Raman Rxn-10 probe

System design and specifications for Rxn-10 probe optics:
Raman immersion optics (KIO1),
non-contact optics (KNCO1), bIO-Optics (KLBIO1),
bio multi optics (KRBMO), bio sleeves (KRBSL),
and Raman optic system for single use (KRSU1)

System design and specifications
for the Raman Rxn-10 probe

Commissioning, operation, and maintenance details
for Rxn-10 probe optics: Raman immersion optics (KIO1),
non-contact optics (KNCO1), bIO-Optics (KLBIO1),
bio multi optics (KRBMO), bio sleeves (KRBSL)
and Raman optic system for single use (KRSU1)

Commissioning, operation, and maintenance details
for the Raman Rxn-10 probe

Quick start guide for the Raman Rxn-10 probe

Quickstart guide for Rxn-10 probe optics:
Raman immersion optics (KIO1),
non-contact optics (KNCO1), bIO-Optics (KLBIO1),
bio multi optics (KRBMO), bio sleeves (KRBSL)
and Raman optic system for single use (KRSU1)

An overview of Raman spectroscopy analyzer systems (including the
Raman Rxn2 analyzer, Raman Rxn4 analyzer, Rxn-10 probe, and Rxn-45
probe), powered by Kaiser Raman technology, for fermentation
compositional analysis in a lab or process applicable to biotechnology
in the food & beverage industry.

A guide to our Raman spectroscopy application notes for the
Life Science industry (featuring the Raman Rxn2 analyzer,
Raman Rxn4 analyzer, Rxn-10 probe, Rxn-20 probe, Rxn-45 probe,
Rxn-46 probe, and probe accessory optics (bIO-Optic, Raman single
use optic system / SUB, immersion optic, non-contact optic).

An overview of the Raman flow assembly (flow bench and flow cell)
used with the Rxn-10 probe in conjunction with a Raman Rxn2
analyzer and a Raman flow assembly calibration and verification kit
for downstream bioprocessing (powered by Kaiser Raman technology).

An overview of the Raman calibration and verification kits for
the bio multi optic / single use optic and the Raman flow assembly
(includes the flow bench and flow cell). These kits are to be used in
conjunction with the Rxn-10 probe and Raman Rxn2 / Rxn4 analyzer
for upstream and downstream bioprocessing (powered by Kaiser
Raman technology).

A combined product list of analysis offerings from both Optical Analysis
and LIquid Analysis for bioprocessing applications in the life science
industry (including Raman Rxn2 analyzer, Raman Rxn4 analyzer,
Rxn-10 probe, bio multi optic and bio sleeve, Raman flow assembly,
Rxn-45 probe, Rxn-46 probe, Raman optic system for single use,
Memosens CPS61E, Memosens COS81E, OUSBT66, Memosens CPS61E,
Memosens CPS77E, Memosens CLS82E, OUSAF44, Memosens CPS11E,
Memosens CLS16E, TOC Analyzer CA79, Liquiline transmitter platform, and
Memobase software).

A guide to Raman spectroscopy application notes for the
food & beverage industry (featuring studies using the
Raman Rxn2 analyzer, Raman Rxn4 analyzer, Rxn-10 probe,
Rxn-20 probe, Rxn-45 probe, and the immersion optic
and non-contact optic).

An overview brochure about our Raman spectroscopy analyzer
and probe portfolio, powered by Kaiser Raman technology, for
the bioprocessing / biopharmaceutical industry (including the
Raman Rxn2 analyzer, Raman Rxn4 analyzer, Rxn-10 probe,
Rxn-45 probe, Rxn-46 probe, and probe accessory optics (bIO-Optic,
Raman single use optic system, bio multi optic with bio sleeve, and
Raman flow assembly), powered by Kaiser Raman technology.

An overview brochure about our Raman spectroscopy analyzer systems,
powered by Kaiser Raman technology, for the chemical industry
(includes the Raman Rxn2 analyzer, Raman Rxn4 analyzer,
Raman Rxn5 analyzer, and the Raman Rxn-10 probe, Raman Rxn-20 probe,
Raman Rxn-30 probe, Raman Rxn-40 probe, and Raman Rxn-41 probe).

An overview brochure about our Raman spectroscopy multi use and
single use bioprocessing portfolio (including the Raman Rxn2 analyzer,
Raman Rxn4 analyzer, Rxn-10 probe, Rxn-46 probe, Raman single use
optic system, bio multi optic, and bio sleeve), powered by Kaiser Raman
technology.

An overview brochure about our Raman spectroscopy probe
portfolio including the Rxn-10 probe, Rxn-20 probe, Rxn-30 probe,
Rxn-40 probe, Rxn-41 probe, Rxn-45 probe, Rxn-46 probe, and
probe accessory optics (bIO-Optic, Raman single use optic system /
SUB, immersion optic , non-contact optic), powered by Kaiser Raman
technology.

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プロセスラインにおける信頼性の高い組成測定

Surveillance évolutive des bioprocédés in situ et contrôle
avancé des process

A whitepaper about using Raman spectroscopy for lab-to-process
chemical composition measurement in biopharmaceutical manufacturing
(applicable to the Endress+Hauser Raman analyzer and probe
bioprocessing portfolio, powered by Kaiser Raman technology
(including the Raman Rxn2 analyzer, Raman Rxn4 analyzer,
Rxn-10 probe, Rxn-45 probe, Rxn-46 probe, bIO-Optic, Raman
single use optic system, immersion optic , non-contact optic).

This study examines the use of Raman spectroscopy for chemical
process reaction monitoring in the production of methyl chlorosilanes.

This note demonstrates the use of Raman spectroscopy to monitor the
selective crystallization of polymorphs of Calcium Carbonate (CaCO3)
in the presence of polymeric additives.

In this work, in situ Raman spectroscopy was used to monitor the
high-shear wet granulation of a formulation containing theophylline.

This study demonstrates the utility of Raman for real-time, in situ
monitoring of fermentation processes.

This application note describes in-line Raman spectroscopy at the
pilot scale to detect the endpoint of a heterogeneous etherification
reaction.

This note describes the use of in situ Raman spectroscopy to probe
the kinetics of a hemihydrate, transforming to an anhydrous polymorph
and then to a different polymorph.

This study demonstrates the utility of Raman spectroscopy for
monitoring addition polymerizations, particularly emulsionsystems.

This application note studies Raman spectroscopy for real-time
monitoring and control of a semi-batch polymerization.

This study examines the advantages of Raman spectroscopy in upstream
mamillian cell culture monitoring and control.

This study evaluates Raman spectroscopy as a PAT tool for in-line
monitoring of a pharmaceutical freeze-drying process.

This study examines the use of Raman spectroscopy (a
Raman Rxn2 analyzer and Rxn-10 probe with non-contact
optic) for chocolate measurement.

This study examines the use of Raman spectroscopy using a Raman Rxn2
analyzer with a Rxn-10 probe and bIO-Optic for monitoring and control of
parameters beyond glucose in upstream bioprocessing.

This application note examines the use of Raman spectroscopy
(a Raman Rxn2 or Raman Rxn4 analyzer and a Rxn-10 probe with
non-contact optic) powered by Kaiser Raman technology to measure
the kinetics of a catalytic hydrogenation reaction.

This study demonstrates the utility of Raman spectroscopy to provide
a multi-attribute measurement of salmon meat quality.

This study examines the use of Raman spectroscopy for
plant-based protein manufacturing: fermentation monitoring
and protein structure analysis.

This work uses Ramanspectroscopy to explore the use of barium oxide
supported on magnesium oxide for nitrogen oxide dissociation.

This work studies the value of Raman spectroscopy as a process
control tool in TiO2 production.

This study evaluates Raman spectroscopy for analysis of an extruded
polyethylene oxide (PEO) film containing ketoprofen in a lab and
process setting.

This note studies in situ Raman spectroscopy to monitor the solvent-
mediated polymorphic transformation of FFA from Form I to Form III
under various process conditions.

This work investigates the utility of Raman spectroscopy to support
a QbD manufacturing environment with real-time, in situ monitoring
of downstream bioprocesses.

This paper evaluates the use of Raman spectroscopy to directly
monitor the chemical composition of and quantify the CO2 loadings
inan amine scrubber.

This study examines Raman spectroscopy as a technique for laboratory
or process measurements in oils and fats.

This note demonstrates the use of using Raman spectroscopy as a
fast, accurate method of measuring margarine content inbutter.

This application note evaluates the use of Raman spectroscopy to
monitor the high-shear wet granulation (HSWG) polymorph transformation.

This study demonstrates the utility of Raman spectroscopy to enhance
process understanding of protein crystallization using lysozyme as a
model protein.

This study examines the use of Raman spectroscopy for real-time
monitoring and control of the bioprocess to optimize cell viability
and titer.

This application notes studies Raman spectroscopy as an important
PAT solution in cell culture and fermentation bioprocesses.

Product root: KR10-, KR20-, KR30-, KR40-, KR41-, KR45-, KR46-
Declaration number: HE_01661_01.22
Manufacturer specification: Food hygiene
Additional information: HALAL Declaration