mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting a fault of a HVAC system, comprising the steps of: obtaining room air temperatures and compressor equivalent runtime during the operation of the HVAC system; calculating a rate of change per unit time of the room air temperatures within the compressor equivalent runtime; and determining whether a fault occurs in the HVAC system based on a change in the rate of change per unit time of the room air temperatures characterized by the steps of: setting value properties of the rate of change per unit time of the room air temperatures when the HVAC system operates in a cooling mode and a heating mode to be contrary, and distributing along a time axis the rate of change per unit time of the room air temperatures determined as abnormal values, the value properties indicating positive value or negative value; counting the number of the rate of change per unit time of the room air temperatures distributed on the time axis within a time window, or processing the values of the rate of change per unit time of the room air temperatures within the time window to obtain a processed value; and determining that a fault has occurred in the HVAC system if the number exceeds a predetermined value or the processed value exceeds a preset value. obtaining room air temperatures and compressor equivalent runtime during the operation of the HVAC system; calculating a rate of change per unit time of the room air temperatures within the compressor equivalent runtime; and determining whether a fault occurs in the HVAC system based on a change in the rate of change per unit time of the room air temperatures characterized by the steps of: setting value properties of the rate of change per unit time of the room air temperatures when the HVAC system operates in a cooling mode and a heating mode to be contrary, and distributing along a time axis the rate of change per unit time of the room air temperatures determined as abnormal values, the value properties indicating positive value or negative value; counting the number of the rate of change per unit time of the room air temperatures distributed on the time axis within a time window, or processing the values of the rate of change per unit time of the room air temperatures within the time window to obtain a processed value; and setting value properties of the rate of change per unit time of the room air temperatures when the HVAC system operates in a cooling mode and a heating mode to be contrary, and distributing along a time axis the rate of change per unit time of the room air temperatures determined as abnormal values, the value properties indicating positive value or negative value; counting the number of the rate of change per unit time of the room air temperatures distributed on the time axis within a time window, or processing the values of the rate of change per unit time of the room air temperatures within the time window to obtain a processed value; and
A method for displacement measurement for obtaining, based on stereo images of a deformable landform at two or more times, 3D displacement vectors of a plurality of target portions (62a, 62b, 64a, 64b) set on the landform at the respective times the method comprising the steps of: 3D model data generating processing of generating an orthographically projected image of the landform and 3D mesh data that describes, for a position (x,y) of the landform on the orthographically projected image, a height (z) of the landform, based on the stereo images at the respective times; tracking processing of tracking 2D images of the target portions (62a, 62b, 64a, 64b) that are set at each respective time on the orthographically projected image by executing pattern matching between the respective times; and 3D coordinate calculation processing of obtaining 3D coordinates of the target portions (62a, 62b, 64a, 64b), using the 3D mesh data, by adding z-coordinates to the positions (x,y) of the tracked 2D images; and displacement vector calculation processing of obtaining the 3D displacement vector s based on the 3D coordinates of the target portions (62a, 62b, 64a, 64b) at the respective times.
Rubber composition based on one or more diene elastomer(s), on one or more reinforcing filler(s), on a crosslinking system and on particles of crosslinked polyethylene, characterized in that the particles have a volume-average diameter of less than 300 μm.
A simulated tissue structure for surgical training, comprising: at least one simulated tissue module comprising a simulated tissue portion; and a module support having a first surface opposite from a second surface and defining a thickness therebetween; the module support including at least one module receiving portion (54, 56, 58) sized and configured to receive the at least one simulated tissue module; wherein the simulated tissue module is insertable into and removable from the at least one module receiving portion(54, 56, 58) and interchangeable with another simulated tissue module; characterized by the stimulated tissue module including a frame (64,66) configured to hold the simulated tissue portion; the frame (64, 66) and module support being configured to connect together in a module receiving portion (54, 56, 58) of the module support. at least one simulated tissue module comprising a simulated tissue portion; and a module support having a first surface opposite from a second surface and defining a thickness therebetween; the module support including at least one module receiving portion (54, 56, 58) sized and configured to receive the at least one simulated tissue module; wherein the simulated tissue module is insertable into and removable from the at least one module receiving portion(54, 56, 58) and interchangeable with another simulated tissue module; characterized by the stimulated tissue module including a frame (64,66) configured to hold the simulated tissue portion; the frame (64, 66) and module support being configured to connect together in a module receiving portion (54, 56, 58) of the module support.
A method for releasing a cheese from a mould, said mould comprising a first end part, a sleeve formed body and a second end part, said method comprising detaching said first end part from said cheese, turning said mould with said cheese such that said cheese is placed on said first end part, removing said second end part, detaching said cheese from said sleeve formed body by moving said sleeve shaped body downwards relative to said cheese, turning said mould with said cheese upside down such that said first end part is placed on said cheese, removing said first end part, separating said cheese and said sleeve shaped body by displacing said cheese and said sleeve shaped body relative to each other.
A device for holding and releasing a medical object (7, 8), the device comprising a main body having a housing for at least partially accommodating said medical object (7, 8), and an outlet that allows at least a portion of the medical object (7, 8) to be extracted, characterized in that said device for holding and releasing the medical object (7, 8) also comprises: - a lid that can be moved between a closed position preventing access to said outlet and an open position providing access to said outlet, - a stop device designed such that it can be moved to different positions relative to the main body toward the outlet of said main body, but blocked in the opposite direction, to enable the stop device to be brought into contact with or close to the medical object (7, 8) while preventing any recoil of the stop device. - a lid that can be moved between a closed position preventing access to said outlet and an open position providing access to said outlet, - a stop device designed such that it can be moved to different positions relative to the main body toward the outlet of said main body, but blocked in the opposite direction, to enable the stop device to be brought into contact with or close to the medical object (7, 8) while preventing any recoil of the stop device.
A method, comprising: transmitting, by a network element, to a user equipment a configuration for configuring the user equipment with a first inactivity timer and a second inactivity timer; transmitting, by the network element, to the user equipment a configuration for configuring the user equipment to, after decoding a physical downlink control channel, PDCCH, indicating a new data transmission, start the first inactivity timer for a first N times of active time, and to start the second inactivity timer for times subsequent to the first N times, wherein, if a short discontinuous reception, DRX, cycle is configured, expiry of the first inactivity timer does not start the short discontinuous reception, DRX, cycle, and expiry of the second inactivity timer starts the short discontinuous reception, DRX, cycle. transmitting, by a network element, to a user equipment a configuration for configuring the user equipment with a first inactivity timer and a second inactivity timer; transmitting, by the network element, to the user equipment a configuration for configuring the user equipment to, after decoding a physical downlink control channel, PDCCH, indicating a new data transmission, start the first inactivity timer for a first N times of active time, and to start the second inactivity timer for times subsequent to the first N times, wherein, if a short discontinuous reception, DRX, cycle is configured, expiry of the first inactivity timer does not start the short discontinuous reception, DRX, cycle, and expiry of the second inactivity timer starts the short discontinuous reception, DRX, cycle.
Method for handling products that are flat at least in some portions by means of a handling device, in particular a suction traverse, comprising suction cups, which are arranged in a plane in order to grip workpieces, the suction cups being designed to grip a workpiece by means of negative pressure, the suction cups being connectable via suction lines to a suction device for controlling the negative pressure, the suction cups being selectively connectable to the suction device or separable from the suction device individually or in groups by opening or closing at least one suction line via switching devices, one or more of the switching devices for selective opening or closing being actuated according to a specifiable operating mode of the handling device, individual suction cups or suction cup groups which are separated from the suction device via the switching devices being connected, in a sequential suction process, individually one after the other to the suction device via switching devices, until an entirety of the suction cups of the handling device or a maximum number thereof that is dependent on the tool size suctions the workpiece, characterized in that a workpiece is suctioned, during a first suction process, by an entirety of the suction cups or a maximum number thereof that is dependent on the workpiece size, and then checks whether an instantaneous negative pressure value falls below a target negative pressure value, a second suction process then being carried out if the instantaneous negative pressure value falls below the target negative pressure value, the second suction process comprising the sequential suction process.
A flux-regulated permanent magnet machine comprising: an excitation controller; a stationary portion that includes main armature windings and a stator exciter configured to receive a control current from the excitation controller; and a rotating portion comprising: exciter armature windings magnetically coupled with the stator exciter; a rotor comprising: an outer yoke portion; and an inner yoke portion; a plurality of permanent magnets embedded within the rotor; and a control winding that is configured to receive current from the exciter armature windings to control magnetic flux presented to the main armature windings, wherein the control winding is wrapped around the outer yoke portion and the magnetic flux presented to the main armature windings is controlled to regulate output voltage in a generating mode and rotor speed in a motoring mode; and wherein the plurality of permanent magnets are configured such that magnetic flux of the plurality of permanent magnets flows through the ferromagnetic yoke and is only received by the stator main armature windings when the excitation current is received by the control winding; wherein the control winding is configured to saturate the ferromagnetic yoke to direct the magnetic flux of the plurality of permanent magnets to the main armature windings when the current to control magnetic flux is received by the control winding. a rotor comprising: an outer yoke portion; and an inner yoke portion; an outer yoke portion; and an inner yoke portion; a plurality of permanent magnets embedded within the rotor; and a control winding that is configured to receive current from the exciter armature windings to control magnetic flux presented to the main armature windings, wherein the control winding is wrapped around the outer yoke portion and the magnetic flux presented to the main armature windings is controlled to regulate output voltage in a generating mode and rotor speed in a motoring mode; and armature windings to control magnetic flux presented to the main armature windings, wherein the control winding is wrapped around the outer yoke portion and the magnetic flux presented to the main armature windings is controlled to regulate output voltage in a generating mode and rotor speed in a motoring mode; and wherein the plurality of permanent magnets are configured such that magnetic flux of the plurality of permanent magnets flows through the ferromagnetic yoke and is only received by the stator main armature windings when the excitation current is received by the control winding; magnetic flux of the plurality of permanent magnets flows through the ferromagnetic yoke and is only received by the stator main armature windings when the excitation current is received by the control winding; wherein the control winding is configured to saturate the ferromagnetic yoke to direct the magnetic flux of the plurality of permanent magnets to the main armature windings when the current to control magnetic flux is received by the control winding.
A printed stretchable strain sensor characterized in: a seamless monolithic elastomeric body; and a strain-sensitive conductive structure embedded within the seamless monolithic elastomeric body, the strain-sensitive conductive structure comprising one or more conductive filaments arranged in a continuous pattern. a seamless monolithic elastomeric body; and a strain-sensitive conductive structure embedded within the seamless monolithic elastomeric body, the strain-sensitive conductive structure comprising one or more conductive filaments arranged in a continuous pattern.
Air spring component (14, 104), in particular a rolling piston, an additional volume container for a rolling piston or an air spring pot, the air spring component having at least two components which have corresponding joint regions (36, 50, 142), the joint regions (36, 50, 142) being joined to one another by material closure by means of hot gas welding in an inert atmosphere, wherein fusible projections are provided on the joint regions (36, 50, 142), and at least one of the components having a weld seam covering which covers a joint gap.
Method for predicting the tilt inclination of a workpiece portion which is cut free from a remaining workpiece during a separating processing operation by means of a processing machine (1, 100) and which is positioned on one or more supports, characterized by the method steps of: a. establishing one or more possible tilting edges (71, 81a, 81b), about which the workpiece portion which has been cut free could tilt; b. for at least one possible tilting edge (71, 81a, 81b), in particular for each possible tilting edge (71, 81a, 81b): establishing tilting moments (M1-M4) which act on the workpiece portion in particular in different states of the processing machine (1, 100), wherein the tilting moments (M1-M4) which are applied as a result of the weight force of the workpiece portion and those applied as a result of the process force of a fluid acting on the workpiece portion at a free-cutting position are established; c. using the tilting moments (M1 - M4) which have been established: establishing whether the workpiece portion would tilt about a tilting edge (71, 81a, 81b). a. establishing one or more possible tilting edges (71, 81a, 81b), about which the workpiece portion which has been cut free could tilt; b. for at least one possible tilting edge (71, 81a, 81b), in particular for each possible tilting edge (71, 81a, 81b): establishing tilting moments (M1-M4) which act on the workpiece portion in particular in different states of the processing machine (1, 100), wherein the tilting moments (M1-M4) which are applied as a result of the weight force of the workpiece portion and those applied as a result of the process force of a fluid acting on the workpiece portion at a free-cutting position are established; c. using the tilting moments (M1 - M4) which have been established: establishing whether the workpiece portion would tilt about a tilting edge (71, 81a, 81b).
A nozzle for a cleaner, comprising: a nozzle main body defining an exterior of the nozzle; and a steam generating unit provided in the nozzle main body and generating steam using water, wherein the steam generating unit comprises: a water tank storing the water and having a tank cap that is selectively opened; and a heating unit receiving the water from the water tank and heating the received water, wherein a heater generating the steam by heating the water is provided in the heating unit and the heating unit is provided with a steam outlet through which generated steam is discharged; characterized by the steam generating unit comprising further a water reservoir supplying the water from the water tank to the heating unit, wherein the water is introduced into the water reservoir until internal pressure maintains a balance between the water tank and the water reservoir, wherein an inlet through which the water is introduced from the water reservoir to the heating unit is formed between the water reservoir and the heating unit. a nozzle main body defining an exterior of the nozzle; and a steam generating unit provided in the nozzle main body and generating steam using water, wherein the steam generating unit comprises: a water tank storing the water and having a tank cap that is selectively opened; and a heating unit receiving the water from the water tank and heating the received water, wherein a heater generating the steam by heating the water is provided in the heating unit and the heating unit is provided with a steam outlet through which generated steam is discharged; characterized by the steam generating unit comprising further a water reservoir supplying the water from the water tank to the heating unit, wherein the water is introduced into the water reservoir until internal pressure maintains a balance between the water tank and the water reservoir, wherein an inlet through which the water is introduced from the water reservoir to the heating unit is formed between the water reservoir and the heating unit. a water tank storing the water and having a tank cap that is selectively opened; and a heating unit receiving the water from the water tank and heating the received water, wherein a heater generating the steam by heating the water is provided in the heating unit and the heating unit is provided with a steam outlet through which generated steam is discharged; characterized by the steam generating unit comprising further a water reservoir supplying the water from the water tank to the heating unit, wherein the water is introduced into the water reservoir until internal pressure maintains a balance between the water tank and the water reservoir, wherein an inlet through which the water is introduced from the water reservoir to the heating unit is formed between the water reservoir and the heating unit.
A breathing assistance apparatus (7, 8) comprising: a pressurised gases source comprising: a gases inlet, a gases outlet (28, 29) adapted to emit pressurised gases to an outlet (15, 30) of the breathing assistance apparatus, a lightweight impeller that is shroudless, a motor for driving the lightweight impeller comprising a rotatable shaft located within a stator (63, 68, 241) and at least one bearing structure to support the rotatable shaft within the stator, the bearing structure comprising one or more flexible and/or resilient bearing mounts (165, 260) and one or more bearings (64, 261) supported by the bearing mounts about the axis of the rotatable shaft. a pressurised gases source comprising: a gases inlet, a gases outlet (28, 29) adapted to emit pressurised gases to an outlet (15, 30) of the breathing assistance apparatus, a lightweight impeller that is shroudless, a motor for driving the lightweight impeller comprising a rotatable shaft located within a stator (63, 68, 241) and at least one bearing structure to support the rotatable shaft within the stator, the bearing structure comprising one or more flexible and/or resilient bearing mounts (165, 260) and one or more bearings (64, 261) supported by the bearing mounts about the axis of the rotatable shaft. a gases inlet, a gases outlet (28, 29) adapted to emit pressurised gases to an outlet (15, 30) of the breathing assistance apparatus, a lightweight impeller that is shroudless, a motor for driving the lightweight impeller comprising a rotatable shaft located within a stator (63, 68, 241) and at least one bearing structure to support the rotatable shaft within the stator, the bearing structure comprising one or more flexible and/or resilient bearing mounts (165, 260) and one or more bearings (64, 261) supported by the bearing mounts about the axis of the rotatable shaft.
A flat plate-shaped piezoelectric substrate comprising: a piezoelectric ceramic layer; a plurality of first electrodes and one or more second electrodes (28, 128, 228, 328, 428, 528) disposed on one main surface of the piezoelectric ceramic layer; a third electrode disposed on the other main surface of the piezoelectric ceramic layer so as to oppose to the first electrodes; and a through-conductor penetrating through the piezoelectric ceramic layer and electrically connecting the second electrode (28, 128, 228, 328, 428, 528) and the third electrode, wherein the second electrode (28, 128, 228, 328, 428, 528) comprises a connection portion (28a, 128a, 228a, 328a, 428a, 528a) connected to the through-conductor and a small-width portion (28b, 128b, 228b, 328b, 428b, 528b) having a smaller width than the connection portion (28a, 128a, 228a, 328a, 428a, 528a) when the piezoelectric substrate is viewed from above, characterized in that a bump is formed on the small-width portion (28b, 128b, 228b, 328b, 428b, 528b). a piezoelectric ceramic layer; a plurality of first electrodes and one or more second electrodes (28, 128, 228, 328, 428, 528) disposed on one main surface of the piezoelectric ceramic layer; a third electrode disposed on the other main surface of the piezoelectric ceramic layer so as to oppose to the first electrodes; and a through-conductor penetrating through the piezoelectric ceramic layer and electrically connecting the second electrode (28, 128, 228, 328, 428, 528) and the third electrode, wherein the second electrode (28, 128, 228, 328, 428, 528) comprises a connection portion (28a, 128a, 228a, 328a, 428a, 528a) connected to the through-conductor and a small-width portion (28b, 128b, 228b, 328b, 428b, 528b) having a smaller width than the connection portion (28a, 128a, 228a, 328a, 428a, 528a) when the piezoelectric substrate is viewed from above, characterized in that a bump is formed on the small-width portion (28b, 128b, 228b, 328b, 428b, 528b).