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Dipping

The adhesive should be very fluid from 50 to 400 mPas, the parts are taken out quickly (2 cm/s) because the operator cannot stay for a long time, and they must be left for 1 min to drip (Fig. 70). [Pg.145]

The adhesive film is uneven because it is thin on top of the parts (perhaps 20 to 50 microns) and thicker at the bottom, depending on the viscosity and rheology. Some examples of application of manual dipping are  [Pg.145]


Structural maps display the top (and sometimes the base) of the reservoir surface below the datum level. The depth values are always true vertical sub sea. One could say that the contours of structure maps provide a picture of the subsurface topography. They display the shape and extent of a hydrocarbon accumulation and indicate the dip and strike of the structure. The dip is defined as the angle of a plane with the horizontal, and Is perpendicular to the strike, which runs along the plane. [Pg.140]

Reservoir quality maps are used to illustrate the lateral distribution of reservoir parameters such as net sand, porosity or reservoir thickness. It is important to know whether thickness values are isochore or isopach (see Figure 5.46). Isochore maps are useful if properties related to a fluid column are contoured, e.g. net oil sand. Isopach maps are used for sedimentological studies, e.g. to show the lateral thinning out of a sand body. In cases of low structural dip (<12°) isochore and isopach thickness are virtually the same. [Pg.142]

The general list of factors influencing the uncertainty in the gross rock volume included the shape of structure, dip of flanks, position of bounding faults, position of internal faults, and depth of fluid contacts (in this case the OWC). In the above example, the owe is penetrated by two wells, and the dip of the structure can be determined from the measurements made in the wells which in turn will allow calibration of fhe 3D seismic. [Pg.175]

As a guideline, the plateau rate is usually between 2 to 5% of the STOMP per year. The lower end of the range would apply to shallow dip reservoirs with an unfavourable mobility ratio, creating a rate dependent displacement process. [Pg.209]

Miscible processes are aimed at recovering oil which would normally be left behind as residual oil, by using a displacing fluid which actually mixes with the oil. Because the miscible drive fluid is usually more mobile than oil, it tends to bypass the oil giving rise to a low macroscopic sweep efficiency. The method is therefore best suited to high dip reservoirs. Typical miscible drive fluids include hydrocarbon solvents, hydrocarbon gases, carbon dioxide and nitrogen. [Pg.210]

Cusping occurs in the horizontal plane, that is the stabilised OWC does not lie directly beneath the producing well. The unwanted fluid, in this case water, is pulled towards the producing well along the dip of the formation. [Pg.218]

If gas export or disposal is a problem gas re-injection into the reservoir may be an alternative, although this implies additional compression facilities. Gas production may be reduced using well intervention methods similar to those described for reducing water cut, though in this case up-dip wells would be isolated to cut back gas influx. Many of the options discussed under water treatment for multi-layered reservoirs apply equally well to the gas case. [Pg.362]

Figure Bl.4.5. The Lamb dip spectrum of the CO 6-5 transition obtained with the Cologne THz BWO spectrometer. The dip is of order 30-40 kHz in width and the transition frequency is detennined to 0.5 kHz [M]. Figure Bl.4.5. The Lamb dip spectrum of the CO 6-5 transition obtained with the Cologne THz BWO spectrometer. The dip is of order 30-40 kHz in width and the transition frequency is detennined to 0.5 kHz [M].
A partial acknowledgment of the influence of higher discrete and continuum states, not included within the wavefunction expansion, is to add, to the tmncated set of basis states, functions of the fomi T p(r)<6p(r) where dip is not an eigenfiinction of the internal Flamiltonian but is chosen so as to represent some appropriate average of bound and continuum states. These pseudostates can provide fiill polarization distortion to die target by incident electrons and allows flux to be transferred from the the open channels included in the tmncated set. [Pg.2050]


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A Quick Dip into DEPT

Adhesive application dipping

Adhesive dips

Applications for Dipped Goods

Automatic Dip Coating

Blocking dips

Bright dipping

Cattle-dipping solution

Chain dipping lines

Chemical dip etching

Chilo suppressalis dipping assay

Chloroform dip solutions

Chocolate dipping

Chromatography dipping

Chromatography preparation, dipping

Coagulant dipping

Coating application methods dipping

Coherent ion dip spectroscopy

Continuous hot dip processing

Conventional dipping

Cross-linking dipping

Cu Dips

DIP AMP ligand

DIP MOULDING

DIP Station

DIP concentration

DIP on Silicon Oxide

DIP structure

DIP-Chloride

DIP-EOM-CCSD

DIP-EOM-CCSD method

DIP-STEOM-CCSD

DIP-STEOM-CCSD method

DIP-Tech

DIPR-DIP model

Deposition methods, protective coatings dipping

Detection dipping

Diffusion-induced phase separation (DIPS

Din—Dip

Dip

Dip Spectroscopy

Dip acids

Dip and Spin Coating

Dip bar

Dip bath

Dip blow molding

Dip casting

Dip casting process

Dip cleaning

Dip coaters

Dip coating

Dip coolers

Dip deposition

Dip dyeing

Dip forming

Dip generalities

Dip meter

Dip molding

Dip pipes

Dip plane

Dip plates

Dip probe

Dip sampling

Dip strips

Dip tank

Dip tubes

Dip, dipping

Dip, dipping

Dip-coat

Dip-coating deposition

Dip-coating method

Dip-coating techniques

Dip-dry method

Dip-pen lithography

Dip-pen nanolithography

Dip-pen nanolithography technique

Dip-pen technology

Dip-slides

Dipped

Dipped adcluster model

Dipping Synthetic Polymer Emulsions in Practice

Dipping acid

Dipping and Folded Strata

Dipping apparatus

Dipping automated/manually

Dipping chambers

Dipping components

Dipping direction

Dipping in reagent solutions

Dipping manual-instrumental

Dipping method

Dipping of TLC Plates

Dipping process

Dipping reagents

Dipping sequences

Dipping solutions

Dipping speed

Dipping treatments

Dipping vessels

Dipping, single step

Dipping, solvent application

Dips, batter

Electro-dip-coating

Electrochemical dip-pen nanolithography

Embrittlement of hot-dip galvanized

Film dip

Films dip coating

Floral dipping

Fluorescence dip spectroscopy

Flux dipping

Form dipping

Glove dipping

Grid dip meter

Growth of DIP on Sapphire

Hand dipping

Hole-Burning and Ion-Dip Double-Resonance Spectroscopy

Hot dip coating

Hot dipping

Hot dipping aluminising

Hot dipping aluminium

Hot dipping continuous strip

Hot dipping galvanisation

Hot dipping galvanising

Hot dipping process

Hot dipping tinning

Hot water dips

Hot-dip galvanisation

Hot-dip galvanised components

Hot-dip galvanizing

Hot-dipped galvanized steels

IR-UV ion-dip spectroscopy

Impregnation by Dipping

Intercollisional dip

Inverse Lamb-dip

Inverted Lamb dip

Ion-dip infrared spectroscopy

Ion-dip spectroscopy

LATEX DIPPING

Lamb Dip Stabilization of Gas Lasers

Lamb dip

Lamb dip spectroscopy

Lamb-Dip Frequency Stabilization of Lasers

Lamb-dip stabilization

Lamb-dip technique

Liquid dipping techniques

Livestock dips

Manual dipping

Metal electrode dipping into an aqueous solution of its ions

Multiple dip-coating

Nitrate Plant Using Mechanical Dipping Tanks

Organo-phosphate dips

Organophosphorus Sheep Dips

Organophosphorus compounds sheep dips

Organophosphorus veterinary sheep dips

Paint coatings continued dipping

Patterning of Alkanethiols by Dip Pen Nanolithography (DPN)

Plastisol dip coating

Polyvinyl chloride dipping

Principle of indirect roll dipping

Principles of Dipping

Pullout forces of polyester and nylon cords for dips

Pyrethroid dips

RFL adhesive dips

RFL dips

Resorcinol-formaldehyde-latex dips

Role in dip coating

Roll dipping

Sheep dips

Sheep dips, exposure

Snuff dipping

Sol-gel dip-coating

Solution dip coating

Some Critical Examples of Films Prepared by Dip Coating

Teat dips

The Dipping Process

Thermal dip-pen nanolithography

Thermoplastic coatings dipping

Thickeners dipping compounds

Thin-layer chromatography spraying/dipping

Use of Scanning Probe Microscopy in Dip Pen Nanolithography

Vertical dipping method

Washing dipping methods

Water dip

Wire dips

Zinc coatings hot-dip

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