Premium Goodwood Skate Deck Review: Ride the Best!

A specific type of platform used in skateboarding, it is constructed primarily from layers of maple wood, often sourced from the Great Lakes region. This composite material is pressed together to form a durable and responsive riding surface. For example, a skater might choose this type of board for its combination of strength and flex, allowing for optimal performance in street or park environments.

The significance of this platform lies in its contribution to the overall skateboarding experience. The wood’s inherent properties offer a balance between impact resistance and shock absorption, reducing stress on the rider’s body. Historically, the choice of wood has been crucial in shaping the evolution of skateboarding, influencing trick execution and board handling. The quality of the wood used directly affects the longevity and performance of the skateboard.

This article will delve deeper into the construction techniques, material sourcing considerations, and design innovations associated with high-quality skateboard platforms. Further exploration will cover the various performance characteristics, maintenance requirements, and evolving trends within this segment of the skateboarding industry.

Optimizing Performance and Longevity

The following guidelines are designed to maximize the lifespan and enhance the performance characteristics of skateboard platforms constructed from quality maple.

Tip 1: Inspect Regularly for Stress Fractures: Examine the wood for hairline cracks, particularly around the mounting holes for the trucks and along the edges. Early detection can prevent catastrophic failure during use.

Tip 2: Apply a Sealer to Exposed Edges: Moisture absorption can compromise the structural integrity of the wood. Applying a polyurethane-based sealant to the edges minimizes water damage.

Tip 3: Store in a Climate-Controlled Environment: Extreme temperature fluctuations and humidity levels can warp the wood over time. Storing the skateboard in a dry, temperate location will mitigate these effects.

Tip 4: Use Appropriate Mounting Hardware: Employ hardware specifically designed for skateboard trucks. Over-tightening or using mismatched hardware can cause stress points and lead to premature wear.

Tip 5: Rotate the Deck Regularly: Rotating the board end-to-end distributes wear evenly, extending its lifespan. This is particularly relevant for skaters who tend to favor one end of the board.

Tip 6: Avoid Prolonged Exposure to Direct Sunlight: Ultraviolet radiation can degrade the finish and weaken the wood fibers. Store the skateboard in a shaded area when not in use.

Tip 7: Consider the Deck’s Intended Use: Select a platform designed for the specific type of skateboarding being performed (e.g., street, park, vert). Using a deck outside its intended parameters can lead to accelerated wear and potential breakage.

Adhering to these recommendations will contribute to a safer and more enjoyable skateboarding experience by preserving the structural integrity and performance characteristics of the skateboard platform.

The subsequent section will provide insights into the evolving landscape of skateboard deck design and construction, examining the latest advancements in materials and manufacturing techniques.

1. Wood Grade

Wood grade, a primary determinant of performance and longevity, is critically linked to skateboard decks constructed from maple, influencing the deck’s overall integrity. Higher wood grades possess a tighter grain structure, contributing to increased strength and pop, which is the deck’s ability to spring back after compression. Lower grades exhibit more imperfections and inconsistencies, potentially leading to reduced durability and performance. For instance, a deck constructed with premium-grade maple may withstand greater impact forces and maintain its shape longer than one made with a lesser grade, thereby offering a more reliable and consistent skating experience.

The wood grade directly affects the responsiveness and feel of the deck. A deck made with high-grade maple will generally provide more feedback to the skater, allowing for more precise control. The selection of wood grade often depends on the intended use of the skateboard. Professional skaters or those performing advanced tricks will likely opt for decks constructed from higher-grade maple to ensure optimal performance and minimize the risk of breakage. Casual skaters, on the other hand, might find a mid-grade maple sufficient for their needs. Variations of material, such as birch, are used as substitutes, but often are not durable.

In summary, wood grade represents a significant consideration in skateboard deck selection. Its influence on deck strength, pop, and overall feel cannot be overstated. While cost considerations may factor into the decision-making process, prioritizing wood grade can ultimately lead to a more satisfying and durable skateboard deck. Understanding this relationship enables skaters to make informed choices that align with their specific riding style and performance requirements. A challenge lies in definitively identifying wood grade through visual inspection alone, necessitating reliance on reputable manufacturers and suppliers who maintain stringent quality control standards.

2. Layer Count

The number of wood plies, referred to as the layer count, critically influences the strength, flexibility, and overall performance characteristics of a skateboard deck. Variations in layer count are directly related to the intended use and desired feel of the deck for individual skaters.

• Standard Configuration

  The most common configuration utilizes seven plies of maple wood. This provides a balance between durability and responsiveness suitable for a wide range of skateboarding styles. This standard became popular due to cost and availability of woods, which helped solidify the standard.

• Increased Rigidity

  Some decks employ nine plies to enhance stiffness and impact resistance. This configuration is often preferred by skaters who require a more stable platform for larger impacts, such as vert ramp or transition skating. The trade-off is a reduction in the deck’s “pop” due to decreased flexibility.

• Alternative Materials

  While less common, alternative materials such as fiberglass or carbon fiber may be incorporated into the layer structure to modify specific performance characteristics. These materials can increase strength while reducing weight, or enhance responsiveness at the expense of board feel. Layering in other materials adds cost to the manufacturing.

• Impact on Weight

  A higher layer count inevitably leads to an increase in the deck’s overall weight. This can affect the skater’s ability to perform certain tricks, particularly those requiring quick rotations or aerial maneuvers. Lighter decks generally allow for greater agility and responsiveness, but may sacrifice durability.

The layer count represents a crucial design parameter in the construction of wood skateboard decks. Selecting the appropriate layer count requires careful consideration of the skater’s individual preferences, riding style, and the intended use of the deck. The proper board also ensures longevity, but also may lead to improper tricks being preformed.

3. Resin Type

The resin used in the construction of a skateboard deck serves as a critical binding agent, influencing the deck’s structural integrity, pop, and overall lifespan. The specific resin type significantly impacts the performance and durability of the final skateboard product.

• Epoxy Resins

  Epoxy resins are known for their superior strength, rigidity, and resistance to moisture. They create a strong bond between the maple plies, resulting in a deck with excellent pop and a longer lifespan. Due to their enhanced strength, epoxy resins are often used in higher-end decks designed for professional use or demanding skateboarding styles. Their moisture resistance also helps prevent warping and delamination, common issues in decks exposed to wet conditions. An example is a pro-model deck using a high-grade epoxy to endure consistent high-impact landings.

• Water-Based Resins

  Water-based resins offer a more environmentally friendly alternative to traditional solvent-based resins. While they may not provide the same level of strength as epoxy resins, they still offer adequate bonding for many skateboard decks. Water-based resins also release fewer volatile organic compounds (VOCs) during manufacturing, reducing their environmental impact. Many manufacturers are moving towards using water-based resins to meet sustainability goals. An example is a recreational board marketed as eco-friendly, using a water-based resin for bonding the plies.

• Glue Bond

  The quality of the glue bond directly affects the lamination strength and durability of the deck. Inadequate or inconsistent glue application can lead to delamination, where the plies separate. A strong, uniform glue bond ensures that the deck can withstand the stresses of skateboarding without failing. Proper adhesion ensures the energy transfer is optimal through the board. For example, decks undergoing rigorous quality control include testing the bond strength of the resin by physically stressing the deck to ensure it meets set durability standards.

• Curing Process

  The curing process of the resin is essential for achieving its optimal properties. This process involves controlled heating and cooling to allow the resin to fully harden and bond to the wood fibers. Variations in temperature or curing time can affect the resin’s strength and flexibility. Decks with properly cured resin are more durable and resistant to cracking or breaking. An example of importance is in the control measures to verify proper curing to ensure long-term reliability and resilience.

The choice of resin, its application, and the curing process are pivotal factors in determining the quality and performance of a wood skateboard deck. Resin selection should align with the desired performance characteristics, environmental considerations, and cost constraints of the manufacturer and the intended use of the deck. Careful attention to these details ensures a durable and high-performing skateboard.

4. Concave Depth

Concave depth, a crucial dimensional attribute of a maple skateboard deck, significantly influences a skater’s control and board feel. This contour, pressed into the wood during manufacturing, dictates the degree to which the deck curves upward from edge to edge. Shallower concaves offer a flatter riding surface, providing stability and a relaxed feel, while deeper concaves create more pronounced edges, enhancing foot lock-in and responsiveness. The relationship between concave depth and the rider’s foot position translates directly into control during maneuvers. For example, a skater performing a flip trick relies on the concave to provide leverage and grip, influencing the speed and accuracy of the rotation. A steeper concave allows for a more aggressive grip, but may be less comfortable for extended cruising. The impact of concave depth on performance is undeniable; it’s a primary factor influencing board feel and trick execution.

Variations in concave depth are widespread across different board models, reflecting the diverse preferences and styles within skateboarding. Manufacturers often tailor concave designs to specific types of skating. Deeper concaves are prevalent in street and technical skateboarding, where precise control and rapid transitions are paramount. Conversely, cruisers and longboards frequently feature shallower concaves or even flat profiles to promote stability and comfort during longer rides. The choice of concave depth becomes a critical element in customizing a setup to match individual riding styles and preferences. Selecting a board without due consideration of the concave can lead to discomfort, reduced control, and ultimately, hinder progression.

The understanding of concave depth, its effects, and implications is vital for any skater seeking to optimize their board setup. It is a core component of wood skateboard deck design and directly relates to the performance and enjoyment derived from the board. While the “correct” concave is subjective and depends on individual preference, awareness of the options and their impacts enables skaters to make informed decisions, leading to enhanced control, confidence, and progression. The challenges in selecting the ideal concave lie in the need to experiment and understand personal riding style and foot placement. This often involves trying different boards and carefully assessing the impact of each concave on trick execution and board feel.

5. Kick Angle

Kick angle, defined as the upward curvature at the nose and tail of a skateboard deck, is a critical geometric parameter that significantly influences trick execution and board handling. As an integral component of a wood skateboard deck, kick angle facilitates maneuvers such as ollies, kickflips, and other aerial tricks. A steeper kick angle provides more leverage for lifting the board off the ground, resulting in higher ollies and more responsive trick initiation. Conversely, a mellower kick angle offers a more gradual transition and may be preferred for smoother cruising or less aggressive trick styles. The specific geometry of the “kick” impacts the board’s usability.

The selection of kick angle is deeply intertwined with the intended use and the skater’s personal preferences. Technical street skaters often favor steeper kick angles to facilitate precise and rapid trick execution, while transition skaters may opt for a mellower kick to maintain stability and control on ramps and bowls. The choice of wood and construction methods also interacts with the kick angle; a stiffer wood might require a mellower kick to prevent excessive strain, while a more flexible wood may benefit from a steeper kick to enhance pop. A specific example can be seen in decks designed for vert skating, which typically exhibit moderate kick angles to balance stability and ollie height. The choice of geometry can affect board longevity.

Understanding the interplay between kick angle, wood properties, and skating style is paramount for both skateboard manufacturers and skaters. Manufacturers must carefully design and construct decks to achieve the desired kick angle characteristics, while skaters must select decks that align with their individual needs and preferences. The challenge lies in quantifying and consistently replicating kick angles across different deck models, requiring precise manufacturing processes and quality control measures. Awareness of kick angle enables informed decisions, leading to enhanced performance, board control, and overall skateboarding experience. Different materials affect the use of angles, and must be factored in.

6. Deck Shape

Deck shape, an essential characteristic of a skateboard platform, dictates its functionality and handling. In the context of a platform constructed from maple, the shape influences the deck’s overall responsiveness and suitability for various skateboarding styles.

• Profile Symmetry

  The symmetry of a platform refers to the congruence between its nose and tail. Symmetrical shapes, often found in freestyle decks, enable riding in either direction without compromising performance. Asymmetrical shapes, common in street and park decks, feature distinct nose and tail designs optimized for specific trick orientations. A directional maple deck, for instance, may have a longer nose for enhanced ollies, sacrificing the ability to ride switch with equal control.

• Width Variance

  Deck width significantly affects stability and foot placement. Narrower platforms, generally ranging from 7.5 to 8.0 inches, are favored for technical street skating due to their increased responsiveness. Wider platforms, typically 8.25 inches and above, offer enhanced stability for transition skating and larger riders. A broader maple deck provides a more substantial landing surface, absorbing impact and promoting balance, but reduces the quickness of rotations.

• Concave Design

  The concave, the degree of curvature across the width of the platform, influences foot lock-in and board feel. Deeper concaves provide a more secure grip, facilitating flip tricks and technical maneuvers. Shallower concaves offer a flatter, more forgiving surface, preferred for cruising and stability. A deck with a mellow concave and a subtle rocker may be chosen for its comfortable and predictable feel, even at the expense of aggressive trick performance.

• Nose and Tail Geometry

  The shape of the nose and tail, including their angle and length, affects ollie height and pop. Steeper noses and tails provide more leverage for lifting the platform off the ground, resulting in higher ollies and quicker trick initiation. Rounded noses and tails offer a more forgiving landing surface. The shape of nose and tail has implications for a wooden skate deck.

The interplay between these shape-related facets profoundly impacts the performance characteristics of a skateboard, particularly when constructed from maple. Shape selection should align with the skater’s individual preferences, riding style, and the intended use of the board. The challenge lies in finding the optimal shape that balances stability, responsiveness, and comfort to maximize performance and enjoyment.

Frequently Asked Questions

The following questions address common inquiries regarding skateboard decks, with a focus on the material composition, performance characteristics, and maintenance considerations of those constructed from quality maple.

Question 1: What distinguishes a “Goodwood” skateboard deck from other skateboard decks?

A “Goodwood” skateboard deck denotes use of high-quality maple sourced from the Great Lakes region, known for its tight grain and strength. These decks often feature specific construction techniques emphasizing durability and pop, setting them apart from decks using lower-grade wood or alternative materials.

Question 2: How does the wood grade affect the performance of a skateboard deck?

Higher wood grades possess a tighter grain structure, which translates to increased strength, responsiveness, and pop. Decks constructed with premium-grade maple are more likely to withstand high-impact forces and maintain their shape over time, enhancing the skating experience.

Question 3: What is the typical lifespan of a “Goodwood” skateboard deck, and what factors influence it?

The lifespan of a skateboard deck varies based on usage, skating style, and maintenance. High-quality maple decks, properly maintained, can last several months to a year with regular use. Factors influencing lifespan include frequency of skating, type of tricks performed, and exposure to moisture and extreme temperatures.

Question 4: What is the role of resin type in the construction and performance of a skateboard deck?

Resin acts as a binding agent, holding the maple plies together. Resin types significantly influence the deck’s strength, rigidity, and resistance to moisture. Epoxy resins, known for their superior bonding properties, are commonly used in high-performance decks.

Question 5: How does concave depth impact the control and feel of a skateboard deck?

Concave depth affects the skater’s foot lock-in and leverage. Deeper concaves provide a more secure grip and enhanced control for flip tricks, while shallower concaves offer a flatter, more stable riding surface suitable for cruising.

Question 6: What are the recommended maintenance practices for extending the lifespan of a “Goodwood” skateboard deck?

Regular inspection for cracks, sealing exposed edges, proper storage in a climate-controlled environment, and using appropriate mounting hardware are essential for maintaining a deck. Rotating the deck regularly can also distribute wear evenly, extending its lifespan.

Understanding these aspects allows for informed decisions regarding wood skateboard deck selection and care.

The subsequent section will examine the environmental considerations related to the sourcing and manufacturing of skateboard decks.

Concluding Remarks on Premium Maple Platforms

This exposition has detailed the multifaceted aspects of platforms crafted from quality maple, covering their construction, performance characteristics, and maintenance. From wood grade and layer count to resin type, concave depth, and kick angle, each element contributes to the overall skateboarding experience. The material sourcing, manufacturing processes, and design choices are all intertwined with the final product’s suitability for different riding styles and skill levels.

The informed selection and conscientious care of a maple skateboard platform are critical for optimizing performance and longevity. Continued advancements in material science and manufacturing techniques will undoubtedly shape the future of skateboard deck design. Therefore, ongoing research and adherence to best practices within the skateboarding community are essential for maximizing the potential of this essential piece of equipment.