mhurhangee/ep-ind-claims huggingface dataset:
An image forming method comprising: an ink application step of applying a water-based ink containing polymer particles, an amine compound having at least one hydroxyl group, a colorant, and water, onto a recording substrate having ink non-absorbency or low ink-absorbency wherein during the application, the water-based ink is applied onto the recording substrate with an ink jet method with an amount of ink droplets of 60 pL to 120 pL. an ink application step of applying a water-based ink containing polymer particles, an amine compound having at least one hydroxyl group, a colorant, and water, onto a recording substrate having ink non-absorbency or low ink-absorbency wherein during the application, the water-based ink is applied onto the recording substrate with an ink jet method with an amount of ink droplets of 60 pL to 120 pL.
A method for processing samples of an image or sequence of images, comprising: encoding a first set of samples with a first encoding process; encoding a second set of samples with a second encoding process; filtering reconstructed samples of the second set based on information generated by at least one of the first encoding process and the second encoding process, wherein the information comprises one of filter information and information about encoding parameters used at each stage of encoding; and combining the filtered reconstructed samples of the second set with reconstructed samples of the first set characterised in that said combining step obtains a new and improved representation of the reconstructed samples of the first set, wherein the combining is based on a weighted combination of the filtered reconstructed samples of the second set and the reconstructed samples of the first set, the weights being derived based on encoding parameters. encoding a first set of samples with a first encoding process; encoding a second set of samples with a second encoding process; filtering reconstructed samples of the second set based on information generated by at least one of the first encoding process and the second encoding process, wherein the information comprises one of filter information and information about encoding parameters used at each stage of encoding; and combining the filtered reconstructed samples of the second set with reconstructed samples of the first set characterised in that said combining step obtains a new and improved representation of the reconstructed samples of the first set, wherein the combining is based on a weighted combination of the filtered reconstructed samples of the second set and the reconstructed samples of the first set, the weights being derived based on encoding parameters.
A twist drill for chip removing machining, which twist drill extends along a central axis of rotation and has a front end and a rear end, between which a peripheral envelope surface extends, wherein the twist drill is rotatable in a direction of rotation around the central axis, and wherein: - the front end is formed as a drill point with two cutting edges and at least two clearance surfaces, wherein two helical chip flutes configured for conducting chips away from the cutting edges are formed in the peripheral envelope surface and extend rearward from the front end, wherein each cutting edge extends in a transition between at least one of the clearance surfaces and one of the chip flutes, - each cutting edge has a curved shape and extends from an inner position adjacent to the central axis to the peripheral envelope surface, wherein each cutting edge has a main portion which is closest to the peripheral envelope surface, - each chip flute is delimited by a side surface including a main rake face, which main rake face extends rearward from the main portion of the cutting edge, wherein the main rake face has a concave shape as seen in a transverse cross section, and wherein the cutting edges are contained in an imaginary conical surface, such that the twist drill is operable to generate a bottom profile having the shape of an inverted cone, characterised in that the main portion of each cutting edge has a linear shape as seen in a front end view. - the front end is formed as a drill point with two cutting edges and at least two clearance surfaces, wherein two helical chip flutes configured for conducting chips away from the cutting edges are formed in the peripheral envelope surface and extend rearward from the front end, wherein each cutting edge extends in a transition between at least one of the clearance surfaces and one of the chip flutes, - each cutting edge has a curved shape and extends from an inner position adjacent to the central axis to the peripheral envelope surface, wherein each cutting edge has a main portion which is closest to the peripheral envelope surface, - each chip flute is delimited by a side surface including a main rake face, which main rake face extends rearward from the main portion of the cutting edge,
An axle assembly comprising: a differential carrier; a ring gear that is rotatably supported on the differential carrier, wherein the ring gear has a set of teeth and a back side disposed opposite the set of teeth; a drive pinion that is in meshing engagement with the set of teeth of the ring gear; characterised in that the axle assembly further comprises a set of support bearing assemblies (28, 28') that extends from the differential carrier toward the back side of the ring gear, wherein at least one member of the set of support bearing assemblies (28, 28') is disposed closer to the back side than another member of the set of support bearing assemblies (28, 28'). a differential carrier; a ring gear that is rotatably supported on the differential carrier, wherein the ring gear has a set of teeth and a back side disposed opposite the set of teeth; a drive pinion that is in meshing engagement with the set of teeth of the ring gear; characterised in that the axle assembly further comprises a set of support bearing assemblies (28, 28') that extends from the differential carrier toward the back side of the ring gear, wherein at least one member of the set of support bearing assemblies (28, 28') is disposed closer to the back side than another member of the set of support bearing assemblies (28, 28').
A method of transmitting sounding reference signals to a base station using a plurality of component carriers at a user equipment for a wireless communication system, the method comprising: identifying respective offset values for the plurality of component carriers from the base station, wherein the offset values respectively correspond to subframes in which the sounding reference signals are to be transmitted; and transmitting the sounding reference signals to the base station using the plurality of component carriers in the subframes respectively corresponding to the offset values, wherein the method further comprises: when sounding reference signals are to be transmitted using at least two component carriers in a same subframe (1301-1302;1304-1305), transmitting in the subframe only a sounding reference signal (1302;1305) having a longest transmission period among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, and transmitting the rest of sounding reference signals (1303;1306) among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, with a delay according to parameters respectively indicating how many subframes are to be used to delay the transmission of the rest of sounding reference signals among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, wherein the parameters are signaled for each of component carriers respectively corresponding to the rest of sounding reference signals, from the base station. identifying respective offset values for the plurality of component carriers from the base station, wherein the offset values respectively correspond to subframes in which the sounding reference signals are to be transmitted; and transmitting the sounding reference signals to the base station using the plurality of component carriers in the subframes respectively corresponding to the offset values, wherein the method further comprises: when sounding reference signals are to be transmitted using at least two component carriers in a same subframe (1301-1302;1304-1305), transmitting in the subframe only a sounding reference signal (1302;1305) having a longest transmission period among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, and transmitting the rest of sounding reference signals (1303;1306) among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, with a delay according to parameters respectively indicating how many subframes are to be used to delay the transmission of the rest of sounding reference signals among the sounding reference signals which are to be transmitted using at least two component carriers in the same subframe, wherein the parameters are signaled for each of component carriers respectively corresponding to the rest of sounding reference signals, from the base station.
Pen-type backflow-proof retractable flow visible blood collection needle, comprises a blood collection needle, wherein the blood collection needle comprises an injection end protection case and butting end protection case, the bottom of the butting end protection case is open, inside which is provided a one-way valve seat, on top of the one-way valve seat is provided a backflow proof one-way valve, and on top of the backflow proof one-way valve is provided a blood collection needle; at the inner side of the top end of the injection end protection case is fixed a spring; to the lower end of the one-way valve seat is provided the blood collection needle seat, four sides of the blood collection needle seat are provided with fixing blocks, and on the side wall of the butting end protection case are provided four fixing cakes, four fixing blocks correspond with four fixing cakes; an opening is provided from bottom to top of the blood collection needle seat, the said opening comprises a threaded hole, a first rectangular hole and a second rectangular hole, in the threaded hole is connected a threaded rod; to the bottom of the one-way valve seat is connected a connection pipe, which goes through the threaded hole, and extends to the first rectangular hole and is connected with a flexible socket pipe; to the bottom of the flexible socket pipe is connected the blood collection tube made from transparent material, and the blood collection tube is configured to be of negative pressure; top of the blood collection tube reaches and contacts the inner side of the top of the second rectangular hole; on the blood collection device is provided an operation hole; on top of the blood collection device is provided a protection cover; inside the butting end protection case is provided a ring-shaped spacer
A laser machining device for cutting workpieces, in particular a laser cutting head for laser cutting workpieces, comprising a beam path and a polarising beam offset element arranged in the beam path for generating two linearly polarised and mutually laterally offset partial beams (11, 12), the polarisation directions of which are inclined towards one another, preferably by 90°, from a laser beam, characterised in that the polarising beam offset element is arranged in a divergent beam path section or in a convergent beam path section of the beam path of a laser beam used for laser cutting.
Method for creating a temperature field of at least one section of a paving layer laid by means of a paving screed of a road finisher, an interfering object temporarily positioned on the laid paving layer within at least one predetermined measuring range of the temperature field being detected, the intrinsic temperature (T interf) of which being below a desired nominal temperature (T nom) for the measuring range, so that an imaging of the intrinsic temperature (T interf) of the interfering object in the temperature field to be generated falsifies the same at least in places, wherein for detecting the interfering object a temperature (T x) of at least one measuring point (x) lying within the measuring range is measured at different times (t 1, t 2), characterized in that it is detected that during the paving of the paving layer, the measuring point (x) is covered by a interfering object at a first time (t 1) if, contrary to an expected material-specific cooling at a later second time (t 2) during the paving, at the same measuring point (x) a larger temperature value (T x) particularly lying within the nominal temperature range (T nom) than a temperature value (T x) detected with respect to the preceding first time (t 1) is measured, wherein instead of the temperature value (T x) detected at the first time a new temperature value (T new) of the measuring point (x) is assigned in the temperature field.
A method, performed in a source base station of handover, for calibrating a mobility robustness optimization function for inter-cell handover, characterized in that the method comprises: detecting, by a detecting unit, mobility robustness optimization deviation, wherein the step of detecting mobility robustness optimization deviation comprises: comparing a fluctuation center of an offset parameter indicative of a border of an inter-cell relation for the inter-cell handover and a value of said offset parameter at which handover failure ratio is minimum, wherein said fluctuation center of said offset parameter is calculated in real time by monitoring an actual usage trace of said offset parameter; and deducing reasons of said mobility robustness optimization deviation based on whether said fluctuation center is smaller or larger than said value of said offset parameter at which said handover failure ratio is minimum; and calibrating, by a calibrating unit, said mobility robustness optimization function by compensating the detected mobility robustness optimization deviation. detecting, by a detecting unit, mobility robustness optimization deviation, wherein the step of detecting mobility robustness optimization deviation comprises: comparing a fluctuation center of an offset parameter indicative of a border of an inter-cell relation for the inter-cell handover and a value of said offset parameter at which handover failure ratio is minimum, wherein said fluctuation center of said offset parameter is calculated in real time by monitoring an actual usage trace of said offset parameter; and deducing reasons of said mobility robustness optimization deviation based on whether said fluctuation center is smaller or larger than said value of said offset parameter at which said handover failure ratio is minimum; and comparing a fluctuation center of an offset parameter indicative of a border of an inter-cell relation for the inter-cell handover and a value of said offset parameter at which handover failure ratio is minimum, wherein said fluctuation center of said offset parameter is calculated in real time by monitoring an actual usage trace of said offset parameter; and deducing reasons of said mobility robustness optimization deviation based on whether said fluctuation center is smaller or larger than said value of said offset parameter at which said handover failure ratio is minimum; and calibrating, by a calibrating unit, said mobility robustness optimization function by compensating the detected mobility robustness optimization deviation.
Measuring frame for contactless optical sensing of a penetration position of a projectile through a target surface, wherein the measuring frame comprises: at least one first radiation source for emitting a first diverging radiation field; at least one second radiation source for emitting a second divergent radiation field, said first and second radiation fields intersecting at an angle in a plane transverse to a direction of projectile propagation;at least one first and at least one second optical receiving means associated with said at least one first and one second radiation source, respectively; each of the optical receiving means comprising an array of optical receiving elements each measuring the received radiation intensity such that a spatially extended shading position is determined as a result of the projectile to be detected, the measuring frame having at least one receiver diaphragm (118, 118', 118") for suppressing undesired radiation, the measuring frame comprising at least one optical filter which is transparent for at least a first predetermined wavelength range and which is not transparent for at least a second predetermined wavelength range from the spectrum of sunlight, and the receiver aperture (118, 118', 118") comprising an array of pinholes (126, 126', 126"), each pinhole being associated with an optical receiver element, characterised in that: the optical filter rests against the receiver aperture (118, 118', 118") and a filtering surface of the optical filter covers at least one array of pinholes (126, 126', 126"). at least one first radiation source for emitting a first diverging radiation field; at least one second radiation source for emitting a second divergent radiation field, said first and second radiation fields intersecting at an angle in a plane transverse to a direction of projectile propagation;at least one first and at least one second optical receiving means associated with said at least one first and one second radiation source, respectively; each of the optical receiving means comprising an array of optical receiving elements each measuring the received radiation intensity such that a spatially extended shading position is determined as a result of the projectile to be detected, the measuring frame having at least one receiver diaphragm (118, 118', 118") for suppressing undesired radiation, the measuring frame comprising at least one optical filter which is transparent for at least a first predetermined wavelength range and which is not transparent for at least a second predetermined wavelength range from the spectrum of sunlight, and the receiver aperture (118, 118', 118") comprising an array of pinholes (126, 126', 126"), each pinhole being associated with an optical receiver element, characterised in that: the optical filter rests against the receiver aperture (118, 118', 118") and a filtering surface of the optical filter covers at least one array of pinholes (126, 126', 126").
Apparatus for endovascularly replacing a patient's heart valve, the apparatus comprising: an expandable anchor supporting a replacement valve, the anchor having a delivery configuration and a deployed configuration, characterized by a fabric seal extending from the distal end of the valve proximally over the anchor in the delivery configuration, wherein the seal is bunched up in the deployed configuration an expandable anchor supporting a replacement valve, the anchor having a delivery configuration and a deployed configuration, characterized by a fabric seal extending from the distal end of the valve proximally over the anchor in the delivery configuration, wherein the seal is bunched up in the deployed configuration
A method comprising: connecting, by a wireless device (130, 300, 500, 608, 910, 1000) to a multimedia playback system via a first network device (922, 932); adding, by the wireless device, a network connection option via the first network device to a list of available network connection options; sending, by the wireless device to a second network device (102-124, 202-204, 400, 602-606,924, 934) over the connection to the multimedia playback system via the first network device, one or more commands to control playback of multimedia by the second network device; identifying, by the wireless device, one or more additional available connections to the multimedia playback system within range of the wireless device, wherein the one or more additional available connections within range of the wireless device comprises a connection via the second network device; determining, by the wireless device, that the connection to the multimedia playback system via the second network device is preferred over the connection via the first network device based on one or more characteristics; based on the determination that the connection via the second network device is preferred over the connection via the first network device, connecting, by the wireless device, to the multimedia playback system via the second network device; and sending, by the wireless device to the second network device over the connection to the multimedia playback system via second network device, one or more additional commands to control playback of multimedia by the second network device. connecting, by a wireless device (130, 300, 500, 608, 910, 1000) to a multimedia playback system via a first network device (922, 932); adding, by the wireless device, a network connection option via the first network device to a list of available network connection options; sending, by the wireless device to a second network device (102-124, 202-204, 400, 602-606,924, 934) over the connection to the multimedia playback system via the first network device, one or more commands to control playback of multimedia by the second network device; identifying, by the wireless device, one or more additional available connections to the multimedia playback system within range of the wireless device, wherein the one or more additional available connections within range of the wireless device comprises a connection via the second network device; determining, by the wireless device, that the connection to the multimedia playback system via the second network device is preferred over the connection via the first network device based on one or more characteristics; based on the determination that the connection via the second network device is preferred over the connection via the first network device, connecting, by the wireless device, to the multimedia playback system via the second network device; and sending, by the wireless device to the second network device over the connection to the multimedia playback system via second network device, one or more additional commands to control playback of multimedia by the second network device.