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PADS

Onshore processing facilities, and modules brought onshore, have to be cleaned of all hazardous compounds and scrapped. Cellars of single wells, drilling pads, access roads and buildings will have to be removed. If reservoir compaction affects the surface area above the abandoned field future land use may be prevented, in particular in coastal or low land environments. [Pg.371]

A mechanics-free airborne sound location system is used in order to record the probe movement and the rotation direction of the probe relative to the weld. Two airborne sound transmitters are arranged on the probe holder and two receivers are fixed on a 50 cm long rail equipped with two magnetic pads The exact probe position and rotation direction is continuously determined by system. [Pg.776]

LORUS is also used for inspection of piping that has been on supports or sleepers for some time, to see whether corrosion has developed at the contact points. But the technique can also be used for corrosion detection under insulation, inspection of pipelines at dike and road crossings, nozzle reinforcement pads or craek detection in suspension systems for railway cars. [Pg.950]

For more serious cuts, where bleeding is profuse, apply pressure with a thick sterile (or at least clean) pad, dressing, or towel over the area. If an arteiy is spurting, try to minimise bleeding by applying pressure immediately above and below the cut. [Pg.527]

In order to dry the crystals, the Buchner funnel is inverted over two or three thicknesses of drying paper (i.e., coarse-grained, smooth surfaced Alter paper) resting upon a pad of newspaper, and the crystalline cake is removed with the aid of a clean spatula several sheets of drying paper are placed on top and the crystals are pressed flrmly. If the sheets become too soiled by the mother liquor absorbed, the crystals should be transferred to fresh paper. The disadvantage of this method of rapid drying is that the recrystallised product is liable to become contaminated with the Alter paper flbre. [Pg.132]

Another method, which is especiafly suitable for low melting point solids or solids which decompose at low temperatures, is to place the material on a porous plate or pad of drying paper, and to cover the latter with another sheet of Alter paper perforated with a number of holes or with a large clock glass or sheet of glass supported upon corks. The air drying is continued until the solvent has been completely eliminated. [Pg.132]

If a m.p. determination is required soon after recrystallisation, a small quantity may be rapidly dried by pressing it several times upon a pad of several thicknesses of filter or absorbent paper and placing it upon a watch glass in a warm place. A piece of unglazed porous plate may also be used. [Pg.233]

Method 2. Mix 1 0 g. of 3 5-dinitrobenzoic acid with 1 5 g. of phosphorus pentachloride in a small, dry test-tube. Warm the mixture gently over a small smoky fiame to start the reaction when the reaction has subsided (but not before), boil for 1-2 minutes or until the solid matter has dissolved. Pour the mixture while still liquid on a dry watch glass (CAUTION the fumes are irritating to the eyes). When the product has solidified, remove the liquid by-product (phosphorus oxychloride) by transferring the pasty mixture to a pad of several thicknesses of filter paper or to a small piece of porous tile. Spread the material until the liquid has been absorbed and the residual solid is dry. Transfer the 3 5 dinitrobenzoyl chloride to a test-tube, add 0-5-1 ml. of the alcohol, and continue as in Method 1. [Pg.263]

Add 1 ml. of the alcohol-free ether to 0-1-0-15 g. of finely-powdered anhydrous zinc chloride and 0 5 g. of pure 3 5-dinitrobenzoyl chloride (Section 111,27,1) contained in a test-tube attach a small water condenser and reflux gently for 1 hour. Treat the reaction product with 10 ml. of 1-5N sodium carbonate solution, heat and stir the mixture for 1 minute upon a boiling water bath, allow to cool, and filter at the pump. Wash the precipitate with 5 ml. of 1 5N sodium carbonate solution and twice with 6 ml. of ether. Dry on a porous tile or upon a pad of filter paper. Transfer the crude ester to a test-tube and boil it with 10 ml. of chloroform or carbon tetrachloride filter the hot solution, if necessary. If the ester does not separate on cooling, evaporate to dryness on a water bath, and recrystallise the residue from 2-3 ml. of either of the above solvents. Determine the melting point of the resulting 3 5 dinitro benzoate (Section 111,27). [Pg.316]

Bumper pads Bumpers Bump materials BunaN... [Pg.136]

Reliability measures Reliability of materials Relief pads Relishes... [Pg.847]

As a vessel is loaded, it moves downward because of deflection of the load cells and support stmcture. Pipes rigidly attached to a vessel restrict its free movement and assume some portion of the load that cannot be measured by the load cells. This is very detrimental to scale accuracy. Deflection of the load cell is unavoidable deflection of the vessel support stmcture should be minimized. Anything which increases vessel deflection, eg, mbber pads used for shock protection, must be avoided. The total number of pipes should be minimized and be of the smallest diameter, thinnest wall possible. Pipe mns to weigh vessels must be horizontal and the first pipe support should be as far as possible from the vessel. Alternatively, a section of mbber hose or flexible bellows should be used to make the final connection to the vessel. The scale should be caUbrated using weights, not by means of an electrical simulation method, which cannot account for the effects of the piping or test the correct functioning of the scale. [Pg.337]


See other pages where PADS is mentioned: [Pg.69]    [Pg.310]    [Pg.331]    [Pg.204]    [Pg.288]    [Pg.455]    [Pg.2300]    [Pg.169]    [Pg.752]    [Pg.537]    [Pg.19]    [Pg.68]    [Pg.69]    [Pg.112]    [Pg.150]    [Pg.158]    [Pg.232]    [Pg.580]    [Pg.824]    [Pg.927]    [Pg.1069]    [Pg.1107]    [Pg.251]    [Pg.23]    [Pg.232]    [Pg.257]    [Pg.641]    [Pg.264]    [Pg.126]    [Pg.229]    [Pg.634]    [Pg.717]    [Pg.717]    [Pg.717]    [Pg.924]    [Pg.326]    [Pg.326]    [Pg.441]    [Pg.96]   


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Absorbent pad

Automobile brake pads

Bearing pads

Black pad

Bond pads

Bonding pads

Bonding pads aluminum

Bonding pads thickness

Bridge bearing pads

Budget padding

Carbon Pad

Carpet pad

Carpet padding

Carrier pads

Changing pads

Conductive Pad

Correction of vapour pressure data for pad gas

Cu Pad Size and Linewidth Affect Dishing

Damping pads

Dashboard, padded

Deentrainment wire mesh pads

Demister pads

Diamond disc pad conditioning in chemical mechanical polishing

Diamond disc pad conditioning process control

Drip pad

Effects of Pad Property on Polishing Performance

Epididymal fat pad

Exposure pads

Fiberglass pads

Filter pads

Filtercorp pad

Finger pad

Foot pads

Functional foods, in carbohydrates HPAEC-PAD method

Gas - liquid segregation mesh pads

Gel-pad array biochip

Ground pad

Grounding pad

HPAEC-PAD

HPAEC-PAD system

Hardness, pad

Hemorrhoid pads

Hoffa Fat Pad

Incontinence pads

Insert pads

LC-PAD

Landing pads

Manifold spacer pads

Maxi pads

Menstrual pads

Mesh pad

Mesh pads allowable velocity

Mesh pads configurations

Mesh pads design velocity

Mesh pads pressure drop

Modeling of Pad Effects on Polishing Performance

Mold-pressure pad

Molding pressure pad

Noise isolation pads

Nonporous pad

Novel Designs of CMP Pads

Novel pads

Obturator pad

One-time pad

Optimizing Pad Conditioning Process

Packaging/padding and

Pad Array Carrier

Pad Deformation

Pad Density

Pad Hardness, Youngs Modulus, Stiffness, and Thickness Effects

Pad Materials and Properties

Pad Microstructures and Macrostructures

Pad Properties

Pad Roughness Effects

Pad Surface Shape

Pad Synthesis

Pad and Panel Filters

Pad applications

Pad areas

Pad asperities

Pad bath formulations

Pad bulk

Pad cell

Pad compressibility

Pad conditioning

Pad debris

Pad filtration

Pad groove

Pad groove effects

Pad life

Pad material

Pad modeling

Pad of silica-gel

Pad printing

Pad rinsing

Pad steam method

Pad structure

Pad surface

Pad surface roughness

Pad surface temperature

Pad temperature

Pad testing

Pad thickness

Pad type

Pad viscoelasticity

Pad wear

Pad wetting

Pad-dry-cure process

Pad-steam dyeing

Pad-steam process

Pad-wafer contact

Padded testing areas

Padding

Padding

Padding bandages

Padding method

Padding method fabric

Padding process

Pads and Their Manufacture

Pads and abrasives

Pads and pressure

Pads, Dishing, and Erosion

Pads, density, effect

Pad£ approximants

Pad—wafer

Pad—wafer interface

Particle containing pads

Peptidylarginine deiminases PADs)

Polishing Pad

Polishing Pad Characteristics

Pressure drop wire mesh pads

Pressure pad

Propellant actuated devices (PAD

Protein chips of gel pad

Pulsed amperometric detection (PAD

Pulsed amperometric detector (PAD

RAIL PAD

Reactions with copper pads

Reactive pad

Rubber pad

Rubber pad forming

SOS pads

Sample pad

Scouring pads

Silt density index filter pads

Slider pad extruder

Slurry-pad interactions

Soft pads

Stacked pad

Stamp pad ink

Stiffness, pad

Suction pad

Support pads

Suprapatellar Fat Pad

Surface treated pads

Tea-pad

The Polishing Pad

VIBRATION PAD

Via-in-pad design

Well Pad

Wire Mesh Pad Deentrainers

Work tables, padded

Wound dressing pads

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