19 Aug 2015
Many of you may have already met Lowry’s new Community Manager, Jennifer Bublitz, who is with MSI, our management company. She’s a great resource when you have a question regarding the Lowry community. You can contact her at 970-663-9685 or by email at email@example.com. If she doesn’t have the answer, Jennifer will be happy to find out and get back to you. She may even ask Mary Carr, the Lowry Community Master Association’s Executive Director.
But there are times you probably *don’t* want to hear from Jennifer, like when you receive a covenant violation notice alerting you that you may not be in compliance with Lowry’s Design Guidelines, Rules and Regulations. If you have received a covenant violation notice, take a deep breath and consider:
A. You’re not the only one. If you’re wondering why you got a notice, but your neighbor hasn’t received a notice for their lawn that hasn’t been mowed in two months, rest assured, they probably are already in the Covenant Enforcement pipeline.
B. The LCMA is run by reasonable people – they are, in fact, your neighbors. Ask them – they’ve received violation notices, too!
C. While you might be frustrated about receiving a violation notice, know that Jennifer is here to help. If you feel you’ve received a notice in error (we strive for perfection, but do sometimes make mistakes) or additional time is needed, just give Jennifer a call to discuss the matter.
D. Enforcing the Design Guidelines, Rules and Regulations isn’t an exact science. The intention is to keep Lowry looking beautiful, well maintained and safe, which makes Lowry a pleasant place to live and has a positive impact on our property values.
You can find the Design Guidelines, Rules and Regulations on the Lowry website, under HOA Guidelines, and here, we’ve compiled what is hopefully a helpful list of the top ten violations we see here in Lowry:
1. Weeds – Most common locations for weeds: alleys, fence lines, rock beds and mulched areas. Pull ’em, spray ’em, and don’t forget to pull the dead ones *after* you spray ’em. Rock beds should be free of weeds and grass.
2. Dry Lawn – Is there a sprinkler head on the fritz? Fungus in the lawn? Change in the weather? Give those dying brown patches of lawn a little TLC.
3. Trash Cans / Recycling Bins in View – The rule is that trash cans and recycling bins can be in view from 5P the evening before pickup day to 10P the evening of pickup day. Outside of those times, they need to be screened from view, in garages or behind fences.
4. Trees Need Trimming – Eight feet of clearance over the sidewalk and street is the guideline. Also, dead and damaged branches should be removed.
5. Contractor Signs – 30 days, folks. Then they’ve gotta go. And only post them in your yard, please, not in the tree lawn – that’s a right-of-way.
6. Miscellaneous Items Stored In View – The garage is full and so the rock bed on the side of the house or the alley seem like good places to store lumber, lawn mower, wheel barrow, sports equipment, bikes, or that leftover half-bag of mulch. Stow them behind the fence or in the garage, please.
7. Fence Needs Maintenance – You know the old joke, “What time is it when an elephant sits on your fence? Time to get a new fence.” Chances are, you don’t need a new fence. But maybe it could use a few new slats, stain, or need other repairs.
8. Holiday Decoration Removal Overdue – We’re approaching that time of year. Unless Hollywood is filming the next Chevy Chase movie at your house, please take down decorations 30 days after the holidays.
9. House Needs Paint – Mother Nature gave many of Lowry’s homes a distressed look this summer. While we admire shabby chic and distressed decor inside the home, it doesn’t comply with Lowry’s guidelines for the exterior of the home.
10. No Design Review Request Submitted – We have sent out a lot of updates this summer reminding homeowners that if they plan to make changes or additions to their home’s exterior, they need to submit a Design Review Request. We’ve simplified the form, you can fill it out on your computer and submit it by email and we’re processing the requests at a record pace. *If for some reason you submit your Design Review Request and don’t hear back within one week, please call Jennifer Bublitz. You can download the form here.
18 Aug 2015
Beat the end of summer heat with ice cream: long awaited and much celebrated Glacier Ice Cream & Gelato is now open here in Lowry, making its home in the Lowry Town Center next to Lowry Print and Ship.
This local, family-owned business started in Boulder and has been slowly spreading its way along the front range offering ice-cream and gelato from the finest and freshest ingredients. Glacier features 24 ice cream flavors and 10 gelatos and sorbets, all made in the store! Crowd favorites include: Birthday Cake, Salted Caramel Oreo, Funky Donkey, Cotton Candy or Raspberry Lime Gelato, and Junior Mint Gelato. Order up your favorite ice cream and gelato by the scoop, pick up a pint to take home, order an ice cream cake for a special birthday or consult Glacier about catering a sundae bar for your event.
Glacier Ice Cream is open Sun- Thurs 11A – 10P, Fri & Sat 11A-10:30P and you can follow them on Facebook too. Glacier will be having its Grand Opening event in 2-3 weeks, so stay tuned! You can also check them out at the Lowry Wine Walk & Concert on Saturday, September 12th.
12 Aug 2015
Last night the Pinnacol Foundation celebrated 107 remarkable students at the 2015 Pinnacol Foundation Scholars Celebration Dinner!
The Pinnacol Foundation Scholarship Program helps the children of Colorado workers injured or killed in a compensable work-related accident—regardless of insurance carrier—pay for a post-secondary education.
Pinnacol Assurance, Colorado’s leading provider of workers’ compensation insurance, spearheaded the creation of the Foundation in 2000. Since its inception, the Foundation has awarded nearly $3.3 million in scholarships to over 400 students. The Pinnacol Foundation website features video of these students talking about how the scholarship program has helped them reach their goals.
You can support the Foundation by making a contribution, participating in their annual Golf Tournament or sponsoring the Pinnacol Foundation Scholars Celebration Dinner. Click here for more information about how to support the Pinnacol Foundation Scholars.
The Pinnacol Foundation is an affiliate organization of Kids’ Chance of America
12 Aug 2015
Reprinted with permission from Colorado State University Extension: Colorado Master Gardener Program
The term chlorosis means a general yellowing of the leaves. Many factors contribute to chlorosis.
Iron chlorosis refers to a yellowing caused by an iron deficiency in the leaf tissues. The primary symptoms of iron deficiency include interveinal chlorosis, i.e., a general yellowing of leaves with veins remaining green. In severe cases, leaves may become pale yellow or whitish, but veins retain a greenish cast. Angular shaped brown spots may develop between veins and leaf margins may scorch (brown along the edge). [Figure 1]
Figure 1. Symptoms of iron chlorosis include yellowing of the leaf with veins remaining green.
Iron chlorosis shows first and more severely on the newer growth at branch tips. Growing leaves may be smaller than normal. Leaves may eventually curl, dry up, and fall. Fruits may be small with a bitter flavor. Mildly affected plants become unsightly and grow poorly. In severe cases or if iron chlorosis persists over several years, individual limbs or the entire plant may die.
It is common for iron chlorosis to show on a single branch or on one side of a tree. This is particularly common for plant species with marginal winter hardiness and on the southwest side of the tree following winter injury. Plant species and varieties vary greatly in their susceptibility to iron deficiency.
On junipers, pines, and other evergreens, chlorosis usually develops as an overall yellowing of needles.
Iron is necessary for the formation of chlorophyll, which is responsible for the green color in plants and necessary for photosynthesis (sugar production in plants). Any reduction in chlorophyll during the growing season reduces plant growth, vigor, and tolerance to stress conditions. Plants with reduced vigor from iron chlorosis are more prone to winter injury, and winter injury may aggravate an iron chlorosis problem. Weakened plants also are more susceptible to other diseases and insect infestations.
Iron chlorosis symptoms can be confused with other problems. In the high pH soils of Colorado, an iron chlorosis problem may actually be a combination of iron and manganese deficiencies. It is common for chlorotic trees to show a response to both iron and manganese treatments.
Zinc and manganese deficiencies result in similar leaf symptoms. Iron chlorosis appears first on the younger or terminal leaves. Under severe conditions, it may progress into older and lower leaves. By comparison, zinc and manganese deficiencies typically appear first on older, interior leaves. .
Nitrogen deficiency shows as a uniform yellowing of the entire leaf (including the veins). Nitrogen deficiency shows first in the older leaves, while iron chlorosis shows first in the newer growth.
Damage from soil sterilants (i.e., Pramitol, Atrazine, Simazine, Ureabor, and Diuron) used to prevent weeds result in similar symptoms. With these weed killers, the area along the vein remains green. With iron chlorosis, just the vein itself remains green.
Natural aging of tissues may create similar symptoms in some plants. Root and trunk damage and some virus, phytoplasmas, and vascular wilt diseases may cause similar leaf symptoms.
Causes and Complicating Factors
The factors leading to iron chlorosis are complex and not fully understood. A number of chemical reactions govern iron availability and contribute to the complexity of iron chemistry in soils.
Many environmental factors also create or contribute to iron deficiency. These factors need to be evaluated and alleviated to the extent possible. In most situations, attention to watering and soil conditions will satisfactorily correct minor iron chlorosis problems.
Many Colorado soils are naturally high in lime (calcium carbonate and other calcium compounds) driving the soil pH above 7.5. On these calcareous soils, iron chlorosis is common on susceptible plants.
Colorado soils are abundant in iron, as evidenced by the popular “red rock” formations. In alkaline soils (pH above 7.0), iron is rapidly fixed through a chemical reaction into insoluble, solid forms that cannot be absorbed by plant roots. Such iron will be tied up indefinitely unless soil pH changes. Soil applications of iron alone are ineffective, as the applied iron will quickly be converted to these unavailable solid forms.
Iron chlorosis is a common generic symptom of over-watering.
Overly wet or dry soils predispose plants to iron chlorosis. Iron chlorosis is more prevalent following wet springs, and where gardeners over-water in the spring. In western calcareous soils, iron chlorosis can generally be avoided by eliminating springtime over-watering!
It is common for gardeners to allow sprinkler control settings to remain unchanged from the high summer water needs to the lower water needs of spring and fall. In this situation, the yard receives around 40% more water than is needed in the spring and fall. Changing the controller to meet seasonal needs will conserve water and correct iron chlorosis in most situations. For details, refer to CMG GardenNotes on irrigation management for additional information.
Soil compaction and other conditions that limit soil air infiltration (like surface crusting and use of plastic mulch) predispose plants to iron chlorosis by limiting effective rooting depth. These are key contributing factors in clayey soils. Using organic mulch (like wood or bark chips) helps prevent and reduce soil compaction. Avoid the use of plastic under rock mulch around landscape plants. For details on mulching and soil compaction, refer to CMG GardenNotes #215, Soil Compaction, and #245, Mulching with Wood/Bark Chips, Grass Clippings, and Rock.
On trees, iron chlorosis is a common early symptom of trunk girdling roots. The primary cause of trunk girdling roots is planting trees too deep. Trunk girdling roots can lead to decline and death some 20 years after planting.
In tree planting standards, the top of the root ball should rise slightly above grade (i.e., 1-2 inches above grade) for newly planted trees. At least two structural roots should be located in the top 1-3 inches of the root ball. For additional information on tree planting, refer to CMG GardenNotes #633, The Science of Planting Trees.
On established trees, the trunk-to-root flare should be noticeable. If the trunk goes straight into the ground, suspect planting problems and possible development of trunk girdling roots over time. To check, perform a root collar excavation (carefully removing the soil around the base of tree) and examine the trunk/root flare.
Other Contributing Factors
Plant competition – On susceptible plants, competition from adjacent lawns or flowers may aggravate iron chlorosis. Replace the grass under the tree canopy with wood/bark chip mulch. Thin perennials in the flowerbed.
Winter injury – Trees with cankers and other winter injuries are prone to iron deficiency. Winter bark injury on tree trunks is caused by winter drought.
Soil organic matter – Organic matter is a key to successfully gardening in Colorado’s soils. Ideally, the soil’s organic content is brought up to 5%. However, excessive amounts may aggravate iron problems.
Excessive salt levels – High soil salt levels adversely affect uptake of water and nutrients, including iron. For details, refer to CMG GardenNotes #224, Saline Soils.
Soil temperature and light intensity – Extreme soil temperatures and high light intensity may increase iron chlorosis problems. Use an organic mulch to moderate soil temperature. Shading may help some crops.
Acid-loving plants – Acid loving plants are highly susceptible to iron chlorosis and not suited to Colorado’s soil conditions. These include blueberries, azaleas, rhododendron, flowering dogwood, and heather.
Nutrients – Excessive levels (from over-application) of phosphate, manganese, copper, or zinc may aggravate iron chlorosis.
Plant Selection – Right Plant, Right Place
In Colorado’s high pH soils, a good method to prevent iron chlorosis is to select plant species tolerant of high soil pH and less affected by low iron availability. Avoid planting the more susceptible species (Table 1) on soils prone to iron chlorosis problems (pH above 7.5, compacted, clayish, or wet soils).
Table 1. Examples of Plants with High Susceptibility to Iron Chlorosis
Amur maple Apple Arborvitae Aspen
Boxelder Bumald spiraea Cherry Cotoneaster Crabapple
Dawn redwood Douglas-fir Elm Flowering dogwoods Grape
Honeylocust Horse chestnut Juniper Linden
London plane tree (sycamore) Magnolia Mountain-ash
Northern red oak Peach Pear Pin oak
Pine Raspberry Red maple Rhododendron Silver maple Spruce Sweetgum some 250 other species
Unfortunately, there is no easy, inexpensive, or long-term correction for iron chlorosis. Treatments may be rather expensive and give disappointing results. Because plant and soil conditions vary greatly, there is no single approach that is consistently best.
Focusing on reducing springtime over-watering, soil compaction and other contributing factors is generally more effective than iron additives.
The first step in using iron additives is to know the soil pH and free-lime (calcium carbonate) content. These soil factors directly affect the success of any approach. Determine soil pH by soil test. When the pH is above 7.5, effective approaches are limited.
To check for free-lime, place a rounded tablespoon of dry crumbled soil in a small cup. Moisten the soil with vinegar. (The soil needs to be thoroughly moistened, but not swimming in vinegar.) If the soil-vinegar mix fizzes or bubbles, it has free-lime. High lime content is typical of soils with a pH above 7.5. A standard approach in treating iron chlorosis is to lower the soil’s pH. Lowering the pH is impractical to impossible if the soil contains free-lime.
There are four general approaches to iron treatments: 1) lowering the soil’s pH, 2) soil iron treatments, 3) foliar sprays, and 4) tree injections. Each has advantages and disadvantages. Each procedure gives variable results depending on plant species and soil conditions.
The two principal types of iron-containing products used for iron application include iron chelates and inorganic iron compounds (such as iron sulfate, ferrous sulfate). Several types of iron chelates are marketed under a variety of trade names. Soil pH dictates the type of chelate to use. Treatment of any iron product made mid-season may not produce satisfactory results.
Lowering Soil pH with Sulfur Products
A standard approach used in many products is to lower the soil pH. This approach merits consideration only if the soil does NOT have “free-lime” (high calcium carbonate), and may show effectiveness over a period of years.
Due to the high pH and lime content of many Colorado soils, this approach seldom merits consideration. If irrigation water is hard, the calcium carbonate (lime) in the water will counter any acidifying effect. (As a side note, it is observed that in some older gardens the pH has dropped below natural levels as the lime content is slowly leached out with decades of irrigation.)
The pH is lowered by soil applications of sulfur products. See the product labels for specific application rate. (Use of aluminum sulfate to lower soil pH is not recommended due to a potential for aluminum toxicity.) For details on lowering pH, refer to the CMG GardenNotes #222, Soil pH.
Soil Applications of Iron Sulfate Plus Sulfur
A simple approach is to apply a mixture of equal amounts of iron (ferrous) sulfate and sulfur to the soil. Examples of products include Copperas, Jirdon Super Iron Green, HiYield Soil Acidifier Plus Micros, and Fertilome Soil Acidifier Plus Iron. Over a period of months to years, an improvement may be noticed. When it is effective, treatments may last up to three or four years, depending on soil conditions.
This approach merits consideration only on soils without “free-lime”.
For trees, apply the mixture in holes around the drip-line of the tree, as described for chelates. Over time, the sulfur reacts to lower soil pH in a localized area. Broadcast applications, that dilute the material over a larger area, are less likely to give satisfactory results. Treat rows of berries or small shrubs by placing the mix in a furrow four inches deep and 12-24 inches away from the plant. See specific label directions for application rates. For best results, treat the soil in spring.
Soil Applications of Iron Chelates
Soil application of iron chelates may give a rapid response if the correct chelate is used and other contributing factors are minimal. Applications after May 1st are less likely to show results. Treatments may last less than a season to a couple of years.
Treat trees by placing the iron product in rings of holes in the ground beneath the dripline (outer reaches of the branches). Make holes 11⁄2 to 2 inches in diameter, 6 inches deep and 12 inches apart in rings 2 feet apart. On smaller trees, make 2 to 3 rings of holes. For large trees, create four to five or more rings of holes, and rings may
need to extend beyond the drip line. No holes should be made within 21⁄2 to 4 feet of the tree trunk on established trees. [Figure 2]
Drill holes in the soil with a power or hand auger, bulb planter, or small trowel, removing the soil core. Using a punch bar that makes holes by compacting the surrounding soil may be less effective. To avoid damage to shallow utility lines, have the area utility-staked before starting. [Figure 2]
Figure 2. Place soil additive in a ring of holes around the drip line of the tree.
On soils with a pH above 7.5, only special chelates formulated for a high pH are effective. Examples include EDDHMA (Miller’s Ferriplus) or EDDHA (Fe Sequestrene 138). Due to its higher cost, these products have limited availability. See product label for specific application rates.
On acid to slightly alkaline soils, try other chelates like EDTA (Fe Sequestrene 330, Fertilome Liquid Iron) and DTPA (Miller’s Iron Chelate DP). They lose effectiveness quickly as the pH rises above 7.2 to 7.5. See product label for specific application rates.
Soil Applications of Iron Sucrate
Iron sucrate, a relatively new iron source, is manufactured from iron oxide and molasses to form an iron-containing organic complex with limited water solubility. It has an advantage that it is less prone to staining (due to its very low solubility).
Iron sucrate merits consideration in high pH soils, and additional scientific evaluation is warranted for Colorado soils. It is marketed as Lilly Miller Iron Safe.
Foliar sprays of iron sulfate or iron chelates may provide quick response, often in a matter of days. However, the treatment is often spotty and only temporary. Multiple applications per season may be needed. Effects will not carry over into subsequent years.
Foliar applications are generally not recommended due to application limitations.
Complete coverage of all leaves is essential. Individual leaves not treated may remain chlorotic. Coverage on large trees is impractical to impossible.
There is a small margin between an iron concentration that will green up the leaves and a concentration that will cause leaf burn. Leaf tissues are rather prone to turn black from an iron burn. Following an iron sulfate foliar treatment, it is common to see leaves that remain chlorotic, leaves that green up, and leaves with black burn spots on the same plant. Spray hitting the sidewalk, house, and other objects may leave a permanent rusty discoloration. Chelated iron sprays are inactivated by sunlight.
Foliar applications may be made with some iron chelates or with iron sulfate products. Both types of products are equally effective, but iron chelates are more expensive. See product labels for specific application rates and instructions. With foliar applications, spray in the evening or on cloudy days when drying time is slower. A few drops of liquid dishwashing soap or commercial wetting agent will enhance sticking properties.
Professional arborists have trunk implant or injection methods available for treating iron chlorosis on large trees. Trunk injections may last from one to five years. Refer to product information for application details.
Authors: David Whiting (CSU Extension, retired), Adrian Card (CSU Extension), Carl Wilson (CSU Extension, retired), and Jean Reeder, Ph.D., (USDA-ARS, retired). Artwork by David Whiting; used by permission.
Colorado Master Gardener GardenNotes are available online at www.cmg.colostate.edu.
Colorado Master Gardener training is made possible, in part, by a grant from the Colorado Garden Show, Inc.
Colorado State University, U.S. Department of Agriculture and Colorado counties cooperating.
Extension programs are available to all without discrimination.
No endorsement of products mentioned is intended nor is criticism implied of products not mentioned.
Copyright 2002-2014. Colorado State University Extension. All Rights Reserved. CMG
GardenNotes may be reproduced, without change or additions, for nonprofit educational use. Revised October 2014
02 Aug 2015
There is an exciting new school option right here in Lowry. Wings Aerospace Academy is a tuition-free middle and future high school charter program providing hand-on aerospace experiences. We are launching grades 6-8 in Fall 2015; one grade will be added each year until the program reaches through 12th grade with the class of 2020 being the first graduating class.
Wings Aerospace Academy (W.A.A.) offers a “blended learning” format, bringing together the best of two worlds—the best of education technology with on-line learning via core courses provided by a certified, multi-district charter school, the Elevate Academy; and the best of hands-on, aerospace-based STEM curricula provided by Wings in our aerospace settings.
With Colorado being the second largest employer for the aerospace industry in the nation, this new charter school is an incredible opportunity to for children in Colorado. Last day to register is August 21st. For more information visit www.wingsaerospaceacademy.org.