of diabetes mellitus. Globally, these wounds are important causes of disability and mortality. [2] Diabetic wounds that fail to heal are largely caused by oxidative stress. [3] Overproduction of reactive oxygen species (ROS) and inadequate antioxidant protection results in excess oxidative stress, leading to cell apoptosis and suppressed cell proliferation as well as differentiation at diabetic wound sites. [4] In high glucose (HG) conditions, glucotoxicity disrupts angiogenesis, thereby limiting the transport and delivery of nutrients and oxygen in diabetic wounds. [5] Diabetic skin wounds are more susceptible to bacterial infections, causing belated healing and life-threatening outcomes. [6,7] Bacterial infections are also involved in oxidative stress induction. [8] Excess oxidative stress levels suppress growth factor-mediated signaling pathways, resulting in dysregulated angiogenesis. Oxidative stress, angiogenesis, and bacterial infections have been reported to jointly cause diabetic wound healing disorders. [9] The existing therapies include drugs or application of bio-activators, hyperbaric oxygen therapy, and stem cell therapy. [10][11][12] However, these therapies are expensive, single-functional, immature, and cumbersome to operate in many cases. [13,14] The limited efficacies create an urgent need for the development of novel treatment modalities.Microneedle (MN) patches are emerging minimally-invasive local delivery systems that have the ability to overcome the dosing inefficiency of systemic delivery. And the new-generation MN, such as bioinspired or stimuli-responsive MN, exhibits more individualized, more efficient, and more convenient. [15,16] These patches have been applied for the treatment of various diseases, including skin wounds. [17,18] However, the current MN patches cannot act on multiple targets of diabetes wound pathogenesis. [19] We developed a multifunctional MN patch with the ability to simultaneously target oxidative stress, angiogenesis, and bacterial infections in diabetic wounds. A silk fibroin methacryloyl hydrogel was selected as the base material for multifunctional MN patches. Silk fibroin methacryloyl was formed from silk fibroin, a physiologically inactive protein derived from Bombyx mori silkworm cocoon, modified with glycidyl-methacrylate groups to supply a cross-linkage site essential for photopolymerization. Silk fibroin methacryloyl has excellent biocompatibility, biodegradability, stable mechanical Diabetic wound is one of the common complications in diabetic patients, which exhibits chronic, hard-to-heal characteristics. The healing process of wounds is impaired by several factors, including excessive oxidative stress, blocked angiogenesis, and bacterial infection. The therapeutic effects of traditional microneedle patches remain not satisfactory, due to their difficulty simultaneously targeting multiple targets to treat diabetic wounds. As such, there is an urgent need to develop a multifunctional microneedle (MN) patch for promoting the healing of diabetic wounds. ...