What Is the Secret to Hiring the Right Deck Builder in Gig Harbor WA? Discover Expert Tips Before You Choose Today!

Assessing the Portfolio: Why Previous Work Matters


When it comes to hiring the right deck builder in Gig Harbor, WA, assessing the portfolio of potential contractors is a crucial step that shouldnt be overlooked. But, why does previous work matter so much? Well, let's dive into this!


Firstly, a portfolio provides a clear visual representation of what the builder is capable of producing.

portfolio

  1. awning
  2. humidity
  3. footings
  4. PVC
It's not just about seeing the finished product; it's about understanding the scope and scale of projects they've handled in the past. For instance, if you are planning a multi-level deck with custom railings and built-in seating, youll want to see something similar in their past work to feel confident that they can handle your project.


Moreover, previous work is also a testament to a builder's craftsmanship. Details in the construction, the materials used, and the finishing touches can speak volumes about their attention to detail and commitment to quality.

portfolio

  • blueprint
  • sustainability
  • fasteners
  • delivery
  • balusters
It's one thing to claim excellence and another to demonstrate it through solid examples!


Another reason (why a thorough evaluation is necessary) is to gauge the builders style compatibility with your own. Deck building isnt just about functionality; aesthetics play a significant role too. The portfolio can give you insights into the builder's design sensibilities and whether they align with your vision for your outdoor space.


Communication and client feedback are also reflected in a portfolio. Often, builders will include testimonials or reviews from previous clients. This feedback can highlight not just the end product but also the builders process, reliability, and communication style. How a builder handles challenges and changes can significantly affect your overall satisfaction with the project.


Lastly, reviewing past work can help you spot any potential red flags. Inconsistencies in quality or a lack of diversity in project types might indicate limited experience or expertise, which could be a concern depending on what you need for your deck.


So, when you're set to choose a deck builder in Gig Harbor, don't just take their word for it! Dive into their portfolio, examine the details, and ask plenty of questions. Your perfect deck awaits, and finding the right builder will make all the difference (in achieving your dream outdoor space)!

Understanding Contract Details: What to Look for Before Signing


When embarking on the exciting journey of building a deck in Gig Harbor, WA, finding the right deck builder is crucial to ensure the success of your project. Its not just about choosing someone who can hammer nails into wood but selecting a professional who understands your vision and can execute it flawlessly. Before you sign any contract, it's vital to dig deep into the details to avoid any future disappointments (or worse, disputes).


Firstly, always look for clarity in the scope of work detailed in the contract. It should clearly outline what the builder is responsible for. This includes the types of materials to be used, the exact dimensions of the deck, and specific timelines for the completion of the work. Ambiguities in this section could lead to misunderstandings that might affect the quality and outcome of your deck. Does the contract specify the brand or quality of the materials? portfolio This is important because it directly influences the durability and appearance of your deck!


Secondly, payment terms need to be transparent and fair. Check if the payment schedule is reasonable and correlates with the completion milestones. Be cautious of any contractor asking for a large sum upfront; this is a red flag! A staggered payment plan that aligns with the progress of the work is typically the safest approach. Also, look out for clauses related to unexpected costs-how are these handled according to the contract?


Liability and insurance are other critical components that shouldnt be overlooked. The contractor should have adequate insurance to cover any accidents or damage that might occur during the construction. This protects you as a homeowner from potential liabilities that could arise. It's a good idea to ask for proof of insurance before starting the work!


Lastly, warranties or guarantees on the workmanship and materials provide an extra layer of security and peace of mind. Ensure that the contract specifies what is covered under the warranty and the duration of the coverage. Knowing that you have recourse in case something goes wrong after the project can be very reassuring!


Hiring the right deck builder in Gig Harbor, WA, doesn't just come down to their skill level or portfolio; it significantly hinges on the contract details. A well-drafted and comprehensive contract can prevent numerous issues and ensure that your deck-building experience is a pleasant one! So, take your time, review all details carefully (and maybe even get a second opinion from a legal advisor if necessary). Remember, a great deck starts with a great contract! Happy building!

The Importance of Local Building Codes and Permits


When it comes to hiring the right deck builder in Gig Harbor, WA, understanding the importance of local building codes and permits cannot be overstated. This seemingly bureaucratic step is actually crucial in ensuring that your new deck is safe, legal, and built to last. Lets dive into why this knowledge is a key ingredient in choosing the best contractor for your project!


First off, local building codes are designed to ensure that all construction work meets a set of standards aimed at safety and durability. For instance, there are specific codes regarding the load-bearing capacity of the deck, materials used, and even the spacing between railings. A skilled deck builder with experience in Gig Harbor will be familiar with these regulations and can navigate them effortlessly, ensuring that your deck isnt just beautiful but also compliant and safe.


Moreover, obtaining the necessary permits is a process that can be quite complex and time-consuming. It involves submitting detailed plans and sometimes undergoing inspections during and after the construction phase. A reputable deck builder will handle all these aspects for you, making the process as smooth as possible. They know exactly what needs to be submitted, to whom, and the usual timelines for approval.


Remember, working without the necessary permits can lead to serious problems. It might result in fines or, even worse, the need to dismantle your newly built deck if it fails to meet the regulatory standards (what a nightmare!). Plus, it could potentially affect your homes insurance policy or its value when you decide to sell.


Thus, when youre looking to hire a deck builder in Gig Harbor, don't just focus on the pricing or the portfolio of beautiful decks theyve built before. Make sure to ask about their process for handling building codes and permits. Their readiness and familiarity with these aspects are often a good indicator of their professionalism and expertise!


In conclusion, the secret to hiring the right deck builder in Gig Harbor, WA lies not only in craftsmanship and cost but also in their understanding and handling of local building codes and permits. This ensures that your deck project goes off without a hitch, is up to code, and doesn't bring about any unwelcome surprises down the line! Always choose a builder who emphasizes the importance of legality and safety as much as aesthetics and functionality.

After-Service Support: Evaluating Warranty and Maintenance Commitments


When youre planning to hire the right deck builder in Gig Harbor, WA, its not just about the craftsmanship and cost; after-service support, including warranty and maintenance commitments, plays a critical role too. Knowing what kind of support youll receive after the construction can be just as crucial as the build itself.


Firstly, warranties are a must-have when it comes to choosing a deck builder. A warranty can serve as your safety net should anything go amiss due to no fault of your own (like materials failing or workmanship defects). Make sure to ask each potential builder about the type of warranty they offer. Is it a limited warranty or a more comprehensive one? How many years does it cover? The answers to these questions can be quite telling about the builder's confidence in their work and materials.


Maintenance commitments are another key aspect. Decks require upkeep to stay beautiful and functional for years. Some builders might offer maintenance services as part of their package, while others might not. What Is the Secret to Hiring the Right Deck Builder in Gig Harbor WA? Discover Trusted Tips Before You Choose Today! . Knowing this upfront can help you plan for the future (and possibly avoid some headaches!). Ask them about the recommended maintenance routines and if they provide follow-up services to check on the condition of the deck over time.


Do remember, every builder might have different policies, so it's important to compare these aspects just like you would with pricing and design options. Also, don't hesitate to ask for past client references or examples of their after-service support in action. patio Real-life examples can give you a clearer picture of how responsive and responsible a builder is once the construction dust settles.


Choosing the right deck builder in Gig Harbor, WA, isnt just about the immediate results, but also about how well youre supported after the project completes! Make sure to weigh these factors carefully to ensure you're truly getting the best professional for your project. Excited yet? You should be! The perfect deck is just around the corner, with the right builder who not only builds it but also stands behind it.

Deck Builder Gig Harbor WA

Read more here also:

https://www.google.com/maps/d/edit?mid=1Glkk4a390nfMhyfFP-VHdtOJDAstHxk&usp=sharing

https://earth.google.com/web/@47.1610225,-122.4636915,94.28171986a,15873.92248338d,30.00000082y,0h,0t,0r/data=CgRCAggBMigKJgokCiAxR2xrazRhMzkwbmZNaHlmRlAtVkhkdE9KREFzdEh4ayACOgMKATBCAggASggIp7KRiAYQAQ?utm_source=mymaps

https://lh3.googleusercontent.com/p/AF1QipPVHgG5yXXXzMim5L7jK438xenH72O6p4SFZXz8=s1360-w1360-h1020-rw

https://maps.app.goo.gl/FMTvEdmoe9wz6ggc9

https://www.google.com/search?kgmid=/g/11s0xlgfdp

https://www.google.com/maps/place/Fresh+View+Construction/@47.1656978,-122.4689362,3a,75y,90t/data=!3m8!1e2!3m6!1sCIHM0ogKEICAgICZ-uz0fQ!2e10!3e12!6shttps:%2F%2Flh3.googleusercontent.com%2Fgps-cs-s%2FAPNQkAEoA6Mx5v-PNRlR0-Xcq9nPZdSDAZBNrh3RRZh3SemBZWJ6zHvPIyU3B2RZHF-vQom2rS_E1ma03-ejAEoq87tmIe1pPW-4ZWCdVrQNaZ_ENmeDmalxwpwCRqFHhtYs1KyD6p8r%3Dw152-h86-k-no!7i1920!8i1080!4m7!3m6!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!10e5!16s%2Fg%2F11s0xlgfdp!5m1!1e1?entry=ttu&g_ep=EgoyMDI2MDQyNi4wIKXMDSoASAFQAw%3D%3D

https://www.google.com/maps/place/Fresh+View+Construction/@47.1656978,-122.4689362,3a,75y,90t/data=!3m8!1e2!3m6!1sAF1QipPHSPyfjq-A_mNqxTyO8B2EE7NK7n3OhWnb9mkT!2e10!3e12!6shttps:%2F%2Flh3.googleusercontent.com%2Fp%2FAF1QipPHSPyfjq-A_mNqxTyO8B2EE7NK7n3OhWnb9mkT%3Dw203-h114-k-no!7i1920!8i1080!4m7!3m6!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!10e5!16s%2Fg%2F11s0xlgfdp!5m1!1e1?entry=ttu&g_ep=EgoyMDI2MDQyNi4wIKXMDSoASAFQAw%3D%3D

https://www.google.com/maps/place/Fresh+View+Construction/@47.1656978,-122.4689362,3a,75y,90t/data=!3m8!1e2!3m6!1sAF1QipMb_7__zorTD8Yhj7rCyzkjoO0JlXPmkax4-Ly7!2e10!3e12!6shttps:%2F%2Flh3.googleusercontent.com%2Fp%2FAF1QipMb_7__zorTD8Yhj7rCyzkjoO0JlXPmkax4-Ly7%3Dw203-h270-k-no!7i3024!8i4032!4m7!3m6!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!10e5!16s%2Fg%2F11s0xlgfdp!5m1!1e1?entry=ttu&g_ep=EgoyMDI2MDQyNi4wIKXMDSoASAFQAw%3D%3D

Gig Harbor Deck Contractor

https://maps.app.goo.gl/DbxmWCWxoStbT4w19 https://maps.app.goo.gl/Sn4goSx7q3gmLGNCA https://maps.app.goo.gl/ia4icFyv8MdHEFb26 https://maps.app.goo.gl/RVuKBxi3TH7qC3tg7

Citations and other links

For other uses, see Patio (disambiguation).

 

A patio outside of a home in the Netherlands

A patio[a] (Spanish for 'courtyard, forecourt, yard, little garden') is an outdoor space generally used for dining or recreation that adjoins a structure and is typically paved.[3] In Australia, the term is expanded to include roofed structures such as a veranda, which provides protection from sun and rain.[4]

Construction

[edit]

Patios are most commonly paved with concrete or stone slabs (also known as paving flags). They can also be created using bricks, block paving, tiles, cobbles or gravel. Other kinds of patio materials these days include alumawood, aluminum, acrylic and glass. Other options include concrete, stamped concrete, and aggregate concrete.

Restaurant patio

[edit]
An outdoor seating area at a restaurant in State College, Pennsylvania

Patio is also a general term used for outdoor seating at restaurants, especially in Canadian English. While common in Europe even before 1900, eating outdoors at restaurants in North America was exotic until the 1940s. The Hotel St. Moritz in New York in the 1950s advertised itself as having the first true continental cafe with outdoor seating. The Toronto Star welcomed that city's first patio in the 1960s. In the United States, having a warmer and sunnier climate than Northern Europe, outdoor dining grew rapidly in the 1960s and today is a popular dining experience in the warmer parts of the mainland.[5]

See also

[edit]

Notes

[edit]
  1. ^ English: /ˈpætioÊŠ/,[1] US also /ˈpɑːtioÊŠ/;[2] Spanish: [ˈpatjo]

Citations

[edit]
  1. ^ "patio". Oxford Dictionaries. Archived from the original on 16 April 2014. Retrieved 15 April 2014.
  2. ^ Wells, John C. (2008). Longman Pronunciation Dictionary (3rd ed.). Longman. p. 592. ISBN 978-1-4058-8118-0.
  3. ^ Court, Jess (17 May 2021). "How to make the best of your outdoor space". Aqua Warehouse. Retrieved 28 February 2022.
  4. ^ Department of Planning. "State Planning Policy 3.1 - Residential Design Codes". Archived from the original on 3 September 2018. Retrieved 9 October 2017.
  5. ^ Bateman, Chris (29 April 2015). "How Toronto learned to love the patio". Spacing. Retrieved 30 May 2016.

References

[edit]
[edit]
  • Media related to Patios at Wikimedia Commons
  • The dictionary definition of patio at Wiktionary
 
 

 

 

For a small forest, see Woodland. For wood as a commodity, see Timber. For other uses, see Wood (disambiguation) and Wooden (disambiguation).

 

Wood samples
 Pine 
 Spruce 
 Larch 
 Aspen 
 Birch 
 Alder 
 Beech 
 Oak 
 Elm 
 Cherry 
 Pear 
 Maple 
 Linden 
 Ash 

Wood is a structural tissue/material found as xylem in the stems and roots of trees and other woody plants. Being a natural material, it is characterized as an organic material – a natural composite of cellulosic fibers that are strong in tension and embedded in a matrix of lignin and hemicelluloses that resists compression.[1][2]

Wood is sometimes defined as only the secondary xylem in the stems of trees,[3] or more broadly to include the same type of tissue elsewhere, such as in the roots of trees or shrubs. In a living tree, it performs a mechanical-support function, enabling woody plants to grow large or to stand up by themselves. It also conveys water and nutrients among the leaves, other growing tissues, and the roots. Wood may also refer to other plant materials with comparable properties, and to material engineered from wood, woodchips, or fibers.

Wood has been used for thousands of years for fuel, as a construction material, for making tools and weapons, furniture and paper. More recently it emerged as a feedstock for the production of purified cellulose and its derivatives, such as cellophane and cellulose acetate.

As of 2020, the growing stock of forests worldwide was about 557 billion cubic meters.[4] As an abundant, carbon-neutral[5] renewable resource, woody materials have been of intense interest as a source of renewable energy. In 2023, almost 4 billion cubic meters of wood were harvested.[6] Dominant uses were for furniture and building construction.

Wood is scientifically studied and researched through the discipline of wood science, which was initiated since the beginning of the 20th century.

History

[edit]

A 2011 discovery in the Canadian province of New Brunswick yielded the earliest known plants to have grown wood, approximately 395 to 400 million years ago.[7][8]

Wood can be dated by carbon dating and in some species by dendrochronology to determine when a wooden object was created.

People have used wood for thousands of years for many purposes, including as a fuel or as a construction material for making houses, tools, weapons, furniture, packaging, artworks, and paper. Known constructions using wood date back ten thousand years. Buildings like the longhouses in Neolithic Europe were made primarily of wood.

Recent use of wood has been enhanced by the addition of steel and bronze into construction.[9]

The year-to-year variation in tree-ring widths and isotopic abundances gives clues to the prevailing climate at the time a tree was cut.[10]

Early humans progressively invented tools and techniques for trapping animals. The earliest spears were crafted from wood, with tips toughened by burning. By 15,000 BC, hunters employed wooden and bone spear-launchers to enhance force and distance. These devices were frequently adorned with carvings of creatures.[11]

Physical properties

[edit]
Diagram of secondary growth in a tree showing idealized vertical and horizontal sections. A new layer of wood is added in each growing season, thickening the stem, existing branches and roots, to form a growth ring.

Growth rings

[edit]
See also: Dendrochronology § Growth rings

Wood, in the strict sense, is yielded by trees, which increase in diameter by the formation, between the existing wood and the inner bark, of new woody layers which envelop the entire stem, living branches, and roots. This process is known as secondary growth; it is the result of cell division in the vascular cambium, a lateral meristem, and subsequent expansion of the new cells. These cells then go on to form thickened secondary cell walls, composed mainly of cellulose, hemicellulose and lignin.

Where the differences between the seasons are distinct, e.g. New Zealand, growth can occur in a discrete annual or seasonal pattern, leading to growth rings; these can usually be most clearly seen on the end of a log, but are also visible on the other surfaces. If the distinctiveness between seasons is annual (as is the case in equatorial regions, e.g. Singapore), these growth rings are referred to as annual rings. Where there is little seasonal difference growth rings are likely to be indistinct or absent. If the bark of the tree has been removed in a particular area, the rings will likely be deformed as the plant overgrows the scar.

If there are differences within a growth ring, then the part of a growth ring nearest the center of the tree, and formed early in the growing season when growth is rapid, is usually composed of wider elements. It is usually lighter in color than that near the outer portion of the ring, and is known as earlywood or springwood. The outer portion formed later in the season is then known as the latewood or summerwood.[12] There are major differences, depending on the kind of wood. If a tree grows all its life in the open and the conditions of soil and site remain unchanged, it will make its most rapid growth in youth, and gradually decline. The annual rings of growth are for many years quite wide, but later they become narrower and narrower. Since each succeeding ring is laid down on the outside of the wood previously formed, it follows that unless a tree materially increases its production of wood from year to year, the rings must necessarily become thinner as the trunk gets wider. As a tree reaches maturity its crown becomes more open and the annual wood production is lessened, thereby reducing still more the width of the growth rings. In the case of forest-grown trees so much depends upon the competition of the trees in their struggle for light and nourishment that periods of rapid and slow growth may alternate. Some trees, such as southern oaks, maintain the same width of ring for hundreds of years. On the whole, as a tree gets larger in diameter the width of the growth rings decreases.

Knots

[edit]
A knot on a tree trunk

As a tree grows, lower branches often die, and their bases may become overgrown and enclosed by subsequent layers of trunk wood, forming a type of imperfection known as a knot. The dead branch may not be attached to the trunk wood except at its base and can drop out after the tree has been sawn into boards. Knots affect the technical properties of the wood, usually reducing tension strength,[13] but may be exploited for visual effect. In a longitudinally sawn plank, a knot will appear as a roughly circular "solid" (usually darker) piece of wood around which the grain of the rest of the wood "flows" (parts and rejoins). Within a knot, the direction of the wood (grain direction) is up to 90 degrees different from the grain direction of the regular wood.

In the tree a knot is either the base of a side branch or a dormant bud. A knot (when the base of a side branch) is conical in shape (hence the roughly circular cross-section) with the inner tip at the point in stem diameter at which the plant's vascular cambium was located when the branch formed as a bud.

In grading lumber and structural timber, knots are classified according to their form, size, soundness, and the firmness with which they are held in place. This firmness is affected by, among other factors, the length of time for which the branch was dead while the attaching stem continued to grow.

Wood knot in vertical section

Knots materially affect cracking and warping, ease in working, and cleavability of timber. They are defects which weaken timber and lower its value for structural purposes where strength is an important consideration. The weakening effect is much more serious when timber is subjected to forces perpendicular to the grain and/or tension than when under load along the grain and/or compression. The extent to which knots affect the strength of a beam depends upon their position, size, number, and condition. A knot on the upper side is compressed, while one on the lower side is subjected to tension. If there is a season check in the knot, as is often the case, it will offer little resistance to this tensile stress. Small knots may be located along the neutral plane of a beam and increase the strength by preventing longitudinal shearing. Knots in a board or plank are least injurious when they extend through it at right angles to its broadest surface. Knots which occur near the ends of a beam do not weaken it. Sound knots which occur in the central portion one-fourth the height of the beam from either edge are not serious defects.

— Samuel J. Record, The Mechanical Properties of Wood[14]

Knots do not necessarily influence the stiffness of structural timber; this will depend on the size and location. Stiffness and elastic strength are more dependent upon the sound wood than upon localized defects. The breaking strength is very susceptible to defects. Sound knots do not weaken wood when subject to compression parallel to the grain.

In some decorative applications, wood with knots may be desirable to add visual interest. In applications where wood is painted, such as skirting boards, fascia boards, door frames and furniture, resins present in the timber may continue to 'bleed' through to the surface of a knot for months or even years after manufacture and show as a yellow or brownish stain. A knot primer paint or solution (knotting), correctly applied during preparation, may do much to reduce this problem but it is difficult to control completely, especially when using mass-produced kiln-dried timber stocks.

Heartwood and sapwood

[edit]
"Heartwood" redirects here. For other uses, see Heartwood (disambiguation).
"Sapwood" redirects here. For the missile also called "SS-6 Sapwood", see R7 Semyorka.
See also: Trunk (botany)
A section of a yew branch showing 27 annual growth rings, pale sapwood, dark heartwood, and pith (center dark spot). The dark radial lines are small knots.

Heartwood (or duramen[15]) is wood that as a result of a naturally occurring chemical transformation has become more resistant to decay. Heartwood formation is a genetically programmed process that occurs spontaneously. Some uncertainty exists as to whether the wood dies during heartwood formation, as it can still chemically react to decay organisms, but only once.[16]

The term heartwood derives solely from its position and not from any vital importance to the tree. This is evidenced by the fact that a tree can thrive with its heart completely decayed. Some species begin to form heartwood very early in life, so having only a thin layer of live sapwood, while in others the change comes slowly. Thin sapwood is characteristic of such species as chestnut, black locust, mulberry, osage-orange, and sassafras, while in maple, ash, hickory, hackberry, beech, and pine, thick sapwood is the rule.[17] Some others never form heartwood.

Heartwood is often visually distinct from the living sapwood and can be distinguished in a cross-section where the boundary will tend to follow the growth rings. For example, it is sometimes much darker. Other processes such as decay or insect invasion can also discolor wood, even in woody plants that do not form heartwood, which may lead to confusion.

Sapwood (or alburnum[18]) is the younger, outermost wood; in the growing tree it is living wood,[19] and its principal functions are to conduct water from the roots to the leaves and to store up and give back according to the season the reserves prepared in the leaves. By the time they become competent to conduct water, all xylem tracheids and vessels have lost their cytoplasm and the cells are therefore functionally dead. All wood in a tree is first formed as sapwood. The more leaves a tree bears and the more vigorous its growth, the larger the volume of sapwood required. Hence trees making rapid growth in the open have thicker sapwood for their size than trees of the same species growing in dense forests. Sometimes trees (of species that do form heartwood) grown in the open may become of considerable size, 30 cm (12 in) or more in diameter, before any heartwood begins to form, for example, in second growth hickory, or open-grown pines.

Cross-section of an oak log showing growth rings

No definite relation exists between the annual rings of growth and the amount of sapwood. Within the same species the cross-sectional area of the sapwood is very roughly proportional to the size of the crown of the tree. If the rings are narrow, more of them are required than where they are wide. As the tree gets larger, the sapwood must necessarily become thinner or increase materially in volume. Sapwood is relatively thicker in the upper portion of the trunk of a tree than near the base, because the age and the diameter of the upper sections are less.

When a tree is very young it is covered with limbs almost, if not entirely, to the ground, but as it grows older some or all of them will eventually die and are either broken off or fall off. Subsequent growth of wood may completely conceal the stubs which will remain as knots. No matter how smooth and clear a log is on the outside, it is more or less knotty near the middle. Consequently, the sapwood of an old tree, and particularly of a forest-grown tree, will be freer from knots than the inner heartwood. Since in most uses of wood, knots are defects that weaken the timber and interfere with its ease of working and other properties, it follows that a given piece of sapwood, because of its position in the tree, may well be stronger than a piece of heartwood from the same tree.

Different pieces of wood cut from a large tree may differ decidedly, particularly if the tree is big and mature. In some trees, the wood laid on late in the life of a tree is softer, lighter, weaker, and more even textured than that produced earlier, but in other trees, the reverse applies. This may or may not correspond to heartwood and sapwood. In a large log the sapwood, because of the time in the life of the tree when it was grown, may be inferior in hardness, strength, and toughness to equally sound heartwood from the same log. In a smaller tree, the reverse may be true.

Color

[edit]
The wood of coast redwood is distinctively red.

In species which show a distinct difference between heartwood and sapwood the natural color of heartwood is usually darker than that of the sapwood, and very frequently the contrast is conspicuous (see section of yew log above). This is produced by deposits in the heartwood of chemical substances, so that a dramatic color variation does not imply a significant difference in the mechanical properties of heartwood and sapwood, although there may be a marked biochemical difference between the two.

Some experiments on very resinous longleaf pine specimens indicate an increase in strength, due to the resin which increases the strength when dry. Such resin-saturated heartwood is called "fat lighter". Structures built of fat lighter are almost impervious to rot and termites, and very flammable. Tree stumps of old longleaf pines are often dug, split into small pieces and sold as kindling for fires. Stumps thus dug may actually remain a century or more since being cut. Spruce impregnated with crude resin and dried is also greatly increased in strength thereby.

Since the latewood of a growth ring is usually darker in color than the earlywood, this fact may be used in visually judging the density, and therefore the hardness and strength of the material. This is particularly the case with coniferous woods. In ring-porous woods the vessels of the early wood often appear on a finished surface as darker than the denser latewood, though on cross sections of heartwood the reverse is commonly true. Otherwise the color of wood is no indication of strength.

Abnormal discoloration of wood often denotes a diseased condition, indicating unsoundness. The black check in western hemlock is the result of insect attacks. The reddish-brown streaks so common in hickory and certain other woods are mostly the result of injury by birds. The discoloration is merely an indication of an injury, and in all probability does not of itself affect the properties of the wood. Certain rot-producing fungi impart to wood characteristic colors which thus become symptomatic of weakness. Ordinary sap-staining is due to fungal growth, but does not necessarily produce a weakening effect.

Water content

[edit]

Water occurs in living wood in three locations, namely:

Equilibrium moisture content in wood.

In heartwood it occurs only in the first and last forms. Wood that is thoroughly air-dried (in equilibrium with the moisture content of the air) retains 8–16% of the water in the cell walls, and none, or practically none, in the other forms. Even oven-dried wood retains a small percentage of moisture, but for all except chemical purposes, may be considered absolutely dry.

The general effect of the water content upon the wood substance is to render it softer and more pliable. A similar effect occurs in the softening action of water on rawhide, paper, or cloth. Within certain limits, the greater the water content, the greater its softening effect. The moisture in wood can be measured by several different moisture meters.

Drying produces a decided increase in the strength of wood, particularly in small specimens. An extreme example is the case of a completely dry spruce block 5 cm in section, which will sustain a permanent load four times as great as a green (undried) block of the same size will.

The greatest strength increase due to drying is in the ultimate crushing strength, and strength at elastic limit in endwise compression; these are followed by the modulus of rupture, and stress at elastic limit in cross-bending, while the modulus of elasticity is least affected.[14]

Structure

[edit]
Magnified cross-section of black walnut, showing the vessels, rays (white lines) and annual rings: this is intermediate between diffuse-porous and ring-porous, with vessel size declining gradually

Wood is a heterogeneous, hygroscopic, cellular and anisotropic (or more specifically, orthotropic) material. It consists of cells, and the cell walls are composed of micro-fibrils of cellulose (40–50%) and hemicellulose (15–25%) impregnated with lignin (15–30%).[20]

In coniferous or softwood species the wood cells are mostly of one kind, tracheids, and as a result the material is much more uniform in structure than that of most hardwoods. There are no vessels ("pores") in coniferous wood such as one sees so prominently in oak and ash, for example.

The structure of hardwoods is more complex.[21] The water conducting capability is mostly taken care of by vessels: in some cases (oak, chestnut, ash) these are quite large and distinct, in others (buckeye, poplar, willow) too small to be seen without a hand lens. In discussing such woods it is customary to divide them into two large classes, ring-porous and diffuse-porous.[22]

In ring-porous species, such as ash, black locust, catalpa, chestnut, elm, hickory, mulberry, and oak,[22] the larger vessels or pores (as cross sections of vessels are called) are localized in the part of the growth ring formed in spring, thus forming a region of more or less open and porous tissue. The rest of the ring, produced in summer, is made up of smaller vessels and a much greater proportion of wood fibers. These fibers are the elements which give strength and toughness to wood, while the vessels are a source of weakness.[23]

In diffuse-porous woods the pores are evenly sized so that the water conducting capability is scattered throughout the growth ring instead of being collected in a band or row. Examples of this kind of wood are alder,[22] basswood,[24] birch,[22] buckeye, maple, willow, and the Populus species such as aspen, cottonwood and poplar.[22] Some species, such as walnut and cherry, are on the border between the two classes, forming an intermediate group.[24]

Earlywood and latewood

[edit]

In softwood

[edit]
Earlywood and latewood in a softwood; radial view, growth rings closely spaced in Rocky Mountain Douglas-fir

In temperate softwoods, there often is a marked difference between latewood and earlywood. The latewood will be denser than that formed early in the season. When examined under a microscope, the cells of dense latewood are seen to be very thick-walled and with very small cell cavities, while those formed first in the season have thin walls and large cell cavities. The strength is in the walls, not the cavities. Hence the greater the proportion of latewood, the greater the density and strength. In choosing a piece of pine where strength or stiffness is the important consideration, the principal thing to observe is the comparative amounts of earlywood and latewood. The width of ring is not nearly so important as the proportion and nature of the latewood in the ring.

If a heavy piece of pine is compared with a lightweight piece it will be seen at once that the heavier one contains a larger proportion of latewood than the other, and is therefore showing more clearly demarcated growth rings. In white pines there is not much contrast between the different parts of the ring, and as a result the wood is very uniform in texture and is easy to work. In hard pines, on the other hand, the latewood is very dense and is deep-colored, presenting a very decided contrast to the soft, straw-colored earlywood.

It is not only the proportion of latewood, but also its quality, that counts. In specimens that show a very large proportion of latewood it may be noticeably more porous and weigh considerably less than the latewood in pieces that contain less latewood. One can judge comparative density, and therefore to some extent strength, by visual inspection.

No satisfactory explanation can as yet be given for the exact mechanisms determining the formation of earlywood and latewood. Several factors may be involved. In conifers, at least, rate of growth alone does not determine the proportion of the two portions of the ring, for in some cases the wood of slow growth is very hard and heavy, while in others the opposite is true. The quality of the site where the tree grows undoubtedly affects the character of the wood formed, though it is not possible to formulate a rule governing it. In general, where strength or ease of working is essential, woods of moderate to slow growth should be chosen.

In ring-porous woods

[edit]
Earlywood and latewood in a ring-porous wood (ash) in a Fraxinus excelsior; tangential view, wide growth rings

In ring-porous woods, each season's growth is always well defined, because the large pores formed early in the season abut on the denser tissue of the year before.

In the case of the ring-porous hardwoods, there seems to exist a pretty definite relation between the rate of growth of timber and its properties. This may be briefly summed up in the general statement that the more rapid the growth or the wider the rings of growth, the heavier, harder, stronger, and stiffer the wood. This, it must be remembered, applies only to ring-porous woods such as oak, ash, hickory, and others of the same group, and is, of course, subject to some exceptions and limitations.

In ring-porous woods of good growth, it is usually the latewood in which the thick-walled, strength-giving fibers are most abundant. As the breadth of ring diminishes, this latewood is reduced so that very slow growth produces comparatively light, porous wood composed of thin-walled vessels and wood parenchyma. In good oak, these large vessels of the earlywood occupy from six to ten percent of the volume of the log, while in inferior material they may make up 25% or more. The latewood of good oak is dark colored and firm, and consists mostly of thick-walled fibers which form one-half or more of the wood. In inferior oak, this latewood is much reduced both in quantity and quality. Such variation is very largely the result of rate of growth.

Wide-ringed wood is often called "second-growth", because the growth of the young timber in open stands after the old trees have been removed is more rapid than in trees in a closed forest, and in the manufacture of articles where strength is an important consideration such "second-growth" hardwood material is preferred. This is particularly the case in the choice of hickory for handles and spokes. Here not only strength, but toughness and resilience are important.[14]

The results of a series of tests on hickory by the U.S. Forest Service show that:

"The work or shock-resisting ability is greatest in wide-ringed wood that has from 5 to 14 rings per inch (rings 1.8-5 mm thick), is fairly constant from 14 to 38 rings per inch (rings 0.7–1.8 mm thick), and decreases rapidly from 38 to 47 rings per inch (rings 0.5–0.7 mm thick). The strength at maximum load is not so great with the most rapid-growing wood; it is maximum with from 14 to 20 rings per inch (rings 1.3–1.8 mm thick), and again becomes less as the wood becomes more closely ringed. The natural deduction is that wood of first-class mechanical value shows from 5 to 20 rings per inch (rings 1.3–5 mm thick) and that slower growth yields poorer stock. Thus the inspector or buyer of hickory should discriminate against timber that has more than 20 rings per inch (rings less than 1.3 mm thick). Exceptions exist, however, in the case of normal growth upon dry situations, in which the slow-growing material may be strong and tough."[25]

The effect of rate of growth on the qualities of chestnut wood is summarized by the same authority as follows:

"When the rings are wide, the transition from spring wood to summer wood is gradual, while in the narrow rings the spring wood passes into summer wood abruptly. The width of the spring wood changes but little with the width of the annual ring, so that the narrowing or broadening of the annual ring is always at the expense of the summer wood. The narrow vessels of the summer wood make it richer in wood substance than the spring wood composed of wide vessels. Therefore, rapid-growing specimens with wide rings have more wood substance than slow-growing trees with narrow rings. Since the more the wood substance the greater the weight, and the greater the weight the stronger the wood, chestnuts with wide rings must have stronger wood than chestnuts with narrow rings. This agrees with the accepted view that sprouts (which always have wide rings) yield better and stronger wood than seedling chestnuts, which grow more slowly in diameter."[25]

In diffuse-porous woods

[edit]

In the diffuse-porous woods, the demarcation between rings is not always so clear and in some cases is almost (if not entirely) invisible to the unaided eye. Conversely, when there is a clear demarcation there may not be a noticeable difference in structure within the growth ring.

In diffuse-porous woods, as has been stated, the vessels or pores are even-sized, so that the water conducting capability is scattered throughout the ring instead of collected in the earlywood. The effect of rate of growth is, therefore, not the same as in the ring-porous woods, approaching more nearly the conditions in the conifers. In general, it may be stated that such woods of medium growth afford stronger material than when very rapidly or very slowly grown. In many uses of wood, total strength is not the main consideration. If ease of working is prized, wood should be chosen with regard to its uniformity of texture and straightness of grain, which will in most cases occur when there is little contrast between the latewood of one season's growth and the earlywood of the next.

Monocots

[edit]
Trunks of the coconut palm, a monocot, in Java. From this perspective these look not much different from trunks of a dicot or conifer

Structural material that resembles ordinary, "dicot" or conifer timber in its gross handling characteristics is produced by a number of monocot plants, and these also are colloquially called wood. Of these, bamboo, botanically a member of the grass family, has considerable economic importance, larger culms being widely used as a building and construction material and in the manufacture of engineered flooring, panels and veneer. Another major plant group that produces material that often is called wood are the palms. Of much less importance are plants such as Pandanus, Dracaena and Cordyline. With all this material, the structure and composition of the processed raw material is quite different from ordinary wood.

Specific gravity

[edit]

The single most revealing property of wood as an indicator of wood quality is specific gravity (Timell 1986),[26] as both pulp yield and lumber strength are determined by it. Specific gravity is the ratio of the mass of a substance to the mass of an equal volume of water; density is the ratio of a mass of a quantity of a substance to the volume of that quantity and is expressed in mass per unit substance, e.g., grams per milliliter (g/cm3 or g/ml). The terms are essentially equivalent as long as the metric system is used. Upon drying, wood shrinks and its density increases. Minimum values are associated with green (water-saturated) wood and are referred to as basic specific gravity (Timell 1986).[26]

The U.S. Forest Products Laboratory lists a variety of ways to define specific gravity (G) and density (ρ) for wood:[27]

Symbol Mass basis Volume basis
G0 Ovendry Ovendry
Gb (basic) Ovendry Green
G12 Ovendry 12% MC
Gx Ovendry x% MC
ρ0 Ovendry Ovendry
ρ12 12% MC 12% MC
ρx x% MC x% MC

The FPL has adopted Gb and G12 for specific gravity, in accordance with the ASTM D2555[28] standard. These are scientifically useful, but don't represent any condition that could physically occur. The FPL Wood Handbook also provides formulas for approximately converting any of these measurements to any other.

Density

[edit]
See also: Janka hardness test

Wood density is determined by multiple growth and physiological factors compounded into "one fairly easily measured wood characteristic" (Elliott 1970).[29]

Age, diameter, height, radial (trunk) growth, geographical location, site and growing conditions, silvicultural treatment, and seed source all to some degree influence wood density. Variation is to be expected. The USDA Forest Service measured a coefficient of variation for the specific gravity of wood as 10%[30]. In other words, about 68% (a standard deviation) of samples will fall within ±10% of the average specific gravity for a given species. Within an individual tree, the variation in wood density is often as great as or even greater than that between different trees (Timell 1986).[26] Variation of specific gravity within the bole of a tree can occur in either the horizontal or vertical direction.

Because the specific gravity as defined above uses an unrealistic condition, woodworkers tend to use the "average dried weight", which is a density based on mass at 12% moisture content and volume at the same (ρ12). This condition occurs when the wood is at equilibrium moisture content with air at about 65% relative humidity and temperature at 30 °C (86 °F). This density is expressed in units of kg/m3 or lbs/ft3. If you know the specific gravity at 12% MC, G12 (from the Wood Handbook), then multiply by 1120 to get the average dried weight at 12% MC, ρ12, in kg/m3. For example, if G12 is 0.40, then average dried weight is ρ12 = 0.40 * 1120 = 448 kg/m3. You can also find values for dried weight in two other FPL publications, Hardwoods of North America[31] and Softwoods of North America.[32]

Tables

[edit]

The following tables list the mechanical properties of wood and lumber plant species, including bamboo. See also Mechanical properties of tonewoods for additional properties.

Wood properties:[33][34]

Common name Scientific name Moisture content Density (kg/m3) Compressive strength (megapascals) Flexural strength (megapascals)
Red Alder Alnus rubra Green 370 20.4 45
Red Alder Alnus rubra 12.00% 410 40.1 68
Black Ash Fraxinus nigra Green 450 15.9 41
Black Ash Fraxinus nigra 12.00% 490 41.2 87
Blue Ash Fraxinus quadrangulata Green 530 24.8 66
Blue Ash Fraxinus quadrangulata 12.00% 580 48.1 95
Green Ash Fraxinus pennsylvanica Green 530 29 66
Green Ash Fraxinus pennsylvanica 12.00% 560 48.8 97
Oregon Ash Fraxinus latifolia Green 500 24.2 52
Oregon Ash Fraxinus latifolia 12.00% 550 41.6 88
White Ash Fraxinus americana Green 550 27.5 66
White Ash Fraxinus americana 12.00% 600 51.1 103
Bigtooth Aspen Populus grandidentata Green 360 17.2 37
Bigtooth Aspen Populus grandidentata 12.00% 390 36.5 63
Quaking Aspen Populus tremuloides Green 350 14.8 35
Quaking Aspen Populus tremuloides 12.00% 380 29.3 58
American Basswood Tilia americana Green 320 15.3 34
American Basswood Tilia americana 12.00% 370 32.6 60
American Beech Fagus grandifolia Green 560 24.5 59
American Beech Fagus grandifolia 12.00% 640 50.3 103
Paper Birch Betula papyrifera Green 480 16.3 44
Paper Birch Betula papyrifera 12.00% 550 39.2 85
Sweet Birch Betula lenta Green 600 25.8 65
Sweet Birch Betula lenta 12.00% 650 58.9 117
Yellow Birch Betula alleghaniensis Green 550 23.3 57
Yellow Birch Betula alleghaniensis 12.00% 620 56.3 114
Butternut Juglans cinerea Green 360 16.7 37
Butternut Juglans cinerea 12.00% 380 36.2 56
Black Cherry Prunus serotina Green 470 24.4 55
Blach Cherry Prunus serotina 12.00% 500 49 85
American Chestnut Castanea dentata Green 400 17 39
American Chestnut Castanea dentata 12.00% 430 36.7 59
Balsam Poplar Cottonwood Populus balsamifera Green 310 11.7 27
Balsam Poplar Cottonwood Populus balsamifera 12.00% 340 27.7 47
Black Cottonwood Populus trichocarpa Green 310 15.2 34
Black Cottonwood Populus trichocarpa 12.00% 350 31 59
Eastern Cottonwood Populus deltoides Green 370 15.7 37
Eastern Cottonwood Populus deltoides 12.00% 400 33.9 59
American elm Ulmus americana Green 460 20.1 50
American elm Ulmus americana 12.00% 500 38.1 81
Rock Elm Ulmus thomasii Green 570 26.1 66
Rock Elm Ulmus thomasii 12.00% 630 48.6 102
Slippery Elm Ulmus rubra Green 480 22.9 55
Slippery Elm Ulmus rubra 12.00% 530 43.9 90
Hackberry Celtis occidentalis Green 490 18.3 45
Hackberry Celtis occidentalis 12.00% 530 37.5 76
Bitternut Hickory Carya cordiformis Green 600 31.5 71
Bitternut Hickory Carya cordiformis 12.00% 660 62.3 118
Nutmeg Hickory Carya myristiciformis Green 560 27.4 63
Nutmeg Hickory Carya myristiciformis 12.00% 600 47.6 114
Pecan Hickory Carya illinoinensis Green 600 27.5 68
Pecan Hickory Carya illinoinensis 12.00% 660 54.1 94
Water Hickory Carya aquatica Green 610 32.1 74
Water Hickory Carya aquatica 12.00% 620 59.3 123
Mockernut Hickory Carya tomentosa Green 640 30.9 77
Mockernut Hickory Carya tomentosa 12.00% 720 61.6 132
Pignut Hickory Carya glabra Green 660 33.2 81
Pignut Hickory Carya glabra 12.00% 750 63.4 139
Shagbark Hickory Carya ovata Green 640 31.6 76
Shagbark Hickory Carya ovata 12.00% 720 63.5 139
Shellbark Hickory Carya laciniosa Green 620 27 72
Shellbark Hickory Carya laciniosa 12.00% 690 55.2 125
Honeylocust Gleditsia triacanthos Green 600 30.5 70
Honeylocust Gleditsia triacanthos 12.00% 600 51.7 101
Black Locust Robinia pseudoacacia Green 660 46.9 95
Black Locust Robinia pseudoacacia 12.00% 690 70.2 134
Cucumber Tree Magnolia Magnolia acuminata Green 440 21.6 51
Cucumber Tree Magnolia Magnolia acuminata 12.00% 480 43.5 85
Southern Magnolia Magnolia grandiflora Green 460 18.6 47
Southern Magnolia Magnolia grandiflora 12.00% 500 37.6 77
Bigleaf Maple Acer macrophyllum Green 440 22.3 51
Bigleaf Maple Acer macrophyllum 12.00% 480 41 74
Black Maple Acer nigrum Green 520 22.5 54
Black Maple Acer nigrum 12.00% 570 46.1 92
Red Maple Acer rubrum Green 490 22.6 53
Red Maple Acer rubrum 12.00% 540 45.1 92
Silver Maple Acer saccharinum Green 440 17.2 40
Silver Maple Acer saccharinum 12.00% 470 36 61
Sugar Maple Acer saccharum Green 560 27.7 65
Sugar Maple Acer saccharum 12.00% 630 54 109
Black Red Oak Quercus velutina Green 560 23.9 57
Black Red Oak Quercus velutina 12.00% 610 45 96
Cherrybark Red Oak Quercus pagoda Green 610 31.9 74
Cherrybark Red Oak Quercus pagoda 12.00% 680 60.3 125
Laurel Red Oak Quercus hemisphaerica Green 560 21.9 54
Laurel Red Oak Quercus hemisphaerica 12.00% 630 48.1 87
Northern Red Oak Quercus rubra Green 560 23.7 57
Northern Red Oak Quercus rubra 12.00% 630 46.6 99
Pin Red Oak Quercus palustris Green 580 25.4 57
Pin Red Oak Quercus palustris 12.00% 630 47 97
Scarlet Red Oak Quercus coccinea Green 600 28.2 72
Scarlet Red Oak Quercus coccinea 12.00% 670 57.4 120
Southern Red Oak Quercus falcata Green 520 20.9 48
Southern Red Oak Quercus falcata 12.00% 590 42 75
Water Red Oak Quercus nigra Green 560 25.8 61
Water Red Oak Quercus nigra 12.00% 630 46.7 106
Willow Red Oak Quercus phellos Green 560 20.7 51
Willow Red Oak Quercus phellos 12.00% 690 48.5 100
Bur White Oak Quercus macrocarpa Green 580 22.7 50
Bur White Oak Quercus macrocarpa 12.00% 640 41.8 71
Chestnut White Oak Quercus montana Green 570 24.3 55
Chestnut White Oak Quercus montana 12.00% 660 47.1 92
Live White Oak Quercus virginiana Green 800 37.4 82
Live White Oak Quercus virginiana 12.00% 880 61.4 127
Overcup White Oak Quercus lyrata Green 570 23.2 55
Overcup White Oak Quercus lyrata 12.00% 630 42.7 87
Post White Oak Quercus stellata Green 600 24 56
Post White Oak Quercus stellata 12.00% 670 45.3 91
Swamp Chestnut White Oak Quercus michauxii Green 600 24.4 59
Swamp Chestnut White Oak Quercus michauxii 12.00% 670 50.1 96
Swamp White Oak Quercus bicolor Green 640 30.1 68
Swamp White Oak Quercus bicolor 12.00% 720 59.3 122
White Oak Quercus alba Green 600 24.5 57
White Oak Quercus alba 12.00% 680 51.3 105
Sassafras Sassafras albidum Green 420 18.8 41
Sassafras Sassafras albidum 12.00% 460 32.8 62
Sweetgum Liquidambar styraciflua Green 460 21 49
Sweetgum Liquidambar styraciflua 12.00% 520 43.6 86
American Sycamore Platanus occidentalis Green 460 20.1 45
American Sycamore Platanus occidentalis 12.00% 490 37.1 69
Tanoak Notholithocarpus densiflorus Green 580 32.1 72
Tanoak Notholithocarpus densiflorus 12.00% 580 32.1 72
Black Tupelo Nyssa sylvatica Green 460 21 48
Black Tupelo Nyssa sylvatica 12.00% 500 38.1 66
Water Tupelo Nyssa aquatica Green 460 23.2 50
Water Tupelo Nyssa aquatica 12.00% 500 40.8 66
Black Walnut Juglans nigra Green 510 29.6 66
Black Walnut Juglans nigra 12.00% 550 52.3 101
Black Willow Salix nigra Green 360 14.1 33
Black Willow Salix nigra 12.00% 390 28.3 54
Yellow Poplar Liriodendron tulipifera Green 400 18.3 41
Yellow Poplar Liriodendron tulipifera 12.00% 420 38.2 70
Baldcypress Taxodium distichum Green 420 24.7 46
Baldcypress Taxodium distichum 12.00% 460 43.9 73
Atlantic White Cedar Chamaecyparis thyoides Green 310 16.5 32
Atlantic White Cedar Chamaecyparis thyoides 12.00% 320 32.4 47
Eastern Redcedar Juniperus virginiana Green 440 24.6 48
Eastern Redcedar Juniperus virginiana 12.00% 470 41.5 61
Incense Cedar Calocedrus decurrens Green 350 21.7 43
Incense Cedar Calocedrus decurrens 12.00% 370 35.9 55
Northern White Cedar Thuja occidentalis Green 290 13.7 29
Northern White Cedar Thuja occidentalis 12.00% 310 27.3 45
Port Orford Cedar Chamaecyparis lawsoniana Green 390 21.6 45
Port Orford Cedar Chamaecyparis lawsoniana 12.00% 430 43.1 88
Western Redcedar Thuja plicata Green 310 19.1 35.9
Western Redcedar Thuja plicata 12.00% 320 31.4 51.7
Yellow Cedar Cupressus nootkatensis Green 420 21 44
Yellow Cedar Cupressus nootkatensis 12.00% 440 43.5 77
Coast Douglas Fir Pseudotsuga menziesii var. menziesii Green 450 26.1 53
Coast Douglas Fir Pseudotsuga menziesii var. menziesii 12.00% 480 49.9 85
Interior West Douglas Fir Pseudotsuga Menziesii Green 460 26.7 53
Interior West Douglas Fir Pseudotsuga Menziesii 12.00% 500 51.2 87
Interior North Douglas Fir Pseudotsuga menziesii var. glauca Green 450 23.9 51
Interior North Douglas Fir Pseudotsuga menziesii var. glauca 12.00% 480 47.6 90
Interior South Douglas Fir Pseudotsuga lindleyana Green 430 21.4 47
Interior South Douglas Fir Pseudotsuga lindleyana 12.00% 460 43 82
Balsam Fir Abies balsamea Green 330 18.1 38
Balsam Fir Abies balsamea 12.00% 350 36.4 63
California Red Fir Abies magnifica Green 360 19 40
California Red Fir Abies magnifica 12.00% 380 37.6 72.4
Grand Fir Abies grandis Green 350 20.3 40
Grand Fir Abies grandis 12.00% 370 36.5 61.4
Noble Fir Abies procera Green 370 20.8 43
Noble Fir Abies procera 12.00% 390 42.1 74
Pacific Silver Fir Abies amabilis Green 400 21.6 44
Pacific Silver Fir Abies amabilis 12.00% 430 44.2 75
Subalpine Fir Abies lasiocarpa Green 310 15.9 34
Subalpine Fir Abies lasiocarpa 12.00% 320 33.5 59
White Fir Abies concolor Green 370 20 41
White Fir Abies concolor 12.00% 390 40 68
Eastern Hemlock Tsuga canadensis Green 380 21.2 44
Eastern Hemlock Tsuga canadensis 12.00% 400 37.3 61
Mountain Hemlock Tsuga mertensiana Green 420 19.9 43
Mountain Hemlock Tsuga mertensiana 12.00% 450 44.4 79
Western Hemlock Tsuga heterophylla Green 420 23.2 46
Western Hemlock Tsuga heterophylla 12.00% 450 49 78
Western Larch Larix occidentalis Green 480 25.9 53
Western Larch Larix occidentalis 12.00% 520 52.5 90
Eastern white pine Pinus strobus Green 340 16.8 34
Eastern white pine Pinus strobus 12.00% 350 33.1 59
Jack Pine Pinus banksiana Green 400 20.3 41
Jack Pine Pinus banksiana 12.00% 430 39 68
Loblolly Pine Pinus taeda Green 470 24.2 50
Loblolly Pine Pinus taeda 12.00% 510 49.2 88
Lodgepole Pine Pinus contorta Green 380 18 38
Lodgepole Pine Pinus contorta 12.00% 410 37 65
Longleaf Pine Pinus palustris Green 540 29.8 59
Longleaf Pine Pinus palustris 12.00% 590 58.4 100
Pitch Pine Pinus rigida Green 470 20.3 47
Pitch Pine Pinus rigida 12.00% 520 41 74
Pond Pine Pinus serotina Green 510 25.2 51
Pond Pine Pinus serotina 12.00% 560 52 80
Ponderosa Pine Pinus ponderosa Green 380 16.9 35
Ponderosa Pine Pinus ponderosa 12.00% 400 36.7 65
Red Pine Pinus resinosa Green 410 18.8 40
Red Pine Pinus resinosa 12.00% 460 41.9 76
Sand Pine Pinus clausa Green 460 23.7 52
Sand Pine Pinus clausa 12.00% 480 47.7 80
Shortleaf Pine Pinus echinata Green 470 24.3 51
Shortleaf Pine Pinus echinata 12.00% 510 50.1 90
Slash Pine Pinus elliottii Green 540 26.3 60
Slash Pine Pinus elliottii 12.00% 590 56.1 112
Spruce Pine Pinus glabra Green 410 19.6 41
Spruce Pine Pinus glabra 12.00% 440 39 72
Sugar Pine Pinus lambertiana Green 340 17 34
Sugar Pine Pinus lambertiana 12.00% 360 30.8 57
Virginia Pine Pinus virginiana Green 450 23.6 50
Virginia Pine Pinus virginiana 12.00% 480 46.3 90
Western White Pine Pinus monticola Green 360 16.8 32
Western White Pine Pinus monticola 12.00% 380 34.7 67
Redwood Old Growth Sequoia sempervirens Green 380 29 52
Redwood Old Growth Sequoia sempervirens 12.00% 400 42.4 69
Redwood New Growth Sequoia sempervirens Green 340 21.4 41
Redwood New Growth Sequoia sempervirens 12.00% 350 36 54
Black Spruce Picea mariana Green 380 19.6 42
Black Spruce Picea mariana 12.00% 460 41.1 74
Engelmann Spruce Picea engelmannii Green 330 15 32
Engelmann Spruce Picea engelmannii 12.00% 350 30.9 64
Red Spruce Picea rubens Green 370 18.8 41
Red Spruce Picea rubens 12.00% 400 38.2 74
Sitka Spruce Picea sitchensis Green 330 16.2 34
Sitka Spruce Picea sitchensis 12.00% 360 35.7 65
White Spruce Picea glauca Green 370 17.7 39
White Spruce Picea glauca 12.00% 400 37.7 68
Tamarack Spruce Larix laricina Green 490 24 50
Tamarack Spruce Larix laricina 12.00% 530 49.4 80

Bamboo properties:[35][34]

Common name Scientific name Moisture content Density (kg/m3) Compressive strength (megapascals) Flexural strength (megapascals)
Balku bans Bambusa balcooa green   45 73.7
Balku bans Bambusa balcooa air dry   54.15 81.1
Balku bans Bambusa balcooa 8.5 820 69 151
Indian thorny bamboo Bambusa bambos 9.5 710 61 143
Indian thorny bamboo Bambusa bambos     43.05 37.15
Nodding Bamboo Bambusa nutans 8 890 75 52.9
Nodding Bamboo Bambusa nutans 87   46 52.4
Nodding Bamboo Bambusa nutans 12   85 67.5
Nodding Bamboo Bambusa nutans 88.3   44.7 88
Nodding Bamboo Bambusa nutans 14   47.9 216
Clumping Bamboo Bambusa pervariabilis     45.8  
Clumping Bamboo Bambusa pervariabilis 5   79 80
Clumping Bamboo Bambusa pervariabilis 20   35 37
Burmese bamboo Bambusa polymorpha 95.1   32.1 28.3
  Bambusa spinosa air dry   57 51.77
Indian timber bamboo Bambusa tulda 73.6   40.7 51.1
Indian timber bamboo Bambusa tulda 11.9   68 66.7
Indian timber bamboo Bambusa tulda 8.6 910 79 194
dragon bamboo Dendrocalamus giganteus 8 740 70 193
Hamilton's bamboo Dendrocalamus hamiltonii 8.5 590 70 89
White bamboo Dendrocalamus membranaceus 102   40.5 26.3
String Bamboo Gigantochloa apus 54.3   24.1 102
String Bamboo Gigantochloa apus 15.1   37.95 87.5
Java Black Bamboo Gigantochloa atroviolacea 54   23.8 92.3
Java Black Bamboo Gigantochloa atroviolacea 15   35.7 94.1
Giant Atter Gigantochloa atter 72.3   26.4 98
Giant Atter Gigantochloa atter 14.4   31.95 122.7
  Gigantochloa macrostachya 8 960 71 154
American Narrow-Leaved Bamboo Guadua angustifolia     42 53.5
American Narrow-Leaved Bamboo Guadua angustifolia     63.6 144.8
American Narrow-Leaved Bamboo Guadua angustifolia     86.3 46
American Narrow-Leaved Bamboo Guadua angustifolia     77.5 82
American Narrow-Leaved Bamboo Guadua angustifolia 15   56 87
American Narrow-Leaved Bamboo Guadua angustifolia     63.3  
American Narrow-Leaved Bamboo Guadua angustifolia     28  
American Narrow-Leaved Bamboo Guadua angustifolia     56.2  
American Narrow-Leaved Bamboo Guadua angustifolia     38  
Berry Bamboo Melocanna baccifera 12.8   69.9 57.6
Japanese timber bamboo Phyllostachys bambusoides     51  
Japanese timber bamboo Phyllostachys bambusoides 8 730 63  
Japanese timber bamboo Phyllostachys bambusoides 64   44  
Japanese timber bamboo Phyllostachys bambusoides 61   40  
Japanese timber bamboo Phyllostachys bambusoides 9   71  
Japanese timber bamboo Phyllostachys bambusoides 9   74  
Japanese timber bamboo Phyllostachys bambusoides 12   54  
Tortoise shell bamboo Phyllostachys edulis     44.6  
Tortoise shell bamboo Phyllostachys edulis 75   67  
Tortoise shell bamboo Phyllostachys edulis 15   71  
Tortoise shell bamboo Phyllostachys edulis 6   108  
Tortoise shell bamboo Phyllostachys edulis 0.2   147  
Tortoise shell bamboo Phyllostachys edulis 5   117 51
Tortoise shell bamboo Phyllostachys edulis 30   44 55
Tortoise shell bamboo Phyllostachys edulis 12.5 603 60.3  
Tortoise shell bamboo Phyllostachys edulis 10.3 530   83
Early Bamboo Phyllostachys praecox 28.5 827 79.3  
Oliveri Thyrsostachys oliveri 53   46.9 61.9
Oliveri Thyrsostachys oliveri 7.8   58 90

Hard versus soft

[edit]
At the left, text written deeply onto the wood. At the right, text written more lightly.

It is common to classify wood as either softwood or hardwood. The wood from conifers (e.g. pine) is called softwood, and the wood from dicotyledons (usually broad-leaved trees, e.g. oak) is called hardwood. These names are a bit misleading, as hardwoods are not necessarily hard, and softwoods are not necessarily soft. The well-known balsa (a hardwood) is actually softer than any commercial softwood. Conversely, some softwoods (e.g. yew) are harder than many hardwoods.

There is a strong relationship between the properties of wood and the properties of the particular tree that yielded it, at least for certain species. For example, in loblolly pine, wind exposure and stem position greatly affect the hardness of wood, as well as compression wood content.[36] The density of wood varies with species. The density of a wood correlates with its strength (mechanical properties). For example, mahogany is a medium-dense hardwood that is excellent for fine furniture crafting, whereas balsa is light, making it useful for model building. One of the densest woods is black ironwood.

Chemistry

[edit]
Chemical structure of lignin, which makes up about 25% of wood dry matter and is responsible for many of its properties.

The chemical composition of wood varies from species to species, but is approximately 50% carbon, 42% oxygen, 6% hydrogen, 1% nitrogen, and 1% other elements (mainly calcium, potassium, sodium, magnesium, iron, and manganese) by weight.[37] Wood also contains sulfur, chlorine, silicon, phosphorus, and other elements in small quantity.

Aside from water, wood has three main components. Cellulose, a crystalline polymer derived from glucose, constitutes about 41–43%. Next in abundance is hemicellulose, which is around 20% in deciduous trees but near 30% in conifers. It is mainly five-carbon sugars that are linked in an irregular manner, in contrast to the cellulose. Lignin is the third component at around 27% in coniferous wood vs. 23% in deciduous trees. Lignin confers the hydrophobic properties reflecting the fact that it is based on aromatic rings. These three components are interwoven, and direct covalent linkages exist between the lignin and the hemicellulose. A major focus of the paper industry is the separation of the lignin from the cellulose, from which paper is made.

In chemical terms, the difference between hardwood and softwood is reflected in the composition of the constituent lignin. Hardwood lignin is primarily derived from sinapyl alcohol and coniferyl alcohol. Softwood lignin is mainly derived from coniferyl alcohol.[38]

Extractives

[edit]

Aside from the structural polymers, i.e. cellulose, hemicellulose and lignin (lignocellulose), wood contains a large variety of non-structural constituents, composed of low molecular weight organic compounds, called extractives. These compounds are present in the extracellular space and can be extracted from the wood using different neutral solvents, such as acetone.[39] Analogous content is present in the so-called exudate produced by trees in response to mechanical damage or after being attacked by insects or fungi.[40] Unlike the structural constituents, the composition of extractives varies over wide ranges and depends on many factors.[41] The amount and composition of extractives differs between tree species, various parts of the same tree, and depends on genetic factors and growth conditions, such as climate and geography.[39] For example, slower growing trees and higher parts of trees have higher content of extractives. Generally, the softwood is richer in extractives than the hardwood. Their concentration increases from the cambium to the pith. Barks and branches also contain extractives. Although extractives represent a small fraction of the wood content, usually less than 10%, they are extraordinarily diverse and thus characterize the chemistry of the wood species.[42] Most extractives are secondary metabolites and some of them serve as precursors to other chemicals. Wood extractives display different activities, some of them are produced in response to wounds, and some of them participate in natural defense against insects and fungi.[43]

Forchem tall oil refinery in Rauma, Finland

These compounds contribute to various physical and chemical properties of the wood, such as wood color, fragnance, durability, acoustic properties, hygroscopicity, adhesion, and drying.[42] Considering these impacts, wood extractives also affect the properties of pulp and paper, and importantly cause many problems in paper industry. Some extractives are surface-active substances and unavoidably affect the surface properties of paper, such as water adsorption, friction and strength.[39] Lipophilic extractives often give rise to sticky deposits during kraft pulping and may leave spots on paper. Extractives also account for paper smell, which is important when making food contact materials.

Most wood extractives are lipophilic and only a little part is water-soluble.[40] The lipophilic portion of extractives, which is collectively referred as wood resin, contains fats and fatty acids, sterols and steryl esters, terpenes, terpenoids, resin acids, and waxes.[44] The heating of resin, i.e. distillation, vaporizes the volatile terpenes and leaves the solid component – rosin. The concentrated liquid of volatile compounds extracted during steam distillation is called essential oil. Distillation of oleoresin obtained from many pines provides rosin and turpentine.[45]

Most extractives can be categorized into three groups: aliphatic compounds, terpenes and phenolic compounds.[39] The latter are more water-soluble and usually are absent in the resin.

Uses

[edit]
Main global producers of roundwood by type.
World production of roundwood by type

Production

[edit]
Main article: Forestry

Global production of roundwood rose from 3.5 billion m³ in 2000 to 4 billion m³ in 2021. In 2021, wood fuel was the main product with a 49 percent share of the total (2 billion m³), followed by coniferous industrial roundwood with 30 percent (1.2 billion m³) and non-coniferous industrial roundwood with 21 percent (0.9 billion m³). Asia and the Americas are the two main producing regions, accounting for 29 and 28 percent of the total roundwood production, respectively; Africa and Europe have similar shares of 20–21 percent, while Oceania produces the remaining 2 percent.[49]

Fuel

[edit]
Main article: Wood fuel

Wood has a long history of being used as fuel,[50] which continues to this day, mostly in rural areas of the world. Hardwood is preferred over softwood because it creates less smoke and burns longer. Adding a woodstove or fireplace to a home is often felt to add ambiance and warmth.

Pulpwood

[edit]

Pulpwood is wood that is raised specifically for use in making paper.

Construction

[edit]
The Saitta House, Dyker Heights, Brooklyn, New York built in 1899 is made of and decorated in wood.[51]
Map of importers and exporters of forest products including wood in 2021

Wood has been an important construction material since humans began building shelters, houses and boats. Nearly all boats were made out of wood until the late 19th century, and wood remains in common use today in boat construction. Elm in particular was used for this purpose as it resisted decay as long as it was kept wet (it also served for water pipe before the advent of more modern plumbing).

Wood to be used for construction work is commonly known as lumber in North America. Elsewhere, lumber usually refers to felled trees, and the word for sawn planks ready for use is timber.[52] In medieval Europe oak was the wood of choice for all wood construction, including beams, walls, doors, and floors. Today a wider variety of woods is used: solid wood doors are often made from poplar, small-knotted pine, and Douglas fir.

The churches of Kizhi, Russia are among a handful of World Heritage Sites built entirely of wood, without metal joints. See Kizhi Pogost for more details.

New domestic housing in many parts of the world today is commonly made from timber-framed construction. Engineered wood products are becoming a bigger part of the construction industry. They may be used in both residential and commercial buildings as structural and aesthetic materials.

In buildings made of other materials, wood will still be found as a supporting material, especially in roof construction, in interior doors and their frames, and as exterior cladding.

Wood is also commonly used as shuttering material to form the mold into which concrete is poured during reinforced concrete construction.

Flooring

[edit]
Wood can be cut into straight planks and made into a wood flooring.
Main article: Wood flooring

A solid wood floor is a floor laid with planks or battens created from a single piece of timber, usually a hardwood. Since wood is hydroscopic (it acquires and loses moisture from the ambient conditions around it) this potential instability effectively limits the length and width of the boards.

Solid hardwood flooring is usually cheaper than engineered timbers and damaged areas can be sanded down and refinished repeatedly, the number of times being limited only by the thickness of wood above the tongue.

Solid hardwood floors were originally used for structural purposes, being installed perpendicular to the wooden support beams of a building (the joists or bearers) and solid construction timber is still often used for sports floors as well as most traditional wood blocks, mosaics and parquetry.

Engineered products

[edit]
Main article: Engineered wood

Engineered wood products, glued building products "engineered" for application-specific performance requirements, are often used in construction and industrial applications. Glued engineered wood products are manufactured by bonding together wood strands, veneers, lumber or other forms of wood fiber with glue to form a larger, more efficient composite structural unit.[53]

These products include glued laminated timber (glulam), wood structural panels (including plywood, oriented strand board and composite panels), laminated veneer lumber (LVL) and other structural composite lumber (SCL) products, parallel strand lumber, and I-joists.[53] Approximately 100 million cubic meters of wood was consumed for this purpose in 1991.[54] The trends suggest that particle board and fiber board will overtake plywood.

Wood unsuitable for construction in its native form may be broken down mechanically (into fibers or chips) or chemically (into cellulose) and used as a raw material for other building materials, such as engineered wood, as well as chipboard, hardboard, and medium-density fiberboard (MDF). Such wood derivatives are widely used: wood fibers are an important component of most paper, and cellulose is used as a component of some synthetic materials. Wood derivatives can be used for kinds of flooring, for example laminate flooring.

Furniture and utensils

[edit]

Wood has always been used extensively for furniture, such as chairs and beds. It is also used for tool handles and cutlery, such as chopsticks, toothpicks, and other utensils, like the wooden spoon and pencil.

Other

[edit]

Further developments include new lignin glue applications, recyclable food packaging, rubber tire replacement applications, anti-bacterial medical agents, and high strength fabrics or composites.[55] As scientists and engineers further learn and develop new techniques to extract various components from wood, or alternatively to modify wood, for example by adding components to wood, new more advanced products will appear on the marketplace. Moisture content electronic monitoring can also enhance next generation wood protection.[56]

Art

[edit]
Prayer Bead with the Adoration of the Magi and the Crucifixion, Gothic boxwood miniature

Wood has long been used as an artistic medium. It has been used to make sculptures and carvings for millennia. Examples include the totem poles carved by North American indigenous people from conifer trunks, often Western Red Cedar (Thuja plicata).

Other uses of wood in the arts include:

Sports and recreational equipment

[edit]

Many types of sports equipment are made of wood, or were constructed of wood in the past. For example, cricket bats are typically made of white willow. The baseball bats which are legal for use in Major League Baseball are frequently made of ash wood or hickory, and in recent years have been constructed from maple even though that wood is somewhat more fragile. National Basketball Association courts have been traditionally made out of parquetry.

Many other types of sports and recreation equipment, such as skis, ice hockey sticks, lacrosse sticks and archery bows, were commonly made of wood in the past, but have since been replaced with more modern materials such as aluminium, titanium or composite materials such as fiberglass and carbon fiber. One noteworthy example of this trend is the family of golf clubs commonly known as the woods, the heads of which were traditionally made of persimmon wood in the early days of the game of golf, but are now generally made of metal or (especially in the case of drivers) carbon-fiber composites.

Bacterial degradation

[edit]

Little is known about the bacteria that degrade cellulose. Symbiotic bacteria in Xylophaga may play a role in the degradation of sunken wood. Alphaproteobacteria, Flavobacteria, Actinomycetota, Clostridia, and Bacteroidota have been detected in wood submerged for over a year.[57]

See also

[edit]

Sources

[edit]

 This article incorporates text from a free content work. Licensed under CC BY-SA IGO 3.0 (license statement/permission). Text taken from World Food and Agriculture – Statistical Yearbook 2023​, FAO.

References

[edit]
  1. ^ Brinkman, Eddy (August 27, 2021). "Wood, a sustainable natural composite material". Betase BV. Retrieved November 3, 2025. "Wood is a natural composite material, with cellulose fibres embedded in a matrix of lignin and hemicelluloses – all three components composed of natural polymers. Lignin is the glue that holds the cellulose fibres together."
  2. ^ Rowell, Roger M., ed. (September 6, 2012). Handbook of Wood Chemistry and Wood Composites. CRC Press. doi:10.1201/b12487. ISBN 978-0-429-10909-6.
  3. ^ Hickey, M.; King, C. (2001). The Cambridge Illustrated Glossary of Botanical Terms. Cambridge University Press.
  4. ^ FAO. 2020. Global Forest Resources Assessment 2020: Main report Archived November 5, 2022, at the Wayback Machine. Rome.
  5. ^ "The EPA Declared That Burning Wood is Carbon Neutral. It's Actually a Lot More Complicated". Archived from the original on June 30, 2021. Retrieved June 3, 2022.
  6. ^ "Global wood production is at record levels, at about 4 billion m³ per year". FAO Knowledge Repository. December 29, 2023. Retrieved November 3, 2025. 2023: World roundwood removals have amounted to about 4 billion m³ annually in recent years, around half of which has been used for fuel, either directly (as fuelwood) or in the production of charcoal and pellets.
  7. ^ "N.B. fossils show origins of wood". CBC.ca. August 12, 2011. Archived from the original on August 13, 2011. Retrieved August 12, 2011.
  8. ^ Philippe Gerrienne; et al. (August 12, 2011). "A Simple Type of Wood in Two Early Devonian Plants". Science. 333 (6044): 837. Bibcode:2011Sci...333..837G. doi:10.1126/science.1208882. hdl:2268/97121. PMID 21836008. S2CID 23513139.[permanent dead link]
  9. ^ Woods, Sarah (July 18, 2016). "A History of Wood from the Stone Age to the 21st Century". EcoBUILDING. A Publication of The American Institute of Architects. Archived from the original on March 29, 2017. Retrieved March 28, 2017.
  10. ^ Briffa, K.; Shishov, V.V.; Melvin, T.M.; Vaganov, E.A.; Grudd, H.; Hantemirov (2008). "Trends in recent temperature and radial tree growth spanning 2000 years across northwest Eurasia". Philosophical Transactions of the Royal Society B: Biological Sciences. 363 (1501): 2271–2284. doi:10.1098/rstb.2007.2199. PMC 2606779. PMID 18048299.
  11. ^ Branigan, Keith (1996). Stone age people - p 29. London : Two-can in assoc. with Franklin Watts. ISBN 1-85434-365-3.
  12. ^ Wood growth and structure Archived December 12, 2009, at the Wayback Machine www.farmforestline.com.au
  13. ^ Everett, Alan; Barritt, C. M. H. (May 12, 2014). Materials. Routledge. p. 38. ISBN 978-1-317-89327-1. Archived from the original on September 8, 2023. Retrieved March 20, 2023. "Knots, particularly edge and arris knots, reduce strength mainly in tension, but not in resistance to shear and splitting."
  14. ^ a b c Record, Samuel J (1914). The Mechanical Properties of Wood. J. Wiley & Sons. p. 165. ASIN B000863N3W. Archived from the original on October 18, 2020. Retrieved August 28, 2020.
  15. ^ "Duramen" . Encyclopædia Britannica. Vol. 8 (11th ed.). 1911. p. 692.
  16. ^ Shigo, Alex. (1986) A New Tree Biology Dictionary. Shigo and Trees, Associates. ISBN 0-943563-12-7
  17. ^ Record, Samuel James (1914). The Mechanical Properties of Wood: Including a Discussion of the Factors Affecting the Mechanical Properties, and Methods of Timber Testing. J. Wiley & Sons, Incorporated. p. 51. The term heartwood derives solely from its position and not from any vital importance to the tree as a tree can thrive with heart completely decayed.
  18. ^ "Alburnum" . Encyclopædia Britannica. Vol. 1 (11th ed.). 1911. p. 516.
  19. ^ Capon, Brian (2005), Botany for Gardeners (2nd ed.), Portland, OR: Timber Publishing, p. 65 ISBN 0-88192-655-8
  20. ^ "Wood Properties Growth and Structure 2015". treetesting.com. Archived from the original on March 13, 2016.
  21. ^ "Timber Plus Toolbox, Selecting timber, Characteristics of timber, Structure of hardwoods". nationalvetcontent.edu.au. Archived from the original on August 10, 2014.
  22. ^ a b c d e Sperry, John S.; Nichols, Kirk L.; Sullivan, June E.; Eastlack, Sondra E. (1994). "Xylem Embolism in ring-porous, diffuse-porous, and coniferous trees of Northern Utah and Interior Alaska" (PDF). Ecology. 75 (6): 1736–1752. Bibcode:1994Ecol...75.1736S. doi:10.2307/1939633. JSTOR 1939633. Archived from the original (PDF) on August 10, 2017. Retrieved November 30, 2018.
  23. ^ Record, Samuel James (1914). The Mechanical Properties of Wood, Including a Discussion of the Factors Affecting the Mechanical Properties, and Methods of Timber Testing. J. Wiley & sons, Incorporated. Archived from the original on September 8, 2023. Retrieved March 20, 2023.
  24. ^ a b Samuel James Record (1914). The mechanical properties of wood, including a discussion of the factors affecting the mechanical properties, and methods of timber testing. J. Wiley & sons, inc. pp. 44–.
  25. ^ a b U.S. Department of Agriculture, Forest Products Laboratory. The Wood Handbook: Wood as an engineering material Archived March 15, 2007, at the Wayback Machine. General Technical Report 113. Madison, WI.
  26. ^ a b c Timell, T.E. 1986. Compression wood in gymnosperms. Springer-Verlag, Berlin. 2150 p.
  27. ^ "Wood Handbook: Chapter 4: Moisture Relations and Physical Properties of Wood" (PDF). U.S. Forest Products Laboratory. Archived (PDF) from the original on December 30, 2023. Retrieved September 10, 2023.
  28. ^ "Standard Practice for Establishing Clear Wood Strength Values". www.astm.org. Archived from the original on April 1, 2023. Retrieved September 9, 2023.
  29. ^ Elliott, G.K. 1970. Wood density in conifers. Commonwealth For. Bureau, Oxford, U.K., Tech. Commun. 8. 44 p.
  30. ^ Ross, Robert (2021). "Wood handbook: Wood as an engineering material". FPL-GTR-282. 282: 5–26, Table 5-6.
  31. ^ Alden, Harry A. (September 1995). Hardwoods of North America, General Technical Report FPL-GTR-83 (PDF). Forest Products Laboratory, United States Department of Agriculture.
  32. ^ Alden, Harry A. (September 1997). Softwoods of North America, General Technical Report FPL-GTR-102 (PDF). Forest Products Laboratory, United States Department of Agriculture.
  33. ^ Green, D.W.; Winandy, J.E.; Kretschmann, D.E. (1999). "4. Mechanical Properties of Wood" (PDF). Wood handbook: Wood as an engineering material (Technical report). U.S. Department of Agriculture, Forest Service, Forest Products Laboratory. p. 463. doi:10.2737/FPL-GTR-113. hdl:2027/mdp.39015000158041. FPL–GTR–113.
  34. ^ a b "PFAF". pfaf.org. Archived from the original on October 24, 2019. Retrieved November 3, 2019.
  35. ^ "What are the mechanical properties of bamboo". www.DoorStain.com. August 22, 2023. Archived from the original on August 22, 2023. Retrieved August 22, 2023.
  36. ^ Agriculture Handbook. U.S. Department of Agriculture. 1997. pp. 2–6. Archived from the original on September 8, 2023. Retrieved March 20, 2023.
  37. ^ Jean-Pierre Barette; Claude Hazard et Jérôme Mayer (1996). Mémotech Bois et Matériaux Associés. Paris: Éditions Casteilla. p. 22. ISBN 978-2-7135-1645-0.
  38. ^ W. Boerjan; J. Ralph; M. Baucher (June 2003). "Lignin biosynthesis". Annu. Rev. Plant Biol. 54 (1): 519–549. Bibcode:2003AnRPB..54..519B. doi:10.1146/annurev.arplant.54.031902.134938. PMID 14503002.
  39. ^ a b c d e f g h Ek, Monica; Gellerstedt, Göran; Henriksson, Gunnar (2009). "Chapter 7: Wood extractives". Pulp and Paper Chemistry and Technology. Volume 1, Wood Chemistry and Wood Biotechnology. Berlin: Walter de Gruyter. ISBN 978-3-11-021339-3.
  40. ^ a b c d e f g h i Sjöström, Eero (October 22, 2013). "Chapter 5: Extractives". Wood Chemistry: Fundamentals and Applications (Second ed.). San Diego: Elsevier Science. ISBN 978-0-08-092589-9.
  41. ^ Ansell, Martin P. (2015). "Chapter 11: Preservation, Protection and Modification of Wood Composites". Woodhead Publishing Series in Composites Science and Engineering: Number 54. Wood Composites. Cambridge, UK: Woodhead Publishing. ISBN 978-1-78242-454-3.
  42. ^ a b c Hon, David N.-S.; Shiraishi, Nubuo (2001). "Chapter 6: Chemistry of Extractives". Wood and Cellulosic Chemistry (2nd, rev. and expanded ed.). New York: Marcel Dekker. ISBN 0-8247-0024-4.
  43. ^ Rowell, Roger M. (2013). "Chater 3: Cell Wall Chemistry". Handbook of Wood Chemistry and Wood Composites (2nd ed.). Boca Raton: Taylor & Francis. ISBN 978-1-4398-5380-1.
  44. ^ Mimms, Agneta; Michael J. Kuckurek; Jef A. Pyiatte; Elizabeth E. Wright (1993). Kraft Pulping. A Compilation of Notes. TAPPI Press. pp. 6–7. ISBN 978-0-89852-322-5.
  45. ^ Fiebach, Klemens; Grimm, Dieter (2000). "Resins, Natural". Ullmann's Encyclopedia of Industrial Chemistry. doi:10.1002/14356007.a23_073. ISBN 978-3-527-30673-2.
  46. ^ Sperelakis, Nicholas; Sperelakis, Nick (January 11, 2012). "Chapter 4: Ionophores in Planar Lipid Bilayers". Cell physiology sourcebook: essentials of membrane biophysics (Fourth ed.). London, UK. ISBN 978-0-12-387738-3. Archived from the original on June 28, 2020. Retrieved September 27, 2020.cite book: CS1 maint: location missing publisher (link)
  47. ^ Saniewski, Marian; Horbowicz, Marcin; Kanlayanarat, Sirichai (September 10, 2014). "The Biological Activities of Troponoids and Their Use in Agriculture A Review". Journal of Horticultural Research. 22 (1): 5–19. doi:10.2478/johr-2014-0001. S2CID 33834249.
  48. ^ Bentley, Ronald (2008). "A fresh look at natural tropolonoids". Nat. Prod. Rep. 25 (1): 118–138. doi:10.1039/b711474e. PMID 18250899.
  49. ^ World Food and Agriculture – Statistical Yearbook 2023. FAO. November 29, 2023. doi:10.4060/cc8166en. ISBN 978-92-5-138262-2.
  50. ^ Sterrett, Frances S. (October 12, 1994). Alternative Fuels and the Environment. CRC Press. ISBN 978-0-87371-978-0. Archived from the original on December 30, 2023. Retrieved October 6, 2020.
  51. ^ "Saitta House – Report Part 1 Archived December 16, 2008, at the Wayback Machine",DykerHeightsCivicAssociation.com
  52. ^ Binggeli, Corky (2013). Materials for Interior Environments. John Wiley & Sons. ISBN 978-1-118-42160-4. Archived from the original on December 30, 2023. Retrieved October 6, 2020.
  53. ^ a b "APA – The Engineered Wood Association" (PDF). apawood.org. Archived (PDF) from the original on June 27, 2006.
  54. ^ Horst H. Nimz, Uwe Schmitt, Eckart Schwab, Otto Wittmann, Franz Wolf "Wood" in Ullmann's Encyclopedia of Industrial Chemistry 2005, Wiley-VCH, Weinheim. doi:10.1002/14356007.a28_305
  55. ^ "FPInnovations" (PDF). forintek.ca. Archived from the original (PDF) on March 19, 2009.
  56. ^ "System for remotely monitoring moisture content on wooden elements" I Arakistain, O Munne EP Patent EPO1382108.0
  57. ^ Christina Bienhold; Petra Pop Ristova; Frank Wenzhöfer; Thorsten Dittmar; Antje Boetius (January 2, 2013). "How Deep-Sea Wood Falls Sustain Chemosynthetic Life". PLOS ONE. 8 (1) e53590. Bibcode:2013PLoSO...853590B. doi:10.1371/journal.pone.0053590. PMC 3534711. PMID 23301092.
[edit]
Wikimedia Commons has media related to Wood.
 
 
 
 
 
 
 

 

 

‹ The template Infobox settlement is being considered for merging. ›
Gig Harbor, Washington
txʷaalqəɬ
City
Nicknames: 
The Maritime City, The Harbor
Location of Gig Harbor, Washington
Location of Gig Harbor, Washington
Coordinates: 47°20′45″N 122°36′31″W / 47.34583°N 122.60861°W / 47.34583; -122.60861
Country United States
State Washington
County Pierce
Government
 
 • Type Strong Mayor
 • Mayor Mary Barber[1]
Area
[2]
 • Total
 6.12 sq mi (15.85 km2)
 • Land 5.90 sq mi (15.29 km2)
 • Water 0.22 sq mi (0.56 km2)
Elevation
[4]
 108 ft (33 m)
Population
 (2020)[3]
 • Total
 12,029
 • Density 1,815.7/sq mi (701.05/km2)
Time zone UTC−8 (Pacific (PST))
 • Summer (DST) UTC−7 (PDT)
ZIP Codes
98329, 98332, 98335
Area code 253
FIPS code 53-26735
GNIS feature ID 2410588[4]
Website cityofgigharbor.net

Gig Harbor (Lushootseed: txʷaalqəɬ) is the name of both a bay on Puget Sound and a city on its shore in Pierce County, Washington. The population was 12,029 at the 2020 census.[3]

Gig Harbor bills itself as "the Maritime City" and maintains a strong connection to its maritime heritage. Due to its close access to several state and city parks, and historic waterfront that includes boutiques and fine dining, it has become a popular tourist destination. Gig Harbor is located along State Route 16, about 6 mi (9.7 km) from its origin at Interstate 5, over the Tacoma Narrows Bridge.[5]

History

[edit]
Boats in Gig Harbor

The Gig Harbor is the traditional homeland of S'Homamish or Homamish (Lushootseed: sxʷəbabš), an ancestral band of the modern-day Puyallup people. The area is known in their Lushootseed language as txʷaalqəɬ, meaning "place where game exists".[6] There was a Puyallup settlement at the mouth of the harbor that included six houses, and a large longhouse. This village existed until the late 19th century, with the longhouse finally being torn down by settlers in 1915.[7][8] The band was later relocated to the Puyallup Indian Reservation.

During a heavy storm in 1840, Captain Charles Wilkes brought the captain's gig (small boat) into the harbor for protection. Later, with the publication of Wilkes' 1841 map of the Oregon Territory, the sheltered bay was named in English as Gig Harbor by George Sinclair for his boat.

In 1867, fisherman Samuel Jerisich came to the Gig Harbor area, along with many other immigrants from Sweden, Norway, and Croatia. The town was platted in 1888 by Alfred M. Burnham, the owner of a local general store and native of Albert Lea, Minnesota, where he advertised opportunities in Gig Harbor.[7][9]

Commercial fishing, boat building, and logging dominated the economy of the Gig Harbor area, which developed two business districts in the 1920s on opposite sides of the harbor.[7] Transportation between Gig Harbor and Tacoma was primarily handled by the "Mosquito fleet", a network of mostly-passenger steamships that traversed various points on Puget Sound. Automobiles were required to drive 107 miles (172 km) through Olympia to reach Tacoma; the Washington Navigation Company later launched a Point Defiance–Gig Harbor ferry service in 1927 that could carry 80 vehicles.[8][10] The first Tacoma Narrows Bridge was completed in July 1940 to replace the ferry crossing, but collapsed a few months later.[7] The ferry service was restored until the modern-day westbound bridge was completed in 1950.[10] A third bridge opened in 2007 to carry eastbound traffic on the expanded State Route 16 freeway.[7]

Gig Harbor was officially incorporated as a town on July 12, 1946, after a previous attempt in September 1945 was rejected by 13 votes. The town had 803 residents in 1950, but soon grew due to the ease of access afforded by the replacement bridge that turned Gig Harbor into a bedroom community for Tacoma workers.[7][11] Gig Harbor was re-incorporated as a city in 1981.[7] By the 1980s and 1990s, substantial residential and retail development had pushed the city's boundaries west to State Route 16, which had been upgraded to a partial freeway. The downtown area shifted towards tourism to compensate for lost business and attract new development.[citation needed] The city's historic boat building industry declined, but its facilities remain preserved as historic landmarks.[7] A fleet of commercial fishing boats is based in Gig Harbor and make annual trips to Alaska for the summer season to harvest salmon.[12]

Skansie shipyard

[edit]

In 1905, the Skansie brothers were the first in the area to build a gasoline-powered fishing boat. They did so at first by refitting boats with a gasoline-powered engine. Usually the motors were quite small, between 6 and 8 horsepower; the Skansie brothers originally used a 7-horsepower engine.[13] Although these were powerboats, neither masts nor a turntable to hoist in the nets were used. This work was all done by hand. However, with the introduction of a motor, the boats were not able to go as far as Alaska. Skansie shipyards built fishing vessels from the late 1910s to the early 1950s.

Geography

[edit]
See also: Raft Island and Puget Sound

According to the U.S. Census Bureau, the city has a total area of 5.96 square miles (15.44 km2), of which 5.95 square miles (15.41 km2) are land and 0.01 square miles (0.03 km2) is water.[14]

Climate

[edit]
Gig Harbor
Climate chart (explanation)
J
 
 F
 

M

 

A

 

M

 

J

 

J

 

A

 

S

 

O

 

N

 

D

 
 
5.4
 
 
47
35
 
 
4.4
 
 
50
36
 
 
4.2
 
 
55
39
 
 
2.9
 
 
60
42
 
 
2
 
 
66
47
 
 
1.6
 
 
71
52
 
 
0.9
 
 
76
55
 
 
0.8
 
 
77
55
 
 
1.4
 
 
71
51
 
 
3.4
 
 
61
45
 
 
6.1
 
 
52
40
 
 
5.9
 
 
47
35

█ Average max. and min. temperatures in °F█ Precipitation totals in inches

Metric conversion
J
F
M
A
M
J
J
A
S
O
N
D
 
 
137
 
 
8
2
 
 
113
 
 
10
2
 
 
106
 
 
13
4
 
 
73
 
 
16
6
 
 
51
 
 
19
8
 
 
40
 
 
22
11
 
 
22
 
 
24
13
 
 
21
 
 
25
13
 
 
36
 
 
22
11
 
 
86
 
 
16
7
 
 
155
 
 
11
4
 
 
150
 
 
8
2
█ Average max. and min. temperatures in °C
█ Precipitation totals in mm

Gig Harbor has a marine west coast climate: Warm and dry summers, transitional springs and autumns, and cool and wet winters, with occasional snow. The annual high and low temperatures of Gig Harbor are 59.3 and 44.8 °F (15.2 and 7.1 °C), respectively, making for an average of 52.05 °F (11.14 °C).[15]

Demographics

[edit]
Historical population
Census Pop. Note %±
1890 321   —
1950 803   —
1960 1,094   36.2%
1970 1,657   51.5%
1980 2,429   46.6%
1990 3,236   33.2%
2000 6,465   99.8%
2010 7,126   10.2%
2020 12,029   68.8%
U.S. Decennial Census[16]
2020 Census[3]
Aerial view, looking northwest, of the harbor and town of Gig Harbor, with Henderson Bay in background
Entering Gig Harbor

2020 census

[edit]

As of the 2020 census, Gig Harbor had a population of 12,029. The median age was 48.2 years. 19.8% of residents were under the age of 18 and 30.0% of residents were 65 years of age or older. For every 100 females there were 86.0 males, and for every 100 females age 18 and over there were 83.3 males age 18 and over.[17]

100.0% of residents lived in urban areas, while 0.0% lived in rural areas.[18]

There were 5,171 households in Gig Harbor, of which 25.9% had children under the age of 18 living in them. Of all households, 51.9% were married-couple households, 13.9% were households with a male householder and no spouse or partner present, and 29.1% were households with a female householder and no spouse or partner present. About 30.5% of all households were made up of individuals and 18.1% had someone living alone who was 65 years of age or older.[17]

There were 5,642 housing units, of which 8.3% were vacant. The homeowner vacancy rate was 1.0% and the rental vacancy rate was 9.8%.[17]

Racial composition as of the 2020 census[19]
Race Number Percent
White 9,845 81.8%
Black or African American 171 1.4%
American Indian and Alaska Native 46 0.4%
Asian 596 5.0%
Native Hawaiian and Other Pacific Islander 42 0.3%
Some other race 221 1.8%
Two or more races 1,108 9.2%
Hispanic or Latino (of any race) 896 7.4%

2010 census

[edit]

As of the 2010 census,[20] 7,126 people, 3,291 households, and 1,937 families resided in the city. The population density was 1,197.6 inhabitants per square mile (462.4/km2). The 3,560 housing units averaged 598.3 units per square mile (231.0 units/km2). The racial makeup of the city was 90.2% White, 1.2% African American, 0.6% Native American, 2.4% Asian, 0.5% Pacific Islander, 1.4% from other races, and 3.6% from two or more races. Hispanics or Latinos of any race were 5.8% of the population.

Of the 3,291 households, 22.2% had children under the age of 18 living with them, 46.7% were married couples living together, 9.0% had a female householder with no husband present, 3.1% had a male householder with no wife present, and 41.1% were not families. About 34.2% of all households were made up of individuals, and 17.1% had someone living alone who was 65 years of age or older. The average household size was 2.12 and the average family size was 2.69.

The median age in the city was 48.1 years; 18% of residents were under the age of 18; 7% were 18 to 24; 21% were 25 to 44; 29% were 45 to 64; and 25% were 65 years of age or older. The gender makeup of the city was 46% male and 54% female.

2000 census

[edit]

As of the 2000 census, 6,465 people, 2,880 households, and 1,765 families resided in the city. The population density was 1,485.2 people per square mile (573.4 people/km2). The 3,085 housing units averaged 708.7 units per square mile (273.6 units/km2). The racial makeup of the city was 94.2% White, 1.1% African American, 0.6% Native American, 1.5% Asian, 0.2% Pacific Islander, 0.5% from other races, and 1.8% from two or more races. Hispanics or Latinos of any race were 3.0% of the population.

Of the 2,880 households, 25.1% had children under the age of 18 living with them, 50.0% were married couples living together, 9.0% had a female householder with no husband present, and 38.7% were not families. Around 33.2% of all households were made up of individuals, and 16.4% had someone living alone who was 65 years of age or older. The average household size was 2.16 and the average family size was 2.75.

In the city, the population was distributed as 20.3% under the age of 18, 7.1% from 18 to 24, 23.5% from 25 to 44, 25.7% from 45 to 64, and 23.4% who were 65 years of age or older. The median age was 45 years. For every 100 females, there were 83.4 males. For every 100 females age 18 and over, there were 78.9 males.

The median income for a household in the city was $43,456, and for a family was $57,587. Males had a median income of $46,250 versus $28,487 for females. The per capita income for the city was $28,318. About 3.5% of families and 5.9% of the population were below the poverty line, including 7.8% of those under the age of 18 and 4.1% of those ages 65 or older.

Parks and recreation

[edit]

The 8.5-acre (3.4 ha) Tubby's Trail Dog Park in Gig Harbor near the Tacoma Narrows Bridge was opened in October 2014. The site is named in memory of a three-legged Black cocker spaniel who died during the bridge collapse of "Galloping Gertie" in 1940.[21]

Government

[edit]

At the state level, Gig Harbor is part of the 26th legislative district, which encompasses all of peninsular Pierce County and southeastern Kitsap County, including Bremerton and Port Orchard.[22] It is represented in the Washington State Legislature by senator Deborah Krishnadasan and representatives Adison Richards and Michelle Caldier.[23] At the federal level, Gig Harbor is part of the 6th congressional district and is represented by representative Emily Randall.[24]

Education

[edit]

The Peninsula School District is the district covering the city of Gig Harbor and the peninsula. It has three high schools: Gig Harbor High School, Peninsula High School, and Henderson Bay Alternative High School.[25] Tacoma Community College opened a satellite campus in Gig Harbor in 1992, and operates a branch serving Washington Corrections Center for Women, also in Gig Harbor.[26][27]

Newspaper

[edit]

The Peninsula Gateway is a weekly newspaper published in Gig Harbor since 1917.[28] It has been owned by McClatchy, publisher of the News Tribune and co-owner of The Seattle Times, since 1995.[29]

Notable people

[edit]

References

[edit]
  1. ^ https://www.gigharborwa.gov/267/City-Council
  2. ^ "2019 U.S. Gazetteer Files". United States Census Bureau. Retrieved August 7, 2020.
  3. ^ a b c "2020 Census Redistricting Data (Public Law 94-171) Summary File". American FactFinder. United States Census Bureau. Retrieved May 16, 2022.
  4. ^ a b U.S. Geological Survey Geographic Names Information System: Gig Harbor, Washington
  5. ^ "City of Gig Harbor Geographic Maps". Archived from the original on September 30, 2017. Retrieved October 15, 2017.
  6. ^ Hutchinson, Chase (March 1, 2021). "Estuary has new name, honoring tribe; you'll need to watch a video to pronounce it". The News Tribune. Retrieved April 25, 2023.
  7. ^ a b "Crossing the Narrows: Idea & dream, prehistory to 1937". Washington State Department of Transportation. Retrieved April 23, 2023.
  8. ^ Majors, Harry M. (1975). Exploring Washington. Van Winkle Publishing Co. p. 81. ISBN 978-0-918664-00-6.
  9. ^ a b Chase, Katie (October 24, 2016). "Skansie Shipbuilding Company of Gig Harbor launches the new ferry Defiance on January 16, 1927". HistoryLink. Retrieved April 23, 2023.
  10. ^ "Tacoma Narrows Bridge". Archived from the original on April 7, 2010. Retrieved October 15, 2017.
  11. ^ Webster, Kerry (September 23, 2021). "Record Alaska salmon catches buoy Gig Harbor fishing fleet with 'best season' in years". The News Tribune. Retrieved April 23, 2023.
  12. ^ "Skansie Shipbuilding Company (Gig Harbor)".
  13. ^ "US Gazetteer files 2010". United States Census Bureau. Archived from the original on December 20, 2012. Retrieved December 19, 2012.
  14. ^ "Climate Gig Harbor - Washington".
  15. ^ "U.S. Decennial Census". Census.gov. Retrieved November 25, 2021.
  16. ^ a b c "2020 Decennial Census Demographic Profile (DP1)". United States Census Bureau. 2021. Retrieved February 22, 2026.
  17. ^ "2020 Decennial Census Demographic and Housing Characteristics (DHC)". United States Census Bureau. 2023. Retrieved February 22, 2026.
  18. ^ "2020 Decennial Census Redistricting Data (Public Law 94-171)". United States Census Bureau. 2021. Retrieved February 22, 2026.
  19. ^ "U.S. Census website". United States Census Bureau. Retrieved December 19, 2012.
  20. ^ McNerthney, Casey (August 18, 2025). "Photographer Howard Clifford narrowly escapes the collapse of the Tacoma Narrows Bridge on November 7, 1940". HistoryLink. Retrieved August 25, 2025.
  21. ^ Adopted Legislative District 26 (PDF) (Map). Washington State Redistricting Commission. February 2022. Retrieved April 23, 2023.
  22. ^ "All Members, Districts, and Counties". Washington State Legislature. Retrieved March 19, 2025.
  23. ^ Monares, Freddy (November 6, 2024). "Emily Randall will represent WA's 6th congressional district". KNKX Public Radio. Retrieved March 19, 2025.
  24. ^ "Schools – Peninsula School District". Peninsula School District. Retrieved May 2, 2023.
  25. ^ Webster, Kerry (September 11, 2019). "New dean at TCC Gig Harbor started her education there". The News Tribune. Retrieved August 11, 2021.
  26. ^ Gross, Ashley (December 16, 2019). "Washington experiments with giving women in prison limited access to the internet". KNKX. Retrieved August 11, 2021.
  27. ^ "Charles Edward Trombley and The Peninsula Gateway". Harbor History Museum Blog. April 24, 2012. Retrieved February 15, 2025.
  28. ^ "Weekly sold to McClatchy". The Peninsula Clarion. Kenai, Alaska. Associated Press. June 22, 1995. p. 3.
  29. ^ "JAY FAERBER'S BLOG". jayfaerber.blogspot.com.
  30. ^ Marshall, Adam; Bostock, Adam (February 22, 2016). "Former Manchester United player Freddie Goodwin passes away". manutd.com. Archived from the original on February 23, 2016.
  31. ^ Vertuno, Jim (July 4, 2021). "Teen from Gig Harbor canoe club headed to Tokyo". Kitsap Sun. Retrieved April 19, 2023.
  32. ^ Friedrich, Ed (December 26, 2024). "Kilmer closing the book on political career". Gig Harbor Now. Retrieved October 5, 2025.
  33. ^ Wallace-Wells, Benjamin (June 18, 2021). "How a Conservative Activist Invented the Conflict Over Critical Race Theory". The New Yorker. Retrieved June 19, 2021.
[edit]
Wikimedia Commons logo
Wikimedia Commons has media related to Gig Harbor, Washington.
 
Wikivoyage logo
Wikivoyage has a travel guide for Gig Harbor.
 

 

About Fresh View Construction

Driving Directions in Pierce County

Deck Builder Gig Harbor WA
47.144748353006, -122.50884337102
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Deck Builders Gig Harbor WA
47.163629920347, -122.45784140938
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Deck Builder in Gig Harbor WA
47.192903437051, -122.41995754319
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Patio Cover Gig Harbor WA
47.190482615237, -122.4740447296
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Composite Deck Gig Harbor
47.176111124634, -122.49711059256
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Gig Harbor Deck Contractor
47.201940967552, -122.49367782516
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Deck Company Gig Harbor WA
47.120103622607, -122.43611661048
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Deck Builder Gig Harbor
47.171019099257, -122.43900272906
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Composite Deck in Gig Harbor
47.125636243652, -122.5152435731
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Gig Harbor Outdoor Living Contractor
47.190062438107, -122.41213884106
Starting Point
Fresh View Construction, 10109 Sales Rd S, Tacoma, WA 98444, USA
Destination
Open in Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.168109196801,-122.53020606251,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.178585262253,-122.48757032836,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.157583556227,-122.45578663446,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.17331858277,-122.50949760017,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.120624788518,-122.46780728098,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.145717319568,-122.39898358727,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.122109668315,-122.42714203687,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.192208783196,-122.50763057439,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.190398143256,-122.39828155234,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/place/Fresh+View+Construction/@47.167752413531,-122.39169020929,25.2z/data=!4m6!3m5!1s0x8b0995605927fed1:0xd0b441cd041ba619!8m2!3d47.1659437!4d-122.4689698!16s%2F
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.192903437051,-122.41995754319&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=walking&query=Deck+Builder+in+Gig+Harbor+WA
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.144748353006,-122.50884337102&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=walking&query=Deck+Builder+Gig+Harbor+WA
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.190062438107,-122.41213884106&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=driving&query=Gig+Harbor+Outdoor+Living+Contractor
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.125636243652,-122.5152435731&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=bicycling&query=Composite+Deck+in+Gig+Harbor
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.201940967552,-122.49367782516&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=transit&query=Gig+Harbor+Deck+Contractor
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.190482615237,-122.4740447296&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=walking&query=Patio+Cover+Gig+Harbor+WA
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.120103622607,-122.43611661048&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=driving&query=Deck+Company+Gig+Harbor+WA
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.171019099257,-122.43900272906&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=transit&query=Deck+Builder+Gig+Harbor
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.163629920347,-122.45784140938&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=driving&query=Deck+Builders+Gig+Harbor+WA
Click below to open this location on Google Maps
Google Maps Location
https://www.google.com/maps/dir/?api=1&origin=47.176111124634,-122.49711059256&destination=Fresh+View+Construction%2C+10109+Sales+Rd+S%2C+Tacoma%2C+WA+98444%2C+USA&destination_place_id=ChIJ0f4nWWCVCYsRGaYbBM1BtNA&travelmode=bicycling&query=Composite+Deck+Gig+Harbor
Click below to open this location on Google Maps

Check our other pages :