/** * WPForms Custom Honeypot * * @author Bill Erickson * @link http://www.billerickson.net/eliminate-spam-with-a-custom-honeypot/ * * @param string $honeypot, empty if not spam, honeypot text is used in WPForms Log * @param array $fields * @param array $entry * @param array $form_data */ function be_wpforms_custom_honeypot( $honeypot, $fields, $entry, $form_data ) { $honeypot_class = 'my-bio-field'; $honey_field = false; foreach( $form_data['fields'] as $form_field ) { if( false !== strpos( $form_field['css'], $honeypot_class ) ) { $honey_field = absint( $form_field['id'] ); } } if( !empty( $entry['fields'][$honey_field] ) ) { $honeypot = 'Custom honeypot'; } return $honeypot; } add_filter( 'wpforms_process_honeypot', 'be_wpforms_custom_honeypot', 10, 4 );
Select Page

Catalogs

Literature

LT iglove

I-Glove

Incubator Glovebox

LT cshuttle

C-Shuttle

Glovebox
LT cchamber

C-Chamber

Incubator Subchamber

LT oxycylergt4181cn

OxyCycler GT4181CN

CO and NO Subchamber Cell Culture System
LT oxycyclergt4181c

OxyCycler GT4181C

CO Subchamber Cell Culture System

LT oxycyclergt4181n

OxyCycler GT4181N

NO Subchamber Cell Culture System
LT oxycyclergt41

OxyCycler GT41

Gasotransmitter Ready O2/CO2 Culture System
LT ihood

I-Hood

Protective Vent for Incubators
LT oxycyclerc42

OxyCycler C42

Dynamic O2 and CO2 Subchamber Controller
LT prooxc21

ProOx C21

Compact O2 and CO2 Subchamber Controller
LT proox360

ProOx 360

Versatile High Infusion Rate O2 Controller
LT proox110

ProOx 110

Compact, Versatile O2 Controller
LT proco2120

ProCO2 120

Compact CO2 Controller
LT oxystreamer

OxyStreamer

O2 and CO2 Controller for Live Cell Microscopy
LT x3configurationhypoxiahood

Xvivo System

X3 Hypoxia Hood and Culture Combo
LT achamber

A-Chamber

Animal Cage Enclosures
LT oxycylera84xov

OxyCycler A84XOV

Dynamic O2 Controller with Multiple Chambers
LT oxycyclera41ov

OxyCycler A41OV

Dynamic O2 Controller
LT proox360

ProOx 360

Static O2 Controller for Larger Volume
LT proox110

ProOx 110

Static O2 Controller
LT oxycyclera44c

OxyCycler A44C

Dynamic CO2 Controller
LT proco2120

ProCO2 120

Static O2 Controller
LT proco2120ppm

ProCO2 120ppm

Static CO2 ppm Controller
LT oxycyclera42oc

OxyCycler A42OC

Dynamic O2/CO2 Controller
LT at42co

OxyCycler AT42CO

Dynamic CO Controller
LT oxycyclerat42n

OxyCycler AT42N

Dynamic NO Controller
LT oxycyclerat42n

OxyCycler AT82NN

Dynamic NO/NO2 Controller
LT safetyhood

Safety Hood

Hood for Animal Chambers

Quick & Quiet Profiler

Accessory Kit for OxyCycler A84 and A41

Scientific Posters

Aseptic Culture Conditions to Reduce Risks of Metabolic Stress from Antibiotics

Full-Time Physioxic Culture Conditions Promote MSC Proliferation at Physioxic Conditions Better than Hypoxic Pre-Conditioning

Full-Time Physioxic Cell Culture and Handling Improves MSC Proliferation Over Hypoxic Pre-conditioning in Vitro

Eliminating Edge Effect in 96-well Plates by Controlling Thermal Conditions during Cell Plating

Closing the Fill/Finish Step for Reducing Risks to cGMP Virus or Cell Production

Controlled Temp for Cell Plating Eliminates Room Temp Cell Settling in 96-well plates, Reducing Edge Effect and Improving Cell Conditions

Controlled Conditions Reduce Critical Edge Effect in 96-Well Plates

Effect of Hypoxia on CAR-T Cells

Supraphysioxic Room Air Adaption of Human Lung A549 Cells Affects Silver Nanoparticle Toxicity Assays

Layered Protections for Aseptic Adipose-Derived Regenerative Cell Processing

Adaption to Supraphysiologic Room Air Oxygen Changes the effects of Nitric Oxide on A549 Lung Cells in Vitro

Aseptic Fill/Finish in a Cytocentric Isolator for Flexible Production of Cellular Therapeutics and Biologicals

Full-Time Controlled Conditions for Cell Therapy Production Environments Reduce Problematic Variability for Cells

Physioxic Control of Cell Handling Conditions Reduces Variability for Human MSC

Reducing plate edge effect by controlling cell handling conditions for in vitro tumor hypoxia assays

Oxygen Levels In Vitro Affect B Cell Function

Neutralizing the Negative Effects on Cells from Airborne Particles Generated by Cell or Tissue-Based Screening Automation

Oxygen Stress in Non-Physiologic Room Air Conditions for Cell Incubation and Handling Attenuates the In Vitro Growth of Human Mesenchymal Stem Cells through Effects on Individual Cell Fate

Cord Blood Hematopoietic Stem Cell Function is affected by In Vitro Oxygen

Full-Time Physioxic Control Maximizes Human MSC Expansion at the Individual Cell and Population-wide Levels

Cell Culture Contamination Risk Reduction for Human MSC, Progenitor Cell, and CAR-T Production by Full-Time Separation of the Room Air and Cell Processing Environments

Full Time Physiologic Temperature for Cell Handling Reduces Trypsinization Time of Human MSC

Scaling of Massively Parallel Patient-Specific Cell Cultures with a Modified Transportable Conditioned Cell Culture Chamber

Reducing Biosafety Risks with use of a Barrier Isolator for Cell or Virus Production

Physiologically Relevant Oxygen During Cell Handling as Well as Incubation Enhances the Growth Of Human Mesenchymal Stem Cells

Shock From Exposure To Room Air Conditions Alters Individual Mesenchymal Stem Cell Fate, Population Dynamics, And Batch Yields

Massively-parallel Patient-specific Cellular Therapeutics Efficiently Scale in Cytocentric Isolators with a Transportable Conditioned Cell Culture Chamber

Cytocentric Isolator Increases Cellular Yields Compared to Open Processing and Increases Biosafety for Handling Genetically Engineered Cells

Controlled Conditions Throughout Cell Handling Steps Increases Cell Culture Yields at Physiologically Relevant in vitro Oxygen Levels

The Use of Conditioned Transport Chambers with a Barrier Isolator Provides Safe, Unlimited Expansion of Incubation Capacity

Cell Incubation Outside of a Barrier Isolator using an Improved Conditioned Transport Chamber Expands Scale-Out Capacity for Massively Parallel Patient-Specific Batch Producton

Aseptic Fill/Finish for Flexible Cell Processing in a Cytocentric Isolator

Cell Culture Oxygen and Signaling: Supraphysiologic in vitro oxygen signals through the HIF-CXCR4 pathway in human B cells

Cell Culture Contamination Risk Reduction for Human MSC, Progenitor Cell, and CAR-T Production by Full-Time Separation of the Room Air and Cell Processing Environments

A Fully Controlled Atmosphere Reduces Biofabrication Contamination Risks

Increasing Human MSC Yields Through Unbroken Physioxia