mhurhangee/ep-ind-claims huggingface dataset:
A header tank (3, 23) for a heat exchanger (1, 20) for supplying a heat exchange fluid to a core unit (2, 21) in which a plurality of tubes (5, 22) are provided side by side, comprising: a chamber having an outlet part; an inlet part (9,25) which is configured to introduce the heat exchange fluid into the chamber of the header tank (3, 23); and a plurality of ribs (8a, 8b, 8c, 8d, 24a, 24b) projecting into the chamber of the header tank (3, 23), the ribs (8a, 8b, 8c, 8d, 24a, 24b) being arranged side by side in a central axis direction of the inlet part (9, 25) and configured to cause the heat exchange fluid to flow from the inlet part (9, 25) through the outlet part into the tubes (5, 22), the ribs (8a, 8b, 8c, 8d, 24a, 24b) projecting more into the chamber of the header tank (3, 23) towards the central axis of the inlet part (9, 25) with increasing distance from the inlet part (9, 25), characterized in that the ribs (8a, 8b, 8c, 8d, 24a, 24b) are curved and arranged in pairs on opposite inner walls of the header tank (3, 23), the ribs (8a, 8b, 8c, 8d, 24a, 24b) extend from the inlet part (9, 25) to the outlet part in directions intersecting with a plane including the central axis of the inlet part (9, 25). a chamber having an outlet part; an inlet part (9,25) which is configured to introduce the heat exchange fluid into the chamber of the header tank (3, 23); and a plurality of ribs (8a, 8b, 8c, 8d, 24a, 24b) projecting into the chamber of the header tank (3, 23), the ribs (8a, 8b, 8c, 8d, 24a, 24b) being arranged side by side in a central axis direction of the inlet part (9, 25) and configured to cause the heat exchange fluid to flow from the inlet part (9, 25) through the outlet part into the tubes (5, 22), the ribs (8a, 8b, 8c, 8d, 24a, 24b) projecting more into the chamber of the header tank (3, 23) towards the central axis of the inlet part (9, 25) with increasing distance from the inlet part (9, 25), characterized in that the ribs (8a, 8b, 8c, 8d, 24a, 24b) are curved and arranged in pairs on opposite inner walls of the header tank (3, 23), the ribs (8a, 8b, 8c, 8d, 24a, 24b) extend from the inlet part (9, 25) to the outlet part in directions intersecting with a plane including the central axis of the inlet part (9, 25).
A multirotor wind turbine comprising a tower structure and at least one load carrying structure (3, 4), each load carrying structure (3, 4) being arranged for carrying two or more first energy generating units (5, 7) and for being connected to the tower structure, each first energy generating unit (5, 7) comprising a first rotor (6, 8), and each first energy generating unit (5, 7) having a centre of gravity, characterised in that at least two of the first rotors are downwind rotors, the first energy generating units comprising the at least two downwind rotors being arranged with their respective centres of gravity at a first distance behind the tower structure along a direction of the incoming wind, substantially at the same vertical level, and at opposite sides of the tower structure at substantially the same second distance to the tower structure along a direction substantially perpendicular to the direction of the incoming wind.
A staple cartridge assembly for use with a surgical stapler (10, 50, 80), comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material (1800a, 1800b, 1850a, 1850b) releasably retained on the cartridge body in an unexpanded configuration and configured to be delivered to liver tissue by deployment of the staples in the cartridge body, the adjunct material being configured to transition from the unexpanded configuration to an expanded configuration after delivery thereof to the liver tissue; an effective amount of at least one medicant, the at least one medicant being disposed within and releasable from the adjunct material; characterised in that the adjunct material includes a swellable absorbable material configured to facilitate transitioning of the adjunct material from the unexpanded configuration to the expanded configuration; and in that the adjunct material includes a plurality of pores through which the swellable absorbable material is configured to pass when the adjunct material transitions from the unexpanded configuration to the expanded configuration, and through which the at least one medicant is configured to be released from the adjunct material in the expanded configuration. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material (1800a, 1800b, 1850a, 1850b) releasably retained on the cartridge body in an unexpanded configuration and configured to be delivered to liver tissue by deployment of the staples in the cartridge body, the adjunct material being configured to transition from the unexpanded configuration to an expanded configuration after delivery thereof to the liver tissue; an effective amount of at least one medicant, the at least one medicant being disposed within and releasable from the adjunct material; characterised in that the adjunct material includes a swellable absorbable material configured to facilitate transitioning of the adjunct material from the unexpanded configuration to the expanded configuration; and in that the adjunct material includes a plurality of pores through which the swellable absorbable material is configured to pass when the adjunct material transitions from the unexpanded configuration to the expanded configuration, and through which the at least one medicant is configured to be released from the adjunct material in the expanded configuration.
A method comprising: receiving, at a delivery manager, a certificate that a Domain Name Service, DNS, associates with a DNS name of a first endpoint, wherein the certificate is a new certificate or an updated certificate; distributing the certificate to a second endpoint; storing the certificate in a local memory of the second endpoint; in response to a future determination to establish a connection with the first endpoint, using the certificate from the local memory of the second endpoint to establish transport layer security, TLS, for the connection; wherein distributing the certificate to the second endpoint is according to a pre-determined time period that corresponds to a regular interval for distributing any new or updated certificates. receiving, at a delivery manager, a certificate that a Domain Name Service, DNS, associates with a DNS name of a first endpoint, wherein the certificate is a new certificate or an updated certificate; distributing the certificate to a second endpoint; storing the certificate in a local memory of the second endpoint; in response to a future determination to establish a connection with the first endpoint, using the certificate from the local memory of the second endpoint to establish transport layer security, TLS, for the connection; wherein distributing the certificate to the second endpoint is according to a pre-determined time period that corresponds to a regular interval for distributing any new or updated certificates.
A blade mount coupling a blade to a rotatable shaft, the blade mount comprising: at least one blade reception channel (232, 232') configured to enclose at least a portion of the blade; and at least one alignment protrusion (236, 236') disposed within the blade reception channel (232, 232') to engage at least one alignment slot disposed in the blade offset relative to a longitudinal centerline of the blade to secure the blade within the blade reception channel (232, 232') responsive to insertion of the blade into the blade reception channel (232, 232'), wherein the blade reception channel (232, 232') is defined by a latch assembly, the blade reception channel (232, 232') being formed between a blade mount base (200, 200') and a rotatable clamp of the latch assembly, wherein the blade mount base (200, 200') engages one face of the blade and the clamp engages an opposite face of the blade responsive to the blade being held by the blade mount. at least one blade reception channel (232, 232') configured to enclose at least a portion of the blade; and at least one alignment protrusion (236, 236') disposed within the blade reception channel (232, 232') to engage at least one alignment slot disposed in the blade offset relative to a longitudinal centerline of the blade to secure the blade within the blade reception channel (232, 232') responsive to insertion of the blade into the blade reception channel (232, 232'), wherein the blade reception channel (232, 232') is defined by a latch assembly, the blade reception channel (232, 232') being formed between a blade mount base (200, 200') and a rotatable clamp of the latch assembly, wherein the blade mount base (200, 200') engages one face of the blade and the clamp engages an opposite face of the blade responsive to the blade being held by the blade mount.
A cationic glyoxylated polyacrylamide polymer composition, characterized in that the composition comprises - a glyoxylated polyacrylamide polymer having a weight average molecular weight MW > 250 000 g/mol and a cationic charge density in the range of 0.8 - 1.8 meq/g of dry polymer, in a dry content amount of 5 - 15 %, - an aqueous medium, and - a buffering acid, and the aqueous composition has pH in the range of 2.2 - 4.0. - a glyoxylated polyacrylamide polymer having a weight average molecular weight MW > 250 000 g/mol and a cationic charge density in the range of 0.8 - 1.8 meq/g of dry polymer, in a dry content amount of 5 - 15 %, - an aqueous medium, and - a buffering acid,
A method comprising: mapping, in an in-memory database, each distinct value in a column to a different value identifier; populating a first backing array of an index vector by inserting, at each position n in the first backing array, the value identifier corresponding to the value that a row at position n has for the column, the first backing array having a predefined chunk of allocated memory, each position in the index vector being logically n-bits wide; determining that the first backing array does not have capacity in the predefined chunk of allocated memory for a subsequent value identifier to be inserted therein; generating, based on the determining, a second backing array in a different chunk of allocated memory including the first set of value identifiers and having capacity for the subsequent value identifier to be inserted therein; inserting the subsequent value identifier in the second backing array; associating a semaphore with each index vector; assigning the semaphore to a first writer seeking to generate the second backing array; releasing the semaphore after copying the value identifiers from the first backing array into the second backing array; waiting, by a second writer, the semaphore assigned to the first writer to be released; awaking the second writer; and executing a write functor by the second writer on the second backing array, wherein the write functor is a functional unit encoding write actions that can be repeatedly invoked. mapping, in an in-memory database, each distinct value in a column to a different value identifier; populating a first backing array of an index vector by inserting, at each position n in the first backing array, the value identifier corresponding to the value that a row at position n has for the column, the first backing array having a predefined chunk of allocated memory, each position in the index vector being logically n-bits wide; determining that the first backing array does not have capacity in the predefined chunk of allocated memory for a subsequent value identifier to be inserted therein; generating, based on the determining, a second backing array in a different chunk of allocated memory including the first set of value identifiers and having capacity for the subsequent value identifier to be inserted therein; inserting the subsequent value identifier in the second backing array; associating a semaphore with each index vector; assigning the semaphore to a first writer seeking to generate the second backing array; releasing the semaphore after copying the value identifiers from the first backing array into the second backing array; waiting, by a second writer, the semaphore assigned to the first writer to be released; awaking the second writer; and executing a write functor by the second writer on the second backing array, wherein the write functor is a functional unit encoding write actions that can be repeatedly invoked.
A battery management device that manages a battery including a plurality of battery cells and mounted on a vehicle, the battery management device comprising: multiple voltage detection circuits each connected to a corresponding one of the battery cells via a pair of voltage detection lines (Lv), and each configured to detect a voltage of the corresponding battery cell; multiple discharge circuits each connected to a corresponding one of the battery cells via the pair of voltage detection lines (Lv), and each configured to discharge the corresponding battery cell; a voltage difference acquisition unit configured to acquire, for each of the battery cells, a voltage difference between the voltage of the battery cell detected by a voltage detection circuit and a reference voltage; and characterized in that the battery management device comprises: a cell balancing control unit configured to cause a battery cell with the voltage difference equal to or greater than a predetermined first threshold and less than a second threshold that is greater than the first threshold to be discharged by a corresponding discharge circuit only while a system of the vehicle is stopped, and configured to cause a battery cell with the voltage difference equal to or greater than the second threshold to be discharged by the corresponding discharge circuit both while the system of the vehicle is stopped and while the system of the vehicle is in operation. multiple voltage detection circuits each connected to a corresponding one of the battery cells via a pair of voltage detection lines (Lv), and each configured to detect a voltage of the corresponding battery cell; multiple discharge circuits each connected to a corresponding one of the battery cells via the pair of voltage detection lines (Lv), and each configured to discharge the corresponding battery cell; a voltage difference acquisition unit configured to acquire, for each of the battery cells, a voltage difference between the voltage of the battery cell detected by a voltage detection circuit and a reference voltage; and characterized in that the battery management device comprises: a cell balancing control unit configured to cause a battery cell with the voltage difference equal to or greater than a predetermined first threshold and less than a second threshold that is greater than the first threshold to be discharged by a corresponding discharge circuit only while a system of the vehicle is stopped, and configured to cause a battery cell with the voltage difference equal to or greater than the second threshold to be discharged by the corresponding discharge circuit both while the system of the vehicle is stopped and while the system of the vehicle is in operation.
A hybrid power driving system, comprising: an engine; a first motor connected to the engine; a second motor; a driving shaft connected to the second motor; a battery electrically connected to the first motor and the second motor; and a tri-state overrunning clutch designed to connect the first motor and the second motor, wherein the tri-state overrunning clutch may be in an overrun state, an engaged state or a disengaged state. an engine; a first motor connected to the engine; a second motor; a driving shaft connected to the second motor; a battery electrically connected to the first motor and the second motor; and a tri-state overrunning clutch designed to connect the first motor and the second motor, wherein the tri-state overrunning clutch may be in an overrun state, an engaged state or a disengaged state.
A riveted and/or screwed joint between a first and a second component of an aircraft, the joint comprising a surface seal for sealing a riveted and/or screwed joint between the first and a second component of the aircraft, wherein the surface seal is arranged in the region of joining surfaces (7,11) of the first and the second component, characterized in that the surface seal is formed with a pressure-resistant plastic film that is provided with a pressure-sensitive adhesive layer on both sides (3,4), wherein the plastic film is formed with at least one of polyimide, PTFE and polycarbonate.
A non-transitory computer-accessible memory medium that stores software code configured to be deployed on a multiprocessor array, MPA, wherein the MPA includes hardware resources including a plurality of processors, a plurality of memories, and an interconnection network, IN, communicatively coupling the plurality of processors and the plurality of memories, wherein the software code comprises: first program instructions executable to perform a first function; and one or more first language constructs which are user configurable to specify one or more communication ports and one or more parameter inputs; wherein the one or more communication ports are user configurable to specify communication with other software code in a software application executing on the hardware resources of the MPA; wherein the one or more parameter inputs are user configurable to specify a set of hardware resources of the MPA usable to execute the software code; and wherein multiple instances of the software code are configured to be deployed in at least one MPA to perform the first function in different software applications; wherein each instance of the software code comprises a respective configuration of the one or more communication ports specifying connectivity of the one or more communication ports to the IN and to ones of the plurality of the memories; and wherein each instance of the software code further comprises a respective configuration of the one or more parameter inputs specifying a set of hardware resources in the at least one MPA that includes a plurality of processors and a plurality of memories for deployment of the respective instance of the software code. first program instructions executable to perform a first function; and one or more first language constructs which are user configurable to specify one or more communication ports and one or more parameter inputs; wherein the one or more communication ports are user configurable to specify communication with other software code in a software application executing on the hardware resources of the MPA; wherein the one or more parameter inputs are user configurable to specify a set of hardware resources of the MPA usable to execute the software code; and wherein multiple instances of the software code are configured to be deployed in at least one MPA to perform the first function in different software applications; wherein each instance of the software code comprises a respective configuration of the one or more communication ports specifying connectivity of the one or more communication ports to the IN and to ones of the plurality of the memories; and wherein each instance of the software code further comprises a respective configuration of the one or more parameter inputs specifying a set of hardware resources in the at least one MPA that includes a plurality of processors and a plurality of memories for deployment of the respective instance of the software code.
Use of a hot-melt adhesive for bonding a metal, paper and/or plastics film, characterized in that the hot-melt adhesive comprises the following components: - 10 to 80 wt.% of at least one thermomechanically degraded polypropylene copolymer, the thermomechanically degraded polypropylene copolymer being produced by thermomechanically degrading at least one polypropylene copolymer under shear stress, in the presence of at least one radical generator, above the softening point (ring-and-ball method according to ASTM E-28) of the polypropylene copolymer, the melt viscosity determined at 200°C (determined using a Brookfield Thermosel RVT viscometer (obtainable from Brookfield Engineering Laboratories, Inc., Stoughton, Mass. USA, a spindle 27 being used for viscosities of up to 100,000 mPa·s whereas a spindle 29 is used for determining melt viscosities greater than 100,000 mPa s, and the rotational speed of the respective spindle being adjusted such that, at a temperature of 200°C, the torque values of the viscometer are in a range from 10 to 95% of the maximum permissible torque) of the thermomechanically degraded polypropylene copolymer being less than 70% of the melt viscosity of the polypropylene copolymer likewise determined at 200°C, - 5 to 60 wt.% of at least one tackifying resin, - 0 to 40 wt. % of at least one further additive, the hot-melt adhesive having a Shore D hardness of above 50 (DIN EN ISO 868:2003). - 10 to 80 wt.% of at least one thermomechanically degraded polypropylene copolymer, the thermomechanically degraded polypropylene copolymer being produced by thermomechanically degrading at least one polypropylene copolymer under shear stress, in the presence of at least one radical generator, above the softening point (ring-and-ball method according to ASTM E-28) of the polypropylene copolymer, the melt viscosity determined at 200°C (determined using a Brookfield Thermosel RVT viscometer (obtainable from Brookfield Engineering Laboratories, Inc., Stoughton, Mass. USA, a spindle 27 being used for viscosities of up to 100,000 mPa·s whereas a spindle 29 is used for determining melt viscosities greater than 100,000 mPa s, and the rotational speed of the respective spindle being adjusted such that, at a temperature of 200°C, the torque values of the viscometer are in a range from 10 to 95% of the maximum permissible torque) of the thermomechanically degraded polypropylene copolymer being less than 70% of the melt viscosity of the polypropylene copolymer likewise determined at 200°C, - 5 to 60 wt.% of at least one tackifying resin, - 0 to 40 wt. % of at least one further additive,