Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Stimulants controlled

Venlafaxine (Effexor, Effexor XR). Venlafaxine, a dual serotonin-norepinephrine reuptake inhibitor, has only recently been used to treat ADHD with a few case reports suggesting it may provide modest benefit for both inattention and impulsivity. Effexor XR is generally well tolerated, though it can elevate blood pressure somewhat at higher doses. This should be monitored especially when venlafaxine is coadministered with a stimulant. Controlled trials are needed. [Pg.246]

Jones, P.R. and Vogt, T. (2001) Glycosyltransferases in secondary plant metabolism tranquilizers and stimulant controllers. Planta, 213,164 74. [Pg.167]

Separated from the main Law in 1960, the Pharmacists Law deals with the activities of pharmacists, examination, licensing and duties the Law concerning the Organization for Pharmaceuticals and Medical Devices was recently revised. Several other laws are involved in pharmaceutical administration. Their scope is restricted to limited areas and most of them aim at preventing drug abuse and health damages. They are the Poisonous and Deleterious Substances Control Law, the Narcotics and Psychotropics Control Law, the Cannabis Control Law, the Opium Law, the Stimulants Control Law, and the Blood Collection and Blood Donation Services Control Law. [Pg.492]

Other prominent examples are theoretical proposals for different optical control schemes using laser field parameters for the manipulation of ultrafast process pioneered by Rice and Tannor, Shapiro and Brumer, and Peirce, Dahleh, and Rabitz [2, 56-61]. They stimulated control experiments that were carried out first on simple systems such as metallic dimers and trimers [62-84], and later on more complex systems [23-25, 43, 85-89], confirming theoretically proposed concepts. Since tailored laser pulses have the ability to select pathways that optimally lead to the chosen target, their analysis should allow one to determine the mechanism of the processes and to provide the information about the selected pathways (inversion problem). Therefore, theoretical approaches are needed, which are capable of designing interpretable optimal laser pulses for complex systems (e.g., clusters or biomolecules) by establishing the connection between the underlying dynamical processes and their shapes. In this case, the optimal control can be used as a tool for the analysis. [Pg.181]

In an experimentally induced disease, intimal hyperplasia in rabbit carotid artery, LC20 phosphorylation was increased following stimulation with 30 p,M prostaglandin p2 , compared with the stimulated control artery (Seto et al., 1993). This was explained by a desensitization of the dephosphorylation system in the hyperplastic tissue. [Pg.324]

Stimulation control response time Capacitor recharge current Compliance voltage Stimulation output capacitor Delay to start from a trijg er Burst on/off time Range 1 Range 2... [Pg.549]

Sennels, S., Biering-Soerensen, E, Anderson, O.T., and Hansen, S.D., Functional neuromuscular stimulation control by surface electromyographic signals produced by volitional activation of the same muscle adaptive removal of the muscle response from the recorded EMG-signal, IEEE Trans. Rehab. Eng. TRE-5 195 206,1997. [Pg.1169]

D. Martin et al. demonstrated that PEDOT nanotubes can precisely release individual drugs and bioactive molecules at desired points in time by using electrieal stimulation (Figure 11.15)[69].In their research, PEDOT nanotubes were placed in a neutral eleetrieal condition to stimulate the body environment. External electrical stimulation controlled the... [Pg.492]

Downregulation of proinflammatory eicosanoids is likely not the only mechanism through which EPA modulates TNF-a production because AA increased LTB and TXB2 levels, but it decreased TNF-a production compared with LPS-stimulated control. In addition to their serving as precursors of eicosanoids, growing evidence has shown that fatty acids can act directly as mediators and modulate signal molecules (43,44). Future research may reveal additional mechanisms that mediate the effects of PUFA on immune responses, thus providing further clarification of the mecha-... [Pg.233]

Tissue Stimulating agent Effect P32 ratio stimulated/control Phospho- Phosphatidic inositide acid Reference ... [Pg.143]

If amphetamines are detected in a suspect s head hairs, the suspect may be arrested under stimulant control law and the hairs can be used as evidence in a trial. Furthermore, various drugs contained in human hairs not only provide evidence of crime under drug control laws but also important clues to hair comparison for other criminal investigations. Many cases of drug abuse have been established by using human hair. These drugs are stimulants (amphetamines), heroin, phencyclidine, cocaine, barb rates, etc. [Pg.1707]

Fig. 18. Intradendritic recordings from a CAl pyramidal cell. (A) Postsynaptic activities evoked by striatum radiatum stimulation. Control dendritic spike (in trace 1) was recorded in penetration 350 p,m away from the cell-body layer. In traces 2-4, hyperpolarizing currents applied during orthodromic stimulation blocked the spike in steps and uncovered an excitatory postsynaptic potential (trace 4). (B) Spontaneous (trace 1) and directly evoked burst (trace 2) in the same dendrite as in (A). TTX-resistant activity of this dendrite is shown in trace 3. Whereas short-duration (20 msec) depolarizing pulses could evoke depolarizations that triggered bursts (trace 2), excitatory postsynaptic potential of comparable duration that produced even larger depolarizations only evoked a spike [cf. trace 1 in (A) and trace 2 in (B)]. Membrane potential 60 mV. Lower trace is the current monitor. (From Wong et ai, 1979.)... Fig. 18. Intradendritic recordings from a CAl pyramidal cell. (A) Postsynaptic activities evoked by striatum radiatum stimulation. Control dendritic spike (in trace 1) was recorded in penetration 350 p,m away from the cell-body layer. In traces 2-4, hyperpolarizing currents applied during orthodromic stimulation blocked the spike in steps and uncovered an excitatory postsynaptic potential (trace 4). (B) Spontaneous (trace 1) and directly evoked burst (trace 2) in the same dendrite as in (A). TTX-resistant activity of this dendrite is shown in trace 3. Whereas short-duration (20 msec) depolarizing pulses could evoke depolarizations that triggered bursts (trace 2), excitatory postsynaptic potential of comparable duration that produced even larger depolarizations only evoked a spike [cf. trace 1 in (A) and trace 2 in (B)]. Membrane potential 60 mV. Lower trace is the current monitor. (From Wong et ai, 1979.)...
Braz GP, Russold M, and Davis GM. Frmctional electrical stimulation control of standing and stepping after spinal cord injury A review of technical characteristics. Neuromodulation, vol. 12 3, pp. 180-190, July 2009. [Pg.32]

ROS scavenging ability of ERG was tested using 2,2-diphenyl-1-picrylhydrazyl radical (DPPH) solution-based chemical assay and a 2,2,7,2-dichlorodihydrofluorescein diacetate (DCFH-DA) HL-60 cell line-based assay. The cell-based fluorescent DCFH assay enables detection of antioxidant molecules which can penetrate cell membranes and inhibit ROS production in living cells. The antioxidant activity was determined by TPA-stimulated control cells with and without FRG. FRG showed strong antioxidant activity in both systems [64]. [Pg.1211]

A DBI application with significant implications is neural-prostheses or muscle stimulators controlled with brain signals. In effect, a neural prosthesis could reconnect the brain to paralyzed limbs, essentially creating an artificial nervous system. DBI controls could be used to stimulate muscles in paralyzed arms and legs to enable a subject to learn to move them again. Preliminary work on a neurally controlled virtual hand has been reported by Kennedy et al. (2000). DBI control has also been adapted to a hand-grasp neuroprosthesis (Lauer et al., 2000). [Pg.50]

Zhang, D., Poignet, R, Widjaja, F., and Tech Ang, W. 2011. Neural oscillator based control for pathological tremor suppression via functional electrical stimulation. Control Eng. Practice, 19(1), 74-88. [Pg.423]


See other pages where Stimulants controlled is mentioned: [Pg.380]    [Pg.208]    [Pg.89]    [Pg.393]    [Pg.393]    [Pg.393]    [Pg.489]    [Pg.216]    [Pg.712]    [Pg.357]    [Pg.311]    [Pg.1127]    [Pg.192]    [Pg.493]    [Pg.778]    [Pg.357]    [Pg.686]    [Pg.1190]    [Pg.424]    [Pg.291]    [Pg.482]    [Pg.1216]    [Pg.166]    [Pg.1192]   
See also in sourсe #XX -- [ Pg.122 ]




SEARCH



© 2024 chempedia.info