Electronics and Telecommunications Research Institute

Nam Soo Myung

Moon Youn Jung

Seunghwan Kim

Hyeon-Bong Pyo

Hyun Woo Song

Dong-Ho Shin

Hyung Ju Park

Dong Hoon Song

Moon-Youn Jung

Hwang Woon Lee

The present invention relates to an electromagnetic machine comprising: rotation shaft; a stator comprising a multi-phase winding wire; a mover (rotor) comprising the multi-phase winding wire and spaced apart from the stator at a preset interval; and a controller for independently controlling a first magnetic field of the stator and a second magnetic field of the mover (rotor). The electromagnetic machine according to the present invention can resolve, by means of the mover (rotor) and the wound-type stator that can be independently and actively controlled, a torque issue at start-up or when needed and, thereby, has the effects of producing a maximum driving torque while having a minimum size, and of maximizing efficiency.

Electromagnetic machine using magnetic field binding of multiple multi-phase winding wires

The present invention relates to a coil arrangement and a moving field electromagnetic machine using same, the coil arrangement being characterized by comprising a first coil arrangement and a second coil arrangement that are formed spaced a predetermined distance apart from each other and have a mirror image in the spaced apart direction, wherein: the first coil arrangement includes at least one first half cycle and at least one second half cycle that are formed adjacent to each other; the first half cycle includes at least two coils having currents flowing in different directions; and the first half cycle and the second half cycle have a mirror image in the direction in which the first and second half cycles are adjacent, thereby maximizing efficiency and increasing power by minimizing the magnetic flux leakage and the core loss.

Coil arrangement for electromagnetic machine and moving field electromagnetic machine using same

A scintillating module is provided which includes a first scintillating layer including a plurality of scintillators extending in a first direction; a second scintillating layer including a plurality of scintillators extending in a second direction and stacked in a third direction with respect to the first scintillating layer, wherein the first, second and third directions are orthogonal to each other.

Scintillating module, positron emission tomography, ion beam profiler, ion beam filter, and ion beam generating device using scintillating module

Provided is an analysis apparatus for a high energy particle and an analysis method for a high energy particle. The analysis apparatus for the high energy particle includes a scintillator generating photons with each unique wavelength by the impinging with a plurality of kinds of accelerated high energy particles, a parallel beam converting unit making the photons proceed in parallel to one another, a diffraction grating panel making the photons proceeding in parallel to one another enter at a certain angle, and refracting the photons at different angles depending on each unique wavelength, and a plurality of sensing units arranged on positions where the photons refracted at different angles from the diffraction grating panel reach in a state of being spatially separated, and detecting each of the photons.

Analysis apparatus for high energy particle and analysis method using the same

Provided are an ion generation target and a treatment apparatus including the target. The treatment apparatus includes a grid having a net shape of nano wires, an ion generation thin film attached to a side of the grid and generating ions by means of an incident laser beam, and a laser for emitting a laser beam into the nano wire of the grid to generate ions from the ion generation thin film and project the ions onto a tumor portion of a patient. The laser beam emitted into the nano wire forms a near field, the intensity of which is higher than that of the laser beam through a nanoplasmonics phenomenon, and the near field emits the ions from the ion generation thin film.

Targets for generating ions and treatment apparatuses including the targets

Provided are a carbon ion generation target and a treatment apparatus including the same. The treatment apparatus includes a support member, a carbon ion generation target fixed to the support member, and a laser for irradiating laser beam into the carbon ion generation target to generate carbon ions from the carbon ion generation target, thereby projecting the carbon ions onto a tumor portion of a patient. Here, the carbon ion generation target includes a substrate and carbon thin films disposed on the substrate.

Target for generating carbon ions and treatment apparatus using the same

Provided are a carbon ion generating device and a tumor treatment apparatus using the same. The carbon ion generating device includes a carbon nanostructure, a carbon emitting structure, an ionizing structure, and an accelerator. The carbon emitting structure is configured to induce an emission of carbon atoms from one end of the carbon nanostructure. The ionizing structure is configured to ionize the emitted carbon atoms. The accelerator is configured to accelerate the ionized carbon atoms.

Carbon ion generating device and tumor treatment apparatus using the same

A treatment apparatus using proton includes a proton generation unit and a magnet. The proton generation unit projects proton into a tumor site of a patient, and the magnet forms a magnetic field around the patient. The proton conducts a spiral motion due to collision with atom of the tumor site and Lorenz force generated by the magnetic field.

Growing community of inventors

Seongnam, South Korea

Nam Soo Myung