This hydraulic lifting device is engineered for raising heavy loads with vertical force. Typically employed in automotive repair and construction, it utilizes a cylinder to exert significant upward pressure. These jacks are often characterized by their compact design and relatively high lifting capacity, making them suitable for tasks where space is limited but substantial lifting power is required. An example of its application is lifting a vehicle to facilitate tire replacement or undercarriage maintenance.
The significance of such tools lies in their ability to provide a safe and controlled method for elevating heavy objects. Benefits include ease of use, portability, and a stable lifting platform when used correctly. Historically, similar lifting mechanisms have been vital in various industries, evolving from simple lever systems to sophisticated hydraulic implementations to meet increasing demands for lifting heavier loads more efficiently. Their reliable performance contributes to improved safety and productivity in numerous applications.
The following sections will delve into specific aspects, encompassing selection considerations, operational guidelines, safety precautions, and maintenance procedures to ensure optimal performance and longevity. This comprehensive approach aims to provide a thorough understanding of how to effectively utilize this type of lifting equipment.
1. Lifting Capacity
The lifting capacity of a hydraulic lifting device, is not merely a specification on a label; it is the very foundation upon which safe and effective operation is built. To disregard this cardinal parameter is to invite potential disaster, transforming a tool meant for assistance into an instrument of peril.
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Rated Load vs. Actual Load
The rated load represents the maximum weight the device is engineered to lift safely. Exceeding this limit introduces stress beyond the designed tolerances, potentially leading to structural failure. An example could be a garage mechanic attempting to lift a truck exceeding the device’s stated limit; the consequences could range from a slow, uncontrolled descent to a sudden, catastrophic collapse. The implications are clear: adherence to the rated load is non-negotiable.
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Safety Factor and Design Margins
Reputable manufacturers incorporate safety factors into their designs. These margins of error account for material imperfections, unexpected load dynamics, and variations in manufacturing tolerances. While these factors provide a buffer, they are not an invitation to test the limits. An over-reliance on perceived safety margins can lead to complacency and ultimately, to hazardous situations. A cautious approach that respects the stated lifting capacity ensures continued safe operation.
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Dynamic Load Considerations
The lifting capacity refers to static loadsweight applied gradually and consistently. Dynamic loads, involving sudden impacts or shifting weight, place significantly greater stress on the system. Lifting an engine block smoothly differs drastically from jerking it into place. Understanding the difference between static and dynamic loads is vital; any uncontrolled movements or sudden jolts dramatically increase the risk of failure, even if the nominal weight remains within the stated capacity.
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Environmental Factors and Capacity Derating
Extreme temperatures and corrosive environments can degrade materials and reduce the device’s safe lifting capacity. Cold temperatures can increase the viscosity of hydraulic fluid, impeding its performance. Similarly, exposure to salt or chemicals can weaken critical components. In such conditions, consulting the manufacturer’s guidelines on capacity derating is essential. Neglecting these environmental influences can unknowingly compromise the device’s structural integrity.
Therefore, the lifting capacity, in relation to a Pro Lift bottle jack or any similar lifting device, is an inextricable aspect of its functionality and safety. It is a figure derived from careful calculation, rigorous testing, and a commitment to safeguarding the user. Respecting this value is paramount to ensuring that the tool remains a valuable asset rather than a liability. Its prudent application, informed by a thorough understanding of load types, safety factors, and environmental conditions, is a sign of professionalism and a commitment to safety.
2. Base Stability
The unforgiving geometry of a garage floor, the uneven terrain of a construction site these are the proving grounds where the base stability of a hydraulic jack is either validated or tragically exposed. With the “pro lift bottle jack,” this foundation is more than a mere platform; it’s the silent guarantor of a safe and controlled ascent. A narrow base, a subtle imperfection, a forgotten pebble beneath its surface – any of these can become the prologue to disaster. Imagine a mechanic, trusting the jack to hold the weight of a vehicle while he works underneath. A slightly angled surface, unnoticed in the rush, causes a gradual shift in the load’s distribution. The base, inadequately supported, begins to tip, the vehicle lurches, and the consequences become a harsh lesson in physics and the importance of proper preparation.
The correlation between base stability and the overall function of a “pro lift bottle jack” is a fundamental principle of engineering. A wide base, crafted from robust material, distributes the weight evenly, minimizing the risk of tilting or sinking into the surface. This design element is not a luxury; it’s a necessity. Consider a rural setting, where a farmer relies on such a jack to repair heavy machinery in the field. The ground is rarely perfectly level, and the weight of the equipment is substantial. A stable base, capable of adapting to slight irregularities in the terrain, is the difference between a successful repair and a potentially dangerous situation. The larger footprint provides an anchor, resisting the forces that could otherwise compromise the lift.
In essence, base stability is the unsung hero in the operation of the “pro lift bottle jack”. It’s the invisible force that maintains equilibrium under immense pressure. The challenges of uneven surfaces, shifting loads, and environmental factors demand a steadfast and well-engineered foundation. By prioritizing base stability, one acknowledges that the safety and success of the task hinge on more than just the hydraulic power of the jack; it depends on the unwavering support from the ground up. The consequences of neglecting this crucial aspect serve as a stark reminder of the importance of understanding and respecting the physics at play.
3. Hydraulic Fluid
Within the steel confines of a “pro lift bottle jack” resides a silent enabler: hydraulic fluid. This seemingly unassuming liquid is the very lifeblood of the device, the medium through which force is amplified and controlled. Its role is not passive; it is an active participant in every lift, every controlled descent. A diminished supply, contamination, or the selection of an unsuitable fluid can transform a reliable tool into a dangerous liability. Imagine an aging mechanic, long accustomed to the familiar groan of a hydraulic jack lifting a heavy-duty truck. He initiates the lift, but the ascent is sluggish, hesitant. Unbeknownst to him, the hydraulic fluid within has thickened with age and accumulated microscopic debris, restricting its flow and diminishing its ability to transmit force effectively. The lift falters, the truck shifts precariously, and a routine task becomes a hazardous situation.
The properties of hydraulic fluid are paramount. Its incompressibility allows for the efficient transmission of force from the pump to the piston. Its viscosity ensures smooth operation and minimizes leakage. Its thermal stability prevents degradation under high pressures and temperatures. A well-maintained “pro lift bottle jack” relies on the continued integrity of this fluid. Regular inspections for leaks, discoloration, or unusual odors are essential. Replacement with the manufacturer-recommended fluid at specified intervals is not merely a maintenance procedure; it is an act of preservation. A construction foreman, diligently adhering to the maintenance schedule, notices a milky discoloration in the hydraulic fluid of a jack used to position heavy concrete slabs. Recognizing this as a sign of water contamination, he immediately replaces the fluid, preventing potential corrosion and ensuring the jack’s continued reliable operation.
The relationship between the “pro lift bottle jack” and its hydraulic fluid is symbiotic. One cannot function reliably without the other. Understanding the fluid’s properties, its role in force transmission, and the consequences of its neglect is crucial for safe and effective operation. The challenges of maintaining fluid integrity in demanding environments require vigilance and adherence to best practices. The hydraulic fluid is more than just a liquid; it’s the key to unlocking the full potential of the “pro lift bottle jack,” ensuring that it remains a trusted and reliable tool for years to come.
4. Release Valve
The release valve on a hydraulic lifting device is the linchpin governing controlled descent, the mechanism that transforms stored potential energy into a measured return to the earth. Without it, the “pro lift bottle jack” becomes a one-way instrument, capable of ascent but robbed of its ability to lower with precision. The consequences of a malfunctioning valve can range from a jarring drop to a complete and irreversible lock, trapping the load in an elevated, precarious position. Consider the image of a seasoned mechanic, completing an undercarriage repair on a classic automobile. He tightens the final bolt, then reaches for the release valve. Instead of a smooth, gradual lowering, the valve sticks, resisting his efforts. He applies more force, a miscalculation born of frustration, and the valve suddenly gives way, sending the car crashing down, damaging the vehicle and risking injury. The incident serves as a stark reminder: the release valve is not a mere afterthought; it is an essential safety feature.
The design and functionality of the release valve are crucial to understanding its importance. Typically a needle valve, it meters the flow of hydraulic fluid from the cylinder back into the reservoir, allowing for a controlled reduction in pressure. The precision of its machining and the responsiveness of its action determine the smoothness and predictability of the descent. A corroded or damaged valve can restrict flow, leading to erratic movement. Contamination within the hydraulic system can also impede its operation, causing it to stick or leak. Regular inspection and maintenance, including cleaning and lubrication, are vital to ensuring its proper function. Imagine a construction crew using a “pro lift bottle jack” to position a precast concrete beam. The foreman insists on a thorough check of all equipment before each lift, including a test of the release valve. He observes a slight hesitation in its operation and identifies a small amount of debris obstructing the valve seat. He cleans the valve meticulously, restoring its smooth action and preventing a potential disaster during the delicate positioning of the heavy beam.
Ultimately, the release valve is more than just a component; it’s a symbol of control and safety in the realm of hydraulic lifting. Its proper functioning ensures the safe and predictable lowering of heavy loads, preventing accidents and protecting both equipment and personnel. Understanding its design, its function, and the potential consequences of its failure is essential for anyone who relies on the “pro lift bottle jack.” The valve requires respect, vigilance, and a commitment to regular maintenance. When properly maintained, it provides a critical margin of safety, allowing operators to work with confidence, knowing that they have the means to control both the ascent and the descent.
5. Stroke Length
Stroke length, in the realm of hydraulic lifting devices, specifically the “pro lift bottle jack,” represents the distance through which the lifting ram can extend. It is not merely a number on a specification sheet; it is a fundamental determinant of the jack’s operational versatility, dictating the height to which a load can be raised in a single, continuous motion. The stroke length dictates whether a particular jack is suitable for a given task, a mismatch resulting in inefficiency at best, and operational impossibility at worst.
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Defining Reach and Accessibility
The stroke length directly impacts the reach of the “pro lift bottle jack,” determining its ability to access lifting points at various heights. Consider a scenario involving a vehicle with unusually high ground clearance. A jack with an insufficient stroke length would be unable to make contact with the designated lifting point, rendering it useless for the task. Conversely, a longer stroke provides greater flexibility, accommodating a wider range of applications. Its role is clear: a sufficient stroke length is essential for initial engagement with the load.
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Incremental Lifting and Stacking
In situations requiring significant lift heights, a “pro lift bottle jack” with a limited stroke necessitates the use of supplementary blocking or cribbing. This incremental lifting process involves raising the load partially, inserting blocks for support, and then repeating the process to achieve the desired height. While feasible, this method introduces inherent instability and increases the risk of accidents. A longer stroke allows for fewer increments, enhancing safety and efficiency, while the height is adjusted.
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Load Stability and Center of Gravity
The stroke length can indirectly influence the stability of the lifted load. A shorter stroke, requiring the jack to operate closer to its fully extended position, may result in a less stable lifting platform. As the ram extends, the center of gravity shifts, potentially increasing the risk of tipping. A longer stroke allows the jack to operate within a more stable range, maintaining a lower center of gravity and reducing the likelihood of accidents. By having the load at a set center the stability is increased for the user.
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Efficiency and Time Management
The stroke length affects the overall efficiency of the lifting process. A longer stroke reduces the number of pumping cycles required to achieve a given lift height, saving time and effort. In a busy repair shop, where time is a valuable resource, a “pro lift bottle jack” with an adequate stroke can significantly improve productivity. Conversely, a shorter stroke necessitates more pumping, increasing the workload and potentially delaying project completion. A smaller stroke leads to a much longer time and effort is need to achieve what the end goal is.
In conclusion, stroke length is not merely a technical specification; it’s a critical factor influencing the versatility, safety, and efficiency of the “pro lift bottle jack.” Its connection to reach, incremental lifting, load stability, and time management underscores its importance in selecting the appropriate jack for a given task. A thorough consideration of these facets ensures that the selected tool is not only capable of performing the lift but also of doing so safely and efficiently, ultimately contributing to a successful outcome.
6. Safety Standards
In the realm of heavy machinery and automotive repair, safety standards are not mere suggestions; they are the codified lessons learned from past incidents, the concrete embodiment of experience gained through trial and error. The “pro lift bottle jack,” a seemingly simple tool, is no exception. Its design, manufacture, and operation are governed by a network of regulations and guidelines, each designed to minimize the risk of catastrophic failure and protect users from potential harm. These standards, often invisible to the casual observer, are the silent guardians of every lift, every repair, every task undertaken with such a jack.
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Material Certification and Testing
The steel from which the “pro lift bottle jack” is forged is not chosen arbitrarily. It must meet rigorous standards for tensile strength, yield strength, and fatigue resistance. Each batch undergoes testing to ensure it conforms to these specifications. Imagine a scenario where substandard steel is used. The jack might appear structurally sound upon initial inspection, but under the immense pressure of a heavy load, it could buckle or fracture, leading to sudden collapse. Material certification provides assurance that the jack is built to withstand the stresses it will encounter. Failure to meet these standards has a large potential to harm the operator.
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Pressure Relief Mechanisms
Hydraulic systems are inherently vulnerable to overpressure. If the load exceeds the jack’s rated capacity or if the system is subjected to unexpected pressure surges, a catastrophic failure could result. Safety standards mandate the inclusion of pressure relief valves, designed to automatically vent excess pressure and prevent damage. Consider a case where a user unknowingly attempts to lift a load exceeding the jack’s limit. Without a relief valve, the jack could burst, sending shrapnel flying and causing severe injury. These valves act as a last line of defense, safeguarding the user from the consequences of overloads.
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Stability and Tip-Over Resistance
A stable base and a low center of gravity are essential for preventing tip-overs, a common cause of accidents involving hydraulic jacks. Safety standards dictate minimum base dimensions and specify testing procedures to ensure adequate stability under load. Envision a mechanic working under a vehicle supported by a jack with a narrow base. A slight bump or shift in the vehicle’s weight could cause the jack to topple, dropping the vehicle and potentially crushing the mechanic. Stability standards minimize this risk, ensuring that the jack remains firmly planted even under challenging conditions. The consequences of neglect may lead to serious injury.
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Manufacturing Quality Control
From the welding of seams to the calibration of valves, every stage of the manufacturing process is subject to stringent quality control measures. Safety standards require manufacturers to implement robust inspection procedures to detect and correct any defects before the jacks reach the market. Imagine a situation where a poorly welded seam fails under pressure, causing the jack to leak hydraulic fluid and lose lifting capacity. Such a defect could go unnoticed without rigorous quality control. Adherence to manufacturing standards ensures that each “pro lift bottle jack” meets a minimum level of quality and reliability.
The integration of these facets – material certification, pressure relief mechanisms, stability standards, and manufacturing quality control – underscores the profound connection between safety standards and the “pro lift bottle jack.” These standards are not merely abstract concepts; they are the tangible safeguards that protect users from harm. Their diligent implementation transforms a potentially dangerous tool into a reliable and trustworthy asset, enabling individuals to perform heavy lifting tasks with confidence and peace of mind. Without their watchful presence, the risks associated with hydraulic jacks would be far greater, and the consequences far more severe.
7. Storage Method
The longevity and reliability of a “pro lift bottle jack” are inextricably linked to its storage. The hydraulic heart of the device, precisely engineered for forceful lifts, is also susceptible to degradation from environmental exposure and neglect. Improper storage can transform a robust tool into a useless piece of metal, or worse, a hazard waiting to happen. Imagine a construction site where tools are carelessly discarded at the end of each day. A “pro lift bottle jack,” still slightly extended from its last use, is left exposed to the elements rain, dust, and the harsh glare of the sun. Over time, moisture seeps into the hydraulic system, causing corrosion and rust. Dust and debris accumulate on the exposed ram, scoring the seals as it is retracted. The next time the jack is needed, its performance is compromised: its lift is jerky, its descent uncontrolled, and its ultimate lifespan dramatically shortened.
The ideal storage method protects the “pro lift bottle jack” from these damaging influences. A dry, sheltered environment is paramount. Storing the jack in a clean, organized toolbox or storage container shields it from dust, moisture, and direct sunlight. Releasing the pressure after each use, lowering the ram completely, and applying a light coat of oil to exposed metal surfaces further safeguards its internal components. Consider a professional automotive repair shop. Each tool has its designated place, and the “pro lift bottle jack” is carefully stored in a dry cabinet, its ram fully retracted and lightly oiled. This preventative care ensures that the jack is always ready for use, its performance consistent and its lifespan maximized. The shop owner understands that the small effort invested in proper storage yields significant returns in terms of tool reliability and reduced replacement costs.
In essence, the storage method is an integral component of the “pro lift bottle jack’s” overall functionality. It is not merely an afterthought but a critical practice that determines the tool’s long-term performance and safety. Understanding the environmental threats and implementing appropriate storage techniques are essential for preserving the jack’s hydraulic integrity and ensuring its reliable operation for years to come. The well-maintained jack, protected from the elements and treated with care, stands as a testament to the owners foresight and commitment to safety, a silent but powerful affirmation that the right tools, properly cared for, are an investment that pays dividends in reliability, efficiency, and peace of mind.
Frequently Asked Questions
The landscape of automotive repair and heavy lifting is fraught with potential pitfalls. Seeking clarity on the proper application and maintenance of essential tools is therefore paramount. The following addresses common inquiries surrounding the “pro lift bottle jack,” drawing upon real-world scenarios to illustrate critical points.
Question 1: What constitutes an acceptable surface for operating a Pro Lift bottle jack?
The memory of a construction site incident serves as a stark reminder. A seemingly solid concrete slab concealed a subtle void beneath its surface. During a heavy lift, the jack, placed on this deceptive surface, suddenly shifted, causing a partial collapse of the supported load. Acceptable surfaces must be level, solid, and capable of bearing the weight of the load plus the jack itself. Asphalt, soft soil, or surfaces with hidden voids are to be avoided at all costs.
Question 2: How frequently should the hydraulic fluid within a Pro Lift bottle jack be inspected and replaced?
A seasoned mechanic once dismissed a slight discoloration in the hydraulic fluid as inconsequential. Over time, the contaminated fluid corroded internal seals, leading to a gradual loss of lifting capacity. Regular inspection, at least every six months, is imperative. If the fluid appears milky, discolored, or contains visible contaminants, immediate replacement with the manufacturer-recommended fluid is crucial to prevent irreversible damage.
Question 3: Is it permissible to exceed the rated lifting capacity of a Pro Lift bottle jack, even by a small margin?
The temptation to push boundaries can be perilous. A farm worker, attempting to lift a tractor slightly heavier than the jack’s rated capacity, suffered a catastrophic failure. The jack buckled, causing significant damage to the equipment and narrowly avoiding serious injury. Exceeding the rated capacity, even by a small amount, introduces stresses beyond the designed tolerances, jeopardizing the integrity of the jack and posing a significant safety risk.
Question 4: What is the proper procedure for storing a Pro Lift bottle jack when not in use?
A neglected jack, left exposed to the elements in a damp garage, became a victim of corrosion. Moisture seeped into the hydraulic system, causing rust and rendering the jack unusable. Proper storage involves cleaning the jack, retracting the ram fully, applying a light coat of oil to exposed metal surfaces, and storing it in a dry, sheltered environment to prevent corrosion and maintain its operational readiness.
Question 5: Can a Pro Lift bottle jack be used to support a load indefinitely, such as during extended repairs?
The inherent risk of hydraulic systems should never be underestimated. A mechanic, trusting solely in a jack to support a vehicle overnight, awoke to a terrifying discovery. A slow leak in the hydraulic system had caused the jack to gradually descend, leaving the vehicle precariously balanced. Jacks are designed for lifting, not for prolonged support. Always use jack stands or other appropriate supports to secure the load before commencing any work underneath.
Question 6: Is it acceptable to modify a Pro Lift bottle jack in any way, such as by extending the handle or altering the release valve?
The allure of customization can be tempting, but the consequences can be dire. An ambitious tinkerer, seeking to increase the leverage of his jack, extended the handle. During a subsequent lift, the modified handle snapped under pressure, causing him to lose control of the descent and damaging the load. Modifications, no matter how seemingly benign, can compromise the jack’s structural integrity and void any warranties. Always adhere to the manufacturer’s original design and specifications.
These are but a few of the critical considerations surrounding the safe and effective use of the “pro lift bottle jack.” Diligence, adherence to safety protocols, and a commitment to regular maintenance are essential for ensuring both personal safety and the longevity of this valuable tool.
The following section will explore the practical application of these principles through a series of real-world case studies, highlighting best practices and common pitfalls to avoid.
Essential Wisdom
The Pro Lift bottle jack is a tool of immense power, yet it demands respect. Complacency can lead to catastrophic consequences. These hard-earned lessons, gleaned from the experiences of seasoned professionals and unfortunate accidents, serve as indispensable guidelines for the safe and effective use of these hydraulic lifting devices. Ignoring them is an invitation to disaster.
Tip 1: Match the Jack to the Task: A novice mechanic once underestimated the weight of a vintage engine block, selecting a jack with insufficient capacity. The attempted lift resulted in a strained jack, a damaged engine mount, and a valuable lesson learned. Verify the weight of the load and choose a jack with a capacity that exceeds it by a significant margin.
Tip 2: Surface Matters: A construction foreman, pressed for time, positioned a Pro Lift bottle jack on what appeared to be a solid section of asphalt. Unbeknownst to him, a concealed void lay beneath the surface. As the load increased, the asphalt crumbled, causing the jack to tilt and the load to shift dangerously. Always inspect the surface meticulously. A solid, level foundation is non-negotiable.
Tip 3: Gradual Ascent is Key: An eagerness to expedite a tire change led a weekend warrior to pump the jack handle with excessive force. The rapid ascent placed undue stress on the hydraulic system, resulting in a premature seal failure. Slow, deliberate strokes are essential for maintaining control and preventing damage. Patience is rewarded with safety.
Tip 4: Never Work Under an Unsupported Load: The urgency of a roadside repair tempted a traveler to bypass the use of jack stands. A sudden shift in the vehicle’s weight caused the jack to slip, trapping his arm beneath the chassis. The consequences were severe. Jack stands are not optional; they are lifesavers. Never compromise on this fundamental safety precaution.
Tip 5: Controlled Descent is Paramount: A rushed mechanic, impatient to finish a brake job, released the jack’s valve too quickly. The rapid descent sent the vehicle crashing down, damaging the suspension and shaking the entire structure. A slow, controlled release is crucial for preventing sudden impacts and maintaining stability. Respect the process, or risk the repercussions.
Tip 6: Hydraulic Fluid is Lifeblood: A seasoned technician learned the hard way that neglecting hydraulic fluid leads to disaster. The result was a sudden loss of pressure and a dangerous situation. Regular checks and fluid top-ups help prevent catastrophic failure.
These principles are not suggestions; they are the bedrock of safe operation. The “Pro Lift bottle jack” offers a powerful advantage, but it demands respect, diligence, and unwavering adherence to best practices. Failure to heed these lessons can have dire consequences.
Having examined the wisdom gleaned from real-world usage, we shall now progress to the culmination of this exploration, consolidating the key insights and reaffirming the paramount importance of safety.
The Weight of Responsibility
The preceding exploration has illuminated the multifaceted nature of the “pro lift bottle jack,” moving beyond a simple tool to reveal a system governed by physics, regulated by standards, and reliant on human judgment. From the selection of the correct model to the implementation of proper storage techniques, each decision carries a weight of responsibility. The lifting capacity, the base stability, the hydraulic fluid, the release valveall are intertwined, each dependent on the others for safe and effective operation.
The tale of the collapsed chassis, the fractured weld, and the near miss serves as constant reminders. This equipment is not to be used lightly. Instead, it is a device that demands respect, training, and unwavering adherence to safety. In this world, compromise is measured not in dollars, but in the potential for catastrophic harm. Now, lets move forward with the knowledge and commitment to prevent these stories from ever being retold with a different name.
