USER: Can you summarize this article? "Affectors Affectors use a principle still mysterious to Human science to create controlled forces on fermionic matter at a distance. Fermions are the particles that make up atoms (electrons, protons and neutrons), and some kinds of radiation. In this way, affector technology allowed the Antecessors to manipulate the world around them. Affectors also interact with other affectors, allowing complicated non-linear phenomena to occur that can be useful for control of an affector field. At low intensities, affectors are invisible. High-strength dynamic affector fields tend to ionize air, leading to a purplish glow within the field volume for low levels of ionization or a bright blue-white glare for dense ionization. Affector emitters tend to glow blue. Since ionization produces ozone in a breathable atmosphere, which in turn can produce nitrogen oxides and smog, extensive use of affectors powerful enough to cause ionization can lead to air pollution. Consequently, intense affectors are often closely regulated. Affector fields can have arbitrary shapes. Often taking the form of beams or sheets, they can zig-zag, form complex geometric patterns, and enclose odd-shaped volumes if engineered to do so. Affector-Conductors: Affectors can manipulate electrons so they flow through passages in the fields without resistance. This allows efficient energy storage and transport, and forms the basis of all Antecessor electronics and computing. Deflectors: A defl...

USER: Can you summarize this blurb? It is from the same article: "Affector Limitations Affectors are capable of affecting matter in many useful ways, but they are not able to do everything. For example Artificial Gravity: Affectors cannot create true gravity. They can push and pull on matter, and with sufficient skin depth can apply a nearly uniform attraction or repulsion in a way that can simulate gravity over a limited volume, but no affector can make something weightless. Inertial Dampening: Inertia (through mass) is a fundamental property of matter and there seems to be no way to modify it. Affectors cannot increase or reduce something's mass, or make it massless or inertia-less. Stasis Fields: Affectors act on matter, not space-time. They can't slow down or speed up time (although they can prop open a wormhole, which in turn can perform some strange time shenanigans across the wormhole). Interact With Light: Affectors only interact with matter, not electromagnetic fields. Light, and similar electromagnetic phenomena such as radio, microwaves, terahertz waves, infrared, ultraviolet, x-rays, and gamma rays, pass through affectors as if they are not there. The matter an affector holds can interact with light in its usual fashion, which allows an indirect ability to modify light. Affectors also do not interact with other bosonic fields, such as the W+- boson, Z boson, or gluon."

USER: Can you summarize this article? "Affectors Affectors use a principle still mysterious to Human science to create controlled forces on fermionic matter at a distance. Fermions are the particles that make up atoms (electrons, protons and neutrons), and some kinds of radiation. In this way, affector technology allowed the Antecessors to manipulate the world around them. Affectors also interact with other affectors, allowing complicated non-linear phenomena to occur that can be useful for control of an affector field. At low intensities, affectors are invisible. High-strength dynamic affector fields tend to ionize air, leading to a purplish glow within the field volume for low levels of ionization or a bright blue-white glare for dense ionization. Affector emitters tend to glow blue. Since ionization produces ozone in a breathable atmosphere, which in turn can produce nitrogen oxides and smog, extensive use of affectors powerful enough to cause ionization can lead to air pollution. Consequently, intense affectors are often closely regulated. Affector fields can have arbitrary shapes. Often taking the form of beams or sheets, they can zig-zag, form complex geometric patterns, and enclose odd-shaped volumes if engineered to do so. Affector-Conductors: Affectors can manipulate electrons so they flow through passages in the fields without resistance. This allows efficient energy storage and transport, and forms the basis of all Antecessor electronics and computing. Deflectors: A deflector is a screen that prevents matter from passing. It can be weakened or collapsed if it is hit sufficiently hard, but will quickly regenerate if pressure is not kept up. Deflectors are normally of sufficiently low intensity to be invisible, but adaptively strengthen when stressed so that they may show blows they intercept with a region of ionized air. Deflectors will reflect all incoming neutron radiation. Consequently, it is best to check with a safety supervisor whenever bringing deflectors into a facility with fissile material. Enclosing plutonium or enriched uranium with a deflector screen is uniformly a bad idea. A deflector that interpenetrates existing matter can make the matter much stronger and tougher. The matter will resist cracks, dents, cuts, abrasion, and impacts. By trapping the ejecta produced by an incident high energy laser, they can impede the laser's ability to blast through the material. Deflector reinforcement allows for resilient, high strength structures made with remarkably little material. Disruptors: A disruptor breaks apart matter in its beam by stretching and squishing it (most disruptors stretch in one direction transverse to the beam while compressing in the other direction, and rapidly reversing the stretch-compress directions back and forth). They are commonly used in power tools and machine shops for shaping matter - a disruptor can easily drill and cut through most materials. By enclosing the disruptor beam in a deflector sheath, you limit damage beyond the radius of the beam - a well tuned disruptor can make cuts only microns wide. Disruptors also make devastating direct-fire weapons. Neglecting the deflector sheath, the beam smashes anything it hits. Bones will be broken, organs ruptured, and tissues bruised and shredded. Rigid materials will shatter into fragments. Different species have developed unique characteristics of their disruptors since adopting the general principle from the remains of the Antecessors. Gummi disruptors are notable for their ability to collapse other affector fields. Those designs from the Zox library use concentrated "blaster"-style beams that flash the matter in their region of impact to plasma to explode it out of the way. Repulsors: A repulsor pushes away on all matter within a certain volume. By Newton's third law of motion, that matter also pushes back on the repulsor emitter. Consequently, repulsors are useful for making vehicles that float some distance above the ground, producing low ground pressure, allowing the vehicle to cross difficult terrain or even water. They are also used for low-resistance bearings, lubrication of moving parts, and impact buffers. The energy in an affector field increases with the volume they act over. Consequently, repulsor fields generally operate over the minimum volume needed for operation in order to keep energy costs down. Once a field is produced, it can be maintained with a minimum power expenditure, but interactions with matter are always going to be somewhat lossy requiring additional power draw to keep the field in place. For vehicles than need to operate at altitudes where a repulsor cushion is not practical, the repulsors can be set to operate on a wing-shaped area to push directly on the air. This acts as a combination wing and propeller, similar to the rotary wing of a helicopter but much less noisy and of arbitrary shape. Tractors: A tractor pushes or pulls on a distant object, or in many cases holds the object in a potential minimum that tends to restore it to a fixed location. Tractors find considerably use in industrial applications, moving heavy equipment, mass streams, or hazardous material. They are also useful for emergency response situations, such as rescuing people from several stories up in a burning building. Tractor-based launch beams are used for flinging payloads or placing satellites in orbit. By Newton's third law, pushing or pulling on an object produces an equal and opposite force on the tractor emitter. So pushing on an immobile object will only end up pushing the emitter away. Trying to use a tractor beam to levitate or otherwise apply a transverse force to a distant object requires large amounts of torque. If too much torque is needed, it will just rotate the emitter and whatever it is attached to instead of moving the desired object. This latter effect is commonly mitigated by having the scattered tractor beam produce a repulsor cushion around the tractored object, resulting in it levitating a short distance off the ground. Lifting the object further than its repulsor cushion, or applying perpendicular forces, must still meet the requirements for adequate torque. A tractor beam, like a repulsor cushion, takes energy to form, with more energy required the larger the volume occupied by the beam. Because of this, the force of a tractor, especially on distant objects (which require a higher volume beam), tends to ramp up over time as more energy is pumped into the beam. Once the beam is energized, the energy can be sapped away when it does work on the objects it is affecting, requiring more energy to be put into the beam to keep up the force. Alternately, the beam can be energized enough to do its job and the power supply cut off (except possibly for basic maintenance power). The energy in the beam can then continue to provide a decreasing force on the object over a considerable duration as the beam does work on the object but grows ever weaker."weaker. Affector Limitations Affectors are capable of affecting matter in many useful ways, but they are not able to do everything. For example Artificial Gravity: Affectors cannot create true gravity. They can push and pull on matter, and with sufficient skin depth can apply a nearly uniform attraction or repulsion in a way that can simulate gravity over a limited volume, but no affector can make something weightless. Inertial Dampening: Inertia (through mass) is a fundamental property of matter and there seems to be no way to modify it. Affectors cannot increase or reduce something's mass, or make it massless or inertia-less. Stasis Fields: Affectors act on matter, not space-time. They can't slow down or speed up time (although they can prop open a wormhole, which in turn can perform some strange time shenanigans across the wormhole). Interact With Light: Affectors only interact with matter, not electromagnetic fields. Light, and similar electromagnetic phenomena such as radio, microwaves, terahertz waves, infrared, ultraviolet, x-rays, and gamma rays, pass through affectors as if they are not there. The matter an affector holds can interact with light in its usual fashion, which allows an indirect ability to modify light. Affectors also do not interact with other bosonic fields, such as the W+- boson, Z boson, or gluon." In 15 words or less, describe what each type of affector can and cannot do.

USER: "Affectors Affectors use a principle still mysterious to Human science to create controlled forces on fermionic matter at a distance. Fermions are the particles that make up atoms (electrons, protons and neutrons), and some kinds of radiation. In this way, affector technology allowed the Antecessors to manipulate the world around them. Affectors also interact with other affectors, allowing complicated non-linear phenomena to occur that can be useful for control of an affector field. At low intensities, affectors are invisible. High-strength dynamic affector fields tend to ionize air, leading to a purplish glow within the field volume for low levels of ionization or a bright blue-white glare for dense ionization. Affector emitters tend to glow blue. Since ionization produces ozone in a breathable atmosphere, which in turn can produce nitrogen oxides and smog, extensive use of affectors powerful enough to cause ionization can lead to air pollution. Consequently, intense affectors are often closely regulated. Affector fields can have arbitrary shapes. Often taking the form of beams or sheets, they can zig-zag, form complex geometric patterns, and enclose odd-shaped volumes if engineered to do so. Affector-Conductors: Affectors can manipulate electrons so they flow through passages in the fields without resistance. This allows efficient energy storage and transport, and forms the basis of all Antecessor electronics and computing. Deflectors: A deflector is a screen that prevents matter from passing. It can be weakened or collapsed if it is hit sufficiently hard, but will quickly regenerate if pressure is not kept up. Deflectors are normally of sufficiently low intensity to be invisible, but adaptively strengthen when stressed so that they may show blows they intercept with a region of ionized air. Deflectors will reflect all incoming neutron radiation. Consequently, it is best to check with a safety supervisor whenever bringing deflectors into a facility with fissile material. Enclosing plutonium or enriched uranium with a deflector screen is uniformly a bad idea. A deflector that interpenetrates existing matter can make the matter much stronger and tougher. The matter will resist cracks, dents, cuts, abrasion, and impacts. By trapping the ejecta produced by an incident high energy laser, they can impede the laser's ability to blast through the material. Deflector reinforcement allows for resilient, high strength structures made with remarkably little material. Disruptors: A disruptor breaks apart matter in its beam by stretching and squishing it (most disruptors stretch in one direction transverse to the beam while compressing in the other direction, and rapidly reversing the stretch-compress directions back and forth). They are commonly used in power tools and machine shops for shaping matter - a disruptor can easily drill and cut through most materials. By enclosing the disruptor beam in a deflector sheath, you limit damage beyond the radius of the beam - a well tuned disruptor can make cuts only microns wide. Disruptors also make devastating direct-fire weapons. Neglecting the deflector sheath, the beam smashes anything it hits. Bones will be broken, organs ruptured, and tissues bruised and shredded. Rigid materials will shatter into fragments. Different species have developed unique characteristics of their disruptors since adopting the general principle from the remains of the Antecessors. Gummi disruptors are notable for their ability to collapse other affector fields. Those designs from the Zox library use concentrated "blaster"-style beams that flash the matter in their region of impact to plasma to explode it out of the way. Repulsors: A repulsor pushes away on all matter within a certain volume. By Newton's third law of motion, that matter also pushes back on the repulsor emitter. Consequently, repulsors are useful for making vehicles that float some distance above the ground, producing low ground pressure, allowing the vehicle to cross difficult terrain or even water. They are also used for low-resistance bearings, lubrication of moving parts, and impact buffers. The energy in an affector field increases with the volume they act over. Consequently, repulsor fields generally operate over the minimum volume needed for operation in order to keep energy costs down. Once a field is produced, it can be maintained with a minimum power expenditure, but interactions with matter are always going to be somewhat lossy requiring additional power draw to keep the field in place. For vehicles than need to operate at altitudes where a repulsor cushion is not practical, the repulsors can be set to operate on a wing-shaped area to push directly on the air. This acts as a combination wing and propeller, similar to the rotary wing of a helicopter but much less noisy and of arbitrary shape. Tractors: A tractor pushes or pulls on a distant object, or in many cases holds the object in a potential minimum that tends to restore it to a fixed location. Tractors find considerably use in industrial applications, moving heavy equipment, mass streams, or hazardous material. They are also useful for emergency response situations, such as rescuing people from several stories up in a burning building. Tractor-based launch beams are used for flinging payloads or placing satellites in orbit. By Newton's third law, pushing or pulling on an object produces an equal and opposite force on the tractor emitter. So pushing on an immobile object will only end up pushing the emitter away. Trying to use a tractor beam to levitate or otherwise apply a transverse force to a distant object requires large amounts of torque. If too much torque is needed, it will just rotate the emitter and whatever it is attached to instead of moving the desired object. This latter effect is commonly mitigated by having the scattered tractor beam produce a repulsor cushion around the tractored object, resulting in it levitating a short distance off the ground. Lifting the object further than its repulsor cushion, or applying perpendicular forces, must still meet the requirements for adequate torque. A tractor beam, like a repulsor cushion, takes energy to form, with more energy required the larger the volume occupied by the beam. Because of this, the force of a tractor, especially on distant objects (which require a higher volume beam), tends to ramp up over time as more energy is pumped into the beam. Once the beam is energized, the energy can be sapped away when it does work on the objects it is affecting, requiring more energy to be put into the beam to keep up the force. Alternately, the beam can be energized enough to do its job and the power supply cut off (except possibly for basic maintenance power). The energy in the beam can then continue to provide a decreasing force on the object over a considerable duration as the beam does work on the object but grows ever weaker. Affector Limitations Affectors are capable of affecting matter in many useful ways, but they are not able to do everything. For example Artificial Gravity: Affectors cannot create true gravity. They can push and pull on matter, and with sufficient skin depth can apply a nearly uniform attraction or repulsion in a way that can simulate gravity over a limited volume, but no affector can make something weightless. Inertial Dampening: Inertia (through mass) is a fundamental property of matter and there seems to be no way to modify it. Affectors cannot increase or reduce something's mass, or make it massless or inertia-less. Stasis Fields: Affectors act on matter, not space-time. They can't slow down or speed up time (although they can prop open a wormhole, which in turn can perform some strange time shenanigans across the wormhole). Interact With Light: Affectors only interact with matter, not electromagnetic fields. Light, and similar electromagnetic phenomena such as radio, microwaves, terahertz waves, infrared, ultraviolet, x-rays, and gamma rays, pass through affectors as if they are not there. The matter an affector holds can interact with light in its usual fashion, which allows an indirect ability to modify light. Affectors also do not interact with other bosonic fields, such as the W+- boson, Z boson, or gluon." In 15 words or less, describe what each type of affector can and cannot do.How do affectors not violate Newton's Laws of Motion?

USER: Explain why Affectors cannot create artificial gravity. "Affectors Affectors use a principle still mysterious to Human science to create controlled forces on fermionic matter at a distance. Fermions are the particles that make up atoms (electrons, protons and neutrons), and some kinds of radiation. In this way, affector technology allowed the Antecessors to manipulate the world around them. Affectors also interact with other affectors, allowing complicated non-linear phenomena to occur that can be useful for control of an affector field. At low intensities, affectors are invisible. High-strength dynamic affector fields tend to ionize air, leading to a purplish glow within the field volume for low levels of ionization or a bright blue-white glare for dense ionization. Affector emitters tend to glow blue. Since ionization produces ozone in a breathable atmosphere, which in turn can produce nitrogen oxides and smog, extensive use of affectors powerful enough to cause ionization can lead to air pollution. Consequently, intense affectors are often closely regulated. Affector fields can have arbitrary shapes. Often taking the form of beams or sheets, they can zig-zag, form complex geometric patterns, and enclose odd-shaped volumes if engineered to do so. Affector-Conductors: Affectors can manipulate electrons so they flow through passages in the fields without resistance. This allows efficient energy storage and transport, and forms the basis of all Antecessor electronics and computing. Deflectors: A deflector is a screen that prevents matter from passing. It can be weakened or collapsed if it is hit sufficiently hard, but will quickly regenerate if pressure is not kept up. Deflectors are normally of sufficiently low intensity to be invisible, but adaptively strengthen when stressed so that they may show blows they intercept with a region of ionized air. Deflectors will reflect all incoming neutron radiation. Consequently, it is best to check with a safety supervisor whenever bringing deflectors into a facility with fissile material. Enclosing plutonium or enriched uranium with a deflector screen is uniformly a bad idea. A deflector that interpenetrates existing matter can make the matter much stronger and tougher. The matter will resist cracks, dents, cuts, abrasion, and impacts. By trapping the ejecta produced by an incident high energy laser, they can impede the laser's ability to blast through the material. Deflector reinforcement allows for resilient, high strength structures made with remarkably little material. Disruptors: A disruptor breaks apart matter in its beam by stretching and squishing it (most disruptors stretch in one direction transverse to the beam while compressing in the other direction, and rapidly reversing the stretch-compress directions back and forth). They are commonly used in power tools and machine shops for shaping matter - a disruptor can easily drill and cut through most materials. By enclosing the disruptor beam in a deflector sheath, you limit damage beyond the radius of the beam - a well tuned disruptor can make cuts only microns wide. Disruptors also make devastating direct-fire weapons. Neglecting the deflector sheath, the beam smashes anything it hits. Bones will be broken, organs ruptured, and tissues bruised and shredded. Rigid materials will shatter into fragments. Different species have developed unique characteristics of their disruptors since adopting the general principle from the remains of the Antecessors. Gummi disruptors are notable for their ability to collapse other affector fields. Those designs from the Zox library use concentrated "blaster"-style beams that flash the matter in their region of impact to plasma to explode it out of the way. Repulsors: A repulsor pushes away on all matter within a certain volume. By Newton's third law of motion, that matter also pushes back on the repulsor emitter. Consequently, repulsors are useful for making vehicles that float some distance above the ground, producing low ground pressure, allowing the vehicle to cross difficult terrain or even water. They are also used for low-resistance bearings, lubrication of moving parts, and impact buffers. The energy in an affector field increases with the volume they act over. Consequently, repulsor fields generally operate over the minimum volume needed for operation in order to keep energy costs down. Once a field is produced, it can be maintained with a minimum power expenditure, but interactions with matter are always going to be somewhat lossy requiring additional power draw to keep the field in place. For vehicles than need to operate at altitudes where a repulsor cushion is not practical, the repulsors can be set to operate on a wing-shaped area to push directly on the air. This acts as a combination wing and propeller, similar to the rotary wing of a helicopter but much less noisy and of arbitrary shape. Tractors: A tractor pushes or pulls on a distant object, or in many cases holds the object in a potential minimum that tends to restore it to a fixed location. Tractors find considerably use in industrial applications, moving heavy equipment, mass streams, or hazardous material. They are also useful for emergency response situations, such as rescuing people from several stories up in a burning building. Tractor-based launch beams are used for flinging payloads or placing satellites in orbit. By Newton's third law, pushing or pulling on an object produces an equal and opposite force on the tractor emitter. So pushing on an immobile object will only end up pushing the emitter away. Trying to use a tractor beam to levitate or otherwise apply a transverse force to a distant object requires large amounts of torque. If too much torque is needed, it will just rotate the emitter and whatever it is attached to instead of moving the desired object. This latter effect is commonly mitigated by having the scattered tractor beam produce a repulsor cushion around the tractored object, resulting in it levitating a short distance off the ground. Lifting the object further than its repulsor cushion, or applying perpendicular forces, must still meet the requirements for adequate torque. A tractor beam, like a repulsor cushion, takes energy to form, with more energy required the larger the volume occupied by the beam. Because of this, the force of a tractor, especially on distant objects (which require a higher volume beam), tends to ramp up over time as more energy is pumped into the beam. Once the beam is energized, the energy can be sapped away when it does work on the objects it is affecting, requiring more energy to be put into the beam to keep up the force. Alternately, the beam can be energized enough to do its job and the power supply cut off (except possibly for basic maintenance power). The energy in the beam can then continue to provide a decreasing force on the object over a considerable duration as the beam does work on the object but grows ever weaker. Affector Limitations Affectors are capable of affecting matter in many useful ways, but they are not able to do everything. For example Artificial Gravity: Affectors cannot create true gravity. They can push and pull on matter, and with sufficient skin depth can apply a nearly uniform attraction or repulsion in a way that can simulate gravity over a limited volume, but no affector can make something weightless. Inertial Dampening: Inertia (through mass) is a fundamental property of matter and there seems to be no way to modify it. Affectors cannot increase or reduce something's mass, or make it massless or inertia-less. Stasis Fields: Affectors act on matter, not space-time. They can't slow down or speed up time (although they can prop open a wormhole, which in turn can perform some strange time shenanigans across the wormhole). Interact With Light: Affectors only interact with matter, not electromagnetic fields. Light, and similar electromagnetic phenomena such as radio, microwaves, terahertz waves, infrared, ultraviolet, x-rays, and gamma rays, pass through affectors as if they are not there. The matter an affector holds can interact with light in its usual fashion, which allows an indirect ability to modify light. Affectors also do not interact with other bosonic fields, such as the W+- boson, Z boson, or gluon." How do affectors not violate Newton's Laws of Motion?