Table 1 Longitudinal neuroimaging studies of trauma exposure.

From: Neural contributors to trauma resilience: a review of longitudinal neuroimaging studies

Paper

N

Breakdown TE = trauma exposure; TEC = trauma exposed control; HC = healthy control

% Female

Age (years) M ± SD (range)

Trauma type

Time since trauma + delay to follow-up

Structural differences

Functional differences

Connectivity differences

Bonne et al. [111]

37

All TE, 10 dev. PTSD

51

30.9 (20–65)

Mixed - ED

1 wk + 6 mo.

Hippocampal volumes (no difference)

x

x

De Bellis et al. [112]

18

9 maltreated, 9 HC

44

10.6 ± 13.1 (9–14)

Childhood maltreatment

1–5 yrs + 2 yr

Temporal lobe, amygdala and hippocampal volumes (no difference)

x

x

Hakamata et al. [66]

184

14 PTSD, 100 TEC, 70 HC

100

46.6 (18–55)

Cancer-related

varied + 2 yrs

Orbitofrontal cortex (larger in resilience)

x

x

Admon et al. [16]

62

50 TE soldiers, 12 HC civilians

50

18–19

Military deployment

Baseline (pre-deployment) + 18 mo (post)

x

Hippocampal (less change in resilience) and amygdala (decreased in resilience) reactivity

vmPFC-Hippocampus (greater in resilience)

Lanius et al. [62]

11

All TE

55

37

Automobile or Workplace accident

6 or 12 wks

x

x

PCC - pgACC, PCC - rAmygdala (both weaker in resilience)

Cardenas et al. [78]

47

25 PTSD, 22 HC

0

51.2 (33–60)

Military + non-military

~33 yrs + 2 yrs

Brainstem, frontal, and temporal lobe (less atrophy in resilience)

x

x

Daniels et al. [117]

20

All PTSD

85

36.4 ± 12.5

Mixed - ED

2–4 mo

x

(Right): cuneus, lingual gyrus, inferior and middle occipital gyrus, superior temporal gyrus; (Left): putamen, pre and post-central gyrus, transverse temporal gyrus, SN, mGP (less activation in all areas associated with less cog. distortion)

x

Dickie et al. [59]

18

All PTSD

72

36.8 (20–60)

Mixed

varied + 6–9 mo

x

Amygdala, vmPFC (decrease in resilience), hippocampus, sgACC (increase in recovery)

x

Lyoo et al. [89]

66

30 TE, 36 HC

62

26.7 (18–50)

Subway disaster

1.42 + 2.61 + 3.85 yrs

dlPFC (increased in resilience)

x

x

Papagni et al. [35]

26

All healthy

50

25.2

Stressful life events (SLEs)

Baseline + 3 mo

Left parahipocampal, right hippocampal, and bilateral ACC grey matter volumes (increased in resilience)

x

x

van Wingen et al. [22]

57

32 combat exposed, 25 HC

5

24.1

Military deployment

Baseline (pre-deployment) + 1.5 mo (post)

No significance

Amygdala & Insula (increased pre- to post-)

Amygdala - Insula, Amygdala - dACC (decreased in resilience)

Daniels et al. [95]

21

All PTSD

81

38.2 ± 12.1

Mixed - ED

2–4 mo

x

Ring lingual, fusiform, and parahippocampal gyri (negatively correlated with resilience)

x

Daniels et al. [91]

70

All PTSD (N = 12 for MRI)

59

36.2 ± 12.6

mixed - ED

2–4 mo

x

Right thalamus, inferior and middle frontal gyri (increased in resilience)

x

Van Wingen et al. [23]

39

23 deployed, 16 non-deployed soldiers

5

23.7

Military deployment

Baseline (pre-deployment) + ~1.6 mo + ~22.7 mo

x

Amygdala (returned to pre-deployment levels at long-term timepoint)

Amygdala - dACC (decreased in resilience)

Admon et al. [17]

24

All combat exposed

50

18 (18)

Military deployment

Baseline (pre-deployment) + 18 mo (post)

x

Amygdala (decreased in resilience) & NAcc (increased in resilience)

x

Dickie et al. [47]

30

All PTSD

67

36.4 (20–60)

Mixed

6–61 wks + 22–53 wks

sgACC (increased in resilience)

x

x

Sekiguchi et al. [27]

42

All TE

21

21.7

Natural disaster

~9.1 mo pre-trauma + 3–4 mo post

Right vACC (higher pre-trauma correlated with resilience) & left OFC (higher post-trauma correlated with resilience)

x

x

Sun et al. [49]

60

All TE, 21 dev. PTSD

53

~38 (18–60)

motor vehicle collision

2 days + 1 or 6 mo

ACC, vmPFC, temporal lobes, and midbrain (increased FA in resilience)

x

x

Weems et al. [118]

48

24 TE, 24 healthy

42

10.96 (7–14)

Mixed

Varied + 12–18 mo

Amygdala (smaller in resilence)

x

x

Gong et al. [75]

150

50 PTSD, 50 TECs, 50 Healthy

64

42.76 ± 10.6

Natural disaster

~1 year

Grey matter differences distinguish resilience

x

x

McLaughlin et al. [15]

15

All TE

66.7

16.5 (14.1–19.1)

Terrorist attack

~1 year pre-trauma (2–60 weeks before event)

x

Amygdala (decreased in resilience) & Hippocampus (increased in resilience)

x

Sekiguchi et al. [28]

30

All TE

6

21.0 ± 1.6

Natural disaster

~9.1 mo pre-trauma + 3–4 mo post

Right anterior Cg FA (greater in resilience pre-trauma). left anterior Cg and Uf FA (less change in resilience)

x

x

Sekiguchi et al. [37]

25

All TE

24

21.7 ± 1.4

Natural disaster

~9.1 mo pre-trauma + 3–4 mo post + ~1 yr

Right anterior Cg, bilateral Uf, left SLF, and left thalamus (less change in resilience)

x

x

Du et al. [119]

42

21 TE, 21 HC

38

39.1 ± 11.1

Natural disaster

3 wks + 2 yrs

Grey matter or white matter (no differences)

x

Frontal–limbic–striatal connectivity (recovery associated with return to baseline)

Reynaud et al. [34]

12

2 TE, 10 HC

0

21.4 ± 1.7

Not specified

Pre-exposure + 1 week

x

Right Amygdala, right OFC, right dlPFC, and BA9 (decreased in resilience)

x

Roy et al. [63]

81

All combat exposed

13.6

29.7 ± 7.9

Military deployment

2 mo post-deployment

Right SLF volume (greater in resilience)

x

Right amygdala - left superiortemporal gyrus rsFC (decreased in resilience)

Swartz et al. [19]

340

All healthy

57

20.8 ± 1.5 (18–26)

Mixed/stress

Baseline (anytime)

x

Bilateral amygdala reactivity (decreased in resilience)

x

Banks et al. [81]

24

13 mTBI, 11 HC

31, 36

39.3, 37.6

Mixed

6 weeks + 4 mo

x

x

Thalamus-dorsal attention network connectivity (increased in recovery)

Cwik et al. [79]

19

All TE (ASD)

74

33.5 ± 12.2

Mixed

<4 weeks

x

Right medial precuneus, lef RSC, precentral and right superior temporal gyrus reactivity (decrease in resilience); lateral, superior prefrontal, and left fusiform gyrus activation (increased in resilience)

x

Hu et al. [86]

34

PTSD, TEC

50

42.18 ± 12.07 (PTSD), 38.59 ± 13.2 (TEC)

Motor vehicle collision

2 days

Anterior thalamic radiation, cortico-spinal tract, forceps minor, uncinate, inferior fronto-occipital fasciculus, ILF, cingulum and SLC FA (greater in resilience)

x

x

Ke et al. [51]

28

19 acute PTSD, 9 TEC

0

34.5 ± 4.7 (PTSD), 39.2 ± 5.3 (TEC)

Mining accident

2 mo + 2 yrs

x

mPFC and inferior parietal lobules (greater in resilience pre-trauma); right middle frontal gyrus, PCC/precuneus, vermis and cerebellum activation (decreased in resilience)

x

Li et al. [120]

65

43 mTBI (22 successful recovery, 21 poor recovery), 22 HC

45

35.8 ± 7.58 (mTBI recovery), 36.7 ± 7.09 (mTBI poor recovery), 36.1 ± 7.11 (HC)

Traumatic brain injury

3 days + 10–20 days + 1–6 months

Greater FA and lower MD associated with recovery.

x

x

Nilsen et al. [64]

40

23 TE, 17 HC

25

40.2 ± 12.5 (TE), 37.1 ± 9.6 (HC)

Motor vehicle collision

3 wks

 

Occipital cortex, temporal cortex, thalamus, frontal and superior parietal area activity (greater in TE group)

Amygdala-somatosensory connectivity (increased in trauma-exposure)

Wang et al. [46]

44

21 mTBI, 23 TEC

59

34.3 ± 11.2 (mTBI), 33.8 ± 11 (TEC)

Motor vehicle collision + mld Traumatic Brain Injury

2 wks

Superior parietal gyrus (thicker in TEC compared to mTBI)

Superior parietal gyrus, medial orbiofrontal gyrus, lateral orbitofrontal gyri (more active in TECs without mTBI). SPG activity (greater in resiience)

 

Wang et al. (46)

38

16 PTSD, 22 TEC

62, 73

31.6 ± 9.5 (PTSD), 34.7 ± 13.2 (TEC)

Motor vehicle collision

2 wks + 3 mo

Left superior frontal gyrus volume (less decline in resilience)

dmPFC, vmPFC, insular cortex activity (decreased in resilience)

x

Busso et al. [73]

51

11 abused, 33 control

60.8

16.96 ± 1.51 (13–20)

Childhood maltreatment

Varied

Cortical thickness: prefrontal lobe, temporal lobe (decreased in trauma-exposed); m temporal gyrus & parahippocampal gyrus (decreased in resilience)

x

x

Gilam et al. [26]

46

29 soldiers, 17 civilians

0

19.86 ± 1.06 (soldiers), 19.24 ± 0.44 (civilians)

Military training

pre-trauma + 1 yr

x

vmPFC, locus coeruleus (increased in resilience)

x

Harms et al. [113]

54

29 early life stress, 25 low stress

52

11.2 (9–13)

Early life stress

Varied

x

dlPFC activity (greater in resilience)

x

Lin et al. [18]

50

All stress exposed

0

18.86

Military training

Pre-trauma

x

Amygdala electrical fingerprint (decreased in resilient)

x

Mangelsdorf [50]

22

childbirth related stress

100

28.1 ± 3.15

Childbirth

1 mo + 4 mo

vmPFC grey matter (higher persoal growth initiative pre-trauma predicted larger volume)

x

x

Stevens et al. [42]

31

All TE

48

31.9 ± 10.4

Mixed

1 mo + 3 mon + 6 mo + 12 mo

x

Amygdala (decreased in resilient), ventral ACC (increased in resilient)

x

Terpstra et al. [55]

80

All had moderate to severe TBI

28

39.4 (17–80)

Traumatic Brain Injury

5 mo, 12 mo, 30 mo

Hippocampus (increased in resilient)

x

x

Whittle et al. [110]

166

varying

49

Ages at each time point: 12.79 ± 0.43, 16.70 ± 0.52, 19.08 ± 0.46

Childhood maltreatment

Varied + 4 yrs + 7 yrs

Hippocampus: CA4-DG (increased development in maltreated youth), presubiculum, CA1 (increased development associated with early- and late-onset psychopathology)

x

x

Hu et al. [44]

70

29 PTSD, 41 TEC

55

37.2 (18–60)

Motor vehicle collision

2 days

frontal-temporal cortex, left insula, left rACC (increased in resilient)

x

x

Meng et al. [90]

22

All TE

36

38.4

Natural disaster

25 days + 2 yrs

Posterior limb of internal capsule, superior and posterior corona radiata (SCR and PCR), and external capsule FA (increased in TEC), superior corona radiata FA (increased in resilent).

x

x

Quidé et al. [54]

45

10 PTSD, 15 TEC, 20 HC

100

24.2 (18–53)

Sexual assault

3 wks

Hippocampus (increased in resilient)

x

x

Saxbe et al. [109]

22

Healthy but varied degrees of trauma exposure

43

12.99

Community violence

3–5 yr

Hippocampus, Amygdala (increased in resilient)

x

Hippocampus-frontotemperal lobe (decreased in resilient)

van Rooij et al. [57]

27, 31

All TE

48, 35

31.5, 36.9

Mixed

1–2 mo

x

Hippocampus (higher in resilient)

x

White et al. [45]

21

All combat exposed

19

30.64 (21–44.8)

Military deployment

2 mo + 6–12 mo

x

dACC, inferior frontal gyrus/anterior insula, inferior parietal cortex (increased in resilient)

x

Xie et al. [52]

44

All TE

70

32.8 (19–58)

Motor vehicle collision

2 wks + 3 mo

Hippocampus (increased in resilient)

x

x

Yoon et al. [61]

59

30 PTSD, 29 HC

63

26.7

Fire

1.4 yrs + 2.7 yrs + 3.9 yrs

x

x

The amygdala–insula & amygdala–PFC (strengthened, then normalized), amygdala–thalamus (normalized during recovery), amygdala–hippocampus (low across timepoints), amygdala–PFC connectivity (greater in resilient)

Zsoldos et al. [76]

349

All healthy

19

69.6

Allostatic load

Varied

Grey matter density (increased in resilient)

x

x

Ben-Zion et al. [53]

171

All TE

50.8

34.2 (18–65)

Mixed

1 mo + 6 mo + 14 mo

Hippocampus (increased in resilient), cavum septum pellucidum (decreased in resilient)

x

x

Heyn et al. [74]

48

27 PTSD, 21 HC

Not listed

13.92 ± 2.44 (PTSD), 14.01 ± 2.81 (HC)

Mixed

Varied + 1 yr

Right vmPFC and bilateral vlPFC (increased in resilience), dlPFC (decreased in resilience)

x

vmPFC-amygdala, vlPFC-hippocampus (increased in resilience)

Heyn [77]

55

10 PTSD remitter, 18 PTSD nonremitter, 27 HC

69

13.28 ± 3.45 (PTSD Remitter), 14.21 ± 2.46 (PTSD nonremitter), 14.16 ± 2.70 (HC)

Mixed

Varied + 1 yr

vlPFC surface area (decreased in resilience), frontal pole surface area, vmPFC thickness (increased in resilience)

x

x

Cwik et al. [21]

56

21 ASD, 17 PTSD, 18 HC

57

34.76 ± 12.62 (ASD), 37.35 ± 15.56 (PTSD), 30.11 ± 12.14 (HC)

Mixed

2 wks + 1 mo

Visual cortex, occipital, PFC (increased in resilient); middle temporal gyrus/superior temporal gyrus (reduced in resilient), amygdala and hippocampus (no significance)

x

x

Webb et al. [65]

48

All TE

72

33.4

Motor vehicle collision, physical assault, mixed

2 wks

x

x

PAG-frontal pole, PAG-posterior cingulate cortex (decreased in resilience)

Belleau et al. [121]

54

14 PTSD, 40 TEC

65

33.22 (11.55)

Mixed

2 wks

x

x

Amygdala-cerebellum and amygdala-postcentral gyrus fsFC (increased in resilient), amygdala-postcentral gyrus and amygdala-midcingulate cortex (increased in resilient during trauma recall)

Fani et al. [122]

30

31 Trauma exposed, 21 w/o Posttraumatic anedonia (PTA), 10 w/

67

33.1 ± 12.5 (no PTA), 32.9 ± 13.1 (PTA)

Mixed - ED

~1 mo

UF tract integrity (greater in resilient)

x

x

Koch et al. [31]

210

Healthy police officers at high risk for trauma exposure

27

24.02 ± 5.19 (18–45)

Police training

Baseline (pre) + 16 mo

Hippocampus (larger in resilient) and Amygdala (larger with more trauma exposure)

x

x

Quidé et al. [82]

44

10 PTSD, 15 TEC, 19 control

100

23 (18–53)(control), 25 (18–52)(victims)

Sexual assault

3 wks + 6 mo

x

x

Right middle/superior occicpital gyrus (lower centrality in resilience), PCC/precuneus (reduced centrality in TEC compared to HC)

Harnett et al. [80]

109

109 TE

70

35.31 ± 12.97

mixed

2 wks

x

x

dlPFC-threat areas (increased in resilience), inferior temporal gyrus-DMN (decreased in resilience.

Kaldewaij et al. [41]

185

All TE

24

23 (18-45)

Mixed - Police Work

Baseline + ~16 mo

x

anterior PFC, dorsal and medial frontal (increased in resilience), AMYG (predicted trauma exposure)

x

Grueschow et al. [25]

48

All TE

58

24 ± 1.99

Medical Residents in ED

Baseline (pre-internship)

x

Locuscoeruleus (increased in resilience)

Locus coeruleus - AMYG (increased in resilience)

van Rooij et al. [58]

28

All TE

35.7

29.36 ± 12.46

Mixed

2 mo

x

hippocampus (increased in resilience)

x

Weis et al. [56]

208

All TE

55

33.1 ± 10.8

Injury

2 wks + 6 mo

hippocampal subfield volumes (no significance)

x

x

Harnett et al. [48]

75

All TE

40

35.24 ± 12.53

Mixed – primarily auto accidents

1 mo + 12 mo

UF and Fornix FA (higher in resilient). vmPFC and precuneus grey matter volume (increased in resilient)

x

x

Stein et al. [43]

421

All TE with TBI

33.5

38.7 ± 16.08

Traumatic Brain Injury

2 wks

superior frontal, rostral, and caudal ACC (larger in resilience). Principal component analysis using sfACC, rACC, cACC, and insula (predicted resilience)

x

x