mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: at least a first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C); and at least a second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C); wherein the first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) and the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) are arranged to combine light emitted by the first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) with light emitted by the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) to provide a white light output from the light emitting device; characterized in that the first phosphor-converted LED (112A-112D, 118; 124, 410, 494A-494C) is configured to emit light having a desaturated orange color point comprising CIE 1976 color coordinates 0.3<u'<0.3 5 and v'>0.52; and the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) is configured to emit light having a desaturated cyan color point comprising CIE 1976 color coordinates 0.15<u'<0.20 and 0.47<v'<0.52. at least a first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C); and at least a second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C); wherein the first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) and the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) are arranged to combine light emitted by the first phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) with light emitted by the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) to provide a white light output from the light emitting device; characterized in that the first phosphor-converted LED (112A-112D, 118; 124, 410, 494A-494C) is configured to emit light having a desaturated orange color point comprising CIE 1976 color coordinates 0.3<u'<0.3 5 and v'>0.52; and the second phosphor-converted LED (112A-112D, 118, 124, 410, 494A-494C) is configured to emit light having a desaturated cyan color point comprising CIE 1976 color coordinates 0.15<u'<0.20 and 0.47<v'<0.52.
An aerator with coring depth adjustment, comprising: a frame supported by a pair of wheels adjacent a first end and a steerable wheel adjacent a second end thereof; a coring head on the second end of the frame including a plurality of tines that reciprocate vertically to a coring depth during operation of the coring head; characterized by a coring depth adjust rod having a generally vertical axis and being centrally positioned between a left side and a right side of the coring head; a portion of the coring depth adjust rod being threaded to a frame member of the coring head, and a base of the rod abutting a stop on a frame member of the aerator to support the coring head; the coring depth adjust rod rotating on its generally vertical axis to raise and lower the coring head relative to the aerator frame to vary the coring depth. a frame supported by a pair of wheels adjacent a first end and a steerable wheel adjacent a second end thereof; a coring head on the second end of the frame including a plurality of tines that reciprocate vertically to a coring depth during operation of the coring head; characterized by a coring depth adjust rod having a generally vertical axis and being centrally positioned between a left side and a right side of the coring head; a portion of the coring depth adjust rod being threaded to a frame member of the coring head, and a base of the rod abutting a stop on a frame member of the aerator to support the coring head; the coring depth adjust rod rotating on its generally vertical axis to raise and lower the coring head relative to the aerator frame to vary the coring depth.
A system comprising: means (423, 523, 623) for receiving user preference data for presentation of 3D image content comprising an original image and a synthesized image, wherein the user preference data comprises a user-entered value for selecting a dominant-eye parameter specifying which of an original right image and an original left image to use in rendering the 3D image content; means (422, 532, 622A) for storing a disparity map based on disparity values associated with the 3D image content; means (422, 532, 622A) for modifying the disparity map based on the user preference data; means for rendering 3D image content based on the modified disparity map, wherein the means for rendering 3D image content is configured to render a synthesized image on the left of an original right image, if the dominant-eye parameter specifies the original right image and, wherein the means for rendering 3D image content is configured to render a synthesized image on the right of an original left image, if the dominant-eye parameter specifies the original left image. means (423, 523, 623) for receiving user preference data for presentation of 3D image content comprising an original image and a synthesized image, wherein the user preference data comprises a user-entered value for selecting a dominant-eye parameter specifying which of an original right image and an original left image to use in rendering the 3D image content; means (422, 532, 622A) for storing a disparity map based on disparity values associated with the 3D image content; means (422, 532, 622A) for modifying the disparity map based on the user preference data; means for rendering 3D image content based on the modified disparity map, wherein the means for rendering 3D image content is configured to render a synthesized image on the left of an original right image, if the dominant-eye parameter specifies the original right image and, wherein the means for rendering 3D image content is configured to render a synthesized image on the right of an original left image, if the dominant-eye parameter specifies the original left image.
Drive with a two-speed transmission, with an electric machine which is connected to an input shaft, wherein the input shaft carries two shift wheels (8A, 7A) for two gear stages (8, 7), two clutches (K1, K2) in a clutch unit, and two freewheels (5, 6), and is connectable to an output shaft with two fixed wheels (8B, 7B) and with a final driven wheel, wherein the clutches (K1, K2) are connected to and switchable by way of a purely mechanical centrifugal force module as the sole switching element and the two-speed transmission is connected to a hydraulic module serving merely for oiling the clutches (K1, K2) and having a hydraulic cylinder with a piston, wherein the piston of the hydraulic cylinder is moved in a purely mechanical manner.
A method for producing a power semiconductor module arrangement, the method comprising: arranging at least one semiconductor substrate in a housing, each semiconductor substrate comprising a dielectric insulation layer and a first metallization layer attached to the dielectric insulation layer, and the housing comprising at least one through hole extending through a component (66, 662) of the housing; inserting at least one pin or bolt into the at least one through hole, wherein an upper end of the pin or bolt is not inserted into the through hole; arranging a printed circuit board on the housing; arranging the housing on a heat sink, the heat sink comprising at least one hole, wherein the housing is arranged on the heat sink such that each of the at least one through hole is aligned with one of the at least one hole in the heat sink; and using a first pressing tool, thereby exerting a force on at least one defined contact area of the printed circuit board and pressing each of the at least one pin or bolt into the respective hole in the heat sink, wherein each of the at least one defined contact area is arranged directly above one of the at least one pin or bolt. arranging at least one semiconductor substrate in a housing, each semiconductor substrate comprising a dielectric insulation layer and a first metallization layer attached to the dielectric insulation layer, and the housing comprising at least one through hole extending through a component (66, 662) of the housing; inserting at least one pin or bolt into the at least one through hole, wherein an upper end of the pin or bolt is not inserted into the through hole; arranging a printed circuit board on the housing; arranging the housing on a heat sink, the heat sink comprising at least one hole, wherein the housing is arranged on the heat sink such that each of the at least one through hole is aligned with one of the at least one hole in the heat sink; and using a first pressing tool, thereby exerting a force on at least one defined contact area of the printed circuit board and pressing each of the at least one pin or bolt into the respective hole in the heat sink, wherein each of the at least one defined contact area is arranged directly above one of the at least one pin or bolt.
Method for the vibration ramming of a driveable element into a foundation with the introduction of high-frequency vibrations which are generated by means of a vibration device fastened to the driveable element, by means of which method the driveable element into the foundation ahead of a profile foot of the driveable element with at least partial liquefaction of the foundation ahead of the profile foot, wherein a mass of the vibration device and/or of the driveable element is varied during the insertion of the driveable element into the foundation, characterized in that a vibration frequency of the vibration device during the vibration operation is varied within a given liquefaction frequency band of the foundation.
An isolated, synthetic, or recombinant nucleic acid selected from the group consisting of: (a) a nucleic acid encoding a polypeptide having pullulanase activity comprising a nucleic acid sequence having the sequence according to SEQ ID NO: 1; (b) a nucleic acid encoding a polypeptide having pullulanase activity comprising a nucleic acid sequence having the sequence according to SEQ ID NO: 1, or a fragment thereof, wherein the fragment comprises at least 30 consecutive nucleotides of the sequence of SEQ ID NO. 1 and encodes a polypeptide having pullulanase activity; (c) a nucleic acid sequence encoding a polypeptide having pullulanase activity comprising an amino acid sequence having the sequence according to SEQ ID NO: 2; (d) the nucleic acid of (a), (b), or (c) encoding a polypeptide having pullulanase activity but lacking a signal sequence or a carbohydrate binding module; (e) the nucleic acid of (a), (b), (c), or (d) encoding a polypeptide having pullulanase activity, and further comprising a heterologous sequence; (f) the nucleic acid sequence of (e), wherein the heterologous sequence comprises a sequence encoding a heterologous signal sequence, carbohydrate binding module, catalytic domain, or a combination thereof, or the heterologous signal sequence, carbohydrate binding module, or catalytic domain is derived from another pullulanase enzyme, or a non-pullulanase enzyme; or (g) a nucleic acid sequence fully complementary to (a), (b), (c), (d), (e), or (f). (a) a nucleic acid encoding a polypeptide having pullulanase activity comprising a nucleic acid sequence having the sequence according to SEQ ID NO: 1; (b) a nucleic acid encoding a polypeptide having pullulanase activity comprising a nucleic acid sequence having the sequence according to SEQ ID NO: 1, or a fragment thereof, wherein the fragment comprises at least 30 consecutive nucleotides of the sequence of SEQ ID NO. 1 and encodes a polypeptide having pullulanase activity; (c) a nucleic acid sequence encoding a polypeptide having pullulanase activity comprising an amino acid sequence having the sequence according to SEQ ID NO: 2; (d) the nucleic acid of (a), (b), or (c) encoding a polypeptide having pullulanase activity but lacking a signal sequence or a carbohydrate binding module; (e) the nucleic acid of (a), (b), (c), or (d) encoding a polypeptide having pullulanase activity, and further comprising a heterologous sequence; (f) the nucleic acid sequence of (e), wherein the heterologous sequence comprises a sequence encoding a heterologous signal sequence, carbohydrate binding module, catalytic domain, or a combination thereof, or the heterologous signal sequence, carbohydrate binding module, or catalytic domain is derived from another pullulanase enzyme, or a non-pullulanase enzyme; or (g) a nucleic acid sequence fully complementary to (a), (b), (c), (d), (e), or (f).
A transport refrigeration system including a tractor or vehicle, a container, and an engineless transportation refrigeration unit, the engineless transportation refrigeration unit comprising: a compressor configured to compress a refrigerant; a compressor motor configured to drive the compressor; an evaporator heat exchanger operatively coupled to the compressor; an energy storage device for providing power to the compressor motor; and an evaporator fan configured to provide return airflow from a compartment of the container through a return air intake and flow the return airflow over the evaporator heat exchanger; wherein the engineless transportation refrigeration unit is configured to provide conditioned supply airflow to the compartment; wherein the engineless transportation refrigeration unit is configured to divert a selected amount of the return airflow from the return air intake to the energy storage device to thermodynamically adjust a temperature of the energy storage device, and wherein the engineless transport refrigeration unit comprises a barrier configured to direct the selected amount of return airflow through the energy storage device and towards the evaporator heat exchanger, wherein the engineless transportation refrigeration unit is configured such that upon exiting the energy storage device the selected amount of return airflow mixes with non-bypassed return airflow from the compartment before entering the evaporator heat exchanger. a compressor configured to compress a refrigerant; a compressor motor configured to drive the compressor; an evaporator heat exchanger operatively coupled to the compressor; an energy storage device for providing power to the compressor motor; and an evaporator fan configured to provide return airflow from a compartment of the container through a return air intake and flow the return airflow over the evaporator heat exchanger; wherein the engineless transportation refrigeration unit is configured to provide conditioned supply airflow to the compartment; wherein the engineless transportation refrigeration unit is configured to divert a selected amount of the return airflow from the return air intake to the energy storage device to thermodynamically adjust a temperature of the energy storage device, and wherein the engineless transport refrigeration unit comprises a barrier configured to direct the selected amount of return airflow through the energy storage device and towards the evaporator heat exchanger, wherein the engineless transportation refrigeration unit is configured such that upon exiting the energy storage device the selected amount of return airflow mixes with non-bypassed return airflow from the compartment before entering the evaporator heat exchanger.
A matter elimination catheter comprising: a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body including: an infusion lumen, an aspiration lumen fluidly isolated from the infusion lumen, and a septum of the catheter body interposed between the infusion and aspiration lumens; a drive shaft within the infusion lumen, the drive shaft configured to provide rotation near the catheter distal portion; a guide wire lumen within the drive shaft; and a guide wire liner within the guide wire lumen of the drive shaft, wherein the drive shaft is rotatable relative to the guide wire liner; wherein the guide wire liner is a tubular member configured to receive a guidewire extending therethrough; wherein the infusion lumen, the drive shaft and the guide wire lumen are fluidly separated from the aspiration lumen with the septum. a catheter body extending from a catheter proximal portion to a catheter distal portion, the catheter body including: an infusion lumen, an aspiration lumen fluidly isolated from the infusion lumen, and a septum of the catheter body interposed between the infusion and aspiration lumens; an infusion lumen, an aspiration lumen fluidly isolated from the infusion lumen, and a septum of the catheter body interposed between the infusion and aspiration lumens; a drive shaft within the infusion lumen, the drive shaft configured to provide rotation near the catheter distal portion; a guide wire lumen within the drive shaft; and a guide wire liner within the guide wire lumen of the drive shaft, wherein the drive shaft is rotatable relative to the guide wire liner; wherein the guide wire liner is a tubular member configured to receive a guidewire extending therethrough; wherein the infusion lumen, the drive shaft and the guide wire lumen are fluidly separated from the aspiration lumen with the septum.
A method for operating a navigation device, wherein a user input, which contains a location indication, is received and navigation data for a destination described by the location indication are determined on the basis of the location indication in a navigation database, wherein a real image of the destination is requested from at least one device-external image source (17, 18) and is displayed on a display surface when the real image is received, characterized in that if it is signaled by the at least one image source (17, 18), that the real image is lacking, a replacement real-time image is requested from a replacement webcam closest to the destination and a distance indication of the replacement webcam from the destination is determined and is displayed together with the replacement real-time image.
An isolated hepatic stellate precursor cell, which expresses both VCAM antigen and β3-integrin antigen and does not express both MHC class Ia antigen and glial fibrillary acidic protein (GFAP).
A method of transferring a URI from a first SIP entity to a second SIP entity, through any number of intermediate back-to-back user agents, the method characterised by: at the first SIP entity, generating a SIP message and including a URI to be transferred in both a Contact header of the message and in a persistent header of the message, wherein a URI within the persistent header is not to be changed or replaced by a back-to-back user agent, and sending the SIP message to the second SIP entity; and at the or each intermediate back-to-back user agent, receiving the SIP message from the first SIP entity, and forwarding the SIP message to the second SIP entity with its persistent header unchanged. at the first SIP entity, generating a SIP message and including a URI to be transferred in both a Contact header of the message and in a persistent header of the message, wherein a URI within the persistent header is not to be changed or replaced by a back-to-back user agent, and sending the SIP message to the second SIP entity; and at the or each intermediate back-to-back user agent, receiving the SIP message from the first SIP entity, and forwarding the SIP message to the second SIP entity with its persistent header unchanged.
A method of distributing a population of target molecules into a plurality of size-confined reaction or observation regions, the method comprising: providing a structure comprising the plurality of size-confined reaction or observation regions, wherein the size-confined regions are the wells of zero mode waveguides (ZMWs); providing the population of target molecules to be distributed; linking at least one nucleic acid sizing moiety to individual target molecules, wherein the sizing moieties are of sufficient size, relative to the size-confined reaction or observation regions, to sterically inhibit entry of additional molecule so that only a single sizing moiety will fit into the size-confined regions, wherein the size-confined reaction or observation region is 250 nm or smaller in at least one dimension; and, loading the target molecules into the regions, such that the size of the confined regions and the selected charge on the confined regions and on the sizing moieties or target molecules results in a single target molecule distributed into each region, wherein at least 50% of size-confined regions on the structure are loaded with a single target molecule; thereby distributing the population of target molecules into the plurality of size confined regions. providing a structure comprising the plurality of size-confined reaction or observation regions, wherein the size-confined regions are the wells of zero mode waveguides (ZMWs); providing the population of target molecules to be distributed; linking at least one nucleic acid sizing moiety to individual target molecules, wherein the sizing moieties are of sufficient size, relative to the size-confined reaction or observation regions, to sterically inhibit entry of additional molecule so that only a single sizing moiety will fit into the size-confined regions, wherein the size-confined reaction or observation region is 250 nm or smaller in at least one dimension; and, loading the target molecules into the regions, such that the size of the confined regions and the selected charge on the confined regions and on the sizing moieties or target molecules results in a single target molecule distributed into each region, wherein at least 50% of size-confined regions on the structure are loaded with a single target molecule; thereby distributing the population of target molecules into the plurality of size confined regions.
Connecting terminal for connecting at least two electrical conductors (17, 18) to one another, the connecting terminal having a housing in which at least one first conductor guide channel for guiding a first electrical conductor and at least one second conductor guide channel for guiding a second electrical conductor are formed, characterized in that the first and the second conductor guide channel (15, 16) cross each other in a slanting manner at an angle (α) at a conductor clamping point at which the first electrical conductor can be clamped together with the second electrical conductor.
A system for determining the drift between the clocks of an encoder and decoder comprising: a receiver configured to receive a plurality of frames, with each frame comprising one or more packets of data, wherein at least two of the packets each comprise an encoder timestamp, characterised by; a controller configured to produce a software interrupt upon receipt of each frame; a first module configured to create a decoder timestamp for each of said one or more packets of data in response to the software interrupt; using a duration of the frame, an arrival time of the packet, and that proportion of the frame which precedes the packet; and a second module configured to determine drift by calculating the difference between the encoder timestamps and decoder timestamps. a receiver configured to receive a plurality of frames, with each frame comprising one or more packets of data, wherein at least two of the packets each comprise an encoder timestamp, characterised by; a controller configured to produce a software interrupt upon receipt of each frame; a first module configured to create a decoder timestamp for each of said one or more packets of data in response to the software interrupt; using a duration of the frame, an arrival time of the packet, and that proportion of the frame which precedes the packet; and a second module configured to determine drift by calculating the difference between the encoder timestamps and decoder timestamps.