mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an article by hot pressing and ultrasonically inspecting the article comprising the steps of:- (a) forming a canister, (b) filling the canister with powder material, filling the canister with a plurality of components or filling the canister with powder material and at least one component, (c) evacuating the canister, (d) sealing the evacuated canister, (e) applying heat and pressure to the canister to consolidate and diffusion bond the powder material together to form the article, to diffusion bond the components together to form the article or to consolidate the powder material and diffusion bond the powder material and the at least one component together to form the article, (f) ultrasonically inspecting the article within the canister, (g) determining if there are any defects within the article, (h) removing the canister from the article by machining the canister using a machine tool, characterised by (i) ultrasonically inspecting the article within the canister by moving at least one ultrasonic transducer over the whole of an external surface of the canister, (j) determining the position of an interface between the article and the canister at each position on the external surface of the canister, (k) determining the thickness of the canister at each position on the surface of the canister, and (l) controlling the movement of the machine tool over the canister such that at each position of the canister the machine tool removes the determined thickness of the canister for the corresponding position on the external surface of the canister. (a) forming a canister, (b) filling the canister with powder material, filling the canister with a plurality of components or filling the canister with powder material and at least one component, (c) evacuating the canister, (d) sealing the evacuated canister, (e) applying heat and pressure to the canister to consolidate and diffusion bond the powder material together to form the article, to diffusion bond the components together to form the article or to consolidate the powder material and diffusion bond the powder material and the at least one component together to form the article, (f) ultrasonically inspecting the article within the canister, (g) determining if there are any defects within the article, (h) removing the canister from the article by machining the canister using a machine tool, characterised by (i) ultrasonically inspecting the article within the canister by moving at least one ultrasonic transducer over the whole of an external surface of the canister, (j) determining the position of an interface between the article and the canister at each position on the external surface of the canister, (k) determining the thickness of the canister at each position on the surface of the canister, and (l) controlling the movement of the machine tool over the canister such that at each position of the canister the machine tool removes the determined thickness of the canister for the corresponding position on the external surface of the canister.
Method for producing a polycondensate foam film using - a co-rotating, closely intermeshing twin-screw extruder, which -- comprises a supply of polycondensate, - a first pump arranged downstream of the extruder - an agitator arranged downstream of the first pump, wherein a supply of propellant gas discharges into the agitator, - a foil nozzle arranged downstream of the agitator, - wherein the polycondensate with nucleating agent is fed into the supply, and - wherein in the extruder a melting of the polycondensate and a distribution of the nucleating agent in the polycondensate is effected, wherein the polycondensate is supplied to the supply with already fine dispersed nucleating agent, wherein a finest dispersion of the nucleating agent takes place in the polycondensate, characterized in that - the extruder comprises at least one vacuum degassing unit, - the agitator is a static agitator provided with a temperature control, - a foil-slitting blade is arranged downstream of the film nozzle, and - the propellant gas is fed into the static agitator when in the supercritical state. - a co-rotating, closely intermeshing twin-screw extruder, which -- comprises a supply of polycondensate, -- comprises a supply of polycondensate, - a first pump arranged downstream of the extruder - an agitator arranged downstream of the first pump, wherein a supply of propellant gas discharges into the agitator, - a foil nozzle arranged downstream of the agitator, - wherein the polycondensate with nucleating agent is fed into the supply, and - wherein in the extruder a melting of the polycondensate and a distribution of the nucleating agent in the polycondensate is effected, wherein the polycondensate is supplied to the supply with already fine dispersed nucleating agent, wherein a finest dispersion of the nucleating agent takes place in the polycondensate, - the extruder comprises at least one vacuum degassing unit, - the agitator is a static agitator provided with a temperature control, - a foil-slitting blade is arranged downstream of the film nozzle, and - the propellant gas is fed into the static agitator when in the supercritical state.
A method for finding borders in an image represented by pixels, the method including a first operation comprising: estimating an attribute for each of a first set of two adjacent pixel positions in the image; storing the estimated attributes for each of the pixel positions of the first set; assessing whether a predetermined binary condition differs in respect of the attributes of the two pixel positions, and if so determining that a border is present in the part of the image represented by pixels at those positions; and if a border is determined to be present in that part of the image, estimating the direction of the border as being perpendicular to a line joining the positions of the two pixels; and initiating tracing the border in that direction, wherein tracing the border comprises the steps of: selecting a second set of two adjacent pixel positions, each of those pixel positions being adjacent to a respective one of the pixel positions of the first set and offset from that pixel position of the first set in the estimated direction; estimating an attribute for each of the pixel positions of the second set; estimating a new direction of the border in dependence on the estimated attributes of the second set of pixel positions and the stored attributes of the first set of pixel positions; and subsequently further tracing the border. estimating an attribute for each of a first set of two adjacent pixel positions in the image; storing the estimated attributes for each of the pixel positions of the first set; assessing whether a predetermined binary condition differs in respect of the attributes of the two pixel positions, and if so determining that a border is present in the part of the image represented by pixels at those positions; and if a border is determined to be present in that part of the image, estimating the direction of the border as being perpendicular to a line joining the positions of the two pixels; and initiating tracing the border in that direction, wherein tracing the border comprises the steps of: selecting a second set of two adjacent pixel positions, each of those pixel positions being adjacent to a respective one of the pixel positions of the first set and offset from that pixel position of the first set in the estimated direction; estimating an attribute for each of the pixel positions of the second set; estimating a new direction of the border in dependence on the estimated attributes of the second set of pixel positions and the stored attributes of the first set of pixel positions; and subsequently further tracing the border.
A system (100, 200, 300) for controlling a cabin temperature of an aircraft, the system (100, 200, 300) comprising: a switch (108, 308) comprising electromechanical switch contacts, wherein the switch (108, 308) is configured to indicate a position of a temperature control valve (222, 322); a processing circuitry configured to: provide a first current to the switch (108, 308); and detect a position of the temperature control valve (222, 322) based on the indication from the switch (108, 308); a current driver circuit configured to provide a second current to the switch (108, 308), wherein the switch (108, 308) receives a combination of the first current and the second current; and an analog to digital converter, ADC, circuit (104, 204, 304), wherein the ADC circuit (104, 204, 304) includes the current driver circuit configured to provide the second current to the switch (108, 308), wherein the ADC circuit (104, 204, 304) is configured to receive one or more analog signal inputs from one or more sensors that monitor performance of an environmental control system for the aircraft. a switch (108, 308) comprising electromechanical switch contacts, wherein the switch (108, 308) is configured to indicate a position of a temperature control valve (222, 322); a processing circuitry configured to: provide a first current to the switch (108, 308); and detect a position of the temperature control valve (222, 322) based on the indication from the switch (108, 308); provide a first current to the switch (108, 308); and detect a position of the temperature control valve (222, 322) based on the indication from the switch (108, 308); a current driver circuit configured to provide a second current to the switch (108, 308), wherein the switch (108, 308) receives a combination of the first current and the second current; and an analog to digital converter, ADC, circuit (104, 204, 304), wherein the ADC circuit (104, 204, 304) includes the current driver circuit configured to provide the second current to the switch (108, 308), wherein the ADC circuit (104, 204, 304) is configured to receive one or more analog signal inputs from one or more sensors that monitor performance of an environmental control system for the aircraft.
A wire guiding liner, in particular a welding wire liner, having a plurality of guiding bodies which are pivotable with respect to each other around a defined pivot axis, characterized in that a biasing means is provided which acts between adjacent guiding bodies so as to push them apart, thereby eliminating the mechanical play and tending to straighten the entire liner so that the liner seeks to assume a straight shape, the biasing means being an elastomeric or rubber ring.
A shelf electrical supply system, comprising: an electrical supply guide track fixedly connectable to a shelf; an electrical input part connected to the electrical supply guide track; an electrical component disposed on the electrical supply guide track; the electrical supply guide track comprises a track groove, a metal guide track disposed in the track groove, and the electrical input part is electrically connected to one end of the metal guide track; the electrical component comprises a magnet block and conductive contacts arranged around the magnet block, and when the electrical component is disposed on the electrical supply guide track, the magnet block is attracted to the metal guide track and the conductive contacts are in contact with the metal guide track, characterized in that the electrical component further comprises a conductive plate and an electrical plug, and the conductive plate is provided with a through hole for the magnet block to pass through, wherein the conductive contacts are disposed on the conductive plate and protrude from the conductive plate, and the electrical plug is electrically connected to the conductive plate through wire. an electrical supply guide track fixedly connectable to a shelf; an electrical input part connected to the electrical supply guide track; an electrical component disposed on the electrical supply guide track; the electrical supply guide track comprises a track groove, a metal guide track disposed in the track groove, and the electrical input part is electrically connected to one end of the metal guide track; the electrical component comprises a magnet block and conductive contacts arranged around the magnet block, and when the electrical component is disposed on the electrical supply guide track, the magnet block is attracted to the metal guide track and the conductive contacts are in contact with the metal guide track, characterized in that the electrical component further comprises a conductive plate and an electrical plug, and the conductive plate is provided with a through hole for the magnet block to pass through, wherein the conductive contacts are disposed on the conductive plate and protrude from the conductive plate, and the electrical plug is electrically connected to the conductive plate through wire.
A method for manufacturing a lithographic printing plate comprising: imagewise exposing a negative lithographic printing plate precursor comprising a hydrophilic support having thereon, in the following order, a photosensitive layer containing (i) a polymerization initiator, (ii) a polymerizable compound and (iii) a binder polymer, and a protective layer, and removing the protective layer and the photosensitive layer of an unexposed area in the presence of a developer having a pH of 6-14 and which comprises a reduced starch saccharification product having a mass average molecular weight of 1000 or more and which has bonded therein two or more monosaccharides. imagewise exposing a negative lithographic printing plate precursor comprising a hydrophilic support having thereon, in the following order, a photosensitive layer containing (i) a polymerization initiator, (ii) a polymerizable compound and (iii) a binder polymer, and a protective layer, and removing the protective layer and the photosensitive layer of an unexposed area in the presence of a developer having a pH of 6-14 and which comprises a reduced starch saccharification product having a mass average molecular weight of 1000 or more and which has bonded therein two or more monosaccharides.
A method of folding a catheter balloon for optimizing coating of said catheter balloon, said method comprising configuring a number of folds having a predetermined volume and shape determined by a fold depth and a fold width, and metering a specific amount of a coating solution comprising a therapeutic agent by injection into the folds of the balloon wherein said fold depth is about 1.5 millimetres ± 50%.
A robot cleaner comprising: a body; a brush unit coupled to an outer circumferential surface of the body, and configured to move debris toward a debris collector of the robot cleaner; a sensor provided to be rotatable relative to the body, and configured to sense at least one obstacle, a target object to which the robot cleaner is to reach and a surface of the sensed target object; a multi-directional moving wheel provided to move the body in various directions independently from a rotational position of the body; and a controller configured to: determine an angle of the sensed surface of the sensed target object relative to a front surface of the brush unit, determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object. a body; a brush unit coupled to an outer circumferential surface of the body, and configured to move debris toward a debris collector of the robot cleaner; a sensor provided to be rotatable relative to the body, and configured to sense at least one obstacle, a target object to which the robot cleaner is to reach and a surface of the sensed target object; a multi-directional moving wheel provided to move the body in various directions independently from a rotational position of the body; and a controller configured to: determine an angle of the sensed surface of the sensed target object relative to a front surface of the brush unit, determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object. determine an angle of the sensed surface of the sensed target object relative to a front surface of the brush unit, determine a traveling route of the robot cleaner to avoid the sensed at least one obstacle, and control the multi-directional moving wheel based on the determined angle of the sensed surface of the sensed target object so that the multi-directional moving wheel moves the robot cleaner along the determined traveling route while the body including the front surface of the brush unit is maintained in a fixed rotational position relative to the sensed surface of the target object.
A data transmission method, comprising: receiving, by a target base station, a Radio Resource Control resume request message and first data that are transmitted by a terminal device, the terminal device being in an inactive state or in an idle state or in a suspended state; transmitting, by the target base station, a retrieve terminal context request message to an anchor base station, wherein the retrieve terminal context request message carries the first data or first indication information indicating transmission of the first data; and receiving, by the target base station, a reply message transmitted by the anchor base station, characterized in that, the reply message carries second indication information, the second indication information indicating the anchor base station is capable of transmitting the first data to a core network or the second indication information indicating the anchor base station is incapable of transmitting the first data to the core network, wherein the first data is transmitted to the core network by the anchor base station in response to the second indication information indicating that the anchor base station is capable of transmitting the first data to the core network; or wherein the method further comprises: transmitting, by the target base station, the first data to the core network in response to the second indication information indicating that the anchor base station is incapable of transmitting the first data to the core network. receiving, by a target base station, a Radio Resource Control resume request message and first data that are transmitted by a terminal device, the terminal device being in an inactive state or in an idle state or in a suspended state; transmitting, by the target base station, a retrieve terminal context request message to an anchor base station, wherein the retrieve terminal context request message carries the first data or first indication information indicating transmission of the first data; and receiving, by the target base station, a reply message transmitted by the anchor base station, characterized in that, the reply message carries second indication information, the second indication information indicating the anchor base station is capable of transmitting the first data to a core network or the second indication information indicating the anchor base station is incapable of transmitting the first data to the core network, wherein the first data is transmitted to the core network by the anchor base station in response to the second indication information indicating that the anchor base station is capable of transmitting the first data to the core network; or wherein the method further comprises: transmitting, by the target base station, the first data to the core network in response to the second indication information indicating that the anchor base station is incapable of transmitting the first data to the core network.
A method for transferring data between a mobile device and a personal client operating on a computer in a local network, comprising: initiating a primary connection between the personal client and a management system; establishing a mobile connection between the mobile device and the management system; sending transactions between the mobile device and the personal client over the primary connection and the mobile connection; maintaining the primary connection between the personal client and the management system after the mobile connection is terminated; establishing a new mobile connection between the mobile device and the management system and sending transactions between the mobile device and the personal client over the new mobile connection and the previously established primary connection; sending, to the personal client over the previously established primary connection, a synchronization request received from the mobile device over the new mobile connection, the synchronization request requesting, from the personal client, an update of data stored at the mobile device; receiving, from the personal client over the previously established primary connection, according to the synchronization request a latest version of data stored at the personal client; and sending the latest version of data to the mobile device over the new mobile connection. initiating a primary connection between the personal client and a management system; establishing a mobile connection between the mobile device and the management system; sending transactions between the mobile device and the personal client over the primary connection and the mobile connection; maintaining the primary connection between the personal client and the management system after the mobile connection is terminated; establishing a new mobile connection between the mobile device and the management system and sending transactions between the mobile device and the personal client over the new mobile connection and the previously established primary connection; sending, to the personal client over the previously established primary connection, a synchronization request received from the mobile device over the new mobile connection, the synchronization request requesting, from the personal client, an update of data stored at the mobile device; receiving, from the personal client over the previously established primary connection, according to the synchronization request a latest version of data stored at the personal client; and sending the latest version of data to the mobile device over the new mobile connection.