Tabulation of Bids

Total Page:16

File Type:pdf, Size:1020Kb

Tabulation of Bids Bid Due Date and Time: August 25th, 2010 3:00 pm Contracting Officer: Roseann Johnson Diamond R Fertilizer Helena Chemical Company John Deere Landscapes PART# 1 - AQUATIC HERBICIDES Ft. Pierce, FL Dade City, Florida Cleveland, OH PREFERED ITEM # DESCRIPTION UNIT PRICING PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT SIZE 1 2-4-D AMINE (AQUATIC LABEL) (4lb) 2.5 GAL GAL Weedar 64 2.5 GAL $10.98 Weedar 64 2.5 GAL $10.90 2 2-4-D AMINE (AQUATIC LABEL) (4lb) 30 GAL GAL Weedar 64 30 GAL $10.58 Weedar 64 30 GAL $10.90 3 2-4-D GRANULAR 50 LB BAG BAG Navigate 50 LB BAG $137.50 4 AQUASHADE 1 GAL GAL Aqua Shade 1 GAL $37.90 Aquashade 1 GAL $32.00 5 AQUATHOL GRANULAR SUPER K 10 LB LB 6 AQUATHOL GRANULAR SUPER K 25 LB LB Aquathol Super K 25 LB $15.58 7 AQUATHOL LIQUID 2.5 GAL GAL Aquathol Super K 2.5 GAL $60.66 8 ARSENAL POWER LINE 2.5 GAL GAL Arsenal Powerline 2.5 GAL $68.00 9 AVAST 1 GAL GAL White Cap GAL $1,414.27 Avast 1 GAL $1,019.90 10 CLEARCAST SEPRO -NO SUBSTITUTE-CASE ONLY 1 CS (2 X 1 GAL) GAL AGENCY Clearcast 1 GAL $200.00 11 CUTRINE PLUS-APPLIED BIOCHEMISTS 1 GAL GAL Cutrine Plus 1 GAL $21.00 12 CUTRINE PLUS-APPLIED BIOCHEMISTS 2.5 GAL GAL Cutrine Plus 2.5 GAL $14.75 13 D-LIMONENE 100% 2.5 GAL GAL ® Citri Wet 2.5 GAL $26.70 Kammo Plus 2.5 GAL $16.00 14 DEFOAMER 10% OR GREATER 1 PT PT Foambuster 1 PT $6.00 Recede 16 OZ $3.53 15 DEFOAMER 10% OR GREATER 1 QT QT Fome - Kil GAL $6.16 16 DESTINY HC-NO SUBSTITUTE 2.5 GAL GAL 17 DLZ-NO SUBSTITUTE 2.5 GAL GAL DLZ 2.5 GAL $31.04 18 ESCORT 16 OZ OZ MS60 DF 16 OZ $3.80 19 GALLEON BY SEPRO-NO SUBSTITUTE QT QT AGENCY Galleon QT $475.00 20 GALLEON BY SEPRO-NO SUBSTITUTE 2.5 GAL GAL AGENCY 21 GARLON 3A DOW-AGRO SCIENCES 2.5 GAL GAL Element 3A 2.5 GAL $58.30 Element 3A 2.5 GAL $34.20 22 GARLON 3A DOW-AGRO SCIENCES 30 GAL GAL Element 3A 30 GAL $34.20 23 GARLON 4 ULTRA DOW-AGRO SCIENCES 2.5 GAL GAL Element 4 2.5 GAL $51.98 Garlon 4 ultra 2.5 GAL $79.12 24 GARLON 4 ULTRA DOW-AGRO SCIENCES 30 GAL GAL Garlon 4 ultra 30 GAL $79.12 25 HABITAT BASF-NO SUBSTITUTE 2.5 GAL GAL Habitat 2.5 GAL $58.90 26 HABITAT BASF-NO SUBSTITUTE 15 GAL GAL Habitat 15 GAL $62.00 27 HERBIMAX-NO SUBSTITUTE 2.5 GAL GAL 28 HYDROTHOL 191 GRANULAR 40 LB LB Hydrothol 191G 40 LB $2.68 29 HYDROTHOL 191 LIQUID 2.5 GAL GAL Hydrothol 191G 2.5 GAL $63.02 30 HYDROTHOL 191 LIQUID 30 GAL GAL 31 INTERLOCK-NO SUBSTITUTE 2.5 GAL GAL 32 INVERTING OIL 2.5 GAL GAL IVOD 2.5 GAL $15.77 33 INVERTING OIL 55 GAL GAL IVOD 55 GAL $15.15 34 IVM & BASAL OIL WITH DYE (SHORT FIL 11.25 GAL) 11.25 GAL GAL Impel Red 11.25 GAL $6.22 35 KRENITES 2.5 GAL GAL Krenite S 2.5 GAL $54.00 11-0801 Agricultural Chemicals Bid Due Date and Time: August 25th, 2010 3:00 pm Contracting Officer: Roseann Johnson Diamond R Fertilizer Helena Chemical Company John Deere Landscapes PART# 1 - AQUATIC HERBICIDES Ft. Pierce, FL Dade City, Florida Cleveland, OH PREFERED ITEM # DESCRIPTION UNIT PRICING PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT SIZE 36 LI-700 (AQUATIC ACODOFER)-NO SUBSTITUTE 1 GAL GAL 37 LEVEL 7-NO SUBSTITUTE 2.5 GAL GAL 38 LIQUID COPPER ALGACIDE CHELATE (MIN 8%) 2.5 GAL GAL Symmetry 2.5 GAL $19.87 K-Tea 2.5 GAL $12.86 39 LIQUID COPPER HERBICIDE (MIN 9%) 2.5 GAL GAL Captain 2.5 GAL $12.60 40 LIQUID COPPER HERBICIDE (MIN 9%) 30 GAL GAL Captain 30 GAL $12.60 41 MILESTONE VM DOW-NO SUBSTITUTE QT QT Milestone QT $312.96 42 MILESTONE VM DOW-NO SUBSTITUTE 2.5 GAL GAL Milestone 2.5 GAL $307.20 43 MAKAZE 2.5 GAL GAL 44 MILESTONE VM DOW PLUS-NO SUBSTITUTE QT QT 45 MILESTONE VM DOW PLUS-NO SUBSTITUTE 2.5 GAL GAL Mileston Plus 2.5 GAL $34.56 46 MSO CONCENTRATE0-NO SUBSTITUTE 2.5 GAL GAL ® MSO 2.5 GAL $13.80 Agridex 2.5 GAL $11.00 PHASE (AQUATIC MSO-0SI 100% ACTIVE)-NO 47 SUBSTITUTE 2.5 GAL GAL 48 PLATEAU BASF 1 GAL GAL Plateau 1 GAL $129.00 49 PLATEAU BASF 15 GAL GAL Plateau 15 GAL $129.00 50 POLYMER 1% NON IONIC 2.5 GAL GAL 51 POLYMER-30% OR GREATER NON-IONIC (DRIFT) 1 QT QT Accuracy 1 QT $8.00 52 POLYMER-30% OR GREATER NON-IONIC (DRIFT) 1 GAL GAL Accuracy 1 GAL $22.00 53 POLYMER-30% OR GREATER NON-IONIC (SINKING) 1 GAL GAL Sinker 1 GAL $23.00 54 PREFERENCE-NO SUBSTITUTE 2.5 GAL GAL 55 REFUSE 2.5 GAL GAL Refuge 2.5 GAL $17.00 56 RENOVATE MAX G 40 LB CONT LB AGENCY Renovate Max G 40 LB $2.88 57 REWARD SYGENTA-NO SUBSTITUTE 1 GAL GAL Reward 1 GAL $89.00 58 REWARD SYGENTA-NO SUBSTITUTE 2.5 GAL GAL AGENCY Reward 2.5 GAL $89.00 59 RENOVATE-NO SUBSTITUTE 2.5 GAL GAL AGENCY Renovate 2.5 GAL $99.75 60 RODEO DOW AGRO SCIENCES-NO SUBSTITUTE 2.5 GAL GAL Rodeo 2.5 GAL $12.80 61 RODEO DOW AGRO SCIENCES-NO SUBSTITUTE 30 GAL GAL Rodeo 30 GAL $12.80 62 GENERIC AQUATIC GLYPHOSATE 2.5 GAL GAL Aqua Star 2.5 GAL $14.30 Aqua Star 2.5 GAL $12.80 AquaNeat 2.5 GAL $21.02 63 GENERIC AQUATIC GLYPHOSATE 30 GAL GAL Aqua Star 30 GAL $13.75 Aqua Star 30 GAL $12.80 64 ROUND UP PRO CONCENTRATE-NO SUBSTITUTE 2.5 GAL GAL Pro. Conc. 2.5 GAL $21.20 Rup Pro Conc. 2.5 GAL $13.90 65 ROUND UP PRO CONCENTRATE-NO SUBSTITUTE 30 GAL GAL Pro. Conc. 30 GAL $20.70 Rup Pro Conc. 30 GAL $13.90 66 ROUND-UP-PRO MONSANTO-NO SUBSTITUTE 2.5 GAL GAL Ranger Pro 2.5 GAL $11.90 11-0801 Agricultural Chemicals Bid Due Date and Time: August 25th, 2010 3:00 pm Contracting Officer: Roseann Johnson Diamond R Fertilizer Helena Chemical Company John Deere Landscapes PART# 1 - AQUATIC HERBICIDES Ft. Pierce, FL Dade City, Florida Cleveland, OH PREFERED ITEM # DESCRIPTION UNIT PRICING PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT PRODUCT NAME BID SIZE BID PRICE PER UNIT SIZE 67 ROUND-UP-PRO MONSANTO-NO SUBSTITUTE 30 GAL GAL Ranger Pro 30 GAL $11.90 68 ROUND UP EQUIVALENT 14% SURFACTANT 2.5 GAL GAL Glystar Pro 2.5 GAL $11.55 Razor Pro 2.5 GAL $9.90 69 ROUND UP EQUIVALENT 14% SURFACTANT 30 GAL GAL Glystar Pro 30 GAL $10.84 Razor Pro 30 GAL $9.90 70 SAHARA 10 LB BAGS LB Sahara 10 LB BAGS $10.00 71 SCULPLIN G 40 LB CONT LB AGENCY Sculpling G 40 LB CONT $2.00 72 SINKERBALL-NO SUBSTITUTE 2.5 GAL GAL Sinkerball 2.5 GAL $32.45 73 SONAR AS SEPRO-NO SUBSTITUTE 1 QT QT AGENCY Sonar AS 1 QT $545.00 $916.54 74 SONAR AS SEPRO-NO SUBSTITUTE 1 GAL GAL AGENCY Sonar AS 1 GAL $1,694.18 75 SONAR SRP-SEPRO-NO SUBSTITUTE 40 LB LB AGENCY Sonar SRP 40 LB $24.89 76 SONAR ONE-SEPRO 20 LB PAIL LB AGENCY Sonar One 20 LB PAIL $24.50 77 SONAR PR SEPRO-NO SUBSTITUTE 30 LB LB AGENCY Sonar PR 30 LB $28.98 78 SONAR Q-NO SUBSTITUTE 30 LB LB AGENCY Sonar Q 40 LB $24.45 79 STINGRAY QT QT Stingray 1 QT $187.46 80 SURFACTANT ADJUVANT 80-20 1 GAL GAL 81 SURFACTANT ADJUVANT 80-20 2.5 GAL GAL Surfac 820 2.5 GAL $8.20 82 SURFACTANT ADJUVANT 90-10 1 GAL GAL Inlet 1 GAL $12.00 83 SURFACTANT ADJUVANT 90-10 2.5 GAL GAL Surfac 910 2.5 GAL $9.94 Inlet 2.5 GAL $11.75 SURFACTANT ADJUVANT 99% (OSI) ACTIVE-MUST 84 HAVE AQUATIC LABEL 1 GAL GAL Siltrate 1 GAL $38.82 Kinetic 1 GAL $78.00 SURFACTANT ADJUVANT 99% (OSI) ACTIVE-MUST 85 HAVE AQUATIC LABEL 2.5 GAL GAL 86 TACTIC-NO SUBSTITUTE 1 GAL GAL 87 TOUCH DOWN PRO -NO SUBSTITUTE 2.5 GAL GAL Touchdown Pro 2.5 GAL $17.00 88 VANQUISH 2.5 GAL GAL Vanquish 2.5 GAL $58.00 89 VANQUISH 30 GAL GAL Vanquish 30 GAL $57.00 90 VELPAR ULW 50 LB LB Velpar ULW 50 LB $16.00 91 VISTA 2.5 GAL GAL Vista XRT 2.5 GAL $170.00 92 WATER CONDITIONING AGENT 2.5 GAL GAL Clarify 2.5 GAL $12.80 Quest 2.5 GAL $17.00 11-0801 Agricultural Chemicals Bid Due Date and Time: August 25th, 2010 3:00 pm Contracting Officer: Roseann Johnson Diamond R Fertilizer Helena Chemical Company John Deere Landscapes PART# 2 - TURF ORNAMENTAL Ft.
Recommended publications
  • Effects of Surfactants on the Toxicitiy of Glyphosate, with Specific Reference to RODEO
    SERA TR 97-206-1b Effects of Surfactants on the Toxicitiy of Glyphosate, with Specific Reference to RODEO Submitted to: Leslie Rubin, COTR Animal and Plant Health Inspection Service (APHIS) Biotechnology, Biologics and Environmental Protection Environmental Analysis and Documentation United States Department of Agriculture Suite 5A44, Unit 149 4700 River Road Riverdale, MD 20737 Task No. 5 USDA Contract No. 53-3187-5-12 USDA Order No. 43-3187-7-0028 Prepared by: Gary L. Diamond Syracuse Research Corporation Merrill Lane Syracuse, NY 13210 and Patrick R. Durkin Syracuse Environmental Research Associates, Inc. 5100 Highbridge St., 42C Fayetteville, New York 13066-0950 Telephone: (315) 637-9560 Fax: (315) 637-0445 CompuServe: 71151,64 Internet: [email protected] February 6, 1997 TABLE OF CONTENTS EXECUTIVE SUMMARY ......................................... iii 1. INTRODUCTION .............................................1 2. CONSTITUENTS OF SURFACTANT FORMULATIONS USED WITH RODE0 ....4 2.1. AGRI-DEX ..........................................4 2.2. LI-700 .............................................4 2.3. R-11 ...............................................6 2.4. LATRON AG-98 ......................................6 2.5. LATRON AG-98 AG ....................................7 3. INFORMATION ON EFFECTS OF SURFACTANT FORMULATIONS ON THE TOXICITY OF RODEO ................................8 3.1. HUMAN HEALTH ......................................8 3.1.1. LI 700 ........................................8 3.1.2. Phosphatidylcholine ................................8
    [Show full text]
  • Pulmonary Surfactant: the Key to the Evolution of Air Breathing Christopher B
    Pulmonary Surfactant: The Key to the Evolution of Air Breathing Christopher B. Daniels and Sandra Orgeig Department of Environmental Biology, University of Adelaide, Adelaide, South Australia 5005, Australia Pulmonary surfactant controls the surface tension at the air-liquid interface within the lung. This sys- tem had a single evolutionary origin that predates the evolution of the vertebrates and lungs. The lipid composition of surfactant has been subjected to evolutionary selection pressures, partic- ularly temperature, throughout the evolution of the vertebrates. ungs have evolved independently on several occasions pendent units, do not necessarily stretch upon inflation but Lover the past 300 million years in association with the radi- unpleat or unfold in a complex manner. Moreover, the many ation and diversification of the vertebrates, such that all major fluid-filled corners and crevices in the alveoli open and close vertebrate groups have members with lungs. However, lungs as the lung inflates and deflates. differ considerably in structure, embryological origin, and Surfactant in nonmammals exhibits an antiadhesive func- function between vertebrate groups. The bronchoalveolar lung tion, lining the interface between apposed epithelial surfaces of mammals is a branching “tree” of tubes leading to millions within regions of a collapsed lung. As the two apposing sur- of tiny respiratory exchange units, termed alveoli. In humans faces peel apart, the lipids rise to the surface of the hypophase there are ~25 branches and 300 million alveoli. This structure fluid at the expanding gas-liquid interface and lower the sur- allows for the generation of an enormous respiratory surface face tension of this fluid, thereby decreasing the work required area (up to 70 m2 in adult humans).
    [Show full text]
  • Henry's Law Constants and Micellar Partitioning of Volatile Organic
    38 J. Chem. Eng. Data 2000, 45, 38-47 Henry’s Law Constants and Micellar Partitioning of Volatile Organic Compounds in Surfactant Solutions Leland M. Vane* and Eugene L. Giroux United States Environmental Protection Agency, National Risk Management Research Laboratory, 26 West Martin Luther King Drive, Cincinnati, Ohio 45268 Partitioning of volatile organic compounds (VOCs) into surfactant micelles affects the apparent vapor- liquid equilibrium of VOCs in surfactant solutions. This partitioning will complicate removal of VOCs from surfactant solutions by standard separation processes. Headspace experiments were performed to quantify the effect of four anionic surfactants and one nonionic surfactant on the Henry’s law constants of 1,1,1-trichloroethane, trichloroethylene, toluene, and tetrachloroethylene at temperatures ranging from 30 to 60 °C. Although the Henry’s law constant increased markedly with temperature for all solutions, the amount of VOC in micelles relative to that in the extramicellar region was comparatively insensitive to temperature. The effect of adding sodium chloride and isopropyl alcohol as cosolutes also was evaluated. Significant partitioning of VOCs into micelles was observed, with the micellar partitioning coefficient (tendency to partition from water into micelle) increasing according to the following series: trichloroethane < trichloroethylene < toluene < tetrachloroethylene. The addition of surfactant was capable of reversing the normal sequence observed in Henry’s law constants for these four VOCs. Introduction have long taken advantage of the high Hc values for these compounds. In the engineering field, the most common Vast quantities of organic solvents have been disposed method of dealing with chlorinated solvents dissolved in of in a manner which impacts human health and the groundwater is “pump & treat”swithdrawal of ground- environment.
    [Show full text]
  • Dive Theory Guide
    DIVE THEORY STUDY GUIDE by Rod Abbotson CD69259 © 2010 Dive Aqaba Guidelines for studying: Study each area in order as the theory from one subject is used to build upon the theory in the next subject. When you have completed a subject, take tests and exams in that subject to make sure you understand everything before moving on. If you try to jump around or don’t completely understand something; this can lead to gaps in your knowledge. You need to apply the knowledge in earlier sections to understand the concepts in later sections... If you study this way you will retain all of the information and you will have no problems with any PADI dive theory exams you may take in the future. Before completing the section on decompression theory and the RDP make sure you are thoroughly familiar with the RDP, both Wheel and table versions. Use the appropriate instructions for use guides which come with the product. Contents Section One PHYSICS ………………………………………………page 2 Section Two PHYSIOLOGY………………………………………….page 11 Section Three DECOMPRESSION THEORY & THE RDP….……..page 21 Section Four EQUIPMENT……………………………………………page 27 Section Five SKILLS & ENVIRONMENT…………………………...page 36 PHYSICS SECTION ONE Light: The speed of light changes as it passes through different things such as air, glass and water. This affects the way we see things underwater with a diving mask. As the light passes through the glass of the mask and the air space, the difference in speed causes the light rays to bend; this is called refraction. To the diver wearing a normal diving mask objects appear to be larger and closer than they actually are.
    [Show full text]
  • Biomechanics of Safe Ascents Workshop
    PROCEEDINGS OF BIOMECHANICS OF SAFE ASCENTS WORKSHOP — 10 ft E 30 ft TIME AMERICAN ACADEMY OF UNDERWATER SCIENCES September 25 - 27, 1989 Woods Hole, Massachusetts Proceedings of the AAUS Biomechanics of Safe Ascents Workshop Michael A. Lang and Glen H. Egstrom, (Editors) Copyright © 1990 by AMERICAN ACADEMY OF UNDERWATER SCIENCES 947 Newhall Street Costa Mesa, CA 92627 All Rights Reserved No part of this book may be reproduced in any form by photostat, microfilm, or any other means, without written permission from the publishers Copies of these Proceedings can be purchased from AAUS at the above address This workshop was sponsored in part by the National Oceanic and Atmospheric Administration (NOAA), Department of Commerce, under grant number 40AANR902932, through the Office of Undersea Research, and in part by the Diving Equipment Manufacturers Association (DEMA), and in part by the American Academy of Underwater Sciences (AAUS). The U.S. Government is authorized to produce and distribute reprints for governmental purposes notwithstanding the copyright notation that appears above. Opinions presented at the Workshop and in the Proceedings are those of the contributors, and do not necessarily reflect those of the American Academy of Underwater Sciences PROCEEDINGS OF THE AMERICAN ACADEMY OF UNDERWATER SCIENCES BIOMECHANICS OF SAFE ASCENTS WORKSHOP WHOI/MBL Woods Hole, Massachusetts September 25 - 27, 1989 MICHAEL A. LANG GLEN H. EGSTROM Editors American Academy of Underwater Sciences 947 Newhall Street, Costa Mesa, California 92627 U.S.A. An American Academy of Underwater Sciences Diving Safety Publication AAUSDSP-BSA-01-90 CONTENTS Preface i About AAUS ii Executive Summary iii Acknowledgments v Session 1: Introductory Session Welcoming address - Michael A.
    [Show full text]
  • Effect of Surfactant on Interfacial Gas Transfer Studied by Axisymmetric Drop Shape Analysis-Captive Bubble (ADSA-CB)
    5446 Langmuir 2005, 21, 5446-5452 Effect of Surfactant on Interfacial Gas Transfer Studied by Axisymmetric Drop Shape Analysis-Captive Bubble (ADSA-CB) Yi Y. Zuo,† Dongqing Li,† Edgar Acosta,‡ Peter N. Cox,§ and A. Wilhelm Neumann*,† Department of Mechanical and Industrial Engineering, University of Toronto, 5 King’s College Road, Toronto, ON, M5S 3G8, Canada, Department of Chemical Engineering and Applied Chemistry, University of Toronto, 200 College Street, Toronto, ON, M5S 3E5, Canada, and Department of Critical Care Medicine, The Hospital for Sick Children, 555 University Avenue, Toronto, ON, M5G 1X8, Canada Received January 31, 2005. In Final Form: April 3, 2005 A new method combining axisymmetric drop shape analysis (ADSA) and a captive bubble (CB) is proposed to study the effect of surfactant on interfacial gas transfer. In this method, gas transfer from a static CB to the surrounding quiescent liquid is continuously recorded for a short period (i.e., 5 min). By photographical analysis, ADSA-CB is capable of yielding detailed information pertinent to the surface tension and geometry of the CB, e.g., bubble area, volume, curvature at the apex, and the contact radius and height of the bubble. A steady-state mass transfer model is established to evaluate the mass transfer coefficient on the basis of the output of ADSA-CB. In this way, we are able to develop a working prototype capable of simultaneously measuring dynamic surface tension and interfacial gas transfer. Other advantages of this method are that it allows for the study of very low surface tensions (<5 mJ/m2) and does not require equilibrium of gas transfer.
    [Show full text]
  • Perspectives on Mucus Secretion in Reef Corals
    MARINE ECOLOGY PROGRESS SERIES Vol. 296: 291–309, 2005 Published July 12 Mar Ecol Prog Ser REVIEW Perspectives on mucus secretion in reef corals B. E. Brown*, J. C. Bythell School of Biology, Newcastle University, Newcastle upon Tyne NE1 7RU, UK ABSTRACT: The coral surface mucus layer provides a vital interface between the coral epithelium and the seawater environment and mucus acts in defence against a wide range of environmental stresses, in ciliary-mucus feeding and in sediment cleansing, amongst other roles. However, we know surpris- ingly little about the in situ physical and chemical properties of the layer, or its dynamics of formation. We review the nature of coral mucus and its derivation and outline the wide array of roles that are pro- posed for mucus secretion in corals. Finally, we review models of the surface mucus layer formation. We argue that at any one time, different types of mucus secretions may be produced at different sites within the coral colony and that mucus layers secreted by the coral may not be single homogeneous layers but consist of separate layers with different properties. This requires a much more dynamic view of mucus than has been considered before and has important implications, not least for bacterial colonisation. Understanding the formation and dynamics of the surface mucus layer under different environmental conditions is critical to understanding a wide range of associated ecological processes. KEY WORDS: Mucin · Mucopolysaccharide · Coral surface microlayer · CSM · Surface mucopolysaccharide layer · SML Resale or republication not permitted without written consent of the publisher INTRODUCTION production has been a problem for many working with coral tissues in recent years, and the offending sub- The study of mucus secretion by corals has fascinated stance has to be removed before histological, biochem- scientists for almost a century, from the work of Duer- ical or physiological processing can begin.
    [Show full text]
  • Dive Kit List Intro
    Dive Kit List Intro We realise that for new divers the array of dive equipment available can be slightly daunting! The following guide should help you choose dive gear that is suitable for your Blue Ventures expedition, without going overboard. Each section will highlight features to consider when choosing equipment, taking into account both budget and quality. Diving equipment can be expensive so we don’t want you to invest in something that will turn out to be a waste of money or a liability during your expedition! Contents Must haves Mask Snorkel Fins Booties Exposure protection DSMB and reel Slate and pencils Dive computer Dive manuals Highly recommended Cutting tool Compass Underwater light Optional Regulator BCD Dry bag Extra stuff Contact us Mask Brands: Aqualung, Atomic, Cressi, Hollis, Mares, Oceanic, Scubapro, Tusa Recommended: Cressi Big Eyes. Great quality for a comparatively lower price. http://www.cressi.com/Catalogue/Details.asp?id=17 Oceanic Shadow Mask. Frameless mask, which makes it easy to put flat into your luggage or BCD pocket. http://www.oceanicuk.com/shadow-mask.html Aqualung Linea Mask. Keeps long hair from getting tangled in the buckle while also being frameless. https://www.aqualung.com/us/gear/masks/item/74-linea Tusa neoprene strap cover. Great accessory for your mask in order to keep your hair from getting tangled in the mask and increasing the ease of donning and doffing your mask. http://www.tusa.com/eu-en/Tusa/Accessories/MS-20_MASK_STRAP To be considered: The most important feature when you buy a mask is fit. The best way to find out if it is the right mask for you is to place the mask against your face as if you were wearing it without the strap, and inhaling through your nose.
    [Show full text]
  • What Happens to Herbicides After We Apply Them? by Kyra Clark
    Refuge Notebook • Vol. 19, No. 38 • September 22, 2017 What happens to herbicides after we apply them? by Kyra Clark some of the more than 110 exotic plant species in- troduced to the Kenai Peninsula. Over the years, we have been spot treating invasive plants at trail- heads and boat launches, keeping the refuge notice- ably cleaner than the rest of the peninsula. We typ- ically use three chemicals: glyphosate, aminopyralid and fluridone. These are the active ingredients in the different commercial herbicides we use to control or kill target species. The big differences between DDT and other pesti- cides used in Carson’s time and those we use now are their environmental fate and how they degrade over time. DDT has a half-life (time required for half of the original concentration to degrade) of 2–15 years. DDT can also leach into water sources and bio-accumulate in the tissues of animals. In contrast, the three chem- icals we use all have half-lives under a year, do not leach, and do not bio-accumulate in animals. There has been a lot of bad press about glyphosate, but most issues with glyphosate products are asso- ciated with its use in agriculture where herbicides are applied chronically or genetically encoded into seeds. Glyphosate products vary in their formula- tions of glyphosate, the carrier solution, and surfac- tant. Surfactants enhance the active ingredient’s ef- fectiveness by breaking surface tension of the liquid herbicide to improve its coverage of foliage, its ability to stick to foliage, and its rainfastness. We typically use two glyphosate formulations for terrestrial weed control on the refuge.
    [Show full text]
  • Lipid–Protein and Protein–Protein Interactions in the Pulmonary Surfactant System and Their Role in Lung Homeostasis
    International Journal of Molecular Sciences Review Lipid–Protein and Protein–Protein Interactions in the Pulmonary Surfactant System and Their Role in Lung Homeostasis Olga Cañadas 1,2,Bárbara Olmeda 1,2, Alejandro Alonso 1,2 and Jesús Pérez-Gil 1,2,* 1 Departament of Biochemistry and Molecular Biology, Faculty of Biology, Complutense University, 28040 Madrid, Spain; [email protected] (O.C.); [email protected] (B.O.); [email protected] (A.A.) 2 Research Institut “Hospital Doce de Octubre (imasdoce)”, 28040 Madrid, Spain * Correspondence: [email protected]; Tel.: +34-913944994 Received: 9 May 2020; Accepted: 22 May 2020; Published: 25 May 2020 Abstract: Pulmonary surfactant is a lipid/protein complex synthesized by the alveolar epithelium and secreted into the airspaces, where it coats and protects the large respiratory air–liquid interface. Surfactant, assembled as a complex network of membranous structures, integrates elements in charge of reducing surface tension to a minimum along the breathing cycle, thus maintaining a large surface open to gas exchange and also protecting the lung and the body from the entrance of a myriad of potentially pathogenic entities. Different molecules in the surfactant establish a multivalent crosstalk with the epithelium, the immune system and the lung microbiota, constituting a crucial platform to sustain homeostasis, under health and disease. This review summarizes some of the most important molecules and interactions within lung surfactant and how multiple lipid–protein and protein–protein interactions contribute to the proper maintenance of an operative respiratory surface. Keywords: pulmonary surfactant film; surfactant metabolism; surface tension; respiratory air–liquid interface; inflammation; antimicrobial activity; apoptosis; efferocytosis; tissue repair 1.
    [Show full text]
  • Soluble Surfactant and Nanoparticle Effects on Lipid Monolayer Assembly and Stability
    Soluble Surfactant and Nanoparticle Effects on Lipid Monolayer Assembly and Stability Dissertation Presented in Partial Fulfillment of the Requirements for the Degree Doctor of Philosophy in the Graduate School of The Ohio State University By Matthew D. Nilsen, B.S., M.Sc. Graduate Program in Chemical Engineering The Ohio State University 2010 Dissertation Committee: Dr. James F. Rathman, Advisor Dr. L. James Lee Dr. Isamu Kusaka c Copyright by Matthew D. Nilsen 2010 Abstract The study of self-assembly dynamics that lead to ultra-thin films at an interface remains a very active research topic because of the ability to generate interesting and useful structures that can perform specific tasks such as aiding in magnetic separa- tions, acting as two-dimensional biosensors and the modification of surfaces without changing their morphology. In some cases this is critical to surface functionality. This area is also important because it may ultimately yield simple screening techniques for novel surfactants and nanoparticle species before they are introduced onto the market, as is already happening. In the work presented here we studied the assembly dynamics of the insoluble lipid DPPC, common to most mammalian cell lines, in the presence of soluble surfactant and nanoparticle species. Preliminarily, we investigated the anomalous behavior of soluble surfactants at the air/water interface as an exten- sion to work done previously and then used these results in an attempt to explain the behavior of the combined surfactant/lipid monolayer under dynamic and static conditions. Separately, we performed nanoparticle dynamics studies for a commer- cially available product and for particles created in-house before performing similar statics/dynamics work on the combined nanoparticle/lipid monolayer.
    [Show full text]
  • EUBS2014 Abstractbook.Pdf
    CONFERENCE COMMITTEE Secretary General: Dr. Peter Müller (EUBS/GTÜM) Secretary: P.Freitag (Public Relations Druckkammerzentren Rhein Main Taunus GmbH) Organising Committee: Michael Kemmerer (CEO Druckkammerzentren Rhein Main Taunus GmbH) Dr. Peter Germonpré (EUBS) Dr. Karin Hasmiller (GTÜM) Dr. Dirk Michaelis (Medical Director Druckkammerzentren Rhein Main Taunus GmbH) Scientific Committee: Prof. Costantino Balestra (EUBS) Dr. Lesley Blogg (EUBS) PD Dr. Björn Jüttner (EUBS/GTÜM) PD Dr. Claus-Martin Muth (EUBS/GTÜM) PD Dr. Lars Perlik (Asklepios Paulinen Klinik Wiesbaden) PD Dr. Tim Piepho (GTÜM) Prof. Dr. Christian Werner (University Hospital Mainz) EUBS EXECUTIVE COMMITTEE – SEPT 2014 Prof. Costantino Balestra (President of EUBS) Dr Jacek Kot (Vice President of EUBS) Dr Peter Germonpré (Immediate Past President) Prof Alf O. Brubakk (Past President) Dr Joerg Schmutz (Honorary Secretary) Dr Fiona Sharp (Member at Large) Dr Lesley Blogg (Member at Large) Dr Pierre Lafère (Member at Large) Dr Philip Bryson (Liaison Committee) Dr Peter Muller (DHM Journal, European Editor) Ms Patricia Wooding (Membership Secretary – Treasurer) 1 PARTNERS AND SPONSORS Organisation: Conference Support Grant: Druckkammerzentren Rhein Main Taunus GmbH USN Office of Naval Research Global London, UK Platinum Sponsor: GS Elektromedizinische Geräte G. Stemple GmbH Gold Sponsors: Druckkammerzentren Rhein Main Taunus German Society for Diving- and GmbH Hyperbaric Medicine Haux & Siare Silver Sponsors: Keller Medical GmbH IHC Hytech DAN Europe aqua med OxyHeal Health Group Hipertech Bronze Sponsor: VDD e.V. 2 CORPORATE MEMBERS OF EUBS SCIENTIFIC PROGRAMME OVERVIEW 3 Time Author Title No. Page Tuesday, 23. September 2014 08:00 ‐ 17:00 Registration open & Set‐up Industry Exhibition 12:00 ‐ 17:00 Jacek Kot European Code of Practice in Hyperbaric Medicine, Meeting of the Editorial Task Force 17:00 ‐ 18:00 After Work Industry Exhibition Wednesday, 24.
    [Show full text]