PRODUCT DIRECTORY

Park NX12 is an all-in-one solution for nanoscale microscopy. It provides high-resolution imaging with diverse property measurement capabilities. It excels in electrochemistry research and is ideal for multi-user facilities serving a wide range of research disciplines. This adaptable platform covers a range of applications, from nanomechanical mapping, scanning ion conductance microscopy to inverted optical microscopy. Its flexibility is further enhanced by optional hardware and software add-ons, making it an ideal choice for analytical researchers and multi-user facility users.

RESCU (Real space Electronic Structure CalcUlator) is optimized to create a complete large scale DFT solution including a full set of features. More specifically, RESCU is a state of-the-art general-purpose Kohn-Sham DFT package based on advanced numerical mathematics and a parallel implementation that can predict material properties on small computer clusters. It includes common electronic structure analysis tools and implements a perturbation theory extension of DFT (DFPT) which allows computing all sorts of responses functions like polarization, phonon band structures or optical properties. Addressed applicative domains are (non-exhaustive list): >>Electronic properties of nanostructures and nanodevices >>Design, fabrication, and test of high-performance Nano sensors (NEMS) >>Advanced Materials and Nanotechnology for Post-Lithium-ion Battery >>Creation of novel functional materials / nanomaterials engineering >>Next-generation semiconductors, Solar cells, Membrane, Semiconductors, Photocatalysts, Epitaxial nanostructures >>Functional Organic and Inorganic Chemistry >>Molecular design & simulations >>Interfaces between solid/liquid compounds >>Microscopy (electronic or advanced/high resolution molecular spectroscopy) studies

RESCU+ (Real space Electronic Structure CalcUlator plus) is designed to create a complete large-scale DFT solution. More specifically, it is an optimized general-purpose Kohn-Sham DFT package including all the features listed below and more. It offers complementary features to its predecessor RESCU, such as AIMD and nudged elastic band (NEB). With an enhanced modularity, a Python interface and a Fortran core, plus a dedicated artificial intelligence module, it offers better than ever parallelism and improved calculation times especially on clusters and supercomputers by at least one order of magnitude. Benefits of RESCU+: Predict the electronic structure of virtually any material. RESCU+ computes the properties of molecules, crystals, surfaces and large scale heterostructures from first principles using density functional theory (DFT). Using RESCU+ is convenient and easy. RESCU+ is operable using the popular Python language. You can conveniently build crystals, heterostructures and other systems directly in Python and import calculators to simulate and analyze atomistic systems. You can also easily create your own workflows using RESCU+ calculators. Get the answer faster using RESCU+ powerful implementation. RESCU+’s high-performance solvers are carefully optimized and parallelized to yield the answer faster and allow simulating larger more realistic systems (up to 100,000+ atoms). Efficient ion dynamics The RESCU+ python API makes it easy to interface with other libraries such as ASE and LAMMPS, which can use RESCU+ to quickly do away with large scale relaxation, AIMD and NEB calculations. Key Features: - Fast & parallel solver RESCU+ is carefully optimized to get you the answer faster. The code is parallelized using MPI and scales to 1,000’s of cores. - Python integration RESCU+ has a friendly Python interface, allowing one to quickly and easily build workflows and visualize data. Choose from our pool of calculators to compute ground state densities, band structures, equations of states, transition level diagrams of defects and more. - Ion dynamics Quickly find equilibrium atomic positions and cell shapes of large structures, perform molecular dynamics and nudged elastic band calculations using RESCU+ as a powerful first principles force and stress calculator. RESCU+ harbors a hybrid ab initio/machine learning (ML) molecular dynamic engine which can accelerate AIMD workloads by more than an order of magnitude. - Ground state properties Predict ground state properties like total energy, atomic forces, stress tensor. - Spin Include the physics of electronic spin and spin-orbit coupling via a state-of-the-art spin-DFT implementation (collinear and non-collinear formalisms). [rescuplus_fe_bs] Atomic orbitals and pseudopotentials Benefit from our accurate, efficient and complete database of atomic orbitals and pseudopotentials.

hpAFM is the most advanced atomic force microscope that brings a new level of performance, functionality, design and capability. It’s designed to minimize the time to get best results. Whether you can work in liquid or in air conditions, it is for everyone from material science to life science. hpAFM offers excellent features such as alignment-free design, closed loop flexure scanner, decoupled z scanner, 10 MP video microscope and flexible operating modes.

The multiparameter measuring systems of the Modulyzer series determine several parameters in a very short time. The basic configuration, the Modulyzer Prime Class, consists of a DMA™ Generation M density meter and an Abbemat refractometer. The Prime Class Modulyzers are ideal entry-level models for laboratories, optionally upgraded with further modules at any time and customized for individual applications. The Unlimited Class Modulyzers are suitable for more advanced applications, with non-Anton-Paar devices included in one measuring system.

NanoDCAL is an atomic orbital-based implementation of density functional theory (DFT) coupled with the Keldysh non-equilibrium Green’s function formalism (NEGF). It is a general purpose tool for quantitative calculations of nonlinear and non-equilibrium quantum transport properties of two-probe device structures. We can simulate up to 1,000 atoms (medium/large size atom systems). We offer free trial versions

Acidic 25 % aqueous GO paste: 25 % GO, 74 % water, 1-1.5 % HCl. This product comes straight from production.

Adjustment and fine positioning of components (sensors, cameras,…) without breaking the vacuum is a major requirement in many vacuum applications. By using our special designed adjustment devices we can fullfill this need. Adjustment can be done in two different planes, tilt angle is approx. +/- 3°. and the linear distance is up to +/- 4mm (motor driven).

For independent researchers and user facilities alike, the Park NX10 AFM is an affordable, yet versatile platform that provides ease of use with high-resolution capabilities. The instrument is designed to produce images that are inherently distortion-free and reproducible. The Park NX10’s easy tip exchange combined with SmartScan software’s one-click imaging and pre-programmed advanced modes make Park AFMs stand out. By combining topographical imaging with the material characterization of electrical, magnetic, thermal, and mechanical properties at the nanoscale, the Park NX10 is the premier choice for cutting-edge materials science research.

Our antiviral solution can be incorporated into different materials, guaranteeing permanent, high-efficiency protection. Up to 99.9% viral reduction proven by the main standards; Elimination of enveloped and non-enveloped viruses; Permanent antiviral protection on the surface and controlled release on contact; Effective on the surface and polymer matrix, even after washing or wearing the product; Protects against cross-contamination.

The SIM910 and SIM911 are low-noise, programmable preamplifiers which are ideal for a wide range of small signal applications. The primary differences between the two models are their input impedance and input noise. The SIM911 has a bipolar junction transistor front-end, offers lower input noise, and has a 100 kΩ front-end impedance. The low bias current and 100 MΩ input impedance of the SIM910, which has a JFET front-end, make it a better choice for use with high impedance sources.

The SIM914 350 MHz Preamplifier contains two wide-bandwidth, DC-coupled amplifiers, each with a gain of 5 (14 dB). Its fast rise time, low noise and excellent DC accuracy make it an ideal instrument for amplifying signals like those from photomultiplier tubes and photodiodes.

The SIM921 AC Resistance Bridge is a precision, low-noise instrument designed for cryogenic thermometry applications. With excitation power below 100 aW, thermistors and other resistive samples can be measured at temperatures below 50 mK with negligible self-heating errors.

SIM (Small Instrumentation Modules) is a robust, flexible platform in which up to eight high performance instruments share the same compact mainframe and computer interface. Unlike other modular systems, both front-panel and computer operation are possible. With SIM you get the functionality you need while avoiding the cost of unnecessary features. You configure your own system from a broad and growing selection of modules.