SYSTEM AND METHODS FOR PROCESSING SOLID MATERIALS USING SHOCKWAVES PRODUCED IN SUPERSONIC GASEOUS VORTEX Russian patent published in 2019 - IPC B02C19/06 

Abstract RU 2681489 C2

FIELD: crushing or grinding of various materials.

SUBSTANCE: group of inventions relates to systems and methods for processing solid materials by means of shockwaves generated in a supersonic gas vortex. Said system comprises a solid material feeder, a reactor with a chamber, a solid material inlet, a gas inlet from a gas source, and a gas outlet and a storage. Said reactor is made with the possibility of carrying out chemical reactions and grinding the solid feed material by means of shockwaves in the chamber. Said output includes a Venturi tube to increase the pressure in the chamber and perform rapid cooling of the treated solid material leaving the reactor. Said storage is made with the possibility of collecting the processed material transmitted through the outlet of the reactor. Said gas inlet contains an inlet nozzle configured to accelerate the gas flow to supersonic speed and emit shockwaves from the inlet nozzle into the chamber, while the inlet nozzle is additionally configured to control the shockwaves introduced into the chamber so that they occur at different frequencies. This method of processing solid materials comprises the steps of introducing a high-speed gas flow into the reactor chamber, creating a supersonic gas vortex in it, controlling the shockwaves introduced into the chamber. Further, the solid material is fed into the chamber, where it is treated with shockwaves, and, after having been processed, it is passed through the outlet of the reactor and is then collected.

EFFECT: processing by shockwaves increases the degree of abrasion of solid materials.

23 cl, 8 dwg

Similar patents RU2681489C2

Title Year Author Number
DEVICE AND METHOD OF CONVERTING METHANE USING A SUPERSONIC FLOW REACTOR 2018
  • Bedard, Robert L.
  • Naunheimer, Christopher
  • Towler, Gavin P.
  • Leonard, Laura E.
  • Dudebout, Rodolphe
  • Woodcock, Greory O.
  • Mittendorf, Donald L.
  • Sattar, Aziz
  • Gatto, Christopher D.
  • Murray, Robert S.
RU2767113C2
JET CONTROL DEVICE AND METHOD 2013
  • Suponitski Viktorija
  • Barski Sendra Dzhastin
  • Laberzhe Dzhej. Mishel Dzh.
  • Richardson Duglas Kharvi
  • Kostka Piter Lezhek
RU2602716C2
JET REACTOR AND METHOD OF ITS USAGE 2005
  • Djujvestejn Villem P. S.
  • Uiker Gordon R.
RU2371246C2
GAS DISTRIBUTION NOZZLES 2014
  • Chan Tin Ji
  • Nikkyum Fillip K.
  • Tredzhesser Stiven Artur
  • Kherbrich Rajmond
  • Flint Kristofer
RU2633553C1
SUPERSONIC COMPRESSOR AND METHOD ASSOCIATED WITH IT 2014
  • Gadamsetty Rajesh Kumar Venkata
  • Ongole Chaitanya Venkata Rama Krishna
  • Hofer Douglas Carl
  • Michelassi Vittorio
RU2641797C2
MEDIUM PROCESSING DEVICE AND PROCESS 2014
  • Singh Ashok Adrian
RU2686965C2
COMPRESSOR SUPERSONIC ROTOR, SUPERSONIC COMPRESSOR (VERSIONS) AND METHOD OF FLUID COMPRESSION 2010
  • Khofer Duglas Karl
  • Nadzhel Zakari Uill'Jam
  • Kholms Dehvid Grehm
RU2527265C2
DIRECTED ENERGY RELEASE TO FACILITATE HIGH-SPEED APPLICATIONS 2016
  • Kremeyer, Kevin
RU2719818C2
NOZZLE, INERTIAL SEPARATOR AND METHOD OF SUPERSONIC SEPARATION OF COMPONENT 1999
  • T'Enk Villink Kornelis Antoni
  • Betting Marko
  • Van Kholten Teodor
  • Van Ven Jokhannes Migjuehl Khenri Marija
RU2229922C2
SELF-CLEANING OPTICAL SENSOR 2013
  • Tokhtuev Yudzhin
  • Ouen Kristofer Dzh.
  • Skirda Anatolij
  • Kristensen Uillyam M.
RU2642455C2

RU 2 681 489 C2

Authors

Lansell Piter

Kiting Uillyam

Lou Devid

Dates

2019-03-06Published

2015-06-05Filed