the future of medical treatment will be the widespread utilization of configurable microscopic medical payload delivery devices ( cmmpdd ) to deliver nuclear signaling proteins directly to targeted cell types in the body . for purposes of this text an ‘ external envelope ’ refers to the outermost covering of a virus or a virus - like transport device or a configurable microscopic medical payload delivery device . the external envelope may be comprised of a lipid layer , a lipid bilayer , the combination of a lipid layer affixed to a protein matrix or the combination of a lipid bilayer affixed to a protein matrix . for purposes of this text an ‘ internal shell ’ refers to a protein matrix shell nested inside the external envelope . the inner most protein matrix shell is termed the nucleocapsid . the proteins that comprise the nucleocapsid are termed capsid proteins . in the center or core of the nucleocapsid is where the payload is carried . for purposes of this text ‘ external probes ’ are molecular structures that are utilized to locate and engage cell - surface receptors on biologically active cells . external probes are generally comprised of a portion which is anchored or fixed in the external envelope and a second portion that extends out and away from the external envelope . external probes may be comprised solely of a protein structure or an external probe may be a glycoprotein molecule . for purposes of this text ‘ glycoprotein molecule ’ refers to a molecule comprised of a carbohydrate region and a protein region . glycoprotein molecules that act as probes are generally anchored or fixed to a lipid layer utilizing the carbohydrate portion of the molecule as an anchor . the protein portion of the glycoprotein molecule which extends outward and away from the exterior envelope the glycoprotein has been affixed such that the protein region may function as a probe to locate and attach to the cell - surface receptor it was created to engage . the concept of configurable microscopic medical payload delivery devices is modeled after naturally existing viruses . configurable microscopic medical payload delivery devices in general are spherical in shape ; though other shapes may be used as function might warrant the use of a particular shape . the spherical configurable microscopic medical payload delivery devices are comprised of an exterior envelope and one or more inner nested protein shells . a quantity of exterior protein structure probes and / or glycoprotein probes are anchored in the exterior lipid envelope and extend out and away from the exterior lipid envelope . nesting of protein shells refers to progressively smaller diameter shells fitting snugly inside protein shells of a larger diameter . inside the inner most protein shell , referred to as the nucleocapsid , is a cavity referred to as the core of the device . the core of the device is the space where the medically therapeutic payload the device carries is located . configurable microscopic medical payload delivery devices are generated to target certain specific cell types in the body . configurable microscopic medical payload delivery devices target specific cell types by the configuration of probes affixed to the exterior envelope of the cmmpdd . by affixing specific probes to the exterior envelope of the cmmpdd , these probes intended to engage and attach only to specific cell - surface receptors located on certain cell types in the body , the cmmpdd will deliver its payload only to those cell types that express compatible and engagable specific cell - surface receptors . in a similar fashion where the exterior probes of a naturally occurring virus engage specific cell - surface receptors present on the surface of the virus &# 39 ; s host cell and only the designated host cell , the cmmpdd &# 39 ; s exterior probes are configured to engage cell - surface receptors on a specific type of target cell . in this manner , the payload of medication or biologic tools carried by cmmpdd will be delivered only to specific types of cells in the body . the exterior probes on the surface of a cmmpdd will vary as needed so as to effect the cmmpdd delivery of payloads to cell types as needed to effect a medical treatment . the size of configurable microscopic medical payload delivery devices is to depend upon the volume size of the payload the cmmpdd is required to carry and deliver to a target cell . the size of a cmmpdd is dependent upon the diameter of the inner protein matrix shells . the diameter of each inner protein matrix shell is governed by the number of protein molecules utilized to construct the protein matrix shell at the time the protein matrix shell is generated . increasing the number of proteins that comprise a protein matrix shell , increases the diameter of the protein matrix shell . the external lipid envelope wraps around and covers the outermost protein matrix shell . the larger the volume of the core of the cmmpdd , the greater the physical size payload the cmmpdd is able to carry . the size of the configurable microscopic medical payload delivery device is to be the size of cell ( approximately 10 − 4 m in diameter ) or less , generally detectable by a light microscope or , as needed , an electron microscope . the size of the cmmpdd is not to be too large such that it would generate a burden to the body by damaging organ tissues through clogging blood vessels , and the maintaining a small enough size that the cmmpdd can be properly disposed of by the body once the cmmpdd has delivered its payload to its target cell . the dimensions of each type of cmmpdd are to be tailored to the mission of the cmmpdd , which takes into account the type of target cell , the size of the payload that is to be delivered to the target cells and the length of time the cmmpdd may engage the target cell . being enveloped in an external lipid layer , configurable microscopic medical payload delivery devices possess the advantage of having their exterior appear similar to the plasma membrane that acts as an outside covering for the cells that comprise the body . by appearing similar to existing plasma membranes , the cmmpdds appear similar to naturally occurring structures found in the body , affording the cmmpdd the capability to avoid detection by a body &# 39 ; s immune system because the exterior of the cmmpdd mimics the cells comprising the body and the surveillance cells of the immune system find it difficult to discern between the cmmpdd and naturally occurring cells comprising the body . to carry out the process of manufacturing a configurable microscopic medical payload delivery device , a primitive cell such as a stem cell is selected . the reason for utilizing primitive cells such as stems cells as the host cell , is that the cmmpdd acquires its outer envelope from the host cell and the more primitive the host cell , the fewer in number the identifying protein markers are present on the surface of the cmmpdd . the fewer the identifying surface proteins present on the outer envelope of the cmmpdd , the less likely a body &# 39 ; s immune system will identify the cmmpdd as an invader and therefore less likely the body &# 39 ; s immune system will react to the presence of the cmmpdd and reject the cmmpdd by attacking and neutralizing the cmmpdd . stem cells used as host cells to manufacture quantities of cmmpdd product are selected per histocompatibility markers present on their surface . certain histocompatibility markers present on the surface of the final cmmpdd product will be less likely to cause a reaction in a specific patient based on the genetic profile of the patient &# 39 ; s histocompatibility markers . a similar histocompatibility match is done when donor organs are selected to be given to recipients to avoid rejection of the donor organ by the recipient &# 39 ; s immune system . the selected stem cell used to manufacture configurable microscopic medical payload delivery devices goes through several steps of maturation before it is capable of generating therapeutic cmmpdd product . messenger rna would be inserted into the host stem cell that would code for the general physical outer structures of the cmmpdd . messenger rna would be inserted into the host that would generate surface probes that would target the surface receptors on specifically target cells . messenger rna would be inserted into the host that would be used to generate the payload of nuclear signaling proteins . similar to how copies of a naturally occurring virus , such as the hepatitis c virus or hiv , are produced , assembled and released from a host cell , copies of the cmmpdd would be produced , assembled and released from a host cell . once released from the host cell , the copies of the cmmpdd would be collected , then pooled together to produce a therapeutic dose that would result in a medically beneficial effect . the construction of the configurable microscopic medical payload delivery devices is performed by taking stem cells and inserting modified viral genetic programming into the stem cells . stem cells are chosen as the host cell due to the low number of surface markers , which leads to less antigenicity in configurable microscopic medical payload delivery devices when the configurable microscopic medical payload delivery devices are released by the host cells and wrapped in an outer envelope comprised of the host cells &# 39 ; plasma membrane . the stem cells used as host cells are suspended in a broth of nutrients and are kept at an optimum temperature to govern the rate of production of the cmmpdd product . similar to the natural production of the hepatitis c virus , the configurable microscopic medical payload delivery devices ‘ production genome ’ is introduced into the host stem cells . the configurable microscopic medical payload delivery devices production genome carries genetic instructions to cause the host cells to manufacture the configurable microscopic medical payload delivery devices &# 39 ; outer protein wall , the inner protein matrixes , the surface probes the configurable microscopic medical payload delivery device is to have affixed to its outer envelope and the nuclear signaling proteins the configurable microscopic medical payload delivery devices are to carry ; and the instructions to assemble the various pieces into the final form of the configurable microscopic medical payload delivery devices and the instructions to activate the budding process . the resultant configurable microscopic medical payload delivery devices are collected from the nutrient broth surrounding the host cells and placed together into doses to be used as a treatment for a medical disease . the ‘ production genome ’ are an array of messenger rnas that are directly translated by the host cell &# 39 ; s internal enzymes . the production genome dictates the characteristics of the final version of the cmmpdd that buds from the host stem cell and is released and is to be utilized as a medical treatment . the production genome is specifically tailored to code for the surface probes that will seek and engage a specific type of target cell . the production genome also carries the instructions to code for the production of the type of nuclear signaling proteins to be delivered to the specific type of target cell . the ‘ production genome ’ varies depending upon the configuration of the cmmpdd and the type of nuclear signaling proteins the cmmpdd will transport to effect a specific medical treatment on a specific type of cell . the configurable microscopic medical payload delivery device transporting nuclear signaling proteins represents a very versatile medical treatment delivery device . there are an estimated 30 , 000 to 100 , 000 genes located in the human genome . cmmpdd could be used to deliver nuclear signaling proteins to activate or inactivate any of the chromosomal genes in any specific cell type in the body . as an example of this method , to treat diabetes mellitus utilizing configurable microscopic medical payload delivery devices to deliver to beta cells messenger rna coded to produce insulin , the following production process is followed in the lab : ( 1 ) human stem cells are selected . ( 2 ) into the selected stem cells is placed the production genome constructed , in this case , specifically as a means to treat diabetes mellitus . the rna production genome contains genetic instructions to cause the host stem cells to manufacture the configurable microscopic medical payload delivery devices &# 39 ; outer protein wall , the inner protein matrix , surface probes to include glycoprotein probes that engage the gpr40 cell - surface receptor present on the surface of beta cells located in the islets of langerhans in the pancreas , and the payload of nuclear signaling proteins , in this case the nuclear signaling proteins to activate the production of the insulin molecules in beta cells ; and the biologic instructions to assemble the components into the final form of the configurable microscopic medical payload delivery devices ; and the biologic instructions to activate the budding process . ( 3 ) upon insertion of the rna production genome dedicated to producing a nuclear signaling proteins configured to activate the genes to generate messenger rna that will result in the production of insulin , into the host stem cells , host stem cells respond by ( i ) simultaneously translating the different segments of the rna production genome to produce the proteins that comprise the exterior protein wall , the inner protein matrix molecules , the surface probes to seek out and engage beta cells , the nuclear signaling protein payload to produce insulin , and ( ii ) decoding the rna instructions to assemble the components into the configurable microscopic medical payload delivery devices . ( 4 ) upon assembly , the configurable microscopic medical payload delivery devices bud through the cell membrane of the host stem cell . ( 5 ) at the time of the budding process , the configurable microscopic medical payload delivery devices acquire an outside envelope wrapped over the outer protein shell , this outer envelope comprised of a portion of the plasma membrane from the host stem cell as the configurable microscopic medical payload delivery devices exit the host cell . ( 6 ) the resultant configurable microscopic medical payload delivery devices are collected from the nutrient broth surrounding the host stem cells . ( 7 ) the configurable microscopic medical payload delivery devices are washed in sterile solvent to remove contaminants . ( 8 ) the configurable microscopic medical payload delivery devices are removed from the sterile solvent and suspended in a hypoallergenic liquid medium . ( 9 ) the configurable microscopic medical payload delivery devices are separated into individual quantities to facilitate storage and delivery to physicians and patients . ( 10 ) the configurable microscopic medical payload delivery devices transported in the hypoallergenic liquid medium is administered to a diabetic patient per injection in a dose that is tailored to receiving patient &# 39 ; s requirement to produce sufficient amount of insulin to control the blood sugar . ( 11 ) upon being injected into the body , the configurable microscopic medical payload delivery devices migrate to the beta cells located in the islets of langerhans by means of the patient &# 39 ; s blood stream . ( 12 ) upon the configurable microscopic medical payload delivery devices reaching the beta cells , the configurable microscopic medical payload delivery devices engage the cell - surface receptors located on the beta cells and insert the payload they carry into the beta cells . the payload , in this case being nuclear signaling proteins to activated the genes responsible for the beta cell &# 39 ; s production of insulin molecules . the increase in insulin production by beta cells successfully manages diabetes mellitus . accordingly , the reader will see that the configurable microscopic medical payload delivery device to deliver nuclear signaling proteins to specific targeted cell types provides advantages over existing art by ( 1 ) being a delivery device that seeks out specific types of cells , ( 2 ) by being a delivery device that is versatile enough to deliver a variety of potential nuclear signaling proteins to accomplish various medical treatments and ( 3 ) by being a delivery device constructed with a surface envelope that will avoid detection by the innate immune system so as not to activate the immune system to its presence ; for these reasons this represents a new and unique medical delivery device that has never before been recognized nor appreciated by those skilled in the art . although the description above contains specificities , these should not be construed as limiting the scope of the invention but as merely providing illustrations of some of the presently preferred embodiments of the invention . thus the scope of the invention should be determined by the appended claims and their legal equivalents , rather than by the examples given .
the innovative treatment strategy described here utilizes configurable microscopic medical payload delivery devices to act as a transport vector to deliver nuclear signaling proteins to specific cell types in the body . utilizing probes on the exterior of the transport device , transport device locate specific target cell types in the body . once a specific target cell type has been encountered , the configurable microscopic medical payload delivery device inserts its payload of nuclear signaling proteins into the target cell type . by delivering nuclear signaling proteins to specific cell types , genes can be activated or inactivated in those specific cell types . these medically therapeutic nuclear signaling proteins are intended to improve cell function or the longevity of the cell or eliminate cells that pose a hazard to the general health of the body .