mhurhangee/ep-ind-claims huggingface dataset:
A device for use in removing a conveyance member from a material, including: a coupling element for coupling the device to a shaft; a displacement element for being placed at least partly around a conveyance member and for displacing material as the device is advanced along a conveyance member; a driven component for receiving a driving force for driving the device through material; and a material loosener operable to loosen material ahead of the displacement element as the device is advanced along a conveyance member; wherein the material loosener includes a drilling element coupled to a first wheel and the coupling element includes a second wheel cooperating with the first wheel to transfer rotational movement of a shaft to the drilling element; wherein the first wheel includes a perforated track (436, 536); wherein the second wheel is a sprocket (434, 534) comprising teeth configured to press into perforations in the track; wherein the perforated track (436, 536) is provided on or in the displacement element, and the displacement element includes holes or perforations corresponding to and/or aligned with perforations in the perforated track (436, 536), the holes or perforations of the displacement element passing all the way through the displacement element to allow material to be pushed through the displacement element. a coupling element for coupling the device to a shaft; a displacement element for being placed at least partly around a conveyance member and for displacing material as the device is advanced along a conveyance member; a driven component for receiving a driving force for driving the device through material; and a material loosener operable to loosen material ahead of the displacement element as the device is advanced along a conveyance member; wherein the material loosener includes a drilling element coupled to a first wheel and the coupling element includes a second wheel cooperating with the first wheel to transfer rotational movement of a shaft to the drilling element; wherein the first wheel includes a perforated track (436, 536); wherein the second wheel is a sprocket (434, 534) comprising teeth configured to press into perforations in the track; wherein the perforated track (436, 536) is provided on or in the displacement element, and the displacement element includes holes or perforations corresponding to and/or aligned with perforations in the perforated track (436, 536), the holes or perforations of the displacement element passing all the way through the displacement element to allow material to be pushed through the displacement element.
A heat exchanger, comprising: a plurality of plate-shaped fins arranged at predetermined intervals; and a plurality of flat pipes that are arranged in parallel with each other and having an upstream and a downstream side, wherein the flat pipes are inserted into the fins from the downstream side so that a length direction of each flat pipe is orthogonal to the fins, and have a plurality of coolant flow channels, wherein the upstream side is defined as a side on which a side surface of the flat pipes forms a front edge part, the downstream side is defined as a side on which a side surface of the flat pipes forms a rear edge part and an air flow direction is defined as a direction from the upstream side to the downstream side, wherein the fins include flat parts and heat transfer promoting parts raised from the flat parts, wherein exactly two heat transfer promoting parts are arranged symmetrically with respect to a center line between adjacent flat pipes, wherein the heat transfer promoting parts are arranged between a central part in the width direction of the flat pipe and the rear edge part of the flat pipe with respect to the air flow direction, and wherein a boundary line formed by each heat transfer promoting part and the flat part and extending from the upstream side to the downstream side is inclined with respect to the air flow direction to come closer to the adjacent flat pipe in a direction towards the upstream side. a plurality of plate-shaped fins arranged at predetermined intervals; and a plurality of flat pipes that are arranged in parallel with each other and having an upstream and a downstream side, wherein the flat pipes are inserted into the fins from the downstream side so that a length direction of each flat pipe is orthogonal to the fins, and have a plurality of coolant flow channels, wherein the upstream side is defined as a side on which a side surface of the flat pipes forms a front edge part, the downstream side is defined as a side on which a side surface of the flat pipes forms a rear edge part and an air flow direction is defined as a direction from the upstream side to the downstream side, wherein the fins include flat parts and heat transfer promoting parts raised from the flat parts, wherein exactly two heat transfer promoting parts are arranged symmetrically with respect to a center line between adjacent flat pipes, wherein the heat transfer promoting parts are arranged between a central part in the width direction of the flat pipe and the rear edge part of the flat pipe with respect to the air flow direction, and wherein a boundary line formed by each heat transfer promoting part and the flat part and extending from the upstream side to the downstream side is inclined with respect to the air flow direction to come closer to the adjacent flat pipe in a direction towards the upstream side.
An architecture (700, 200) for a scalable artificial neural network, wherein the architecture comprises: an input layer; at least one hidden layer (155, 205); an output layer (160, 210); the input layer, at least one hidden layer and the output layer comprised of one or more neurons (105, 140); a parallelization subsystem configured to provide a variable degree of parallelization simultaneously across a plurality of levels of hardware parallelism involving the input layer, at least one hidden layer (155, 205), and output layer, the parallelization subsystem comprises; a temporal synchronization module configured to synchronize operation among the layers and between neurons over at least one clock cycle; and a spatial synchronization module configured to synchronize parallel processing on an input vector among the neurons, wherein the spatial synchronization module and the temporal synchronization module are configured to automatically translate outputs partitioned according to a variable degree of parallelization of a previous layer into inputs partitioned according to a variable degree of parallelization for a next layer, where the variable degree of parallelization in each layer may be different. an input layer; at least one hidden layer (155, 205); an output layer (160, 210); the input layer, at least one hidden layer and the output layer comprised of one or more neurons (105, 140); a parallelization subsystem configured to provide a variable degree of parallelization simultaneously across a plurality of levels of hardware parallelism involving the input layer, at least one hidden layer (155, 205), and output layer, the parallelization subsystem comprises; a temporal synchronization module configured to synchronize operation among the layers and between neurons over at least one clock cycle; and a spatial synchronization module configured to synchronize parallel processing on an input vector among the neurons, wherein the spatial synchronization module and the temporal synchronization module are configured to automatically translate outputs partitioned according to a variable degree of parallelization of a previous layer into inputs partitioned according to a variable degree of parallelization for a next layer, where the variable degree of parallelization in each layer may be different. a temporal synchronization module configured to synchronize operation among the layers and between neurons over at least one clock cycle; and a spatial synchronization module configured to synchronize parallel processing on an input vector among the neurons, wherein the spatial synchronization module and the temporal synchronization module are configured to automatically translate outputs partitioned according to a variable degree of parallelization of a previous layer into inputs partitioned according to a variable degree of parallelization for a next layer, where the variable degree of parallelization in each layer may be different.
Wafer magazine for semiconductor wafers or wafer-like objects, comprising • a base body resting on a base surface, • a plurality of boundary structures which are fixed to the base body and run transversely to the base surface, and • a base plate which rests on the base body between the boundary structures and which can be moved along the boundary structures along a traversing direction which is oriented substantially perpendicularly to the base surface, wherein a plurality of the boundary structures each comprise an inner side facing the base plate and a respective guide device with a guide means extending at least on the inner side of a boundary structure, wherein the guide means are of flexible design transversely to the traversing direction or cooperates with the base plate in such a way that the movement of the base plate along the traversing direction brings about a movement of the guide means which is oriented substantially along the traversing direction and is of substantially the same speed, characterized in that the guide means are arranged such that a wafer or wafer-like object to be disposed on the base plate comes into mechanical contact with the plurality of the boundary structures via the guide means, only. • a base body resting on a base surface, • a plurality of boundary structures which are fixed to the base body and run transversely to the base surface, and • a base plate which rests on the base body between the boundary structures and which can be moved along the boundary structures along a traversing direction which is oriented substantially perpendicularly to the base surface,
A two-component premix for preparing a heat-expandable and heat-curable epoxy-based material, comprising a component A and a component B, component A containing at least one isocyanate and component B containing at least one diol or polyol and additionally at least one of components A or B containing at least one epoxy prepolymer, at least one of components A or B containing a heat-activatable hardener for epoxy prepolymers and at least one of components A and B containing a heat-activatable blowing agent.
A compound having the formula I or a pharmaceutically acceptable salt thereof: wherein is a double bond or a single bond; R 2 and R 3 are independently selected from H and C 1 -C 6 alkyl, or R 2 and R 3 are connected to form a saturated carbocycle having from 3 to 7 ring members; one of R 7 and R 8 is and the other is hydrogen; R 4 is -NR c R d or -OR 10; R c and R d are C 1 -C 6 alkyl optionally substituted with one or more -OH; R 10 is C 1 -C 12 alkyl optionally substituted with one or more -OH; Z is C and is a double bond, or Z is N and is a single bond; R a and R b are independently selected from H, C 1 -C 12 alkyl, C 2 -C 10 alkenyl, C 2 -C 12 alkynyl, and R e, wherein the C 1 -C 12 alkyl is optionally substituted with one or more -OR 10, or R e; R e is selected from -NH 2, -NH(C 1 -C 12 alkyl), and -N(C 1 -C 12 alkyl) 2; R 1 is absent when is a double bond, or when is a single bond, N 1 -R 1 and one of R a or R b are connected to form a saturated, paritally unsaturated, or unsaturated heterocycle having 5-7 ring members and the other of R a or R b may be hydrogen or absent as necessary to accommodate ring unsaturation; and at least one of the following A-D applies: A) R 7 is not hydrogen; B) R 8 is not hydrogen and at least one of R a and R b is not hydrogen; C) Z is N; or D) N 1 -R 1 and one of R a or R b are connected to form a saturated, partially unsaturated, or unsaturated heterocycle having 5-7 ring members. is a double bond or a single bond; R 2 and R 3 are independently selected from H and C 1 -C 6 alkyl, or R 2 and R 3 are connected to form a saturated carbocycle having from 3 to 7 ring members; one of R 7 and R 8 is and the other is hydrogen; R 4 is -NR c R d or -OR 10; R c and R d are C 1 -C 6 alkyl optionally substituted with one or more -OH; R 10 is C 1 -C 12 alkyl optionally substituted with one or more -OH; Z is C and is a double bond, or Z is N and is a single bond; R a and R b are independently selected from H, C 1 -C 12 alkyl, C 2 -C 10 alkenyl, C 2 -C 12 alkynyl, and R e, wherein the C 1 -C 12 alkyl is optionally substituted with one or more -OR 10, or R e; R e is selected from -NH 2, -NH(C 1 -C 12 alkyl), and -N(C 1 -C 12 alkyl) 2; R 1 is absent when is a double bond, or when is a single bond, N 1 -R 1 and one of R a or R b are connected to form a saturated, paritally unsaturated, or unsaturated heterocycle having 5-7 ring members and the other of R a or R b may be hydrogen or absent as necessary to accommodate ring unsaturation; and at least one of the following A-D applies: A) R 7 is not hydrogen; B) R 8 is not hydrogen and at least one of R a and R b is not hydrogen; C) Z is N; or D) N 1 -R 1 and one of R a or R b are connected to form a saturated, partially unsaturated, or unsaturated heterocycle having 5-7 ring members. A) R 7 is not hydrogen; B) R 8 is not hydrogen and at least one of R a and R b is not hydrogen; C) Z is N; or D) N 1 -R 1 and one of R a or R b are connected to form a saturated, partially unsaturated, or unsaturated heterocycle having 5-7 ring members.
System, comprising at least one window handle (2, 2.1, 2.2), comprising: - at least one locking unit configured to actuate at least one window, and - at least one closing unit operatively connected to the locking unit and configured to block and/or release the locking unit, - wherein the closing unit comprises at least one receiving unit configured to receive an electromagnetic command signal from a central transponder reading unit via a wireless communication channel, and - wherein the closing unit comprises an executing unit configured to release or block the locking unit depending on the received command signal, wherein the system comprises - the at least one central transponder reading unit with at least one transponder reading module, at least one processing module and at least one transmitting module, and - at least one transponder comprising an identification code, - wherein the transponder reading unit is configured to read the identification code of the transponder, - wherein the processing module is configured to evaluate the read identification code, and - wherein the transmitting module is configured to transmit an electromagnetic command signal via a wireless communication channel to the window handle (2, 2.1, 2.2) depending on the evaluation, characterized in that - the transponder reading unit is part of a door access control system. - at least one locking unit configured to actuate at least one window, and - at least one closing unit operatively connected to the locking unit and configured to block and/or release the locking unit, - wherein the closing unit comprises at least one receiving unit configured to receive an electromagnetic command signal from a central transponder reading unit via a wireless communication channel, and - wherein the closing unit comprises an executing unit configured to release or block the locking unit depending on the received command signal, wherein the system comprises - the at least one central transponder reading unit with at least one transponder reading module, at least one processing module and at least one transmitting module, and - at least one transponder comprising an identification code, - wherein the transponder reading unit is configured to read the identification code of the transponder, - wherein the processing module is configured to evaluate the read identification code, and - wherein the transmitting module is configured to transmit an electromagnetic command signal via a wireless communication channel to the window handle (2, 2.1, 2.2) depending on the evaluation, characterized in that - the transponder reading unit is part of a door access control system.
Method for starting a wind turbine, having the following steps: a. choosing, from a sector set, a sector that includes the current wind direction, wherein a start threshold value is established for the sector, this value differing from other sectors (25, 26, 27, 29, 30) from the sector set; b. comparing a state parameter of the wind turbine to the start threshold value; c. initiating a start attempt for the wind turbine as soon as the state parameter of the wind turbine exceeds the start threshold value. a. choosing, from a sector set, a sector that includes the current wind direction, wherein a start threshold value is established for the sector, this value differing from other sectors (25, 26, 27, 29, 30) from the sector set; b. comparing a state parameter of the wind turbine to the start threshold value; c. initiating a start attempt for the wind turbine as soon as the state parameter of the wind turbine exceeds the start threshold value.
A sample transfer capsule (170, 201, 501, 801), comprising: a container (208, 508, 808) configured to store a sample (220, 520, 920) during transport, wherein the container (208, 508, 808) is adjustable between a closed configuration and an open configuration; an inert gas storage chamber coupled to the container (208, 508, 808) and configured to store an inert gas; and a valve (209, 509, 809) coupled to the inert gas storage chamber and the container and configured to selectively allow the inert gas to flow from the inert gas storage chamber to the container (208, 508, 808) when the container (208, 508, 808) is in the closed configuration. a container (208, 508, 808) configured to store a sample (220, 520, 920) during transport, wherein the container (208, 508, 808) is adjustable between a closed configuration and an open configuration; an inert gas storage chamber coupled to the container (208, 508, 808) and configured to store an inert gas; and a valve (209, 509, 809) coupled to the inert gas storage chamber and the container and configured to selectively allow the inert gas to flow from the inert gas storage chamber to the container (208, 508, 808) when the container (208, 508, 808) is in the closed configuration.
A method for controlling a networked lighting system comprising the steps of - selecting several controllable luminaries of the networked lighting system, - combining control information for each one of the selected luminaries to a set of control information, - selecting at least one predetermined function for compressing the set of control information wherein the predetermined function has as input values, distinctive luminaries information for all the selected luminaries and as output values said control information for each one of the selected luminaries, - creating a multicast message addressed to the selected luminaries wherein the multicast message comprises a luminary related information field identifying the several selected luminaries and a features field identifying the selected predetermined function, - transmitting the created multicast message (S 18); and - combining in each selected luminary the features field of the transmitted multicast message and the own distinctive luminary information to calculate the value of the predetermined function which corresponds to a specific luminary control information. - selecting several controllable luminaries of the networked lighting system, - combining control information for each one of the selected luminaries to a set of control information, - selecting at least one predetermined function for compressing the set of control information wherein the predetermined function has as input values, distinctive luminaries information for all the selected luminaries and as output values said control information for each one of the selected luminaries, - creating a multicast message addressed to the selected luminaries wherein the multicast message comprises a luminary related information field identifying the several selected luminaries and a features field identifying the selected predetermined function, - transmitting the created multicast message (S 18); and - combining in each selected luminary the features field of the transmitted multicast message and the own distinctive luminary information to calculate the value of the predetermined function which corresponds to a specific luminary control information.
Patient standing aid, exhibiting a column, into which a drive unit several rope rollers (312, 322, 51, 52) and at least one rope (41, 42) are arranged, whereby the column exhibits an open profile and an cover profile closing an open profile, with a guide track to guide the drive unit mounted on the inside of the open profile and at least one rope (41, 42) lead out of the column and connected with the patient support strap outside the column, whereby the drive unit is guided on the guide track by means of at least one slider (31, 32) arranged on the carrier axle, and characterized in that the profiles (11, 12) making up the column have a supporting function for the components arranged inside the column as well as a covering for these components.
System for metering media (11a, 11b, 11c, 11d, 11e, 11f, 11g, 11h, 11i) for washing and/or cleaning systems and/or detergent systems, comprising a plurality of metering devices (14a, 14b, 14c), each metering device being connected on the inlet side to a container (12a, 12b, 12c) or to a plurality of containers containing different media and on the outlet side to at least one destination device (13a, 13b, 13c) such as a washing machine, dishwasher or device for applying or introducing a detergent, and the metering device runs metering processes taking account of predefined parameters, characterised in that a) every metering device is assigned a control unit and a memory unit addressable by the former in which metering data can be stored, b) the system comprises a device for implementing a long-range data transmission of metering data which is configured to implement a long-range transmission of the metering data jointly for the plurality of metering devices, c) and the device is in communicative connection with the plurality of metering devices for the purpose of implementing a short-range data transmission of the metering data. a) every metering device is assigned a control unit and a memory unit addressable by the former in which metering data can be stored, b) the system comprises a device for implementing a long-range data transmission of metering data which is configured to implement a long-range transmission of the metering data jointly for the plurality of metering devices, c) and the device is in communicative connection with the plurality of metering devices for the purpose of implementing a short-range data transmission of the metering data.