mhurhangee/ep-ind-claims huggingface dataset:
A recombinant host cell capable of producing xylitol, wherein said host cell comprises: an heterologous nucleic acid sequence encoding a NAD + -specific D-arabitol 4-oxidoreductase (EC 1.1.1.11) using D-arabitol as substrate and producing D-xylulose as product; and, an heterologous nucleic acid sequence encoding a NADPH-specific xylitol dehydrogenase using D-xylulose as substrate and producing xylitol as product, wherein the host cell produces D-arabitol from D-glucose, in particular under high osmotic pressure medium, and does not consume D-arabitol as a sole carbon source. an heterologous nucleic acid sequence encoding a NAD + -specific D-arabitol 4-oxidoreductase (EC 1.1.1.11) using D-arabitol as substrate and producing D-xylulose as product; and, an heterologous nucleic acid sequence encoding a NADPH-specific xylitol dehydrogenase using D-xylulose as substrate and producing xylitol as product, wherein the host cell produces D-arabitol from D-glucose, in particular under high osmotic pressure medium, and does not consume D-arabitol as a sole carbon source.
An emergency key for a motor vehicle for arrangement inside a mobile identification transmitter, having a key blade for actuating a lock cylinder, wherein a code is provided on the key blade, and a key head for holding by a user which is made of metal, wherein the key head has a fastening portion for cooperating with the key blade, characterized in that the key blade is conformed on the fastening portion of the key head by means of a plastic overmoulding process.
A testing system for a satellite payload, the testing system comprising: a built-in testing component configured to be within or to be affixed to a satellite, the built-in testing component comprising a built-in testing component input and a built-in testing component output; and a payload component configured to be within the satellite, the payload component comprising a payload component input communicatively connected to the built-in testing component output and a payload component output communicatively connected to the built-in testing component input, wherein the built-in testing component is configured to generate a digital test signal (121, 131) in response to receiving a test signal from a loopback test equipment external to the satellite, to transmit a digital test signal (121, 131) from the built-in testing component output to the payload component input, and to receive a digital output signal (134, 123) at the built-in testing component input from the payload component output. a built-in testing component configured to be within or to be affixed to a satellite, the built-in testing component comprising a built-in testing component input and a built-in testing component output; and a payload component configured to be within the satellite, the payload component comprising a payload component input communicatively connected to the built-in testing component output and a payload component output communicatively connected to the built-in testing component input, wherein the built-in testing component is configured to generate a digital test signal (121, 131) in response to receiving a test signal from a loopback test equipment external to the satellite, to transmit a digital test signal (121, 131) from the built-in testing component output to the payload component input, and to receive a digital output signal (134, 123) at the built-in testing component input from the payload component output.
A method for producing a riser for inserting into a casting mold used for casting metals, which riser consists of a riser body, which riser body surrounds an inner cavity as a riser volume and is composed of an exothermic and/or insulating riser material, the riser body having a respective lateral wall region, a cap region as well as base region facing a mold cavity formed in the casting mold, wherein a riser opening is formed in the base region for connecting the inner cavity of the riser body with the mold cavity of the casting mold during the casting process and the inner cavity has, in at least a partial region, a diameter that is larger than the diameter of the riser opening, and wherein the riser body is produced by shooting in a core shooter, wherein in order to produce a single-piece riser body having the specified shape, a cavity reproducing the outer contour of the riser body is formed in a two-part core box having a bottom box and a top box, characterized in that, in order to produce the inner cavity in the riser body, a king, the outer contour of which can be reversibly expanded, is set in the cavity in such a way that, in the shooting of the riser body, the wall region, the cap region and the base region of the riser body are formed by the riser material introduced into the intermediate space between the expanded king and the inner wall of the cavity, wherein the riser opening arranged in the base region of the riser body is formed by a foot segment of the king, which foot segment specifies a first diameter, and the king does not protrude beyond the diameter of the foot segment in the non-expanded position of the king such that the completely shot riser body can be removed from the king by means of the riser opening of the riser body during unmolding from the core box.
Parachute device for elevating devices comprising a wedging block which in turn comprises a catch element, located on a first side of a guide of the elevating device, and a braking element, located on a second side, opposite the first side, of the guide, so that in a rest position the guide is not in contact with the braking and catch elements, while in a wedging position the braking element exerts a force on the guide that keeps it in contact with the catch element, wherein the parachute device comprises a rolling element housed in a longitudinal guide located, oriented parallel to the guide, on a support plate which in turn is actuated by elastic pushing means, wherein said rolling element is linked to the braking element so that every linear relative movement between the rolling and braking elements is prevented, wherein the device comprises a friction element that can contact the rolling element, so that the passage from the rest position to the wedging position occurs when the friction element contacts the rolling element and there is relative movement between the support plate and the guide, forcing the movement of the rolling element along the longitudinal guide of the support plate while the rolling element rolls on the friction surface and the guide itself, characterized in that the means elastic pushing elements keep the rolling element in contact, with the possibility of rolling, with the guide.
A cementitious composition which contains: - a polymeric micro-gel; - a cement; - water; - optionally at least one cementing additive; wherein the polymeric micro-gel contains at least a polymer structured by at least one crosslinking agent, wherein the structured polymer is obtained by polymerization in an inverse microemulsion of at least one monomer, wherein the microemulsion comprises droplets of a hydrophilic phase with a size of between 20 and 500 nm. - a polymeric micro-gel; - a cement; - water; - optionally at least one cementing additive; wherein the polymeric micro-gel contains at least a polymer structured by at least one crosslinking agent, wherein the structured polymer is obtained by polymerization in an inverse microemulsion of at least one monomer, wherein the microemulsion comprises droplets of a hydrophilic phase with a size of between 20 and 500 nm. wherein the polymeric micro-gel contains at least a polymer structured by at least one crosslinking agent, wherein the structured polymer is obtained by polymerization in an inverse microemulsion of at least one monomer, wherein the microemulsion comprises droplets of a hydrophilic phase with a size of between 20 and 500 nm.
A compound of the formula or a pharmaceutically acceptable salt thereof; and including any stereoisomeric forms thereof; wherein n4 is 2-6; each R 1 is independently H, halo, alkyl (C 1-10), alkoxy (C 1-10), or CF 3; R 3 is H, alkyl (C 1-10), alkenyl (C 2-10), arylalkyl ("C" 5-12 -aryl-C 1-6 alkyl), or aryl ("C" 5-12); each R 4 is independently H or alkyl (C 1-10), or the two R 4 groups may be taken together with the ring to which they are attached to form a phenyl ring; and each R 6 is independently H, arylalkyl ("C" 5-12 -aryl-C 1-6 alkyl), arylacyl ("C" 5-12 -arylacyl), or arylsulfonyl ("C" 5-12 -arylsulfonyl), wherein the aryl ("C" 5-12) moieties thereof optionally contain one or more nitrogen atoms. wherein n4 is 2-6; each R 1 is independently H, halo, alkyl (C 1-10), alkoxy (C 1-10), or CF 3; R 3 is H, alkyl (C 1-10), alkenyl (C 2-10), arylalkyl ("C" 5-12 -aryl-C 1-6 alkyl), or aryl ("C" 5-12); each R 4 is independently H or alkyl (C 1-10), or the two R 4 groups may be taken together with the ring to which they are attached to form a phenyl ring; and each R 6 is independently H, arylalkyl ("C" 5-12 -aryl-C 1-6 alkyl), arylacyl ("C" 5-12 -arylacyl), or arylsulfonyl ("C" 5-12 -arylsulfonyl), wherein the aryl ("C" 5-12) moieties thereof optionally contain one or more nitrogen atoms.
An apparatus (210, 310) for operating on tissue, the apparatus comprising: (a) a body assembly (220, 320); (b) an ultrasonic transducer operable to convert electrical power into ultrasonic vibrations: (c) a shaft assembly (230, 330) extending distally from the body assembly, wherein the shaft assembly comprises a waveguide (236, 336) operable to transmit ultrasonic vibrations; (d) a motor (250, 350) operable to rotate the ultrasonic transducer to thereby selectively couple the ultrasonic transducer with the waveguide; and characterised by: (e) a locking feature (262, 260, 362, 360) configured to selectively prevent rotation of at least a portion of the shaft assembly relative to the body assembly. (a) a body assembly (220, 320); (b) an ultrasonic transducer operable to convert electrical power into ultrasonic vibrations: (c) a shaft assembly (230, 330) extending distally from the body assembly, wherein the shaft assembly comprises a waveguide (236, 336) operable to transmit ultrasonic vibrations; (d) a motor (250, 350) operable to rotate the ultrasonic transducer to thereby selectively couple the ultrasonic transducer with the waveguide; and characterised by: (e) a locking feature (262, 260, 362, 360) configured to selectively prevent rotation of at least a portion of the shaft assembly relative to the body assembly.
An apparatus comprising processing circuitry being configured to cause the apparatus at least to: generate a traffic class value for use in a radio communication system by translating communication requirements of an application to be implemented into at least one parameter including the traffic class value, wherein the generated traffic class value is one within a defined set of traffic class values, each traffic class value within the set being associated with at least a resource allocation and a retention priority relative to the other traffic class values within the set; include said traffic class value as a parameter in a QoS, quality of service, block; and cause said QoS block to be sent to a network entity, wherein said QoS block indicates QoS requirements of said application to said network entity for equipping the network entity to perform admission control based at least on the resource allocation and the retention priority associated with the traffic class value. generate a traffic class value for use in a radio communication system by translating communication requirements of an application to be implemented into at least one parameter including the traffic class value, wherein the generated traffic class value is one within a defined set of traffic class values, each traffic class value within the set being associated with at least a resource allocation and a retention priority relative to the other traffic class values within the set; include said traffic class value as a parameter in a QoS, quality of service, block; and cause said QoS block to be sent to a network entity, wherein said QoS block indicates QoS requirements of said application to said network entity for equipping the network entity to perform admission control based at least on the resource allocation and the retention priority associated with the traffic class value.
A method for checking the setting of a headlight (2, 3) in a motor vehicle, in which: a) in a specified basic position of the headlight (2, 3) a projected area facing towards the headlight (2, 3) is detected by means of an image recording means of the motor vehicle at one or more recording times comprising a recording time with activated headlight (2, 3), as a result of which image data with spatial position information are obtained, wherein the image data include the projected area; b) from the image data a 3D model of the projected area which describes the projected area in a reference system of the motor vehicle based on a large number of positions on the surface of the projected area is established; c) from the image data an actual position (P Li, P Ri) of an area of light within the light distribution of the headlight (2, 3) on the projected area is identified in the reference system of the motor vehicle, wherein the area of light is characterised by a beam path ( SR L, SR R) specified for the basic position in the light of the headlight (2, 3) in the reference system of the motor vehicle; d) based on the specified beam path ( SR L, SR R) and the 3D model of the projected area, a desired position (P Ls, P Rs) of the area of light within the light distribution of the headlight (2, 3) on the projected area is established in the reference system of the motor vehicle; e) a misalignment of the headlight (1, 2) is ascertained if the deviation between the actual position (P Li, P Ri) and the desired position (P Ls, P Rs) of the area of light exceeds a specified threshold value. a) in a specified basic position of the headlight (2, 3) a projected area facing towards the headlight (2, 3) is detected by means of an image recording means of the motor vehicle at one or more recording times comprising a recording time with activated headlight (2, 3), as a result of which image data with spatial position information are obtained, wherein the image data include the projected area; b) from the image data a 3D model of the projected area which describes the projected area in a reference system of the motor vehicle based on a large number of positions on the surface of the projected area is established; c) from the image data an actual position (P Li, P Ri) of an area of light within the light distribution of the headlight (2, 3) on the projected area is identified in the reference system of the motor vehicle, wherein the area of light is characterised by a beam path ( SR L, SR R) specified for the basic position in the light of the headlight (2, 3) in the reference system of the motor vehicle; d) based on the specified beam path ( SR L, SR R) and the 3D model of the projected area, a desired position (P Ls, P Rs) of the area of light within the light distribution of the headlight (2, 3) on the projected area is established in the reference system of the motor vehicle; e) a misalignment of the headlight (1, 2) is ascertained if the deviation between the actual position (P Li, P Ri) and the desired position (P Ls, P Rs) of the area of light exceeds a specified threshold value.
Device for loading concrete mixers with fresh concrete, wherein the device comprises a collection hopper for discharging concrete into a feed hopper of a concrete mixer, wherein the device further comprises an anti-drip device in order to catch any concrete that continues to run out of the collection hopper after loading is complete, and wherein the anti-drip device comprises a drip catcher and a cleaning system comprising more than one spray nozzle for flushing the feed hopper with water, wherein the cleaning system is directly attached to the drip catcher, characterised in that the anti-drip device comprises a mechanism that is driven by an adjustment unit and is attached to supports in order to pivot the anti-drip device and the cleaning system back and forth into an open loading position, into a closed cleaning position, or by a predetermined pivot angle, wherein the adjustment unit is a pivot cylinder with travel limitation.
Impact-proof door opener having a housing for installation in a door having a door frame and a door leaf which is mounted moveably thereon, in particular pivotably, having a moveable door opener latch, a remote-controllable locking device and an interposed changer, which is formed as a one-armed or multi-armed lever and cooperates with the door opener latch in such a manner that the door opener latch can be switched to a locking position and a release position, wherein it is provided that the locking device comprises a coil and a tappet which can be linearly shifted by this coil, said tappet cooperating with the changer directly or via a locking lever, such that this changer can be switched via the tappet operable by the coil between a locking position in which the changer locks the door opener latch and a release position in which the changer releases the door opener latch, characterised in that the tappet has a limiting abutment which bears against the coil or a coil body in the locking position, and the limiting abutment is either formed from an elastomer or has an elastomeric element, and/or the elastomeric element is arranged between the limiting abutment and the coil or the coil body, and/or the coil is connected to the housing via an elastomeric bearing.
A method performed by one or more computers, the method comprising: obtaining data characterizing a scene in an environment that includes a plurality of agents at a current time point, the plurality of agents including a target agent and one or more context agents, the data comprising: (i) context data, the context data comprising data characterizing historical trajectories of the plurality of agents up to the current time point; (ii) keypoint data for the target agent, the keypoint data comprising, for each of a plurality of keypoints on a body of the target agent, respective three-dimensional coordinates of the keypoint at the current time point and one or more preceding time points; processing the context data using a context data encoder neural network to generate a context embedding for the target agent; processing the keypoint data using a keypoint encoder neural network to generate a keypoint embedding for the target agent; generating a combined embedding for the target agent from the context embedding and the keypoint embedding; and processing the combined embedding using a decoder neural network to generate a behavior prediction output for the target agent that characterizes predicted behavior of the target agent after the current time point. obtaining data characterizing a scene in an environment that includes a plurality of agents at a current time point, the plurality of agents including a target agent and one or more context agents, the data comprising: (i) context data, the context data comprising data characterizing historical trajectories of the plurality of agents up to the current time point; (ii) keypoint data for the target agent, the keypoint data comprising, for each of a plurality of keypoints on a body of the target agent, respective three-dimensional coordinates of the keypoint at the current time point and one or more preceding time points; (i) context data, the context data comprising data characterizing historical trajectories of the plurality of agents up to the current time point; (ii) keypoint data for the target agent, the keypoint data comprising, for each of a plurality of keypoints on a body of the target agent, respective three-dimensional coordinates of the keypoint at the current time point and one or more preceding time points; processing the context data using a context data encoder neural network to generate a context embedding for the target agent; processing the keypoint data using a keypoint encoder neural network to generate a keypoint embedding for the target agent; generating a combined embedding for the target agent from the context embedding and the keypoint embedding; and processing the combined embedding using a decoder neural network to generate a behavior prediction output for the target agent that characterizes predicted behavior of the target agent after the current time point.
A modular bone plate including a first plate member including a first connection portion comprising a first hole a second plate member (1', 1") including a second connection portion comprising a second hole; wherein the first plate member is connectable to the second plate member (1', 1") when the first plate member and the second plate member (1', 1") are arranged such that the first hole and the second hole overlap; a connector member (2, 2', 2") that is insertable into the first hole and the second hole when the first hole and the second hole overlap such as to connect the first plate member and the second plate member (1", 1"); and a bone anchor having a shank, wherein the connector member (2, 2', 2") comprises a passage that is configured to accommodate a portion of a bone anchor (100, 100', 100") therein and wherein the passage has a size for guiding through the shank of the bone anchor.
Cover member, adapted for being installed on a top side of a storing means for storing a stack of multiple flat elements having a predefined size, the cover member defining a first opening having a rim portion (13a, 13b), wherein the first opening is adapted to be associated with at least one gripping unit, so that the gripping unit can access the storing means for gripping and removing a flat element through the first opening, when the cover member is installed on the top side of the storing means, wherein the first opening is sized so that a gripped flat element abuts the rim portion (13a, 13b) when being removed through the first opening from the storing means, so as to be bend and separated from an underlying flat element, characterised in that the cover member further includes second and/or third openings (14, 15) adapted to be associated with a second gripping unit (40, 50), so that the second gripping unit (40, 50) can access the storing means through the second and/or third openings (14, 15), when the cover member is installed on the top side of the storing means. the cover member defining a first opening having a rim portion (13a, 13b), wherein the first opening is adapted to be associated with at least one gripping unit, so that the gripping unit can access the storing means for gripping and removing a flat element through the first opening, when the cover member is installed on the top side of the storing means, wherein the first opening is sized so that a gripped flat element abuts the rim portion (13a, 13b) when being removed through the first opening from the storing means, so as to be bend and separated from an underlying flat element, characterised in that the cover member further includes second and/or third openings (14, 15) adapted to be associated with a second gripping unit (40, 50), so that the second gripping unit (40, 50) can access the storing means through the second and/or third openings (14, 15), when the cover member is installed on the top side of the storing means.