The ERP recordings were always performed

before the eye-t

The ERP recordings were always performed

before the eye-tracking sessions so that the infants would not become familiar with the AV stimuli prior to ERP testing, thus minimising habituation of neural responses. A separate eye-tracking-only control study confirmed that there was no effect of the order of presentation on eye-tracking results (see Control study S1). Twenty-two healthy full-term infants (six boys) aged between 6 and 9 months (mean ± SD age BI 6727 molecular weight 30.7 ± 4.3 weeks) took part in both the eye-tracking (ET) and ERP tasks. The study was approved by the University of East London Ethics Committee and conformed with the Code of Ethics of the World Medical Association (Declaration of Helsinki). Parents gave written informed consent for their child’s participation prior to the study. Video clips were recorded with three female native English speakers articulating /ba/ and /ga/

syllables. Sound onset was adjusted in each clip to 360 ms from stimulus onset, and the auditory syllables lasted for 280 – 320 ms. Video clips were rendered with a digitization rate of 25 frames per s, and the stereo soundtracks were digitized at 44.1 kHz with a 16-bit resolution. selleck screening library The total duration of all AV stimuli was 760 ms. Lips movements started ~ 260–280 ms before the sound onset (for all speakers). Each AV stimulus started with lips fully closed and was followed immediately with the SB-3CT next AV stimulus, the stimulus onset asynchrony being 760 ms, thus giving an impression of a continuous stream of sounds being pronounced. The paradigm was designed as a continuous speech flow specifically to minimize the input of face- and movement-related visual evoked potentials. In order to examine how much of the ERP amplitude is explained by the visual evoked potentials, an additional control study was carried out with auditory stimuli only (see Control study S2, Fig. S1). For each of the three speakers, four categories of AV stimuli were created: congruent visual /ba/ – auditory /ba/ (VbaAba), visual /ga/ – auditory /ga/ (VgaAga), and two incongruent pairs. The incongruent pairs were created from the original

AV stimuli by dubbing the auditory /ba/ onto a visual /ga/ (VgaAba-fusion) and vice versa (VbaAga-combination). Therefore, each auditory and each visual syllable was presented with equal probability and frequency during the task. For more information on the stimuli see Kushnerenko et al. (2008). The syllables were presented in a pseudorandom order, with speakers being changed approximately every 40 s to maintain the infants’ attention. Videos were displayed on a CRT monitor (30 cm diameter, 60 Hz refresh rate) with a black background while the infant, sitting on a parent’s lap, watched them from an 80-cm distance in an acoustically and electrically shielded booth. The faces on the monitor were approximately life-size at that distance.

The ERP recordings were always performed

before the eye-t

The ERP recordings were always performed

before the eye-tracking sessions so that the infants would not become familiar with the AV stimuli prior to ERP testing, thus minimising habituation of neural responses. A separate eye-tracking-only control study confirmed that there was no effect of the order of presentation on eye-tracking results (see Control study S1). Twenty-two healthy full-term infants (six boys) aged between 6 and 9 months (mean ± SD age Dabrafenib in vivo 30.7 ± 4.3 weeks) took part in both the eye-tracking (ET) and ERP tasks. The study was approved by the University of East London Ethics Committee and conformed with the Code of Ethics of the World Medical Association (Declaration of Helsinki). Parents gave written informed consent for their child’s participation prior to the study. Video clips were recorded with three female native English speakers articulating /ba/ and /ga/

syllables. Sound onset was adjusted in each clip to 360 ms from stimulus onset, and the auditory syllables lasted for 280 – 320 ms. Video clips were rendered with a digitization rate of 25 frames per s, and the stereo soundtracks were digitized at 44.1 kHz with a 16-bit resolution. Cyclopamine The total duration of all AV stimuli was 760 ms. Lips movements started ~ 260–280 ms before the sound onset (for all speakers). Each AV stimulus started with lips fully closed and was followed immediately with the Silibinin next AV stimulus, the stimulus onset asynchrony being 760 ms, thus giving an impression of a continuous stream of sounds being pronounced. The paradigm was designed as a continuous speech flow specifically to minimize the input of face- and movement-related visual evoked potentials. In order to examine how much of the ERP amplitude is explained by the visual evoked potentials, an additional control study was carried out with auditory stimuli only (see Control study S2, Fig. S1). For each of the three speakers, four categories of AV stimuli were created: congruent visual /ba/ – auditory /ba/ (VbaAba), visual /ga/ – auditory /ga/ (VgaAga), and two incongruent pairs. The incongruent pairs were created from the original

AV stimuli by dubbing the auditory /ba/ onto a visual /ga/ (VgaAba-fusion) and vice versa (VbaAga-combination). Therefore, each auditory and each visual syllable was presented with equal probability and frequency during the task. For more information on the stimuli see Kushnerenko et al. (2008). The syllables were presented in a pseudorandom order, with speakers being changed approximately every 40 s to maintain the infants’ attention. Videos were displayed on a CRT monitor (30 cm diameter, 60 Hz refresh rate) with a black background while the infant, sitting on a parent’s lap, watched them from an 80-cm distance in an acoustically and electrically shielded booth. The faces on the monitor were approximately life-size at that distance.

Axonal short-pause rates were defined as the number of short-paus

Axonal short-pause rates were defined as the number of short-pause events per 100 μm length of the axon per 30 min of time-lapse imaging. Axonal appearance rates were defined as the number of mitochondria that appeared within 30 min and existed for at least the next 30 min. Axonal disappearance rates were defined as the number of mitochondria that were observed at 0 min and disappeared

between the next 30 and 60 min. The intracellular Ca2+ changes induced by electrical stimulation were estimated as ΔF/F0 [=(F−F0)/F0], where F was the G-CaMP6 fluorescence intensity CHIR-99021 molecular weight at a given time point and F0 was the fluorescence signal at resting state measured from 10 frames before stimulation. The ΔF/F0 of 10 consecutive images were averaged. To combine separate sets of measurements, time-averaged ΔF/F0 during electrical stimulation were normalised by the maximum value in the same axonal region (normalised time-averaged ΔF/F0). Data are presented as means ± SE. Statistical significance was determined by performing Selleck Akt inhibitor an unpaired t-test for comparing two samples, Z-test for examining the distribution bias of short-pause position preference and Pearson’s chi-square test for assessing a difference between paired observations on two variables. All statistical analysis was performed using Origin (Light Stone, Tokyo, Japan). Quantitative

imaging analyses of mitochondrial dynamics and its relation to presynaptic sites need reliable

fluorescence-based markers of these two structures. To visualise axonal mitochondria in cultured hippocampal neurons, we expressed the C-terminal transmembrane region of mitochondrial outer membrane protein of 25 kDa tagged with mCherry (mCherry-OMP; Nemoto & De Camilli, 1999; Song et al., 2009). Neurons expressing mCherry-OMP were stained by anti-cytochrome c, a mitochondrial marker, and their co-localisation was confirmed (Fig. 2A). An average length of axonal mCherry-OMP was 1.7 ± 0.1 μm at 19–21 DIV (eight cells, n = 127), which was consistent with the mitochondrial length of rat pyramidal neurons (Shepherd & Harris, 1998). We concluded that mCherry-OMP can be used for a mitochondrial Ureohydrolase marker in cultured hippocampal neurons. To visualise the positions of presynaptic structures, VAMP2, an abundant SV protein (Takamori et al., 2006), tagged with EGFP (EGFP-VAMP2) was expressed in cultured hippocampal neurons. EGFP-VAMP2 puncta showed reasonable co-localisation with functional presynaptic sites revealed by the uptake of styryl dye FM1-43 (Fig. 2B). The fluorescence intensities of EGFP-VAMP2 puncta and the extent of FM1-43 uptake correlated well [12–13 DIV (2 weeks), n = 118 puncta from three cells, r = 0.94; 19–23 DIV (3 weeks), n = 140 puncta from three cells, r = 0.85; Fig. 2C].

Two inbred mouse strains, A/J and C57BL/6J, and a set of 27 AXB/B

Two inbred mouse strains, A/J and C57BL/6J, and a set of 27 AXB/BXA RI strains (derived from reciprocal intercrossing C57BL/6J and A/J followed by inbreeding progeny for ≥ 20 generations) were obtained from The Jackson Laboratory (Bar Harbor, ME, USA). Male and female mice were kept under a 12-h light/dark cycle and were given ad libitum access to food and water. Animals studied were between 60 and 150 days old (n = 118), but the majority of them (98) were 80 ± 20 days old. All experimental procedures were conducted under an Institutional Animal Care and Use Committee (IACUC)-approved protocol from the University of Tennessee as well as the Canadian Council on Animal Care (CCAC)-approved protocol VX 809 from the University of

British Columbia. The thymidine analog BrdU, which is actively incorporated into the S phase of dividing cells, was used to label and quantify constitutively proliferating cells in the RMS of C57BL/6J, A/J and click here AXB/BXA RI strains. All mice received a single intraperitoneal injection of BrdU (Sigma-Aldrich, St Louis, MO, USA) at a dosage of 50 mg BrdU/kg body weight using a stock solution of 5 mg BrdU/mL in 0.9% NaCl containing 0.007 N NaOH.

One hour later, animals were anesthetized with an overdose of Avertin (Sigma-Aldrich; 0.2 mL/10 g body weight), and perfused transcardially with 0.1 m phosphate buffer (PB; pH ∼7.2) followed by a solution of 95% alcohol/acetic acid (3 : 1). Brains were removed from the skull and postfixed in the same acid alcohol solution at 4°C overnight before being bisected and processed for paraffin embedding. Brains were dehydrated through a graded alcohol series and xylenes, and then infiltrated with paraffin (Paraplast Plus). Each brain hemisphere

was embedded separately, serially sectioned in the sagittal plane at 8 μm and then mounted on Superfrost/Plus slides. BrdU was also used of to determine the cell cycle length of rapidly dividing cells in the RMS by adopting the cumulative BrdU labeling protocol developed by Nowakowski et al. (1989). BrdU was administered to a new batch of 2–3-month-old male C57BL/6J and A/J mice (5 mg/mL BrdU in 0.9% NaCl and 0.007 N NaOH; 50 mg/kg body weight) every 2 h for a total period of 10 h to ensure that every dividing cell entering the S-phase has the chance to be labeled. Animals were anesthetized with Avertin and perfused transcardially at 0.5, 2.5, 4.5, 6.5, 8.5 and 10.5 h after the first BrdU injection. Sixty animals were used for the cell cycle analysis (five A/Js and five C57BL/6Js at each time point). Brain tissues were prepared as described above. Sections were deparaffinized in xylenes, rehydrated in a graded series of alcohol, treated with 1 m HCl for 30 min at 37°C to denature DNA, rinsed with 0.1 m PBS, treated with 1% H2O2 in PBS to block endogenous peroxidase, and washed for 5 min in 0.1 m PBST. Sections were then treated with incubation buffer (30% BSA 1 : 100, NGS 1 : 20, NaN3 1 : 100, in 0.

Relative to BA 44, BA 45 exhibited greater positive correlations

Relative to BA 44, BA 45 exhibited greater positive correlations with the pars orbitalis region of the inferior frontal gyrus where area 47/12 is located (see Petrides & Pandya, 1994), with the ventromedial prefrontal cortex and with the angular gyrus. Note that on the surface of the brain, this stronger RSFC appears to be restricted to the dorsal part of the angular gyrus, but this is

simply the result of the fact that much of the correlated activity lies just below the cortex buy Doxorubicin and within the parietal extension of the superior temporal sulcus, which will not show on the surface of the brain, as can be seen in the appropriate coronal section in Fig. 2 (BA 45 > BA 44). BA 44 exhibited greater RSFC (relative to BA 45) with the premotor BA 6, the secondary somatosensory cortex within the upper bank of the Sylvian fissure and the caudal superior temporal gyrus (Fig. 1, Table 1). The above RSFC results were in excellent agreement with the predictions of connectivity from parietal and temporal cortex to the homologous ventrolateral regions in the macaque monkey based on the experimental anatomical study of these connections (Petrides & Pandya, 2009). However, there was also an apparent contradiction. In the study with the macaque monkey, the connections of area 45 with lateral

temporal cortex appeared to be more widespread than those of area 44 and to include a more ventral component of the see more lateral temporal cortex. Comparison of the surface of the brain in Fig. 2 (compare panels BA 45 and BA 44) appears to confirm this greater activity in the lateral temporal cortex for BA 45 than for BA 44. However, this did not reach the accepted level of significance in the direct comparison BA 45 > BA 44. Given our prediction that differential RSFC would be observed, Dynein we repeated the direct comparison between BA 44 and BA 45

RSFC, restricting our analysis to the left temporal lobe (Z > 2.3; cluster significance P < 0.05, corrected for a volume of 22 768 mm3). This restricted comparison did reveal significantly greater RSFC between BA 45 and the middle temporal gyrus, relative to BA 44 (Fig. 2). To examine the differences between BA 6 and BAs 44 and 45, direct contrasts were carried out between these ROIs. Relative to both BAs 44 and 45, BA 6 exhibited stronger RSFC with primary somatic and motor areas around the central sulcus, and the secondary somatosensory areas within the frontal and parietal opercula, and the insula. There were also stronger correlations between BA 6 and the superior parietal lobule and the anterior part of the supramarginal gyrus, relative to both BAs 44 and 45. There were stronger correlations between BA 6 and the supplementary motor region and the motor region in the central cingulate gyrus and sulcus, which probably correspond to the cingulate motor areas discovered in the macaque monkey (He et al., 1995) (Fig. 1, Table 1).

The substrate specificity of the AT domains in the PKSs was predi

The substrate specificity of the AT domains in the PKSs was predicted using the web server sbspks (Anand et al., 2010). The fosmid sequences were deposited at NCBI under the accession numbers JN121120–JN121124. Fungal mycelia were harvested from an 8-day PDA liquid culture by ultracentrifugation at 10 000 g for 15 min. The mycelia were kept at −80 °C before RNA extraction. The total DAPT RNA was isolated from 100 mg of frozen mycelia using the TRIzol reagent (Invitrogen) and was then treated with an RNeasy MinElute Cleanup kit (Qiagen GmbH, Hilden, Germany). The primers were designed on the exon regions in the fosmid sequences (Table S1). The quantitative real-time PCR (qPCR) was performed

using the Mx3000P™ Real-Time PCR System (Stratagene, Waldbronn, Germany). The 25-μL qPCR reactions contained 5 ng RNA, 0.1 μm primers and

1× Verso™ 1-Step QPCR SYBR Green Mix (ABgene Ltd, Epsom, UK). The thermal cycling conditions were as follows: 50 °C for 15 min; 95 °C for 15 min; followed by 40 cycles of 15 s at 95 °C, 30 s at 55 °C and 30 s at 72 °C; and 95 °C for 30 s, 60 °C for 30 s, and 95 °C for 30 s for the dissociation curve analyses. The elongation factor 1α genes (tef1) of C. militaris (Liu et al., 2009) and Cordyceps ninchukispora strain BCC 26678 obtained from NCBI (Table S2) were used for normalizing the gene expression in strains 1630 and DSM 1153, respectively. The expression level of the target genes (ER) was expressed as A colony radial growth assay was performed by Lumacaftor in vivo inoculating Vorinostat concentration 3 μL spore suspension (1 × 105 spores mL−1) on a sterilized filter paper disk placed in the center of a PDA plate. Images were taken after a 15-day growth at 20 °C in the dark. For microscopic observation, cultures were prepared by inoculating

a small amount of mycelia on a 1-cm3 PDA block placed on a microscopic slide (Stevens, 1981). The blocks were then covered with a coverslip and incubated at 20 °C. After removing the slab, the mycelia on the coverslip were fixed with Carnoy’s fixative and observed using a Zeiss Axioskop microscope (Carl Zeiss, Germany). To compare the biochemical signatures of the two strains, the growth medium and mycelia from 300 mL liquid culture were extracted with acetyl acetate and chloroform/acetone (1 : 1, v/v) and analyzed using high-pressure liquid chromatography (HPLC) coupled with mass spectrometry (MS). Details are provided in the electronic Supporting Information. The internal transcribed spacer (ITS) of the nuclear ribosomal DNA sequences from the two Cordyceps strains was amplified by PCR using the primers listed in Table S1. The sequences were deposited at NCBI with accession numbers JN121119 and JN121122. The reference sequences were downloaded from NCBI (Table S2). A phylogenetic tree was constructed with Bayesian Inference using the beast v1.6.1 package (Drummond & Rambaut, 2007).

A crucial function of sensory systems is to facilitate adaptive b

A crucial function of sensory systems is to facilitate adaptive behavior in constantly changing environments. Hence, recurring cues that reliably predict impending danger or reward elicit enhanced sensory processing (Sokolov, 1963). In the mammalian ABT-263 chemical structure brain, aversive and appetitive learning leads to cue-related retuning of neuronal response profiles within primary sensory cortex (Weinberger, 2004; Shuler & Bear, 2006), driven perhaps by lowering response thresholds or altering synaptic connectivity in primary representation areas (Keil

et al., 2007), potentially via re-entrant feedback originating in deep structures such as the amygdala (Amaral, 2003). Thus, sensory processing becomes biased towards affectively conditioned cues, which are more easily identified than non-relevant

stimuli (Quirk et al., 1995). In the human visual system, such prioritization has been Ruxolitinib manufacturer demonstrated with phobic content (Öhman et al., 2001) and during classical conditioning (Moratti et al., 2006), where neutral stimuli [i.e., the conditioned stimulus (CS+)] paired with noxious events (e.g., electric shock) elicit facilitated sensory responses, compared to the non-paired stimuli (i.e., the CS–; Stolarova et al., 2006). It remains unclear, however, what sensory pathways mediate the acquisition of threat-cue-specific response amplification. Work examining the perception of emotional faces or complex scenes has attempted to uncover the precise compositional features that drive sensory facilitation by manipulating the physical

properties of images, thus challenging specific subsystems within the visual system (Bocanegra & Zeelenberg, 2009). This research suggests that perceptual biases for threat-related stimuli may depend on the brain’s ability to extract information from low-spatial-frequency and luminance channels, sometimes equated with the magnocellular Liothyronine Sodium pathway of the human visual system (Pourtois et al., 2005). For instance, effects of spatial frequency on electrophysiological indices of emotion perception are observed for visual event-related potentials such as the N1 (Carretie et al., 2007) but not for late positivities (> 300 ms latency) to complex affective scenes (De Cesarei & Codispoti, 2011) or conditioned cues (Baas et al., 2002). One may hypothesize that different visual pathways vary in their ability to mediate experience-dependent sensory amplification of learned danger signals. In this study, we tested this hypothesis by preferentially stimulating distinct pathways: (i) luminance and (ii) chromatic pathways.

The integration of pharmacists into general practice was believed

The integration of pharmacists into general practice was believed to be hindered by limited funding and infrastructure and by GDC-0980 purchase practitioner perceptions. Various facilitating factors were proposed that could help ensure viability of the role. Various roles and methods of integration were identified for pharmacists in general practice; however, a number of barriers and facilitators to integration would need to be considered to ensure viability of services.

Future research should explore different methods of collaboration and trial their implementation. General practice has been identified as the most suitable location for coordinating care of patients with complex and chronic conditions in the community.[1] Co-location of nurses and allied health professionals

in general practices is becoming more accepted. In countries such as the UK, the USA and Canada, pharmacists are increasingly becoming part of primary healthcare teams in family and general practices. Such arrangements have resulted in improved medication and health outcomes and selleck inhibitor reduction in health-service use and costs.[2-4] Co-location has also been shown to enable greater communication and collaboration among health professionals, and to strengthen inter-professional relationships.[5] Elsewhere, however, pharmacists are often on the periphery of the primary healthcare team. Given that medication misadventure is a serious concern in general practice,[6, 7] pharmacists have Nintedanib (BIBF 1120) the potential to be valuable members of the team. In Australia, the majority of pharmacists (85%) work in community pharmacies,[8] undertaking dispensing and other professional services. Community pharmacists generally do not have access to patients’ medical records and have minimal interaction with general practitioners (GPs). A small proportion of pharmacists in primary care (11.8%) work as consultant pharmacists,[9]

providing medication management services to patients either in their home or in government subsidised aged-care facilities on referral from GPs. These pharmacists usually work independently or are employed by a community pharmacy; co-location within general practices is rare. In recent years, reforms to Australian primary healthcare policy have recommended that GPs and other health professionals work in multidisciplinary teams to manage the health needs of an ageing population.[1] Collaborative medicines management services delivered by pharmacists and GPs have already been successful in identifying and resolving medication-related problems, improving patient outcomes, and optimising drug use and costs.[10, 11] Such services include Home Medicines Reviews (HMRs),[12] where an accredited consultant pharmacist, on referral from a patient’s GP, visits the patient at home, reviews their medicines management, and provides the GP with a report. The GP and patient then agree on a medicines management plan. However, these services are underused.

Data are expressed as the total number of BrdU-positive cells ± S

Data are expressed as the total number of BrdU-positive cells ± SEM. The same investigator performed all the quantification of the RMS and SGZ to reduce inter-observer variation in cell counting parameters. Also, the identity of the mice from which the sections were generated was unknown to the investigator during the data collection phase. We used the cumulative BrdU labeling protocol to measure and compare the lengths of the cell cycle and S phase of the rapidly dividing cell populations in the RMS of C57BL/6J and A/J mice (Nowakowski et al.,

1989). Administration of BrdU and tissue preparation were as described above. Consecutive sections were cut at 8-μm thickness, stained with anti-BrdU and counterstained with CV. Using a 40× objective, we determined the labeling index (LIt) – the ratio

of BrdU-positive cells to the total RMS cell population at a given time (t) – in brains obtained from animals Compound Library manufacturer killed at t = 0.5, 2.5, 4.5, 6.5, 8.5 and 10.5 h after the first BrdU injection. As the RMS is a long, compact cellular architecture, we estimated the total cell population by selecting four representative segments along the course of each RMS (two from the vertical arm, one from the RMS elbow and one from the horizontal arm depicted in supplementary Fig. S2), Venetoclax mw counted all cells within these segments and measured the corresponding area (mean value of each segment is 4500 μm2) to obtain the estimated cell density of the RMS. RMS lengths and areas were measured using AnalySIS Opti Version 3.3.776 software (Soft Image System). The density was then multiplied by the total RMS area to estimate the total cells in an RMS. CHIR-99021 Once the LIs at every time point were calculated for

each genotype, the average LI (y-axis) was plotted against the time after the first BrdU injection (x-axis). We used the equation, LI0 = GF × Ts/Tc, to calculate the length of the S phase (Ts) and the length of the cell cycle (Tc) (Nowakowski et al., 1989) where LI0 is the labeling index at the time of the first BrdU administration (t = 0) and is equivalent to the y-intercept of the graph. Growth fraction (GF) is the proliferating proportion of the total RMS population and it is equivalent to the maximum LI plotted in the graph where all proliferating cells in the RMS are assumed to be labeled by BrdU at least once (GF = LIt; t ≥ Tc − Ts). Ts and Tc were subsequently calculated using a non-linear least squares fit to the labeling index curve (Nowakowski et al., 1989). Three mice from each genotype used in the cell cycle analysis were also used for a full reconstruction and quantitative analysis of the RMS to obtain the total volume and total number of cells in the RMS of each genotype. We used NeuroLucida and Neuroexplorer software (version 4, 2000 by MicroBrightField, Inc.).

[18] Again, issues such as how well remunerated the staff are, an

[18] Again, issues such as how well remunerated the staff are, and how well staffed the pharmacy is, might also be important in determining the level of professionalism in place. Although this definition

was developed with US pharmacies in mind, some of the issues raised are at the heart of pharmacy practice in the UK and beyond, where often community pharmacists are described by other healthcare professionals as shopkeepers. In many developed countries, including DAPT the UK, the majority of pharmacists have been forced into either employee status or into locum positions, thereby minimising their impact on the professional development of pharmacy. The situation in the less developed nations is even more pathetic, as the pharmacy business is often controlled by traders, many of whom are involved in the illicit

supply of adulterated or expired medicines. These ownership arrangements have a direct negative impact on professionalism and pharmacists’ ability to meet government agendas for the enhanced role of pharmacists in public health. One of the strategies accepted by many as being very effective in this occupational professionalisation is the professional socialisation process,[5,18] learn more which tends to occur during both student education and professional practice Janus kinase (JAK) and has been defined as the process by which students learn and adopt the values, attitudes and practice behaviours

of a profession.[18] It has also been agreed that, in general, formal curricula, including experiential learning (work experience), help to socialise students, hopefully in a positive direction, while ‘hidden curricula’ (i.e. attitudes and behaviours that are formally taught) and experiences outside the formal curriculum are also helpful in socialising students in positive or negative directions.[18] A balance of positive influences in both student education and professional practice is therefore required to produce a professional practitioner,[5] but often this expected balance does not occur. In order to explain this imbalance, the term ‘inconsistent socialisation’ has been developed to explain the conflict that regularly occurs between the forces of socialisation and leads to differences between students’ and recent graduates’ expectations concerning their role in health care and other individuals’ expectations of this role.