mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of polypropylene having - a molecular weight (Mw) of 450,000-950,000, - a molecular weight distribution of 3-6, - a melt flow in the range of 7-14 dg/min measured with a load of 21.6 kg at 230 °C or 0.05-2 dg/min measured with a load of 2.16 kg at 230 °C and - a xylene soluble content of 2-6 wt% by converting propylene into the polypropylene without pre-polymerization in the presence of a polymerization catalyst under a condition where the volume ratio of H 2 to propylene is at most 0.0020, wherein the catalyst comprises a catalyst component and a co-catalyst, wherein the catalyst component is obtained by a process wherein a compound with formula Mg(OAlk) x Cl y wherein x is larger than 0 and smaller than 2, y equals 2-x and each Alk, independently, represents an alkyl group, is contacted with a titanium tetraalkoxide and/or an alcohol in the presence of an inert dispersant to give an intermediate reaction product and wherein the intermediate reaction product is contacted with titanium tetrachloride in the presence of an internal donor. - a molecular weight (Mw) of 450,000-950,000, - a molecular weight distribution of 3-6, - a melt flow in the range of 7-14 dg/min measured with a load of 21.6 kg at 230 °C or 0.05-2 dg/min measured with a load of 2.16 kg at 230 °C and - a xylene soluble content of 2-6 wt%
A burner structure for a boiler, said burner structure comprising: a fuel pipe provided in a wind box for injecting a fuel into a furnace of the boiler in which the burner structure is to be mounted, an air flow passage in the wind box for injecting air for combustion into the furnace, said air flow passage having a bent portion just before joining with the furnace, and a plurality of guide vanes provided in the air flow passage in the bent portion to divide the air flow passage into a plurality of air flow passages (11A,11B), wherein a drift control damper whose opening degree can be controlled independently from any other drift control damper is provided in each of the air flow passages (11A,11B) divided by the guide vanes except the innermost air flow passage, downstream of a damper for controlling the flow rate of the air for combustion, for adjusting the ratio of the flow passage resistances of each of the air flow passages (11A,11B) divided by the guide vanes. a fuel pipe provided in a wind box for injecting a fuel into a furnace of the boiler in which the burner structure is to be mounted, an air flow passage in the wind box for injecting air for combustion into the furnace, said air flow passage having a bent portion just before joining with the furnace, and a plurality of guide vanes provided in the air flow passage in the bent portion to divide the air flow passage into a plurality of air flow passages (11A,11B), wherein a drift control damper whose opening degree can be controlled independently from any other drift control damper is provided in each of the air flow passages (11A,11B) divided by the guide vanes except the innermost air flow passage, downstream of a damper for controlling the flow rate of the air for combustion, for adjusting the ratio of the flow passage resistances of each of the air flow passages (11A,11B) divided by the guide vanes.
A computer implemented method, comprising: obtaining, using a processor, image data from a target coating; performing, using the processor, an image analysis to determine sparkle points from the image data; performing, using the processor, a hue analysis that comprises applying a series of hue-based band pass filters to the image data to determine a sparkle color from each sparkle point by identifying individual hue regions independent of lightness and/or brightness, and using regional labeling and analysis of chroma and lightness and/or brightness of the regions to isolate individual sparkle points within each hue band; calculating from the determined sparkle colors, using the processor, a sparkle color distribution of the sparkle points by averaging similar sparkle points into a single color point; and generating, using the processor, a coating formulation that is the same or substantially matching in appearance to the target coating (44, 46), wherein generating the coating formulation comprises comparing the sparkle color distribution to a plurality of known coating formulations or toners in a database. obtaining, using a processor, image data from a target coating; performing, using the processor, an image analysis to determine sparkle points from the image data; performing, using the processor, a hue analysis that comprises applying a series of hue-based band pass filters to the image data to determine a sparkle color from each sparkle point by identifying individual hue regions independent of lightness and/or brightness, and using regional labeling and analysis of chroma and lightness and/or brightness of the regions to isolate individual sparkle points within each hue band; calculating from the determined sparkle colors, using the processor, a sparkle color distribution of the sparkle points by averaging similar sparkle points into a single color point; and generating, using the processor, a coating formulation that is the same or substantially matching in appearance to the target coating (44, 46), wherein generating the coating formulation comprises comparing the sparkle color distribution to a plurality of known coating formulations or toners in a database.
A method comprising: receiving, by a wireless device, one or more messages indicating: reference signals, RSs; a first channel quality threshold; a second channel quality threshold different from the first channel quality threshold; and a number for triggering a partial beam failure recovery, BFR, based on channel quality of the RSs; triggering a partial BFR procedure based on: a channel quality, of each of a plurality of first RSs of the RSs, being less than the first channel quality threshold; and a first number, of the plurality of first RSs, being equal to or greater than the number; transmitting, at a first time instance, a first request for the partial BFR procedure; triggering a full BFR procedure at a second time instance based on a channel quality, of each of a plurality of second RSs of the RSs, being less than the second channel quality threshold, wherein: the first number is less than a second number of the plurality of second RSs; and the partial BFR procedure is different from the full BFR procedure; and skipping transmission of a second request for the full BFR procedure based on: the partial BFR procedure being ongoing; and the full BFR procedure being triggered. receiving, by a wireless device, one or more messages indicating: reference signals, RSs; a first channel quality threshold; a second channel quality threshold different from the first channel quality threshold; and a number for triggering a partial beam failure recovery, BFR, based on channel quality of the RSs; reference signals, RSs; a first channel quality threshold; a second channel quality threshold different from the first channel quality threshold; and a number for triggering a partial beam failure recovery, BFR, based on channel quality of the RSs; triggering a partial BFR procedure based on: a channel quality, of each of a plurality of first RSs of the RSs, being less than the first channel quality threshold; and a first number, of the plurality of first RSs, being equal to or greater than the number; a channel quality, of each of a plurality of first RSs of the RSs, being less than the first channel quality threshold; and a first number, of the plurality of first RSs, being equal to or greater than the number; transmitting, at a first time instance, a first request for the partial BFR procedure; triggering a full BFR procedure at a second time instance based on a channel quality, of each of a plurality of second RSs of the RSs, being less than the second channel quality threshold, wherein: the first number is less than a second number of the plurality of second RSs; and the partial BFR procedure is different from the full BFR procedure; and the first number is less than a second number of the plurality of second RSs; and the partial BFR procedure is different from the full BFR procedure; and skipping transmission of a second request for the full BFR procedure based on: the partial BFR procedure being ongoing; and the full BFR procedure being triggered. the partial BFR procedure being ongoing; and the full BFR procedure being triggered.
Motor vehicle-illumination device comprising a light guide having a first side, a second side opposite to the first side and narrow sides arranged between a first side's boundary (12.1) and second side's boundary (14.1) and connecting the first side with the second side, comprising a first reflector and a second reflector, wherein the first reflector is an indentation in the first side, which extends into the light guide down to a certain depth (d), characterized in that the indentation has a rotation symmetric form and the indentation's certain depth corresponds to a value between 40% and 60% of the distance between the first side and the second side at the indentation's location, and that a light source is arranged on the indentation's rotation axis such that its light couples into the light guide via the second side and is incident on the first reflector, such that the first reflector directs light incident on the first reflector radially onto the second reflector, and wherein the second reflector is adapted to deflect said light twice and to reverse the direction of the light incident on the second reflector reflector by the deflection, wherein the reversal is effected such that the reversed light's further path leads through between the first reflector and the second reflector past the first reflector.
An optical component, comprising: a layer of light filter material, adapted to filter out a portion of incident light, the portion having a first wavelength range; and a layer of luminescent material, adapted to be controlled to emit light having a second wavelength range, or not to emit light, characterised in that the first wavelength range substantially coincides with the second wavelength range, meaning that the coincided part has a range that is 70 percent, 80 percent or 90 percent, of the first wavelength range or the second wavelength range so that the emitted light substantially compensates for the portion of the incident light which is filtered out by the layer of light filter material. a layer of light filter material, adapted to filter out a portion of incident light, the portion having a first wavelength range; and a layer of luminescent material, adapted to be controlled to emit light having a second wavelength range, or not to emit light, characterised in that the first wavelength range substantially coincides with the second wavelength range, meaning that the coincided part has a range that is 70 percent, 80 percent or 90 percent, of the first wavelength range or the second wavelength range so that the emitted light substantially compensates for the portion of the incident light which is filtered out by the layer of light filter material.
A vacuum cleaner having a motor suspension structure, comprising: an outer cover, an inner cover fixed to the outer cover, a motor at least partially accommodated within the inner cover and having a head and a tail, and a motor bracket at least partially surrounding the motor and used for fixing the same, wherein the tail of the motor is suspended, and characterized in that it further comprises a first buffer located between the inner cover and the motor bracket, a second buffer at least partially curved and located between the outer cover and the inner cover, and a third buffer located between the outer cover and the head, wherein the first buffer is at least partially in the form of a curve surrounding the motor; and wherein the motor bracket comprises at least one pair of brackets engaging each other, with each of brackets including a curved embracing portion abutting on the outside of the motor, and a supporting portion extending outward from the embracing portion.
A device having a workpiece spindle for accommodating a bevel gear workpiece, a tool spindle for accommodating a grinding wheel with an abrasive surface (28.1, 28.2), and having a plurality of drives (B1, B2, B3) and a CNC controller for the CNC-controlled machining of the bevel gear workpiece, wherein the grinding wheel, during the machining of the bevel gear workpiece, executes a rotation around a rotational axis of the tool spindle and the grinding wheel engages in the bevel gear workpiece in order to remove material, and wherein the rotation around the rotational axis of the tool spindle is superimposed with an eccentric movement, so that the grinding wheel only engages at n contact regions (P1.1, P1.2) of a full circle of the abrasive surface (28.1, 28.2) in the bevel gear workpiece, characterized in that the CNC controller of the device is designed for the adjusting of the eccentric movement, in order after a first machining phase, during a further machining phase, to specify m contact regions (P2.1, P2.2) of the full circle of the abrasive surface (28.1, 28.2), wherein the m contact regions (P2.1, P2.2) are spaced apart with respect the n contact regions (P1.1, P1.2).
A method for controlling the flow of a purge gas through a spectrometer, comprising: flowing the gas through a volume of the spectrometer, the volume being a volume through which light from a sample passes along a first path to reach a first detector and the gas being transparent to the light in a spectral region analysed by the spectrometer; characterised in the steps of:-transmitting light from a light source along a second path through the gas to a second detector; detecting an intensity of the light from the light source at the second detector at one or more wavelengths of the light; comparing the detected intensity of the light to a respective setpoint corresponding to a desired transmittance of the gas in the volume of the spectrometer and generating at least one error signal based on the comparison; and adjusting a flow rate of the gas through the volume of the spectrometer based on the error signal. flowing the gas through a volume of the spectrometer, the volume being a volume through which light from a sample passes along a first path to reach a first detector and the gas being transparent to the light in a spectral region analysed by the spectrometer; characterised in the steps of:-transmitting light from a light source along a second path through the gas to a second detector; detecting an intensity of the light from the light source at the second detector at one or more wavelengths of the light; comparing the detected intensity of the light to a respective setpoint corresponding to a desired transmittance of the gas in the volume of the spectrometer and generating at least one error signal based on the comparison; and adjusting a flow rate of the gas through the volume of the spectrometer based on the error signal.
A method comprising: receiving imaging data comprising a plurality of x-ray images associated with a patient; identifying a subset of the plurality of images that are used with a model associated with a position and motion of a targeted region of the patient to receive radiation treatment; sorting the subset of the plurality of images based on the respiration motion of the patient; identifying a contour on each of the series of images; receiving, by a graphical user interface, a selection associated with one of the two or more images of the sorted subset of the plurality of images, to initiate a playing of the group of images in the sorted order; providing, by a processing device, the GUI that is adapted to identify two or more images of the sorted subset of the plurality of images by identifying if a contour is out of an expected order; and generating, by the processing device, a new model to be associated with the position and motion of the targeted region based on a selection to remove one of the two or more identified images. receiving imaging data comprising a plurality of x-ray images associated with a patient; identifying a subset of the plurality of images that are used with a model associated with a position and motion of a targeted region of the patient to receive radiation treatment; sorting the subset of the plurality of images based on the respiration motion of the patient; identifying a contour on each of the series of images; receiving, by a graphical user interface, a selection associated with one of the two or more images of the sorted subset of the plurality of images, to initiate a playing of the group of images in the sorted order; providing, by a processing device, the GUI that is adapted to identify two or more images of the sorted subset of the plurality of images by identifying if a contour is out of an expected order; and generating, by the processing device, a new model to be associated with the position and motion of the targeted region based on a selection to remove one of the two or more identified images.
A validation system, with at least one medical device which is connected to a patient and both the medical device and the patient and/or a patient's bed are each provided with at least one identification marker, an identification device which is provided with a display and is provided and configured to read out the identification markers, and a server which communicates with the at least one medical device and the identification device and is provided and configured to assign the at least one medical device to a corresponding patient according to an assignment process, characterized in that a reviewing means is provided and configured to review the assignment of the at least one medical device to the corresponding patient in a reviewing process independent of the assignment process via a first transaction ID, composed of a device ID and a patient ID, and/or a location ID and generated by the server, and the medical device in the reviewing process is provided and configured to receive the first transaction ID and to send a modified second transaction ID to the server if the first transaction ID comprises the device ID, and the server in the reviewing process is provided and configured to compare the received second transaction ID with the generated first transaction ID stored in the server. at least one medical device which is connected to a patient and both the medical device and the patient and/or a patient's bed are each provided with at least one identification marker, an identification device which is provided with a display and is provided and configured to read out the identification markers, and a server which communicates with the at least one medical device and the identification device and is provided and configured to assign the at least one medical device to a corresponding patient according to an assignment process, characterized in that a reviewing means is provided and configured to review the assignment of the at least one medical device to the corresponding patient in a reviewing process independent of the assignment process via a first transaction ID, composed of a device ID and a patient ID, and/or a location ID and generated by the server, and the medical device in the reviewing process is provided and configured to receive the first transaction ID and to send a modified second transaction ID to the server if the first transaction ID comprises the device ID, and the server in the reviewing process is provided and configured to compare the received second transaction ID with the generated first transaction ID stored in the server.
A wedge comprising a first wedge element, a second wedge element (2, 41, 43), a third wedge element and a fourth wedge element, whereby the first and second wedge elements (1, 2, 41, 43) are arranged moveable towards and away from each other, whereby the third and fourth wedge elements (3, 4) are placed on opposite sides of the first and second wedge elements (1, 2, 41, 43) and abutting the first and second wedge elements (1, 2, 41, 43) along sloping surfaces, and whereby the wedge elements (1,2, 41, 43, 3, 4) and the sloping surfaces are so arranged that the third and fourth wedge elements (3, 4) will be moved away from each other when the first and second wedge elements (1,2, 41, 43) are moved toward each other and the third and fourth wedge elements (3, 4) will be free to move toward each other when the first and second wedge elements (1, 2, 41, 43) are moved away from each other, characterized in that the first and second wedge elements (1, 2, 41, 43) are configured to be moved towards and away from each other by means of a first part comprising a socket arranged rotatable but fixed in relation to the first wedge element and a second part, comprising a screw, arranged non-rotatable and fixed in relation to the second wedge element (2, 41, 43), whereby the second part and the first part have threads in mesh with each other and that the wedge is movable between two extremes, which extremes each is defined by one stop edge (16, 17) of the screw and a stop edge (18, 23) of an adjacent part.
A tool comprising: a plurality of handles configured for relative movement between a closed position and an open position, wherein at least one handle comprises an opening configured to receive a tool member, wherein at least one handle includes an axle upon which the tool member is rotatably mounted; a plurality of tool members (35, 36, 38) carried by at least one of the handles; a separate tool member configured to be installed following assembly of the tool, wherein the separate tool member comprises a tang and defines an open slot on the tang, wherein the open slot is configured to receive the axle; and a lock carried by a respective handle, wherein the lock is configured to engage the separate tool member upon installation of the separate tool member such that the open slot of the separate tool member is mounted upon the axle; wherein the tang of the tool member includes a retention feature and the lock is configured to engage the retention feature to secure the separate tool member within the tool following the installation of the separate tool member, wherein the tang has opposed first and second side surfaces with the open slot defined to extend therebetween, and the tool being characterised in that the retention feature of the tang includes a step feature along an edge of the tang that is recessed relative to the first side surface of the tang and that is configured to be engaged by the lock. a plurality of handles configured for relative movement between a closed position and an open position, wherein at least one handle comprises an opening configured to receive a tool member, wherein at least one handle includes an axle upon which the tool member is rotatably mounted; a plurality of tool members (35, 36, 38) carried by at least one of the handles; a separate tool member configured to be installed following assembly of the tool, wherein the separate tool member comprises a tang and defines an open slot on the tang, wherein the open slot is configured to receive the axle; and a lock carried by a respective handle, wherein the lock is configured to engage the separate tool member upon installation of the separate tool member such that the open slot of the separate tool member is mounted upon the axle; wherein the tang of the tool member includes a retention feature and the lock is configured to engage the retention feature to secure the separate tool member within the tool following the installation of the separate tool member, wherein the tang has opposed first and second side surfaces with the open slot defined to extend therebetween, and the tool being characterised in that the retention feature of the tang includes a step feature along an edge of the tang that is recessed relative to the first side surface of the tang and that is configured to be engaged by the lock.