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公开(公告)号：US4541796A
公开(公告)日：1985-09-17
申请号：US675477
申请日：1984-11-29
Applicant: John E. Anderson
Inventor： John E. Anderson
CPC classification number: F23L7/007 , C03B5/2353 , F23C9/006 , F23D14/22 , F23C2202/40 , Y02E20/344 , Y02P40/55
Abstract: Process and apparatus for firing a furnace using oxygen or oxygen-enriched air as the oxidant gas, comprising injection into the furnace of a plurality of oxidant jets, through nozzles, in a spaced relationship to a fuel jet, at a velocity sufficient to cause aspiration of furnace gases into the oxidant jets before the latter mix with the fuel jet, in amounts sufficient to lower flame temperature.
Abstract translation: 使用氧气或富氧空气作为氧化剂气体来烧制炉子的方法和装置，包括以足以引起抽吸的速度与燃料射流以间隔开的关系喷射到多个氧化剂喷嘴的炉中 在后者与燃料喷射混合之前，炉内气体进入氧化剂射流，其量足以降低火焰温度。
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公开(公告)号：US4408982A
公开(公告)日：1983-10-11
申请号：US337115
申请日：1982-01-05
Applicant: Hisashi Kobayashi , John E. Anderson
Inventor： Hisashi Kobayashi , John E. Anderson
CPC classification number: F23L7/00 , Y02E20/344
Abstract: A method for minimizing the amount of nitrogen oxide pollutants produced in a process for firing a furnace using oxygen or an oxygen-enriched gas as the oxidant, in which furnace gases are aspirated into the oxidant jet prior to combustion and in which the furnace is operated using alternating low firing rate and high firing rate periods, by delaying the injection of oxidant at the high rate at the start of the high firing rate period.
Abstract translation: 一种使用氧气或富氧气体作为氧化剂对炉子进行烧制的方法中产生的氮氧化物污染物的量最小化的方法，其中在燃烧之前将炉内气体吸入氧化剂射流并且其中炉子被操作 使用交替低燃烧速率和高燃烧速率周期，通过在高燃烧速率时段开始时以高速率延迟氧化剂的喷射。
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公开(公告)号：US4166770A
公开(公告)日：1979-09-04
申请号：US908418
申请日：1978-05-22
Applicant: John E. Anderson , Gary L. Funk
Inventor： John E. Anderson , Gary L. Funk
Abstract: A control system for a fractionation column which separates a feed into a heavy bottoms product, which is used as fuel for a plant, and into a light overhead product, which is used in a process, is disclosed. The fractionation column is controlled in such a manner that sufficient bottoms product is supplied to meet the plant fuel requirements while maintaining a desired distillation temperature for the overhead product. The flow rate of fuel oil to the reboiler furnace associated with the fractionation column and the flow rate of the external reflux to the fractionation column are controlled in such a manner that the objectives of supplying sufficient bottoms product to meet plant fuel requirements and supplying an overhead product having a desired distillation temperature are met while still minimizing the external reflux flow rate and the flow rate of the fuel oil to the reboiler furnace to increase fuel economy.
Abstract translation: 公开了一种用于分离塔的控制系统，其将进料分离成用作工厂的燃料的重塔底产物和用于工艺中的轻质塔顶产品。 以这样一种方式控制分馏塔，即足够的塔底产物被供应以满足植物燃料需求，同时保持架空产品所需的蒸馏温度。 控制与分馏塔相关的再沸器熔炉的燃料流量和对分馏塔的外部回流的流量的控制，使得供应足够的底部产物满足工厂燃料需求并提供塔顶馏出物 满足所需蒸馏温度的产物，同时仍使外部回流流速和燃料油流向再沸器炉的流量最小化以提高燃料经济性。
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公开(公告)号：US4127798A
公开(公告)日：1978-11-28
申请号：US848680
申请日：1977-11-04
Applicant: John E. Anderson
Inventor： John E. Anderson
IPC: H01J17/36 , G09G3/10 , H02M7/5383 , H02M7/53846 , H02M7/53862 , H05B41/24 , H05B41/285 , H05B37/02 , H05B39/04 , H05B41/36
CPC classification number: H02M7/53862 , H02M7/53846 , H05B41/2851 , Y02B70/1441 , Y10S315/05 , Y10S315/07
Abstract: A system for operating gas discharge lamps at high frequency from a high voltage supply, typically 115 V AC with a 160 watt, 25,000 Hz output. The system provides efficient conversion, having the capability of driving any number of lamps up to maximum wattage, inherent open-cirucit and short circuit protection, and higher efficacy from the lamps. Filament power may or may not be used. Filament power is not necessary under conditions when the lamps are forced into a glow discharge to charge each cycle through the use of a tuned resonant circuit. An unsaturated inverter provides fast cut-off times. Dimming capabilities may be provided.
Abstract translation: 一种用于高压供电的高压气体放电灯的系统，一般为115 V AC，160瓦，25,000 Hz输出。 该系统提供有效的转换，具有驱动任何数量的灯达到最大功率，固有的开路和短路保护以及来自灯的更高功效的能力。 灯丝功率可以使用也可以不使用。 在灯被强制进入辉光放电以通过使用调谐谐振电路为每个周期充电的条件下，灯丝功率不是必需的。 不饱和逆变器提供快速切断时间。 可以提供调光功能。
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公开(公告)号：US10520618B2
公开(公告)日：2019-12-31
申请号：US14887621
申请日：2015-10-20
Applicant: Tetyana Vdovina , Valeriy Brytik , John E. Anderson , Thomas A. Dickens , William Curry , Carey M. Marcinkovich
Inventor： Tetyana Vdovina , Valeriy Brytik , John E. Anderson , Thomas A. Dickens , William Curry , Carey M. Marcinkovich
Abstract: A method for exploring for hydrocarbons, including: simulating a seismic waveform, using a computer, wherein computations are performed on a computational grid representing a subsurface region, said computational grid using perfectly matched layer (PML) boundary conditions that use an energy dissipation operator to minimize non-physical wave reflections at grid boundaries; wherein, in the simulation, the PML boundary conditions are defined to reduce computational instabilities at a boundary by steps including, representing direction of energy propagation by a Poynting vector, and dissipating energy, with the dissipation operator, in a direction of energy propagation instead of in a phase velocity direction; and using the simulated waveform in performing full waveform inversion or reverse time migration of seismic data, and using a physical property model from the inversion or a subsurface image from the migration to explore for hydrocarbons.
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Patent Agency Ranking
公开(公告)号：US10317546B2
公开(公告)日：2019-06-11
申请号：US14968961
申请日：2015-12-15
Applicant: Valeriy Brytik , Jason Shaw , Charlie Jing , Hong Zhao , John E. Anderson
Inventor： Valeriy Brytik , Jason Shaw , Charlie Jing , Hong Zhao , John E. Anderson
Abstract: Method for generating an effective, efficient, and stable absorbing boundary condition in finite-difference calculations, such as model-simulation of predicted seismic data. The top surface and optionally the bottom surface of the computational domain or grid are treated with one or more layers of PML (51), preferably 1D PML, assuming an orthorhombic medium in the PML implementation (52). The side surfaces are handled with one or more ABC layers (53). Further advantages may be realized by tapering earth model symmetry axis on the top and bottom of the model toward the vertical (54). The invention provides a beneficial compromise between reducing artifacts in the image or physical property model and computational efficiency and stability.
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公开(公告)号：US10185046B2
公开(公告)日：2019-01-22
申请号：US14670085
申请日：2015-03-26
Applicant: John E. Anderson , Anatoly Baumstein , Carey Marcinkovich , Tetyana Vdovina , Valeriy Brytik
Inventor： John E. Anderson , Anatoly Baumstein , Carey Marcinkovich , Tetyana Vdovina , Valeriy Brytik
Abstract: Method for correcting seismic simulations, RTM, and FWI for temporal dispersion due to temporal finite difference methods in which time derivatives are approximated to a specified order of approximation. Computer-simulated seismic data (51) are transformed from time domain to frequency domain (52), and then resampled using a mapping relationship that maps, in the frequency domain, to a frequency at which the time derivative exhibits no temporal dispersion (53), or to a frequency at which the time derivative exhibits a specified different order of temporal dispersion. Alternatively, measured seismic data from a field survey (61) may have temporal dispersion of a given order introduced, by a similar technique, to match the order of approximation used to generate simulated data which are to be compared to the measured data.
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48.发明申请Determination of Subsurface Properties in the Vicinity of a Well by Full Wavefield Inversion 审中-公开通过全波场反演确定井附近地下性质公开(公告)号：US20160047924A1
公开(公告)日：2016-02-18
申请号：US14800147
申请日：2015-07-15
Applicant: Christine Krohn , Partha S. Routh , John E. Anderson , Gboyega Ayeni , Kenneth E. Green
Inventor： Christine Krohn , Partha S. Routh , John E. Anderson , Gboyega Ayeni , Kenneth E. Green
CPC classification number: G01V1/282 , G01V1/303 , G01V2210/614 , G01V2210/67
Abstract: A method, including: obtaining an initial model of a subsurface property; simulating synthetic data from the initial model; obtaining recorded borehole seismic data, wherein the recorded borehole seismic data was obtained with a seismic source or receiver located in a well; and inverting, with a computer, the recorded borehole seismic data by full wavefield inversion, wherein the full wavefield inversion includes comparing the synthetic data to the recorded borehole seismic data, and computing a cost function, obtaining a gradient function from the cost function, wherein the gradient function is related to a change in the objective function with an incremental change in model parameters, using the initial model to compute an illumination function or a resolution function for seismic sources and receivers, and obtaining a conditioned gradient function by conditioning the gradient function with the illumination function or the resolution function.
Abstract translation: 一种方法，包括：获得地下属性的初始模型; 从初始模型模拟合成数据; 获得记录的井眼地震数据，其中记录的井眼地震数据是用位于井中的地震源或接收器获得的; 并且利用计算机反转通过全波场反演的记录的井眼地震数据，其中全波场反演包括将合成数据与记录的井眼地震数据进行比较，并计算成本函数，从成本函数获得梯度函数，其中 梯度函数与目标函数的变化与模型参数的增量变化相关，使用初始模型计算地震源和接收机的照明功能或分辨率函数，并通过调整梯度函数获得调节梯度函数 具有照明功能或分辨率功能。
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公开(公告)号：US08756042B2
公开(公告)日：2014-06-17
申请号：US13034341
申请日：2011-02-24
Applicant: Lijian Tan , John E. Anderson
Inventor： Lijian Tan , John E. Anderson
CPC classification number: G01V1/28 , G01V1/005 , G01V1/282 , G01V1/301 , G01V2210/675 , G01V2210/679
Abstract: Method and system for more efficient checkpointing strategy in cross correlating (316) a forward (328) and backward (308) propagated wave such as in migrating (326) or inverting seismic data. The checkpointing strategy includes storing in memory forward simulation data at a checkpointed time step, wherein the stored data are sufficient to do a cross correlation at that time step but not to restart the forward simulation. At other checkpoints, a greater amount of data sufficient to restart the simulation may be stored in memory (314). Methods are disclosed for finding an optimal combination, i.e. one that minimizes computation time (1132), of the two types of checkpoints for a given amount of computer memory (1004), and for locating a checkpoint at an optimal time step (306, 1214, 1310). The optimal checkpointing strategy (1002) also may optimize (1408) on use of fast (1402) vs. slow (1404) storage.
Abstract translation: 交叉相关（316）前向（328）和向后（308）传播的波中的更有效的检查点策略的方法和系统，例如在迁移（326）或反转地震数据中。 检查点策略包括在检查点时间步骤中存储内存中的前向仿真数据，其中所存储的数据足以在该时间步骤进行互相关，但是不重新启动正向仿真。 在其他检查点，可以将足够重新启动模拟的更大量的数据存储在存储器（314）中。 公开了用于找到最佳组合的方法，即使给定量的计算机存储器（1004）的两种类型的检查点的计算时间（1132）最小化的最佳组合，并且用于在最佳时间步长（306,1214）处定位检查点 ，1310）。 最优检查点策略（1002）还可以优化（1408）快速（1402）与慢（1404）存储的使用。
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公开(公告)号：US20130191090A1
公开(公告)日：2013-07-25
申请号：US13791252
申请日：2013-03-08
Applicant: Jerome R. Krebs , John E. Anderson , Ramesh Neelamani , Charles Jing , David L. Hinkley , Thomas A. Dickens
Inventor： Jerome R. Krebs , John E. Anderson , Ramesh Neelamani , Charles Jing , David L. Hinkley , Thomas A. Dickens
IPC: G06F17/50
CPC classification number: G06F17/5009 , G01V1/28 , G01V2210/67
Abstract: Method for reducing the time needed to perform geophysical inversion by using simultaneous encoded sources in the simulation steps of the inversion process. The geophysical survey data are prepared by encoding (3) a group of source gathers (1), using for each gather a different encoding signature selected from a set (2) of non-equivalent encoding signatures. Then, the encoded gathers are summed (4) by summing all traces corresponding to the same receiver from each gather, resulting in a simultaneous encoded gather. (Alternatively, the geophysical data are acquired from simultaneously encoded sources.) The simulation steps needed for inversion are then calculated using a particular assumed velocity (or other physical property) model (5) and simultaneously activated encoded sources using the same encoding scheme used on the measured data. The result is an updated physical properties model (6) that may be further updated (7) by additional iterations.
Abstract translation: 用于在反演过程的仿真步骤中通过使用同时编码的源来减少执行地球物理反演所需的时间的方法。 通过编码（3）一组源集合（1）来准备地球物理勘测数据，使用每组收集从非等效编码签名集合（2）中选出的不同编码签名。 然后，通过将来自每个聚集的相同接收器的所有跟踪相加，将编码的聚集相加（4），导致同时编码的聚集。 （或者，从同时编码的源获取地球物理数据。）然后使用特定的假定速度（或其他物理属性）模型（5）计算反演所需的模拟步骤，并使用与之相同的编码方案同时激活编码的源 测量数据。 结果是可以通过附加迭代进一步更新（7）的更新的物理属性模型（6）。
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