序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
161 JPS5922971U - JP11680082 1982-07-31 JPS5922971U 1984-02-13
162 Operating method of system controller JP11755282 1982-07-05 JPS598027A 1984-01-17 NAKAGAWA YUKIO; MINO MINEO
PURPOSE:To simplify the constitution and to improve the operability of a system controller circuit, by performing ON/OFF of the system power supply as well as stopping operation of the system with just a single switch. CONSTITUTION:Just a single switch S turns on and off the power supply of a system and also stops the system operation. A switch input (b) obtained when the power supply is off is used to an instruction to turn on the power supply and to stop the initial value of the system operation. At the same time, the input (b) obtained when a system controller controls operations other than that of a stop state is used for an instruction to stop the system operation. Furthermore the input (b) obtained in a stop state of system is used for an instruction to turn off the power supply. In such a way, just a single switch S can perform both ON/OFF operation of the system power supply and stop operation of the system.
163 Recovering method of solid matter JP3149982 1982-02-27 JPS58149518A 1983-09-05 INOUE TAKESHI; YAMAMOTO AKIO
PURPOSE:To improve the efficiency of recovery and reduce the labor for the flow controlling work, by using an oscillatory type density meter to obtain the concentration of a slurry and connecting a tank and a recovering line selectively when solid matters are recovered from a solid-liquid mixture such as a slurry. CONSTITUTION:The slurry is introduced from a tank 6 for slurry concentration to a flow passage 62 provided with an oscillatory type density meter 63, and the density of the slurry is detected, and the concentration of the slurry is calculated on a basis of this detected density and the relation between a preliminarily determined density and a concentration. It is discriminated whether this calculated concentration exceeds a prescribed value or not to connect the slurry to a circulating line 64 to a tank 6 and a recovering line 65 selectively.
164 JPS58120855U - JP1801582 1982-02-09 JPS58120855U 1983-08-17
165 JPS5820835U - JP11551181 1981-08-03 JPS5820835U 1983-02-08
166 JPS5814954U - JP10857081 1981-07-23 JPS5814954U 1983-01-29
167 JPS5357886U - JP13764676 1976-10-15 JPS5357886U 1978-05-17
168 JPS5242320Y2 - JP10969472 1972-09-21 JPS5242320Y2 1977-09-26
169 JPS5213010Y2 - JP437473 1972-12-19 JPS5213010Y2 1977-03-23
170 JPS5078271U - JP13314773 1973-11-17 JPS5078271U 1975-07-07
171 JPS4966480U - JP10969472 1972-09-21 JPS4966480U 1974-06-11
172 JPS496974A - JP9099972 1972-09-12 JPS496974A 1974-01-22
173 SYSTEM AND METHOD FOR THE MEASUREMENTS OF VISOELASTIC PARAMETERS IN SOFT MATERIALS EP14839728.4 2014-08-27 EP3039400B1 2021-10-06 HADJ HENNI, Anis Redha; SCHMITT, Cédric René
There is provided a system and method for the measurements of viscoelastic properties of a soft sample in which the system incorporates a sample holder that has a membrane with a flexural rigidity that is less than the flexural rigidity of the main body and allowing vibration of the membrane-sample vibration unit in response to a vibration excitation to create resonance vibration modes that are detected to derive the viscoelastic properties.
174 SYSTEM AND METHOD FOR THE MEASUREMENTS OF VISOELASTIC PARAMETERS IN SOFT MATERIALS EP14839728.4 2014-08-27 EP3039400A1 2016-07-06 HADJ HENNI, Anis Redha; SCHMITT, Cédric René
There is provided a system and method for the measurements of viscoelastic properties of a soft sample in which the system incorporates a sample holder that has a membrane with a flexural rigidity that is less than the flexural rigidity of the main body and allowing vibration of the membrane-sample vibration unit in response to a vibration excitation to create resonance vibration modes that are detected to derive the viscoelastic properties.
175 VISCOSITY REDUCTION EP09802273 2009-07-29 EP2334424A4 2013-04-10 BATES DARREN M; BAGNALL WARWICK
176 SYSTEM AND METHOD FOR CONTROLLING VISCOSITY OF A FLUID AND A WORKING VEHICLE CONTAINING SUCH A SYSTEM EP04724476.9 2004-03-30 EP1616105B1 2012-09-12 VIGHOLM, Bo; STRANDBERG, Lennart
177 VISCOSITY REDUCTION EP09802273.4 2009-07-29 EP2334424A1 2011-06-22 BATES, Darren, M.; BAGNALL, Warwick
The present invention relates to a method for reducing the viscosity of a product by applying highly propagating ultrasonic energy to said product, the method comprising contacting at least a portion of said product with an highly propagating ultrasonic energy emitting assembly; and emitting highly propagating ultrasonic energy from the assembly into the product thereby reducing the viscosity of the product.
178 FLUID FLOW CONTROL DEVICE EP04737483 2004-06-29 EP1644657A4 2010-06-09 HARMAN JAYDEN DAVID
179 A METHOD AND APPARATUS FOR FUZZY LOGIC CONTROL ENHANCING ADVANCED PROCESS CONTROL PERFORMANCE EP07754854.3 2007-04-03 EP2019977A1 2009-02-04 LEE, Shu-Yee; GARRETT-BENNETT, Nicole; BOND, Darrell, G.
An apparatus and method for enhancing advanced process control (APC) performance based on fuzzy logic control (FLC) concept and methodology is described. The method and apparatus provide a systematic way to characterize/assess process operations (encompassing the manufacturing process, laboratory measurement systems, and control practices/results) automatically and then determine the best APC model update and feedback control strategies dynamically to cope with various control problems commonly observed in the polymer industry. Since the method is able to reach a single definite control output signal based upon vague, ambiguous, or imprecise input information, control issues that are difficult to quantify or model mathematically can now be addressed effectively and included as part of the APC control strategy. With the method, polymer manufactures can better use their existing off-line laboratory results for on-line APC controllers without resorting to costly on-line property measurements or inferential sensors.
180 FLUID FLOW CONTROL DEVICE EP04737483.0 2004-06-29 EP1644657A1 2006-04-12 HARMAN, Jayden, David
A flow controller (11) adapted to control a flow of fluid within the flow controller (11), the flow controller (11) having a flow path adapted to convey said fluid, wherein the cross-sectional area of the flow path varies along the flow path and wherein in at least a portion of its length the flow controller (11) comprises an active surface (25) capable of influencing the fluid flow through the flow path to cause vortical motion of the fluid within the fluid pathway.
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