mhurhangee/patent-ind-claim-en huggingface dataset:
A self-moving robot (MR) movement boundary determining method, comprising: obtaining positions of sample points obtained along a movement boundary by moving a positioning device coupling with a self-moving robot (MR) along the movement boundary, wherein after the movement boundary is delimited using the sample points, the self-moving robot (MR) is set to be prohibited from crossing the movement boundary, so that the self-moving robot (MR) is able to operate inside or outside the movement boundary; and determining a movement boundary according to the positions of the sample points, wherein the self-moving robot (MR) is set to work inside or outside the movement boundary; wherein positioning device coupling with the self-moving robot (MR) is moved along the movement boundary by: moving the self-moving robot (MR) with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary. obtaining positions of sample points obtained along a movement boundary by moving a positioning device coupling with a self-moving robot (MR) along the movement boundary, wherein after the movement boundary is delimited using the sample points, the self-moving robot (MR) is set to be prohibited from crossing the movement boundary, so that the self-moving robot (MR) is able to operate inside or outside the movement boundary; and determining a movement boundary according to the positions of the sample points, wherein the self-moving robot (MR) is set to work inside or outside the movement boundary; wherein positioning device coupling with the self-moving robot (MR) is moved along the movement boundary by: moving the self-moving robot (MR) with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary. moving the self-moving robot (MR) with the positioning device mounted thereon to move along the movement boundary while the self-moving robot is held by a user; or moving the positioning device detached from the self-moving robot along the movement boundary.
A tube cutting laser system , having a guide bushing to coaxially hold tubing and a bushing holder operably coupled with the guide bushing characterized by : a. the guide bushing having an elastic material that expands and contracts to hold the tubing within a central opening of the elastic material; b. the bushing holder having a proximal end and a distal end , wherein the tubing is advanced from the proximal end to the distal end during a cutting process, the distal end further comprising a raised holder ; and c. the raised holder comprising a proximal end and a distal end , and a first opening traversing the proximal end and the distal end , wherein the guide bushing is operably coupled through the raised holder , and wherein the elastic material is disposed within the first opening . a. the guide bushing having an elastic material that expands and contracts to hold the tubing within a central opening of the elastic material; b. the bushing holder having a proximal end and a distal end , wherein the tubing is advanced from the proximal end to the distal end during a cutting process, the distal end further comprising a raised holder ; and c. the raised holder comprising a proximal end and a distal end , and a first opening traversing the proximal end and the distal end , wherein the guide bushing is operably coupled through the raised holder , and wherein the elastic material is disposed within the first opening .
Foundation system for the realisation of prefabricated structures, in particular for the realisation of modular parking lots, consisting of - a first framework, comprising at least a first level of a prefabricated structure, comprising at least three columns arranged aligned at a preset distance along a direction, a diagonal rod being arranged between the head of each column and the foot of an adjacent column , a lower beam being arranged between the foot of each column and the foot of the adjacent column , each lower beam being coupled at the head to the adjacent lower beam and to the foot of the column , an upper beam being arranged between the head of each column and the head of the adjacent column , each upper beam being coupled at the head to an adjacent upper beam and to the head of the column ; - a second framework comprising a plurality of support elements , in a number corresponding to the number of said columns , each support element being arranged below a corresponding column , each support element being configured to receive the concentrated/point loads of the corresponding column and to distribute such concentrated/point loads over a wider area, characterised in that said support elements are support beams , the centre of each support beam being arranged under a corresponding column , each support beam being adapted to receive the concentrated/point loads of the corresponding column and to distribute these concentrated/point loads along its length. - a first framework, comprising at least a first level of a prefabricated structure, comprising at least three columns arranged aligned at a preset distance along a direction, a diagonal rod being arranged between the head of each column and the foot of an adjacent column , a lower beam being arranged between the foot of each column and the foot of the adjacent column , each lower beam being coupled at the head to the adjacent lower beam and to the foot of the column , an upper beam being arranged between the head of each column and the head of the adjacent column , each upper beam being coupled at the head to an adjacent upper beam and to the head of the column ; - a second framework comprising a plurality of support elements , in a number corresponding to the number of said columns , each support element being arranged below a corresponding column , each support element being configured to receive the concentrated/point loads of the corresponding column and to distribute such concentrated/point loads over a wider area,
An ACC inhibitor for use in combination with an FXR agonist for treating and/or preventing primary biliary cirrhosis (PBC) or primary sclerosing cholangitis (PSC), wherein the ACC inhibitor is a compound of Formula (I): or a pharmaceutically acceptable salt thereof; and the FXR agonist is a compound of Formula (III): or a pharmaceutically acceptable salt thereof.
An exhaust gas purification device provided in an exhaust gas path of an engine, wherein the exhaust gas purification device includes a purification casing in which at least a purification catalyst for purifying exhaust gas from the engine is accommodated, the purification casing is integrally provided with a bypass path separately from a purification path having the purification catalyst , the bypass path makes exhaust gas bypasses the purification catalyst without passing through the purification catalyst , the bypass path is provided in the purification casing , a partition plate extending in a discharging direction of the exhaust gas partitions an interior of the purification casing into the purification path and the bypass path , the purification path and the bypass path merge with each other in an outlet of the purification casing , characterized in that the purification casing has an inspection window at a position opposed to the purification catalyst and configured for inspection and maintenance of the purification catalyst , the inspection window is provided with a lid cover configured to open and close the window , and an injecting portion configured to inject compression gas to the purification catalyst is provided on an upstream side of the purification catalyst in the purification casing in order to forcibly remove soot and dust accumulated in the exhaust gas purification device during usage, wherein the purification catalyst is an NOx catalyst and a slip processing catalyst .
A method for preparing a composition comprising a humic substance-encapsulated bioactive compound, said method comprising the steps of: a) Preparing a solution comprising a humic substance and a bioactive compound, said solution having a pH greater than or equal to pH 4, preferably greater than or equal to pH 5, pH 6, pH 7, pH 8, preferably from pH 8 to pH 10, and b) Lowering the pH of the solution to a pH lower than or equal to pH 4, preferably to a pH lower than or equal to pH 3, pH 2, preferably from pH 1 to pH 2. a) Preparing a solution comprising a humic substance and a bioactive compound, said solution having a pH greater than or equal to pH 4, preferably greater than or equal to pH 5, pH 6, pH 7, pH 8, preferably from pH 8 to pH 10, and b) Lowering the pH of the solution to a pH lower than or equal to pH 4, preferably to a pH lower than or equal to pH 3, pH 2, preferably from pH 1 to pH 2.
A method by a network node for deferring a carrier sensing procedure in a LTE network, the method comprising: determining, by a first controller seeking to initiate the carrier sensing procedure in a first cell operating on a first carrier, that a second cell associated with a second controller has initiated a first transmission opportunity on a second carrier that is adjacent to the first carrier, wherein the carrier sensing procedure in the first cell operating on the first carrier includes Listen Before Talk, LBT, with random back off procedure; determining, by the first controller associated with the first cell , a first transmission opportunity duration associated with the first transmission opportunity initiated in the second cell; deferring, by the first controller, the carrier sensing procedure to be performed in the first cell , the carrier sensing procedure deferred by the first transmission opportunity duration associated with the first transmission opportunity initiated in the second cell ; initiating the carrier sensing procedure in the first cell after the first transmission opportunity duration unless instructed by the second controller; and after the first transmission opportunity duration expires, deferring, by the second controller a carrier sensing procedure to be performed in the second cell on the second carrier in a second transmission opportunity. determining, by a first controller seeking to initiate the carrier sensing procedure in a first cell operating on a first carrier, that a second cell associated with a second controller has initiated a first transmission opportunity on a second carrier that is adjacent to the first carrier, wherein the carrier sensing procedure in the first cell operating on the first carrier includes Listen Before Talk, LBT, with random back off procedure; determining, by the first controller associated with the first cell , a first transmission opportunity duration associated with the first transmission opportunity initiated in the second cell; deferring, by the first controller, the carrier sensing procedure to be performed in the first cell , the carrier sensing procedure deferred by the first transmission opportunity duration associated with the first transmission opportunity initiated in the second cell ; initiating the carrier sensing procedure in the first cell after the first transmission opportunity duration unless instructed by the second controller; and after the first transmission opportunity duration expires, deferring, by the second controller a carrier sensing procedure to be performed in the second cell on the second carrier in a second transmission opportunity.
String mower head for a string mower, wherein the string mower head can be driven to rotate about an axis of rotation in operation, wherein the string mower head has a base body on which at least one cutting string is held, wherein the cutting string extends from an outside of the base body through a string opening into an inner region - open to the environment - of the string mower head , wherein a stop for the cutting string is located at the string mower head , wherein the stop limits in a first position of the cutting string the length (f) of a string section of the cutting string which can be inserted into the inner region to an insertion length (b), characterised in that a deflection element is arranged in the inner region of the string mower head in such a way that the cutting string can be moved from its first position into a second position without displacing the cutting string in its longitudinal direction by bending the inserted string section around the string opening , wherein the cutting string contacts the deflection element in its second position and the stop does not limit the length (f) of the string section which can be inserted into the inner region .
A detachable inflatable sofa with a plurality of air cavities , comprising a sofa cover and a plurality of inflatable air cavities , wherein each adjacent two of the air cavities are detachably connected, and all the air cavities are connected to form a body of the sofa; and the sofa cover is sleeved on an outer surface of the body; the inflatable sofa further comprises an air pump, the air cavities are communicated through an air passage joint and are detachably connected, the air pump is communicated with one of the air cavities ; wherein any two connected air cavities are defined as a first air cavity and a second air cavity, characterized in that the air passage joint comprises a first connecting tube , a second connecting tube and a connecting sleeve ; one end of the first connecting tube is fixed to the first cavity, one end of the second connecting tube is fixed to the first air cavity, and the first connecting tube and the second connecting tube are in abutting joint and are relatively fixed through the connecting sleeve . the sofa cover is sleeved on an outer surface of the body; the inflatable sofa further comprises an air pump, the air cavities are communicated through an air passage joint and are detachably connected, the air pump is communicated with one of the air cavities ; wherein any two connected air cavities are defined as a first air cavity and a second air cavity, characterized in that the air passage joint comprises a first connecting tube , a second connecting tube and a connecting sleeve ; one end of the first connecting tube is fixed to the first cavity, one end of the second connecting tube is fixed to the first air cavity, and the first connecting tube and the second connecting tube are in abutting joint and are relatively fixed through the connecting sleeve .
False ceiling , comprising a supporting structure that has at least two opposite coplanar profiles that are mutually parallel and fixed to a ceiling , said profiles defining between them an access opening (D) on the ceiling, each profile comprising a shoulder that defines a horizontal bearing surface oriented toward the ceiling , at least one panel being arranged between the profiles , the panel being dimensioned so as to rest on the bearing surface of the profiles , the false ceiling further comprising removable mounted means for transversely wedging the panel between two opposite profiles , the wedging means being arranged on either side of the panel such that each wedging means is a wedging bar of which the elongate body vertically abuts the length of a bearing surface of an associated profile , which bar is interposed transversely between a lateral edge of the panel and a vertical bearing face of the associated profile that is oriented toward the opposite profile , and such that the panel has a width greater than the width of the access opening, and the wedging means have a nominal cross-sectional width established on the basis of the width of the panel and of the width of the access opening so as define, together with the panel , a clearance that allows said panel to be placed on the profiles and removed by a simple push while preventing transverse movement of the panel such that one of the lateral edges of the panel comes to be positioned facing the access opening, the panel being held on the shoulders simply by gravity.
A flow measurement combination whereas the flow measurement combination comprises a contoured insert configured at a location (L) in a flow path (F) of a fluid system, pre-calibrated to develop a flow coefficient that is used for verifying a volumetric flow rate in the flow path of the fluid system, and configured with a contour to create an artificial increase in an upstream pressure measurement resulting in a locally amplified pressure drop reading across the contoured insert that is directly proportional to a dynamic pressure component at the location (L); and an upstream and downstream pressure tap arrangement configured at the location upstream and downstream from the contoured insert to sense upstream and downstream pressure of the flow path (F) in the fluid stream, and provide upstream and downstream pressure tap signaling containing information about the upstream and downstream pressure sensed for further processing to determine a flow measurement of the flow path (F) in the fluid stream by applying a measured pressure differential between the upstream and downstream pressure tap signaling in relation to the flow coefficient developed by the contoured insert , characterized by the upstream and downstream pressure tap arrangement is configured with an upstream pressure sensor ; the contour insert comprises a base portion configured with an upstream pressure tap formed therein; and the contour is configured with an upstream contour portion having a flat upwardly-angled surface (12e1) configured to direct a fluid flow stream towards the upstream pressure tap for sensing by the upstream pressure sensor of the upstream pressure tap arrangement and cause a dynamic upstream pressure component; and a flat downwardly-angled lower surface (12e2) configured to simultaneously direct a lower flow profile section down towards a main flow path, which minimize a total pressure drop, or head loss, of the flow measurement combination. a flat upwardly-angled surface (12e1) configured to direct a fluid flow stream towards the upstream pressure tap for sensing by the upstream pressure sensor of the upstream pressure tap arrangement and cause a dynamic upstream pressure component; and a flat downwardly-angled lower surface (12e2) configured to simultaneously direct a lower flow profile section down towards a main flow path, which minimize a total pressure drop, or head loss, of the flow measurement combination.
A handle device for a motor vehicle door, comprising: - a handle movable between a retracted position and a deployed position, - a transmission mechanism , - an actuator , the actuator comprising an electric motor and a case accommodating this motor, the actuator being arranged so as to move the handle between the retracted position and the deployed position via the transmission mechanism , - one or several electrical component(s) (13-16) among a switch, a lighting system, a position sensor , a motion sensor , a proximity sensor , or still a printed circuit, this device being characterized in that it comprises a connector mounted on the case, and in that each of the motor and the electrical components (13-16) comprises a cable passing through the case and being connected to the connector in the case, the connector allowing communicating electrical information between, on the one hand, the motor and/or one or more of said electrical components (13-16) and, on the other hand, a control unit of the handle device . - a handle movable between a retracted position and a deployed position, - a transmission mechanism , - an actuator , the actuator comprising an electric motor and a case accommodating this motor, the actuator being arranged so as to move the handle between the retracted position and the deployed position via the transmission mechanism , - one or several electrical component(s) (13-16) among a switch, a lighting system, a position sensor , a motion sensor , a proximity sensor , or still a printed circuit,
A built-in electromechanical equipment for the control and command of devices in a building, comprising - a cover plate , - a functional frame , coupled to said cover plate , - a socket holder frame and - a mounting box , so that said socket holder frame is fastened to said mounting box and said functional frame is held tightly to said mounting box as it is compressed by said socket-holder frame locked by screws which are screwed on eyes of said mounting box , wherein said mounting box contains a power supply device and said functional frame has a lower protruding rim on which a series of sensors are positioned, said functional frame being equipped with an electronic circuit , which comprises a series of RGB LEDs , a microcontroller and a series of communication ports , wherein said microcontroller is configured to analyse, control, and manage said series of communication ports and said sensors and also manage said RGB LEDs in order to adjust their brightness, said microcontroller being formed mainly by a smartphone , and the built-in electromechanical equipment further comprising a light guide being placed in between said cover plate and said functional frame , said light guide being coupled to said RGB LEDs and being configured to illuminate in a uniform manner at least one external surface portion of said cover plate , characterized in that said cover plate is provided with a transparent cover , the built-in electromechanical equipment further comprising a plate made of opaline which is placed underneath said cover plate . - a cover plate , - a functional frame , coupled to said cover plate , - a socket holder frame and - a mounting box , so that