mhurhangee/patent-ind-claim-en huggingface dataset:
Powder bed fusion additive manufacturing machine , this additive manufacturing machine comprising a manufacturing chamber and at least one source of heat or of energy used to selectively melt a layer of an additive manufacturing powder deposited inside the manufacturing chamber, the additive manufacturing machine comprising at least one mobile powder-receiving surface able to move in the vicinity of a manufacturing zone situated inside the manufacturing chamber, a powder-spreading device for spreading the powder on the mobile receiving surface towards the manufacturing zone, and at least one powder-distribution device distributing powder over the mobile receiving surface, the powder-distribution device comprising a buffer reservoir connected to a powder supply , and a powder-distribution point (P1) beneath which a mobile receiving surface moves, the powder-distribution device comprising a screw-type metering device connecting the buffer reservoir and the powder-distribution point (P1) and enabling the generation of a continuous stream of powder from the buffer reservoir towards the powder-distribution point, the screw-type metering device comprises a barrel and two powder-conveying screws (V1,V2) juxtaposed inside said barrel and rotationally driven inside this barrel, the additive manufacturing machine being characterized in that the two screws of the metering device (V1, V2) are synchronized in rotation and the two screws (V1, V2) of the metering device rotate in the same, clockwise or anticlockwise, direction, and in that , the powder-distribution device comprising a powder-unpacking device to loosen the powder contained in the buffer reservoir and the unpacking device adopting the form of a blade driven in its movement by an actuator inside the buffer reservoir, the two screws (V1, V2) are driven in rotation by the same motor via a gearing and the motor driving the rotation of the two screws (V1, V2) is also able to drive the rotation of the blade of the unpacking device via the gearing .
A handover, HO, method performed by a network node the method comprising: receiving (S309, S409) measurement reports from a UE, the measurement reports being related to a predetermined number of cells, the predetermined number of cells constituting a first set; determining (S311, S411) based on the received measurement reports that there are at least two potential target cells in the first set for HO of the UE; transmitting (S313, S413) a HO request message to each of the at least two potential target cells for the HO of the UE; selecting (S415), based on evaluation of the measurement reports received from the UE related to the at least two potential target cells, one of the at least two potential target cells to include information about the selected potential target cell in a HO command to be transmitted to the UE, wherein the evaluation comprises at least one of: evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and transmitting (S417) the HO command to the UE for the HO of the UE. receiving (S309, S409) measurement reports from a UE, the measurement reports being related to a predetermined number of cells, the predetermined number of cells constituting a first set; determining (S311, S411) based on the received measurement reports that there are at least two potential target cells in the first set for HO of the UE; transmitting (S313, S413) a HO request message to each of the at least two potential target cells for the HO of the UE; selecting (S415), based on evaluation of the measurement reports received from the UE related to the at least two potential target cells, one of the at least two potential target cells to include information about the selected potential target cell in a HO command to be transmitted to the UE, wherein the evaluation comprises at least one of: evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and evaluation of variation rates of measurements related to the at least two potential target cells, and evaluation of difference between a mean measurement related to the best potential target cell and a mean measurement related to another of the at least two potential target cells; and transmitting (S417) the HO command to the UE for the HO of the UE.
An automotive LED lamp heat sink for cooling an LED module, a part or the entirety of the heat sink being formed by injection molding of a thermally conductive resin composition, wherein: the thermally conductive resin composition includes at least (A) 50 to 90 weight % of a thermoplastic polyester resin having a number average molecular weight of 12,000 to 70,000 and (B) 10 to 50 weight % of flaked graphite having a fixed carbon content of 98 mass % or more and an aspect ratio of 21 or more, and has a specific gravity of 1.4 to 1.7 and an in-plane thermal conductivity of 1 W/(m•K) or more.
Sensor system for monitoring an occupancy of a storage rack (R), comprising: at least one sensor (2.1 to 2.4), which detects the occupancy of a compartment of the storage rack (R) and makes it available as sensor data, and at least one communication node that communicates wirelessly with the sensor (2.1 to 2.4), wherein the sensor (2.1 to 2.4) has a wireless interface that is designed in such a way that the wireless interface wirelessly transmits sensor data to the communication node , characterized in that the wireless interface receives data from the communication node wirelessly, the communication node emits electromagnetic high-frequency radiation, and the sensor (2.1 to 2.4) comprises a power module , the power module having a receiver (2b.1) receiving the high-frequency radiation, a converter (2b.2) converting high-frequency energy of the high-frequency radiation into electrical voltage, and an energy storage (2b.3) for supplying the sensor (2.1 to 2.4) with stored electrical energy, wherein the sensor data is transmittable in a frequency band that is different from a frequency band in which the high-frequency radiation is transmittable to the sensor (2.1 to 2.4). at least one sensor (2.1 to 2.4), which detects the occupancy of a compartment of the storage rack (R) and makes it available as sensor data, and at least one communication node that communicates wirelessly with the sensor (2.1 to 2.4), wherein the sensor (2.1 to 2.4) has a wireless interface that is designed in such a way that the wireless interface wirelessly transmits sensor data to the communication node , characterized in that the wireless interface receives data from the communication node wirelessly, the communication node emits electromagnetic high-frequency radiation, and the sensor (2.1 to 2.4) comprises a power module , the power module having a receiver (2b.1) receiving the high-frequency radiation, a converter (2b.2) converting high-frequency energy of the high-frequency radiation into electrical voltage, and an energy storage (2b.3) for supplying the sensor (2.1 to 2.4) with stored electrical energy, wherein the sensor data is transmittable in a frequency band that is different from a frequency band in which the high-frequency radiation is transmittable to the sensor (2.1 to 2.4).
A method for handling transmission of error indication messages in a communication network , the method comprising: receiving (S110), at a destination computer associated with a destination address , a user data packet from a source computer associated with a source address; determining (S112) whether a destination identifier included in the user data packet is known, the destination identifier identifying a destination of the user data packet; if it is determined (S112) that the destination identifier is known, then: transmitting (S124) the user data packet to the destination associated with the destination identifier ; else, if it is determined (S112) that the destination identifier is unknown, then: delaying (S116) transmission of first error indication message to the source computer by a first transmission timer ; and characterised by pacing (S118) the transmission of subsequent error indication messages if subsequent user data packets, received from the source computer , include the unknown destination identifier , wherein the pacing (S118) is implemented with a variable retransmission timer using an exponential algorithm, wherein the subsequent error indication messages are sent at one second, two seconds, four seconds, eight seconds, sixteenth second, etc. if the retransmission timer is set to one second. receiving (S110), at a destination computer associated with a destination address , a user data packet from a source computer associated with a source address; determining (S112) whether a destination identifier included in the user data packet is known, the destination identifier identifying a destination of the user data packet; if it is determined (S112) that the destination identifier is known, then: transmitting (S124) the user data packet to the destination associated with the destination identifier ; else, if it is determined (S112) that the destination identifier is unknown, then: delaying (S116) transmission of first error indication message to the source computer by a first transmission timer ; and transmitting (S124) the user data packet to the destination associated with the destination identifier ; else, if it is determined (S112) that the destination identifier is unknown, then: delaying (S116) transmission of first error indication message to the source computer by a first transmission timer ; and
Method of producing a via (VA) in a III-V multi-junction solar cell (MS) with an upper side and a lower side and the via (VA) is formed to be continuous from the upper side (OS) to the lower side (US), and the III-V multi-junction solar cell (MS) comprises a substrate (SUB) arranged at the lower side (US), and the substrate (SUB) has an upper side and an epitaxial layer system (ES), which is formed on the upper side, with a plurality of III-V layers, and the epitaxial layer system (ES) comprises at least one first III-V solar cell and an organic layer (SL) is formed at the upper side of the first III-V solar cell, - in a first method step an opening with a width X and with a first base surface (BO1) formed in the epitaxial layer system (ES) is produced by means of a laser, - in a second method step an opening with a width Y and with a second base surface (BO2) formed in the substrate is produced by means of the laser, wherein the width Y is smaller than the width X, - in a third method step an opening with a width Z is produced by means of the laser for formation of the continuous via (VA), wherein the opening has no base surface and the width Z is smaller than the width Y, - the aforesaid method steps are executed in the indicated sequence or in a desired sequence. - in a first method step an opening with a width X and with a first base surface (BO1) formed in the epitaxial layer system (ES) is produced by means of a laser, - in a second method step an opening with a width Y and with a second base surface (BO2) formed in the substrate is produced by means of the laser, wherein the width Y is smaller than the width X, - in a third method step an opening with a width Z is produced by means of the laser for formation of the continuous via (VA), wherein the opening has no base surface and the width Z is smaller than the width Y, - the aforesaid method steps are executed in the indicated sequence or in a desired sequence.
Assembly comprising a coolant conveying pipe and a fixing assembly for fixing the pipe to a motor vehicle body, the fixing assembly comprising a support plate intended to be mounted in a fixed position on said body, and fixing means for fixing said pipe to said support plate , said fixing means comprising a ring that traps said conveying pipe and a fixing tab intended to be anchored to said support plate , characterized in that said ring is obtained by over moulding onto said conveying pipe , said fixing tab extending parallel to an axis of said ring so that the conveying pipe can be fixed by a movement of interlocking the fixing tab with the support plate parallel to the axis of the conveying pipe at the ring .
Threshold having means for reducing the barrier action of the threshold and for guiding a lift and slide door, wherein the threshold has a main body produced in the extrusion process and having hollow chambers , the threshold having a substantially level upper side , into which a running rail running in the direction in which the threshold extends is integrated, wherein underneath the upper side there is arranged a middle surface , vertical struts being arranged between the upper side and the middle surface , the upper side having a rectilinear opening running in the direction in which the threshold extends, wherein in each case a part of the upper side runs as far as the next vertical strut on both sides of the opening and there is in each case a distance between the opening and the next vertical strut , a clip strip is inserted into the opening , wherein the clip strip has latching means on both sides of its extension line, which engage in the opening and latch into the upper side , the clip strip includes the running rail , characterized in that the clip strip has, at least approximately, the vertical extent that is present between the upper side and the middle surface , as a result of which the clip strip ends virtually level with the upper side with the running rail and the latching means at the top, and, when latched in the main body , the latching means of the clip strip touches the upper side vertically from below on both sides, wherein the latching means on one side projects further horizontally under the upper side in the direction of the next vertical strut than the latching means on the other side of the opening . underneath the upper side there is arranged a middle surface , vertical struts being arranged between the upper side and the middle surface , the upper side having a rectilinear opening running in the direction in which the threshold extends, wherein in each case a part of the upper side runs as far as the next vertical strut on both sides of the opening and there is in each case a distance between the opening and the next vertical strut , a clip strip is inserted into the opening , wherein the clip strip has latching means on both sides of its extension line, which engage in the opening and latch into the upper side , the clip strip includes the running rail , characterized in that the clip strip has, at least approximately, the vertical extent that is present between the upper side and the middle surface , as a result of which the clip strip ends virtually level with the upper side with the running rail and the latching means at the top, and, when latched in the main body , the latching means of the clip strip touches the upper side vertically from below on both sides, wherein the latching means on one side projects further horizontally under the upper side in the direction of the next vertical strut than the latching means on the other side of the opening .
A direct emitting LED illumination module for eliminating chromatic dispersion, the direct emitting LED illumination module comprising: a LED light source emitting light ; and a plano-convex lens having a convex surface and a plane and neighboring on the LED light source , wherein the LED light source is located at a focus of the plano-convex lens, the light is emitted onto the plane and exits from the convex surface , and the plane has a microstructure thereon, wherein the microstructure comprises a plurality of pillars protruding outwards from the plane of the plano-convex lens , wherein the dimension of the microstructure is a width or a height of each of the plurality of pillars and a size of each dimension of the microstructure is 0.8-4.0 mm, and the microstructure is distributed on a region on which the light is incident with an incident angle larger than 15 degrees relative to an optic axis of the LED light source , and wherein the plano-convex lens consists of a plurality of confocal lenses that are horizontally combined with each other and arranged side-by-side in a direction perpendicular to the optic axis of the LED light source to form a single multi-focusing lens, wherein the LED light source is located at a common focus of the plurality of confocal lenses . a LED light source emitting light ; and a plano-convex lens having a convex surface and a plane and neighboring on the LED light source , wherein the LED light source is located at a focus of the plano-convex lens, the light is emitted onto the plane and exits from the convex surface , and the plane has a microstructure thereon, wherein the microstructure comprises a plurality of pillars protruding outwards from the plane of the plano-convex lens , wherein the dimension of the microstructure is a width or a height of each of the plurality of pillars and a size of each dimension of the microstructure is 0.8-4.0 mm, and the microstructure is distributed on a region on which the light is incident with an incident angle larger than 15 degrees relative to an optic axis of the LED light source , and wherein the plano-convex lens consists of a plurality of confocal lenses that are horizontally combined with each other and arranged side-by-side in a direction perpendicular to the optic axis of the LED light source to form a single multi-focusing lens, wherein the LED light source is located at a common focus of the plurality of confocal lenses .
A filtration system comprising: a cabinet ; a filtration device having a filtrate or retentate vessel arranged outside the cabinet ; a weighing device that is configured to weigh the filtrate or retentate vessel ; and a load transfer connection configured to connect the weighing device and the filtrate or retentate vessel so as to transfer a weight from the filtrate or retentate vessel to the weighing device, wherein the weighing device is arranged inside an enclosure , and wherein the enclosure is arranged inside the cabinet , characterized in that the enclosure comprises a humidity buffer comprising a buffer material being capable of maintaining humidity internal the enclosure over a duration of a filtration process so that the enclosure is configured to provide a stabilized environment in its interior with respect to humidity. a cabinet ; a filtration device having a filtrate or retentate vessel arranged outside the cabinet ; a weighing device that is configured to weigh the filtrate or retentate vessel ; and a load transfer connection configured to connect the weighing device and the filtrate or retentate vessel so as to transfer a weight from the filtrate or retentate vessel to the weighing device, wherein the weighing device is arranged inside an enclosure , and wherein the enclosure is arranged inside the cabinet , characterized in that the enclosure comprises a humidity buffer comprising a buffer material being capable of maintaining humidity internal the enclosure over a duration of a filtration process so that the enclosure is configured to provide a stabilized environment in its interior with respect to humidity.
A positive active material for a lithium secondary battery which comprises a lithium transition metal composite oxide, wherein the lithium transition metal composite oxide has an α-NaFeO 2 structure, and has a diffraction peak at 2θ = 44 ± 1° and a diffraction peak at 2θ = 18.6 ± 1° in a powder X-ray diffraction diagram using a CuKα ray, and in a ratio FWHM /FWHM of a full width at half maximum FWHM for the diffraction peak at 18.6 ± 1° to a full width at half maximum FWHM for the diffraction peak at 44 ± 1°, a ratio of FWHM /FWHM in a charge state immediately after a discharge state to FWHM /FWHM in the discharge state is 0.72 or more wherein the lithium transition metal composite oxide contains at least one selected from the group consisting of F and P on surfaces of particles of the lithium transition metal composite oxide. wherein the lithium transition metal composite oxide has an α-NaFeO 2 structure, and has a diffraction peak at 2θ = 44 ± 1° and a diffraction peak at 2θ = 18.6 ± 1° in a powder X-ray diffraction diagram using a CuKα ray, and in a ratio FWHM /FWHM of a full width at half maximum FWHM for the diffraction peak at 18.6 ± 1° to a full width at half maximum FWHM for the diffraction peak at 44 ± 1°, a ratio of FWHM /FWHM in a charge state immediately after a discharge state to FWHM /FWHM in the discharge state is 0.72 or more wherein the lithium transition metal composite oxide contains at least one selected from the group consisting of F and P on surfaces of particles of the lithium transition metal composite oxide.
A wireless communication method, comprising: receiving, by a terminal device, first information from a network device, the first information indicating a target parameter set; wherein the target parameter set is a first parameter set or a second parameter set, the first parameter set comprises a plurality of parameters used in a first scheme for performing paging at a specific frequency point, and the second parameter set comprises a plurality of parameters used in a second scheme for performing paging at a specific frequency point, characterized in that , the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is not dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; obtaining, by the terminal device, the target parameter set based on the first information; and monitoring , by the terminal device, based on the target parameter set, paging performed by the network device to the terminal device. receiving, by a terminal device, first information from a network device, the first information indicating a target parameter set; wherein the target parameter set is a first parameter set or a second parameter set, the first parameter set comprises a plurality of parameters used in a first scheme for performing paging at a specific frequency point, and the second parameter set comprises a plurality of parameters used in a second scheme for performing paging at a specific frequency point, characterized in that , the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is dependent on the parameter set used for actually transmitting the SSB; or the first parameter set is not dependent on a parameter set used for actually transmitting a synchronization signal block SSB; and the second parameter set is not dependent on the parameter set used for actually transmitting the SSB; obtaining, by the terminal device, the target parameter set based on the first information; and monitoring , by the terminal device, based on the target parameter set, paging performed by the network device to the terminal device.