This document provides an overview of high performance liquid chromatography (HPLC). It discusses the components of an HPLC system including the mobile phase, stationary phase, pump, injection system, column, detector, and recorder. It explains that HPLC uses liquid mobile phases and columns packed with small diameter particles to provide better resolution and faster analysis compared to traditional liquid chromatography. The document also summarizes different HPLC modes like adsorption, partition, ion-exchange, and size exclusion chromatography. It highlights that HPLC systems operate at high pressures using pumps capable of pressures over 5000 psi.
Performance Pulsation Control specializes in the engineering, design, and manufacture of maintenance free and gas charged pulsation control devices for oil and gas, well service and industrial applications. This presentation explains the benefits of discharge dampeners for pulsation control.
HPLC is used to separate compounds using pumps to move liquid solvents through a column containing solid particles. Samples are injected and the different compounds interact differently with the column, causing them to elute at different retention times. Common detectors measure properties like UV absorption to identify and quantify the separated compounds. HPLC is used in pharmaceutical analysis and other areas to separate and analyze mixtures of chemicals.
Single-Pass Tangential Flow Filtration (SPTFF) Theory and PracticeMerck Life Sciences
This document discusses single-pass tangential flow filtration (SPTFF) and provides examples of its use. SPTFF concentrates product in a single pass through a filter assembly without recirculating retentate, allowing for continuous operation. It can reduce process volumes and intensify downstream unit operations like chromatography. The document reviews SPTFF applications, development, and implementation, including a case study where SPTFF concentrated a clarified cell culture harvest 2.5x, reducing a protein A chromatography capture step cycle time from 4.25 to 2 hours while maintaining product quality and yield.
Single-Pass Tangential Flow Filtration (SPTFF) Theory and PracticeMilliporeSigma
This document discusses single-pass tangential flow filtration (SPTFF) and provides examples of its use. SPTFF concentrates product in a single pass through a filter assembly without recirculating retentate, allowing for continuous operation. It can reduce process volumes and intensify downstream unit operations like chromatography. The document reviews SPTFF principles, applications, implementation including process development, and case studies using SPTFF to concentrate harvests prior to protein A capture and improve column productivity.
This document discusses high performance liquid chromatography (HPLC). It begins by defining HPLC and explaining how it provides higher efficiency separations compared to classical liquid chromatography due to its use of higher pressures and smaller stationary phase particles. The two main types of HPLC are then described as normal phase and reversed phase. The key components of an HPLC instrument are outlined including solvent reservoirs, pumps, sample injection systems, columns, temperature controllers, and detectors. Details are provided about each of these components and how they function within the overall HPLC system.
This document discusses different types of flow measurements. It describes four main types: 1) Primary or quantity meters that directly measure flow rate through volumetric or gravimetric methods. 2) Positive displacement meters that count discrete volumes of fluid flow. 3) Secondary or rate meters that infer flow rate from other measured properties like pressure or velocity. Common examples are Venturi meters, orifice plates, and rotameters. 4) Linear resistance element meters that rely on pressure drop across a tube to determine flow rate, suitable for very small, viscous flows. Primary meters are the most accurate while positive displacement meters can handle a variety of fluids. Secondary meters have varying accuracy depending on the design.
This document discusses various components of HPLC instrumentation including mobile phase reservoirs, pumps, sample introduction systems, columns, and detectors. It describes the basic components of an HPLC system including solvent bottles, pumps, autosamplers, columns, and detectors. It discusses different types of pumps including reciprocating pumps and syringe pumps. It also covers topics like column dimensions, fittings, packing materials, and sample introduction methods like manual injection and autosamplers.
This document provides an overview of high performance liquid chromatography (HPLC). It discusses the components of an HPLC system including the mobile phase, stationary phase, pump, injection system, column, detector, and recorder. It explains that HPLC uses liquid mobile phases and columns packed with small diameter particles to provide better resolution and faster analysis compared to traditional liquid chromatography. The document also summarizes different HPLC modes like adsorption, partition, ion-exchange, and size exclusion chromatography. It highlights that HPLC systems operate at high pressures using pumps capable of pressures over 5000 psi.
Performance Pulsation Control specializes in the engineering, design, and manufacture of maintenance free and gas charged pulsation control devices for oil and gas, well service and industrial applications. This presentation explains the benefits of discharge dampeners for pulsation control.
HPLC is used to separate compounds using pumps to move liquid solvents through a column containing solid particles. Samples are injected and the different compounds interact differently with the column, causing them to elute at different retention times. Common detectors measure properties like UV absorption to identify and quantify the separated compounds. HPLC is used in pharmaceutical analysis and other areas to separate and analyze mixtures of chemicals.
Single-Pass Tangential Flow Filtration (SPTFF) Theory and PracticeMerck Life Sciences
This document discusses single-pass tangential flow filtration (SPTFF) and provides examples of its use. SPTFF concentrates product in a single pass through a filter assembly without recirculating retentate, allowing for continuous operation. It can reduce process volumes and intensify downstream unit operations like chromatography. The document reviews SPTFF applications, development, and implementation, including a case study where SPTFF concentrated a clarified cell culture harvest 2.5x, reducing a protein A chromatography capture step cycle time from 4.25 to 2 hours while maintaining product quality and yield.
Single-Pass Tangential Flow Filtration (SPTFF) Theory and PracticeMilliporeSigma
This document discusses single-pass tangential flow filtration (SPTFF) and provides examples of its use. SPTFF concentrates product in a single pass through a filter assembly without recirculating retentate, allowing for continuous operation. It can reduce process volumes and intensify downstream unit operations like chromatography. The document reviews SPTFF principles, applications, implementation including process development, and case studies using SPTFF to concentrate harvests prior to protein A capture and improve column productivity.
This document discusses high performance liquid chromatography (HPLC). It begins by defining HPLC and explaining how it provides higher efficiency separations compared to classical liquid chromatography due to its use of higher pressures and smaller stationary phase particles. The two main types of HPLC are then described as normal phase and reversed phase. The key components of an HPLC instrument are outlined including solvent reservoirs, pumps, sample injection systems, columns, temperature controllers, and detectors. Details are provided about each of these components and how they function within the overall HPLC system.
This document discusses different types of flow measurements. It describes four main types: 1) Primary or quantity meters that directly measure flow rate through volumetric or gravimetric methods. 2) Positive displacement meters that count discrete volumes of fluid flow. 3) Secondary or rate meters that infer flow rate from other measured properties like pressure or velocity. Common examples are Venturi meters, orifice plates, and rotameters. 4) Linear resistance element meters that rely on pressure drop across a tube to determine flow rate, suitable for very small, viscous flows. Primary meters are the most accurate while positive displacement meters can handle a variety of fluids. Secondary meters have varying accuracy depending on the design.
This document discusses various components of HPLC instrumentation including mobile phase reservoirs, pumps, sample introduction systems, columns, and detectors. It describes the basic components of an HPLC system including solvent bottles, pumps, autosamplers, columns, and detectors. It discusses different types of pumps including reciprocating pumps and syringe pumps. It also covers topics like column dimensions, fittings, packing materials, and sample introduction methods like manual injection and autosamplers.
BI-TORQ Valve Automation is a leader in the industrial valve market that provides complete automated valve packages. It offers a broad range of ball, butterfly, and knife gate valves along with pneumatic and electric actuators. The company provides outstanding technical support and has the ability to customize products and retrofit other manufacturers' valves. It serves a wide range of industries including food and beverage, manufacturing, oil and gas, and more.
Cox Precision metering products by Badger Meter provide flow measurement solutions for the test and measurement market and precision industrial applications.
This document discusses different types of chromatography techniques and the pumps used in each. It covers high performance liquid chromatography (HPLC), ion-exchange chromatography, and size-exclusion chromatography. For HPLC, it describes reciprocating piston pumps that are able to deliver precise, pulse-free flow at high pressures up to 10,000 psi. For ion-exchange chromatography, it mentions pumps must provide pulse-free flow for sensitive detectors and single piston pumps are commonly used. Size-exclusion chromatography utilizes small volume reciprocating pumps for accurately controlled flow rates at pressures up to 7,250 psi.
The document discusses production logging, which involves using downhole tools to measure reservoir and wellbore parameters during production. It describes the objectives of production logging such as monitoring reservoir performance, diagnosing completion problems, and evaluating treatment effectiveness. The document outlines different types of production logging tools including various types of flowmeters used to measure downhole fluid flow rates. It also explains production logging procedures and methods like multipass surveys used to generate flow profiles in wells.
Overview of Badger Meter's Flo-tech range of hydraulic turbine flow meters. Flo-tech products are used in hydraulic testing and analysis and on equipment in a variety of industries, including; agriculture, automotive, construction, forestry, marine and mining.
HPLC, or high performance liquid chromatography, is an analytical technique used to separate compounds in a mixture. It works by injecting a sample onto a column containing a stationary phase, which causes the different compounds in the mixture to pass through the column at different rates based on their interactions with the stationary and mobile phases. This separation allows for the individual quantification and identification of compounds in the sample. Key aspects of HPLC include the use of high pressure to allow for small particle sizes in the stationary phase, which enables better separation. Common applications of HPLC include the simultaneous analysis of multiple compounds, analysis of compounds at low concentrations, and fractionation of samples for further analysis or purification.
Best Practices for Mobile Hydraulic DesignDesign World
With ever-rising fuel prices, designing efficient hydraulic systems can pay big dividends for users of mobile hydraulic vehicles. Join Design World as we take an in-depth look at three critical areas of mobile hydraulic system design: filtration, sensors and sealing. Our expert panel presents critical design tips and answering your questions.
Attendees will learn:
* How to use in-cylinder position sensing to optimize hydraulic functions on mobile equipment
* How to select the appropriate filtration grade for a specific application
* How do shaft requirements impact mobile hydraulic sealing products
The panel includes: Dr. Christian Bauer, Staff Scientist, Pall Corp.; Haubold “Hub” vom Berg, Technical Marketing Manager, MTS Sensors, Mobile Hydraulic; and Joel Johnson, VP of Technology, Simrit. The panel is moderated by Design World Editorial Director, Paul J. Heney.
This document discusses various components of HPLC instrumentation including mobile phase reservoirs, pumps, sample introduction systems, columns, and detectors. It describes the basic components of an HPLC system including solvent bottles, pumps, autosamplers, columns, and detectors. It discusses different types of pumps including reciprocating pumps and syringe pumps. It also covers topics like column dimensions, fittings, packing materials, and sample introduction methods like manual injection and autosamplers.
What is Orifice Plate
Coefficient of discharge
Principle Of Orifice Meter
Working of Orifice Meter
Operation Of Orifice Meter
Specification Of Orifice Meter
Application Of Orifice Meter
Advantages Of Orifice Meter
Limitations of Orifice Meter
Presentation for Macnaught's oval gear flow meters including the operating principle of positive displacement flow meters, suitable applications and an introduction to their MX-Series.
Flow can be defined as the quantity of fluid passing a point per unit time. Flow rate is affected by properties like fluid velocity, pipe size, friction, viscosity, and specific gravity. Ultrasonic flow meters use ultrasound to measure flow velocity and calculate volumetric flow rate. They work well for clean liquids and are unaffected by temperature, density, or viscosity changes. Electromagnetic flow meters use Faraday's law of induction - the voltage induced across a conductor moving through a magnetic field is proportional to its velocity. Thermal flow meters are based on conductive and convective heat transfer - a heated wire in fluid flow measures mass velocity according to King's law. They are mainly used for low pressure gas flow measurement.
A reciprocating compressor uses pistons driven by a crankshaft to compress gases. It can operate from vacuum to very high pressures. The document discusses the key components of a reciprocating compressor system including cylinders, valves, coolers, pulsation suppression devices, piping, instrumentation, and controls. Process calculations like pipe sizing, blowdown analysis, and hydrate predictions are required. A process simulation and PFD provide design details. Capacity control methods include speed variation, clearance pockets, and suction unloaders.
The document provides an overview of laboratory instruments manufactured and supplied by LAMBDA Laboratory Instruments, including fermenters, fraction collectors, powder dosing instruments, pumps, and gas flow controllers that have been used in research applications for over 40 years. Details are given on primary products like MINIFOR fermenters and secondary products like gas mixing modules, along with options for customization.
HIGH PERFORMANCE LIQUID CHROMATOGRAPHY(HPLC).pptxabhijeetpadhi001
This document provides an overview of high performance liquid chromatography (HPLC). It discusses the history and development of HPLC from 1903 to present. The key components of an HPLC system are described including the solvent reservoir, pump, sample injector, column, and detection system. Different types of chromatography, columns, and applications of HPLC in fields like pharmaceuticals, forensics, food testing, and more are summarized. Calibration parameters and recommended frequencies for HPLC systems are also outlined.
Life Cycle Management of Chromatographic Methods for BiopharmaceuticalsWaters Corporation
The development and manufacture of biopharmaceuticals is a dynamic and rapidly growing industry. By the nature of their production, biopharmaceuticals are highly complex heterogeneous mixtures that require many analytical techniques for characterization and routine testing. As a result, many manufacturers incorporate life cycle management into their respective workflows to take advantage of newer technologies and methodologies to ensure efficacy and patient safety.
In this presentation, we will address the range of chromatographic categories – HPLC, UHPLC, and UPLC – and define the characteristics associated with each. The discussion will continue with several examples of methods transferred from legacy HPLC instrumentation to modern UHPLC and UPLC instruments. We will compare qualitative and quantitative data across each chromatographic class. Resolution, sensitivity, and overall run time will be used as metrics to assess the success of the method transfer to the respective LC platform, to ensure the transferred methods are in line with current acceptance criteria.
Learn:
- The importance of selecting the correct instrumentation to meet user needs.
- Which parameters influence method transfer from one LC platform to another.
- How workflows can benefit from features such as Multi-flow path technology and Gradient SmartStart when transitioning methods.
Interested in more detail? Watch the related on-demand webinar: http://view6.workcast.net/register?pak=3479247014905635
Hplc instrumentation in detail (Practical) Hplc pump inj_columnPratikShinde120
This document discusses HPLC instrumentation and techniques. It describes the key components of an HPLC system including the solvent delivery system, pumps, sample introduction methods, and detectors. For solvent delivery, it explains the mobile phase reservoirs, degassing, and tubing used. It discusses different types of pumps like reciprocating, syringe, and dual piston pumps. For sample introduction, it covers manual injection methods like septum and valve, as well as automated injection. It also provides details on various detectors like UV-Vis, fluorescence, refractive index, and conductivity.
The document discusses various principles and types of flow measurement devices. It covers:
- The three types of fluid flow: laminar, turbulent, and transitional as defined by the Reynolds number.
- Common differential pressure flow measurement devices like orifice plates and Venturi tubes, how they create pressure differences proportional to flow, and the equations used.
- Variable area flowmeters including rotameters which measure flow based on the height of a bob in the flow.
- Positive displacement flowmeters which temporarily entrap a known volume of fluid to directly measure total flow or flow rate.
- Advantages and disadvantages of different flow measurement techniques.
A review of the growth of the Israel Genealogy Research Association Database Collection for the last 12 months. Our collection is now passed the 3 million mark and still growing. See which archives have contributed the most. See the different types of records we have, and which years have had records added. You can also see what we have for the future.
Main Java[All of the Base Concepts}.docxadhitya5119
This is part 1 of my Java Learning Journey. This Contains Custom methods, classes, constructors, packages, multithreading , try- catch block, finally block and more.
BI-TORQ Valve Automation is a leader in the industrial valve market that provides complete automated valve packages. It offers a broad range of ball, butterfly, and knife gate valves along with pneumatic and electric actuators. The company provides outstanding technical support and has the ability to customize products and retrofit other manufacturers' valves. It serves a wide range of industries including food and beverage, manufacturing, oil and gas, and more.
Cox Precision metering products by Badger Meter provide flow measurement solutions for the test and measurement market and precision industrial applications.
This document discusses different types of chromatography techniques and the pumps used in each. It covers high performance liquid chromatography (HPLC), ion-exchange chromatography, and size-exclusion chromatography. For HPLC, it describes reciprocating piston pumps that are able to deliver precise, pulse-free flow at high pressures up to 10,000 psi. For ion-exchange chromatography, it mentions pumps must provide pulse-free flow for sensitive detectors and single piston pumps are commonly used. Size-exclusion chromatography utilizes small volume reciprocating pumps for accurately controlled flow rates at pressures up to 7,250 psi.
The document discusses production logging, which involves using downhole tools to measure reservoir and wellbore parameters during production. It describes the objectives of production logging such as monitoring reservoir performance, diagnosing completion problems, and evaluating treatment effectiveness. The document outlines different types of production logging tools including various types of flowmeters used to measure downhole fluid flow rates. It also explains production logging procedures and methods like multipass surveys used to generate flow profiles in wells.
Overview of Badger Meter's Flo-tech range of hydraulic turbine flow meters. Flo-tech products are used in hydraulic testing and analysis and on equipment in a variety of industries, including; agriculture, automotive, construction, forestry, marine and mining.
HPLC, or high performance liquid chromatography, is an analytical technique used to separate compounds in a mixture. It works by injecting a sample onto a column containing a stationary phase, which causes the different compounds in the mixture to pass through the column at different rates based on their interactions with the stationary and mobile phases. This separation allows for the individual quantification and identification of compounds in the sample. Key aspects of HPLC include the use of high pressure to allow for small particle sizes in the stationary phase, which enables better separation. Common applications of HPLC include the simultaneous analysis of multiple compounds, analysis of compounds at low concentrations, and fractionation of samples for further analysis or purification.
Best Practices for Mobile Hydraulic DesignDesign World
With ever-rising fuel prices, designing efficient hydraulic systems can pay big dividends for users of mobile hydraulic vehicles. Join Design World as we take an in-depth look at three critical areas of mobile hydraulic system design: filtration, sensors and sealing. Our expert panel presents critical design tips and answering your questions.
Attendees will learn:
* How to use in-cylinder position sensing to optimize hydraulic functions on mobile equipment
* How to select the appropriate filtration grade for a specific application
* How do shaft requirements impact mobile hydraulic sealing products
The panel includes: Dr. Christian Bauer, Staff Scientist, Pall Corp.; Haubold “Hub” vom Berg, Technical Marketing Manager, MTS Sensors, Mobile Hydraulic; and Joel Johnson, VP of Technology, Simrit. The panel is moderated by Design World Editorial Director, Paul J. Heney.
This document discusses various components of HPLC instrumentation including mobile phase reservoirs, pumps, sample introduction systems, columns, and detectors. It describes the basic components of an HPLC system including solvent bottles, pumps, autosamplers, columns, and detectors. It discusses different types of pumps including reciprocating pumps and syringe pumps. It also covers topics like column dimensions, fittings, packing materials, and sample introduction methods like manual injection and autosamplers.
What is Orifice Plate
Coefficient of discharge
Principle Of Orifice Meter
Working of Orifice Meter
Operation Of Orifice Meter
Specification Of Orifice Meter
Application Of Orifice Meter
Advantages Of Orifice Meter
Limitations of Orifice Meter
Presentation for Macnaught's oval gear flow meters including the operating principle of positive displacement flow meters, suitable applications and an introduction to their MX-Series.
Flow can be defined as the quantity of fluid passing a point per unit time. Flow rate is affected by properties like fluid velocity, pipe size, friction, viscosity, and specific gravity. Ultrasonic flow meters use ultrasound to measure flow velocity and calculate volumetric flow rate. They work well for clean liquids and are unaffected by temperature, density, or viscosity changes. Electromagnetic flow meters use Faraday's law of induction - the voltage induced across a conductor moving through a magnetic field is proportional to its velocity. Thermal flow meters are based on conductive and convective heat transfer - a heated wire in fluid flow measures mass velocity according to King's law. They are mainly used for low pressure gas flow measurement.
A reciprocating compressor uses pistons driven by a crankshaft to compress gases. It can operate from vacuum to very high pressures. The document discusses the key components of a reciprocating compressor system including cylinders, valves, coolers, pulsation suppression devices, piping, instrumentation, and controls. Process calculations like pipe sizing, blowdown analysis, and hydrate predictions are required. A process simulation and PFD provide design details. Capacity control methods include speed variation, clearance pockets, and suction unloaders.
The document provides an overview of laboratory instruments manufactured and supplied by LAMBDA Laboratory Instruments, including fermenters, fraction collectors, powder dosing instruments, pumps, and gas flow controllers that have been used in research applications for over 40 years. Details are given on primary products like MINIFOR fermenters and secondary products like gas mixing modules, along with options for customization.
HIGH PERFORMANCE LIQUID CHROMATOGRAPHY(HPLC).pptxabhijeetpadhi001
This document provides an overview of high performance liquid chromatography (HPLC). It discusses the history and development of HPLC from 1903 to present. The key components of an HPLC system are described including the solvent reservoir, pump, sample injector, column, and detection system. Different types of chromatography, columns, and applications of HPLC in fields like pharmaceuticals, forensics, food testing, and more are summarized. Calibration parameters and recommended frequencies for HPLC systems are also outlined.
Life Cycle Management of Chromatographic Methods for BiopharmaceuticalsWaters Corporation
The development and manufacture of biopharmaceuticals is a dynamic and rapidly growing industry. By the nature of their production, biopharmaceuticals are highly complex heterogeneous mixtures that require many analytical techniques for characterization and routine testing. As a result, many manufacturers incorporate life cycle management into their respective workflows to take advantage of newer technologies and methodologies to ensure efficacy and patient safety.
In this presentation, we will address the range of chromatographic categories – HPLC, UHPLC, and UPLC – and define the characteristics associated with each. The discussion will continue with several examples of methods transferred from legacy HPLC instrumentation to modern UHPLC and UPLC instruments. We will compare qualitative and quantitative data across each chromatographic class. Resolution, sensitivity, and overall run time will be used as metrics to assess the success of the method transfer to the respective LC platform, to ensure the transferred methods are in line with current acceptance criteria.
Learn:
- The importance of selecting the correct instrumentation to meet user needs.
- Which parameters influence method transfer from one LC platform to another.
- How workflows can benefit from features such as Multi-flow path technology and Gradient SmartStart when transitioning methods.
Interested in more detail? Watch the related on-demand webinar: http://view6.workcast.net/register?pak=3479247014905635
Hplc instrumentation in detail (Practical) Hplc pump inj_columnPratikShinde120
This document discusses HPLC instrumentation and techniques. It describes the key components of an HPLC system including the solvent delivery system, pumps, sample introduction methods, and detectors. For solvent delivery, it explains the mobile phase reservoirs, degassing, and tubing used. It discusses different types of pumps like reciprocating, syringe, and dual piston pumps. For sample introduction, it covers manual injection methods like septum and valve, as well as automated injection. It also provides details on various detectors like UV-Vis, fluorescence, refractive index, and conductivity.
The document discusses various principles and types of flow measurement devices. It covers:
- The three types of fluid flow: laminar, turbulent, and transitional as defined by the Reynolds number.
- Common differential pressure flow measurement devices like orifice plates and Venturi tubes, how they create pressure differences proportional to flow, and the equations used.
- Variable area flowmeters including rotameters which measure flow based on the height of a bob in the flow.
- Positive displacement flowmeters which temporarily entrap a known volume of fluid to directly measure total flow or flow rate.
- Advantages and disadvantages of different flow measurement techniques.
A review of the growth of the Israel Genealogy Research Association Database Collection for the last 12 months. Our collection is now passed the 3 million mark and still growing. See which archives have contributed the most. See the different types of records we have, and which years have had records added. You can also see what we have for the future.
Main Java[All of the Base Concepts}.docxadhitya5119
This is part 1 of my Java Learning Journey. This Contains Custom methods, classes, constructors, packages, multithreading , try- catch block, finally block and more.
A Strategic Approach: GenAI in EducationPeter Windle
Artificial Intelligence (AI) technologies such as Generative AI, Image Generators and Large Language Models have had a dramatic impact on teaching, learning and assessment over the past 18 months. The most immediate threat AI posed was to Academic Integrity with Higher Education Institutes (HEIs) focusing their efforts on combating the use of GenAI in assessment. Guidelines were developed for staff and students, policies put in place too. Innovative educators have forged paths in the use of Generative AI for teaching, learning and assessments leading to pockets of transformation springing up across HEIs, often with little or no top-down guidance, support or direction.
This Gasta posits a strategic approach to integrating AI into HEIs to prepare staff, students and the curriculum for an evolving world and workplace. We will highlight the advantages of working with these technologies beyond the realm of teaching, learning and assessment by considering prompt engineering skills, industry impact, curriculum changes, and the need for staff upskilling. In contrast, not engaging strategically with Generative AI poses risks, including falling behind peers, missed opportunities and failing to ensure our graduates remain employable. The rapid evolution of AI technologies necessitates a proactive and strategic approach if we are to remain relevant.
Assessment and Planning in Educational technology.pptxKavitha Krishnan
In an education system, it is understood that assessment is only for the students, but on the other hand, the Assessment of teachers is also an important aspect of the education system that ensures teachers are providing high-quality instruction to students. The assessment process can be used to provide feedback and support for professional development, to inform decisions about teacher retention or promotion, or to evaluate teacher effectiveness for accountability purposes.
The simplified electron and muon model, Oscillating Spacetime: The Foundation...RitikBhardwaj56
Discover the Simplified Electron and Muon Model: A New Wave-Based Approach to Understanding Particles delves into a groundbreaking theory that presents electrons and muons as rotating soliton waves within oscillating spacetime. Geared towards students, researchers, and science buffs, this book breaks down complex ideas into simple explanations. It covers topics such as electron waves, temporal dynamics, and the implications of this model on particle physics. With clear illustrations and easy-to-follow explanations, readers will gain a new outlook on the universe's fundamental nature.
A workshop hosted by the South African Journal of Science aimed at postgraduate students and early career researchers with little or no experience in writing and publishing journal articles.
Exploiting Artificial Intelligence for Empowering Researchers and Faculty, In...Dr. Vinod Kumar Kanvaria
Exploiting Artificial Intelligence for Empowering Researchers and Faculty,
International FDP on Fundamentals of Research in Social Sciences
at Integral University, Lucknow, 06.06.2024
By Dr. Vinod Kumar Kanvaria
This presentation was provided by Steph Pollock of The American Psychological Association’s Journals Program, and Damita Snow, of The American Society of Civil Engineers (ASCE), for the initial session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session One: 'Setting Expectations: a DEIA Primer,' was held June 6, 2024.
2. What is a Peristaltic Pump
• Positive displacement pump
• Fluid is contained within a flexible tube
fitted inside a circular pump casing
• A rotor with a number of "rollers",
attached to the external circumference
compresses the flexible tube.
• As the rotor turns, the part of tube
under compression is pinched closed
forcing the fluid to be pumped to move
through the tube.
• Flow Rate depends on tubing I.D.,
length of tubing, and motor rpm.
3. Peristaltic vs. Syringe Pumps
Parameter Syringe Pump Peristaltic Pump
Accuracy High (<0.25%) Low (>1%)
Precision High Variable
Reliability High High
Needs Refill Yes (unless using valves) No
Pressure High (>1,000 psi) Low (<50 psi)
Flow Type Pulseless Pulsatile
Multichannel Yes Yes
Market Size <$50 M/year >$200 M/year
Year Developed 1950's 1880's
4. Peristaltic Markets
• Academic Life Science
• Pharmaceutical & Biotech
• Food & Flavors
• Chemical Industry
• Semiconductor
Near Term HA targets are Life Science and Pharmaceutical
Sectors
Fluid Transfer & Volume/Time Dispensing in:
5. Application Areas
• Large Volume Infusion
• Sample Preparation
• Recirculating Baths
• Organ/Tissue Perfusion
• Dosing/Filling
• Dispensing Cell Culture Media
• Large Volume Dispensing
6. The Harvard Peristaltic Pump
• Unique Architecture – Remote configuration
• Interchangeable motor/heads – Versatility and wide range
of flow rates
• Digital Control - accuracy
• Space Saving – use in incubators and hoods
7. Flow Rate Ranges - 1
• P-70 Motor/Head – Low Flow perfusion and small volume
dispensing
• 5 Fluid Channels
• 8 Rollers (smooth flow)
• Flow from 0.001 to 70 mL/min per channel
• Uses 3 collar tubing (0.13-2.79 mm ID)
8. Flow Rate Ranges - 2
• P-230/Head – Organ/Tissue/Cellular Perfusion
• 4 Fluid Channels
• 8 Rollers (smooth flow)
• Flow from 0.001 to 230 mL/min per channel
• Uses 2 collar tubing (0.13-3.17 mm ID)
10. Controller Features
• HA Touch Pad User Interface
• Ease of Use
• Tubing Library
• Calibration
• Timed or Volume Dispense/Delivery
• Flow Ramps
• Method Storage
• Combine channels function for setting total flow
• Constant Pressure Mode
13. Tubing Selection
Built in library allows for the
selection of HA supplied tubing or
tubing of the customer’s choice
Icon indicates combined number of
channels for flow rate. For example, P-
70 with 2 channels selected will have
maximum flow of 140 mL/min
18. Advanced Options & I/O Capabilities
Allow for timed start/stop
Remote start
Signal in or out at start/during/end of
run
I/O Ports – Back Panel
19. Competition - 2 General Types of Peristaltic Pumps
• Type 1 - Analog (similar to HA MP-II)
• Sell for $500 - $1,200
• Older design electronics
• Flow rates are approximate
• No modern features
• Difficult to calibrate
• Limited I/O capability
20. Competition
• Type 2
• Digital – Sell for $1,500 to $4,000
• Advanced electronics
• Allow for calibration and direct setting of flow
22. Competition
• Cole Parmer mainly 1-2 channel systems
• Ismatec/Reglo multichannel systems, but low level
electronics. Sold through distributors.
• Watson Marlow mainly OEM supplier of pump heads.
Wheaton uses WM heads.
23. Competition
• Compete on capabilities and application –
• Start with number of channels and flow rates
• Digital capabilities
• Product Configuration options
Know the competitive product and be sure you are making a valid
comparison.
24. Competition
• HA Pricing is competitive
• For P-70, HA ILP=$2,990, Competitive range is $2,900-
$3,200.
• For P-230, HA ILP=$3,162, Competitive range is $3,000-
$3,300
• For P-1500, HA ILP=$2,474, Competitive Range is
$2,200-$2600
25. Not Direct Competition - low capability and low price
HA MP-II
Reglo Analog Ismatec Ecoline
Masterflex CL Series
Masterflex IP Series
26. Competition - Direct
Ismatec Digital Drive Ismatec Compact Digital
Masterflex Digital Drive
Masterflex LS Series Wheaton Omispense/Unispense
27. Accessories
• Optimized tubing sets available for all HA Models
• Customers can use their own tubing
• Tubing sales can be a repeat business opportunity
28. HA Marketing Activities
• Shipments to begin in November
• Brochure and web site promotion/eBlast in October
• New Pump Catalog with Peristaltics in October
• Exhibit at Neuroscience meeting in October
• Demo pricing of 50% from ILP for distributors
30. New HA Peristaltics
PN Description ILP
70-7000 Complete with P-70 Head $ 2,990
70-7001 Complete with P-230 Head $ 3,162
70-7002 Complete with P-1500 Head $ 2,472
70-7003 P-70 Head/Motor Only $ 2,070
70-7004 P-230 Head/Motor Only $ 2,185
70-7005 P-1500 Head/Motor Only $ 1,725
70-7006 Controller only $ 1,092