A disposable glove has a thickness of 0.03-0.12 mm, tensile strength of at least 14 Mpa, and elongation of at least 350%. The disposable glove is made by dip-coagulating a glove former with a water-based latex compound consisting of or comprising a base latex which is a vinyl acetate ethylene latex or a blend of vinyl acetate ethylene latex and carboxylated acrylonitrile butadiene latex, a pH adjuster, an external crosslinker, and a process additive.

The present invention includes a mask body having a cord attached at three locations on the mask body and a deformable bridge piece. The cord is attached at the middle of an upper edge of the mask body generally aligning with the location of the bridge of the wearer's nose. The cord is further attached at each of two lower positions on the mask body, preferably near or at the bottom corners of the mask body. The cord is further threaded through eyelets located at each of two upper positions on the mask body, preferably near or at the upper corners of the mask body. The deformable bridge piece is located along the upper edge of the mask body, and generally centered on the bridge of the wearer's nose.

A disposable glove and a method for making the disposable glove that reduces or eliminates glove cuff roll-down. The disposable glove includes a treated area on the interior surface of the glove that extends from the hand area to a portion of the wrist-forearm area of the glove but such that at least a portion of the interior near the glove opening is untreated. The untreated portion of the interior surface of the disposable glove resists glove cuff roll-down when the glove is positioned on a user's hand and forearm.

The subject matter disclosed herein is generally directed to methods and compositions for tagging cells of interest, tracking evolution of the tagged cells, and recovering the original tagged cells for further study. Specifically, cells are tagged with a DNA construct encoding a barcode sequence comprising a guide sequence. Barcoded cells can then be recovered using a reporter construct having CRISPR target sequences specific for the cell having a barcode of interest.

A garment, particularly a garment useful in a medical setting, comprising a gown that provides an acceptable barrier between a wearer and certain contaminants as well as easy doffing, the gown having a neck opening, two sleeves, a body portion including a front body portion and a back body portion, one or more panels, and/or one or more doffing features.

A mask protecting the user and attached or sown to utility and or wear onto the body to prevent general contamination of the user, especially dust, flu, biological, or chemical, control or terminate person to person contamination, stop continue body or utility recontamination and spreading of dust, biological or chemical agents into the body, or utility. The new mask may include a medical or anti bacteria disinfectants, maybe powder, liquid, capsule or other types to control and kill germs, further the new mask have a holder, with plurality of holes, and connectors and or interconnector holding the masks to the body or utilities, like professional garment or uniforms, neck tires, T shirt, shirts, seat, car seat, bed, ear, chin, head, hand, while covering the users, faces, or half faces, particularly, the nose, eyes and the mouth from harm.

A semi transparent nitrile glove comprising nitrile latex, caustic alkali, accelerators, vulcanizing agents, stabilizer and antifoaming agent, wherein the nitrile latex is any one selected from either acrylonitrile butadiene copolymer or carboxylated acrylonitrile butadiene copolymer, wherein the caustic alkali is a combination of either potassium hydroxide and ammonia or sodium hydroxide and ammonia, wherein the accelerators are chemical compounds of dithiocarbamates, wherein the vulcanizing agents are selected from both ionic and covalent vulcanizing agents, wherein the stabilizer is any one of either sodium dodecylbenzene sulfonate or sodium dodecyl sulfate and wherein the antifoaming agent is any one from a group consisting of silicone based antifoam, non-silicone based antifoam, oil based antifoam and water based antifoam wherein the semi transparent glove is without pigment and without titanium dioxide.

A folded article formed from a protective garment, and a method of folding a protective garment to prepare the garment for donning, expose sleeve openings of the garment for ease of donning. The protective garment is folded into a folded article that is configured to be grasped by an inner surface of the garment and prevent touching the outer surface of the garment during donning. Thus, the sterility of the protective garment can be maintained during donning. The protective garment may further include a hood and visor, and the folded article formed from the protective garment may have the same size and shape as the visor.

The disclosure provides a bib article and methods thereof. The article is configured to shield or cover a front side or a top part of body of a user, the bib article configured to shield or cover the front side of the body of a user comprises adjustable snaps at neck, wrist, and ankle for proper fit to a size and dimension of the body, and the bib article configured to shield or cover the top part of body of user has an opening that fits to a size and dimension of neck of the user, the top part of body being chest, top back, left shoulder and right shoulder of the user.

A single use disposable glove utilizing the cutting and sealing process. The top and bottom panels of the glove are produced from an extrusion process made from a variety of thermoplastic elastomers containing styrenic block copolymer (SBC). The glove made from this process is form fitting, has less than 20% deformation after 100% stretch for 10 second. The suitable SBC materials are selected from the group consisting of SIS, SBS, SEBS, SEPS, SEEPS, and combinations thereof.