The technical details pertaining to the Husqvarna Svartpilen 701 encompass a range of specifications related to its engine, chassis, dimensions, and performance characteristics. These data points provide a comprehensive overview of the motorcycle’s design and operational capabilities. For instance, information regarding engine displacement, power output, and torque figures fall under this category, as do details about the frame type, suspension travel, and braking system components.
Understanding these details is crucial for prospective buyers, owners, and mechanics alike. This understanding facilitates informed purchasing decisions, proper maintenance procedures, and effective performance tuning. The documentation associated with a motorcycle of this type serves as a valuable resource, enabling users to fully appreciate and optimize the machine’s capabilities and ensures its longevity. Furthermore, historical data relating to model year updates and revisions can highlight improvements or changes made to the design over time.
The subsequent sections will delve into specific elements, including engine characteristics, chassis composition, dimensions and weight, performance metrics, and key features that define the motorcycle. The aim is to provide a thorough and accessible understanding of the machine’s design and operational attributes.
1. Engine Performance
Engine performance constitutes a critical facet of the Husqvarna Svartpilen 701’s technical specifications. The engines characteristics its displacement, power output, torque curve, and fuel delivery system fundamentally dictate the motorcycle’s responsiveness, acceleration, and overall riding experience. For instance, the single-cylinder engine design typically offers a strong low-to-midrange torque, affecting its behavior in urban environments and during acceleration. A higher horsepower figure translates directly to greater top-end speed, making the specification relevant for highway riding. Therefore, these parameters are central to defining its use case and suitability for different riders.
Specific examples demonstrate the correlation between these specifications and real-world performance. The engine’s bore and stroke dimensions influence its revving characteristics and power delivery. Moreover, the compression ratio affects engine efficiency and fuel consumption. Changes or upgrades to the exhaust system, air intake, or engine mapping directly impact power output and torque characteristics, altering the overall riding experience. Analyzing dyno charts and performance tests provides quantifiable data that corroborates the impact of these details.
Understanding the engine performance data allows owners and potential buyers to evaluate the motorcycle’s suitability for their needs. It also enables informed decisions regarding aftermarket modifications and maintenance procedures. The interconnectedness between engine performance figures and the overall riding experience reinforces the importance of this particular section of the technical specifications. Therefore, these details are indispensable for understanding this vehicle’s operational characteristics.
2. Chassis Dimensions
Chassis dimensions represent a critical set of data within the overall technical specifications. These measurements directly influence handling characteristics, rider ergonomics, and the overall aesthetic profile. A comprehensive understanding of these dimensions provides insight into the motorcycle’s intended use and performance capabilities.
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Wheelbase
The wheelbase, measured as the distance between the front and rear axles, affects stability and turning agility. A shorter wheelbase generally enhances maneuverability in tight spaces, while a longer wheelbase promotes stability at higher speeds. The specific wheelbase dimension determines the trade-off between these characteristics, influencing the motorcycle’s suitability for different riding conditions.
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Seat Height
Seat height dictates rider accessibility and comfort, particularly for individuals of varying stature. A lower seat height enhances confidence for shorter riders, allowing for easier ground reach. Conversely, a taller seat height may provide a more comfortable riding position for taller individuals. This dimension impacts rider ergonomics and control.
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Rake and Trail
Rake and trail are interconnected dimensions that significantly influence steering feel and stability. Rake refers to the angle of the front fork relative to the vertical axis, while trail is the distance between the steering axis and the point where the front tire contacts the ground. A larger rake and trail generally result in more stable steering, while a smaller rake and trail contribute to quicker turning responses.
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Overall Length and Width
These dimensions determine the motorcycle’s footprint and influence its maneuverability in traffic and parking situations. A compact overall length and narrow width facilitate navigation through congested urban environments. These measurements also play a role in storage and transportation considerations.
The interplay between these chassis dimensions collectively defines the motorcycle’s handling dynamics and rider experience. Understanding these specifications allows potential buyers to assess the machine’s suitability for their individual needs and preferences. The precise dimensions contribute significantly to the unique character and riding qualities of the Svartpilen 701.
3. Weight Distribution
Weight distribution constitutes a critical element within the overall technical specifications, profoundly impacting handling, stability, and rider confidence. This aspect defines how the motorcycle’s mass is distributed between the front and rear wheels, influencing its behavior under acceleration, braking, and cornering maneuvers. The location of components and overall design affect the distribution.
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Front-Rear Bias
The front-rear weight bias dictates the load on each tire, directly affecting grip levels. A front-biased distribution enhances front-end feel during cornering, promoting confident turn-in. Conversely, a rear-biased distribution may improve traction under acceleration, particularly on less-than-ideal surfaces. The specific bias reflects a compromise between these characteristics. Examples: Moving the fuel tank to the rear of the motorcycle shifts the weight distribution rearward. A front-heavy engine will increase weight on the front wheel.
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Center of Gravity (CG) Height
The height of the center of gravity significantly influences the motorcycle’s roll response and stability. A lower CG generally improves stability and reduces the effort required to initiate leans. Conversely, a higher CG can result in quicker roll rates, potentially enhancing agility, but can make the motorcycle unstable. Positioning the engine low in the frame lowers the CG. A top-heavy fuel tank raises the CG.
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Lateral Weight Balance
Lateral weight balance refers to the distribution of mass across the motorcycle’s width. Uneven lateral weight distribution can lead to asymmetrical handling characteristics, making the motorcycle feel unbalanced during cornering. Achieving symmetrical lateral weight distribution is crucial for predictable and neutral handling. Examples: An exhaust system mounted primarily on one side of the motorcycle can create lateral imbalance. Accessories mounted asymmetrically shift the lateral weight distribution.
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Impact on Handling Characteristics
The interplay between front-rear bias, CG height, and lateral weight balance collectively defines the motorcycle’s handling characteristics. These factors influence stability under braking, traction during acceleration, and steering response during cornering. Fine-tuning weight distribution can optimize the motorcycle’s performance for specific riding styles and conditions. Examples: Altering the front or rear suspension preload can influence weight transfer during acceleration and braking. Adjusting rider position affects the overall weight distribution and handling.
Understanding weight distribution allows for a more complete evaluation of its operational specifications. The interplay between these factors ultimately contributes to the riding experience. Consideration of these details aids in appreciating its design and performance characteristics.
Conclusion
The comprehensive examination of Husqvarna Svartpilen 701 specs reveals a multifaceted set of parameters crucial for understanding its performance and handling characteristics. These include engine specifications, chassis dimensions, and weight distribution, each playing a vital role in defining the machine’s capabilities. An informed appreciation of these details empowers potential buyers and owners to make educated decisions regarding purchase, maintenance, and potential modifications.
The significance of carefully considering these technical attributes cannot be overstated. Accurate understanding of technical specifications ensures safe operation and optimal performance. Continued advancements and refinements in motorcycle design will undoubtedly lead to future iterations with enhanced specifications. Staying informed regarding these improvements remains essential for enthusiasts and professionals alike.
