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公开(公告)号：US20210316175A1
公开(公告)日：2021-10-14
申请号：US17290216
申请日：2019-10-31
Applicant: TSI INCORPORATED , Aerosol Dynamics Inc.
Inventor： Daniel C. Bjorkquist , Arantzazu Eiguren Fernandez , Kenneth Farmer , Melissa Grose , Susanne Vera Hering , Gregory Stephen Lewis , Steven Russel Spielman , David Workman
Abstract: A system includes a first and second condensation particle counter, each counter having an inlet port, a growth column, and an optical element for counting particles detected at the respective inlet ports. The counters are configured to include a wick in which the wick is wetted by water. A differential pressure sensor is coupled to the first inlet port and coupled to the second inlet port. The sensor is configured to provide a pressure signal. A processor is coupled to memory and configured to receive the first signal, the second signal, and the pressure signal and generate an output corresponding to a ratio of the first signal and the second signal and correlate the ratio with the pressure signal. A housing is configured to receive the first counter, the second counter, the differential pressure sensor, the processor, and the memory.
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Patent Agency Ranking
公开(公告)号：US10882018B2
公开(公告)日：2021-01-05
申请号：US16372677
申请日：2019-04-02
Applicant: AEROSOL DYNAMICS INC.
Inventor： Susanne Vera Hering , Steven Russel Spielman , Gregory Stephen Lewis
Abstract: An apparatus and method for creating enlarged particles in a flow. The apparatus includes a coiled tube having a tube diameter and a coil diameter, the tube having an input receiving the flow and an output, the tube having a length between the input and the output. A heater heats a first portion of the tube along a first, longitudinal portion of the tube, and a cooler cools a second, longitudinal portion of the tube along at least a second portion of the tube. The method includes heating a first portion of the tube along a first longitudinal portion of the tube, and simultaneously cooling a second portion of the tube along at least a second longitudinal portion of the tube. While heating and cooling, the method includes introducing a flow into an interior of the tube at an input, the flow moving the output.
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公开(公告)号：US20190226968A1
公开(公告)日：2019-07-25
申请号：US16372643
申请日：2019-04-02
Applicant: AEROSOL DYNAMICS INC.
Inventor： Susanne Vera Hering , Steven Russel Spielman , Gregory Stephen Lewis
Abstract: An apparatus and method for condensationally enlarging particles in a flow of air or other gas. The apparatus includes a coiled tube having a tube diameter and a coil diameter, the tube having an input receiving the flow and an output, the tube having a length between the input and the output. The walls of the tube are wetted with a condensing fluid. The walls of the first portion of the coiled tube are held a temperature that is lower than the highest temperature in the second portion of the tube. The tube may have a third vapor recovery portion with wall temperature lower than the highest temperature in the second portion, and which optionally may not be coiled. While heating and cooling, the method includes introducing a flow into an interior of the tube at an input, the flow moving the output.
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公开(公告)号：US10252237B2
公开(公告)日：2019-04-09
申请号：US14886661
申请日：2015-10-19
Applicant: Aerosol Dynamics Inc.
Inventor： Susanne Vera Hering , Steven Russel Spielman , Gregory Stephen Lewis
Abstract: An apparatus and method for creating enlarged particles in a flow. The apparatus includes a coiled tube having a tube diameter and a coil diameter, the tube having an input receiving the flow and an output, the tube having a length between the input and the output. A heater heats a first portion of the tube along a first, longitudinal portion of the tube, and a cooler cools a second, longitudinal portion of the tube along at least a second portion of the tube. The method includes heating a first portion of the tube along a first longitudinal portion of the tube, and simultaneously cooling a second portion of the tube along at least a second longitudinal portion of the tube. While heating and cooling, the method includes introducing a flow into an interior of the tube at an input, the flow moving the output.
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公开(公告)号：US20160107137A1
公开(公告)日：2016-04-21
申请号：US14886661
申请日：2015-10-19
Applicant: Aerosol Dynamics Inc.
Inventor： Susanne Vera Hering , Steven Russel Spielman , Gregory Stephen Lewis
IPC: B01J8/08
CPC classification number: B01J8/087 , B01D5/0006 , B01J2208/00026 , B01J2208/00203 , G01N15/065 , G01N2015/0681
Abstract: An apparatus and method for creating enlarged particles in a flow. The apparatus includes a coiled tube having a tube diameter and a coil diameter, the tube having an input receiving the flow and an output, the tube having a length between the input and the output. A heater heats a first portion of the tube along a first, longitudinal portion of the tube, and a cooler cools a second, longitudinal portion of the tube along at least a second portion of the tube. The method includes heating a first portion of the tube along a first longitudinal portion of the tube, and simultaneously cooling a second portion of the tube along at least a second longitudinal portion of the tube. While heating and cooling, the method includes introducing a flow into an interior of the tube at an input, the flow moving the output.
Abstract translation: 一种用于在流中产生增大的颗粒的装置和方法。 该设备包括具有管直径和线圈直径的盘管，该管具有接收流量的输入和输出，该管具有在输入和输出之间的长度。 加热器沿着管的第一纵向部分加热管的第一部分，并且冷却器沿着管的至少第二部分冷却管的第二纵向部分。 该方法包括沿着管的第一纵向部分加热管的第一部分，同时沿着管的至少第二纵向部分冷却管的第二部分。 在加热和冷却的同时，该方法包括在输入端将流引入到管的内部，流动移动输出。
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公开(公告)号：US20150268140A1
公开(公告)日：2015-09-24
申请号：US14434263
申请日：2013-10-08
Applicant: Brookhaven Science Associates, LLC , Aerosol Dynamics, INC.
Inventor： Jian Wang , Susanne Vera Hering , Steven Russel Spielman , Chongai Kuang
CPC classification number: G01N1/28 , G01N15/0227 , G01N15/0255 , G01N15/065 , G01N21/17 , G01N33/0009 , G01N33/18 , G01N2015/0046
Abstract: A parallel plate dimensional electrical mobility separator and laminar flow water condensation provide rapid, mobility-based particle sizing at concentrations typical of the remote atmosphere. Particles are separated spatially within the electrical mobility separator, enlarged through water condensation, and imaged onto a CCD array. The mobility separation distributes particles in accordance with their size. The condensation enlarges size-separated particles by water condensation while they are still within the gap of the mobility drift tube. Once enlarged the particles are illuminated by a laser. At a pre-selected frequency, typically 10 Hz, the position of all of the individual particles illuminated by the laser are captured by CCD camera. This instantly records the particle number concentration at each position. Because the position is directly related to the particle size (or mobility), the particle size spectra is derived from the images recorded by the CCD.
Abstract translation: 平行平板尺寸电迁移率分离器和层流水冷凝在偏远大气层的典型浓度下提供快速，基于移动性的颗粒尺寸。 颗粒在电迁移率分离器内空间分离，通过水冷凝扩大，并成像到CCD阵列上。 移动性分离根据其尺寸分布颗粒。 通过水凝结，凝结物在移动漂移管的间隙内仍然在缩小时，会缩小尺寸分离的颗粒。 一旦放大，颗粒被激光照射。 在预选频率（通常为10 Hz）下，由CCD照相机捕获由激光照射的所有单个颗粒的位置。 这可以立即记录每个位置的粒子数浓度。 由于该位置与粒度（或移动性）直接相关，所以粒度谱由CCD记录的图像导出。
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