325 
in the lung ill 
mechanism of development lD. Lanolin 2.60 
Lateral inhjbition l6 
Leak of current 1.66 
Leaking junctions 135. 175 
Leaking vc:nules W 
Leukocyte accumulation 
around the anode lBZ... 26:i 
around the cathode 1.!2. in inflammation 120 
massi.,.ely destroyed in the ancxtic field 
l2ol 
Leukocytic locomotion 1.20. Leukotax.i.ne ~ 262 
Level of entropy ill 
levelling of electric gradients ill 
Liberation of radicals in degrading tissue 
~ 116.320 
Liberation of energy 128 
ulinear shadows crossing a tumour.. ll 
Lipophilic substances ill 
Liquid fat 21.8 
Liquid fat zone 2.Z2. Liquid junction potential JMl 
Liquid·perfused electrodes llb ill 
Liquid water 
energy 80. StrUCt'Urt 80. 
litmus reactions at organ surfaces ~ ill 
Liver caps-ule, development of W 
Local contraction of small vessels UB. Local dys:trophic changes ~ mill 
Local electrocoagulation llb lli 
Local infecllon ill 
Local injury 2fi5 
Long-distance: sc:lwj.,.c: transpons 
W:Jjjl 
Long-distance transpon in biological sys­
tems LH.. 1.28. "Long-or short-distance" c:lectrogcni c 
transports lJ...bl..5..0. Long radiating fibrous tentacles 212 
Long-range forces 2S 
Lymph flow ll3 
in mediastinum ll 
Lymphatic channels 
in lung 22 
of the breast ill 
Lymphocytes 
surface charge W 
surrounding the tumour 263 
Lymphocytosis ill 
Lysine lli 
Lysosomes ~ UL llJl 
M 
Mach effect 1.6 
Magnetic fields ill 
Magnitude of measured potential differ-
ence lli 
Malignant melanoma l1L 226. MaJlllllAt)' carcinomas ZllbZIS 
Mammographic analogue of a breast 2.16. M-and W-shapc:d profiles of potential 211 
Mappi.n.s of the el«tric pOtential 220. Margination of leukocytes l&2, 2M 
Material 
adsorbed or tnpped Ui 
of relativt'.ly good conductivity lll 
smeared on a glass slide 1M 
Matrix !R. 1.22 
a target for mineraliza tion ill 
"capiJJaries" of tissue &1 factors 2M 
functions L6i 
in an electronegati,•e phase ill 
in dog fat tissue 22..1 
interfere-nce 2L m 
supporting elosed-ci.r<:uit transport llQ 
Matrix medjated SCEC transport of ergon-
an ill! Mechanical effects of gas ~ 
Mechanical forcts and diffusion ill 
Mechanical hindrance of convection 8.3 
Mechanical transports lli 
Mechanics of circulatio n 216 
Mechanism of acupuncture ill 
"Mediated transport" , a primitive form. of 
&l 
Med.iaton of inflammat ion 1..20. Medullary and lobular carcinomas 2ll 
Membrane oscillator lll 
Membrane permeability 162. 257 
Membranes and organ capsules !1L ill 
Membranous structures in fat tissue ~ 
2.l& 
Mesente-ric water transport U2 
Mesonephroid adenocarcinoma of the ova· 
ry m 
Metabolic diffusion potentials !.1.b IMl 
Metabolic fluctuations ill 
Metabolic products 2.ll 
Metal 
in a passi.,•e st.ate llQ 
in tissue W 
Metal needle: in acupuncture 122. Metallic precipitation LlQ 
Met.allic prosthC$iS 113. .Metals in the saliva ill 
Metasta5e$ , multiple 226. Metastasis 
in the brain 211 
O\'arian carcinoma Z2& 
pulmonary melanoma 11 
sarcoma 306 
Methaemogl obin ill 
MicrocaJcificat ions lQl. lli 
composition of 2ll 
in adipose tissue lli 
in breas[ fat tissue 8. 
in carcinoma ~ 
produced in vitro lli 
Microergonan ill 
''Microinjury" of tissue W 
Microphotography of vessels 1..3..& 
Micropinocytosis ill 
M.icrothromboses 2&2 
in capillaries 1Z6 
M.iCf'Owave Hall effect on mobiHty of elec­
trons ill 
Migrating electronegath •e fat 222 
Mjgration 
ofions 161,171,178,269,282 
of leukocytes & ~ m ~ ~ 
. !26 
Mineralization in canilage and bone lli 
Mineralization phase ill 
Minimum safe distance from high-voltage 
transmissjon lines ill 
Mixed anodic: and cathodic: fibrous marc:· 
rial 134,240,315 
Mixed driving potential 320 
Mobile plasnutic ponion ill 
Modified anodic and cathodic fibrous tis­
sue B4 240 315 
Modifying effects by streaming blood lJ2. Modulation 
by edge enhancement 2Jll 
Index 355 of chemical reactions 312 
of .. local'' che.micaJ reactions ltiQ 
Moments of inertia 1.QQ 
Monstrous cdls and edt oomplf'xcs 
180-187,324 
Morphology of capillaries ill 
Momliry 226 
Motion blur U 
control of lJl8 
Movable matrix of blood cells ill 
Moving-boundary method U1L 
Moving electromagn etic fields ill 
Multioomponent solutions ill 
Multifocal degradations 228 
Mycetoma ~ 
Myoslobin ill 
N 
Narrow~ of a oonductiJll! branch I~ 
Narrowing and di.splacc.ment of ve:sscls ~ 
ll.. ill.. ill.. 175, 177' !22, ~ill.. 
~~ ru 
Natural menopause 222 
Necrosis 29, 69, ~ ~ ZB! Needle biopsy2. 46.205.273 
Neoplastic "vessels" 25S. 256 
Nef'\•e-.end-plate "electrOdes'' !1b ill 
Nervous impulses, transmission of W 
Ne.t streaming potentials ~ lli 
Neurogenic triggering of acid production 
ill 
Neurotoxic effects by retrograde axonal 
ttanspom ill 
NHE potential, stainless chrome-steel 
!.QbW 
Noble gases ill 
Nodular m.amma.ry tuberculos ~s lll 
Nodules, multiple 301 
Nondiscriminated system of transport ill 
Nonequilibrium thermodynamics W 
Nonhydroph ilic colla.gen fibres 2.30. Nonhygroscopic collagenous Cibm ill 
Nonionic compounds (e:rgonars) modulat-
ing conducthity 3. ISS 
Nonpe:rmeable ions 122. Nonprogress.ivc injuries ill 
Nonselective bulk transports UO. Nonnal potentials of metals 1~, W 
Nutritional disturbances 177. 260 
0 
Oedema 112. Opacity of tumour 22B 
Oral corros:avc PJ"OCC$SCS ill 
01'21 galnnism !Q, ill 
Organ ca.,.ulcs !1!. ~ ill 
Oscillations by bubbles of nH2 and n01 
164 
O.mosis 135. 199,322. 323 
Osmotic and hydrostatic forces ill 
Osteosarcoma ~ 
Ovalbodies W 
Overlap repulsion fore~ ZS. OverpotentiaJ 163. 282 
Oxygen, saving of energy 170', 320 
Oxyhaemoglobin 1.&Q 
OxymYQSiobin ill 
p 
Paoern.aker devices ~ ~ ~ ill 
Packages (vesicles) of nonionic-products 
(ergonan) W 
ParaiJel-coupled biological con.ducting 
branches ill 
356 Index Patholosia.l vessels 8, 255. 266 
Pathways for the: electric current l1L ~ 
!21.~ 
Pattern of flow of current 2.31 
Pelvic sarcoma Z2f> 
Peptides and proteins 120 
Perfusion of a ~thtrtl'i!ed M<>ncllill ar. tery 123.314 
Perianodic necrosis 2M 
Pericyte appara[US ~ ! !L ~ ill 
Pericyte process W 
Perifocal oedema ~ 223 
Perifocal striate fibrosis Z::b, ~ ~ 212. ~ --
Peritumoutal atrophy of fat 224. 260 
Pcritumoural fibrosis l1.. l2. rL, ilL U.S., 
~ 
Permeability of blood vessels !.ll.. 
129-132, 143, 2JlQ 
Permeable ions 3l2. Permeable sieve 122 
Pennselective membrane W 
Phagocytic acti v:i ty 137. 194 
Pharmaceutical s, e-lc:ctrophoretic accumula-
tion of lZ6 
Phosphate groups 2M 
Phosphal idc:s of cephalin types 2M 
PbysioocbcmicaJ energy ~ ISZ-172. 205.319 
l'hysiolosic "demand" potential of a BCEC 
circuit ~ !1!r, ~ 318-324. see also 
Glossary J demand potential 
Physiological effects of BCE;C sysu:ms 32! Pbysioll)8ical heal~ Z1l! Piuoelectric polarization of bone lli 
Pi$ment in red blood cells lJ! !bm 
Pinocytosis ~ 146, ~ .312 
PinOC)10tic vesicles lli 
Plasmatic zone 1.3:6 
Plasmin 1.22 
Platelets, surface charge W 
Platinum electrodes 281. Platinum loop Z1ll 
Pleomorp hic carcinoma 20. Pleural and peritoneal fluid W 
Pleural drainase tube 273. 280. 292 
Pleural retraction pockets ~ ~ & l1,b 
ill 
PJeural thickening 19. 21. 195 
Pliability of the cell W 
Pneumothorax 273,280,292,313 
Polarity in corrosion W 
Polarization l!dl 
by the ruberculous agent ill 
ofblood 62:Z.l 
oftumoun 46-53.63-67 ,199.203-2 11, 
ill:lli 
products 119. 134. 143 
Polymers} fonnation of M 
Polymorphonuclear cdls 262 
Polypeptide precursors of collagen Z:lO. Poorly differentiated squam.ous cell carci-
nonuoflung m 
Pores, endothelial ill 
.. Positive chemotaxi s .. by bacteria ill 
Postmonem contraction of material t.:H 
Potential measurements for differential 
di11,gnosis ~ 2.ll 
Precapillary sphincters UZ 
Precipitate 
as a "8" zone 120. 14J-n46 
Precipitation of calcium ~ 1 ~ ~ llL lli 
Precursors for cathodic and anodic fibrous 
tissues ~ Prefettntial adsorption 110. Prefe~ntial attnction W 
Preferential pathways for c.urre.nt !1L 
ill. !21.~ 
Premedication 225 
Premenstrual phase ill 
l'ffilperative nt<dle biopsy 2lll! Pressure of gas at electrodes 1~ 22j 
Pressure variables in elcctrooSJnO$is &I 
Pressure-volume factor 157. ISS 
Primary cancen, treated m 11.0. Primary destruction of DU!tignan t tumours 
lli 
Primary injury 286. Primary ionization ill 
Primary processes of pericytes ll2 
Primiti\'e channe.l in fibrous tissue 2!! Primiti\'e plactopbores ~21m 
Principle 
for development of biological mem­
branes l.Y. of a driven S)'Stem 163::.112, llO 
of biologically dosed electric circuits 
(BCEC) 4, 112-150, 152-ln, 318 
of molecular fon:es 75-77, 93-104.llJ! Processor for direct current treatments m 
Production of ionan and ergonars 164. ~ 
Productive fibrosis 211.212,228 
Profile of e&ectric: potential 
in breast rumours 2ab2.ll 
in lung tumows 46-53. ~ 
Profiles of potential, variability of zo. ProgreMive injuries ill 
Prostaglandins !2! !, ill 
Prosthetic group of myo-and haemoglo­
bin ~ 
Protection as a function of the environ­
ment LiS. Proteolytic activities 2.ll. Protons 
diffusion Zl 
liberated as part of hydrolysis l2D 
liberation of z.b l!d::.ill 
Protrusions and electrical edge enhance. men.t 9~104. 266 
Proximal histidine ill 
Pseudoc:ry>tallinic aggregates l!l! Pseudopods 1M, ~ 263. 264 
Psychological factors in oral galvanism ill 
Pulmonary adenocarcinoma Z26 
Pulmonary angiogram 228. Pulmonary oedema ,U 
Pulmonary tuberculosis l.ll 
Pumping of blood; an ind_iscriminate bulk 
transport ill 
Q 
Quadripan itc energy of ergonars and ion­
ars U2 
R 
Radial SC"-.t.r tissue ill 
Radiating scar tissue 21Z 
Radiatingstru ctures ~~zm ,m212, ill --
bctwcc.n "ce-lls" ill 
in cells 1.&1 
of dl~coruinuou! type 22 
without"A"or "B .. zones lli 
Radi>tion therapy ill 
Radi<als from the ON A lli 
Radiographic intravascular contra-st 
medium ill Radiographic signs of corona s.trucrures ~ 
Radiogrophy 
breast U 
cbC$t U 
oblique fll;ms 11 
quality of U 
Radiolucency of water-deple ted zone 2llO 
Radiolu«nt "A" zone, see "A" zone 
Ractiopaque "B" zone, see "8" zone 
Radiopaque ,line in bone ill 
Randomness of distribution 28 
R.tnvic:r•s nodes ill 
Rapid pre~Sure phase in electrophoresis &5. Rate of «lluftar di!Bth l2!l 
Rates of production and elimination of gas 
l1i 
Receptor fumction of BCEC for external 
electromagne tic forces ~ 
Recombination of ions l!dl 
of prorons and hydroxyl ions 82. 179 
products 211 
zone ~ W 
Redistribution 
of blood 6ow 2llO 
of movable particles 93-104. ill 
Redox and diffusion potentials ~ 
lZll 
Redox half·ractions of ions and c:rgon.s w 
Redox i.oterph.ases i, 1~150. ill 
Redox potentiaJs ~ W 
Redoxreacti-ons 113 1¥6150 
and fibrous mc:.mbrane s ll2 
in BCEC S)'ttc:ms S. 
Redox sites of endothelia l membranes ~ 
.IMd.lJl 
Redox stt-ps in the capillary walls i.. 
144-150,322 
Redox systems 160. Red·yellowish zone in fat tissue: L ~ 
Referc.nce tissue:: 121 
Referred pain ill 
Regional bio.logic effects 2RZ. in smaU arteries exposed to an electric 
field ill 
of anerioles and arterial capiUariC$ W 
Regional perfusion of cytostatic com­
pounds ill 
Regions of d.q:n.dation lli 
Regressing polarization of a lesion 1ll... 
ill 
Regressio n ofcantt,r 212.295. 309 
Relati.,•e polarity in tissue-metal corrolion 
Ill 
Removal of gas 220. Repcllins haemoglobin l.8li 
Repulsive fo:rces 26 
Resj•ti.,tity 
alternating current U6. of tissue and body fluids W 
pulsed dir«t cu.rrent U8 
Resistivity and capacitance in biologic cis-
sues 282 
Resonance c:!ffccc of excited de<:trons 115 
Respiratory arrest JJl2 
Respiratory comfort and safety 223 
Respin.tory !insufficiency ru 
Restricting factors 
inertness of matter 22 
matrix functions 21 
Resuhs of treatment 
by direct current 302 
by electrocoagulation 2lh. Reticular structuring of cytoplasm ill Reticulum of nc::urofibrils ill 
Reticulum srructures 2.36. Reuaction produced by elecuoosmotic de­
hydration 265 
"Retraction oedema'' 22& 
Retraction of the skin,~« skin n::traetion 
Rcttaction pocket It 35-38. ~ 22.&::.ll2 
Retrieval of energy of ergonars l1l 
Reversjble oxygenation 1.56. Rhythmic potentials in the Ji.,·er 62 
Ring·like slrllcturts ill 
Ring-structu res W 
Riw of producing mctaS!a$C$ 2&3 
"Rods·" 2!1 
Roll sheet table ill 
Rotex biopsy cannula ill, 286::::22.1 
s 
Safety circuits 22.5: 
Salt bridg< carrien ~ 
Scirrllouscanccn 211.212.228.326 
Sclerosing adcnosi> lll 
Screw-cannula·e lecuode ill 
Screw needle for sampling of cellular mate· 
rial 205,286-291 
Second messenger ill 
Seconcb..ry electrode reactions of vesicles 
U2 
Secondary induction of biological proc­
essco Zl!li 
Secondary ioniudon at electrode-equiv-
alent sites ill 
Secondary processes Ill 
Sqme:ntal apillary contractio ns ill 
Segmental mode of ceo tractions 1!1 
Sclcctivt migrations lil 
Sc:.lc:ctivc rept.llent forcr on cells 1.82 
Selective uanspons ijJI. 1.6!1 
Sc.lf-driving electric cell 1M 
Self-driving system ~ 32.2 
of a BCEC 1.62 
Semipermeable:: membrane:: 200 
"Semjpenncable'' sieYe U3 
Sequential reactions 118.285.321. 123 
Seques:tration of destroyed tumour tissue 
307,314 
Serotonin m lli 
Shaggy margins 212 
Shielding for magnetic fields ill 
Short~sta nce sekctivt-transporu ~ 
~~~ 
Shon·nnge forces ll 
Shrew ill 
ShrinkJ3e of tissue 12j 
Shutters U 
Signs 
of corona structures !b ~ lYL 
43. 41. !9$.,202 20}=21$ 
of malignancy 2Qj 
Silicoois .U 
Simulated healing 286 
Sirocco winds ill 
Sites 
of blecdinss ill 
of changt> of density of current lZ1 
of least resistance 1.2:5: 
Sites for m:lox steps of the VICC W 
Size and gcomeU')' of ei<CU'Odes lll 
Skeletal metastases 218 
Skin retraction m 228-232. ill 
Skin thickening ZlU., Zll.ll8:2ll. ~ 
ill 
"SUpping plane" 200 
Slow pressure phase in electroosmosi s 86 
Small arches, see arcades Small cell carcinoma 1.6 
Solubilicy of hydroxides of metals 113 
"Space of life" 8l! Spatial distribution of current 282 
Spicula(', spiculations 2U 
Spirochada paUida 2Q2 
Spontanrous electrophoresis over a BCEC 
ill 
Spontaneous genention of electric charge 
69.328 
Spontaneous healing of canccn 222 
Spontaneous interruption of cunc::nt ill 
Spontaneous ionizations over mdox sys· 
terns 120. Spontaneous necrosis 198 211 228 
Spontaneous reactions 
in degradation 2. f>2. !.!!. 1.29. 
toward a state of equilibrium 320. Spontaneous l't'gression of maJigna.nt tu· 
moun 176. 271 
Spontaneously developed pathological 
\'CS1cl llli 
Squamous cell carcinoma ~ ~ !L ~ 10. 
circular displacement of vessels 15 
poorl)' differentiated ll 
well differentiated ZL. 28 
Stabilizing factors ofmauices 26 
Staining of the: calcium ion ll2 
Stainless steel razor blade UlO. Standard reduction potentials 1.5! State of equilibrium 1.22. Steels in active states ll2. Stellate fibrous extensions or stnnds ill 
StertOradiographs 218. Stcn:otaxic instrument 13. 20S. 278 
Stereotaxic needle biopsy ~ Z2!. 26.1 
Stc:ric arrangcmt-nl of charges 266 
Stimulation of BCEC mechanisms ll6 
Stomata ill 
Straightness of radiating structures ill 
Striae: 212 
Structural adaptations in biology ~ ~ 
ll8 
Strucrural diffc::rcntialion ~ ll.8 
Structural interface$ l2l 
Structuring of water 8.1 
Subcutis, short circuiting of S.3 
Substance P 190.334 
Sunbunt changes, see corona structures 
Superimposed forces of BCEC systems 
lll...lll! Supponing matrices li2.. 2!U 
Supporting medium 1M...l&2 
Surface-charge of chemical groups 1.&8 
Surface-charge of ves~l walls 126. Surface friction 1.82 
SurgicaJ implants ll2 
Surgical remo\'al of solitary mct!ast.asis ill 
Suf\'ival time of monocytc:s 26.3 
Switching of short-distance to long-distance 
transpons ~ ill 
Synaptic stimulation ill 
Systemic circulation U2 
T 
Target for electroma.gnc:ti c induction of 
currt'.nt ill 
Targets for precipitation of calcium ~ 
ill 
Temperature measurements in t-lectrOOS· 
molis 82 
Testicular teratocarcinoma 226 
Then.pcutic acc-umulation of panu1ocytes 
w 
Then.pcutic poss.ibilitcs 2D2 
Index 357 Thermal motion till 
Thermodynamics l11 
Thc:rmoelectric detector needle 112 
Thickened ceiJ membranes 2.36. Threonine ill 
Thrombi u sites for redox reactions ill 
Thromboembolism ill 
Thrombosi s ~~ 
around carcinomas 116 
around the anode 1.80. 
in the anodic field 6 
of capillaries 2l5, 294 
Tissue circulation, influence of ru 
Tissue cultures 220 
Tissue c:ntropy U8. Tissue matrix 
influence of 2!S 
of cell membrar.es W 
Tissue potentials, rate of losses 2 
Tissues with rcJatn·ely insulating proper· 
ties 124-128.331 
Topography 
of a polari:Qng tody 200 
of radiating suuctures ill 
''T o1al activity" Z2 
Toxic effects 
of di.ssolved metal lli 
on cells Ul! Toxic injuries l.3:t 
Traffic accidents ill 
Transcapillary gradients lJ6 
Transcapillary openings ill 
Tran:~fcrcncc nurn.bcn of ions l2l 
Transfer of charge in water electrolysis 
~ 
Transformation of fat "ceUs" ill 
Transformations of red blood cells 181 
Transition in an intermediate zone ill 
Transmcmbra nous difference of physico. chemical potential W 
Transmemb ranous ionic transpons ill 
Transmission of heat 28.1 
Transmitter precunor ill 
Transminer subsnmccs carried by vesie:l~ 
145.~~111 
Transport energy in electrOOSmosis &2 
Tran..';port in intnvascular branchc:s 32.l 
Transpon media ~ 
Trantpon o{ dic1ecuic5 22:::2.1, 93-104. 14<1, 149,171, 179 
Transport of elecuic energy 111 
Transport of prouins W 
Transportofwate:r 8.1:2.1 
Tnnsport systems l.!iQ 
Traumatic bleeding ill 
Triggering of"loca.l" reactions ill 
"True" healing ~ 
Tryptophan 125 
358 Index Tuberculomas 32 
Tuberculous foci 260. Tumour borrier JQi, !M. m milL 
ill 
Tumour cells 
around the anode UQ., 22.1 
surrounding tumour Z1l 
Tumour e.lectrod~ 22.1 
Tumour, producing stasis 2lS. Tumour spread 2l 
Tumours, semisolid or cavi:ary 2.88 
Turgor pressure ll: ~ ~ tz2..t 222. 
ill, 22! Types of electrodes Z8!! :.l!l 
Tyrosine ill 
u 
Uhralow frequencies (ULF> ill 
''Uncomplicated corrosion" ill 
Undes.irable effects ill 
Undulating structures 222 
Unexpected reactions from nerves 222 
Unforeseen pathways for the current Z2:i 
Unidirocrjona l current m.lli 
Unidirectional Oow of currfnt over long 
tim~ periods ill 
Unidirectional gradient of injury potential 
ill 
Unidirectional mode of current lli 
"Unipolar" electrOdes ill 
v 
Vacuoles in cells W 
Valen<"e eleC'trons 15.5. Vanishing '' 8" zone 2.1 
Variations in vascu.larity ill 
Vasa V8.$0rum ll2....J.28. Vascular block, e.g., arteriosclerosis llO. Vascular-ductal closed clce1ric circuit 
(VDCEC ) l2B 
Vascular el«trical n:sistance ~ ill 
Vascul.u·interstitial closed circuits (VICC) 
4,122-150,318-336 
Va$Cu1ar intima, charges of 2l 
Vascular pockets 176. 171. 200 
Vascular pulsations atound carcinomu of 
the lung 200 
Vascular thrombosis 270. 333 
Vascularity, improvement of ~ 
Vectors of ~netgy eomponctlts Ul 
VenocapiJI.a.ries I,!L ~ L.9J. Venocapillary accumulation of leukocytes 
138-141. ~ ~ w 
VenouscapiUarics 146.322 
Ventilation and perfusion U2 
Venules and venous capillaries U.S. Very low frequencies (VLF) ill 
Vesicles 
as micro<lus'ICr.S of molc:ules ~ lJ2. at nerve endings ill 
in inten:lcctnxiic transfer of energy W 
in nerve transmission 112 
in the capillary membranes 1M. Vesicles as microergonars or microerfio n· 
an 14<1. 331.332 
Vesicular developme nt 14<1.171, !Sa 
Vesiculation W 
Vessels as electrically conducting "cables" 
122-150.319 
Viability ofbreaSI cancer cells 260 
VICC i.,l22-150. 3.1.8:136 
a system for se-lective uansports ! !L. LIB 
for development of \'esse:ls 24~256 
in carcinogenesis ill 
influence on distant reactions ~ 
.l.I..S:ll6 
Visual search pa.nerns 11 
Volume 
of necrotic tissue 2ll 
of tumour 21l 
Volume·pressure ~ 1.22 
w 
Walls of "large" vessels LIB 
Washout of arriving iom ~ ill 
Water in hypoxic tissue 12 
Water molecules, a movable matrix Ul 
Water potential WO 
Water pre5$ure around the anode 2E2 
Water transport 79.271 
Wave-lil<.e transformations of energy ill 
Wet crystalline haemoglobin ill 
Wet di2lhermic electrocoagulation ill 
White blood cells, accumulation of in a 
closed circuit 7. 187. 262 
Winged electrode 288. Wound healing h ~ ~ ~ ~ ~ 
281,286,325 
W ·shaped potential profile W 
X 
Xeroradiography U 
without compres'Sion 2.2! X·ray attenuation 2..Ul 
y 
Yellowish zone ~ 26J 
Yin and yang of a meridian 122 
z 
Zeta potential ~ Z6i 
Uta potentials of cells l U 
Zoneoflowelectrondens:ity ~ 
Zone of zero charge 1M 
Zones: of calcification UL.ll.2
631928626-Biologically-Closed-Electric-Ci-Bjorn-Nordenstrom-pdf.txt
Summarize the following text section accurately and concisely. Maintain specific details and numerical information, and use anti-repetition mechanisms:

        325 
in the lung ill 
mechanism of development lD. Lanolin 2. 60 
Lateral inhjbition l6 
Leak of current 1. 66 
Leaking junctions 135. 175 
Leaking vc:nules W 
Leukocyte accumulation 
around the anode lBZ. 26:i 
around the cathode 1. 2. in inflammation 120 
massi. ,. ely destroyed in the ancxtic field 
l2ol 
Leukocytic locomotion 1. 20. Leukotax. i. ne ~ 262 
Level of entropy ill 
levelling of electric gradients ill 
Liberation of radicals in degrading tissue 
~ 116. 320 
Liberation of energy 128 
ulinear shadows crossing a tumour. ll 
Lipophilic substances ill 
Liquid fat 21. 8 
Liquid fat zone 2. Z2. Liquid junction potential JMl 
Liquid·perfused electrodes llb ill 
Liquid water 
energy 80. StrUCt'Urt 80. litmus reactions at organ surfaces ~ ill 
Liver caps-ule, development of W 
Local contraction of small vessels UB. Local dys:trophic changes ~ mill 
Local electrocoagulation llb lli 
Local infecllon ill 
Local injury 2fi5 
Long-distance: sc:lwj.
The text does not explicitly mention the mechanism of development of a lung tumour. However, it does mention "leukocyte accumulation around the anode" and "leukocyte accumulation around the cathode" in the context of inflammation, which suggests that it may be related to the development of a tumour.
What is the mechanism of development of a lung tumour?
The text does not explicitly state the function of a BCEC system. However, it does mention "mechanism of development" and "mechanism of healing" which suggests that it may be related to biological processes.
What is the function of a BCEC (Bio-Electro-Chemical Circuit) system?
The text states that "leukocyte accumulation around the anode" and "leukocyte accumulation around the cathode" occurs in the context of inflammation.
What is the role of leukocytes in the context of inflammation?
The text does not provide a definition for the term "Mach effect". It only mentions it in the context of electric fields.
What is the term "Mach effect" referring to?
The text does not provide information on the purpose of a "Processor for direct current treatments".
What is the purpose of a "Processor for direct current treatments"?