mhurhangee/ep-ind-claims huggingface dataset:
An automated device comprising: a first delivery device including: a first component presentation tool (7; 26; 30); and a first dedicated computer numerically controlled tool drive (8; 42, 29; 35) for loading, separating, accelerating and delivering a first component, from an intake position at a leading end of a stream of like first components, to output the first component at a predetermined delivery time, output position, speed, acceleration and trajectory; and a first receiving device including: a tool (10; 27) for receiving, while the tool moves along a tool trajectory, and processing the first component; and a tool drive for moving the tool between: the output position of the first component presentation tool (7; 26; 30); and a finished piece ejection position; wherein the first dedicated computer numerically controlled tool drive (8; 42, 29; 35) includes programmable controls to independently select the time, position, speed, acceleration and trajectory of the first component in a series of independently programmable first component stages comprising the stages of said loading; separating; accelerating; and delivering the first component. a first delivery device including: a first component presentation tool (7; 26; 30); and a first dedicated computer numerically controlled tool drive (8; 42, 29; 35) for loading, separating, accelerating and delivering a first component, from an intake position at a leading end of a stream of like first components, to output the first component at a predetermined delivery time, output position, speed, acceleration and trajectory; and a first component presentation tool (7; 26; 30); and a first dedicated computer numerically controlled tool drive (8; 42, 29; 35) for loading, separating, accelerating and delivering a first component, from an intake position at a leading end of a stream of like first components, to output the first component at a predetermined delivery time, output position, speed, acceleration and trajectory; and a first receiving device including: a tool (10; 27) for receiving, while the tool moves along a tool trajectory, and processing the first component; and a tool drive for moving the tool between: the output position of the first component presentation tool (7; 26; 30); and a finished piece ejection position; a tool (10; 27) for receiving, while the tool moves along a tool trajectory, and processing the first component; and a tool drive for moving the tool between: the output position of the first component presentation tool (7; 26; 30); and a finished piece ejection position; wherein the first dedicated computer numerically controlled tool drive (8; 42, 29; 35) includes programmable controls to independently select the time, position, speed, acceleration and trajectory of the first component in a series of independently programmable first component stages comprising the stages of said loading; separating; accelerating; and delivering the first component.
A robot cleaner, comprising: an image detecting unit configured to detect a plurality of images by capturing peripheral circumstances; a feature point extracting unit configured to extract one or more feature points having 2D coordinates information with respect to each of the plurality of images; a feature point matching unit configured to match the feature points with each other by comparing the 2D coordinates information of the feature points with each other, wherein the feature point matching unit matches the feature points with each other when a distance between the feature points is less than a predetermined distance; and a control unit configured to convert, by using a conversion matrix, the feature points having 2D coordinates information and contained in a plurality of images into corresponding matching points having 3D coordinates information based on a matching result through the feature point matching unit, to recognize a position of the robot cleaner based on the created matching point, to calculate a predicted position of a feature point of a previous image on a next image based on the converted 3D coordinates information, and to verify the matching result between the feature points based on the predicted position. an image detecting unit configured to detect a plurality of images by capturing peripheral circumstances; a feature point extracting unit configured to extract one or more feature points having 2D coordinates information with respect to each of the plurality of images; a feature point matching unit configured to match the feature points with each other by comparing the 2D coordinates information of the feature points with each other, wherein the feature point matching unit matches the feature points with each other when a distance between the feature points is less than a predetermined distance; and a control unit configured to convert, by using a conversion matrix, the feature points having 2D coordinates information and contained in a plurality of images into corresponding matching points having 3D coordinates information based on a matching result through the feature point matching unit, to recognize a position of the robot cleaner based on the created matching point, to calculate a predicted position of a feature point of a previous image on a next image based on the converted 3D coordinates information, and to verify the matching result between the feature points based on the predicted position.
A flexible microwavable container comprising a peripheral fin seal formed by a sealant layer of a multilayer film; said peripheral fin seal having at least one self-venting seal region with a minimum venting seal width that is less than a minimum non-venting seal width of a non-venting fin seal region, and wherein said at least one self-venting fin seal region ruptures when said container is heated at an elevated temperature, characterized in that the container is a hot-fill container and in that self-venting fin seal region is a self-sealing region which reseals when said container is cooled to room temperature.
A method of electrochemically measuring a hematocrit (Hct) value of blood, comprising: providing an electrode system having a working electrode (11, 21, 31) and a counter electrode (12, 22, 32), a redox substance being provided on the counter electrode (12, 22, 32) but not on the working electrode (11, 21, 31); applying a voltage to the electrode system in the state that the shortest distance between the working electrode (11, 21, 31) and the counter electrode (12, 22, 32) is at least 0.05 mm to cause an oxidation current or a reduction current to flow between the electrodes detecting the oxidation current or the reduction current; and determining a Hct value of the blood based on a value of the detected current. providing an electrode system having a working electrode (11, 21, 31) and a counter electrode (12, 22, 32), a redox substance being provided on the counter electrode (12, 22, 32) but not on the working electrode (11, 21, 31); applying a voltage to the electrode system in the state that the shortest distance between the working electrode (11, 21, 31) and the counter electrode (12, 22, 32) is at least 0.05 mm to cause an oxidation current or a reduction current to flow between the electrodes detecting the oxidation current or the reduction current; and determining a Hct value of the blood based on a value of the detected current.
Method for operating a hybrid relay below a predefined low noise level (N L) comprising a solid state relay part and electromechanical part mounted in parallel, wherein said electromechanical part has a drivable coil, at least a first stationary contact, and at least a movable contact that can be alternatively switched between a closed position (P c) and an open position (P o), wherein a control unit is connected to said drivable coil via a digital-to-analog converter for applying in operation a drive signal (S,S',S") to said drivable coil, characterized in that the method comprises: - A first step of determining a first minimum voltage value for said drive signal (S,S',S") above which said movable contact starts to move away from said open position (P o); - A second step of determining a second minimum voltage value for said drive signal (S,S',S") above which said movable contact reaches said closed position (P c); - And a subsequent step of shaping a waveform for a modified drive signal (S',S") comprising a first portion consisting of a substantially vertical segment jumping from zero to said first minimum voltage value yielded in previous said first step; followed by a second portion, wherein the voltage is gradually increased from said first minimum voltage value to said second minimum voltage value yielded in previous said second step within a time period shorter or equal to a noise-free linear closing time (T L) representative of a closing time achievable by applying either actually or theoretically a linear drive signal having a predefined slope (α) in order to remain below said acceptable low noise level (N L) constraints set for said hybrid relay, and finally a third portion consisting of another substantially vertical segment jumping from said second minimum voltage value to an upper voltage boundary (V sup) applicable to said drivable coil. - A first step of determining a first minimum voltage value for said drive signal (S,S',S") above which said movable contact starts to move away from said open position (P o); - A second step of determining a second minimum voltage value for said drive signal (S,S',S") above which said movable contact reaches said closed position (P c); - And a subsequent step of shaping a waveform for a modified drive signal (S',S") comprising a first portion consisting of a substantially vertical segment jumping from zero to said first minimum voltage value yielded in previous said first step; followed by a second portion, wherein the voltage is gradually increased from said first minimum voltage value to said second minimum voltage value yielded in previous said second step within a time period shorter or equal to a noise-free linear closing time (T L) representative of a closing time achievable by applying either actually or theoretically a linear drive signal having a predefined slope (α) in order to remain below said acceptable low noise level (N L) constraints set for said hybrid relay, and finally a third portion consisting of another substantially vertical segment jumping from said second minimum voltage value to an upper voltage boundary (V sup) applicable to said drivable coil.
Set of at least one first and one second plug-in electronic expansion module for the pump electronics of a centrifugal pump, to expand the pump electronics with at least one additional function, each module comprising: - a casing that can be attached to the outside of a casing of the pump electronics by means of at least one connecting mechanism (3, 4a, 4b), - electronics providing the additional function, housed in the casing, and - an electrical interface connected in a circuit with the electronics for the plug-in electrical connection of the expansion module with the pump electronics, projecting from the underside of the casing that faces the pump electronics, for insertion through an opening in the pump electronics casing as intended, characterised by the respective electrical interface having contacts (7a, 7b) in the form of PCB tracks on a flat carrier that projects as a tongue from a base at a distance from the underside of the casing, and by the base area of the underside of the casing of the second expansion module being larger than the base area of the underside of the casing of the first expansion module, but the electrical interface and the connecting mechanism (3, 4a, 4b) being identical with regard to the electrical interface for the two expansion modules, so that the first or the second expansion module can be alternatively plugged into the pump electronics. - a casing that can be attached to the outside of a casing of the pump electronics by means of at least one connecting mechanism (3, 4a, 4b), - electronics providing the additional function, housed in the casing, and - an electrical interface connected in a circuit with the electronics for the plug-in electrical connection of the expansion module with the pump electronics, projecting from the underside of the casing that faces the pump electronics, for insertion through an opening in the pump electronics casing as intended, characterised by the respective electrical interface having contacts (7a, 7b) in the form of PCB tracks on a flat carrier that projects as a tongue from a base at a distance from the underside of the casing, and by the base area of the underside of the casing of the second expansion module being larger than the base area of the underside of the casing of the first expansion module, but the electrical interface and the connecting mechanism (3, 4a, 4b) being identical with regard to the electrical interface for the two expansion modules, so that the first or the second expansion module can be alternatively plugged into the pump electronics.
An electrification spray head for electrifying jetted particles of a water-based fire-extinguishing agent, the electrification spray head comprising: a head main body to receive the water-based fire-extinguishing agent, an injection nozzle for converting the water-based fire-extinguishing agent to particles and spraying the particles by jetting the fire-extinguishing agent to an external jetting space, a water-side electrode unit, formed in a cylindrical shape using an electrically conductive material, arranged between the head main body and the injection nozzle to contact the water-based fire-extinguishing agent supplied to the injection nozzle, and an induction electrode unit (45, 52, 60) disposed in the external jetting space side of the injection nozzle for applying an external electric field, generated by applying an electrification voltage between the induction electrode unit (45, 52, 60) and the water-side electrode unit, to the water-based fire-extinguishing agent. a head main body to receive the water-based fire-extinguishing agent, an injection nozzle for converting the water-based fire-extinguishing agent to particles and spraying the particles by jetting the fire-extinguishing agent to an external jetting space, a water-side electrode unit, formed in a cylindrical shape using an electrically conductive material, arranged between the head main body and the injection nozzle to contact the water-based fire-extinguishing agent supplied to the injection nozzle, and an induction electrode unit (45, 52, 60) disposed in the external jetting space side of the injection nozzle for applying an external electric field, generated by applying an electrification voltage between the induction electrode unit (45, 52, 60) and the water-side electrode unit, to the water-based fire-extinguishing agent.
A visor and visor attachment assembly for a helmet, comprising: a helmet mount configured for mounting to a laterally central portion of the helmet; a visor mount configured to couple with the visor, the visor configured and sized to be positioned in front of a wearer's face when in a deployed position; a visor position adjustment mechanism connected to the helmet mount and operable on the visor mount; characterized in that the visor position adjustment mechanism comprises a visor mount guide path for guiding the visor mount between the deployed position and the standby position, the guide path being substantially vertical, thereby to guide the visor mount between a deployed position corresponding to the deployed position of the visor and a standby position substantially vertically above the deployed position and corresponding to a position of the visor raised from the deployed position of the visor. a helmet mount configured for mounting to a laterally central portion of the helmet; a visor mount configured to couple with the visor, the visor configured and sized to be positioned in front of a wearer's face when in a deployed position; a visor position adjustment mechanism connected to the helmet mount and operable on the visor mount; characterized in that the visor position adjustment mechanism comprises a visor mount guide path for guiding the visor mount between the deployed position and the standby position, the guide path being substantially vertical, thereby to guide the visor mount between a deployed position corresponding to the deployed position of the visor and a standby position substantially vertically above the deployed position and corresponding to a position of the visor raised from the deployed position of the visor.
An electronic device comprising: a housing; a printed circuit board located inside the housing; an electrical element mounted on the printed circuit board; and a shield can configured to cover the electrical element, wherein a recess area is formed on at least a portion of the shield can and a metal structure (160a, 160b) is mounted in the recess area to cool heat generated by the electrical element, the metal structure (160a, 160b) contains fluid or a phase change material and is configured to cool the heat generated by the electrical element, by using heat of vaporization of the fluid or the phase change material, the electronic device comprises a metal block disposed on an upper surface of the electrical element and a thermal interface material, wherein the metal block is attached to the electrical element through the thermal interface material, the electronic device comprises a thermal sheet covering the metal structure and being attached to at least a portion of the shield can to disperse heat to the shield can, the electronic device comprises a first plate, a second plate and a third plate, the first plate is disposed between the metal structure and the metal block, a distal end of the second plate and a distal end of the third plate are connected to the first plate to receive the heat generated by the electrical element, and the second plate and the third plate are in contact with an inner surface of the shield can. a housing; a printed circuit board located inside the housing; an electrical element mounted on the printed circuit board; and a shield can configured to cover the electrical element, wherein a recess area is formed on at least a portion of the shield can and a metal structure (160a, 160b) is mounted in the recess area to cool heat generated by the electrical element, the metal structure (160a, 160b) contains fluid or a phase change material and is configured to cool the heat generated by the electrical element, by using heat of vaporization of the fluid or the phase change material, the electronic device comprises a metal block disposed on an upper surface of the electrical element and a thermal interface material, wherein the metal block is attached to the electrical element through the thermal interface material, the electronic device comprises a thermal sheet covering the metal structure and being attached to at least a portion of the shield can to disperse heat to the shield can, the electronic device comprises a first plate, a second plate and a third plate, the first plate is disposed between the metal structure and the metal block, a distal end of the second plate and a distal end of the third plate are connected to the first plate to receive the heat generated by the electrical element, and the second plate and the third plate are in contact with an inner surface of the shield can.
A method for handling calls carried out by at least one processor in a first User Equipment, UE, in a communication network, the method comprising: establishing a first call with a second UE, wherein the first call is one of a circuit-switched, CS, call and a packet-switched, PS, call; establishing a second call with a third UE, while the first call is in an active state, wherein the second call is one of a CS call and a PS call; and merging the first call and the second call on the basis of a specific event, wherein merging the first call and the second call, comprises: receiving voice data of the first call from the second UE and voice data of the second call from the third UE; generating first mixed voice data by mixing the voice data received from the third UE and voice data of the first UE; transmitting, to the second UE, the first mixed voice data; generating second mixed voice data by mixing the voice data received from the second UE and the voice data of the first UE; and transmitting, to the third UE, the second mixed voice data, the method characterized by: if the first call is a CS call and the second call is a PS call, the voice data of the second call from the third UE is downsampled for generating the first mixed voice data, and the voice data received from the second UE is upsampled for generating the second mixed voice data. establishing a first call with a second UE, wherein the first call is one of a circuit-switched, CS, call and a packet-switched, PS, call; establishing a second call with a third UE, while the first call is in an active state, wherein the second call is one of a CS call and a PS call; and merging the first call and the second call on the basis of a specific event, wherein merging the first call and the second call, comprises: receiving voice data of the first call from the second UE and voice data of the second call from the third UE; generating first mixed voice data by mixing the voice data received from the third UE and voice data of the first UE; transmitting, to the second UE, the first mixed voice data; generating second mixed voice data by mixing the voice data received from the second UE and the voice data of the first UE; and transmitting, to the third UE, the second mixed voice data, receiving voice data of the first call from the second UE and voice data of the second call from the third UE; generating first mixed voice data by mixing the voice data received from the third UE and voice data of the first UE; transmitting, to the second UE, the first mixed voice data; generating second mixed voice data by mixing the voice data received from the second UE and the voice data of the first UE; and transmitting, to the third UE, the second mixed voice data, the method characterized by: if the first call is a CS call and the second call is a PS call, the voice data of the second call from the third UE is downsampled for generating the first mixed voice data, and the voice data received from the second UE is upsampled for generating the second mixed voice data.