots
Botanic Gardens Conservation International Education Review Volume 17 • Number 1 • May 2020 Pollination and botanic gardens Contribute to the next issue of Roots The next issue of Roots is all about education and technology. As this issue goes to press, most botanic gardens around the world are being impacted by the spread of the coronavirus Covid-19. With many Botanic Gardens Conservation International Education Review Volume 16 • Number 2 • October 2019 Citizen gardens closed to the public, and remote working being required, Science educators are having to find new and innovative ways of connecting with visitors. Technology is playing an ever increasing role in the way that we develop and deliver education within botanic gardens, making this an important time to share new ideas and tools with the community. Have you developed a new and innovative way of engaging your visitors through technology? Are you using technology to engage a Botanic Gardens Conservation International Education Review Volume 17 • Number 1 • April 2020 wider audience with the work of your garden? We are currently looking for a variety of contributions including Pollination articles, education resources and a profile of an inspirational garden and botanic staff member. gardens To contribute, please send a 100 word abstract to [email protected] by 15th June 2020. Due to the global impacts of COVID-19, BGCI’s 7th Global Botanic Gardens Congress is being moved to the Australian spring. Join us in Melbourne, 27 September to 1 October 2021, the perfect time to visit Victoria. Influence and Action: Botanic Gardens as Agents of Change will explore how botanic gardens can play a greater role in shaping our future. -
Basic Botany
Basic Botany - Flower Structure The Birmingham Botanical Gardens & Glasshouses Brief Descriptions of Activities Flower Structure • a Study Centre-led activity • Using large-scale models and bee (glove puppet) to take pupils through the basic flower parts and their functions Investigating Floral Structure A wide range of flowers are always on display in the glasshouses. Their structure can be recorded in a variety of ways: • Directed observation through use of questionnaires • Drawing half a flower and labelling its structure • Creating a plan of the flower as if viewed from above • Creating a simple floral formula (this worksheet is using a simplified form of the recording system used by botanists) See worksheets 1-4 at back of booklet. Pollination Mechanisms • An extension of this work is to look at a variety of ways in which plants are designed in order to attract different pollinators See ‘A Guide To Pollinators’ at back of booklet. • Busy Bees. This is a game where pupils act out pollination See worksheet 5 at back of booklet Guide To Pollinators “Bee Flowers” Typically yellow, blue or purple. They produce pollen and lots of nectar, are often marked with lines and blotches and are sweetly scented at certain times of the day. “Butterfly Flowers” Vivid colours, often purple, red or white. Usually open during the day with a long thin corolla tube, lots of nectar and a strong scent. “Moth Flowers” Often white, p ink or pale yellow, open at night and have a heavy scent. “Wasp Flowers” Often pinkish or dirty red, with horizontal or drooping cups into which the short tongued wasp can push its head. -
Pollinators and Nectar Producing Plants
Pollinators and Nectar Producing Plants A pollinator is any animal that acts as an agent for distributing pollen from plant to plant. Pollinators ensure full harvests and seed production from many agricultural crops and provide for healthy plants grown in backyards, community gardens, and rural and urban areas. Populations of insect pollinators such as butterflies and bees have declined dramatically in recent years. Even though we'd all be in trouble without pollinators, many people ignore their value and at worst eradicate them with indiscriminate pesticide application and habitat destruction. Pollinators are worth protecting for their own sakes, but we would do well to remember that these creatures facilitate reproduction in 90% of the world's flowering plants, and that--on average--one in every three bites of food we humans take comes courtesy of an animal pollinator. When people think of pollination, many focus on bees. In many cases the use of insecticides for pest control has had the unwelcome side effect of killing the bees necessary for pollinating crops. Such environmental stresses plus several species of parasitic mites devastated honeybee populations in the United States beginning in the 1980s, making it necessary for farmers to rent bees from keepers throughout the U.S. in order to get their crops pollinated and greatly affecting the pollination of plants in the wild. Bees are the principal pollinators, but there are other important pollinators as well. These include other insects such as flies, moths, butterflies, wasps, and even some beetles. They also include hummingbirds and bats. Creating an enjoyable and environmentally friendly backyard habitat helps support all valuable pollinators.