Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED

Daan Lenstra; Amani Ouirimi; Alex Chamberlain   Chime; Nixson  Loganathan; Mahmoud  Chakaroun; Alexis P. A.  Fischer

Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED

Daan Lenstra, Amani Ouirimi, Alex Chamberlain Chime, Nixson Loganathan, Mahmoud Chakaroun, Alexis P. A. Fischer

Photonic Integration

Research output: Contribution to conference › Poster › Academic

2 Downloads (Pure)

Abstract

We present a new model for an organic laser diode based on rate equations for polarons, singlet and triplet excitons, both in host and dopant molecules, and photon densities. The model is validated by comparing calculated optical responses with measurements on high-speed low-Q OLEDS under pulsed nanosecond electrical excitation. The model confirms the threshold-current density of ~500A/cm2 observed in the recent first experiment with indication of lasing in an OLED with DFB-grating in the group of Adachi [1], if the Q-factor ~20K and no residual absorption occurs.

Original language	English
Pages	34-35
Number of pages	2
Publication status	Published - 4 Dec 2020
Event	European Semiconductor Laser Workshop - Online, TU/e, Eindhoven, Netherlands Duration: 4 Dec 2020 → 5 Dec 2020 http://www.eslw.eu/

Conference

Conference	European Semiconductor Laser Workshop
Abbreviated title	ESLW 2020
Country	Netherlands
City	Eindhoven
Period	4/12/20 → 5/12/20
Internet address	http://www.eslw.eu/

Bibliographical note

Poster presentation

Keywords

Rate Equations
Microcavity OLED
Organic Diode Laser

Access to Document

Landscape A0 Poster Rate Equation Theory of OLD1

Fingerprint Dive into the research topics of 'Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED'. Together they form a unique fingerprint.

Cite this

@conference{b7b68a67efd84abc814aa890774ab460,

title = "Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED",

abstract = "We present a new model for an organic laser diode based on rate equations for polarons, singlet and triplet excitons, both in host and dopant molecules, and photon densities. The model is validated by comparing calculated optical responses with measurements on high-speed low-Q OLEDS under pulsed nanosecond electrical excitation. The model confirms the threshold-current density of ~500A/cm2 observed in the recent first experiment with indication of lasing in an OLED with DFB-grating in the group of Adachi [1], if the Q-factor ~20K and no residual absorption occurs.",

keywords = "Rate Equations, Microcavity OLED, Organic Diode Laser",

author = "Daan Lenstra and Amani Ouirimi and Chime, {Alex Chamberlain} and Nixson Loganathan and Mahmoud Chakaroun and Fischer, {Alexis P. A.}",

note = "Poster presentation; European Semiconductor Laser Workshop, ESLW 2020 ; Conference date: 04-12-2020 Through 05-12-2020",

year = "2020",

month = dec,

day = "4",

language = "English",

pages = "34--35",

url = "http://www.eslw.eu/",

}

Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED. / Lenstra, Daan; Ouirimi, Amani; Chime, Alex Chamberlain ; Loganathan, Nixson ; Chakaroun, Mahmoud ; Fischer, Alexis P. A. .

2020. 34-35 Poster session presented at European Semiconductor Laser Workshop, Eindhoven, Netherlands.

Research output: Contribution to conference › Poster › Academic

TY - CONF

T1 - Rate Equation Theory for Organic Diode Laser and Experimental Validation with Microcavity OLED

AU - Lenstra, Daan

AU - Ouirimi, Amani

AU - Chime, Alex Chamberlain

AU - Loganathan, Nixson

AU - Chakaroun, Mahmoud

AU - Fischer, Alexis P. A.

N1 - Poster presentation

PY - 2020/12/4

Y1 - 2020/12/4

N2 - We present a new model for an organic laser diode based on rate equations for polarons, singlet and triplet excitons, both in host and dopant molecules, and photon densities. The model is validated by comparing calculated optical responses with measurements on high-speed low-Q OLEDS under pulsed nanosecond electrical excitation. The model confirms the threshold-current density of ~500A/cm2 observed in the recent first experiment with indication of lasing in an OLED with DFB-grating in the group of Adachi [1], if the Q-factor ~20K and no residual absorption occurs.

AB - We present a new model for an organic laser diode based on rate equations for polarons, singlet and triplet excitons, both in host and dopant molecules, and photon densities. The model is validated by comparing calculated optical responses with measurements on high-speed low-Q OLEDS under pulsed nanosecond electrical excitation. The model confirms the threshold-current density of ~500A/cm2 observed in the recent first experiment with indication of lasing in an OLED with DFB-grating in the group of Adachi [1], if the Q-factor ~20K and no residual absorption occurs.

KW - Rate Equations

KW - Microcavity OLED

KW - Organic Diode Laser

M3 - Poster

SP - 34

EP - 35

T2 - European Semiconductor Laser Workshop

Y2 - 4 December 2020 through 5 December 2020

ER -