Literature DB >> 35757673

Approach-avoidance tendencies in depression and childhood trauma: No effect of noradrenergic stimulation.

Christian Eric Deuter1, Janna Smit1, Michael Kaczmarczyk1,2, Katja Wingenfeld1, Christian Otte1, Linn Kristina Kuehl3.   

Abstract

Adverse childhood experiences (ACE) are a major risk factor for major depressive disorder (MDD) in later life. Both conditions are characterized by dysregulations in the noradrenergic system related which again could represent a mediating mechanism for deficits in affective processing and behavioral functioning. In this double-blind, placebo-controlled study we tested the hypothesis that ACE and MDD are characterized by aberrant approach-avoidance (AA) tendencies and that these are mitigated after noradrenergic stimulation with yohimbine. In a mixed-measures, fully crossed design, participants (N = 131, 73 women) with/without MDD and with/without ACE received a single-dose of yohimbine or placebo on different days, followed by an AA task. We found modulation of AA tendencies by the emotional valence of target images, yet there were no effects of group or treatment. From these results, we conclude that AA tendencies are not critically affected by MDD or ACE and that the noradrenergic system is not substantially involved in this behavior.
© 2021 The Authors.

Entities:  

Keywords:  Adverse childhood experience; Approach-avoidance; Emotional processing; Locus coeruleus; Major depressive disorder; Noradrenaline; Norepinephrine; Yohimbine

Year:  2021        PMID: 35757673      PMCID: PMC9216672          DOI: 10.1016/j.cpnec.2021.100077

Source DB:  PubMed          Journal:  Compr Psychoneuroendocrinol        ISSN: 2666-4976


Introduction

Motivated behavior is severely altered in patients with MDD, as expressed in social withdrawal, diminished approach to rewarding goals and lack of volition to evade unpleasant conditions. In typical behavioral paradigms for experimental assessment of approach-avoidance (AA) tendencies, participants are either required to pull/push a lever or joystick to increase/decrease the size of affective stimuli on a computer screen, usually words or images of facial expression, or to move a manikin or avatar on the screen towards (approach) or away (avoidance) from those target stimuli [10,12]. Healthy participants exhibit characteristic behavior, i.e. faster responses and lower error rates when approaching positive and avoiding negative stimuli. Previous studies found reduced approach behavior in MDD [1] or generally diminished AA tendencies [14], potentially reflecting a motivational process that could contribute to the pathogenesis of MDD. Adverse childhood experiences (ACE) are an important risk factor for MDD in later life [17] and contribute to aberrant AA tendencies as well [7]. ACE seems to generally increase avoidance tendencies, primarily to negative stimuli [8]. Patients suffering from MDD often report ACE, yet many studies conflate both. Of note, both MDD and ACE are characterized by dysregulations of the locus coeruleus-noradrenergic system, which is also evident as a result of ACE [2,15]. While the pathophysiological mechanism behind these dysregulations is not fully understood yet, chronic stress during due to ACE could be a contributing developmental factor [15,17]. It has been shown that noradrenergic signaling and α-adrenergic receptor activity play a role for MDD patients’ cognitive and affective response patterns in different situations and paradigms [13,19]. However, to our knowledge, no study so far has investigated the role of noradrenaline for AA behavior in MDD and ACE. Therefore, we systematically varied these factors by including participants with/without MDD and with/without ACE and assessed the effect of a single dose of yohimbine – a α2 adrenoceptor antagonist that increases central availability of noradrenaline – on AA tendencies. In the absence of our treatment and when compared to healthy controls, we predicted lower approach tendencies to positive stimuli in depressed patients. Further, we expected higher avoidance of negative stimuli in participants with ACE, when compared to those without ACE. These aberrant AA tendencies should both be present in the group that combined MDD and ACE. We hypothesized that these characteristic response patterns in MDD and ACE should be reduced following the administration of yohimbine, i.e. we expected significant between-group effects for the placebo condition which should have been reduced or absent after our treatment.

Methods

We subjected 138 participants to this double-blind, placebo-controlled design, seven participants did not provide full data sets or were excluded for technical reasons. All participants provided informed written consent, the study was approved of by the local ethical commission. Participants received a single dose of 10 mg yohimbine and placebo on two separate days in quasi-randomized order. Patients fulfilled the criteria for an acute episode of MDD; ACE was defined as repeated physical or sexual abuse at least once a month over one year or more until the age of 18. Both were assessed in structured clinical interviews. The AA task was part of an extended study setup; the results of other tasks and the general methods (participant and demographic characteristics, general procedure, assessment and analysis of blood pressure and salivary alpha-amylase) have been reported in detail elsewhere [4,11,16]. We assessed AA tendencies using a task developed by Ref. [3] and later validated by Krieglmeyer et al.(2010). Image stimuli were obtained from the FACES database [5]. In this task, participants had to move a manikin either towards (approach) or away (avoid) from a target image depicting an angry or happy facial expression by pressing the up- or down arrow keys on a standard keyboard. They were instructed to imagine that they themselves were the manikin and to respond as fast and accurately as possible. Two blocked conditions were implemented: in the congruent response condition, participants had to approach happy and avoid angry faces; this pattern was reversed in the incongruent condition. The order of blocks was counterbalanced between participants. Emotional expression varied trial-wise (see Fig. 1).
Fig. 1

(A) Sample trial from the congruent condition. In this case, the manikin had to be moved towards a happy face by three consecutive button presses of the arrow key. After full approach, the slide remained for 500 ms. The manikin could appear above or below the face picture in random order. For avoidance, the manikin had to be moved away from the face to the upper or lower edge of the screen. Responses in the wrong direction and no responses for 1500 ms were considered errors. (B) The manikin (left) and sample pictures of happy and angry, male and female faces. Each model appeared in both expressions. The order of valence and sex was randomized.

(A) Sample trial from the congruent condition. In this case, the manikin had to be moved towards a happy face by three consecutive button presses of the arrow key. After full approach, the slide remained for 500 ms. The manikin could appear above or below the face picture in random order. For avoidance, the manikin had to be moved away from the face to the upper or lower edge of the screen. Responses in the wrong direction and no responses for 1500 ms were considered errors. (B) The manikin (left) and sample pictures of happy and angry, male and female faces. Each model appeared in both expressions. The order of valence and sex was randomized. Reaction times (time from image onset to final manikin position), response latency (image onset to first button press) and accuracy (percent of correct responses) were taken as outcome measures. Data were analyzed by conducting mixed-measures ANOVAS, with the within-subject factors ‘emotion’ (happy vs. angry), ‘AA’ (approach vs. avoidance) and ‘drug’ (placebo vs. yohimbine) and the between-subjects factors MDD and ACE, p < .05 was considered to indicate statistical significance. Data analyses were carried out using SPSS 22.0.

Results

We found an interaction between ‘Emotion x AA’ for all outcome measures: in the congruent condition (approaching positive and avoiding negative stimuli), participants made more correct and faster responses, i.e. these were initiated at shorter latency and reached the final position faster, compared to the incongruent condition. However, we found no main effects or interactions for any outcome that included the experimental manipulation ‘drug’, or the group factors ‘MDD’ or ‘ACE’: yohimbine did not affect reaction times, response latency or accuracy and we also did not find significant group effects in these measures (all p > .05, see Table 1).
Table 1

Mean scores and standard deviations (SD) for each group and results of statistical analysis. Abbr.: Emo = Emotion (happy vs. angry), AA = Approach vs. Avoidance, MDD = Major depressive disorder, ACE = Adverse childhood experience, * - indicates statistical significance.

MDD+/ACE+ (n = 27)MDD+/ACE-(n = 26)MDD-/ACE+ (n = 30)MDD-/ACE-(n = 48)Fdfpetap2
Reaction TimeStatistics
Emo x AA*85.331,127<.0010.400
Emo x AA x MDD0.081,127.780.001
Emo x AA x ACE0.141,127.710.001
Emo x AA x MDD x ACE1.201,127.280.009
Emo x AA x Drug0.261,127.610.002
Emo x AA x Drug x MDD0.851,127.360.007
Emo x AA x Drug x ACE<0.011.127,97<0.001
Emo x AA x Drug x MDD x ACE




0.45
1.127
,50
0.004
Time in ms, Mean (SD)
Placebo
approach happy2970.42 (541.57)2840.07 (600.40)2769.89 (555.26)2702.79 (560.50)
avoid happy3246.78 (584.05)3099.48 (648.81)3109.12 (600.24)2940.57 (552.88)
approach angry3111.57 (602.09)3014.73 (662.95)3015.09 (639.51)2836.39 (575.87)
avoid angry
3138.63 (484.19)
2901.73 (549.43)
2946.29 (530.81)
2802.87 (497.16)




Yohimbine
approach happy2970.42 (541.57)2840.07 (600.40)2769.89 (555.26)2702.79 (560.50)
avoid happy3246.78 (584.05)3099.48 (648.81)3109.12 (600.24)2940.57 (552.88)
approach angry3111.57 (602.09)3014.73 (662.95)3015.09 (639.51)2836.39 (575.87)
avoid angry
3138.63 (484.19)
2901.73 (549.43)
2946.29 (530.81)
2802.87 (497.16)




Response delayStatistics
Emo x AA*83.651,127<.0010.397
Emo x AA x MDD0.091,127.760.001
Emo x AA x ACE0.251,127.620.002
Emo x AA x MDD x ACE0.611,127.440.005
Emo x AA x Drug0.201,127.660.005
Emo x AA x Drug x MDD0.301.127,590.002
Emo x AA x Drug x ACE<0.011,127.97<0.001
Emo x AA x Drug x MDD x ACE




0.57
1.127
,45
0.004
Time in ms, Mean (SD)
Placebo
approach happy784.61 (161.53)748.15 (182.10)728.46 (168.45)709.85 (176.30)
avoid happy877.52 (180.04)831.50 (190.98)836.38 (184.82)786.21 (170.43)
approach angry836.85 (191.96)806.48 (197.82)804.19 (201.60)752.65 (179.36)
avoid angry
840.08 (144.97)
768.46 (156.32)
783.76 (156.18)
741.78 (151.49)




Yohimbine
approach happy762.78 (168.31)733.56 (153.78)736.75 (178.30)706.27 (173.13)
avoid happy863.47 (162.84)809.05 (172.44)818.97 (159.13)784.59 (171.52)
approach angry829.06 (171.56)802.19 (193.12)792.61 (167.55)758.49 (176.51)
avoid angry
824.39 (145.05)
769.09 (150.33)
776.15 (162.08)
754.26 (153.61)




Percent correct responesStatistics
Emo x AA*24.931,127<.0010.160
Emo x AA x MDD3.351,127.070.026
Emo x AA x ACE2.691,127.100.021
Emo x AA x MDD x ACE1.161,127.280.009
Emo x AA x Drug0.881,127.350.007
Emo x AA x Drug x MDD1.491.127,220.012
Emo x AA x Drug x ACE0.191,127.660.002
Emo x AA x Drug x MDD x ACE




3.12
1.127
,08
0.024
Percent, Mean (SD)Placebo
approach happy96.22 (5.51)96.55 (4.25)95.83 (6.66)96.96 (5.72)
avoid happy95.52 (4.72)92.07 (12.35)94.58 (8.76)96.74 (3.74)
approach angry93.90 (7.84)90.38 (13.30)95.90 (6.46)96.27 (5.14)
avoid angry
95.29 (5.85)
94.55 (6.15)
96.11 (5.52)
96.92 (4.05)




Yohimbineapproach happy96.22 (4.44)96.39 (5.39)96.74 (5.09)97.22 (3.85)
avoid happy94.37 (7.46)94.31 (6.73)95.76 (5.06)95.66 (6.46)
approach angry93.67 (11.75)92.63 (9.49)94.03 (8.36)94.44 (7.95)
avoid angry95.60 (5.34)96.71 (3.92)95.42 (4.75)97.53 (3.43)
Mean scores and standard deviations (SD) for each group and results of statistical analysis. Abbr.: Emo = Emotion (happy vs. angry), AA = Approach vs. Avoidance, MDD = Major depressive disorder, ACE = Adverse childhood experience, * - indicates statistical significance.

Discussion

We could replicate the basic AA effect, with facilitated approach to positive and avoidance of negative stimuli, and could therefore confirm the validity of the paradigm. In contrast to our hypotheses, the results could not demonstrate an effect of yohimbine on AA tendencies in MDD and ACE. In fact, these groups did not deviate from healthy controls, irrespective of our intervention. Possible explanations for the divergent findings in previous studies could be both in different paradigms and differences in recruitment. Analogous to Ref. [14] we used happy and angry facial expressions as negative stimuli. These stimuli have high ecological validity in the presence of high social anxiety, but may not be optimally suited to the specific mood state of patients with MDD. Future studies could use emotional pictures from the International Affective Picture System [1] or sad facial expressions in a similar setting, with “sadness” having a closer conceptual proximity to depression [9]. However, potentially expressions of sadness evoke different approach vs. avoidance patterns from expressions of anger or other negative stimuli, such as the tendency to help the sad person and provide comfort, which certainly would need to be taken into account. The effects of ACE also might have been more prominent with trauma-specific stimuli. Also, some previous studies used a different task response layout, which requires the participant to pull or push a joystick lever to increase or decrease the size of the image. While the task that we employed is better suited to assess AA tendencies in a general population [10], this might not be the case for the clinical groups that we investigated. Further, other studies found effects of MDD when taking other factors such as rumination [6] into account, which suggests that these effects are restricted to specific subgroups. In contrast to many previous studies, patients in our study were tested directly before the start of pharmacological treatment and received no antidepressant medication. Our sample size was large enough to detect effects with a medium to small effect size (f = 0.175). Although previous studies describe effects of MDD in this order of magnitude we would like to point out that findings in this field are heterogeneous, with a recent and sufficiently sample-sized study also reporting no effect of MDD on AA behavior [18]. We conclude from our results that aberrant AA tendencies might not be a characteristic feature in MDD or ACE and therefore might not serve as an explanatory mechanism for affective and behavioral dysfunctions in these populations. As a limitation, we would like to point out that this is a cross-sectional study in adults, with the consequence that both ACE, and in many cases the onset of MDD, occurred decades ago. Whether this has an influence on the examined measures we cannot answer with this design. A reasonable extension would be the investigation in an adolescent sample or a longitudinal study with the aim to investigate the consequences of ACE later in life.

Declaration of competing interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
  17 in total

1.  Approach and avoidance tendencies in depression and anxiety disorders.

Authors:  Sascha Y Struijs; Femke Lamers; Maartje S Vroling; Karin Roelofs; Philip Spinhoven; Brenda W J H Penninx
Journal:  Psychiatry Res       Date:  2017-07-05       Impact factor: 3.222

2.  In action or inaction? Social approach-avoidance tendencies in major depression.

Authors:  Sina Radke; Franziska Güths; Julia A André; Bernhard W Müller; Ellen R A de Bruijn
Journal:  Psychiatry Res       Date:  2014-07-11       Impact factor: 3.222

3.  Enhanced noradrenergic activity by yohimbine and differential fear conditioning in patients with major depression with and without adverse childhood experiences.

Authors:  Linn K Kuehl; Christian E Deuter; Julian Hellmann-Regen; Michael Kaczmarczyk; Christian Otte; Katja Wingenfeld
Journal:  Prog Neuropsychopharmacol Biol Psychiatry       Date:  2019-08-22       Impact factor: 5.067

4.  Effects of noradrenergic stimulation on memory in patients with major depressive disorder.

Authors:  Katja Wingenfeld; Anja Kuffel; Christiane Uhlmann; Kirsten Terfehr; Julia Schreiner; Linn K Kuehl; Christian Otte; Bernd Löwe; Carsten Spitzer
Journal:  Stress       Date:  2012-08-02       Impact factor: 3.493

5.  FACES--a database of facial expressions in young, middle-aged, and older women and men: development and validation.

Authors:  Natalie C Ebner; Michaela Riediger; Ulman Lindenberger
Journal:  Behav Res Methods       Date:  2010-02

6.  Attentional biases for negative interpersonal stimuli in clinical depression.

Authors:  Ian H Gotlib; Elena Krasnoperova; Dana Neubauer Yue; Jutta Joormann
Journal:  J Abnorm Psychol       Date:  2004-02

7.  Spider-fearful individuals hesitantly approach threat, whereas depressed individuals do not persistently approach reward.

Authors:  Gregory Bartoszek; E Samuel Winer
Journal:  J Behav Ther Exp Psychiatry       Date:  2014-08-08

8.  Noradrenergic activation induced by yohimbine decreases interoceptive accuracy in healthy individuals with childhood adversity.

Authors:  André Schulz; Christian E Deuter; Ion-Hideo Breden; Claus Vögele; Katja Wingenfeld; Christian Otte; Linn K Kuehl
Journal:  Dev Psychopathol       Date:  2021-01-15

9.  Noradrenergic system and cognitive flexibility: Disentangling the effects of depression and childhood trauma.

Authors:  Christian Eric Deuter; Katja Wingenfeld; Christian Otte; Jasmin Bustami; Michael Kaczmarczyk; Linn Kristina Kuehl
Journal:  J Psychiatr Res       Date:  2020-04-05       Impact factor: 4.791

10.  Automatic approach-avoidance tendencies as a candidate intermediate phenotype for depression: Associations with childhood trauma and the 5-HTTLPR transporter polymorphism.

Authors:  Pascal Fleurkens; Agnes van Minnen; Eni S Becker; Iris van Oostrom; Anne Speckens; Mike Rinck; Janna N Vrijsen
Journal:  PLoS One       Date:  2018-03-16       Impact factor: 3.240

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.