Schematic representation of the experimental protocol used to assess the effect of enzyme inhibitors (ABT and BNPP) on odorant-induced EOG responses.

Schematic diagram of sequence data analysis for odorant receptors.

Bin Yang (103252)
Katsuhisa Ozaki (710446)
Yukio Ishikawa (223674)
Takashi Matsuo (189062)

March 2015

The numbers of reads or contigs at each step are indicated. See text for detailed explanation.</p

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, inhibitor and product, respectively.

Yejing Wang (634575)
Huawei He (634576)
Lina Liu (227490)
Chunyan Gao (634577)
Shui Xu (634578)
Ping Zhao (47228)
Qingyou Xia (47221)

September 2014

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, i...

Hydrolysis of isoamyl acetate by olfactory and hepatic tissues and impact of the carboxylesterase inhibitor BNPP.

Nicolas Thiebaud (394612)
Stéphanie Veloso Da Silva (394613)
Ingrid Jakob (324222)
Gilles Sicard (324220)
Joëlle Chevalier (394614)
Franck Ménétrier (394615)
Olivier Berdeaux (172498)
Yves Artur (394616)
Jean-Marie Heydel (394617)
Anne-Marie Le Bon (394618)

March 2013

(A) Hydrolase activity of rat olfactory and hepatic S9 fractions (mean ± S.E.M., n = 3 replicates...

Schematic diagram of the models.

Tiffany Kee (812153)
Pavel Sanda (812154)
Nitin Gupta (812155)
Mark Stopfer (44580)
Maxim Bazhenov (44579)

October 2015

(A) This circuit, based on results obtained in vivo, contains feedback inhibition between ...

Schematic showing proposed effects of DEP exposure on the BALF GSH and Cys redox states in HDM-induced murine asthma.

Gerald B. Lee (396393)
Eric B. Brandt (103265)
Chang Xiao (396394)
Aaron M. Gibson (325405)
Timothy D. Le Cras (103275)
Lou Ann S. Brown (322686)
Anne M. Fitzpatrick (322692)
Gurjit K. Khurana Hershey (103270)

March 2013

Schematic showing proposed effects of DEP exposure on the BALF GSH and Cys redox states in HDM-in...

Odorant applicator sequences controlled by VT-8 Warner Timer software and fMRI experimental block design.

Hao Jia (196106)
Oleg M. Pustovyy (513859)
Paul Waggoner (513860)
Ronald J. Beyers (513861)
John Schumacher (313692)
Chester Wildey (513862)
Jay Barrett (513863)
Edward Morrison (513864)
Nouha Salibi (513865)
Thomas S. Denney (513866)
Vitaly J. Vodyanoy (513867)
Gopikrishna Deshpande (359071)

January 2014

For the first sequence, green arrows indicate the onset time of the odorant stimulus and red arro...

Experimental procedure and construction of population vector activity.

Martin F. Strube-Bloss (116074)
Austin Brown (792176)
Johannes Spaethe (56490)
Thomas Schmitt (181560)
Wolfgang Rössler (78743)

September 2015

(A) (example unit); trial resolved single unit activity in response to the different odor stimuli...

Effet d une substance anti-mitotique sur l épithélium olfactif de rongeurs (études électrophysiologique et comportementale)

VELOSO DA SILVA, Stéphanie
SICARD, Gilles
JAKOB, Ingrid

January 2009

Les traitements anticancéreux s accompagnent souvent de perturbations de la prise alimentaire. Afin ...

Adiponectin increases the electrical response of olfactory sensory neurons to benzaldehyde.

Diana Loch (469377)
Christian Heidel (469378)
Heinz Breer (431142)
Jörg Strotmann (469379)

October 2013

(A) Representative EOG responses to benzaldehyde (1:1000) (black traces) recorded from one...

Sample experiment timeline.

Heather J. Rhodes (13751579)
Melanie Amo (13751582)

September 2022

This timeline represents a short segment of an experiment, illustrating the order and timing of even...

experimental protocol: Schematic illustration of the protocols used in the in vivo experiments.

Yossi Issan (540887)
Ran Kornowski (540888)
Dan Aravot (540889)
Asher Shainberg (446427)
Michal Laniado-Schwartzman (540890)
Komal Sodhi (540891)
Nader G. Abraham (540892)
Edith Hochhauser (446423)

March 2014

experimental protocol: Schematic illustration of the protocols used in the in vivo experiments.</...

Vertebrate odorant binding proteins as antimicrobial humoral components of innate immunity for pathogenic microorganisms - Fig 1

Federica Bianchi (1726954)
Sara Flisi (4347493)
Maria Careri (1726957)
Nicolò Riboni (6499121)
Silvia Resimini (6499124)
Andrea Sala (401522)
Virna Conti (728584)
Monica Mattarozzi (2424376)
Simone Taddei (81317)
Costanza Spadini (6499127)
Giuseppina Basini (6499130)
Stefano Grolli (728591)
Clotilde Silvia Cabassi (4347490)
Roberto Ramoni (728590)

March 2019

Investigation of the binding of 1-aminoanthracene (A and C) and farnesol (B and D) to bovine (A) and...

Olfactory studies using ethyl bromoacetate and other chemically active odorants

Rollie Schafer
Darrell W. Criswell
Stephen P. Fracek.
K. R. Brower

January 1983

Abstract. Eleven chemically active odorants were tested to determine their effectiveness and specifi...

PKA and dynamin inhibition partially prevented the outcome of PDE inhibition.

Gabriela Antunes (619771)
Ana Maria Sebastião (619772)
Fabio Marques Simoes de Souza (619773)

August 2014

A: The effect of IBMX, IBMX+H89 and IBMX+dynasore on STA was verified by the averaged percent of ...

GGN activity and its inhibitory input to the LHNs across a range of concentrations.

Tiffany Kee (812153)
Pavel Sanda (812154)
Nitin Gupta (812155)
Mark Stopfer (44580)
Maxim Bazhenov (44579)

October 2015

Colors indicate the type of the motif: feed-forward (FF) inhibition (blue) and feedback (FB) inhi...

Schematic diagram of sequence data analysis for odorant receptors.

Bin Yang (103252)
Katsuhisa Ozaki (710446)
Yukio Ishikawa (223674)
Takashi Matsuo (189062)

March 2015

The numbers of reads or contigs at each step are indicated. See text for detailed explanation.</p

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, inhibitor and product, respectively.

Yejing Wang (634575)
Huawei He (634576)
Lina Liu (227490)
Chunyan Gao (634577)
Shui Xu (634578)
Ping Zhao (47228)
Qingyou Xia (47221)

September 2014

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, i...

Hydrolysis of isoamyl acetate by olfactory and hepatic tissues and impact of the carboxylesterase inhibitor BNPP.

Nicolas Thiebaud (394612)
Stéphanie Veloso Da Silva (394613)
Ingrid Jakob (324222)
Gilles Sicard (324220)
Joëlle Chevalier (394614)
Franck Ménétrier (394615)
Olivier Berdeaux (172498)
Yves Artur (394616)
Jean-Marie Heydel (394617)
Anne-Marie Le Bon (394618)

March 2013

(A) Hydrolase activity of rat olfactory and hepatic S9 fractions (mean ± S.E.M., n = 3 replicates...

Schematic diagram of the models.

Tiffany Kee (812153)
Pavel Sanda (812154)
Nitin Gupta (812155)
Mark Stopfer (44580)
Maxim Bazhenov (44579)

October 2015

(A) This circuit, based on results obtained in vivo, contains feedback inhibition between ...

Schematic showing proposed effects of DEP exposure on the BALF GSH and Cys redox states in HDM-induced murine asthma.

Gerald B. Lee (396393)
Eric B. Brandt (103265)
Chang Xiao (396394)
Aaron M. Gibson (325405)
Timothy D. Le Cras (103275)
Lou Ann S. Brown (322686)
Anne M. Fitzpatrick (322692)
Gurjit K. Khurana Hershey (103270)

March 2013

Schematic showing proposed effects of DEP exposure on the BALF GSH and Cys redox states in HDM-in...

Odorant applicator sequences controlled by VT-8 Warner Timer software and fMRI experimental block design.

Hao Jia (196106)
Oleg M. Pustovyy (513859)
Paul Waggoner (513860)
Ronald J. Beyers (513861)
John Schumacher (313692)
Chester Wildey (513862)
Jay Barrett (513863)
Edward Morrison (513864)
Nouha Salibi (513865)
Thomas S. Denney (513866)
Vitaly J. Vodyanoy (513867)
Gopikrishna Deshpande (359071)

January 2014

For the first sequence, green arrows indicate the onset time of the odorant stimulus and red arro...

Experimental procedure and construction of population vector activity.

Martin F. Strube-Bloss (116074)
Austin Brown (792176)
Johannes Spaethe (56490)
Thomas Schmitt (181560)
Wolfgang Rössler (78743)

September 2015

(A) (example unit); trial resolved single unit activity in response to the different odor stimuli...

Effet d une substance anti-mitotique sur l épithélium olfactif de rongeurs (études électrophysiologique et comportementale)

VELOSO DA SILVA, Stéphanie
SICARD, Gilles
JAKOB, Ingrid

January 2009

Les traitements anticancéreux s accompagnent souvent de perturbations de la prise alimentaire. Afin ...

Adiponectin increases the electrical response of olfactory sensory neurons to benzaldehyde.

Diana Loch (469377)
Christian Heidel (469378)
Heinz Breer (431142)
Jörg Strotmann (469379)

October 2013

(A) Representative EOG responses to benzaldehyde (1:1000) (black traces) recorded from one...

Sample experiment timeline.

Heather J. Rhodes (13751579)
Melanie Amo (13751582)

September 2022

This timeline represents a short segment of an experiment, illustrating the order and timing of even...

experimental protocol: Schematic illustration of the protocols used in the in vivo experiments.

Yossi Issan (540887)
Ran Kornowski (540888)
Dan Aravot (540889)
Asher Shainberg (446427)
Michal Laniado-Schwartzman (540890)
Komal Sodhi (540891)
Nader G. Abraham (540892)
Edith Hochhauser (446423)

March 2014

experimental protocol: Schematic illustration of the protocols used in the in vivo experiments.</...

Vertebrate odorant binding proteins as antimicrobial humoral components of innate immunity for pathogenic microorganisms - Fig 1

Federica Bianchi (1726954)
Sara Flisi (4347493)
Maria Careri (1726957)
Nicolò Riboni (6499121)
Silvia Resimini (6499124)
Andrea Sala (401522)
Virna Conti (728584)
Monica Mattarozzi (2424376)
Simone Taddei (81317)
Costanza Spadini (6499127)
Giuseppina Basini (6499130)
Stefano Grolli (728591)
Clotilde Silvia Cabassi (4347490)
Roberto Ramoni (728590)

March 2019

Investigation of the binding of 1-aminoanthracene (A and C) and farnesol (B and D) to bovine (A) and...

Olfactory studies using ethyl bromoacetate and other chemically active odorants

Rollie Schafer
Darrell W. Criswell
Stephen P. Fracek.
K. R. Brower

January 1983

Abstract. Eleven chemically active odorants were tested to determine their effectiveness and specifi...

PKA and dynamin inhibition partially prevented the outcome of PDE inhibition.

Gabriela Antunes (619771)
Ana Maria Sebastião (619772)
Fabio Marques Simoes de Souza (619773)

August 2014

A: The effect of IBMX, IBMX+H89 and IBMX+dynasore on STA was verified by the averaged percent of ...

GGN activity and its inhibitory input to the LHNs across a range of concentrations.

Tiffany Kee (812153)
Pavel Sanda (812154)
Nitin Gupta (812155)
Mark Stopfer (44580)
Maxim Bazhenov (44579)

October 2015

Colors indicate the type of the motif: feed-forward (FF) inhibition (blue) and feedback (FB) inhi...

Schematic diagram of sequence data analysis for odorant receptors.

Bin Yang (103252)
Katsuhisa Ozaki (710446)
Yukio Ishikawa (223674)
Takashi Matsuo (189062)

March 2015

The numbers of reads or contigs at each step are indicated. See text for detailed explanation.</p

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, inhibitor and product, respectively.

Yejing Wang (634575)
Huawei He (634576)
Lina Liu (227490)
Chunyan Gao (634577)
Shui Xu (634578)
Ping Zhao (47228)
Qingyou Xia (47221)

September 2014

The illustration of mixed-type inhibition mechanism. E, S, I and P represent enzyme, substrate, i...

Hydrolysis of isoamyl acetate by olfactory and hepatic tissues and impact of the carboxylesterase inhibitor BNPP.

Nicolas Thiebaud (394612)
Stéphanie Veloso Da Silva (394613)
Ingrid Jakob (324222)
Gilles Sicard (324220)
Joëlle Chevalier (394614)
Franck Ménétrier (394615)
Olivier Berdeaux (172498)
Yves Artur (394616)
Jean-Marie Heydel (394617)
Anne-Marie Le Bon (394618)

March 2013

(A) Hydrolase activity of rat olfactory and hepatic S9 fractions (mean ± S.E.M., n = 3 replicates...

Schematic representation of the experimental protocol used to assess the effect of enzyme inhibitors (ABT and BNPP) on odorant-induced EOG responses.

Abstract

Extracted data

Schematic representation of the experimental protocol used to assess the effect of enzyme inhibitors (ABT and BNPP) on odorant-induced EOG responses.

Abstract

Extracted data

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