FUNDAMENTALS
TO BE transdermal
Transdermal Drug Delivery has traditionally been limited by the skin’s tough and lipid rich outer layer known as the stratum corneum thus rendering the skin impermeable to most biopharmaceuticals; of the thousands of drugs currently approved by the FDA less than 30 are approved for transdermal delivery. So far, successful transdermal drug delivery has only been accomplished with small molecules (<500 Da.) that are moderately lipophilic. The development of Biotts’ proprietary MTC-Y™ technology has effectively removed these limitations, without the use of complicated devices or invasive technologies.
Biotts’ MTC-Y™ technology completely changes what is possible with Transdermal Drug Delivery, making it a much more feasible alternative. It offers the fast onset of action of an injectable, but at more constant and sustained drug levels and in a way that is much less invasive. Furthermore, it allows for reduced administration frequency and increased self-administration, and with that improved quality of life for patients. It also offers the convenience of an oral pill, but with a much more controlled and sustained release, and dramatically reduced side-effects and improved bioavailability.
quick overview of
our technology
The mixture of excipients constituting the carrier of MTC-Y™ consists of components that ensure a simultaneous introduction of several active substances of different character and physicochemical properties into the body. Each of them can be introduced simultaneously in different polymorphic varieties, allowing for tailoring of the desired activity profile. It also enables significantly larger molecules – both lipophilic and hydrophilic – to penetrate through the skin barriers.
The MTC-Y™ Biotts system enables the transportation of one or more active substances, making it possilbe to design multi-component transdermal drugs. The MTC-Y™ carrier system is biocompatible with the human skin and non-toxic; it allows active ingredients to quickly penetrate the skin without irritating it.
particle [for now]
So far Biotts has generated Proof of Concept with a variety of molecules up to 6,000 Da. including several GLP-1 peptides like Liraglutide and Semaglutide, but there is no reason why we couldn’t go further. The possibilities of the MTC-Y™ technology seem endless.
MTC-Y™ COMPARISONS: INSULIN
FIRST EVER NONINVASIVE INSULIN
– Transdermal adminitration
In vivo PK study results – A comparison of Subcutaneous Injection to Transdermal Insulin Adminitration
Study design
The study was conducted using:
Insulin SC (Gensulin N – 0.035 mg/animal)
MTC-Y+Insulin_MOD1 (insulin – 0.37 mg/animal)
MTC-Y+Insulin_MOD2 (insulin – 0.72 mg/animal)
The objective was to compare the insulin plasma concentration after subcutaneous administration to transdermal administration of both formulations of MTC-Y+Insulin Modifications.
Male Wistar rats were employed as the animal model for this study.
Results
This comparison demonstrates that insulin can be effectively administered transdermally without penetrating the layers of the skin.
Active pharmaceutical ingredient (API) concentrations achieved through transdermal administration are comparable to those attained through subcutaneous injection. Additionally, a single transdermal application of insulin using the MTC carrier can sustain therapeutic concentrations for up to 72 hours.
Semaglutide formulation
THE MTC-Y™ CARRIER SYSTEM study
Study design
The study was conducted using:
Subcutaneous injection (semaglutide – 0,3 mg/kg)
Biotts MTC-S1 ointment (semaglutide – 2,0 mg)
The study utilized rats as subjects and consisted of two groups. The first group received a single injection, while the second group had the ointment applied once, followed by occlusion for 3 days.
Results
Absolute bioavailability for MTC-S1 ointment was 4% – which is 5 to 10 times higher than current oral market solution.
MTC-Y: DAPAGLIFLOZIN
Safety of the MTC-Y Carrier
Clinically Confirmed
Comparison of oral and transdermal plasma of dapagliflozin concentration
AIM OF THE STUDY
The primary objective of the phase 1 clinical study was to evaluate the safety, relative bioavailability and pharmacodynamic effect of a newly developed Dapagliflozin Transdermal System TTS MTC-D, after administration in healthy volunteers.
Results
Comparison of oral and transdermal plasma of dapagliflozin concentration
MTC-Y™ as a ointment: Diclofenac
TARGETED ACTION in the SYNOVIAL joint fluid compared to THE market STANDARD
A comparison of topical administrated MTC-NL5 (Diclofenac) to Voltaren Max
Study design
The study was conducted using:
Biotts MTC-NL5 (diclofenac – 5.5 mg/ml)
Voltaren Max Gel (diclofenac – 22 mg/ml)
Male pigs were used for the study. The products were administered to the left leg only. A puncture of the knee joint was performed 1 hour after application, with prior cleaning of the puncture area.
Results
A 2.8-fold higher concentration of diclofenac was observed in the synovium of the left leg in animals treated with MTC-NL5 compared to animals treated with Voltaren Max Gel, meaning that the MTC-NL5 formulation is more than 11 times more effective than Voltaren Max Gel.
Tetracaine & Lidocaine formulation
WITH THE MTC-Y™ CARRIER SYSTEM THE TREATMENT IS CONTROLLED AND SUSTAINED
Study design
The concentration of the active substances, lidocaine and tetracaine, in the MTC-A4 product is 4% each, while in the reference product – Pliaglis – it is 7% each.
Results
The results show that using lower concentrations of active substances similar bioavailability of the same API was obtained. Furthermore, much more stable blood concentrations of the active substances released from MTC-A4 were obtained over a period of 24 hours, compared to the reference product.
MTC-Y™ COMPARISONS: Liraglutide
The transdermal delivery of the glp-1 peptide liraglutide (3751 da.)
The GLP-1 peptide Liraglutide has notoriously poor bioavailability. Its oral bioavailability is so low that it hasn’t even been confirmed, and even its subcutaneous bioavailability is only around 55%. Nevertheless, Biotts’ MTC-Y™ carrier system has been incorporated in several semi-solid formulations, enabling transdermal delivery of Liraglutide into the blood stream and mimicking the subcutaneous concentration profile.
Subcutaneous injection
GLP-1 Plasma Concentration
Subcutaneous injection
MTC semi-solid carrier
GLP-1 Plasma Concentration
MTC-Y™ carrier topical
development collaborations
The MTC-Y™ carrier technology is the foundation of Biotts’ transdermal drug product development
pipeline, but it’s also available to the pharmaceutical industry through contract development
collaborations. Contact us or further information.