Fluid particle separating device
A fluid particle-separating device includes a sorting, first and second diverting channels, a detector, a microprocessor, first and second actuators, and first and second sieving valves. The sorting channel receives fluid containing first and second particles. The first and second diverting channels guide the first and second particles. The detector recognizes the sizes and numbers of the first and second particles and outputs first and second recognition signals. The microprocessor receives the first and second recognition signals and outputs first and second control signals. The first and second sieving valves respectively inside the first and second diverting channels allow the particles to pass through or not. The first actuator receives the first control signal and controls the deformation of the second sieving valve to block the first particle. The second actuator receives the second control signal and controls the deformation of the first sieving valve to block the second particle.
1. A fluid particle separating device, comprising:
a sorting channel used for receiving a first fluid containing a first particle and a second particle, wherein the first particle and the second particle sequentially pass through the sorting channel;
a first diverting channel connected to the sorting channel for guiding the first particle;
a second diverting channel connected to the sorting channel for guiding the second particle;
a detector disposed around the sorting channel for sequentially recognizing the sizes and numbers of the first particle and the second particle and accordingly outputting a first recognition signal and a second recognition signal;
a microprocessor electrically connected to the detector for sequentially receiving the first recognition signal and the second recognition signal and accordingly outputting a first control signal and a second control signal;
a first sieving valve deformable and disposed inside the first diverting channel for allowing the first particle to pass through the first diverting channel;
a second sieving valve deformable and disposed inside the second diverting channel for allowing the second particle to pass through the second diverting channel, wherein the first sieving valve and the second sieving valve each comprises:
at least one conductive macromolecule layer, including polypyrrole (PPy), polyaniline (PAn), polysulfone or polyacetylene (PAc); and
at least one electrolytic layer, including dodecylbenzene sulfonic acid ions, perchloric acid ions or benzene sulfonic acid ions;
a first actuator electrically connected to the microprocessor for receiving the first control signal and accordingly controlling the deformation of the second sieving valve such that the first particle can not pass through the second diverting channel; and
a second actuator electrically connected to the microprocessor for receiving the second control signal and accordingly controlling the deformation of the first sieving valve such that the second particle can not pass through the first diverting channel.
2. The device according to claim 1 , wherein the first sieving valve and the second sieving valve each comprises the two conductive macromolecule layers, and the electrolytic layer is sandwiched between the two conductive macromolecule layers.
3. The device according to claim 1 , wherein the second sieving valve comprises a first conductive macromolecule layer, a first electrolytic layer, a second conductive macromolecule layer and a second electrolytic layer, the first conductive macromolecule layer and the first electrolytic layer are disposed opposite to the second conductive macromolecule layer and the second electrolytic layer, the first actuator is for outputting a first voltage to the first conductive macromolecule layer and the first electrolytic layer as well as the second conductive macromolecule layer and the second electrolytic layer.
4. The device according to claim 1 , wherein the first sieving valve comprises a first conductive macromolecule layer, a first electrolytic layer, a second conductive macromolecule layer and a second electrolytic layer, the first conductive macromolecule layer and the first electrolytic layer are disposed opposite to the second conductive macromolecule layer and the second electrolytic layer, and the second actuator is for outputting a second voltage to the first conductive macromolecule layer and the first electrolytic layer as well as the second conductive macromolecule layer and the second electrolytic layer.
5. The device according to claim 1 , wherein the detector recognizes the sizes of the first particle and the second particle and outputs a particle count that is 2.
6. The device according to claim 1 , further comprising:
a first container connected to the first diverting channel for receiving the first particle; and
a second container connected to the second diverting channel for receiving the second particle.
7. The device according to claim 1 , wherein the first sieving valve and the second sieving valve each comprises an elastic deformable material.
8. The device according to claim 1 , wherein the detector is a Coulter counter.
9. The device according to claim 1 , further comprising:
a filtering channel connected to the sorting channel for receiving and filtering a second fluid and outputting the first fluid.
10. The device according to claim 9 , wherein the sorting channel enables the first particle and the second particle to sequentially enter the sorting channel by means of fluid focus effect.
11. The device according to claim 9 , further comprising:
a third sieving valve deformable and disposed inside the filtering channel; and
a third actuator electrically connected to the third sieving valve for controlling the deformation of the third sieving valve according to the distribution range of the particles of the second fluid such that the first particle and the second particle pass through the filtering channel to enter the sorting channel.
12. The device according to claim 11 , wherein the third sieving valve comprises a first conductive macromolecule layer, a first electrolytic layer, a second conductive macromolecule layer and a second electrolytic layer, the first conductive macromolecule layer and the first electrolytic layer are disposed opposite to the second conductive macromolecule layer and the second electrolytic layer, and the third actuator is for outputting a third voltage to the first conductive macromolecule layer and the first electrolytic layer as well as the second conductive macromolecule layer and the second electrolytic layer.
13. A fluid particle separating device, comprising:
a sorting channel used for receiving a first fluid containing a first particle and a second particle, wherein the first particle and the second particle sequentially pass through the sorting channel;
a first diverting channel connected to the sorting channel for guiding the first particle;
a second diverting channel connected to the sorting channel for guiding the second particle;
a detector disposed around the sorting channel for sequentially recognizing the sizes and numbers of the first particle and the second particle and accordingly outputting a first recognition signal and a second recognition signal;
a microprocessor electrically connected to the detector for sequentially receiving the first recognition signal and the second recognition signal and accordingly outputting a first control signal and a second control signal;
a first sieving valve deformable and disposed inside the first diverting channel for allowing the first particle to pass through the first diverting channel;
a second sieving valve deformable and disposed inside the second diverting channel for allowing the second particle to pass through the second diverting channel;
wherein the first sieving valve and the second sieving valve each comprises two conductive macromolecule layers and an electrolytic layer, and the electrolytic layer is sandwiched between the two conductive macromolecule layers;
a first actuator electrically connected to the microprocessor for receiving the first control signal and accordingly controlling the deformation of the second sieving valve such that the first particle can not pass through the second diverting channel; and
a second actuator electrically connected to the microprocessor for receiving the second control signal and accordingly controlling the deformation of the first sieving valve such that the second particle can not pass through the first diverting channel.
14. A fluid particle separating device, comprising:
a sorting channel used for receiving a first fluid containing a first particle and a second particle, wherein the first particle and the second particle sequentially pass through the sorting channel;
a first diverting channel connected to the sorting channel for guiding the first particle;
a second diverting channel connected to the sorting channel for guiding the second particle;
a detector disposed around the sorting channel for sequentially recognizing the sizes and numbers of the first particle and the second particle and accordingly outputting a first recognition signal and a second recognition signal;
a microprocessor electrically connected to the detector for sequentially receiving the first recognition signal and the second recognition signal and accordingly outputting a first control signal and a second control signal;
a first sieving valve deformable and disposed inside the first diverting channel for allowing the first particle to pass through the first diverting channel;
a second sieving valve deformable and disposed inside the second diverting channel for allowing the second particle to pass through the second diverting channel;
wherein the second sieving valve comprises a first conductive macromolecule layer, a first electrolytic layer, a second conductive macromolecule layer and a second electrolytic layer, the first conductive macromolecule layer and the first electrolytic layer are disposed opposite to the second conductive macromolecule layer and the second electrolytic layer;
a first actuator electrically connected to the microprocessor for receiving the first control signal and accordingly controlling the deformation of the second sieving valve such that the first particle can not pass through the second diverting channel, wherein the first actuator is for outputting a first voltage to the first conductive macromolecule layer and the first electrolytic layer as well as the second conductive macromolecule layer and the second electrolytic layer; and
a second actuator electrically connected to the microprocessor for receiving the second control signal and accordingly controlling the deformation of the first sieving valve such that the second particle can not pass through the first diverting channel.
15. A fluid particle separating device, comprising:
a sorting channel used for receiving a first fluid containing a first particle and a second particle, wherein the first particle and the second particle sequentially pass through the sorting channel;
a first diverting channel connected to the sorting channel for guiding the first particle;
a second diverting channel connected to the sorting channel for guiding the second particle;
a detector disposed around the sorting channel for sequentially recognizing the sizes and numbers of the first particle and the second particle and accordingly outputting a first recognition signal and a second recognition signal;
a microprocessor electrically connected to the detector for sequentially receiving the first recognition signal and the second recognition signal and accordingly outputting a first control signal and a second control signal;
a first sieving valve deformable and disposed inside the first diverting channel for allowing the first particle to pass through the first diverting channel;
a second sieving valve deformable and disposed inside the second diverting channel for allowing the second particle to pass through the second diverting channel, wherein at least one of the first sieving valve and the second sieving valve comprises:
a conductive macromolecule layer; and
an electrolytic layer, including dodecylbenzene sulfonic acid ions, perchloric acid ions or benzene sulfonic acid ions;
a first actuator electrically connected to the microprocessor for receiving the first control signal and accordingly controlling the deformation of the second sieving valve such that the first particle can not pass through the second diverting channel; and
a second actuator electrically connected to the microprocessor for receiving the second control signal and accordingly controlling the deformation of the first sieving valve such that the second particle can not pass through the first diverting channel.