Robust and Innovative Aid in the Clinical Management of people with chronic pain by applying new assessment to the way pain is measured.
Pain and distress are difficult to quantify common to almost all illnesses, and according to the National Institute of Health (NIH), affects more individuals than cancer, heart disease and diabetes combined. Patient-Reported Outcomes (PROs) are commonly used by medical professionals to evaluate a patient’s condition. However; research shows accurate pain quantification must include other factors such as pain quality, frequency, number of body regions, and temporality of the pain.
Researchers at Western University have developed a robust and innovative aid in the clinical management of people with musculoskeletal pain, disability, or related conditions by applying new factors to the way pain is measured using a single tool. Through the novel questionnaire and various metrics, paired with in app (or spreadsheet) scoring and computation, healthcare providers can collect more accurate information to aid patients. The multi-dimensional symptom index first asks the patient to categorize the symptom, then asks about frequency of the symptom, and finally asks to rate the intensity. This innovation provides more data than other traditional methods and is more intuitive for patients.
This technology offers more precision over current practice guidelines and acts as a catalyst for the development of pain management strategies using a single tool.
With a global demand for tires expected to reach 3.2 billion units by 2022, we can expect rubber waste from these facilities to increase as well.1 Most automotive rubber tires are vulcanized (crosslinked by sulfur) to make them hard-wearing, and there are no highly efficient means of converting the rubber back into useful organic polymers. Instead, these rubbers are used for energy production, processed into crumb for relatively low value applications or pyrolyzed to make recover some of the hydrocarbons; in many jurisdictions, they are collected or sent to land fills.
Researchers at McMaster have developed a mild and efficient method to break the sulfur-sulfur bonds that hold these vulcanized rubbers together to recover the organic polymers originally used to make the tire; they may be reused to create new products. The inorganic components in such rubber products (e.g. carbon black, metal wires, etc.) can also be readily separated and reused for a variety of applications.
Disulfide bonds are common motifs in proteins and are especially important in biologically-active peptides used as therapeutics and diagnostics, such as insulin and conotoxins. Accurate disulfide bonds form between two specific cysteine residues within peptides and is critical for getting the correct 3-dimensional structure. Current chemical syntheses of peptide with multiple cysteines require expensive complex multi-step protocols and result in undesired non-specific disulfide bonds, low yields, and difficult purification. This technology overcomes these challenges using thermally-labile cysteine protecting groups and ultimately provides a cheaper and simpler solution to forming complex cysteine bridges during peptide synthesis.
The inventors have devised a method where thermally-labile cysteine protecting groups cleave at controlled temperature thresholds to form accurate multiple disulfide bonds in a specific order. These cystine-protecting groups are incorporated as tailored pairs during the standard solid-phase peptide synthesis. The gradual heating of peptide in suspension to the respective “threshold temperatures” causing the specific cysteine-residue pair end caps to fall off allowing the formation of a disulfide bond at the desired temperature while other remaining sets of protected cysteine residues can remain bonded at that temperature. The temperature is then increased to the “second threshold temperature” to cleave the next set of end-cap pair and so forth, resulting in controlled cysteine bonds and functional three-dimensional peptide structure. Cleavage of the protecting groups is monitored by adsorption spectroscopy, a technique often used to monitor other aspects of peptide chemistry. The inventors have established a library of thermally-labile protecting groups and have demonstrated that they can be used in relevant peptides.
Ever increasing wireless connectivity, computational power, cloud storage, connected sensors and a breadth of user engaging Apps have enabled smartphones to play a role in almost all our daily activities. With this shift to mobile connectivity, companies are highly motivated to engage their customers through targeted mobile advertisements, loyalty programs and coupon distribution. The challenge however is that pushing advertisement to customers is often viewed as a nuisance or worse as an invasion of their privacy leading to negative brand sentiment. Ideally companies would prefer mobile marketing platforms that are driven by customers proactively seeking out content that provides a valuable user experience to them.
The University of Waterloo has developed a wireless mobile platform that enables users to request location based multimedia content driven by sensory stimulus motivation. For instance a sensory stimulus such as visual observation of digital signage or scents arising from fragrances (e.g. perfumes) may motivate consumers to reactively actuate their smartphones Apps to access information regarding the provided sensory content or have it sent to their cloud accounts for later reference and use.
The invention engages customers in a way that drives them to seek out information about pleasant sensory experiences they are exposed to. This enables companies to provide advertisements, coupons, and in-App purchasing opportunities in a brand friendly user “pull” manner.
One application currently prototyped targets live entertainment experiences (e.g. concert) to offer event attendees a solution to taking smartphone photos that otherwise suffer from on-board technology limitations that often lead to grainy and poor quality photos (under typically poor lighting situations). Typically fans are passionate in their support of the artist and many desire to have memorable photo keepsakes from such a sensory experience (ie. photo performing fan’s favourite song). The Waterloo system utilizes a combination of smartphone App software with novel device hardware connected to live event display screens (ie. stadium jumbotron) that enables event attendees to capture photos or short video clips from the live feeds displayed on the venue display screens. This enables attendees to develop a personalized package of high resolution pictures and/or video clips that can be directly downloaded to their smartphones or stored on their cloud storage account. This “user” pull application enables marketing sponsorship opportunities to provide companion advertising, couponing, and in-App purchases as part of this user engagement experience. This service will also likely appeal to the artists who are very conscious of their “image” and this enables them to manage their visual images by offering fans pictures from desired angles, postures, and highlight moments. It also provides them a revenue sharing opportunity for in-App purchases (eg. photos, other artist products, such as t-shirts, etc.). Other applications include: live sports events, convocations, and location linked product advertising and sales.
The technology is a physical training or recovery apparatus that features simultaneous blood flow restriction and electrical muscle stimulation.
Existing technologies used in hospital settings or in sports applications use one of compression (blood flow restriction) or electrical stimulation. Technologies with compression provide pneumatic pressure, but only target lymphatic and venous return through external pressure. These approaches do not act on the muscles, so exercise related alterations affecting protein synthesis/breakdown or glucose metabolism are not enacted. Technologies using electrical stimulation have also been sub-optimal as they produce substantial pain when applied with sufficient intensity to elicit the required response.
The Portable Training and Recovery Device delivers a unique combination of blood flow restriction and electrical muscle stimulation. Several studies now show the impact of combining blood flow restricted electrical stimulation on muscle strength.
Ecotoxicology data is a fundamental requirement for Environmental Risk/Impact Assessments (ERA and EIA) that are used to estimate or predict adverse environmental effects due to chemical exposure. Government, industry (e.g. pharmaceutical, agrochemical, mining) and independent laboratories utilize standard testing methods to identify and characterize potential hazards of chemicals to a range of organisms, such as birds, fish, plants and microorganisms. Existing phytotoxicity testing methods assess the effects of actives on seed germination, seedling emergence and vegetative vigor in laboratory-controlled environments, which do not accurately represent the complex interactions that occur in biotic systems. Furthermore, site sampling of soil/water only captures conditions at one point in time. Such approaches provide inadequate data and limits the ability of industry and environmental regulators to make informed decisions on land remediation efforts.
Our proprietary technology is a phyto-ecological monitoring device that enables assays to be conducted on-site to obtain a direct assessment of soil/water toxicity. In brief, the device consists of a delivery chamber that is inserted into wet soils or sediment, a porous media within the delivery chamber that delivers exposure water to cartridge housing, and a selection of replaceable cartridges that are inserted into the cartridge housing to contain the test organisms (i.e. plant seed or fungus spore).
Site-specific risk assessments of contaminated sites for: Oil, mining, chemical, industrial manufacturing, transportation, agriculture, and wastewater treatment industries