mhurhangee/ep-ind-claims huggingface dataset:
A self-propelled underwater vehicle (10, 52) for removing concrete mattresses from the seabed, comprising: a drive system adapted to drive the vehicle (10, 52) across a seabed on which the vehicle is supported in use; characterised in that, the vehicle further comprises a crushing mechanism supported by a body, which mechanism is adapted to crush subsea material that comprises concrete mattresses; a self-loading system for feeding said material into the crushing mechanism to be crushed; and a disposal system for receiving crushed debris from the crushing mechanism, the disposal system comprising a container for holding the crushed debris; wherein the body further comprises a housing surrounding the crushing mechanism, the housing having an intake opening communicating with the crushing mechanism for receiving said material from the self-loading system; and wherein the self-loading system comprises at least one articulated lifting arm that is mounted to the body and is capable of reaching across the intake opening and to the seabed in use. a drive system adapted to drive the vehicle (10, 52) across a seabed on which the vehicle is supported in use; characterised in that, the vehicle further comprises a crushing mechanism supported by a body, which mechanism is adapted to crush subsea material that comprises concrete mattresses; a self-loading system for feeding said material into the crushing mechanism to be crushed; and a disposal system for receiving crushed debris from the crushing mechanism, the disposal system comprising a container for holding the crushed debris; wherein the body further comprises a housing surrounding the crushing mechanism, the housing having an intake opening communicating with the crushing mechanism for receiving said material from the self-loading system; and wherein the self-loading system comprises at least one articulated lifting arm that is mounted to the body and is capable of reaching across the intake opening and to the seabed in use.
An apparatus for short-circuit monitoring of a three-phase load connected to a three-phase supply, comprising: - a plurality of current sensors (201 - 203), each one arranged in the current path (101 - 103) of different respective phases of the three-phase supply; - a processing unit for evaluating the measurement values of the current sensors (201 - 203), which has a respective port (401 - 404) for each current sensor (201 - 203) to which the respective current sensor (201 - 203) is connected via a connecting line; wherein the processing unit is adapted to detect a short circuit on the three-phase load through evaluation of the measurement values as determined by the current sensors (201 - 203), wherein said evaluation comprises a plausibility check of the determined measurement values for distinguishing between a short circuit and an influence on the determined measurement values by electrical and/or electromagnetic interference; and wherein at least two of the connecting lines connecting the current sensors (201 - 203) to the processing unit are interconnected to each other via a coupling element (305 - 307). - a plurality of current sensors (201 - 203), each one arranged in the current path (101 - 103) of different respective phases of the three-phase supply; - a processing unit for evaluating the measurement values of the current sensors (201 - 203), which has a respective port (401 - 404) for each current sensor (201 - 203) to which the respective current sensor (201 - 203) is connected via a connecting line; wherein the processing unit is adapted to detect a short circuit on the three-phase load through evaluation of the measurement values as determined by the current sensors (201 - 203), wherein said evaluation comprises a plausibility check of the determined measurement values for distinguishing between a short circuit and an influence on the determined measurement values by electrical and/or electromagnetic interference; and wherein at least two of the connecting lines connecting the current sensors (201 - 203) to the processing unit are interconnected to each other via a coupling element (305 - 307).
A computer-implemented method for selecting one or more network-connected devices to provide device functions required by an event, the method comprising: detecting an event in which a user is currently engaged, wherein detecting the event in which the user is currently engaged comprises: detecting an utterance associated with the user; and determining, based on content of the utterance, that the user is currently engaged in the event; determining a type associated with the event; retrieving, based on the type associated with the event, one or more device functions associated with the event; retrieving a plurality of device capabilities associated with a plurality of network-connected devices of the user; selecting, from the plurality of network-connected devices of the user, a first set of devices that includes devices that are associated with one or more device capabilities corresponding to the one or more device functions associated with the event; receiving, for each device in the first set of devices, data indicating whether each device in the first set of devices is perceptible to the user, by determining a perceptibility value from the data for each device, the perceptibility value being a function of location of the user in reference to each respective device in the first set of devices and whether the user is facing each respective device in the first set of devices; identifying, based on the data indicating whether each device in the first set of devices is perceptible to the user, a second set of devices that includes devices of the first set that are perceptible to the user; and instructing each device in the second set of devices to provide the functions associated with the event. detecting an utterance associated with the user; and determining, based on content of the utterance, that the user is currently engaged in the event; determining a type associated with the event; retrieving, based on the type associated with the event, one or more device functions associated with the event; retrieving a plurality of device capabilities associated with a plurality of network-connected devices of the user; selecting, from the plurality of network-connected devices of the user, a first set of devices that includes devices that are associated with one or more device capabilities corresponding to the one or more device functions associated with the event; receiving, for each device in the first set of devices, data indicating whether each device in the first set of devices is perceptible to the user, by determining a perceptibility value from the data for each device, the perceptibility value being a function of location of the user in reference to each respective device in the first set of devices and whether the user is facing each respective device in the first set of devices; identifying, based on the data indicating whether each device in the first set of devices is perceptible to the user, a second set of devices that includes devices of the first set that are perceptible to the user; and instructing each device in the second set of devices to provide the functions associated with the event.
A method of producing trihydroxybenzene, the method comprising a step of heating a bacterial culture liquid comprising deoxy-scyllo-inosose at a high temperature of no lower than 80°C to obtain a product solution comprising trihydroxybenzene.
Machine for fitting and removing wheel tyres for vehicles, comprising a bearing structure, attachment and rotation means of the rim of a wheel for vehicles, at least a tool-holder assembly movably associated with said bearing structure and having at least a tool (8, 9, 10) for removing and/or fitting a tyre from/onto said rim, adjustment means (11, 12) able to adjust the relative position between said tool-holder assembly and said rim, to place said tool-holder assembly in at least an optimal operating position wherein said at least a tool (8, 9, 10) is operable to remove and/or fit a tyre, and visual signaling means (13, 14) of said optimal position having at least an emitter (13, 14) of a light beam (L1, L2), said optimal operating position being defined when the point of incidence of said light beam (L1, L2) on said wheel coincides with an external point of the edge of said rim, wherein said tool-holder assembly comprises operating means (15, 16, 17, 18, 19, 20, 21, 22, 23) of said at least a tool (8, 9, 10) between a disengagement position, wherein it is substantially moved away from said attachment and rotation means, and at least a work position, wherein it is substantially approached to said attachment and rotation means and is able to contact said tyre for removing/fitting from/onto said rim, said work position being determined depending on the position of the point of incidence of said at least a light beam (L1, L2) on said wheel, characterized in that said visual signaling means (13, 14) comprises at least a first emitter turned substantially towards said attachment and rotation means and able to emit a first light beam along a first predefined direction, and at least a second emitter turned substantially towards said attachment and rotation means and able to emit a second light beam along a second predefined direction, wherein said first emitter is locked together with said bearing structure and wherein said second emitter is locked together with said tool-holder assembly.
An indoor air quality monitor comprising: a housing comprising an upper surface and a lower surface, the upper surface comprising a non-planar configuration; an electronic board assembly vertically mounted within the housing, the electronic board assembly comprising at least one of a temperature sensor, a humidity sensor, and a particulate detector connected thereto; and a fan assembly disposed within the housing, the fan assembly configured to draw air into the housing over at least one of the temperature sensor, the humidity sensor, and the particulate detector, and expel the air back outside the housing, characterised in that: the air is drawn into the housing via at least one of a primary inlet (32A-32I) and a secondary inlet (34E-34I), the primary inlet disposed on the upper surface and the secondary inlet disposed in a sidewall of the housing. a housing comprising an upper surface and a lower surface, the upper surface comprising a non-planar configuration; an electronic board assembly vertically mounted within the housing, the electronic board assembly comprising at least one of a temperature sensor, a humidity sensor, and a particulate detector connected thereto; and a fan assembly disposed within the housing, the fan assembly configured to draw air into the housing over at least one of the temperature sensor, the humidity sensor, and the particulate detector, and expel the air back outside the housing, characterised in that: the air is drawn into the housing via at least one of a primary inlet (32A-32I) and a secondary inlet (34E-34I), the primary inlet disposed on the upper surface and the secondary inlet disposed in a sidewall of the housing.
A sol comprising from 1.4 mass% to 1.7 mass% of a collagen, water, from 220 mM to 310 mM sodium chloride and a buffer and having a pH from 6.0 to 9.0 for use in tissue perforation closure, ulcer protection, vascular embolization or tissue adhesion.
The Saccharomyces cerevisiae strain deposited at the CNCM under number 1-3856, for use thereof in the prevention and/or treatment of vaginal mycoses.
A multi-layer oriented shrink film comprising: a. a first skin layer comprising from 50% to 100% by weight of the skin layer of a propylene-based polymer having a melting point greater than 130°C; b. at least one core layer comprising from 30% to 100% by weight of the core layer of a propylene-based plastomer or elastomer, said propylene-based plastomer or elastomer comprising at least one copolymer comprising at least 50 weight percent of units derived from propylene and from 4 to 15 % by weight of units derived from ethylene; and c. a second skin layer comprising from 50% to 100% by weight of the skin layer of a propylene-based polymer having a melting point greater than 130°C. a. a first skin layer comprising from 50% to 100% by weight of the skin layer of a propylene-based polymer having a melting point greater than 130°C; b. at least one core layer comprising from 30% to 100% by weight of the core layer of a propylene-based plastomer or elastomer, said propylene-based plastomer or elastomer comprising at least one copolymer comprising at least 50 weight percent of units derived from propylene and from 4 to 15 % by weight of units derived from ethylene; and c. a second skin layer comprising from 50% to 100% by weight of the skin layer of a propylene-based polymer having a melting point greater than 130°C.
A processor device, in particular a microcontroller or a microprocessor, comprising: a register data memory (560; 750) comprising a physical address space, the data memory (560; 750) being accessible through a plurality of sequential memory banks defining a linear address space, wherein at least a subset of the memory banks are organized such that each memory bank of the subset comprises at least a first and second memory area (120, 130; 140, 150), wherein said first memory area (120, 130) comprises memory-mapped special function registers and no consecutive memory block is formed by the second memory areas (140, 150) within the linear address space; characterized by an address adjustment unit (540, 630) which, when a predefined virtual address range is used, is configured to translate a virtual address within the virtual address range to a physical address for accessing said second memory areas (140, 150) such that a linearized virtual memory block is formed by mapping respective virtual addresses to physical addresses of a plurality of second memory areas (140, 150). a register data memory (560; 750) comprising a physical address space, the data memory (560; 750) being accessible through a plurality of sequential memory banks defining a linear address space, wherein at least a subset of the memory banks are organized such that each memory bank of the subset comprises at least a first and second memory area (120, 130; 140, 150), wherein said first memory area (120, 130) comprises memory-mapped special function registers and no consecutive memory block is formed by the second memory areas (140, 150) within the linear address space; characterized by an address adjustment unit (540, 630) which, when a predefined virtual address range is used, is configured to translate a virtual address within the virtual address range to a physical address for accessing said second memory areas (140, 150) such that a linearized virtual memory block is formed by mapping respective virtual addresses to physical addresses of a plurality of second memory areas (140, 150).
A pickup assembly for an agricultural harvester, the pickup assembly comprising: - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a wind guard assembly, pivotably coupled to the pickup assembly frame, - a feeding auger, rotatably coupled to an auger arm, the auger arm being pivotably connected to the pickup assembly frame at a first pivot axle, and - an auger control arm, extending from the first pivot axle in a direction different from the auger arm and configured for pivoting together with the auger arm, the auger control arm being configured to provide at least one of the following functions: limiting a maximum height of the feeding auger, limiting a minimum height of the feeding auger, providing suspension for the feeding auger when pivoting relative to the pickup assembly frame, and lifting the feeding auger, together with the wind guard assembly. - a pickup assembly frame, - a pickup unit carried by the pickup assembly frame and configured to pick up crop from a field, - a wind guard assembly, pivotably coupled to the pickup assembly frame, - a feeding auger, rotatably coupled to an auger arm, the auger arm being pivotably connected to the pickup assembly frame at a first pivot axle, and - an auger control arm, extending from the first pivot axle in a direction different from the auger arm and configured for pivoting together with the auger arm, the auger control arm being configured to provide at least one of the following functions: limiting a maximum height of the feeding auger, limiting a minimum height of the feeding auger, providing suspension for the feeding auger when pivoting relative to the pickup assembly frame, and lifting the feeding auger, together with the wind guard assembly. limiting a maximum height of the feeding auger, limiting a minimum height of the feeding auger, providing suspension for the feeding auger when pivoting relative to the pickup assembly frame, and lifting the feeding auger, together with the wind guard assembly.
A lamination molding apparatus, comprising: a material layer former configured to form a material layer in a molding region, the material layer being formed for each of a plurality of divisional layers which are a desired three-dimensional molded product divided by a predetermined height; a first emitter configured to form a solidified layer by irradiating a predetermined irradiation region of the material layer in the predetermined divisional layer with a first beam to sinter or melt the material layer; and a thermal adjuster (51, 52) configured to adjust a temperature of at least a portion of the solidified layer to a predetermined first temperature and then to a predetermined second temperature; wherein when the first temperature is referred to as T1, the second temperature is referred to as T2, a martensite start temperature of the solidified layer is referred to as Ms, and a martensite finish temperature of the solidified layer is referred to as Mf, following formulas of to are all satisfied: T 1 ≥ Mf T 1 > T 2 T 2 ≤ Ms a material layer former configured to form a material layer in a molding region, the material layer being formed for each of a plurality of divisional layers which are a desired three-dimensional molded product divided by a predetermined height; a first emitter configured to form a solidified layer by irradiating a predetermined irradiation region of the material layer in the predetermined divisional layer with a first beam to sinter or melt the material layer; and a thermal adjuster (51, 52) configured to adjust a temperature of at least a portion of the solidified layer to a predetermined first temperature and then to a predetermined second temperature; wherein when the first temperature is referred to as T1, the second temperature is referred to as T2, a martensite start temperature of the solidified layer is referred to as Ms, and a martensite finish temperature of the solidified layer is referred to as Mf, following formulas of to are all satisfied: T 1 ≥ Mf T 1 > T 2 T 2 ≤ Ms
Fine blanking device comprising eight blanking stations (BS1-8) for the fine blanking of transverse segments from basic material for a drive belt, such as applied in a continuously variable transmission, whereof each blanking station (BS1-8) is at least provided with a cutting punch, with an oppositely placed counter punch and with a blanking die wherein at least the counter punch is contained, which blanking stations (BS1-8) are provided in four, mutually parallel rows that each contain two of the eight blanking stations (BS1-8), whereof the two blanking stations (BS1, BS2) of one of the two outermost rows of the said four rows are provided opposite the two blanking stations (BS3, BS4) of the other one of the two outermost rows of the said four rows and whereof the two blanking stations (BS5, BS6) of one of the two innermost rows of the said four rows are provided opposite the two blanking stations (BS7, BS8) of the other one of the two innermost rows of the said four rows, characterised in that the four blanking stations (BS1-4) of the two outermost rows of the said four rows and the four blanking stations (BS5-8) of the two innermost rows of the said four rows are provided with a mutual off-set in the longitudinal direction of the said four rows.
A double deck boot attachment for a lawn maintenance tool comprising: a smaller deck boot; and a larger deck boot including an interior volume, wherein the smaller deck boot is configured to be an attachment for at least one first lawn maintenance tool and the larger deck boot is configured to be an attachment for at least one second lawn maintenance tool, wherein at least a portion of the smaller deck boot is configured to slide within the interior volume of the larger deck boot from a separated position to an assembled position and the double deck boot attachment is configured to be stored and shipped as a single item. a smaller deck boot; and a larger deck boot including an interior volume, wherein the smaller deck boot is configured to be an attachment for at least one first lawn maintenance tool and the larger deck boot is configured to be an attachment for at least one second lawn maintenance tool, wherein at least a portion of the smaller deck boot is configured to slide within the interior volume of the larger deck boot from a separated position to an assembled position and the double deck boot attachment is configured to be stored and shipped as a single item.