The Bottino Lab (Regenerative Dentistry) focuses on identifying and translating regenerative materials and technologies to reestablish dental, oral, and craniofacial (DOC) tissue health.
The long-term goal of the Bradley laboratory is to understand the sensory input and brainstem neural circuits involved in processing taste information.
The Castilho Lab focuses on the genetic and epigenetic mechanisms involved in the control of epithelial cells and stem cells during homeostasis, healing and disease.
Dr. Chiego is involved with innervation of the pulp. This is of particular interest because of the variety of its roles in development, growth, pain, inflammation/immunity and repair. These roles occur in most peripheral tissues but in the dental pulp they are concentrated in a well defined anatomical area.
The D'Silva Lab's translational research focus is head and neck cancer, including biomarkers for early detection and treatment resistance, and molecular mechanisms of tumor progression and treatment resistance.
The DCBIA integrates and disseminates imaging quantitative methodology in Dentistry, supporting patient-specific decision making and assessment of the disease progression via data processing, predictive modeling and machine learning.
The Emrick lab studies the molecules, cells, and circuitry of the sensory nervous system innervating the mouth, head, and neck to understand how it all encodes oral and craniofacial information, contributes to normal tissue function, and ultimately drives reflexes and perceptions.
Dr. Fenno's research focuses on the role of the oral spirochete Treponema denticola in the development of periodontal diseases. The studies involve molecular characterization of spirochete surface-expressed and secreted proteins and their interactions with host tissue components.
Fontana/González Lab and Clinical Research Unit
Carlos González-Cabezas, DDS, MSD, PhD,
Margherita Fontana, DDS, PhD
The Fontana/González Lab and Clinical Research Unit's research interests relate primarily to caries management in children, including risk assessment (and interprofessional care models), dental sealants, and oral biofilms as it relates to caries development and/or prevention (and included in this area, therapies that may affect the biofilm, such as xylitol, silver diammine fluoride, etc).
Dr. Franceschi’s laboratory studies the signals regulating the formation and functioning of osteoblasts, cells that produce and mineralize the extracellular matrix of bone.
The Geng Laboratory is focused on how to integrate tissue regeneration with host immunity to reject metastatic cancers. Specifically, the lab is focused on how to boost T-cell antitumor responses in vivo for rejection and vaccination of nonviral cancers.
My primary interest is in how mammalian motor systems compensate for the potentially detrimental effects of tooth wear in diphyodontic species and the life-threatening potential that occurs during swallowing due to incomplete separation of the respiratory and digestive systems in the oropharynx.
The Gonzalez laboratory is interested in understanding dental caries and their clinical management. Particular interest in remineralization, fluorides, diagnosis and oral health products in general (e.g., dentifrices, rinses, toothbrushes, etc.).
Directed by Dr. Alexandre F. DaSilva, H.O.P.E. (Headache & Orofacial Pain Effort) is a multidisciplinary collaborative effort to investigate the brain as a research and therapeutic target for chronic trigeminal pain disorders, including primary headaches (e.g. migraine), TMJD and trigeminal neuropathic pain.
The Hatch Lab is focused upon elucidating essential factors and pathways that control craniofacial skeletal development and pathogenic mechanisms leading to craniofacial skeletal anomalies, with an emphasis on craniosynostosis (the premature fusion of cranial bones).
The Inglehart group's interests focus on exploring how oral health disparities could be reduced. Efforts focus on (a) educational research and (b) behavioral/clinical research related to oral health disparities.
Research in the Kaartinen lab focuses on the molecular reasons behind craniofacial and cardiac birth malformations, such as cleft palate, cleft lip and cardiac valve and septal anomalies; growth factor signaling in normal development in order to understand reasons that often lead to a failure in these particular developmental processes.
The Kaigler laboratory is focused on developing novel and innovative approaches for tissue engineering of bone, gingiva, salivary gland tissue, and tooth-related structures (enamel, dentin, dental pulp). Fundamental studies conducted on the molecular level are as aimed at providing rationale and guidance to human studies exploring clinical application.
Dr. Kohn’s laboratory focuses on biomineralization, which is investigated by establishing structure-function relations in mineralized tissues, and utilizing this information to develop biomimetic strategies to engineer tissue.
Our research is centered in the development of new antimicrobials that are effective against drug-resistant bacterial infections. Our laboratory creates synthetic polymer-based mimics of host-defense peptides that are a component in the innate immune system.
The Lei laboratory focuses on the regulatory mechanisms of cancer-associated immune suppression and novel vaccine technologies to enhance host anti-tumor immunity.
By molecular and genetic dissection of the breathing-control circuitry, our laboratory studies the function of neural populations that control breathing rhythms and behaviors (such as sighing), and the pathophysiology of diseases with breathing abnormality.
Research in the Liu laboratory focuses on understanding cellular and molecular mechanisms that regulate physiological and pathological bone metabolism, skeletal and craniofacial bone development and diseases.
The Lombaert Lab determines how stem cells participate in the formation of branching organs and how they respond to various external and internal cues in normal, damaged or diseased environments.
The Ma laboratory is focused on tissue engineering and regenerative medicine of bone and periodontal tissues: (1) stem cells (embryonic and mesenchymal stem cells) and their interactions with biomaterials; (2) spatially and temporally controlled delivery of growth/differentiation factors using nanotechnologies to mediate cell proliferation and differentiation.
The McCauley/Roca Lab researches hormonal controls of bone remodeling, anabolic actions of parathyroid hormone (PTH), parathyroid hormone-related protein (PTHrP), and the impact and therapeutic potential of PTH in craniofacial osseous wound healing.
The Mishina Laboratory explores how growth factors, particularly the Bone Morphogenetic Proteins (BMPs), function during skeletogenesis and craniofacial development. Targeted diseases are craniosynostosis, frontnasal dysplasia, midface hypoplasia, chondrodysplastic dwarfisms and heterotopic ossification.
My group studies roles of the Hedgehog (HH) signaling pathway in formation, maintenance and regeneration of taste organs, lingual epithelium, and neural circuits involved in taste sensation. Because deregulated HH signaling can lead to tumorogenesis, our studies relate to taste disruption experienced by cancer patients using specific HH-inhibiting drug treatments.
My broad research interests are in tumor angiogenesis and stem cell biology. My current research foci are the study of mechanisms regulating the vascularization of head and neck tumors, and the impact of cancer stem cells in head and neck squamous cell carcinomas and salivary gland cancer.
The Ono laboratory uses genetically engineered mice to study the fundamental biology of stem and progenitor cells of the bone cell lineage in growth, development and homeostasis.
The Wanida Ono laboratory’s goal is to understand mechanisms underlying tooth root and periodontium development, and tooth eruption.
The Polverini Lab focuses on understanding the policy impact of new models of collaborative care on improving access to care for chronically underserved populations and the role precision medicine in the diagnosis and treatment of chronic oral diseases.
The Ritchie laboratory is focused on studying two major dentin noncollagenous proteins, dentin sialoprotein (DSP) and physophporyn (PP) which appear to play a significant role in the conversion of uncalcified predentin to calcified dentin.
The goal of the Sasaki Lab is to develop novel therapeutic approaches for the prevention and treatment of inflammation-associated diseases and to provide better environment for wound healing and tissue regeneration.
The Simmer Hu Laboratory's research is in the areas of tooth development, enamel and dentin formation, biochemistry and molecular biology of amelogenins, and hypophosphatasia and amelogenesis imperfecta.
The Squarize Lab investigates the function of the key signaling pathways and stem cells in epithelial regeneration and disease.
The Surface Lab utilizes genome-wide approaches followed by molecular and organismal investigations, to understand the molecular responses of bone cells.
The Tenuta Lab is focused on understanding the interactions between the dental biofilm, fluoride and caries, with the goal of developing innovative solutions to reduce caries experience throughout the lifecourse.
Research in the Wang group focuses on periodontal and dental implant-related clinical research with a specific focus on barrier membranes, bone grafting and growth factors.
The Weivoda Lab focuses on the role of osteoclasts in the bone remodeling cycle.