mhurhangee/patent-ind-claim-en huggingface dataset:
A catalytic combustion burner made of porous material comprising: - a tip including: • a lower part with an outer diameter φ1 and bordering a first cavity with a diameter φ2, said first cavity extending along a main axis adapted to receive a wick intended to soak the tip with a combustible composition, and • an upper part presenting a lateral peripheral wall including an inner surface with a substantially tapered shape and which borders a second cavity with a depth of P and an outer surface with a substantially cylindrical shape, said inner surface presenting a lower end with a diameter φ 3 greater than φ2 and an upper end with a diameter φ4 greater than φ3, the upper end of said lateral wall communicating with the atmosphere and the lower end communicating with said first cavity , - a sleeve arranged in the extension of said lower part of the tip and bordering a third cavity extending said first cavity of said lower part , said burner being characterised in that said porous material is obtained from a composition comprising by percentage of the total weight of said composition, between 0 and 5% of at least one thermally conductive compound, with a thermal conductivity higher than 60 watts per kelvin meter, between 30 and 70% of at least one refractory compound, between 2 and 30% of at least one binder, and between 5 and 40% at least one pore-forming agent, and in that the lower end of said inner surface ends in a counterbore with a diameter of φ3, communicating with said cavity . - a tip including: • a lower part with an outer diameter φ1 and bordering a first cavity with a diameter φ2, said first cavity extending along a main axis adapted to receive a wick intended to soak the tip with a combustible composition, and • an upper part presenting a lateral peripheral wall including an inner surface with a substantially tapered shape and which borders a second cavity with a depth of P and an outer surface with a substantially cylindrical shape, said inner surface presenting a lower end with a diameter φ 3 greater than φ2 and an upper end with a diameter φ4 greater than φ3, the upper end of said lateral wall communicating with the atmosphere and the lower end communicating with said first cavity , • a lower part with an outer diameter φ1 and bordering a first cavity with a diameter φ2, said first cavity extending along a main axis adapted to receive a wick intended to soak the tip with a combustible composition, and • an upper part presenting a lateral peripheral wall including an inner surface with a substantially tapered shape and which borders a second cavity with a depth of P and an outer surface with a substantially cylindrical shape, said inner surface presenting a lower end with a diameter φ 3 greater than φ2 and an upper end with a diameter φ4 greater than φ3, the upper end of said lateral wall communicating with the atmosphere and the lower end communicating with said first cavity , - a sleeve arranged in the extension of said lower part of the tip and bordering a third cavity extending said first cavity of said lower part ,
A composition comprising a) a fibrous material and b) a multi stage polymer and c) a (meth) acrylic polymer (P1) comprising at least 50wt% monomers chosen from C1 to C12 alkyl (meth)acrylates, wherein the quantity of multi stage polymer is between 3wt% and 50wt% based on the sum of the three compounds a) , b) and c) in the composition and the (meth) acrylic polymer (P1) has a mass average molecular weight Mw between 2 000g/mol and 100 000g/mol measured by size exclusion chromatography and, characterized in that the (meth) acrylic polymer (P1) is not crosslinked, and that the multistage polymer is in form of spherical polymer particles having a weight average particle size between 20nm and 800nm measured with a Zetasizer Nano S90 from MALVERN, and that the multi stage polymer comprises i) one stage (A) comprising a polymer (A1) being crosslinked and having a glass transition temperature of less than 0°C measured according to the method disclosed in the specification, ii)one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method disclosed in the specification. a) a fibrous material and b) a multi stage polymer and c) a (meth) acrylic polymer (P1) comprising at least 50wt% monomers chosen from C1 to C12 alkyl (meth)acrylates, wherein the quantity of multi stage polymer is between 3wt% and 50wt% based on the sum of the three compounds a) , b) and c) in the composition and the (meth) acrylic polymer (P1) has a mass average molecular weight Mw between 2 000g/mol and 100 000g/mol measured by size exclusion chromatography and, that the multistage polymer is in form of spherical polymer particles having a weight average particle size between 20nm and 800nm measured with a Zetasizer Nano S90 from MALVERN, and that the multi stage polymer comprises i) one stage (A) comprising a polymer (A1) being crosslinked and having a glass transition temperature of less than 0°C measured according to the method disclosed in the specification, ii)one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method disclosed in the specification. i) one stage (A) comprising a polymer (A1) being crosslinked and having a glass transition temperature of less than 0°C measured according to the method disclosed in the specification, ii)one stage (B) comprising a polymer (B1) having a glass transition temperature of at least 30°C measured according to the method disclosed in the specification.
A method for segmentation and/or shape detection of blood vessels in medical images , said method comprising the following steps: a) classifying a surrounding of at least one vessel represented in at least one medical image by applying a first classifier to the medical image, whereby the surrounding of the vessel is assigned to one of two surrounding classes, the two surrounding classes comprising a first surrounding class and a second surrounding class, wherein the concentration of bone structures being present in proximity of the vessel in the first surrounding class is higher than the concentration of bone structures being present in proximity of the vessel in the second surrounding class, b) segmentation according to a selected first or second segmentation method of the at least one vessel, wherein said segmentation is based on a given point within the vessel outer wall and a tangential vector to the vessel at the point, and characterized in that , c) the selection of said segmentation of the at least one vessel out of two predefined segmentation methods is based on the determined surrounding class to which the surrounding of said vessel has been assigned by said classification step. a) classifying a surrounding of at least one vessel represented in at least one medical image by applying a first classifier to the medical image, whereby the surrounding of the vessel is assigned to one of two surrounding classes, the two surrounding classes comprising a first surrounding class and a second surrounding class, wherein the concentration of bone structures being present in proximity of the vessel in the first surrounding class is higher than the concentration of bone structures being present in proximity of the vessel in the second surrounding class, b) segmentation according to a selected first or second segmentation method of the at least one vessel, wherein said segmentation is based on a given point within the vessel outer wall and a tangential vector to the vessel at the point, and characterized in that , c) the selection of said segmentation of the at least one vessel out of two predefined segmentation methods is based on the determined surrounding class to which the surrounding of said vessel has been assigned by said classification step.
A baler with a baler housing surrounding a bale chamber and with a pressing plate that is movable in the baler housing and which can be driven by hydraulic cylinders arranged in pairs on two opposite sides outside the bale chamber , characterized in that a hydraulic control device is provided, by means of which the hydraulic cylinders of each pair of cylinders (5 and 6, 7 and 8) can each be controlled either selectively individually or jointly, depending on the press pressure.
A method for the production of functionalized partially hydrolyzed polyvinyl acetate comprising vinyl alcohol, vinyl acetate and functionalized vinyl alcohol units by reacting in a melt a partially hydrolyzed polyvinyl acetate as component A with a reactive compound carrying at least one ethylenically unsaturated group and at least one reactive group reactive with hydroxyl or acetate groups as component B, in the presence 0,05 to 5 wt% of at least one stabilizer as component C and in the presence of at least one catalyst selected from the group consisting of tertiary amines and N containing heterocycles as component D, the method comprising the steps: a) optionally drying one or more of components A, B, C and optionally D, b) optionally pre-mixing two or more of components A, B, C and optionally D, c) feeding the components into a mixing device capable of heating, melting and mixing components A, B, C and optionally D, d) heating, melting and mixing components A, B, C and optionally D in the device to give a melt and reacting components A and B in the melt, a) optionally drying one or more of components A, B, C and optionally D, b) optionally pre-mixing two or more of components A, B, C and optionally D, c) feeding the components into a mixing device capable of heating, melting and mixing components A, B, C and optionally D, d) heating, melting and mixing components A, B, C and optionally D in the device to give a melt and reacting components A and B in the melt,
A refrigerator comprising: a main body forming a refrigerating chamber and a freezing chamber each including a temperature sensor; a cooling unit having a compressor and an evaporator accommodated inside the main body and driven to circulate a refrigerant in the compressor and the evaporator to generate cold air around the evaporator; a fan positioned inside the main body to supply the generated cold air to the freezing chamber ; a damper positioned between the freezing chamber and the refrigerating chamber and configured to be opened and closed to allow the freezing chamber and the refrigerating chamber to selectively communicate with each other; and a controller, wherein the controller is configured to: start driving the cooling unit when a temperature of the freezing chamber is higher than a freezing dissatisfaction temperature; actuate the fan when a predetermined fan delay time has lapsed; open the damper when a predetermined damper delay time has passed after the actuation of the fan ; and close the damper when a temperature of the refrigerating chamber reaches a refrigeration satisfaction temperature, and characterized in that the controller is further configured for controlling the damper to be opened for a predetermined damper opening time when a temperature of the freezing chamber reaches a freezing satisfaction temperature according to driving of the cooling unit, and actuating the fan for the damper opening time at a rotation speed lower than that before the temperature of the freezing chamber reaches the freezing satisfaction temperature. a main body forming a refrigerating chamber and a freezing chamber each including a temperature sensor; a cooling unit having a compressor and an evaporator accommodated inside the main body and driven to circulate a refrigerant in the compressor and the evaporator to generate cold air around the evaporator; a fan positioned inside the main body to supply the generated cold air to the freezing chamber ; a damper positioned between the freezing chamber and the refrigerating chamber and configured to be opened and closed to allow the freezing chamber and the refrigerating chamber to selectively communicate with each other; and a controller, wherein the controller is configured to: start driving the cooling unit when a temperature of the freezing chamber is higher than a freezing dissatisfaction temperature; actuate the fan when a predetermined fan delay time has lapsed; open the damper when a predetermined damper delay time has passed after the actuation of the fan ; and close the damper when a temperature of the refrigerating chamber reaches a refrigeration satisfaction temperature, and characterized in that the controller is further configured for controlling the damper to be opened for a predetermined damper opening time when a temperature of the freezing chamber reaches a freezing satisfaction temperature according to driving of the cooling unit, and actuating the fan for the damper opening time at a rotation speed lower than that before the temperature of the freezing chamber reaches the freezing satisfaction temperature.
A waterproof structure of a connector in which cavities respectively accommodating terminals are formed respectively in a pair of housings configured to be fitted to each other, wherein in each of the pair of housings , an annular member surrounding an opening of the cavity is formed to protrude in a fitting direction, wherein one of the annular members has a plurality of corner parts (109a to 109d) in which an outer circumferential surface is inclined so as to spread outward in a radial direction from a leading end to inward, wherein the outer circumferential surface presses an inner circumferential surface of the other annular member in fitting, and in a cross section orthogonal to the fitting direction, wherein the plurality of corner parts (109a to 109d) are positioned to be symmetrical with each other with respect to a central axis of the annular member , wherein a curvature of the outer circumferential surface of the plurality of corner parts (109a to 109d) is larger than a curvature of the outer circumferential surface of other portions, wherein an inclination angle of the outer circumferential surface of the corner parts (109a to 109d) with respect to the fitting direction is larger than an inclination angle of the outer circumferential surface of other portions with respect to the fitting direction, and wherein when the pair of housings are fitted to each other, the timing at which the inner circumferential surface of the male side annular member abuts against the corner parts (109a to 109d) becomes later than other portions in the circumferential direction of the outer circumferential surface . wherein in each of the pair of housings , an annular member surrounding an opening of the cavity is formed to protrude in a fitting direction, wherein one of the annular members has a plurality of corner parts (109a to 109d) in which an outer circumferential surface is inclined so as to spread outward in a radial direction from a leading end to inward, wherein the outer circumferential surface presses an inner circumferential surface of the other annular member in fitting, and in a cross section orthogonal to the fitting direction, wherein the plurality of corner parts (109a to 109d) are positioned to be symmetrical with each other with respect to a central axis of the annular member , wherein a curvature of the outer circumferential surface of the plurality of corner parts (109a to 109d) is larger than a curvature of the outer circumferential surface of other portions, wherein an inclination angle of the outer circumferential surface of the corner parts (109a to 109d) with respect to the fitting direction is larger than an inclination angle of the outer circumferential surface of other portions with respect to the fitting direction, and wherein when the pair of housings are fitted to each other, the timing at which the inner circumferential surface of the male side annular member abuts against the corner parts (109a to 109d) becomes later than other portions in the circumferential direction of the outer circumferential surface .
An apparatus, comprising: a transceiver configured to be coupled to a network ; and a streaming media client in data communication with the transceiver ; wherein the streaming media client is configured to send a connection request to communicate with an endpoint coupled to the network through the transceiver, the connection request comprising a plurality of potential configurations; and the streaming media client is configured to perform a connectivity check with the endpoint through the transceiver , wherein the connection request comprises a username fragment 'ICE' u-frag and a message integrity check ICE pwd; the streaming media client is configured to acquire data representative of a selected configuration from the plurality of potential configurations during the connectivity check, wherein the data representative of the selected configuration includes the Interactive Connectivity Exchange 'ICE' u-frag attribute and the ICE-pwd attribute; and wherein the streaming media client is further configured to correlate the ICE u- frag attribute and the ICE-pwd attribute in the data representative of the selected configuration with the ICE u-frag attribute and an ICE-pwd attribute in the connection request. a transceiver configured to be coupled to a network ; and a streaming media client in data communication with the transceiver ; wherein the streaming media client is configured to send a connection request to communicate with an endpoint coupled to the network through the transceiver, the connection request comprising a plurality of potential configurations; and the streaming media client is configured to perform a connectivity check with the endpoint through the transceiver , wherein the connection request comprises a username fragment 'ICE' u-frag and a message integrity check ICE pwd; the streaming media client is configured to acquire data representative of a selected configuration from the plurality of potential configurations during the connectivity check, wherein the data representative of the selected configuration includes the Interactive Connectivity Exchange 'ICE' u-frag attribute and the ICE-pwd attribute; and wherein the streaming media client is further configured to correlate the ICE u- frag attribute and the ICE-pwd attribute in the data representative of the selected configuration with the ICE u-frag attribute and an ICE-pwd attribute in the connection request.
An apparatus comprising: a display device including an optically transparent display screen for displaying images to a user (U); a sensor configured to track a viewing direction (VD) and/or a viewing position (VP) of the user (U); a detector configured to determine a location (L) of a target (T) viewable by the user (U) through the display screen ; and a controller configured to control the display device to display an image on the display screen at screen coordinates corresponding with the viewable target (T), using the tracked viewing direction (VD) and/or the tracked viewing position (VP) of the user (U) and the determined location (L) of the target (T); wherein the display screen is adapted to provide a safety screen, disposed between the user (U) and the target (T); wherein the apparatus comprises the target (T); characterised by : wherein the detector is communicatively coupleable to the target (T) and wherein the detector is configured to determine the location (L) of the target (T) based on position data received therefrom; wherein the target (T) is an industrial robot; and wherein the image indicates individual limb operational status of the industrial robot. a display device including an optically transparent display screen for displaying images to a user (U); a sensor configured to track a viewing direction (VD) and/or a viewing position (VP) of the user (U); a detector configured to determine a location (L) of a target (T) viewable by the user (U) through the display screen ; and a controller configured to control the display device to display an image on the display screen at screen coordinates corresponding with the viewable target (T), using the tracked viewing direction (VD) and/or the tracked viewing position (VP) of the user (U) and the determined location (L) of the target (T); wherein the display screen is adapted to provide a safety screen, disposed between the user (U) and the target (T); wherein the apparatus comprises the target (T); characterised by : wherein the detector is communicatively coupleable to the target (T) and wherein the detector is configured to determine the location (L) of the target (T) based on position data received therefrom; wherein the target (T) is an industrial robot; and wherein the image indicates individual limb operational status of the industrial robot. wherein the detector is communicatively coupleable to the target (T) and wherein the detector is configured to determine the location (L) of the target (T) based on position data received therefrom; wherein the target (T) is an industrial robot; and wherein the image indicates individual limb operational status of the industrial robot.
A data packet transmission method, wherein the method comprises: receiving (S101), by a network device, a first request message from user equipment, wherein the first request message is used to request the network device to allocate data cache space; caching (S105), by the network device in the data cache space, at least a part of a data packet sent by a server device to the user equipment, wherein sending the data packet by the server is requested by the user equipment by sending a third request message to the server, and the server device, based on third message, is to send the data packet; receiving (S106), by the network device, a second request message from the user equipment, wherein the second request message is used to request the network device to send the cached data packet; and sending (S107), by the network device, a part or all of the cached data packet to the user equipment, characterized in that the first request message is sent by the user equipment if the user equipment is playing a video and detects that a network load and/or a channel quality is lower than a preset indicator, thereby predicting that video freeze may occur during video play. receiving (S101), by a network device, a first request message from user equipment, wherein the first request message is used to request the network device to allocate data cache space; caching (S105), by the network device in the data cache space, at least a part of a data packet sent by a server device to the user equipment, wherein sending the data packet by the server is requested by the user equipment by sending a third request message to the server, and the server device, based on third message, is to send the data packet; receiving (S106), by the network device, a second request message from the user equipment, wherein the second request message is used to request the network device to send the cached data packet; and sending (S107), by the network device, a part or all of the cached data packet to the user equipment, characterized in that the first request message is sent by the user equipment if the user equipment is playing a video and detects that a network load and/or a channel quality is lower than a preset indicator, thereby predicting that video freeze may occur during video play.