WO/2015/075861 BUBBLING ELECTROLYZED WATER-GENERATING DEVICE AND AUTOMATIC CLEANING APPARATUS||WO||28.05.2015|
||PCT/JP2014/005181||TECH CORPORATION CO., LTD.||NAKAMOTO, Yoshinori|
[Problem] To be able to automatically clean an object to be cleaned using highly effective electrolyzed water by reducing the neutralization reaction that occurs during mixing when the generated gas is mixed with the electrolyzed water. [Solution] This automatic cleaning apparatus (1) comprises: an electrolyzed water-generating unit (8) for generating electrolyzed water by electrolyzing raw water to which an electrolyte has been added; a bubble-generating unit (9) for generating bubbling electrolyzed water by forcing the electrolyzed water to comprise microbubbles using the gas generated in the electrolyzed water-generating unit (8); a cleaning unit (4) for cleaning the object to be cleaned by spraying the bubbling electrolyzed water thereon; and a control unit (2) for controlling the spray timing and spray volume of the bubbling electrolyzed water.
WO/2015/077075 MODULAR WRAPAROUND WALL||WO||28.05.2015|
||PCT/US2014/064856||DIRTT ENVIRONMENTAL SOLUTIONS INC.||GOSLING, Geoff, W.|
Implementations of the present disclosure relate to systems, methods, and apparatus for connecting one or more wall modules to structural components of a building. At least one implementation includes connections that can allow the wall module to couple to a structural wall. For instance, the wall module can extend away from an end of the structural wall. In particular, the wall module can have a frame that connects to the structural wall on at least one side face and one or more panels that connect to the frame to at least partially conceal the structural wall and the frame from a first vantage point. Accordingly, the structural wall together with one or more wall modules can divide the floor space of a building into one or more individual spaces.
WO/2015/073702 PREDICTIVE MONITORING AND CONTROL OF AN ENVIRONMENT USING CFD||WO||21.05.2015|
||PCT/US2014/065510||CES GROUP, LLC||OBINELO, Izuh|
Computational fluid dynamics (CFD) can be used for modeling environment characteristics and for controlling instrumentation in sensitive environments, such as in an office building, datacenter, hospital, enclosed arena, airport, or other environment. In an example, power consumption characteristics from physical equipment assets in an environment can be used by a CFD circuit to improve accuracy of a CFD model. Information from a CFD model can be used to optimize efficiency of HVAC or other air-moving systems serving an environment. In an example, CFD analyses can be performed substantially in real-time when one or more inputs to a CFD model change, relative to a baseline value, by more than a specified threshold amount. An energy efficient and cost efficient response to a change in infrastructure of an environment can be identified based on a CFD model of the environment.
WO/2015/070333 MATERIAL HANDLING PALLET||WO||21.05.2015|
||PCT/CA2014/000824||PALAC INDUSTRIES INC.||CÔTÉ, Christian|
A metal pallet (10) has a deck (12), a base (14) and a plurality of beams (16) therebetween. The deck (12), the base (14) and the beams (16) may be formed from lightweight sheet metal. The metal sheets are folded into the desired shape to respectively form the beams (16), and panels (18, 22) and slats (20, 32) for the deck (12) and the base (14). The panels (18, 22) and the slats (20, 32) are corrugated and the opposed side edges thereof may be folded upon themselves to provide for robust multi-ply edge constructions. Different types of corrugations may be provided over the panels (18, 22) and the slats (20, 32) to locally reinforce the pallet (10). The bottom portion of the beams (16) may be plastically deformed to create arched opening (58) to permit side entry of pallet handling equipment. The plastically deformed regions (60) of the beams (16) may be configured to improve the mechanical properties of the beam while providing maximal clearance for pallet handling equipment.
WO/2015/070382 OPTICAL FIBRE CONNECTION HEAD, OPTICAL FIBRE ADAPTOR AND OPTICAL FIBRE CONNECTOR||WO||21.05.2015|
||PCT/CN2013/086983||HUAWEI TECHNOLOGIES CO., LTD.||WU, Wenxin|
An optical fibre connection head (100), comprising: an optical cable (110); an inner sleeve element (140) which is provided with a cavity therein; a fibre extending from the optical cable (110) being housed in the cavity, with one end of the inner sleeve element (140) being fixed to the optical cable (110), and the other end thereof being provided with a sleeve (180); and an outer sleeve element (130), with the outer sleeve element (130) being provided at the outer side of the inner sleeve element (140), wherein at least a portion of the sleeve (180) of the inner sleeve element (140) protrudes from the outer sleeve element (130), and an opening is provided at the tail end of the sleeve (180) which protrudes from the outer sleeve element (130) so as to enable a tail end cross section of the sleeve (180) to be C-shaped. With the above technical solutions, the optical fibre connector provided in the embodiments of the present invention realizes the blind plugging of the above-mentioned fibre connection heads by seamlessly connecting a sleeve with a C-shaped opening in the optical fibre connection head to a C-shaped plugging slot of the optical fibre adaptor, and is easier in operation, thus the optical fibre connector can achieve the goal of plug-and-play.
WO/2015/067615 INFLATABLE DETECTING ELEMENT, MODULAR DETECTION CABLE AND DETECTION SYSTEM FOR DETECTING LEAKS OF NONCONDUCTIVE LIQUID||WO||14.05.2015|
The invention relates to a detecting element (200) used for detecting leaks of electrically nonconductive liquid, in particular of hydrocarbons, as well as a detection cable (500) and a detection system (590-790) using such a detecting element. The detecting element (200) includes a detection member (114) made of a material, such as silicone, which inflates upon contact with said liquid and which is loaded with electrically conductive particles, such as to be conductive when not contaminated by said liquid, and such as to lose the conductivity thereof when inflating from contact with said liquid. Said detection member (114) is electrically connected to an electronic management module (210), which is arranged for detecting the presence of said liquid by noticing a decrease in the conductivity of said detection member, typically by means of an ohmic measurement. In a preferred embodiment, the detection cable includes four insulated conductive wires, one of which is embedded in the detection member (114) which is itself protected by an inflatable casing (116), which is also insulating and water-proof. Said four conductive wires (106, 110, 424, 424) are twisted around a fifth insulated conductive wire, the whole being surrounded by a perforated extruded sheath (116).
WO/2015/070017 A SENSOR FOR MONITORING RHEOLOGICALLY COMPLEX FLOWS||WO||14.05.2015|
||PCT/US2014/064545||LENTERRA, INC.||SHEVEREV, Valery|
Flow sensors, systems, and methods for continuous in situ monitoring of a Theologically complex fluid flow within a vessel, such as particulate and multiphase media for ascertaining certain fluid flow parameters, such as flow rate, dynamic viscosity, fluid density, fluid temperature, particle density and particle mass, from flow sensor measurements. The system involves a fluid flow sensor having a body member with internalized strain gauges configured to measure the deformation of certain segments of the body member. Based, at least in part, on these deformation measurements, the system is used to compute the fluid flow parameters.
WO/2015/066948 SINGLE OPTICAL FIBRE COUPLED MULTI-WAVELENGTH LIGHT TRANSCEIVING MODULE||WO||14.05.2015|
||PCT/CN2013/088111||O-NET COMMUNICATIONS (SHENZHEN) LIMITED||CHEN, Bin|
Provided is a single optical fibre coupled multi-wavelength light transceiving module, comprising an optical fibre insertion core, a circulator assembly, a combiner/splitter assembly, a light transmitting assembly and a light receiving assembly, wherein the circulator assembly comprises three ports, and the light transceiving module comprises a light receiving portion and a light transmitting portion, wherein light beams of the light receiving portion are incident to the first port of the circulator assembly from the optical fibre insertion core, are output to the combiner/splitter assembly via the second port of the circulator assembly, and are received by the light receiving assembly after being split by the combiner/splitter assembly; and light beams of the light transmitting portion are incident to the combiner/splitter assembly from the light transmitting assembly, are incident to the third port of the circulator assembly after the photosynthetic function of the combiner/splitter assembly, are emitted out from the first port of the circulator assembly, and then are incident to the optical fibre insertion core, thereby solving the problem that an existing light transceiving module has a fibre winding hazard, and meeting the requirements for device miniaturization.
WO/2015/061908 SUSPENDED CEILING SYSTEM AND TILE THEREFORE||WO||07.05.2015|
||PCT/CA2014/051047||9290-9043 QUÉBEC INC.||LAGANIERE, Eric|
The tile for a suspended ceiling system generally has a folded sheet of a high-pressure laminate material having a rectangular shape, the tile having at least a backing layer on an inside face and an externally visible decorative layer; the tile having a pair of opposite longitudinal edges and a pair of opposite transversal edges, the edges of at least one of the two pairs having at least one inward fold rigidly projecting from the inside face, and can be used as structure to be held by support members of a ceiling.
WO/2015/066087 ELECTRICAL CIRCUIT FOR POWERING CONSUMER ELECTRONIC DEVICES||WO||07.05.2015|
||PCT/US2014/062740||ADVANCED CHARGING TECHNOLOGIES, LLC||FREEMAN, Michael, E.|
An electrical circuit for providing electrical power for use in powering electronic devices is described herein. The electrical circuit includes a primary power circuit and a secondary power circuit. The primary power circuit receives an alternating current (AC) input power signal from an electrical power source and generates an intermediate direct current (DC) power signal. The intermediate DC power signal is generated at a first voltage level that is less than a voltage level of the AC input power signal. The secondary power circuit receives the intermediate DC power signal from the primary power circuit and delivers an output DC power signal to an electronic device. The output DC power signal is delivered at an output voltage level that is less than the first voltage level of the intermediate DC power signal.