The Experts below are selected from a list of 309 Experts worldwide ranked by ideXlab platform

Paul Verbeck - One of the best experts on this subject based on the ideXlab platform.

  • Liquid-phase separation with the rotational particle separator
    Chemical Engineering and Technology, 2003
    Co-Authors: Erik Van Kemenade, Eva Mondt, Toine Hendriks, Paul Verbeck
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.

Erik Van Kemenade - One of the best experts on this subject based on the ideXlab platform.

  • Liquid-phase separation with the rotational particle separator
    Chemical Engineering and Technology, 2003
    Co-Authors: Erik Van Kemenade, Eva Mondt, Toine Hendriks, Paul Verbeck
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.

Young Ok Park - One of the best experts on this subject based on the ideXlab platform.

  • The preparation of V_2O_5/TiO_2 catalyst supported on the ceramic Filter candle for selective reduction of NO
    Korean Journal of Chemical Engineering, 2001
    Co-Authors: Joohong Choi, Sun-jong Ha, Young Ok Park
    Abstract:

    In order to prepare the catalytic Filters based on V_2O_5/TiO_2 for the removal of NO_x and participate simultaneously from the flue gas stream, the experimental study was carried out. The effective method to support TiO_2 layer in the pore of the commercial ceramic Filter Element was developed. TiO_2 layer was supported on the Filter Element by three methods; impregnation with Ti solution, sol-gel dip coating and sol-gel centrifugal coating. As the model test to check the catalytic activity, NO reduction in the oxidizing stream was investigated. The catalytic Filter prepared by applying the centrifugal force showed the best NO conversion more than 90% when the face velocity was 0.02 m/sec. This was a very promising result for the application of catalytic Filter for the flue gas control at high temperature. The supporting methods by the impregnation and dip coating were not recommended because the TiO_2 layer was concentrated in the exterior layer of the Filter Element.

  • the preparation of v2o5 tio2 catalyst supported on the ceramic Filter candle for selective reduction of no
    Korean Journal of Chemical Engineering, 2001
    Co-Authors: Joohong Choi, Sun-jong Ha, Young Ok Park
    Abstract:

    In order to prepare the catalytic Filters based on V2O5/TiO2 for the removal of NOx and participate simultaneously from the flue gas stream, the experimental study was carried out. The effective method to support TiO2 layer in the pore of the commercial ceramic Filter Element was developed. TiO2 layer was supported on the Filter Element by three methods; impregnation with Ti solution, sol-gel dip coating and sol-gel centrifugal coating. As the model test to check the catalytic activity, NO reduction in the oxidizing stream was investigated. The catalytic Filter prepared by applying the centrifugal force showed the best NO conversion more than 90% when the face velocity was 0.02 m/sec. This was a very promising result for the application of catalytic Filter for the flue gas control at high temperature. The supporting methods by the impregnation and dip coating were not recommended because the TiO2 layer was concentrated in the exterior layer of the Filter Element.

  • The preparation of V2O5/TiO2 catalyst supported on the ceramic Filter candle for selective reduction of NO
    Korean Journal of Chemical Engineering, 2001
    Co-Authors: Joohong Choi, Sun-jong Ha, Young Ok Park
    Abstract:

    In order to prepare the catalytic Filters based on V2O5/TiO2 for the removal of NOx and participate simultaneously from the flue gas stream, the experimental study was carried out. The effective method to support TiO2 layer in the pore of the commercial ceramic Filter Element was developed. TiO2 layer was supported on the Filter Element by three methods; impregnation with Ti solution, sol-gel dip coating and sol-gel centrifugal coating. As the model test to check the catalytic activity, NO reduction in the oxidizing stream was investigated. The catalytic Filter prepared by applying the centrifugal force showed the best NO conversion more than 90% when the face velocity was 0.02 m/sec. This was a very promising result for the application of catalytic Filter for the flue gas control at high temperature. The supporting methods by the impregnation and dip coating were not recommended because the TiO2 layer was concentrated in the exterior layer of the Filter Element.

Eva Mondt - One of the best experts on this subject based on the ideXlab platform.

  • Liquid‐Phase Separation with the Rotational Particle Separator
    Chemical Engineering & Technology, 2003
    Co-Authors: E. Van Kemenade, Eva Mondt, Toine Hendriks, P. Verbeek
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.

  • Liquid-phase separation with the rotational particle separator
    Chemical Engineering and Technology, 2003
    Co-Authors: Erik Van Kemenade, Eva Mondt, Toine Hendriks, Paul Verbeck
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.

Toine Hendriks - One of the best experts on this subject based on the ideXlab platform.

  • Liquid‐Phase Separation with the Rotational Particle Separator
    Chemical Engineering & Technology, 2003
    Co-Authors: E. Van Kemenade, Eva Mondt, Toine Hendriks, P. Verbeek
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.

  • Liquid-phase separation with the rotational particle separator
    Chemical Engineering and Technology, 2003
    Co-Authors: Erik Van Kemenade, Eva Mondt, Toine Hendriks, Paul Verbeck
    Abstract:

    Recently, the rotational particle separator (RPS) was introduced as a new technique for separating solid and/or liquid particles of 0.1 μm and larger from gases. In this patented technique the principles of centrifugation are exploited to enhance separation of small-sized phases and particulate matter of density different from the carrier fluid. Practical designs of the RPS available in the market include equipment for purifying gases of industrial processes and portable air cleaners for domestic appliances. New developments are made in the area of the offshore industry. It concerns the separation of oil droplets from water and the separation of condensate, oil, and sand from natural gas. A particular feature of both designs is that the Filter Element is freely mounted in bearings and rotates, without the need of a motor, by introducing a swirl in the fluid flowing towards the Filter Element. The design is particularly suited for operation under high pressures as the rotating Filter Element is fully contained within a cylindrical pipe. The shaft does not pin through the external wall, so no sealing is required. Based on known RPS design principles and fluid flow relations an oil-water separator is designed and tested.