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When you sip soda through a straw, you are utilizing the simplest of all suction mechanisms. Sucking the soda up causes a pressure drop between the bottom of the straw and the top of the straw. With greater fluid pressure at the bottom than the top, the soda is pushed up to your mouth. ­ This is the same basic mechanism at work in a Vacuu […] Vedi
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    Il profilo di When you sip soda through a straw, you are utilizing the simplest of all suction mechanisms. Sucking the soda up causes a pressure drop between the bottom of the straw and the top of the straw. With greater fluid pressure at the bottom than the top, the soda is pushed up to your mouth. ­ This is the same basic mechanism at work in a Vacuum Cleaner, though the execution is a bit more complicated. In this article, we'll look inside a vacuum cleaner to find out how it puts suction to work when cleaning up the dust and debris in your house. As we'll see, the standard vacuum cleaner design is exceedingly simple, but it relies on a host of physical principles to clean effectively. It may look like a complicated machine, but the conventional vacuum cleaner is actually made up of only six essential components: An intake port, which may include a variety of cleaning accessories An exhaust port An electric motor A fan A porous bag A housing that contains all the other components When you plug the Handheld Vacuums in and turn it on, this is what happens: The electric current operates the motor. The motor is attached to the fan, which has angled blades (like an airplane propeller). As the fan blades turn, they force air forward, toward the exhaust port. When air particles are driven forward, the density of particles (and therefore the air pressure) increases in front of the fan and decreases behind the fan. This pressure drop behind the fan is just like the pressure drop in the straw when you sip from your drink. The pressure level in the area behind the fan drops below the pressure level outside the vacuum cleaner (the ambient air pressure). This creates suction, a partial vacuum, inside the vacuum cleaner. The ambient air pushes itself into the vacuum cleaner through the intake port because the air pressure inside the vacuum cleaner is lower than the pressure outside. As long as the fan is running and the passageway through the vacuum cleaner remains open, there is a constant stream of air moving through the intake port and out the exhaust port. But how does a flowing stream of air collect the dirt and debris from your carpet? The key principle is friction. Vacuum Cleaner Brushes and Bag In the last section, we saw that the suction created by a vacuum cleaner's rotating fan creates a flowing stream of air moving through the intake port and out the exhaust port. This stream of air acts just like a stream of water. The moving air particles rub against any loose dust or debris as they move, and if the debris is light enough and the suction is strong enough, the friction carries the material through the inside of the vacuum cleaner. This is the same principle that causes leaves and other debris to float down a stream. Some vacuum designs also have rotating Vacuum Cleaner Brushes at the intake port, which kick dust and dirt loose from the carpet so it can be picked up by the air stream. As the dirt-filled air makes its way to the exhaust port, it passes through the vacuum-cleaner bag. These bags are made of porous woven material (typically cloth or paper), which acts as an air filter. The tiny holes in the bag are large enough to let air particles pass by, but too small for most dirt particles to fit through. Thus, when the air current streams into the bag, all the air moves on through the material, but the dirt and debris collect in the bag. Vacuum Cleaner Variables In the last section, we saw that Vacuum Cleaner Parts pick up dirt by driving a stream of air through an air filter (the bag). The power of the vacuum cleaner's suction depends on a number of factors. Suction will be stronger or weaker depending on: The power of the fan: To generate strong suction, the motor has to turn at a good speed. The blockage of the air passageway: When a great deal of debris builds up in the vacuum bag, the air faces greater resistance on its way out. Each particle of air moves more slowly because of the increased drag. This is why a vacuum cleaner works better when you've just replaced the bag than when you've been vacuuming for a while. The size of the opening at the end of the intake port: Since the speed of the vacuum fan is constant, the amount of air passing through the vacuum cleaner per unit of time is also constant. No matter what size you make the intake port, the same number of air particles will have to pass into the vacuum cleaner every second. If you make the port smaller, the individual air particles will have to move much more quickly in order for them all to get through in that amount of time. At the point where the air speed increases, pressure decreases, because of Bernoulli's principle. The drop in pressure translates to a greater suction force at the intake port. Because they create a stronger suction force, narrower vacuum attachments can pick up heavier dirt particles than wider attachments. At the most basic level, this is all there is to a vacuum cleaner. Since the electric vacuum's invention a century ago, many innovative thinkers have expanded and modified this idea to create different sorts of vacuum systems. So far, we have looked at the most typical types of vacuum cleaners: the upright and canister designs, both of which collect dirt in a porous bag. For most of the history of vacuum cleaners, these have been the most popular designs, but there are many other ways to configure the suction system. We'll look at some of these in the next section. è stato aggiornato 4 anni fa

  • Foto del profilo di asdasd

    When you sip soda through a straw, you are utilizing the simplest of all suction mechanisms. Sucking the soda up causes a pressure drop between the bottom of the straw and the top of the straw. With greater fluid pressure at the bottom than the top, the soda is pushed up to your mouth. ­ This is the same basic mechanism at work in a Vacuum Cleaner, though the execution is a bit more complicated. In this article, we'll look inside a vacuum cleaner to find out how it puts suction to work when cleaning up the dust and debris in your house. As we'll see, the standard vacuum cleaner design is exceedingly simple, but it relies on a host of physical principles to clean effectively. It may look like a complicated machine, but the conventional vacuum cleaner is actually made up of only six essential components: An intake port, which may include a variety of cleaning accessories An exhaust port An electric motor A fan A porous bag A housing that contains all the other components When you plug the Handheld Vacuums in and turn it on, this is what happens: The electric current operates the motor. The motor is attached to the fan, which has angled blades (like an airplane propeller). As the fan blades turn, they force air forward, toward the exhaust port. When air particles are driven forward, the density of particles (and therefore the air pressure) increases in front of the fan and decreases behind the fan. This pressure drop behind the fan is just like the pressure drop in the straw when you sip from your drink. The pressure level in the area behind the fan drops below the pressure level outside the vacuum cleaner (the ambient air pressure). This creates suction, a partial vacuum, inside the vacuum cleaner. The ambient air pushes itself into the vacuum cleaner through the intake port because the air pressure inside the vacuum cleaner is lower than the pressure outside. As long as the fan is running and the passageway through the vacuum cleaner remains open, there is a constant stream of air moving through the intake port and out the exhaust port. But how does a flowing stream of air collect the dirt and debris from your carpet? The key principle is friction. Vacuum Cleaner Brushes and Bag In the last section, we saw that the suction created by a vacuum cleaner's rotating fan creates a flowing stream of air moving through the intake port and out the exhaust port. This stream of air acts just like a stream of water. The moving air particles rub against any loose dust or debris as they move, and if the debris is light enough and the suction is strong enough, the friction carries the material through the inside of the vacuum cleaner. This is the same principle that causes leaves and other debris to float down a stream. Some vacuum designs also have rotating Vacuum Cleaner Brushes at the intake port, which kick dust and dirt loose from the carpet so it can be picked up by the air stream. As the dirt-filled air makes its way to the exhaust port, it passes through the vacuum-cleaner bag. These bags are made of porous woven material (typically cloth or paper), which acts as an air filter. The tiny holes in the bag are large enough to let air particles pass by, but too small for most dirt particles to fit through. Thus, when the air current streams into the bag, all the air moves on through the material, but the dirt and debris collect in the bag. Vacuum Cleaner Variables In the last section, we saw that Vacuum Cleaner Parts pick up dirt by driving a stream of air through an air filter (the bag). The power of the vacuum cleaner's suction depends on a number of factors. Suction will be stronger or weaker depending on: The power of the fan: To generate strong suction, the motor has to turn at a good speed. The blockage of the air passageway: When a great deal of debris builds up in the vacuum bag, the air faces greater resistance on its way out. Each particle of air moves more slowly because of the increased drag. This is why a vacuum cleaner works better when you've just replaced the bag than when you've been vacuuming for a while. The size of the opening at the end of the intake port: Since the speed of the vacuum fan is constant, the amount of air passing through the vacuum cleaner per unit of time is also constant. No matter what size you make the intake port, the same number of air particles will have to pass into the vacuum cleaner every second. If you make the port smaller, the individual air particles will have to move much more quickly in order for them all to get through in that amount of time. At the point where the air speed increases, pressure decreases, because of Bernoulli's principle. The drop in pressure translates to a greater suction force at the intake port. Because they create a stronger suction force, narrower vacuum attachments can pick up heavier dirt particles than wider attachments. At the most basic level, this is all there is to a vacuum cleaner. Since the electric vacuum's invention a century ago, many innovative thinkers have expanded and modified this idea to create different sorts of vacuum systems. So far, we have looked at the most typical types of vacuum cleaners: the upright and canister designs, both of which collect dirt in a porous bag. For most of the history of vacuum cleaners, these have been the most popular designs, but there are many other ways to configure the suction system. We'll look at some of these in the next section. ha inviato un aggiornamento 4 anni fa

    When you sip soda through a straw, you are utilizing the simplest of all suction mechanisms. Sucking the soda up causes a pressure drop between the bottom of the straw and the top of the straw. With greater fluid pressure at the bottom than the top, the soda is pushed up to your mouth. ­

    This is the same basic mechanism at work in a Vacuum…[Leggi tutto]

  • Foto del profilo di asdasd

    When you sip soda through a straw, you are utilizing the simplest of all suction mechanisms. Sucking the soda up causes a pressure drop between the bottom of the straw and the top of the straw. With greater fluid pressure at the bottom than the top, the soda is pushed up to your mouth. ­ This is the same basic mechanism at work in a Vacuum Cleaner, though the execution is a bit more complicated. In this article, we'll look inside a vacuum cleaner to find out how it puts suction to work when cleaning up the dust and debris in your house. As we'll see, the standard vacuum cleaner design is exceedingly simple, but it relies on a host of physical principles to clean effectively. It may look like a complicated machine, but the conventional vacuum cleaner is actually made up of only six essential components: An intake port, which may include a variety of cleaning accessories An exhaust port An electric motor A fan A porous bag A housing that contains all the other components When you plug the Handheld Vacuums in and turn it on, this is what happens: The electric current operates the motor. The motor is attached to the fan, which has angled blades (like an airplane propeller). As the fan blades turn, they force air forward, toward the exhaust port. When air particles are driven forward, the density of particles (and therefore the air pressure) increases in front of the fan and decreases behind the fan. This pressure drop behind the fan is just like the pressure drop in the straw when you sip from your drink. The pressure level in the area behind the fan drops below the pressure level outside the vacuum cleaner (the ambient air pressure). This creates suction, a partial vacuum, inside the vacuum cleaner. The ambient air pushes itself into the vacuum cleaner through the intake port because the air pressure inside the vacuum cleaner is lower than the pressure outside. As long as the fan is running and the passageway through the vacuum cleaner remains open, there is a constant stream of air moving through the intake port and out the exhaust port. But how does a flowing stream of air collect the dirt and debris from your carpet? The key principle is friction. Vacuum Cleaner Brushes and Bag In the last section, we saw that the suction created by a vacuum cleaner's rotating fan creates a flowing stream of air moving through the intake port and out the exhaust port. This stream of air acts just like a stream of water. The moving air particles rub against any loose dust or debris as they move, and if the debris is light enough and the suction is strong enough, the friction carries the material through the inside of the vacuum cleaner. This is the same principle that causes leaves and other debris to float down a stream. Some vacuum designs also have rotating Vacuum Cleaner Brushes at the intake port, which kick dust and dirt loose from the carpet so it can be picked up by the air stream. As the dirt-filled air makes its way to the exhaust port, it passes through the vacuum-cleaner bag. These bags are made of porous woven material (typically cloth or paper), which acts as an air filter. The tiny holes in the bag are large enough to let air particles pass by, but too small for most dirt particles to fit through. Thus, when the air current streams into the bag, all the air moves on through the material, but the dirt and debris collect in the bag. Vacuum Cleaner Variables In the last section, we saw that Vacuum Cleaner Parts pick up dirt by driving a stream of air through an air filter (the bag). The power of the vacuum cleaner's suction depends on a number of factors. Suction will be stronger or weaker depending on: The power of the fan: To generate strong suction, the motor has to turn at a good speed. The blockage of the air passageway: When a great deal of debris builds up in the vacuum bag, the air faces greater resistance on its way out. Each particle of air moves more slowly because of the increased drag. This is why a vacuum cleaner works better when you've just replaced the bag than when you've been vacuuming for a while. The size of the opening at the end of the intake port: Since the speed of the vacuum fan is constant, the amount of air passing through the vacuum cleaner per unit of time is also constant. No matter what size you make the intake port, the same number of air particles will have to pass into the vacuum cleaner every second. If you make the port smaller, the individual air particles will have to move much more quickly in order for them all to get through in that amount of time. At the point where the air speed increases, pressure decreases, because of Bernoulli's principle. The drop in pressure translates to a greater suction force at the intake port. Because they create a stronger suction force, narrower vacuum attachments can pick up heavier dirt particles than wider attachments. At the most basic level, this is all there is to a vacuum cleaner. Since the electric vacuum's invention a century ago, many innovative thinkers have expanded and modified this idea to create different sorts of vacuum systems. So far, we have looked at the most typical types of vacuum cleaners: the upright and canister designs, both of which collect dirt in a porous bag. For most of the history of vacuum cleaners, these have been the most popular designs, but there are many other ways to configure the suction system. We'll look at some of these in the next section. è diventato un membro registrato 4 anni fa

Foto del Profilo p12d15ing Foto del Profilo Since 2005, significant leaps forward in motors and tool electronics, coupled with advancements in lithium-ion, have pushed the industry to a point few would have considered possible 10 years ago. Today’s Cordless Tools deliver massive amounts of power and performance in a more compact package, and can even outperform their corded predecessors. The run times are getting longer, and the charge times are getting shorter. Even so, there are still tradesmen who have resisted the shift from corded to cordless. For these users, there’s just far too much work to be done to let productivity be hindered by potential battery run-time, and overall power and performance concerns. While these may have been valid concerns even five years ago, the industry is now at a point where Cordless Car Washer is quickly taking over as the leading technology in numerous ways. Here are three trends to consider when it comes to the adoption of cordless solutions on the job site. Reduction in Work-Related Injuries Due to Cords The Occupational Health and Safety Administration (OSHA) has long reported that slips, trips and falls are a prevalent concern on job sites, accounting for more than one-third of all reported injuries. Trips occur when an obstruction catches a worker’s foot and causes him/her to stumble. One of the most common offenders of trips is cords from power tools. Cordless tools have the benefit of freeing job sites from the nuisances of having to sweep cords to the side or string extension cables across the floor, vastly improving the hazards associated with trips, but also freeing up more space for equipment. You Won’t Need to Charge as Much as You Think Run-time isn’t much of a concern anymore when it comes to Cordless Drill, rendering the age-old fight for the security of the cord a thing of the past. The move to more energy-dense battery packs means that professional users who use the tools extensively now rely on fewer battery packs to get through a work day. Pro users had six or eight batteries on-site for their Ni-Cd tools and traded them out as needed throughout the day. With the newer lithium-ion batteries now available, heavy-duty users need just one or two for the day, then recharge overnight. Technology is More Capable Than Ever Before Lithium-ion technology isn’t solely responsible for the enhanced features today’s users are seeing in their tools. A tool’s motor and electronics infrastructure are also key factors that can offer increased run-time and performance. Just because a voltage number may be higher, doesn’t mean it has more power. Because of many technological advances, Cordless Wrench power tool manufacturers have been able to meet and surpass higher voltage performance with that of their cordless solutions. By tying brushless motors to the world’s most capable electronics packages and most advanced lithium-ion batteries, users can truly push the boundaries of cordless tool performance and experience the enhanced productivity it provides. Cordless: Safety and Process Improvements Inherent The innovations surrounding Cordless Polisher has also led to opportunities that allow manufacturers to enhance other aspects of the tools, and impact the safety and efficiency of an overall process. Take the following two cordless tools for example. By utilizing their M18 FUEL technology, Milwaukee Tools introduced the first-ever, 18-volt cordless magnetic drill press. The tool utilizes permanent magnets so that the magnetic base operates without electricity; ensuring that the magnet does not deactivate if the battery is drained. Equipped with Auto-Stop lift-off detection, power to the motor is automatically cut if excess rotational motion is detected while drilling. Milwaukee’s M18 FUEL Grinder was the first cordless braking grinder on the market with corded performance. Its RAPID STOP brake stops accessories in under two seconds, while an electronic clutch reduces kick-back during bind-up. These types of new-to-the-world innovation wouldn’t have been possible without the complex interworking of lithium-ion, motor technologies and electronics. Managers specifying Power Tools for technicians might assume that tools are similar and likely to function about the same. There are major differences among power tools, and one important difference lies in their features and functions. These elements make a major difference in achieving productivity goals: quality, quantity, safety, timeliness, and cost. Spotlight on saws Portable Angle Grinders have become workhorses of many maintenance departments. They perform a variety of tasks and come in a number of different styles: circular, reciprocating, miter, band, and chain. Managers first should take a close look at saws’ shared features — power capacity, weight, corded or cordless, ergonomics, and safety. If all of a department’s power tools are the same make and powered by a common battery pack, technicians will need only one charger and a few battery packs to power all tools. Making a match Before specification managers should perform a survey of recently completed jobs that involved Electric Drills in order to identify the power, versatility, and durability factors that technicians need for high-productivity performance. Did the tools used perform well? What were the shortfalls, if any? What characteristics would have enabled the technician to improve job quantity and quality and lower cost while still working safely? Three factors – job preparation, setup and tool change at the job site, and tool use during the job — are important considerations. The more multi-tasking capability an Electric Router offers, the better tool utilization will be and the fewer tools technicians will require. In the wood screw assembly example above, one driver performs both drilling and driving. Coupled with quick chuck rotation from one driver to the other, the result is a high-productivity system that gets a quality job done fast with less labor at a lower cost. By using a predetermined time system, managers and technicians can make a side-by-side comparison of several method times to identify the best time before making a purchase.

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