mhurhangee/ep-ind-claims huggingface dataset:
A saddle type vehicle, comprising: a storage box enclosing a storage part (80A, 80B), and a battery box formed as a body separate from the storage box and fixed to the storage box so as to be detachable from the storage box, a vehicle body frame comprising: a pair of left and right tubes (13, 13) and a cross member interconnecting the tubes (13, 13), wherein the battery box is disposed under the storage box, the battery box being fixed to a lower portion of the storage part (80A, 80B), and wherein the battery box is mounted on the cross member, the cross member being provided under the battery box, and wherein the battery box has fixing plates (94, 95) fixing the battery box to the storage box, characterized in that the storage box comprises a rear side slant surface and a front side slant surface at the lower portion of the storage part (80a, 80B), wherein the fixing plates (94, 95) are slanted down toward the center of the battery box in conformity with the rear side slant surface and the front side slant surface, the fixing plates (94, 95) forming a guide part (94, 95) of the battery box relative to the storage box, so formed as to fit the battery box to the storage box from outside of the storage box. a storage box enclosing a storage part (80A, 80B), and a battery box formed as a body separate from the storage box and fixed to the storage box so as to be detachable from the storage box, a vehicle body frame comprising: a pair of left and right tubes (13, 13) and a cross member interconnecting the tubes (13, 13), a pair of left and right tubes (13, 13) and a cross member interconnecting the tubes (13, 13), wherein the battery box is disposed under the storage box, the battery box being fixed to a lower portion of the storage part (80A, 80B), and wherein the battery box is mounted on the cross member, the cross member being provided under the battery box, and wherein the battery box has fixing plates (94, 95) fixing the battery box to the storage box, characterized in that the storage box comprises a rear side slant surface and a front side slant surface at the lower portion of the storage part (80a, 80B), wherein the fixing plates (94, 95) are slanted down toward the center of the battery box in conformity with the rear side slant surface and the front side slant surface, the fixing plates (94, 95) forming a guide part (94, 95) of the battery box relative to the storage box, so formed as to fit the battery box to the storage box from outside of the storage box.
A chimeric protein comprising a first polypeptide chain and a second polypeptide chain, wherein the first polypeptide chain comprises a Factor IX and a portion of an immunoglobulin constant region, and wherein the second polypeptide chain consists of a portion of an immunoglobulin constant region, wherein the portions of an immunoglobulin constant region are FcRn binding partners.
A framework section (13, 15) of a framework for a passenger transport system, comprising at least one connection region (31, 81) which is formed on the end face of at least one of the two ends of the framework section (13, 15) and which connection region (31, 81) can be connected to the connection region (31, 81) of at least one further framework section (13, 15), each framework section (13, 15) having two upper chord sections (21A, 21B) and two lower chord sections (23A, 23B) which extend in the longitudinal direction of the framework section (13, 15) parallel to one another and are connected to one another by connecting struts in such a way that they define a cuboid space and the upper chord sections (21A, 21B) and the lower chord sections (23A, 23B) having a tubular cross section, characterized in that in the connection region (31, 81) the upper chord sections (21A, 21B) and the lower chord sections (23A, 23B) are configured from the tubular cross section into an I-shaped cross section.
An apparatus, comprising: a valve body comprising an inlet, an outlet having an outlet path, and an aperture disposed between the inlet and the outlet, the apparatus comprising surface structures implemented on an interior surface of the outlet path, the apparatus being characterised in that the surface structures are configured to increase turbulence and velocity of the fluid flow immediately adjacent the interior surface of the outlet and to decrease the turbulence and velocity of the fluid flow in a middle portion of the outlet such that there is a uniformity in velocity and/or pressure of a flow pattern of fluid flowing through a cross-section of the outlet. a valve body comprising an inlet, an outlet having an outlet path, and an aperture disposed between the inlet and the outlet, the apparatus comprising surface structures implemented on an interior surface of the outlet path, the apparatus being characterised in that the surface structures are configured to increase turbulence and velocity of the fluid flow immediately adjacent the interior surface of the outlet and to decrease the turbulence and velocity of the fluid flow in a middle portion of the outlet such that there is a uniformity in velocity and/or pressure of a flow pattern of fluid flowing through a cross-section of the outlet.
A control method of controlling a light source device which (i) includes a plurality of groups of laser light sources and (ii) simultaneously emits laser light from the laser light sources, each of the plurality of groups being made of at least one laser light source, said control method comprising the steps of: (a) detecting with a single detector a laser light intensity, said laser light intensity being either, in a first alternative, an entire intensity, said entire intensity being the intensity of the laser light outputted from the light source device or, in a second alternative, another intensity, said another intensity being the intensity of either: - an excitation laser light that is emitted from the plurality of laser light sources, or - a combined excitation light emitted from a pump combiner combining rays of excitation light which are emitted from the plurality of laser light sources; wherein the entire intensity depends on the another intensity; and (b) controlling a driving current so that, in a case where the laser light intensity which has been detected in the step (a) is lower than a predetermined lower limit threshold, only a driving current for all of the at least one laser light source belonging to a specific group predetermined among the plurality of groups is increased. (a) detecting with a single detector a laser light intensity, said laser light intensity being either, in a first alternative, an entire intensity, said entire intensity being the intensity of the laser light outputted from the light source device or, in a second alternative, another intensity, said another intensity being the intensity of either: - an excitation laser light that is emitted from the plurality of laser light sources, or - a combined excitation light emitted from a pump combiner combining rays of excitation light which are emitted from the plurality of laser light sources; wherein the entire intensity depends on the another intensity; and - an excitation laser light that is emitted from the plurality of laser light sources, or - a combined excitation light emitted from a pump combiner (b) controlling a driving current so that, in a case where the laser light intensity which has been detected in the step (a) is lower than a predetermined lower limit threshold, only a driving current for all of the at least one laser light source belonging to a specific group predetermined among the plurality of groups is increased.
A method for producing a floor covering substrate, in which: • at least one integrated radio tag is embedded within a layer, which comprises at least one curable material; • the at least one integrated radio tag is embedded in a substrate layer and/or applied to a substrate layer; • the substrate layer comprising the integrated radio tag is embedded in the layer, which comprises the at least one curable material; • the substrate layer comprises a structure, which is penetrable for the at least one curable material, or a meshed structure or is a reinforcement fabric; • the at least one curable material is cured. • at least one integrated radio tag is embedded within a layer, which comprises at least one curable material; • the at least one integrated radio tag is embedded in a substrate layer and/or applied to a substrate layer; • the substrate layer comprising the integrated radio tag is embedded in the layer, which comprises the at least one curable material; • the substrate layer comprises a structure, which is penetrable for the at least one curable material, or a meshed structure or is a reinforcement fabric; • the at least one curable material is cured.
An LED lighting apparatus comprising: an LED module; a heat dissipation member; and a connection member for connecting the LED module and the heat dissipation member mechanically and heat-conductively, wherein the heat dissipation member includes a reflective surface for reflecting light from the LED module, wherein the connection member comprises a module mounting part to which the LED module is attached, wherein a main connection part connected to the heat dissipation member heat-conductively and mechanically, is formed at one end of the module mounting part, wherein a sub connection part connected to a reinforcing support part formed at fixed to a part of the LED lighting apparatus, is formed at the other end of the module mounting part, characterized in that each of the main connection part and sub connection part are formed to be elastically deformable. an LED module; a heat dissipation member; and a connection member for connecting the LED module and the heat dissipation member mechanically and heat-conductively, wherein the heat dissipation member includes a reflective surface for reflecting light from the LED module, wherein the connection member comprises a module mounting part to which the LED module is attached, wherein a main connection part connected to the heat dissipation member heat-conductively and mechanically, is formed at one end of the module mounting part, wherein a sub connection part connected to a reinforcing support part formed at fixed to a part of the LED lighting apparatus, is formed at the other end of the module mounting part,
Self-propelled forage harvester with a chopper assembly, arranged at least partially in the area between drive wheels (6 and 9), which has a drum housing and a chopping drum mounted therein, and with an intake housing, connected upstream of the chopper assembly, which houses intake rollers (2 and 3) and precompaction rollers in each case arranged in pairs and to which a harvesting header can be coupled, wherein, for maintenance or repair work, the intake housing is pivotable relative to the drum housing about a substantially vertical pivot axis into at least one open position in which the inside of the drum housing is accessible, wherein a hinge joined to a first side wall of the intake housing and forming the pivot axis is secured to a first vertical side wall of the drum housing or a frame part neighbouring this and wherein a second side wall of the intake housing can be fixed in a closed position on a second vertical side wall of the drum housing or a frame part neighbouring this, wherein at least one coupling element of at least one drive element is provided in the area of the second side walls (4b, 8b) of the intake housing and of the drum housing, characterized in that, on the hinge, a catch or locking device is provided, via which the intake housing is held in at least one intermediate position lying between the closed position and a maximum open position.
An airfoil diffuser with a plurality of diffuser blades for a centrifugal compressor having an impeller wherein the ratio of the distance between a diffuser blade leading edge and trailing edge to the distance between any two consecutive blades is less than one, characterized in that the diffuser blade lean angle for each blade is greater than zero degrees.
A device for conducting exhaust gas in an internal combustion engine, comprising a heat exchanger having an inner housing and an outer housing, a bypass flap, a mixing housing, in which the bypass flap is supported and which is fastened to the heat exchanger, a first valve seat, which is formed on the mixing housing and on which the bypass flap lies in the state in which the bypass is closed, a second valve seat, on which the bypass flap lies in the state in which the heat exchanger is closed, characterized in that a collar that forms the second valve seat is formed on the inner housing of the heat exchanger.
A rotor positioning device to adjust a rotational position of a rotor of a horizontal shaft impact crusher, the positioning device comprising: a frame; at least one mounting (103, 112) provided at the frame to releasably mount the device at an external region of the crusher; a rod rotatably mounted at the frame; a shaft engager provided at one end of the rod to engage an end of the shaft of the rotor so as to rotatably lock the rod and the shaft; the shaft engager being adjustably mounted relative to at least a part of the frame to enable the engager to move to and from contact with the shaft of the rotor when the frame is mounted at the crusher; and a drive component (107, 108, 109) coupled to the rod to rotate the engager and impart rotational drive to the shaft of the rotor. a frame; at least one mounting (103, 112) provided at the frame to releasably mount the device at an external region of the crusher; a rod rotatably mounted at the frame; a shaft engager provided at one end of the rod to engage an end of the shaft of the rotor so as to rotatably lock the rod and the shaft; the shaft engager being adjustably mounted relative to at least a part of the frame to enable the engager to move to and from contact with the shaft of the rotor when the frame is mounted at the crusher; and a drive component (107, 108, 109) coupled to the rod to rotate the engager and impart rotational drive to the shaft of the rotor.
A method for providing an enriched population of retinal pigment epithelial cells comprising: a) obtaining a starting cell population comprising RPE cells, wherein the starting cell population is prepared from induced pluripotent stem cells; and b) enriching said starting cell population for RPE cells by removing therefrom cells that are positive for CD24, cells that are positive for CD56 and/or cells that are positive for CD90, thereby providing a RPE-enriched cell population that is enriched for RPE cells as compared to the starting cell population. a) obtaining a starting cell population comprising RPE cells, wherein the starting cell population is prepared from induced pluripotent stem cells; and b) enriching said starting cell population for RPE cells by removing therefrom cells that are positive for CD24, cells that are positive for CD56 and/or cells that are positive for CD90, thereby providing a RPE-enriched cell population that is enriched for RPE cells as compared to the starting cell population.
System for predicting a physical quality with an impediment to accurate measurement, comprising: a sensor configured to detect, in real time, the physical quality (Q detect), wherein measurement of the physical quality is subject to a time-related impediment; a first infinite impulse response filter configured to filter Q detect and to output a first filtered quality measurement (Q filtered1); a processor configured to calculate, in real time, the estimated quality Q estimate using Q detect and Q filtered1; a second infinite impulse response filter configured to filter Q filtered1 and to output a second filtered quality measurement (Q filtered2); wherein said processor is configured to calculate the estimated quality Q estimate using Q filtered1 and Q filtered2; and an additional infinite impulse response filter configured to filter Q filtered1 and to output an additional filtered quality measurement (Q filteredadd); wherein said processor is configured to calculate the estimated quality Q estimate using Q filteredadd; wherein said processor is configured to calculate the estimated quality Q estimate using the formula Q estimate = Q detect + (Q detect - Q filtered2) + (Q detect - Q filteredadd). a sensor configured to detect, in real time, the physical quality (Q detect), wherein measurement of the physical quality is subject to a time-related impediment; a first infinite impulse response filter configured to filter Q detect and to output a first filtered quality measurement (Q filtered1); a processor configured to calculate, in real time, the estimated quality Q estimate using Q detect and Q filtered1; a second infinite impulse response filter configured to filter Q filtered1 and to output a second filtered quality measurement (Q filtered2); wherein said processor is configured to calculate the estimated quality Q estimate using Q filtered1 and Q filtered2; and an additional infinite impulse response filter configured to filter Q filtered1 and to output an additional filtered quality measurement (Q filteredadd); wherein said processor is configured to calculate the estimated quality Q estimate using Q filteredadd;
A method comprising: generating at least one signaling message at the network; associating a packet-switched, PS,-specific power control parameter (300A-C) with the at least one signaling message (302, 308, 310); transmitting the at least one signaling message (302, 308, 310) from the network to the terminal via a point-to-point communication to define a PS output power level to be used as the terminal's output power level of over-the-air, OTA, transmission signals for PS traffic in dual transfer mode, DTM, using the PS-specific power control parameter (300A-C) received via the at least one signaling message (302, 308, 310). generating at least one signaling message at the network; associating a packet-switched, PS,-specific power control parameter (300A-C) with the at least one signaling message (302, 308, 310); transmitting the at least one signaling message (302, 308, 310) from the network to the terminal via a point-to-point communication to define a PS output power level to be used as the terminal's output power level of over-the-air, OTA, transmission signals for PS traffic in dual transfer mode, DTM, using the PS-specific power control parameter (300A-C) received via the at least one signaling message (302, 308, 310).
A method for displaying video content, comprising: determining, by a processor-based device coupled to a sensor device, a focal area of a viewer of a content item displayed on a display device coupled to the processor-based device, the content item being a video content item; retrieving, by the processor-based device, a low bit rate version of the content item; retrieving, by the processor-based device, a portion of a high bit rate version of the content item corresponding to the focal area; combining, by the processor-based device, the portion of the high bit rate version of the content item with the low bit rate version of the content item to generate a combined image by replacing a set of pixels in the frame of the low bit rate version of the content item with the portion of the high bit rate version of the content item, wherein the portion of the high bit rate version of the content item includes a set of pixels selected from a corresponding frame of the high bit rate version of the content item based on the focal area; and causing the combined image to be displayed to the viewer via the display device. determining, by a processor-based device coupled to a sensor device, a focal area of a viewer of a content item displayed on a display device coupled to the processor-based device, the content item being a video content item; retrieving, by the processor-based device, a low bit rate version of the content item; retrieving, by the processor-based device, a portion of a high bit rate version of the content item corresponding to the focal area; combining, by the processor-based device, the portion of the high bit rate version of the content item with the low bit rate version of the content item to generate a combined image by replacing a set of pixels in the frame of the low bit rate version of the content item with the portion of the high bit rate version of the content item, wherein the portion of the high bit rate version of the content item includes a set of pixels selected from a corresponding frame of the high bit rate version of the content item based on the focal area; and causing the combined image to be displayed to the viewer via the display device.
A wireless power transmitter, comprising: a power conversion unit configured to transmit wireless power generated based on magnetic coupling to a wireless power receiver in a power transfer phase; and a communication/control unit configured to receive, from the wireless power receiver, a first received power packet informing about a first received power value for power calibration and a second received power packet informing about a second received power value for power calibration, perform initial calibration for a power parameter using the first received power packet and the second received power packet, and perform a detection of foreign objects using a power loss determined using the power parameter subjected to the initial calibration, wherein the communication/control unit is further configured to: receive, from the wireless power receiver, a subsequent second received power packet informing about a third received power value for power calibration, perform subsequent calibration for the power parameter using the first received power packet, the second received power packet and the subsequent second received power packet, and perform the detection of the foreign objects using a power loss determined using the power parameter subjected to the subsequent calibration. a power conversion unit configured to transmit wireless power generated based on magnetic coupling to a wireless power receiver in a power transfer phase; and a communication/control unit configured to receive, from the wireless power receiver, a first received power packet informing about a first received power value for power calibration and a second received power packet informing about a second received power value for power calibration, perform initial calibration for a power parameter using the first received power packet and the second received power packet, and perform a detection of foreign objects using a power loss determined using the power parameter subjected to the initial calibration, wherein the communication/control unit is further configured to: receive, from the wireless power receiver, a subsequent second received power packet informing about a third received power value for power calibration, perform subsequent calibration for the power parameter using the first received power packet, the second received power packet and the subsequent second received power packet, and perform the detection of the foreign objects using a power loss determined using the power parameter subjected to the subsequent calibration. receive, from the wireless power receiver, a subsequent second received power packet informing about a third received power value for power calibration, perform subsequent calibration for the power parameter using the first received power packet, the second received power packet and the subsequent second received power packet, and perform the detection of the foreign objects using a power loss determined using the power parameter subjected to the subsequent calibration.