Nanotheranostics 2023; 7(2):202-209. doi:10.7150/ntno.81724 This issue Cite


Nanotheranostics-based Management of Head and Neck Cancer

Vivek P. Chavda1 Corresponding address, Pankti C. Balar2, Srushti B. Patel3

1. Department of Pharmaceutics and Pharmaceutical Technology, L.M. College of Pharmacy, Ahmedabad, India.
2. Pharmacy Section, L.M. College of Pharmacy, Ahmedabad, India.
3. Pharmacy Section, Government Pharmacy College, Gandhinagar, India.

Chavda VP, Balar PC, Patel SB. Nanotheranostics-based Management of Head and Neck Cancer. Nanotheranostics 2023; 7(2):202-209. doi:10.7150/ntno.81724.
Other styles

File import instruction


Graphic abstract

Head and neck cancer is affecting a large sort of population. Many treatments are available on a regular base, but they have their limitations. Diagnosis in the early stage is essential to cope with the disease which is a limitation in the majority of present diagnostic tools. Many of them are invasive methods that lead to patient discomfort. Interventional nanothernostics is an emerging field in the management of Head and Neck cancer. It facilitates both diagnostic and therapeutic approaches. It also helps with the overall management of the disease. This method allows the early and accurate detection of the disease which improvises the chances of recovery. Additionally, it makes sure that the medicine is delivered specifically to increase clinical outcomes and reduce side effects. The use of radiation in addition to the medicine supplied can produce a synergistic effect. It contains several nanoparticles, including silicon and gold nanoparticles. This review paper focuses on the shortcomings of existing therapeutic techniques and how nanotheranostics fills the void.

Keywords: Head and neck cancer, nanotheranostics, treatment, nanoparticles


Head and neck cancer (H&N) is the 7th most common cancer type worldwide. It accounts for about 1.5% of death caused by cancer [1]. In 2019, a total of 53,000 new H&N cancer cases (38,140 in males and 14,860 in females) and 10,860 HNC-related deaths (male-7,970, female-2,890) were observed in the USA. Additionally, WHO estimates that by 2030, there will be 439,000 mouth and oropharynx cancer cases. Concerning stage at diagnosis, approximately 20% of cases fall into the distant stage cancer category, 29% of cases fall into the localized category, and 47% fall into the regional category [2,3]. Across the globe, depending on the site of the tumor and grade, the overall five-year survival rate for HNC is approximately 45% to 60%. The diagnosis of cancer in the advanced stage has the least treatment outcome than the early stage along with survival rate. However, with the advancement in the diagnosis and treatment modalities improvement has been seen in the survival of HNC patients, irrelevant of the stage. In addition, chemotherapy along with radiotherapy contribute about a 6.5% increment in the last five-year survival rate [3-5]. H&N usually initiates with the squamous cell present in vivid organs such as the oral cavity, larynx, pharynx, nasal, cavity and salivary gland. The prominent site of the tumor varies with geography, which further transmits to the lymph node if the cancer mass metastasis. The disease is usually curable, provided detected in the early stage. Early detection is a hurdle because of a very minute cell mass in the initial development of the disease. Biomarkers such as PDL-1, Interferon-γ gene mutation, and many others are available but they are incorporated with possibilities of false results [6]. Radiotherapy is the preferred method for the treatment of H&N but the ongoing trails state that the outcomes are not promising [7]. Even after the detection of the disease, it is crucial to manage the disease in a manner to increase the survival rate of the patients with the least discomfort.

This review focuses on the prevalence of H&N cancer, factors that could influence directly or indirectly to its occurrence, and how nanotheranostics proves to be a boon in the management of the disease.


There are numerous factors that contribute to the occurrence of the disease such as alcohol consumption, infection with human papillomavirus (HPV) (especially HPV16and HP18), Epstein-Barr virus (EBV) exposure to radiation, hereditary, genetic disorder, sex and many more. According to estimates, among these, mostly 60%-70% of oropharynx cases are caused by the HPV virus, because of the increase in the prevalence of the HPV virus. A study concluded that the prevalence of H&N is higher in men (12.42 per one lakh) as compared to females (3.71 per one lakh) [8]. A study proposed that high oral HPV infection in man leads to H&N in higher concentration [9,p.2009-2010]. Both the sexes are highly susceptible to oral cancer. Men have high tendency to develop larynx cancer subsequently followed by hypopharynx wherein females develop salivary cancer easily followed by oropharynx cancer. Occurrence of laryngeal cancer and hypopharyngeal cancer is firmly associated with smoking and alcohol consumption, respectively [10,11]. In the terms of geographical variation in Asia, nasopharyngeal cancer and mouth cancer are more prominent in Hong Kong and India wherein laryngeal cancer and pharyngeal cancer are common in other regions [12,13]. Because of the outbreak of HPV in African countries, the occurrence and mortality are higher than in African males [14]. Median age of diagnosis of viral (HPV and EBV) and non-viral associated H&N is 53 years (for HPV and 50years for EBV) and 66 years, respectively. With this highly diversified profile of occurrence, the diagnosis and treatment became a hurdle in management of the disease.


Although many researches and trials are incorporated to get better understanding of the disease, it still remains a mystery. H&N is a hazardous disease which demands for prompt treatment and diagnosis to amplify the chances of fastened recovery. This helps both patient and physician to adopt to the situation and come up with better solution. Hurdles in the management of disease questions the health care system and needs an urgent replacement.


Even with a developed system of diagnosis of other crucial disease, H&N remains in a limitation of it. No screening methods are present for the diagnosis, and careful physical examination is demanded. Standard methods (invasive method) are employed to ensure the station of the disease, but the pathologist faced the issue in the methods due to lack of sensitivity to minute changes. Another approach to detect the disease is through non-invasive methods i.e., Exhaled breath analysis [15]. Though being effective in the diagnosis, the sample collection method is sophisticated and the result relies on many contributing factor [16]. Detecting the disease by biopsy is still doubtful and requires appropriate validation [17].


The current methods involved in the treatment of H&N are surgery, chemotherapy, immunotherapy, radiation therapy and multimodality approaches. In the past few decades, the multimodality approaches are recognized as standard care treatment for patient who is diagnosed at the advanced stage of HNC, which accounts for 60% of HNC cases. These approaches mainly include chemotherapy along with radiation therapy. While early-stage (I or II) cancer can be effectively managed by surgery or radiation therapy [18]. When the lymph node is removed with the invasive technique, it reduces the flow of lymph and hence get accumulated in the tissues which can cause a chronic swelling. Other side effects include weight loss, lymphedema, difficulty in eating and many more [19]. The FDA has approved monoclonal antibodies against the epidermal growth factor receptor (EGFR); however, they are not as effective radiosensitizers as cisplatin. Proton beam therapy is some of the widely accepted therapeutic approaches which involves radiotherapy. The pitfalls of these therapy consist of dermatitis, neurologic toxicity, need of feeding tube and many more which limits the quality life of surviving patients [20].

Due to the difficulties in both diagnosis and treatment, it is necessary to take a creative approach to managing the condition and enhancing the quality of life for survivors. Nanotheranostics is an emerging field, if discovered in depth, can come up with a complete new set of drug delivery which ensures early detection, targeted drug delivery, least adverse event and many more add-ons.

Interventional nanothernostics in Head and Neck cancer

Today in every field interventional nanotheranostics applications are being studied because of their immense beneficial properties especially, in cancers. Generally, cancers are diagnosed in late phases and poor treatment outcomes make it difficult to treat and cure completely. However, Interventional nanotheranostics involves the use of nanoparticles to solve the diagnosis and treatment obstacles of conventional therapies and ultimately increases survival rate [21]. A comparative presentation of the traditional therapy approach and novel nanotheranostics is explained in Figure 1.

 Figure 1 

Tumor resection is a conventional method used for the removal of benign tumor in H&N cancer while with the help of interventional nanotheranostics, it becomes a lot easier process. It provides both qualitative as well as quantitative evaluation of the tumor through fluorescence imagining. It targets the specific cell mass which helps to deduct the unwanted effect. For the diagnosis as well, where the normal evaluation methods take more than a week to confirm the outcomes, theranostics does the same job with higher efficacy and accuracy within few minutes. Adopted by CC by 4 from [22].

Nanotheranostics Image

Head and neck cancer (HNC) mortality and morbidity rates are on the rise in part due to late detection and major therapeutic restrictions. Moreover, patients of HNC require staging evaluations, effective treatment, and after-treatment monitoring at regular intervals [23]. For treatment of HNC nanoparticles (NPs) like Metallic, metal oxides, and polymeric NPs are used. The small size of nanoparticles (NPs) and the remarkable ability to interact with biological molecules make its greater use in cancer interventions [24]. NPs are available in a diameter range of 1 -100 nm and can act as a carrier that can carry therapeutic agents, targeting ligands or diagnostic agents. Utilizing NPs as a drug carrier and a wide range of physicochemical as well as optical and biological properties improves drug delivery by targeting tumor sites [25,26]. The most critical properties of NPs are particle size and size distribution as they directly impact drug distribution. The NPs with small sizes can easily penetrate the tumor microenvironment. While large-sized particles are not easily cross the tumor microenvironment but they have more capacity to incorporate drug load and can slowly release drugs at the active tumor site in a controlled manner. Hence, according to the need particle size can be adjusted. Similarly, it allows other modifications like attachment of targeting ligands, polymer coating on nanocarriers, surface charge development, and drug payload to maximize efficacy and reduce toxicity through controlling factors like solubility, permeability, drug distribution, bioavailability, etc. [26-28]. Targeted delivery of the drug molecule is the unique property of the nanotheranostics drug delivery system. It is pictorially explained in Figure 2.

NPs have two main ways of showing their effects: active targeting and passive targeting. In theranostics, NPs can use any of these two methods. The earlier approach makes use of the tumor vasculature's increased permeability and retention (EPR) effect. The damage of tumor blood vessels increases the permeability and also impaired the lymphatic drainage system which provides a way for NPs to easily penetrate the tumor microenvironment and can directly act on cancerous cells effectively due to the accumulation of the drug in high concentration [30]. The second mechanism by which NPs exhibit their effect is active targeting also called ligand-mediated targeting. In this method, the surface of NPs is modified by attachment with ligands such as proteins, enzymes, antibodies, peptides, etc. these ligands bind with only specific substrates in the body i.e., selectively bind with cancer cells which improve therapeutic response and reduce toxicity to healthy cells [31-34]. Refer Figure 3 for pictorial presentation of NPs along with detailed mechanism of action corresponding to NPs. Apart from this, they also exert responses to external or internal stimuli like temperature, pH, reactive oxygen species (ROS), etc. [35] the stimuli-responsive nanoparticles especially endogenous stimuli-responsive NPs show greater biocompatibility, fewer side effects, and better therapeutic outcomes. Moreover, it also can be modified to make a multifunctional drug delivery system for active targeting, combination therapy, and for interventional theranostic purposes [35,36].

 Figure 2 

Administration of Cet-IRDye800 associated with the liposomal molecules leads to the nanotheranotics drug delivery system. It helps the drug molecule to target the tumor mass. There is very low concentration of drug in normal cells which helps to reduce the adverse events of drugs. Cet-IRDye800 has dual action of therapeutic as well as diagnostic(targeting). This conjugated molecule increases the rate of delivery along with the extent of delivery. It increases the diagnostic accuracy of the molecule. This approach helps to remove the tumor through the surgical method after detecting its accurate position. Adopted by CC by 4 from [29].

Nanotheranostics Image
 Figure 3 

Different nanoparticles that are incorporated in the theranostic approach of H&N cancer. Mechanism of action of nanoparticle differs for different nanoparticle. This figure is created in

Nanotheranostics Image

Nowadays, NPs are most frequently used in the treatment of HNC like radiotherapy, chemotherapy, immunotherapy, and other combination therapies like hyperthermia, photodynamic therapy, etc. as they overcome the challenges of traditional therapies. Various NPs that are used as nanocarriers in the treatment as well as diagnosis of HNC. Some examples of NPs are Metal NPs such as Gold NPs (AuNPs) and Gadolinium NPs, Magnetic NPs, Polymer-coated NPs, Lipid-based NPs, Nano micelles, Microemulsions, Dendrimers, Quantum dots, etc. [28,37]. Among these, gold NPs are most widely used as radiosensitizers. In traditional radiation therapy, resistance to radiation is a major challenge. To overcome this dilemma and to improve radiation efficiency, AuNPs are recognized, as they have a higher atomic number (Z=72), higher radiation absorption capacity, adaptability, and some other physicochemical properties such as good biocompatibility, long circulation time, etc. The core concept behind the AuNPs as radiosensitizers is that they have a high atomic number which absorbs less radiation energy itself but around the gold particles more radiation energy is deposited in the tumor microenvironment which leads to cell death of cancerous cells. It enhances the radiation therapy efficacy and reduces the toxicity to normal tissues [23,38-40]. In addition, AuNPs also have Surface Plasma Resonance (SPR) properties which are useful in photothermal therapy. Upon electromagnetic radiation (EMR) on AuNPs, they resonate to enhance absorption and scattering of light which will further produce hyperthermia (increased temperature, near 45 °C) due to EMR and shows cell necrosis. Preferentially infrared radiation, nearly 700-1000nm is used in this therapy [41,42]. Clinical findings on AuNPs show that the synergistic effect can be produced by combining chemotherapy and radiotherapy if the surface of NPs is incorporated with a polymer like Polyethylene glycol (PEG) or modified with ligands like proteins, enzymes, or antibodies. It also reduces the unwanted distribution of AuNPs. However, still more research is required on cellular uptake and non-specific biodistribution to make radiation therapy effective [42-44]. From the metal and metallic oxide category other NPs like Iron Oxide, Gadolinium, Silver, and Cerium Oxide NPs are also used in the treatment of HNC.

The other most commonly applicable NPs in the diagnosis and treatment of HNC are liposomes or lipid-based NPs. The spherical liposomes are made up of phospholipids and cholesterol bilayer and an aqueous core part. It makes liposomes amphiphilic which allows encapsulation of hydrophilic as well as hydrophobic drugs in the formulation. Hydrophilic drugs such as doxorubicin are mainly trapped in the aqueous part while hydrophobic drugs such as paclitaxel, and amphotericin B are trapped in a phospholipid bilayer. Liposomes can be classified according to size and structure into the following class: Large Unilamellar Vesicles (LUV), Medium Unilamellar Vesicles (MUV), Small Unilamellar Vesicles (SUV), Multilamellar Vesicles (MLV), Oligolamellar Vesicle (OLV), And Unilamellar Vesicles (UV). Liposomes come in contact with different proteins and cell components which may destabilize the liposome formulation. Thus, cholesterol is added as a stabilizer to enhance the stability of the formulation. Moreover, its advantages like easy preparation methods, higher drug payload in formulation, non-toxic, biocompatibility, biodegradability, and, facile cell membrane penetration may enable improved chemo- and radiotherapy efficiency by enhancing drug biodistribution and pharmacokinetic characteristics and increasing drug accumulation in tumor cells of HNC [28,45-48]. Besides the wide use of liposomes and AuNPs, various polymeric NPs are also at the top of the list. Chitosan NPs, Hyaluronic acid NPs, Poly (lactic-co-glycolic Acid) NPs, and Polyethylene Glycol are examples of Polymeric NPs. Different synthetic, semisynthetic, and natural polymers are used to formulate polymeric NPs which can facilitate targeted and controlled drug delivery systems however, drug resistance limits its use [49,50].

As the technology expanded, the treatment of HNC also has been explored. Earlier we mentioned that there are numerous treatment modalities options available like surgery, radiotherapy, chemotherapy, photodynamic therapy (PDT), photothermal therapy (PTT), etc. nowadays, PDT has gained more attention because of reduced side effects and better selectivity. Also, it is a nonsurgical method that enhances patient compliance too. In this treatment, light source and photosensitizing agents (PSs) are used; the light source falls on photosensitizer at the tumor targeting site which produces the cytotoxic effect on the cancerous cells by producing reactive oxygen species (ROS)[51,52]. Various light sources have been invented to use in PDT such as near-infrared light (NIR), X-ray light, and internal and interstitial light but light penetration depths with these sources are a bit challenging therefore, these are still under research. However, some new sources like microwaves, radio waves, ultrasound, electrical fields (EF), and magnetic fields are underneath innovation for the efficient excitation of the photosensitizing agent. PDT therapy is still unlikely used in clinical applications as it also faces hurdles with proper selection and use of PSs at the specific tumor site. Substantial work must be done to enhance its stability, targeting ability, solubility, and biodistribution in case, if PSs used orally. PSs can be applied topically, injected intravenously or intraperitoneally, and can be orally administered. The challenges that we are fronting with PSs can be decreased to some extent by incorporating PSs with nanoparticles or by encapsulating them into nanocarriers. This nanoformulation protects the PSs from the outer environment, increases bioavailability and site specificity, and decreases drug inactivation [53-55]. Apart from PDT various other experimental approaches also investigate HNC such as gene therapy, immunotherapy, hyperthermia, etc.

Clinical trials

The very first step to access the safety, efficacy, and toxicity of any compounds preclinical trials are conducted on animal models such as carcinogen-induced animal models of oral cancer (to study histopathological features of oral mucosa in cancer), genetically engineered mouse models (to study significant biological consequences of mutation), Patient-derived xenograft models (PDX). PDX models more closely resemble human cancer as it includes the implantation of tumor tissue or cells into an immunocompromised or humanized mouse and the natural growth of cancer is allowed [56,57]. If reliable and promising results are achieved then the further actual clinical study is designed and performed on human volunteers, to evaluate the pharmacokinetic and pharmacodynamic profile of a drug. The potential application of NPs is increasing day by day in the field of HNC treatment and diagnosis. Thus, to provide accurate and effective interventional nanotheranostics along with reduced toxicity, various clinical research has been conducted on NPs which are listed in the below table.

From the above-mentioned clinical data, most of the clinical trials that are completed or still ongoing in phase 1 or phase 2 are designed to evaluate NPs application in the treatment and diagnosis of HNC. None of the trials reached phase 3. It is observed that paclitaxel-albumin NPs are widely studied for radiation therapy in most clinical trials. Cetuximab, cisplatin, and Hafnium Oxide NPs are also assessed for their use in HNC.

 Table 1 

clinical studies data on the treatment of HNC with interventional nanotheranostics.

Study IdsStatusPhaseStudy StartStudy CompletionRemarkNCT Number
08-084CompletedPhase 1August 2008August 2016
  • Nab-paclitaxel + cetuximab + intensity-modulated radiation therapy (IMRT) used
  • 25 patients were involved
  • Common AE observed was lymphopenia
  • Efficacy for 2-year overall survival was found 91%
STU 072010-046CompletedPhase 1
Phase 2
March 1, 2009August 3, 2015
  • Nab-paclitaxel, cisplatin, and cetuximab are used
  • 34 patients were involved
BIND-014-001CompletedPhase 1January 2011February 2016
  • Docetaxel is used as a drug moiety
  • 52 patients were involved
  • Recommended dose was 60 mg/m2
201202113CompletedPhase 2August 9, 2012October 31, 2019
  • Induction chemotherapy +cisplatin+ radiation therapy
  • 30 patients were enrolled
  • Swallowing, oral pain and voice quality were improved along with the therapeutic upliftment
NCI-2012-02179Active, not recruitingPhase 1March 26, 2013December 2022
  • Nav-paclitaxel-based induction + nab-paclitaxel-based concurrent chemotherapy + re-irradiation
  • 48 patients were involved
  • Recommended dose was 100 mg/m2
IRB17-0104Active, not recruitingPhase 2June 27, 2017July 2023
  • 39 patients were enrolled
  • Radiography+ systemic therapy
NCI-2021-00122RecruitingPhase 2April 7, 2021September 30, 2026
  • NBTXR3, Radiation Therapy, and Pembrolizumab
  • Administered in intertumoral/intranodal
  • 60 participants involved
SNB101P01UnknownPhase 1October 21, 2020March 31, 2022
  • 36 participants enrolled
  • Drug: SNB-101

Current hurdles and future prospects

Despite having a wide range of advantages and applications, nanoparticles still confront difficulties in many stages thus, NPs should be carefully studied in preclinical and clinical studies. The major challenge is NPs are rapidly eliminated or encountered by the immune system of a patient. So, the drug action time is limited while nanomaterials that are used to carry a drug (carrier) remain present which may cause toxicity. However, a targeted drug delivery system may help to improve the efficacy of treatment [58]. other areas in which we face challenges are the route of administration, drug distribution, biological barriers, preparation methods, pharmacological effects prediction, stability of NPs formulations, etc. [59]. At last, it can be said that NPs are in their raising stage and further many more studies are required to expand the field of nanotheranostics in the management of cancers.


H&N is of great concern to healthcare system and needs an undivided attention for the development of better management strategies. Many diagnostic methods are available but they are not up-to a mark both in efficacy and patient reliance. Similarly, therapeutic approaches need a new bench mark which is provided by nanotheranostics. It is a novel method to address both therapeutic as well as diagnostic approaches. It ensures the targeted delivery which reduces the interaction with normal cell. It also facilitates the additional therapy to target the specific tumor cells. Being such a miraculous drug, it still lacks the detailed experimentation. The article interrogates to explore this methodology in detail to improvise the healthcare sector.


V.P.C. wants to dedicate this work to the L. M. College of Pharmacy as a part of the 75th anniversary of the college.

Author Contributions

Vivek P Chavda created the plot of the work and wrote the first draft with Pankti C. Balar, and Srushti B. Patel. Vivek P Chavda critically revised the manuscript. All authors have read and approved the final version of the manuscript.

Competing Interests

The authors have declared that no competing interest exists.


1. Siegel RL, Miller KD, Jemal A. Cancer statistics, 2018: Cancer Statistics, 2018. CA: A Cancer Journal for Clinicians. 2018;68:7-30

2. Siegel RL, Miller KD, Jemal A. Cancer statistics, 2019. CA: A Cancer Journal for Clinicians [Internet]. 2019;69:7-34 Available from:

3. Guo K, Xiao W, Chen X. et al. Epidemiological Trends of Head and Neck Cancer: A Population-Based Study. Biomed Res Int [Internet]. 2021;2021:1738932. Available from:

4. Gormley M, Creaney G, Schache A, Ingarfield K, Conway DI. Reviewing the epidemiology of head and neck cancer: definitions, trends and risk factors. Br Dent J. 2022Nov;233(9):780-786

5. Pinkas W, Jankowski M, Wierzba W. Awareness of Head and Neck Cancers: A 2021 Nationwide Cross-Sectional Survey in Poland. Journal of Clinical Medicine [Internet]. 2022;11:538. Available from:

6. Gavrielatou N, Doumas S, Economopoulou P. et al. Biomarkers for immunotherapy response in head and neck cancer. Cancer Treatment Reviews. 2020;84:101977

7. Plavc G, Jesenko T, Oražem M. et al. Challenges in Combining Immunotherapy with Radiotherapy in Recurrent/Metastatic Head and Neck Cancer. Cancers. 2020;12:3197

8. Kawakita D, Oze I, Iwasaki S. et al. Trends in the incidence of head and neck cancer by subsite between 1993 and 2015 in Japan. Cancer Medicine. 2022;11:1553-1560

9. Gillison ML, Broutian T, Pickard RKL. et al. Prevalence of Oral HPV Infection in the United States, 2009-2010. JAMA. 2012;307:693

10. Koyanagi YN, Matsuo K, Ito H. et al. Cigarette smoking and the risk of head and neck cancer in the Japanese population: a systematic review and meta-analysis. Jpn J Clin Oncol. 2016;46:580-595

11. Zeng J, Tang Y, Wu P. et al. Alcohol consumption, tobacco smoking, betel quid chewing and oral health associations with hypopharyngeal cancer among men in Central South China: a case-control study. CMAR. 2019;11:6353-6364

12. Lambert R, Sauvaget C, de Camargo Cancela M. et al. Epidemiology of cancer from the oral cavity and oropharynx: European Journal of Gastroenterology & Hepatology. 2011; 23:633-641.

13. Bray F, Ren J-S, Masuyer E. et al. Global estimates of cancer prevalence for 27 sites in the adult population in 2008. Int J Cancer. 2013;132:1133-1145

14. Settle K, Posner MR, Schumaker LM. et al. Racial Survival Disparity in Head and Neck Cancer Results from Low Prevalence of Human Papillomavirus Infection in Black Oropharyngeal Cancer Patients. Cancer Prevention Research. 2009;2:776-781

15. Mäkitie AA, Almangush A, Youssef O. et al. Exhaled breath analysis in the diagnosis of head and neck cancer. Head & Neck. 2020;42:787-793

16. Dharmawardana N, Woods C, Watson DI. et al. A review of breath analysis techniques in head and neck cancer. Oral Oncology. 2020;104:104654

17. Schmidt H, Kulasinghe A, Kenny L. et al. The development of a liquid biopsy for head and neck cancers. Oral Oncology. 2016;61:8-11

18. Miller JL, Evers J. Barriers to Adherence to Cancer Treatments Among Head and Neck Cancer Patients. J Adv Pract Oncol [Internet]. 2022;13:515-523 Available from:

19. Stump-Sutliff KA. Head and Neck Cancer Treatment Complications [Internet]. WebMD. [cited. 2022 Dec 8]. Available from:

20. Kim JK, Leeman JE, Riaz N. et al. Proton Therapy for Head and Neck Cancer. Curr Treat Options in Oncol. 2018;19:28

21. Chavda VP, Balar PC, Patel SB. Interventional nanotheranostics in hepatocellular carcinoma. Nanotheranostics. 2023;7:128-141

22. Voskuil FJ, de Jongh SJ, Hooghiemstra WTR. et al. Fluorescence-guided imaging for resection margin evaluation in head and neck cancer patients using cetuximab-800CW: A quantitative dose-escalation study. Theranostics. 2020;10:3994-4005

23. El-Sayed IH. Nanotechnology in Head and Neck Cancer: The Race Is On. Curr Oncol Rep [Internet]. 2010;12:121-128 Available from:

24. Nanomaterials for Head/Neck Cancers [Internet]. [cited 2022 Dec 1]. Available from:

25. Ruiz-Pulido G, Medina DI, Barani M. et al. Nanomaterials for the Diagnosis and Treatment of Head and Neck Cancers: A Review. Materials (Basel) [Internet]. 2021;14:3706. Available from:

26. Wu T-T, Zhou S-H. Nanoparticle-Based Targeted Therapeutics in Head-And-Neck Cancer. Int J Med Sci [Internet]. 2015;12:187-200 Available from:

27. Bharadwaj R, Medhi S. Oral Squamous Cell Carcinoma and the Cutting Edge of Nanotechnology. Multidisciplinary Cancer Investigation [Internet]. 2020;4:36-45 Available from:

28. Viegas C, Pereira DSM, Fonte P. Insights into Nanomedicine for Head and Neck Cancer Diagnosis and Treatment. Materials (Basel) [Internet]. 2022;15:2086. Available from:

29. Bhandari C, Fakhry J, Eroy M. et al. Towards Photodynamic Image-Guided Surgery of Head and Neck Tumors: Photodynamic Priming Improves Delivery and Diagnostic Accuracy of Cetuximab-IRDye800CW. Front Oncol. 2022;12:853660

30. BAZAK R, HOURI M, ACHY SE. et al. Passive targeting of nanoparticles to cancer: A comprehensive review of the literature. Mol Clin Oncol [Internet]. 2014;2:904-908 Available from:

31. Pisani S, Pisani P. Nanomaterials in Head & Neck Cancer Metastasis Treatment: A Mini-Review. BJSTR [Internet]. 2021;35:28082-28085 Available from:

32. Bertrand N, Wu J, Xu X. et al. Cancer Nanotechnology: The impact of passive and active targeting in the era of modern cancer biology. Adv Drug Deliv Rev [Internet]. 2014;66:2-25 Available from:

33. Zhong Y, Meng F, Deng C. et al. Ligand-Directed Active Tumor-Targeting Polymeric Nanoparticles for Cancer Chemotherapy. Biomacromolecules [Internet]. 2014;15:1955-1969 Available from:

34. Ruiz-Pulido G, Medina DI, Barani M. et al. Nanomaterials for the Diagnosis and Treatment of Head and Neck Cancers: A Review. Materials [Internet]. 2021;14:3706. Available from:

35. Liang J, Yang B, Zhou X. et al. Stimuli-responsive drug delivery systems for head and neck cancer therapy. Drug Delivery. 2021;28:272-284

36. Xie F, Wang M, Chen Q. et al. Endogenous stimuli-responsive nanoparticles for cancer therapy: From bench to bedside. Pharmacological Research [Internet]. 2022;186:106522. Available from:

37. Wilczewska AZ, Niemirowicz K, Markiewicz KH. et al. Nanoparticles as drug delivery systems. Pharmacological Reports [Internet]. 2012;64:1020-1037 Available from:

38. Khademi S, Sarkar S, Shakeri-Zadeh A. et al. Targeted gold nanoparticles enable molecular CT imaging of head and neck cancer: An in vivo study. The International Journal of Biochemistry & Cell Biology [Internet]. 2019;114:105554. Available from:

39. Her S, Jaffray DA, Allen C. Gold nanoparticles for applications in cancer radiotherapy: Mechanisms and recent advancements. Advanced Drug Delivery Reviews [Internet]. 2017;109:84-101 Available from:

40. Popovtzer A, Mizrachi A, Motiei M. et al. Actively targeted gold nanoparticles as novel radiosensitizer agents: an in vivo head and neck cancer model. Nanoscale [Internet]. 2016;8:2678-2685 Available from:

41. Nouri S, Mohammadi E, Mehravi B. et al. NIR triggered glycosylated gold nanoshell as a photothermal agent on melanoma cancer cells. Artificial Cells, Nanomedicine, and Biotechnology [Internet]. 2019;47:2316-2324 Available from:

42. Ruiz-Pulido G, Medina DI, Barani M. et al. Nanomaterials for the Diagnosis and Treatment of Head and Neck Cancers: A Review. Materials [Internet]. 2021 14. Available from:

43. Lo Y-L, Chang C-H, Wang C-S. et al. PEG-coated nanoparticles detachable in acidic microenvironments for the tumor-directed delivery of chemo- and gene therapies for head and neck cancer. Theranostics [Internet]. 2020;10:6695-6714 Available from:

44. Chen Y, Yang J, Fu S. et al. Gold Nanoparticles as Radiosensitizers in Cancer Radiotherapy. Int J Nanomedicine [Internet]. 2020;15:9407-9430 Available from:

45. Olusanya TOB, Haj Ahmad RR, Ibegbu DM. et al. Liposomal Drug Delivery Systems and Anticancer Drugs. Molecules [Internet]. 2018;23:907. Available from:

46. Beltrán-Gracia E, López-Camacho A, Higuera-Ciapara I. et al. Nanomedicine review: clinical developments in liposomal applications. Cancer Nanotechnology [Internet]. 2019;10:11. Available from:

47. Yu C, Li L, Wang S. et al. Advances in nanomaterials for the diagnosis and treatment of head and neck cancers: A review. Bioactive Materials [Internet]. 2022 Available from:

48. Hussain A, Singh S, Sharma D. et al. Elastic liposomes as novel carriers: recent advances in drug delivery. Int J Nanomedicine [Internet]. 2017;12:5087-5108 Available from:

49. Madej M, Kurowska N, Strzalka-Mrozik B. Polymeric Nanoparticles—Tools in a Drug Delivery System in Selected Cancer Therapies. Applied Sciences [Internet]. 2022;12:9479. Available from:

50. Yousefi Rizi HA, Hoon Shin D, Yousefi Rizi S. Polymeric Nanoparticles in Cancer Chemotherapy: A Narrative Review. Iran J Public Health [Internet]. 2022;51:226-239 Available from:

51. Biel MA. Photodynamic therapy in head and neck cancer. Curr Oncol Rep. 2002;4:87-96

52. Nelke KH, Pawlak W, Leszczyszyn J. et al. Photodynamic therapy in head and neck cancer. Postepy Hig Med Dosw (Online). 2014;68:119-128

53. Master A, Livingston M, Gupta AS. Photodynamic Nanomedicine in the Treatment of Solid Tumors: Perspectives and Challenges. J Control Release [Internet]. 2013;168:88-102 Available from:

54. Maharjan PS, Bhattarai HK. Singlet Oxygen, Photodynamic Therapy, and Mechanisms of Cancer Cell Death. Zhuo Z-J, editor. Journal of Oncology [Internet]. 2022;2022:1-20 Available from:

55. Hu T, Wang Z, Shen W. et al. Recent advances in innovative strategies for enhanced cancer photodynamic therapy. Theranostics [Internet]. 2021;11:3278-3300 Available from:

56. Cosper PF, Abel L, Lee Y-S. et al. Patient Derived Models to Study Head and Neck Cancer Radiation Response. Cancers [Internet]. 2020 [cited. 2022 Dec 6]; 12:419. Available from:

57. Tinhofer I, Braunholz D, Klinghammer K. Preclinical models of head and neck squamous cell carcinoma for a basic understanding of cancer biology and its translation into efficient therapies. Cancers Head Neck [Internet]. 2020 [cited. 2022 Dec 6]; 5:9. Available from:

58. Advances in nanomaterials for the diagnosis and treatment of head and neck cancers. A review - ScienceDirect [Internet]. [cited. 2022 Dec 6]. Available from:

59. Nanoparticles for Cancer Therapy. Current Progress and Challenges. Nanoscale Research Letters. Full Text [Internet]. [cited. 2022 Dec 7]. Available from:

Author contact

Corresponding address Corresponding author: Vivek P. Chavda, Department of Pharmaceutics and Pharmaceutical Technology, L.M. College of Pharmacy, Navrangpura, Ahmedabad (Gujarat)-380009. Tel: +91 7030919407 email: Vivek7chavdacom

Received 2022-12-10
Accepted 2023-1-24
Published 2023-2-5

Citation styles

Chavda, V.P., Balar, P.C., Patel, S.B. (2023). Nanotheranostics-based Management of Head and Neck Cancer. Nanotheranostics, 7(2), 202-209.

Chavda, V.P.; Balar, P.C.; Patel, S.B. Nanotheranostics-based Management of Head and Neck Cancer. Nanotheranostics 2023, 7 (2), 202-209. DOI: 10.7150/ntno.81724.

Chavda VP, Balar PC, Patel SB. Nanotheranostics-based Management of Head and Neck Cancer. Nanotheranostics 2023; 7(2):202-209. doi:10.7150/ntno.81724.

Chavda VP, Balar PC, Patel SB. 2023. Nanotheranostics-based Management of Head and Neck Cancer. Nanotheranostics. 7(2):202-209.

This is an open access article distributed under the terms of the Creative Commons Attribution License ( See for full terms and conditions.
Popup Image