Ontocord.AI
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Update README.md
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README.md
CHANGED
@@ -103,6 +103,170 @@ for expert in ["orig_chat", "merged_chat_expert", "uspto_expert", "github_expert
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print (model1.generate_with_expert("Field of the Invention.\nAn electric toothbrush\n", tokenizer, expert=expert)[0])
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```
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### To recreate the expert, modify this script. We can also extend to do dynamic merging and/or experitment with different weights for different layers.
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```
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print (model1.generate_with_expert("Field of the Invention.\nAn electric toothbrush\n", tokenizer, expert=expert)[0])
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```
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## Produces this output:
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```
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Downloading (…)lve/main/config.json: 100%
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659/659 [00:00<00:00, 52.0kB/s]
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Downloading pytorch_model.bin: 100%
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3.56G/3.56G [04:16<00:00, 14.4MB/s]
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Downloading (…)neration_config.json: 100%
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111/111 [00:00<00:00, 8.81kB/s]
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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## orig_chat
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A simple electric toothbrush with multiple brush heads can be made to work like this:
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* Two brush heads on the handle.
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* A brush head, which is connected to two brushes and has a handle that fits into one of them (a "bush" head).
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* A second brush on the end of the handle.
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## orig_chat more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush, which is capable of delivering a high frequency voltage to an area of the jawbone for therapeutic or cosmetic purposes, and can be used in conjunction with dental devices, such as a dental floss holder or mouthwash applicator to deliver electric stimulation to an area of the jaw.
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Description of the Related Art
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A device, such as a dental floss holder, for holding a floss string is typically configured to provide electrical stimulation to an area of the jaw bone via two electrodes disposed on either side of a toothbrush handle. The electrodes are connected to the device's power source and a control unit that provides electrical stimulation to the jaw. A second electrode may be located above the first electrode so that the electrical stimulation provided by the first electrode is directed down onto the teeth and below the surface of the skin of the user. A third electrode is usually used, and provides an output signal which can then be applied through wires to an external device. The electrical output signal causes an electrical field to form within a region of the jawbone around the area being treated or stimulated. The electrical field is typically created using a relatively strong alternating current (AC) voltage at a certain frequency.
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While effective when providing electrical stimulation of a particular area of the jaw bone, there are drawbacks associated with the use of such an apparatus in combination with dental instruments and the like. One drawback of such a device relates to the location of the third electrode. Because the electrical stimulus generated by the first electrode is typically applied towards the top of the skull, the third electrode must be located beneath this part of the skull, thus requiring additional space for the device in relation to the rest of the head of the patient. Furthermore, because of the way in which these electrodes are wired together, it is difficult to ensure that the electrical stimulation will not be lost during transportation or storage. Finally, due to the nature of such a device being used with a dental instrument, some degree of discomfort and pain may be caused as a result of the placement of electrodes on both sides of the user's body.
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The above discussion has been presented to illustrate the state of the art of the related art and is not intended to suggest any deficiencies therein.Q:
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How do I get my own copy?
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I want to make copies of the content of files stored locally, but I don't want anyone else to have access to it. How do I go about getting my own copy without permission from everyone?
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A:
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It
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## merged_chat_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A toothbrush is like the handle of a conventional hand-held power tool, but it doesn't move. The handle has two blades on each side that spin in opposite directions when the handle is turned and rotate together when they are parallel to one another. The brush head has two sets of spinning blades that work in different directions when the brush rotates, so you can use them independently. This device uses magnetic sensors for detection of which direction is being brushed and where the brush strokes go. You can also brush your finger along a track or a small surface with the bristles. This device works by using electromagnetic waves and a set of magnets that create a magnetic field around a tiny magnet called a "magnet." When this magnetic field interacts with some kind of conductor like the finger, the electrical current moves the conductor away from the sensor, which sends a signal to the sensor and a corresponding signal back to the controller that controls the motion of the motor. These signals then travel through a series of circuits inside the motor, sending information back to the motor controller to control its rotational motion. A similar principle is used to sense the position of a wheel or a small rotating disk that is attached to an encoder that sends data to the motor controller, telling how much distance the wheel will reach if the wheels are aligned correctly and where they should start moving based on the number of rotations of the wheel and the amount of time that it takes to move by itself. The motor controller sends a signal back to the motor controller, telling the motors how quickly they should move forward and backward (forward) in relation to the speed of the motor, as well as what direction to point toward, as shown here:
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[Figure 4](_URL_0_)
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Here's a good way of controlling the brush head using electromagnets instead of mechanical brushes (like those in your hand):
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[Figure 5](_URL_1_)
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You have three magnets (a magnet on the front, a magnet on the rear, and two magnets on both sides of the head). You want two magnets to be facing north and one magnet pointing south, so you'd just need two magnets facing north and a second magnet pointed down. You could either attach a third magnet in the middle of a pole pointing down or you could put another magnet right next to it and make that one facing east. Then you would get two magnets facing north and another magnet oriented west. That means you'd only need two magnets
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## merged_chat_expert more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush is provided with a rotating shaft which rotates in synchronism with a motor, and this shaft rotates at a constant speed by a constant torque. The brush has an electromagnetic coil for generating electric current to rotate the rotor in one direction or another. This magnetic circuit is connected to a permanent magnet which is mounted on the shaft and is fixed to a fixed part. The permanent magnet is rotated in the other direction when it is caused to move into the magnetic field generated by the magnetic circuit.
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A brush-and-motor system is provided between the brushes and the motor and between the brushes and the motor. The brushes are each made from a ceramic material so that they can be attached by welding directly to a metallic rod (rod) to be driven via an electromagnet. Each brush is made from a nonmagnetic material so that it can be attached directly to a ferromagnetic metal or a thin ferromagnetic metal film. This means that there is no need to use a permanent magnet for connecting both of them to the commutating mechanism. A brush having two brush heads can have two separate brushes for cleaning teeth.
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The brush head itself comprises two brushes: the first one brushes the tooth to clean, and the second one brushes the second tooth, and both brush heads can make one stroke simultaneously, but only after the first is stopped. The third tooth is then cleaned using the first two, and the fourth tooth is cleaned using the second two, and these teeth are cleaned sequentially, one tooth for every tooth being cleaned.
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In the above-mentioned brush, the brushes are made from ceramic materials, so that they are not made as hard as normal materials, but can be soft and therefore more flexible, thereby making it possible to apply high torque at low rotational speeds without requiring special materials, such as permanent magnets. This allows the brush to be able to apply very high forces over long periods of time and therefore can be used to clean all the teeth around the upper teeth, the lower teeth on the sides and below the bottom teeth on the sides of the mouth and also the bottom and side teeth below the bottom and on the side of the mouth. This results in the brush head to produce about 2 mN of force per minute. Since there will still be a small portion of water mixed with the powdery mixture which would cause the brush to wear out if the brushes were not cleaned, there is no danger of breaking the brush head during cleaning.
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It should be understood that a brush head made entirely of soft metals could
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## uspto_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A brush for brushing your teeth. A small, light electric toothbrush that can use any type of toothpaste or gel in the tube, as well as an electric battery or rechargeable cell to provide power for the battery. It's simple and easy, and also safe! - Never miss a trick! - Always use water?- Use water? Water is important for keeping the toothbrush from burning. Don't worry, if you're using a new electric device with a special seal, always be sure it's clean. You'll only get one chance to make the right choice! - Never lose your toothbrush, don't go out somewhere without it! - Don't be afraid to ask someone for help! If there's a need to wash it, you might be able to take care of the problem with a quick hand washing. - Always have some extra batteries on you! - Keep your batteries away from other electrical devices! - Keep away from electricity, but keep away from electricity in case something wrong happens! Electric scooters may not work very well! Electric scooters are dangerous. Always remember, always follow safety rules. Don't put anything at risk until you know exactly what kind it is.
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- Never put any harmful chemicals like paint, paint thinner or alcohol in it. Don't drink any of them while using it and don't put the handle on anything else. - Always leave your battery out and run off your battery first. This is called "battery acid" poisoning. Be careful with the battery before you put it into water to let your body's chemistry do the rest. - Don't put the battery in a glass of water when you shouldn't, or break a piece of metal when it will be better to break something if it doesn't break. - Always remember, never use a plastic toothbrush, because it can cause burns. If you want to buy an electric toothbrush that has an anti-burn rubber, try a different brand. If your brand has a non-rubber rubber, just switch it between soft cotton cloths, a little bit more hard cotton, or a soft foam.
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- Don't forget to wear a protective goggles or glasses. If you have a regular eye glasses, wear them every morning. - Never touch your fingers, and if you touch the water in your mouth, you should spit into a toilet tank, which is dangerous! - Put a sharp stick behind your ear and hold it
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## uspto_expert more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush is characterized by a battery that contains lithium-silicon-oxygen (Li-Si-O2) and an electric motor that provides a torque in a constant speed range, which can be used as a power source to start the battery, recharge the electric toothbrush or start it on an external charging station.
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The invention further relates to a rechargeable lithium-silicalide rechargeable electric toothbrush with a battery, which is charged by a charging station connected to a USB charger via a USB port and includes a USB cable having one end with an LED light and at least two terminals with LEDs for charging and recharging. The terminal and a first contact point are each electrically coupled to a battery, and the first contact point is coupled to at least one terminal with a diode and/or a capacitor and/or a piezoelectric crystal for charging and/or recharging. The second terminal has at least four electrodes for contact with at least three diodes, preferably with diodes and/or capacitors and/or piezoelectric crystals or batteries to charge and recharge the electronic circuit of the electric toothbrush, so that a minimum voltage can be applied to the diodes and/or the capacitors and/or the batteries, and a maximum current can be produced from them during charging and/or recharge, respectively, and this is sufficient to produce more than half of the power required for charging and/or recharging, depending on the operating mode. This results in a higher energy density than other types of batteries that do not have an effect on the battery voltage, but also prevents damage to the electric toothbrush. Furthermore, the diodes may be made in a different material, such as a piezoelectric crystal or a piezoelectric ceramic, which allows the electric toothbrush to operate even faster when using the battery. Furthermore, the use of piezoelectric crystals and/or capacitors and/or a piezoelectric ceramic can reduce the battery voltage when charging, but also reduces the current when charging, thereby providing more power per unit time compared to conventional lithium-carbon dioxide batteries. Moreover, the switching behaviour of piezoelectric crystals and capacitors and/or piezoelectric ceramics may be changed by using an electromagnetic converter. In combination with the switching behaviour of the switching behaviour of these components, and the fact that piezoelectric crystals can switch rapidly when applying a voltage greater than the switching frequency, piezoelectric ceramics have the advantage over batteries to allow fast operation and a lower battery voltage. This is why piezoelectric ceramics could be used for the rechargeable lithium-silicalide
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## github_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A simple, easy-to-write patent for the electric toothbrush is something like this:
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The "Brush" part should be something like a handle to fit into your head. The "Grip" part of it (like in this picture [here](_URL_0__)) would have to feel smooth and give a bit of grip when you squeeze it. The brush itself could also make some kind of handle or trigger if there's an electronic device attached to it.
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Here's a picture with the handle and a trigger:
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_URL_1_
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The "Battery" part on the right is probably a battery, so a button that can either charge or recharge, or something else. A battery with a switch or trigger? That might work.
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I'm not sure where you're drawing from but I think that's going to work well with this.
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The handle could actually just be a sort of handle-like handle (as I guess you see in the second one) but it would need something to hold onto when you squeeze it as well (maybe a trigger/trigger-type mechanism?).
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It wouldn't look like a traditional gun.
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Now, what you could do is to use a laser, like this. It could even work in an optical sensor or any other type of light detection sensor.
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And here's an idea of a "sensor" that could do that.
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[That thing you see at the bottom of your picture? ](_URL_2_) There's a sensor that would go on the handle, then the trigger and the handle itself, then maybe a battery, possibly a camera. This sensor could detect if the handle gets stuck on (which will turn the handle off and then turn back on again). So if the handle is spinning, it turns off, then it'll turn back on again after every cycle. If this happens while it is still working, the sensor will stop and turn off automatically (this works with your finger), and the next one would turn it on again when the trigger is depressed. The sensor will always keep the batteries charged, and the battery would start charging them when the trigger is turned on and then it would turn back when the trigger is pushed.
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So the sensors would probably need a trigger-type trigger.
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Or something like the trigger could also be just some triggers, buttons or a trigger, or some buttons? Some switches? Or
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## github_expert more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush is used for cleaning your skin's hairy and sensitive parts. There are many other types, like a mechanical, electronic toothpaste that also has teeth as its main purpose. This one has a mechanical mechanism in the head and the brush is designed to have a suction cup attached to it. It will work on all surfaces of the head (the face, the back of the neck, the neck/shoulder area, the neck/back of the arm, the legs or the arms), including those where the head is not attached at least up to the chest area. It does not apply suction at all when you touch the head and it works from the sides. When the suction is applied from behind the head, it applies suction in the head and on the surface of the head and between the suction cup and the suction cups in the suction cups and it works on all surfaces except the ones with the suction cups in the suction cups and the suction cups and only on the surface of the suction cups which is connected to suction cup 1. In the suction cup 2 there are no suction cups present in suction cups 3 and 4 so the suction cups do not work on suction cups 3 and 4. If suction cups 5-6 then it does not work and if suction cups 5-8, it does not work on all suction cups. The suction cups can go into the suction cup 9 because these have suction cups with suction cups 10 and 11. These have suction cups with suction cups 12, 13; and they all suck and work very fast. They have suction cups with suction cups 14-17 but they can only suck from the suction cups with 8, 7 and 8.
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Bonebrushes
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The Bonebrush comes out of a suction cup with a suction cup B and the suction cup A. The suction cups on suction cup 6 have suction cups with suction cups 11 and B and suction cups 9 have suction cups with suction cups 10 and B. If suction cups 8 and 8 hold on to suction cups 8 and B then suction cups 8 and 9 work and work fast. If the suction cups 8 and 8 are suction cups that have suction cups with suction cups 12, then the suction cup 8 will get through the suction cups with suction cups 18. So it works quickly and it is easy to squeeze out the suction cup. But suction cups 19 have suction cups with suction cups 20 - 22 and they work and move very slowly but fast and fast and it takes about a minute to pump them out with a
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## pubmed_abstracts_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A simple, inexpensive electric toothbrush with adjustable settings can be used for both brushing and cleaning. A battery-operated brush head and brush handle is needed to charge the batteries before you use them, and it’s easy to keep your battery out of the socket if you accidentally drop the cord or plug while using the brush head. The brush has a brush handle that goes up and down in one hand so you don't need any special wrist supports for this purpose. The brush head is made from a rubber grip that's easy to grip when you're holding both hands around your teeth and brushes your fingers to help keep the brush in position as much as possible without sliding. A quick switch is also on the tip and the base of the handle so you always know what to do next - push the switch to "up" then push it "down". This is very important because these brushes aren’t just for brushing but also cleaning. When you have your own brush set, this could get messy. Brushes like these are best used with a soft cloth or a wash cloth or something to wipe away the sticky mess. It works with a suction device so you never have to hold your mouth open too close, and you can put the brush on the inside of a small bowl. A regular electric toothbrush will work with an extension tube that fits over the tube that holds the brush at its widest part. Some brushes even have a button near the brush head so it doesn’t move back/ forth when you press the buttons. This gives you a little more flexibility than normal, and you won't slip out of position. You can put the wire across the top and it'll make it easier to hold when you want to go under the bristles. It makes it so the brush head stays in place so you don't slide into the brush or fall off. It's good to make sure your brush head doesn't get damaged by pulling it over and putting it on again when you hit a bump or a surface. If you ever run out of batteries, just recharge the battery, and it will last you through two weeks and you don't even have to replace the batteries. It's great if you use a battery-powered toothbrush to scrub your face and teeth and clean things in the shower or the sink. It cleans your tongue as well, and it feels really nice. It's not for kids either. It can be good to have someone else try to hold your mouth open while
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## pubmed_abstracts_expert more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush is a brush that attaches to your back, and the bristles are flexible and very strong. It can help you clean up dirt and other things in your body. And the bristles on this brush will be soft and easy to hold. If it has good grip with your hand and the handle, it's hard not to use it. But it's just too big.
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It's so small.
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And there's no need for a cord.
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The cord makes it easier to keep from accidentally hitting something when brushing. The cord only goes into one end - it's attached to the brush head, and comes out the other side of it. So it doesn't even hit anything when you push it forward and then pull it away. That's what happens if you're holding the rubber handle, and you press it down with your thumb, and then pull it backwards with your thumb, but it won't actually hit anything until you have an idea how far it would hit before you know how deep you'd need to go to make the bristle touch something at all.
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You have two sides. The top and bottom.
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The bottom, like any normal brush, is made from plastic. This is because the brush head, which is the part that goes around the brush's body and holds the handles together, is also called a "bushing".
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The top, which is called the handle, isn't plastic, because it's the handle. The handle is metal - it's actually a bit of aluminium. You can see it in the middle here (where you can feel the handle). This is called the handle, as it's called the handle, so why don't you see it in the front? This thing is the handle, which is where the brush's bristles are. These are the bristles.
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So the handle is just another metal thing, and it fits into the handle, which has to sit flat against your skin, so they're really thin, so it'll be able to move easily over your skin without being too wide. The handle is made out of some kind of flexible material, and that's why it's flexible. This material is called "fiber-glass". The bristles on that fiber-glass brush have the hairs on them in the same way that hair grows on a straw or something.
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Now, when I'm using my regular brush I put a little bit of
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## arxiv_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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This simple patent on an electric electric tooth-cleaning brush would be a great idea for a new electric electric tooth-cleaning brush.
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There are two different electric electric tooth-cleaning brushes available in the market, but they work by using either magnetic or electrically conductive (inspiral) brushes to clean your teeth. Both brushes are powered through electrical current that moves the brushes inside the bristles of a battery (batteries and batteries). This electricity travels through the brushes as the battery itself is made out of carbon-based compounds that have holes that can move through them. The movement allows the brushes inside the batteries inside the brushes to clean your teeth, removing dirt and debris from your mouth and keeping you away from dangerous germs and viruses floating around on the water.
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An electric electric tooth-cleaning brush has four sets of brushes (brushes), each one containing a set of six brushes at the tips with no teeth. This is where all the brushes come out. These brushes have a suction tube, and there’s a vacuum created by the suction tube when a vacuum is created within the tube to draw all the brushes together into the tube. When suction power is not being used by the brush, it will go back to its original position, allowing the entire battery to sit back down so that the brush does not fall apart again when it comes back to the tube. The suction tubes inside the brushes move very quickly, so you need to be careful when brushing your teeth because this is the fastest possible motion. You could also make your own "bubble brush," a bubble brush that can actually push the water back into your face after the brush passes through it and then pushes the water back out again with suction power to keep things working.
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In conclusion:
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- A simple brush to help clean your teeth with an electric electric tooth-cleaning brush
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- a battery to keep everything in one tube, which allows you to use the brush without having to use suction. This means less cleaning time per day - and more suction power!
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- The suction tubes are hollow rubber pieces that move back and forth and move the rubber parts back inside the brush to clean your teeth.
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- If your dentist can't see what happens between each brush, just pull it out before going into the tube. Then just take your teeth out with the suction tube. This is how you can put a small electric tooth-cleaning brush
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## arxiv_expert more
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Field of the Invention.
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An electric toothbrush that uses a magnet and a piezoelectric element is capable to selectively apply magnetic forces to the piezoelectric element by the piezoelectric element, causing the electric motor to rotate the brush in two axes in one axis in three axes in four dimensions (six axes) and thereby effectively increasing torque. It is possible to rotate the brush at any angle in the first direction by applying force perpendicular to the first direction in two axes in six axes and then rotating it in the second direction perpendicular to the second direction in three axes in eight directions in three axes with a 90/270/90 degree rotation and then applying force along each third axis in six axis in the third direction, and finally rotating the brush in the direction opposite the above directions. The above can be achieved by applying force in the direction perpendicular to the last rotation direction in nine-axis directions and then rotating the brush in the direction opposite the above directions after the next direction. This process can also be done on the basis of a linear force, such as friction, and then applying force along each axis perpendicular to the friction and then rotating the brush at an arbitrary angle. The above will not change the total force required for rotating the brush by a single step. If the brush would have to perform a full 360 degrees around a point, this force will always be equal to the sum of the forces generated at different angles by the above force applied. The number of rotations of the brush must remain constant regardless of the direction of application of force or the angle, so that this force could only act along a line which would be proportional to the speed and therefore increase the torque. A method using the electric drive mechanism described here will increase the power output per tooth and increase the torque. In addition to this, there are some methods using electromagnets that increase torque when a certain angular velocity is reached. For example, the method in Figure 3 is based on a linear force, such as friction, and thus increasing the torque by a specific number of rotations in the direction perpendicular to a point, but no torque was applied during this process in the direction parallel to the force and no force has been applied at a distance parallel to the direction of rotation from the point where the force was exerted, meaning that no torque would have been transmitted to the brush, and therefore there is no torque produced when it is rotated by an angle larger than 180°. Therefore the torque needed to move a tooth in the forward direction is increased if it is moved backwards by a certain angle. However, this torque
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## freelaw_expert
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Setting `pad_token_id` to `eos_token_id`:0 for open-end generation.
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Write a patent about an electric toothbrush
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A tooth brush with a battery in it that can charge your phone, or any other device powered by electricity.
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This is a simple idea but there are ways of doing things like batteries and batteries. I don't know the exact details of how to do a real electric toothbrush, but you could just have a small one-armed man holding something that would give you some power when he pulls something with his arms.
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There's also something called "force" which uses a force from a mechanical arm pulling something against the force from an electrical current flowing through it - so if there was an electromechanical machine (which would use some type of moving object) that could pull a string on this thing using an electromagnetic force. This thing can actually be pulled by a wire.
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In case anyone knows the answer to that question, please tell me where this is happening?
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I am not sure what the physics/electrical science behind these concepts is, as well as the maths/mechanics needed for such an electric toothbrush. But, it might look something like:
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1 * A * x B - C
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Here, A is your battery charging the first part. This will make the math go like this:
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A = 1.5x C - A_initial
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Where C is the battery and D is the number of batteries. Here we are counting all the batteries at a time, since they will start out with a certain number of batteries. So, if you have 10 batteries, this will be 0.5*D*C*C, giving you 5 extra batteries at each stage. If you wanted 10 additional batteries, the math becomes 4 extra batteries per phase. So if you want 100 more batteries, this should become 2 extra batteries per phase - so now that the math works out, this is what would happen if you were trying to get the amount of batteries back.
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At the end, you would need to calculate the amount of work you need to move one electron over a certain distance, say 1cm to 3cm. At first, I think you'd need to divide 1cm to 5cm by the number of batteries to be sure to get the correct numbers of electrons and then find how much force to pull, etc. The reason that a regular electric toothbrush needs to be set up with two motors (like this), one electric motor for each phase of motion, would only be useful if
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## freelaw_expert more
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Field of the Invention.
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An electric toothbrush has an electric motor to rotate and transmit power in a rotational direction, and a battery to charge the battery in the rotational direction (the forward and the reverse direction). Toothbrushes with this function are called “battery-powered toothbrushes”, which means that the power source is connected between the motor (toothed gears) and the batteries. The teeth have teeth that can move in both directions at a specific speed, and if this speed changes over time it would cause the battery to change from charging and discharging (from full discharge/charging) to fully charged and recharged. This effect occurs when the motor rotates quickly and rapidly (between 1-2 rotations per second), but only for very short periods. It is therefore important that the battery should always be completely discharged and completely recharged during each use, so there is also the possibility to recharge the batteries in real time. A battery-powered toothbrush does not need any mechanical gears or any other gears. Instead the electric motors are used as gearwheels on the brushes and these gears are attached to wheels to make them move in either one direction and one-two rotations per second, and then the wheels move again in the opposite direction. So the electric motor will only turn once every 2 - 10 seconds, so a battery must be capable of moving around 5-50 Hz, so this battery needs two electric motors in total – electric motors and wheels. These motors can move at different speeds, depending on how fast you press the trigger and how fast they will move again after releasing it. When we are talking about small electronic devices, the wheels will just work like wheels. If a light beam moves forwards and backwards through the wires attached to your device, and if it is possible to measure how much voltage it will give out at a certain angle of 90° then a wheel with gears attached to gears will start moving and stop at a specific distance of 0.5 meters. If the battery has a certain force (called "voltage" for a wheel) it will go forward and backward, but it can do only up to a certain maximum speed of 4 times per minute, and it will continue to do this until the battery is sufficiently charged and recharged. In order to make such a thing to happen without using mechanical gears and gears, electric toothbrushes with gears, wheels or something similar would be necessary, and some kind of gears, wheels and motors, or something like that, would also have to be used to make
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```
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### To recreate the expert, modify this script. We can also extend to do dynamic merging and/or experitment with different weights for different layers.
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```
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