mhurhangee/patent-ind-claim-en huggingface dataset:
A burner for a kiln, especially a rotary kiln , comprising - an elongated body , especially a tubular body, having a longitudinal axis (L) and a discharge end adjacent a combustion zone comprising a flame, - at least one fuel supply pipe for transporting and ejecting fuel through a first fuel pipe outlet at the discharge end , the fuel being alternative fuel, such as shredded solid waste-derived fuels and/or fossil fuel, such as gas, coal, pet coke and oil, or a mixture of alternative fuel and fossil fuel, and - at the discharge end a number of high speed first primary air jet outlets , such as air nozzle orifices, for ejecting primary air and being arranged, when seen towards the discharge end , along a circular closed line, outwardly of the first fuel outlet and surrounding the fuel outlet, characterized in that at least one of the first primary air outlets and preferably a number of the first primary air outlets comprise a single orifice outlet or a multiple orifice outlet (11d, 11 e, 11f) forming a flat jet air outlet having a major axis (ma) and a minor axis (mi) and being configured to eject a flat jet air stream having a flat fan pattern with a predetermined fan angle. - an elongated body , especially a tubular body, having a longitudinal axis (L) and a discharge end adjacent a combustion zone comprising a flame, - at least one fuel supply pipe for transporting and ejecting fuel through a first fuel pipe outlet at the discharge end , the fuel being alternative fuel, such as shredded solid waste-derived fuels and/or fossil fuel, such as gas, coal, pet coke and oil, or a mixture of alternative fuel and fossil fuel, and - at the discharge end a number of high speed first primary air jet outlets , such as air nozzle orifices, for ejecting primary air and being arranged, when seen towards the discharge end , along a circular closed line, outwardly of the first fuel outlet and surrounding the fuel outlet,
An apparatus comprising: a pulsatility signal device configured to measure a PPG signal during a measurement time period, a processing device configured to identify individual PPG pulses in the PPG signal during the measurement time period; the processing device being further configured to determine, within the pulse cycle, for each PPG pulse and using a pulse-wave analysis technique, at least a time-related feature comprising a time duration within a pulse, at least a normalized amplitude-related feature comprising an amplitude value of the PPG signal and normalized by another amplitude-related feature, and at least a signal-to-noise ratio (SNR)-related feature related to the SNR characteristics of the PPG pulse; the processing device is further configured to, for each PPG pulse, use a machine learning model in combination with said at least a time-related feature, said at least a normalized amplitude-related feature and said at least a SNR-related feature, to classify each PPG pulse in the PPG signal as "normal", "pathological" or "non-physiological" and output a time series of pulse classes comprising the pulse classes "normal", "pathological" or "non-physiological" each pulse class being associated to a PPG pulse. a pulsatility signal device configured to measure a PPG signal during a measurement time period, a processing device configured to identify individual PPG pulses in the PPG signal during the measurement time period; the processing device being further configured to determine, within the pulse cycle, for each PPG pulse and using a pulse-wave analysis technique, at least a time-related feature comprising a time duration within a pulse, at least a normalized amplitude-related feature comprising an amplitude value of the PPG signal and normalized by another amplitude-related feature, and at least a signal-to-noise ratio (SNR)-related feature related to the SNR characteristics of the PPG pulse; the processing device is further configured to, for each PPG pulse, use a machine learning model in combination with said at least a time-related feature, said at least a normalized amplitude-related feature and said at least a SNR-related feature, to classify each PPG pulse in the PPG signal as "normal", "pathological" or "non-physiological" and output a time series of pulse classes comprising the pulse classes "normal", "pathological" or "non-physiological" each pulse class being associated to a PPG pulse.
Wire-feed device comprising at least one roller , characterised in that it comprises at least: - a main cylindrical body forming a hub designed to be driven in rotation about its axis of symmetry , - a peripheral cylindrical structure forming an idler roller mounted on the perimeter of the main body , - a drive means for driving the cylindrical structure in rotation by the main body , the internal diameter of the cylindrical structure being greater than the external diameter of the main body so as to create a space between the cylindrical structure and the main body to enable a displacement of the cylindrical structure relative to the main body with a misalignment of the axis of rotation of the cylindrical structure relative to the axis of rotation of the main body . - a main cylindrical body forming a hub designed to be driven in rotation about its axis of symmetry , - a peripheral cylindrical structure forming an idler roller mounted on the perimeter of the main body , - a drive means for driving the cylindrical structure in rotation by the main body ,
A medical device having a longitudinal axis , comprising: a handle , including: a body having a proximal end and a distal end ; an actuator moveably coupled to the body ; and at least one handle control member coupled to the actuator ; a catheter , including: a shaft having a proximal end and a distal end , wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft ; and at least one catheter control member coupled to the steering section , wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis ; wherein the actuator is configured to move relative to the body to move the handle control member ; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member . a handle , including: a body having a proximal end and a distal end ; an actuator moveably coupled to the body ; and at least one handle control member coupled to the actuator ; a body having a proximal end and a distal end ; an actuator moveably coupled to the body ; and at least one handle control member coupled to the actuator ; a catheter , including: a shaft having a proximal end and a distal end , wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft ; and at least one catheter control member coupled to the steering section , wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis ; wherein the actuator is configured to move relative to the body to move the handle control member ; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member . a shaft having a proximal end and a distal end , wherein the proximal end of the shaft and the distal end of the body are configured for releasable coupling; a steering section located along the shaft ; and at least one catheter control member coupled to the steering section , wherein the catheter control member is configured to move relative to the shaft to move the steering section relative to the longitudinal axis ; wherein the actuator is configured to move relative to the body to move the handle control member ; and the medical device further comprises a securing member configured to move relative to at least one of the handle and the catheter to releasably couple the handle control member to the catheter control member .
A controller comprising: a de-coupler configured to: receive a current value (i o ) at an output of an inverter and a voltage value (V c ) across a DC-link capacitor (C), the DC-link capacitor (C) coupled between a rectifier and the inverter ; determine an output power (p o ) of the inverter based on the received current value (i o ) and voltage value (V C ); and decouple an average component ( p o ) of said output power ( p o ) from a fluctuating component ( p̃ o ) of said output power (Po); and wherein the controller further comprises: a first controller unit configured to determine a first current ( i ̅ od * ) from the average component ( p o ) of the output power ( p o ); a second controller unit configured to determine a second current ( i od * ) from the fluctuating component ( p̃ o ) of the output power (p o ); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current. receive a current value (i o ) at an output of an inverter and a voltage value (V c ) across a DC-link capacitor (C), the DC-link capacitor (C) coupled between a rectifier and the inverter ; determine an output power (p o ) of the inverter based on the received current value (i o ) and voltage value (V C ); and decouple an average component ( p o ) of said output power ( p o ) from a fluctuating component ( p̃ o ) of said output power (Po); and wherein the controller further comprises: a first controller unit configured to determine a first current ( i ̅ od * ) from the average component ( p o ) of the output power ( p o ); a second controller unit configured to determine a second current ( i od * ) from the fluctuating component ( p̃ o ) of the output power (p o ); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current. a first controller unit configured to determine a first current ( i ̅ od * ) from the average component ( p o ) of the output power ( p o ); a second controller unit configured to determine a second current ( i od * ) from the fluctuating component ( p̃ o ) of the output power (p o ); and wherein the controller is further configured to determine a current reference (i id *) for controlling the rectifier based on the first current and the second current.
A white organic light emitting device (200; 800) comprising: an anode (202; 802); a first emission part (210; 810) on the anode (202; 802); a first charge generation layer (240; 840) on the first emission part (210; 810); a second emission part (220; 820) on the first charge generation layer (240; 840); a second charge generation layer (250; 850) on the second emission part (220; 820); a third emission part (230; 830) on the second charge generation layer (250; 850); and a cathode (204; 804) on the third emission part (230; 830), wherein the first emission part (210; 810) includes at least two emission layers (214, 215; 814, 815) including a red emission layer (215; 815) and a blue emission layer (214; 814), wherein the red emission layer (215; 815) is disposed directly on the blue emission layer (214; 814), wherein the blue emission layer (214; 814) is closer to the anode (202; 802) than the red emission layer (215; 815), and wherein a host in the red emission layer (215; 815) is a blue host or a green host having an emission wavelength that is shorter than a wavelength of red, and wherein the white organic light emitting device includes just one red emission layer. an anode (202; 802); a first emission part (210; 810) on the anode (202; 802); a first charge generation layer (240; 840) on the first emission part (210; 810); a second emission part (220; 820) on the first charge generation layer (240; 840); a second charge generation layer (250; 850) on the second emission part (220; 820); a third emission part (230; 830) on the second charge generation layer (250; 850); and a cathode (204; 804) on the third emission part (230; 830), wherein the first emission part (210; 810) includes at least two emission layers (214, 215; 814, 815) including a red emission layer (215; 815) and a blue emission layer (214; 814), wherein the red emission layer (215; 815) is disposed directly on the blue emission layer (214; 814), wherein the blue emission layer (214; 814) is closer to the anode (202; 802) than the red emission layer (215; 815), and wherein a host in the red emission layer (215; 815) is a blue host or a green host having an emission wavelength that is shorter than a wavelength of red, and wherein the white organic light emitting device includes just one red emission layer.
A nose-wheel steering system , comprising: an actuator ; a strut ; and characterized by : a gearing mechanism operably coupling the actuator to the strut, the gearing mechanism including a steering collar attached to the strut, and idler gear engaged with the actuator and a pinion having a first gear engaged with the idler gear and a second gear engaged with the steering collar. an actuator ; a strut ; and characterized by : a gearing mechanism operably coupling the actuator to the strut, the gearing mechanism including a steering collar attached to the strut, and idler gear engaged with the actuator and a pinion having a first gear engaged with the idler gear and a second gear engaged with the steering collar.
A method of graphics processing, the method comprising: performing, with a graphics processing unit (GPU), a hardware binning pass on one or more bins of a frame, to identify, for each of the one or more bins, primitives that are visible in the bin; rendering, with the GPU, the one or more bins using one or more graphics operations on the primitives identified as being visible in the respective bin; writing, with the GPU, color data directly to a color buffer in a system memory in accordance with the one or more graphics operations; writing, with the GPU, depth data to a depth buffer in a graphics memory in accordance with the one or more graphics operations, wherein the graphics memory is on the same integrated circuit as the GPU ; and transferring, with the GPU, the depth buffer in the graphics memory to the system memory when the rendering of the one or more bins is complete. performing, with a graphics processing unit (GPU), a hardware binning pass on one or more bins of a frame, to identify, for each of the one or more bins, primitives that are visible in the bin; rendering, with the GPU, the one or more bins using one or more graphics operations on the primitives identified as being visible in the respective bin; writing, with the GPU, color data directly to a color buffer in a system memory in accordance with the one or more graphics operations; writing, with the GPU, depth data to a depth buffer in a graphics memory in accordance with the one or more graphics operations, wherein the graphics memory is on the same integrated circuit as the GPU ; and transferring, with the GPU, the depth buffer in the graphics memory to the system memory when the rendering of the one or more bins is complete.
A formulation for manufacturing an antimicrobial article, said formulation comprising: 25 to 75 weight parts of a PVC resin 20 to 40 weight parts of a plasticizer; 10 to 30 weight parts of a non-polar solvent diluent; 0.001 to 1% by weight, and preferably 0.001 to 0.3% by weight of a singlet oxygen generating dye. 25 to 75 weight parts of a PVC resin 20 to 40 weight parts of a plasticizer; 10 to 30 weight parts of a non-polar solvent diluent; 0.001 to 1% by weight, and preferably 0.001 to 0.3% by weight of a singlet oxygen generating dye.
A method for transmitting a message from an online object to an offline object, the method comprising the steps of: - providing an online object being an online software application generating a message (M) including identification data (ID) of a target offline object being an offline apparatus, - providing a web-based message exchange server , a mobile device and a target offline object , - transmitting the message (M) from the online object to the web-based message exchange server , - receiving , at the message exchange server , the message (M) that is generated and transmitted by the online object , - forwarding , by the message exchange server , the message (M) to the mobile device , while the mobile device is connected to the message exchange server via a wireless data channel, - receiving , by the mobile device , the message (M) from the message exchange server , - storing the received message (M) in a memory of the mobile device for delivering the message (M) at a later instant, - establishing a data connection between the mobile device and the target offline object , including a substep of moving the mobile device to the neighborhood of the offline object , - delivering the message (M) at the target offline object , via the established data connection, and - receiving , at the target offline object , the message (M) from the mobile device , wherein the step of establishing a data connection between the mobile device and the target offline object is performed upon receipt of the message (M) from the message exchange server at the mobile device , and wherein the step of delivering the message (M) at the target offline object includes the substep of verifying whether the identification data (ID) included in the message (M) correspond to identification features of the target offline object . - providing an online object being an online software application generating a message (M) including identification data (ID) of a target offline object being an offline apparatus, - providing a web-based message exchange server , a mobile device and a target offline object , - transmitting the message (M) from the online object to the web-based message exchange server , - receiving , at the message exchange server , the message (M) that is generated and transmitted by the online object , - forwarding , by the message exchange server , the message (M) to the mobile device , while the mobile device is connected to the message exchange server via a wireless data channel, - receiving , by the mobile device , the message (M) from the message exchange server , - storing the received message (M) in a memory of the mobile device for delivering the message (M) at a later instant, - establishing a data connection between the mobile device and the target offline object , including a substep of moving the mobile device to the neighborhood of the offline object , - delivering the message (M) at the target offline object , via the established data connection, and - receiving , at the target offline object , the message (M) from the mobile device ,
A heat storage material composition consisting primarily of a mixture of a higher alkane having carbon number of 9 to 24 and a higher alcohol having carbon number of 6 to 20, said mixture having a substantially single melting peak in DSC curve measured by a differential scanning calorimeter (DSC) and further containing a hydroxypropyl cellulose.
Method for monitoring the effectiveness of a magnetic rail brake , comprising the method: - recording a pressure curve representative of a pressure of a pneumatic actuating device of the magnetic rail brake ; - checking, at least partially based on the detected pressure curve, whether an operability of the magnetic rail brake is given and/or whether a wear limit of the magnetic rail brake has been reached. - recording a pressure curve representative of a pressure of a pneumatic actuating device of the magnetic rail brake ; - checking, at least partially based on the detected pressure curve, whether an operability of the magnetic rail brake is given and/or whether a wear limit of the magnetic rail brake has been reached.
A drill adapter for placing on a drive mechanism (A), wherein the drill adapter comprises: a connecting element rotatable about a connecting element axis, which connecting element can be connected to the drive mechanism (A), at least two drilling rods arranged about a central axis, a linearization mechanism , by which a rotation of the connecting element can be transferred into oscillating movements of the at least two drilling rods in a direction parallel to the central axis, and a quick-clamping mechanism which has a rod receiver for each of the drilling rods , wherein the drilling rods can each be attached in a detachable manner to one of the rod receivers . a connecting element rotatable about a connecting element axis, which connecting element can be connected to the drive mechanism (A), at least two drilling rods arranged about a central axis, a linearization mechanism , by which a rotation of the connecting element can be transferred into oscillating movements of the at least two drilling rods in a direction parallel to the central axis, and a quick-clamping mechanism which has a rod receiver for each of the drilling rods , wherein the drilling rods can each be attached in a detachable manner to one of the rod receivers .
A pharmaceutical combination preparation comprising a fimasartan, a pharmaceutically acceptable salt thereof, an optical isomer or a diastereomer thereof or a mixture of an optical isomer and diastereomer thereof, or a hydrate or a solvate thereof; a rosuvastatin, a pharmaceutically acceptable salt thereof, an optical isomer or a diastereomer thereof or a mixture of an optical isomer and diastereomer thereof, or a hydrate or a solvate thereof; and a meglumine.
A thermal adjustable tripping device of a miniature circuit breaker, wherein the thermal adjustable tripping device is mounted in a base of a miniature circuit breaker, the thermal adjustable tripping device comprising: a tripping mechanism with an extending tripping rod ; a thermal deformation element arranged close to the tripping rod , a gap being reserved between the thermal deformation element and the tripping rod ; wherein a current in a loop accessed by the miniature circuit breaker enables the thermal deformation element to generate heat and deform, the deformed thermal deformation element moves towards the tripping rod , contacts with the tripping rod and pushes the tripping rod to trigger the tripping mechanism to trip, characterised by comprising: an adjusting mechanism having a pushing rod in contact with an inclined surface for adjusting a length of the gap between the tripping rod and the thermal deformation element , the adjusting mechanism adjusting the length of the gap to adjust a setting current in the loop. a tripping mechanism with an extending tripping rod ; a thermal deformation element arranged close to the tripping rod , a gap being reserved between the thermal deformation element and the tripping rod ; wherein a current in a loop accessed by the miniature circuit breaker enables the thermal deformation element to generate heat and deform, the deformed thermal deformation element moves towards the tripping rod , contacts with the tripping rod and pushes the tripping rod to trigger the tripping mechanism to trip, characterised by comprising: an adjusting mechanism having a pushing rod in contact with an inclined surface for adjusting a length of the gap between the tripping rod and the thermal deformation element , the adjusting mechanism adjusting the length of the gap to adjust a setting current in the loop. an adjusting mechanism having a pushing rod in contact with an inclined surface for adjusting a length of the gap between the tripping rod and the thermal deformation element , the adjusting mechanism adjusting the length of the gap to adjust a setting current in the loop.