01. terapi progesteron pada kehamilan, bukti atau tradisi [1-10] - noroyono wibowo

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01. Terapi Progesteron Pada Kehamilan, Bukti Atau Tradisi [1-10] - Noroyono Wibowo

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  • Terapi Progesteron pada Kehamilan, Bukti atau Tradisi?

    [email protected]

  • Maintains secretory endometrium Protects against fibrocystic breasts Helps use fat for energy Acts as a natural diuretic Acts as natural antidepressant Facilitates thyroid hormone action Normalizes blood clotting Increases sex drive Normalizes blood sugar levels

    Normalizes Zn & Cu levels Restores proper oxygen cell levels Prevents endometrial cancer Prevents breast/prostate cancer Stimulates osteoblastic bone building Restores normal vascular tone Functions as a precursor of corticosteroids Increases sensitivity of estrogen receptors Allows embryo to survive

    is required for all aspects of female reproductive function, including : sexual behaviour, gonadotrophin secretion, ovulation, blastocyst implantation and maintenance

    of pregnancy .

    Mulac-Jericevic et al. 2000, Conneely et al. 2002, Mulac-Jericevic & Conneely 2004

  • Kasus 1 Ny. A datang dengan perdarahan pervaginam disertai sedikitnyeri di perut bagian bawah, saat ini terlambat 10 minggu

    .

    .

    ..

    CBC: NAPTT/PT : NhsCRP: 8 mg/mLP4: 12 ng/dL

    Subchorionic hematoma: 12 X 8 mm

  • Terapi:Progesteron 400 mg Vit. D 400 IUVit A 5000 IU per hariDHA 300 mgVit C: 200 mgVit E: 200 mgSe: 100 ugZn: 25 mgFolic acid: 400 ugB6: 15 mgCa: 1000 mg

  • 1 hour 2 hours 3 hours 4 hours 5 hours 6 hours 12 hours

    0 ng(n= 3)

    31 + 5 ng(n= 3)

    267 + 84 ng(n= 3)

    254 + 305 ng(n= 3)

    299 + 87 ng(n=3)

    223 + 98 ng(n= 3)

    77 + 23 ng(n= 3)

    The mean+ SD extractions of progesterone from 100 mg of myometrium collected at the same timed intervals after vaginal application of progesterone

    Humrep. 1997; 12: 10731079

  • Classification of progestinsProgestin ExampleProgesterone

    Retroprogesterone

    Progesterone derivative

    17-Hydroxyprogesterone derivatives (pregnanes)

    17-Hydroxynorprogesterone derivatives (norpregnanes)

    19-Norprogesterone derivatives (norpregnanes)

    19-Nortestosterone derivatives (estrames)

    19-Nortestosterone derivatives (gomanes)

    Spirolactone derivative

    Natural progesterone

    Dydrogesterone

    Medrogestone

    Medroxyprogesterone acetate, megestrol acetate, chlormadinone acetate, cyproterone acetate

    Gestonorone caproate, nomegestrol acetate

    Demegestone, promegestone, nesterone, trimegestone

    Norethisterone = norethindrome, norethisterone acetate, lynestrenol, ethinodiol acetate, norethinnodrel

    Norgestrel, levonorgestrel, desogestrel, etenogestrel, gestodene, norgestimate, dienogest

    Drospirenome

    According to reference (5-8)

  • Table 6 Relative binding affinities of progesterone and synthetic progestins to steroid receptors and serum binding proteins

    Progestin PR AR ER GR MR SHBG CBG

    ProgesteroneDydrogesteroneChlormadinone acetateCyproterone acetateMedroxy-progesterone-acetateMegestrol acetateNomegestrolPromegestone (R50/20)DrospirenomeNorethisteroneLevonorgestrelNorgestimate3-Keto-desogestrelGestodeneDienogest

    50756790115

    6512100357515015150905

    00565

    5606515450208510

    0-000

    0000000000

    10-8629

    3065601114271

    100-08160

    0053230075002900

    0-000

    00001650015400

    36-000

    0000000000

    The reference steroids are listed. Taken from refernce (8,1013,15). PR: progesterone receptor (promegestone = 100%). AR: androgen receptor (metribolone = 100%). ER: estrogen receptor (estradiol-17 = 100%). GR: glucocorticoid receptor (dexamethason = 100%). MR: mineralcorticoid receptor (aldosterone = = 100%). SHBG: sex hormone-binding globulin (cortisol = 100%).

  • Hum Reprod Up, 2009; 15: 119138

    TABLE 1 Rapid effects of progesterone in target tissues

    Physiological action Cell/tissue/organism Signalling pathway Reference

    Acrosome reaction/capacitation Human spermatozoa Ca2+ influx, CI- efflux, cAMP increase Luconi et al (2004), Blackmore et al (1991) and Kirkman-Brown et al (2000)

    Oocyte maturation Amphibian and fish oocytes G-protein activation and cAMP decrease, ERK 1/2 activation,P13 kinase activation

    Zhu et al (2003b), Thomas et al (2002), Maller (2001) and Bagowski et al (2001)

    Immunoregulatory function Human T-lymphocytes G-protein activation, K+ channel inhibition Dosiou et al (2008) and Ehring et al (1998)

    Platelet aggression Human platelets Ca2+ influx Bar et al (2000) and Blackmore (1999, 2008)

    Anti-apoptotic effects Rat granulosa cells MAPK kinase (MEK) inhibition, Ca2+ homeostatis, Protein kinase G activation

    Peluso et al (2001) and Peluso and Pappalardo (2004)

    Muscle contraction Human intestinal smooth muscle cells Ca2+ currents reduction Bielefeldt et al (1996)

    Vasoreactivity Rat vascular smooth muscle cells Ca2+ influx regulation Barbagalo et al (2001)

    Steroidogenesis and LH action Rodent Leydig cells Na- influx Rossato et al (1999) and El-Hefnawy and Huhtaniemi(1998)

    Lordois Female mice Frye et al (2006)

    Transepithelial resistance Human fetal membranes Not assessed Verikouki et al (2008)

    Actin cytoskeleton remodelling/cell movement Human umbilical vein endothelial cells, human breast cancer cells

    G-protein activation, P13 kinase and RhoA/ROCK-2 cascade activation

    Fu et al (2008a, b)

    Neuroprotection Mouse cerebral cortex, rat hippocampal neurons

    P13 kinase activation, ERK1/2 activation, Ca2+ influxinhibition

    Kaur et al (2007), Nilsen and Brinton (2003) and Cai et al (2008)

    Retinal neuronal activity Mouse rod bipolar cells P13 kinase activation Koulen et al (2008

  • Zones of Progesterone in Pregnancy(N=109)

    Zone 1

    Zone 10

    20

    40

    60

    80

    100

    120

    140

    160

    180

    2 4 6 8 10 12 14 16 18 20 22 24 26 28 30 32 34 36 38 40 42

    Zone 1

    Zone 1

    National Hormone Laboratory Pope Paul VI Institute

    Zone 2

    Zone 2

    Zone 2

    Zone 2

    Seru

    m P

    roge

    ster

    one

    (ng/

    mL)

    Weeks Gestation

    Zone 3

    Zone 3

    Zone 3

    Zone 3

    Zone 4

    Zone 4

    Zone 4

    22.427.7 29.7 30.0

    39.0 42.448.8 52.5

    56.565.9

    78.3 81.290.3

    100.3

    118.1

    134.2

    150.0164.0

    172.2

  • Reproduction (2001) 121, 319

    Progesterone increased threshold for any inflammatory response

    Progesterone with cAMP induces decidualization and PGDH induction

    Declining progesterone allows increasing nuclear factor expression Protective PGDH declines

    Prostaglandins rise in perivascularcells NF-B events are de-repressed

    Oedema and cellular ingress

    MMP activation Tissue sloughing

    Decidualization and pregnancy

    Reversible

    Irreversible

    Menstruation

    Progesterone concentration

  • When pregnancy occurs, progesterone induces decidualization of ESC with increased expression of Cu,Zn-SODand Mn-SOD. Cu,Zn-SOD suppresses PGF2 production by scavenging superoxide radicals in the cytosol andresults in uterine quiescence. Mn-SOD protects ESC from oxidative stress by scavenging superoxide radicalsgenerated in the mitochondria.On the other hand, when pregnancy does not occur, the decline of ovarian steroid levels (progesteronewithdrawal) induces the decrease in Cu,Zn-SOD expression in ESC, which in turn stimulates PGF2 production viareactive oxygen species. PGF2 produced by ESC causes endometrial shedding via vasoconstriction.PlacentaVol: 28, Supplement, April, 2007

    Progesterone Withdrawal

    Proteasome

    Cu, Zn-SOD

    Nucleus Endoplasmic reticulum

    IB

    NF-B NF-B

    COX-2 PGF2PGF2

    .O2-

  • Humrep.2006; 21: 25382544

    J Immunol. 1995; 154: 37713378Immunology. 2000; 101:191200

  • Nature Immunology 2007; 8, 124 125 Nuclear Receptor Signaling (2009) 7, e003 Nature Reviews Immunology 2008; 8, 523-532

    VitaminCu Se Zn Fe Es. Fatty acid Es. amino acid Prebiotic

    A C E B D

  • Prooxidant antioxidant Balance

    Cellular impact

    ROS

    Proliferation Apoptosis Necrosis

    News Physiol Sci 2004;19: 120-123

    VitaminCu Se Zn Fe DHA Cysteine Folic Ca Es. Amino acid

    A C E B D

  • Postbinding defect in insulin action during pregnancy is probably related to increasing amounts of progesterone,cortisol, PRL, and placental lactogen.Progesterone is implicatedin insulin resistance during pregnancy by inhibiting the PI3-kinase pathway at the step of (I) IRS1 expression and (II) distal to Akt, and by (III) suppressing the PI3-kinase independent pathway of TC10 activation by affecting Cbl phosphorylation. JCEM 1988;67;2: 341-347Am J Physiol Endocrinol Metab (January 13, 2010). doi:10.1152/ajpendo.00649.2009

  • Amino AcidArginine, CarnitineCysteine, GlutamineGlycine, IsoleucineLeucine, TaurineValine

    MineralChromiumSeleniumZincCa

    VitaminsB1, B2, B3B5, B6, B12Biotin, CholineFolic acid, InositolAscorbic acid

    Lipoic acidCo Q10D-RiboseMilk thistle (81.79% silymarins

    J. Clin. Invest. 118:29923002 (2008). doi:10.1172/JCI34260 http://www.progesteronetherapy.com/insulin-resistance.html , Journal of Endocrinology 2000; 166, 283291

    Insulin sensitivity: modulation by nutrients and inflammation

  • 17b-Estradiol could be responsible for the increase in insulin sensitivityduring early pregnancy when the plasma concentrations of 17b-estradioland progesterone are low.

    However, during late pregnancy, when the plasma concentrations of17b-estradiol and progesterone are high, the role of 17b-estradiol couldbe to antagonize the effect of progesterone diminishing insulinsensitivity.

    The effect of both hormones as proposed in this paper could appear tobe altered in the presence of high plasma concentrations of thelactogenic hormones and growth hormone, just as occurs during normalpregnancy.

    Journal of Endocrinology (2000) 166, 283291

  • .Kasus 2

    Ny. B datang pada kehamilan 26 minggu, dengan kontraksi 2-3X/10 menit

  • Actions of Progesterone on the Myometrium

    Decreases conduction of contractions Increases threshold for stimulation Decreases spontaneous activity Decreases number of oxytocin receptors Suppresses the inflammatory cascade

  • Actions of Progesterone on the Myometrium

    Inhibits T lymphocyte development Promotes expression of prostaglandin EP2 receptor Prevents formation of gap junctions Administration of progesterone antagonists stimulates onset of labor in

    women at term

  • A hypothetic scheme of the mechanisms that control progesterone responsiveness in the pregnant human myometrium

    1/2

    ACGS

    CRH, PGI2, PGE2GPCRs

    cAMP

    Co-repressors

    Co-activators

    ++

    +

    IB

    NFB+

    +

    +

    TBPpol-II

    Co-activators

    TBPpol-II

    Co-activators

    Progesterone responsive genes are active

    +

    doi: 10.1016/j.ajog.2006.09.005

    Progesterone

    Estrogen

    A

  • A hypothetic scheme of the mechanisms that control progesterone responsiveness in the pregnant human myometrium

    2/2

    doi: 10.1016/j.ajog.2006.09.005

    ACGS

    cAMP

    Co-repressors

    Co-activators +

    NFB+

    +

    +

    TBPpol-II

    Co-repressors

    TBPpol-II

    Co-repressors

    Progesterone responsive genes are repressed

    Progesterone

    Estrogen

    B

    +

    IB

    GS

    CRH, PGI2, PGE2GPCRs

    IL-1b, TNF

    PKC

    CRH, PGI2, PGE2GPCRs

    Estrogen responsive genes are stimulated

    + + +

    mPR, mPR

  • The Use of Progesterone for Prevention of Preterm BirthRecommendations

    1. Women at risk for PTL should be encouraged to participate in studies on the role of progesterone in reducing therisks of preterm labour. (I-A)

    2. Women should be informed about the lack of available data for may neonatal outcome variables and about thelack of comparative data on dosing and route of administration. Women with short cervix should be informed ofthe single large RCT showing the benefit of progesterone in preventing PTL. (I-A)

    3. Women and their caregivers should be aware that a previous preterm labour and/or short cervix (< 15 mm at 22-26weeks gestation) on transvaginal ultrasound could be used as an indication for progesterone therapy. The therapyshould be started after 20 weeks gestation and stopped when the risk of prematurity is low. (I-A)

    4. On the basic of the data from the RCTs and meta-analysis, it is recommended that in cases where the clinician andthe patient have opted for the use of progesterone the following dosages should be used: For prevention of PTL in women with history of previous PTL: 17 alpha-hydroxyprogesterone 250 mg IM weekly

    (IB) or progesterone 100 mg daily vaginally. (I-A) For prevention of PTL in women with short cervix < 15 mm detected on transvaginal ultrasound at 22-26 weeks

    progesterone 200mg daily vaginally. (I-A)

    J Obstet Gynaecol Can 2008:30(1):67-71

  • Fetal Diagn Ther 2011;29:197200

    Maternal serum concentration of progesterone-inducedblocking factor at 1113 weeks in pregnancies delivering spontaneously before 34 weeks (closed circles) and those delivering at term (open circles).

    In women who have a spontaneous early preterm delivery, the maternal serum levels of PIBF are not altered at 1113 weeks of gestation

  • Am J Reprod Immunol. 2010 Aug 1;64(2):77-86

    PIBF: the double edged sword. Pregnancy and tumor

    Progesterone-induced blocking factor is produced by pregnancy lymphocytes and also by malignant tumors. The PIBF-induced Th2-dominant immune response is favorable during pregnancy but might facilitate tumor growth by suppressing local antitumor immune responses.

    Szekeres-Bartho J, Polgar B

  • Progesterone rapidly suppresses the fetal inflammatory response, possibly via nongenomic activation of the cAMP cascade.

    Am J Obstet Gynecol 2009;201:211.e1-9.

  • Panjang serviks 2,5 cm dan Saat Kelahiran

    Karakteristikkelahiran preterm

    < 37 minggukelahiran aterm 37 minggu P

    Panjang serviks 2,5 cmPanjang serviks > 2,5 cm

    144

    015

    < 0.001b

    Lahir < 7 hari Lahir 7 hari

    Panjang serviks 2,5 cmPanjang serviks > 2,5 cm

    133

    116

    < 0.001a

    Lahir < 48 jam Lahir > 48 jam

    Panjang serviks 2,5 cmPanjang serviks > 2,5 cm

    70

    719

    0.001b

    aUji Chi-square; bUji Fisher

  • Progesterone Generally considered an anti-inflammatory steroid:

    IntImmunopharmacol 2001;1:10371048

    It opposes prostaglandin production in the uterus of pregnancy, partiallyby inhibiting cyclooxygenase (COX-2) expression, and by up-regulating15-prostaglandin dehydrogenase, aprostaglandin catabolizing enzyme

    Endocr Rev 1997;18:502519.Endocrinology 2000;141:581597.Mol Endocrinol 2006;20:27242733

    Preventing Premature Cervical RipeningAm J Obstet Gynecol 2008;198:314 e311318

  • Am J ObstetGynecol 2008;199:391.e1-391.e7.

    P4 significantly inhibited spontaneous contractility dose dependently. The inhibition was not blockedby RU486 but was reversible after washing. Surprisingly, 17P dose dependently stimulatedcontractility.

    Comparison of 17P to P4 on contractility Reversibility of P4 inhibition after washing

  • Progesterone as a Tocolytic 6 trials have been reported Various progesterone compounds used Design of studies varied None of the trials found a significant prolongation of pregnancy with the

    use of the progesterone treatment Progesterone treatment of women with active uterine contractions

    should be discouraged outside of research protocols

  • (J Soc Gynecol Investig 2005; 12: 466-78)

    Four Strategies for Targeting the PG synthesis-receptor cascade to delay preterm delivery and prolong pregnancy

    Membrane-bound Arachidonate

    Arachidonic Acid

    PGH2

    PGs

    PG Receptors

    PLA2

    PGHS-2

    PG Synthases

    1. Inhibit PGHS-2 (Nimesulide, Meloxicam, Roficoxib)

    2. Block receptor action (THG 113.31)

    NFB

    3. Antagonize NFBactivity (Sulfasalazine) Bay 11-0782)

    ? 4. Combination of 1, 2 and/or 3

    P4

  • Placebo Progesterone RR CI P value

    N 153 306

  • Am J Obstet ,Gynecol (2006) 194, 123442

    Study Progestational Agent n/N Placebo n/N RR (95% CI Random) Weight % RR (95 % CI Random)

    Johnson, 197518 1/19 11/25 5.0 0.12 (0.02, 0.85)

    Meis, 200319 111/306 84/153 64.6 0.66 (0.54, 0.81)

    DaFonseca, 200371 12/74 21/71 30.5 0.55 (0,29, 1.03)

    Total (95% CI) 124/399 116/249 100.0 1.57 (0.36, 0.90)

    Test for heterogenely chi-square = 3.38df=2 p= 0.18

    Test for overall effect z=2.41 P = .02

    Comparison : 01 Progestational agents vs placeboOutcames : 01 Delivery before 37 weeks

    1 5 10-1 -2

    Favours Treatment Favours Control

  • No. Estriol Estrone Estradiol Progesterone

    Birth weight (g) 567 0.32*** 0.13** 0.17*** 0.17***

    Birth length (cm) 566 0.21*** 0.06 0.08 0.12**

    Ponderal index (kg/cm3) 566 0.16** 0.11* 0.13** 0.08

    Placental weight (decagram) 480 0.18*** 0.07 0.09* 0.24***

    * p < 0.05; **p < 0.01; ***p < 0.0001.Sample size varies because of missing values of fetal growth indicators.

    Am J Epidemiol 2003; 157:258-266

  • No.Estriol (ng/ml) Estrone (ng/ml) Estradiol (ng/ml) Progesterone (ng/ml)

    Mean 95% CI* Mean 95% CI Mean 95% CI Mean 95% CIBirth weight (g)

  • Anatol J Obstet Gynecol 2009; 2: 1

  • Obstet Gynecol Clin N Am 39 (2012) 116

    Recent randomized trials of progesterone

    Author Date, Site Subjects Primary Outcome Intervention Results

    Da Fonseca et al33 2003, Brazil 157 women at high risk for preterm birth

    Preterm birth

  • Deficiency In primate placenta

    P450c17-hydroxylase

    cholesterol

    pregnenolone progesterone

    17-hydroxy-pregnenolone

    17-hydroxy-pregnenolone

    3b-HSD

    3b-HSD

    P450c17 lyase

    DHEA androstenedione3b-HSD

    DHEA sulfate DHEA

    3b-HSD

    16-OH DHEA sulfate 16-OH DHEASulfatase

    Sulfatase

    Fetal liver

    estriol

    estradiolestronearomatase 17b-HSD

    aromatase

    PLACENTAFetal a

    dren

    al g

    land

    s

    XQ Li et al. / placenta 35 (2014) 291-296

    The synthetic pathway utilized by human placenta for estrogen synthesis