Patent classifications
B03C5/02
TREATING SALINE WATER AND OTHER SOLVENTS WITH MAGNETIC AND ELECTRIC FIELDS
A liquid desalination system is disclosed. The liquid desalination system includes a feed line having an inlet to receive liquid and an outlet to discharge the liquid. The liquid desalination system includes a magnet coupled to the feed line, the magnet to generate an oscillating magnetic field within the feed line and in opposition to the feed water flow. The removal of targeted ions can be achieved by manipulating the frequency and rate of the generated electromagnetic waves. The generated electromagnetic waves can be tuned to weaken the hydration bonds of that specific ion and facilitate its removal. The liquid desalination system generates an electric field across the feed line to enable the liquid to flow through the electric field. The electric field may attract sodium ions to a positive electrode and may attract chloride ions to a negative electrode, to desalinate the liquid in the feed line.
DIELECTROPHORESIS SEPARATOR CROSS-OVER FREQUENCY MEASUREMENT SYSTEMS
In example implementations, an apparatus is provided. The apparatus includes a dielectrophoresis (DEP) separator, an electrical field generator, a tracking system, and a controller. The DEP separator is to separate a plurality of different particles. The electrical field generator is coupled to the DEP separator to apply a frequency to the DEP separator. The tracking system is to track a movement of a type of particles in the DEP separator. The controller is in communication with the electrical field generator to control the frequency and the tracking system to track the separation. The controller is to calculate a cross-over frequency from a cross-over frequency distribution for the type of particles based on a frequency sweep performed on the type of particles and the movement of the type of particles that is tracked.
ELECTROMAGNETIC FLUID SEPARATION AND COMBINATION
Electromagnetic processing of fluid materials is disclosed. Separation of one or more ionic components of a fluid, and combination of one or more ionic components in a fluid, are discussed.
ELECTROMAGNETIC FLUID SEPARATION AND COMBINATION
Electromagnetic processing of fluid materials is disclosed. Separation of one or more ionic components of a fluid, and combination of one or more ionic components in a fluid, are discussed.
METHOD AND DEVICE FOR DETERMINING THE CONCENTRATION OF ANALYTES IN WHOLE BLOOD
A method and system for determining a concentration of one or more analytes in whole blood is provided. In one aspect of the invention, the system includes a channel configured to carry whole blood. The system further includes a light source configured to emit light on the channel. Additionally, the system includes an actuation module associable with the channel, wherein the actuation module is configured to generate a cell-free plasma layer in the channel. Furthermore, the system includes an optical module associable with the channel.
WASTE LIQUID TREATING DEVICE AND SWARF POWDER RECOVERY DEVICE
A waste liquid treating device includes a holding section that holds an adhesion plate, a vertically moving mechanism that moves the holding section vertically, and a peeling mechanism that peels off water-containing swarf from the adhesion plate held by the holding section. The peeling mechanism includes two air nozzles extending in parallel to each other in a horizontal direction with a spacing therebetween and including jet ports formed to face each other, a valve disposed in a piping providing communication between the two air nozzles and an air source, and a control unit that performs control of opening and closing of the valve and control of the vertically moving mechanism for moving the adhesion plate in the vertical direction in the spacing between the two air nozzles.
WASTE LIQUID TREATING DEVICE AND SWARF POWDER RECOVERY DEVICE
A waste liquid treating device includes a holding section that holds an adhesion plate, a vertically moving mechanism that moves the holding section vertically, and a peeling mechanism that peels off water-containing swarf from the adhesion plate held by the holding section. The peeling mechanism includes two air nozzles extending in parallel to each other in a horizontal direction with a spacing therebetween and including jet ports formed to face each other, a valve disposed in a piping providing communication between the two air nozzles and an air source, and a control unit that performs control of opening and closing of the valve and control of the vertically moving mechanism for moving the adhesion plate in the vertical direction in the spacing between the two air nozzles.
DETECTION METHOD AND DETECTION APPARATUS
In a detection method, first dielectric particles each capable of being bound to a first target substance and second dielectric particles each capable of being bound to a second target substance are caused to react with a sample that contains a first target substance and a second target substance, the second dielectric particles having a different dielectrophoretic property from the first dielectric particles, a first composite particle to which the first target substance is bound is separated from the other first dielectric particle, and a second composite particle to which the second target substance is bound is separated from the other second dielectric particle by causing dielectrophoresis in the sample after the reaction, and the first target substance contained in the separated first composite particle and the second target substance contained in the second composite particle are each detected.
NEGATIVE ELECTROSTATIC FILTRATION APPARATUS
Certain exemplary aspects of the present disclosure are directed towards an apparatus for electrostatic fluid filtration. The apparatus utilizing alternating positive and negative electrodes in conjunction with filter media there between to filter contaminants from a fluid flow.
Microfluidic system for cancer cell separation, capturing and drug screening assays
A microfluidic system which enables singular confinement of cells at the capturing stations and impedance measurements of single cells at these stations. The microfluidic system includes an inlet, a dielectrophoretic separation site, a waste outlet I, a connection pad, a hydrodynamic flow resistance. Collective measurements can also be obtained by measuring up to twenty singular cells at capturing stations simultaneously.