juxtacellular labelings with neurobiotin Search Results


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Microelectrodes Inc 17310 juxtacellular neuronal labelling microelectrodes
Fig. 2. A pulse generator circuit for <t>juxtacellular</t> neuronal labelling. The device is based on a PIC microcontroller (PICAXE 08M; available from a range of electronic component suppliers or online, e.g. at http://www.techsupplies.co.uk ) and has been designed so that the intensity of the current pulses is easy to set. The circuit is powered by a 9 V DC plug pack. The PICAXE chip is programmed using BASIC code that raises the voltage on pins 6 and 7 of the microcontroller chip to 5 V for 200 ms. At the end of the 200 ms pulse, the voltage drops to 0 V for another 200 ms, which is equivalent to a pulse train of 2.5 Hz with a 50% duty cycle. The pulse at pin 6 controls a light-emitting diode (LED) which signals operation of the pulse generator, while the pulse at pin 7 is connected to a voltage divider circuit.
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Nikon neurons
Fig. 2. A pulse generator circuit for <t>juxtacellular</t> neuronal labelling. The device is based on a PIC microcontroller (PICAXE 08M; available from a range of electronic component suppliers or online, e.g. at http://www.techsupplies.co.uk ) and has been designed so that the intensity of the current pulses is easy to set. The circuit is powered by a 9 V DC plug pack. The PICAXE chip is programmed using BASIC code that raises the voltage on pins 6 and 7 of the microcontroller chip to 5 V for 200 ms. At the end of the 200 ms pulse, the voltage drops to 0 V for another 200 ms, which is equivalent to a pulse train of 2.5 Hz with a 50% duty cycle. The pulse at pin 6 controls a light-emitting diode (LED) which signals operation of the pulse generator, while the pulse at pin 7 is connected to a voltage divider circuit.
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Jackson Immuno neurobiotin
FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo <t>(neurobiotin),</t> and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).
Neurobiotin, supplied by Jackson Immuno, used in various techniques. Bioz Stars score: 96/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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Thermo Fisher streptavidin cy3
FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo <t>(neurobiotin),</t> and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).
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FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo <t>(neurobiotin),</t> and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).
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FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo <t>(neurobiotin),</t> and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).
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FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo <t>(neurobiotin),</t> and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).
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Image Search Results


Fig. 2. A pulse generator circuit for juxtacellular neuronal labelling. The device is based on a PIC microcontroller (PICAXE 08M; available from a range of electronic component suppliers or online, e.g. at http://www.techsupplies.co.uk ) and has been designed so that the intensity of the current pulses is easy to set. The circuit is powered by a 9 V DC plug pack. The PICAXE chip is programmed using BASIC code that raises the voltage on pins 6 and 7 of the microcontroller chip to 5 V for 200 ms. At the end of the 200 ms pulse, the voltage drops to 0 V for another 200 ms, which is equivalent to a pulse train of 2.5 Hz with a 50% duty cycle. The pulse at pin 6 controls a light-emitting diode (LED) which signals operation of the pulse generator, while the pulse at pin 7 is connected to a voltage divider circuit.

Journal: Neuromethods

Article Title: Stimulation and Inhibition of Neurons

doi: 10.1007/978-1-62703-233-9

Figure Lengend Snippet: Fig. 2. A pulse generator circuit for juxtacellular neuronal labelling. The device is based on a PIC microcontroller (PICAXE 08M; available from a range of electronic component suppliers or online, e.g. at http://www.techsupplies.co.uk ) and has been designed so that the intensity of the current pulses is easy to set. The circuit is powered by a 9 V DC plug pack. The PICAXE chip is programmed using BASIC code that raises the voltage on pins 6 and 7 of the microcontroller chip to 5 V for 200 ms. At the end of the 200 ms pulse, the voltage drops to 0 V for another 200 ms, which is equivalent to a pulse train of 2.5 Hz with a 50% duty cycle. The pulse at pin 6 controls a light-emitting diode (LED) which signals operation of the pulse generator, while the pulse at pin 7 is connected to a voltage divider circuit.

Article Snippet: 17310 Juxtacellular Neuronal Labelling Microelectrodes are pulled from borosilicate glass capillaries (1.5– 2.0 mm OD) and are fi lled with a solution containing 1.5–5% biotinamide ( N -2-aminoethyl biotinamide hydrobromide, Invitrogen, Eugene, OR, USA; see Sect.

Techniques:

Fig. 4. Equipment required for juxtacellular neuronal labelling. An intracellular electrometer ampli fi er ( a ) capable of delivering current pulses is an essential element. The intracellular ampli fi er is coupled to a bandpass ampli fi er ( b ) whose output is monitored using an oscilloscope ( c ), a computerised data acquisition system ( d ) and an audio monitor ( e ). Positive current pulses are applied juxtacellularly via the ampli fi er probe connected to the recording microelectrode. Pulses are generated by the pulse generator ( f ). The pulse generator can be a conventional laboratory stimulator or a dedicated pulse generator as described in this chapter. During application of the juxtacellular current, the sweep of the oscilloscope should be syn- chronised with the pulses so that entrainment of the recorded neuron can be constantly monitored. The sweep can be synchronised by connecting the ‘monitor’ output of the pulse generator to the external input of the oscilloscope time base. The time base should be set to 100 ms/division. It is also prudent to monitor the pulsed output of the electrometer to detect changes in electrode impedance that may result from blockage of the electrode.

Journal: Neuromethods

Article Title: Stimulation and Inhibition of Neurons

doi: 10.1007/978-1-62703-233-9

Figure Lengend Snippet: Fig. 4. Equipment required for juxtacellular neuronal labelling. An intracellular electrometer ampli fi er ( a ) capable of delivering current pulses is an essential element. The intracellular ampli fi er is coupled to a bandpass ampli fi er ( b ) whose output is monitored using an oscilloscope ( c ), a computerised data acquisition system ( d ) and an audio monitor ( e ). Positive current pulses are applied juxtacellularly via the ampli fi er probe connected to the recording microelectrode. Pulses are generated by the pulse generator ( f ). The pulse generator can be a conventional laboratory stimulator or a dedicated pulse generator as described in this chapter. During application of the juxtacellular current, the sweep of the oscilloscope should be syn- chronised with the pulses so that entrainment of the recorded neuron can be constantly monitored. The sweep can be synchronised by connecting the ‘monitor’ output of the pulse generator to the external input of the oscilloscope time base. The time base should be set to 100 ms/division. It is also prudent to monitor the pulsed output of the electrometer to detect changes in electrode impedance that may result from blockage of the electrode.

Article Snippet: 17310 Juxtacellular Neuronal Labelling Microelectrodes are pulled from borosilicate glass capillaries (1.5– 2.0 mm OD) and are fi lled with a solution containing 1.5–5% biotinamide ( N -2-aminoethyl biotinamide hydrobromide, Invitrogen, Eugene, OR, USA; see Sect.

Techniques: Generated

FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo (neurobiotin), and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).

Journal: Frontiers in neural circuits

Article Title: Decoding brain state transitions in the pedunculopontine nucleus: cooperative phasic and tonic mechanisms.

doi: 10.3389/fncir.2015.00068

Figure Lengend Snippet: FIGURE 4 | The neurochemical properties of PPN neurons define their dynamics of activation. (A) Neurons that were recorded and labeled in vivo (neurobiotin), and subsequently identified as immunopositive for choline acetyltransferase (ChAT), responded transiently to the sensory stimulation (representative trace). (B) In contrast, neurons that were immunonegative for ChAT showed prolonged responses to the same stimulation (representative trace). (C) Repeated stimulation trials show that cholinergic neurons rapidly return to a lower firing rate and respond in similar magnitude to successive stimulations. (D) Non-cholinergic neurons are able to maintain a steady and elevated firing rate after one trial, and further increasing their firing rate with successive stimulations. (E) Normalized firing rate of cholinergic neurons show a phasic dynamic of activation (n = 4). (F) Normalized firing rate of non-cholinergic neurons that were excited by the stimulation show a tonic dynamic of activation (n = 11). (G) Normalized firing rate of non-cholinergic neurons that were inhibited by the stimulation (n = 10).

Article Snippet: In order to identify the neurochemical profile and location of juxtacellularly-labeled neurons, neurobiotin was revealed by incubation with CY3-conjugated streptavidin (1:1000; Jackson ImmunoResearch Laboratories, Inc., USA) in PBS containing 0.3% v/v Triton X-100.

Techniques: Activation Assay, Labeling, In Vivo