PicoQuant in Bangladesh

Explore 44 unique PicoQuant catalogue listings across Nanotechnology. Compare equipment and manufacturer references, then request a quotation for the model, accessories, delivery and support you need.

Plan your purchase: time-resolved fluorescence and photon counting

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Products

FluoTime 300: The FluoTime 300 is a modular photoluminescence spectrometer that combines steady-state and time-resolved measurements in one instrument. It records emission and excitation spectra as well as fluorescence and phosphorescence decays. It is used for materials characterisation, semiconductor and LED research.
FluoTime 250: The FluoTime 250 is a compact, modular lifetime spectrometer for fluorescence and photoluminescence decay measurements. It is built for time-resolved work on demanding samples where sensitivity matters, and its modules can be configured to suit the experiment. Typical uses include semiconductor and solar cell studies.
Micro-Photoluminescence Upgrade: The Micro-Photoluminescence Upgrade adds spectrally and time-resolved micro-photoluminescence to an existing system by coupling a microscope to a spectrometer. It works with the FluoMic, Solira and MicroTime 200 microscope bodies. It is used to study emission from small, micrometre sized sample areas.
MicroTime 200: The MicroTime 200 is a modular time-resolved confocal microscope with single molecule sensitivity. It measures time-resolved fluorescence and photoluminescence at the single-molecule level and can be extended for STED super-resolution imaging. It is used in structural biology, semiconductor and nanomaterials research.
Luminosa: Luminosa is a confocal fluorescence microscope with single photon counting detection for quantitative, time-resolved and single-molecule imaging. It can be equipped with PDA-23 SPAD array detection for confocal time-resolved measurements. Reported uses include metabolic FLIM studies.
Solira: Solira is an all-in-one time-resolved photoluminescence microscope for optical characterisation of materials and optoelectronic devices. It combines flexible excitation, sensitive detection of weak signals and picosecond timing to follow fast dynamics across different material systems.
FluoMic: FluoMic is a compact upright widefield photoluminescence microscope for steady-state and time-resolved imaging from the UV to the near infrared. It also supports spectrally resolved micro-photoluminescence at high spatial resolution. It is applied to materials research, solar cell and LED characterisation.
LSM Upgrade Kit: The LSM Upgrade Kit adds fluorescence lifetime imaging and fluorescence correlation spectroscopy to an existing laser scanning microscope. The compact kit integrates with LSM systems from Nikon, Zeiss, Evident and Abberior, so time-resolved measurements are possible without replacing the microscope.
FlexLambda Kit: The FlexLambda Kit is a compact wavelength selection unit for time-resolved photoluminescence measurements. It selects wavelengths quickly and with high photon efficiency, without the need to change optical components. It fits into existing time-resolved measurement workflows, including the Solira microscope.
HydraHarp 500: The HydraHarp 500 is a multichannel time tagging and TCSPC unit for photon counting experiments. It records photon arrival times with a 1 ps minimum time bin width and typical timing precision of 3.5 ps RMS. Channel counts can be extended above the four channel base model as an experiment grows.
PicoHarp 330: The PicoHarp 330 is a time tagging and TCSPC unit for photon counting measurements. It offers a 1 ps minimum time bin width, typical timing precision of 3 ps RMS and 680 ps dead time with level triggering. The base model has one detector channel and can be upgraded to four.
MultiHarp 160: The MultiHarp 160 is a high-throughput multichannel time tagging and TCSPC unit. It records photon arrival times on 16 channels in the main unit, extendable to 64 channels with extension units, at a 5 ps minimum time bin width. It is used for quantum communication research and detector testing.
MultiHarp 150: The MultiHarp 150 is a multichannel time tagging and TCSPC unit for high-throughput photon counting. The P version provides 4, 8 or 16 detector channels at a 5 ps minimum time bin width, while the N version provides 4 or 8 channels at 80 ps. Both keep dead time below 650 ps.
TimeHarp 260: The TimeHarp 260 is a TCSPC and MCS board in PCIe format, available with one or two detector channels. The PICO version reaches a 25 ps minimum time bin width and the NANO version 250 ps, with sustained throughput of 40 Mcps summed over all channels. It performs photon counting inside a host PC.
PMA Series: The PMA Series are integrated photomultiplier detector assemblies for time-correlated single photon counting. The PMA 175 covers 230 to 700 nm and the PMA 192 covers 230 to 920 nm, both with transit time spread below 180 ps. Cooled versions lower the dark count rate for work on weak signals.
PMA Hybrid Series: The PMA Hybrid Series are hybrid photomultiplier detector assemblies for single photon counting from the UV to the near infrared. Depending on the cathode type they cover ranges between 220 nm and 890 nm, with cooled dark counts as low as 10 cps typical. Separate timing and analogue outputs are provided.
PDM Series: The PDM Series are single photon avalanche diode detectors for time-resolved measurements. Photon detection efficiency reaches 49 % at 550 nm, timing resolution goes down to 50 ps FWHM on the NIM timing output and dead time is typically 77 ns. They are used for FLIM, TRPL and LiDAR.
PDA-23: The PDA-23 is a cooled 23-pixel single photon avalanche diode array detector. It provides low-noise, high-efficiency single photon detection across all 23 pixels for imaging and time-correlated single photon counting. Reported uses include fluorescence correlation spectroscopy with SPAD arrays.
LDH Series: The LDH Series are picosecond pulsed laser diode heads covering a broad range of wavelengths. The beam optics use a numerical aperture of 0.55, with typical divergence of 0.11 mrad and 0.32 mrad along the two beam axes and typically linear polarisation. They are used for time-resolved techniques and LiDAR.
LDH-I Series: The LDH-I Series are smart picosecond laser diode heads covering the UV-A to the near infrared. They provide high power at high repetition rates, with a numerical aperture of 0.55 and a spectral width of about 2 to 8 nm below 900 nm. They are used for time-resolved methods including FLIM and TRPL.
LDH-FA Series: The LDH-FA Series are fibre amplified picosecond laser diode heads delivering high pulse energy and stable output. Configurations cover UV, visible and infrared wavelengths, and optional fibre coupling is available for beam delivery. They are used for time-resolved techniques and for LiDAR.
PLS Series: The PLS Series are sub-nanosecond pulsed LED sources for fluorescence excitation. The PLS 355 emits at 355 ± 10 nm with a typical pulse width of 900 ps, and the PLS 575 emits at 575 ± 10 nm with a pulse width below 1.3 ns. Both run at repetition rates of up to 10 MHz.
PLS-I Series: The PLS-I Series are high-power nanosecond pulsed LED sources covering the UV to the visible range. They provide stable excitation for time-resolved measurements, with Peltier cooling held to better than 1 K across an ambient range of 15 °C to 30 °C. They are used in life science and materials science research.
Sepia PDL 828: The Sepia PDL 828 is a modular multichannel driver for picosecond diode laser heads. The large mainframe holds one oscillator module and up to eight laser driver modules, each running at 80, 40, 20, 10, 5 or 2.5 MHz with typical jitter of 3 to 5 ps. It supports pulsed, burst and CW excitation.
Sepia PDL 810: The Sepia PDL 810 is a single channel driver for picosecond diode laser heads. It runs in pulsed or continuous wave mode at 80, 40, 20, 10, 5 or 2.5 MHz derived from an 80 MHz base frequency, with typical jitter of 3 to 5 ps. The unit is controlled over a USB 2.0 interface.
PDL 800-D: The PDL 800-D is a driver unit for picosecond pulsed diode laser heads. It runs in pulsed or continuous wave mode from base frequencies of 80 MHz or 1 MHz, giving selectable repetition rates between 31.25 kHz and 80 MHz. External triggering is accepted over 10 Hz to 80 MHz for synchronisation with other equipment.
Taiko PDL M1: The Taiko PDL M1 is a picosecond diode laser driver with pulse shaping and automatic calibration of the connected laser head. It operates in pulsed, burst or continuous wave mode from 1 Hz to 100 MHz, with typical jitter of 3 to 5 ps. It is used for time-resolved experiments that need stable, adjustable excitation.
Prima: Prima is a compact stand-alone gain-switched picosecond laser that provides three wavelengths in one unit. The wavelength options are 375, 405, 450, 485, 515 and 640 nm, and the repetition rate is selectable from 1 kHz to 200 MHz. It supports pulsed and CW excitation for nanosecond to millisecond experiments.
VisIR: VisIR is a stand-alone picosecond laser for the infrared, with wavelengths available from 765 to 1950 nm and a spectral width well below 1 nm. Internal repetition rates are selectable between 31.25 kHz and 80 MHz, and external triggering runs from below 1 Hz to 80 MHz. It is used for STED, LiDAR and materials research.
VisUV: VisUV is a stand-alone picosecond laser covering wavelengths from 266 to 590 nm with a spectral width well below 1 nm. Internal repetition rates are selectable between 31.25 kHz and 80 MHz, and external triggering runs from below 1 Hz to 80 MHz. It provides UV to visible excitation for time-resolved research.
Unico: Unico is a compact stand-alone gain-switched picosecond laser supplying a single wavelength per unit. The options are 375, 405, 450, 485, 515 and 640 nm, with the repetition rate selectable from 1 kHz to 200 MHz and jitter below 12 ps RMS. It is used for time-resolved methods such as TRPL and FLIM.
CPDL-Q: The CPDL-Q are compact picosecond diode laser modules intended for integration into other instruments. The internal repetition rate is selectable from 1 kHz to 200 MHz, timing jitter stays below 12 ps RMS and optical gating rises or falls in under 3 ns. Each module measures 40 x 40 x 160 mm and weighs 0.31 kg.
CPDL-S-F/FA Series: The CPDL-S-F/FA Series are compact picosecond diode laser modules with fibre output for integration into other equipment. The FC/APC receptacle takes single mode polarisation maintaining fibre with a built in optical isolator, and triggering runs from single shot to 100 MHz. They suit time-resolved and sensing work.
PPL 512 / PPA 512: The PPL 512 and PPA 512 are a programmable pulse laser and amplifier for nanosecond pulse shaping. A 512 byte pattern is read out at 5 GS / s in 200 ps time bins, so the emitted waveform can be defined step by step. A synchronisation output and USB control are provided for integration into larger setups.
PPG 512: The PPG 512 is a programmable pulse generator for nanosecond pulse shaping of lasers and amplifiers. A 512 byte pattern is read out at 5 GS/s in 200 ps time bins, and the main output is adjustable between 0V and + 12 V into 50 Ohms in 256 steps. A sync pulse follows every 512 bytes, that is every 102.4 ns.
Luminosa PDA-23 Add-On: The PDA-23 add-on equips the Luminosa confocal microscope with a cooled 23-pixel SPAD array for confocal time-resolved detection, combining the higher resolution of image scanning microscopy with quantitative FLIM. Pixel reassignment raises resolution by about 30%, taking 485 nm excitation down to 155 nm FWHM, and deconvolution takes that further to 120 nm FWHM. Computational sectioning improves contrast by rejecting out of focus light, and every pixel of the array is time tagged, with dual-channel acquisition available simultaneously through pulsed interleaved excitation. Integrated in Luminosa, the detector keeps alignment stable and pairs with the MultiHarp 160 multichannel time tagging and TCSPC unit, with analysis handled in NovaISM.
MicroTime 200 STED Add-On: This open STED add-on extends the MicroTime 200 to super-resolution imaging with time-resolved contrast, resolving nanoscale structures below 50 nm that confocal images cannot separate. A stable donut shaped depletion beam is produced by an EASYDOnut phase plate, which avoids complex alignment, and gSTED time gating isolates late photons for better resolution and sensitivity. Triple-species STED imaging is possible using fluorescence pattern matching for accurate multicolour co-localisation, and the reduced observation volume benefits STED-FCS by allowing diffusion measurements at higher concentrations. Full compatibility with the MicroTime 200 is retained, and the complete STED workflow including time gating and multi-species pattern matching runs in SymPhoTime 64.
EasyTau 2: EasyTau 2 brings hardware control, data acquisition and analysis for PicoQuant spectrometer systems into a single time-resolved fluorescence workflow. Three operating modes are offered: a Wizard mode with guided step by step workflows, a Customized mode giving full manual control of hardware and acquisition parameters, and a Scripting mode for automated measurement routines and remote execution. Analysis covers multi-exponential decay fitting up to 5th order, lifetime distribution models including Gaussian, Lorentzian and stretched exponential, anisotropy analysis from polarisation resolved studies, global and batch fitting across multiple datasets, bootstrap error analysis with confidence intervals, and IRF corrected reconvolution fitting.
NovaFLIM: NovaFLIM is PicoQuant's analysis software for fluorescence lifetime imaging, with GPU acceleration applied to FLIM, FLIM-FRET and anisotropy data. Analysis modes span fast lifetime determination, multi-exponential decay fitting, phasor plots and pattern matching for species separation and multiplexing, alongside FLIM-FRET analysis and anisotropy imaging. Batch analysis handles z-stacks, time-lapse series and stitched images, and ROI selection can be made reproducible using histograms of the fitted parameters. ISM-FLIM is supported in combination with PDA-23 SPAD detection.
NovaISM: NovaISM is image scanning microscopy and FLIM analysis software that is integrated with the Luminosa microscope and optimised for the PDA-23 SPAD array detector. Working from the summed signal of all 23 SPAD pixels, pixel reassignment alone raises resolution by roughly 30%, and combined with computational sectioning and deconvolution the software delivers up to 1.7 times higher resolution than conventional confocal imaging. Computational sectioning removes out of focus contributions to lift contrast, and it can run simultaneously with lifetime species separation. Raw time tags from all 23 PDA-23 pixels remain accessible, batch analysis covers series measurements and multi-ROI workflows, and results export as BMP, PNG, OME-TIFF and SVG.
QuCoA: QuCoA is an integrated acquisition and analysis package for PicoQuant time tagging and TCSPC electronics, aimed at experiments built around photon coincidences. It calculates g(2) antibunching correlations under continuous wave or pulsed excitation, with fitting models for single emitters with and without shelving states, pulsed excitation models and detector resolution corrections. Coincidence counting is defined through user set logical filters using AND, OR and NOT across detection channels and markers within configurable time gates. A scripting language allows custom analysis routines, and the software can be driven remotely over TCP/IP while acquiring and visualising data in real time.
snAPI: snAPI is a free Python wrapper for PicoQuant's time tagging and TCSPC electronics, backed by a high performance C++ core so that Python flexibility does not cost processing speed. Measurement classes cover Histogram for TCSPC distributions and lifetime analysis, Time Trace for count rate tracking, Correlation for auto and cross correlation such as g² and FCS, and Unfold and Raw for direct access to photon event streams. Real time manipulators handle coincidence detection across channels, herald based event filtering, channel merging, timestamp delays and sub-stream temporal filtering. It also supports White Rabbit multi-device synchronisation with sub-nanosecond precision, PTU file reading for offline work and photon number resolution, runs on Windows and Linux, and ships with ready to run quantum optics demonstration code including Bell states, GHZ, BB84 QKD and boson sampling.
SymPhoTime 64: SymPhoTime 64 is PicoQuant's integrated platform for time-resolved fluorescence imaging and analysis, pairing structured workflows with acquisition and processing tools. On the imaging side it unifies FLIM, FRET, anisotropy and multichannel imaging with decay fitting and IRF reconvolution. Its correlation engine covers FCS, FCCS, FLCS and antibunching analysis, and single molecule interfaces handle blinking, burst analysis, lifetime traces and PIE-FRET studies. The software controls PicoQuant microscope systems, the LSM Upgrade Kit, time tagging and TCSPC electronics and custom setups, with synchronised multi-mode imaging, real time previews and STUPSLANG scripting for tailored analysis routines and hardware extensions.
UniHarp: UniHarp is PicoQuant's free universal time-tagging data acquisition software for real time, high precision photon data acquisition, visualisation and first pass analysis. Complex measurements can be configured without scripting, and live results can be compared directly against previously recorded data. Auto-Tune adjusts key acquisition settings automatically from the detected signal, Curve Memory anchors or loads earlier curves for direct comparison with live data, and a customisable Scoreboard window keeps the essential acquisition metrics continuously in view. Built in filtering tools help clean measurement data.

PicoQuant equipment: purchase questions

Which PicoQuant equipment can I find here?

This VVON catalogue covers time-resolved fluorescence and photon counting. Use the category filter or search a product or model, then open the product page for its description and manufacturer reference. Catalogue entries do not establish current local stock or every product in the manufacturer's worldwide range.

What details help prepare a PicoQuant quotation?

Include: Sample, excitation wavelengths and emission range; Lifetime or timing requirement and count-rate conditions; Sources, detectors, synchronisation and software. Add the quantities, delivery location and required date. You can add several products to one enquiry list or request help selecting the configuration.

What affects PicoQuant equipment pricing in Bangladesh?

Excitation sources, detectors, timing electronics, sample accessories and software licences define the measurement system. Request a configuration against the required wavelength and lifetime range. Request a dated, itemised quotation stating currency, taxes, delivery, warranty and service responsibilities. A catalogue listing is not a current price or local-stock commitment.