mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating data, comprising: defining a data transmission unit, DTU to be sent in an xDSL data stream; defining a retransmit container as a time slot that corresponds to a sent DTU; maintaining a copy of the sent DTUs and an index of corresponding retransmit containers; transmitting the DTUs in the xDSL data stream; determining whether a transmitted DTU was corrupted during transmission by receiving a retransmission request, from a DTU receiving side, wherein said retransmission request is transmitted only if the receiver buffer, at the DTU receiving side, contains at least one DTU that is uncorrupted; identifying each corrupted DTU by its corresponding retransmit container; and retransmitting an uncorrupted copy of the DTU as identified by the corresponding retransmit container. defining a data transmission unit, DTU to be sent in an xDSL data stream; defining a retransmit container as a time slot that corresponds to a sent DTU; maintaining a copy of the sent DTUs and an index of corresponding retransmit containers; transmitting the DTUs in the xDSL data stream; determining whether a transmitted DTU was corrupted during transmission by receiving a retransmission request, from a DTU receiving side, wherein said retransmission request is transmitted only if the receiver buffer, at the DTU receiving side, contains at least one DTU that is uncorrupted; identifying each corrupted DTU by its corresponding retransmit container; and retransmitting an uncorrupted copy of the DTU as identified by the corresponding retransmit container.
Wind converter for small wind turbines, having a rotor which has a plurality of rotor blades which are mounted rotatably about a vertical axis of rotation, the wind converter having a plurality of guide elements, the guide elements being designed to direct an air flow onto the rotor blades, and the guide elements each having a guide surface for guiding and/or deflecting air, the guide surface being designed to guide and/or deflect the air flow onto the rotor blades, and the guide elements each having a guide surface for guiding and/or deflecting air, the guide surface being designed to guide and/or deflect the air flow onto the rotor blades, the guide surface having an inflow area remote from the rotor and an outflow region close to the rotor, a) wherein the outflow region is inclined with respect to the inflow region and, in cross-section is shorter in perpendicular to the axis of rotation than the inflow region; and b) wherein an end on the rotor side of the outflow region is at least temporarily at least substantially aligned with an end on the guide element side of a rotor blade, and c) wherein the air flowing in at least substantially in horizontal direction after contact with the rotor is able to flow out at least substantially in the vertical direction and/or parallel to the axis of rotation. a) wherein the outflow region is inclined with respect to the inflow region and, in cross-section is shorter in perpendicular to the axis of rotation than the inflow region; and b) wherein an end on the rotor side of the outflow region is at least temporarily at least substantially aligned with an end on the guide element side of a rotor blade, and c) wherein the air flowing in at least substantially in horizontal direction after contact with the rotor is able to flow out at least substantially in the vertical direction and/or parallel to the axis of rotation.
Machine for additive manufacturing by sintering or melting powder using an energy beam acting on a powder layer in a working zone (41, 42), said machine comprising a device for layering said powder, said device comprising: • means for storing the powder, • means for distributing the powder that are able to travel over the working zone in order to distribute the powder in a layer having a final thickness suitable for additive manufacturing, • feeding means that are able to transfer the powder from the storage means to the distributing means, • metering means that are able to control the quantity of powder transferred from the storage means to the distributing means, • the storage means are positioned higher than the working zone, • the feeding means utilize gravity, • the feeding means and the metering means are able to move with the distributing means, • the machine has two separate working zones (41, 42), • the machine has two separate working trays (601, 602) that are able to move independently of one another, • each of the two separate working trays (601, 602) is associated with only one of the two separate working zones (41, 42), said machine being characterized in that: • the layering device is common to both working zones. • means for storing the powder, • means for distributing the powder that are able to travel over the working zone in order to distribute the powder in a layer having a final thickness suitable for additive manufacturing, • feeding means that are able to transfer the powder from the storage means to the distributing means, • metering means that are able to control the quantity of powder transferred from the storage means to the distributing means, • the storage means are positioned higher than the working zone, • the feeding means utilize gravity, • the feeding means and the metering means are able to move with the distributing means, • the machine has two separate working zones (41, 42), • the machine has two separate working trays (601, 602) that are able to move independently of one another, • each of the two separate working trays (601, 602) is associated with only one of the two separate working zones (41, 42), • the layering device is common to both working zones.
A dehydrating breather apparatus, comprising: a vessel, wherein a desiccant container, including a cap to seal the desiccant container and the cap comprising a port to connect to a transformer tank, wherein the cap is secured to the vessel via a heater using mounting mechanisms (68, 70) and locking mechanisms (72, 74), wherein the desiccant container is utilized to contain desiccant, wherein the desiccant container is mounted within the interior of said vessel and the heater in the desiccant container is utilized to drive moisture from the desiccant; and wherein the heater is positioned within the desiccant container and the heater is secured to the desiccant container using mounting mechanisms (16, 18) and locking mechanisms (20, 22), the apparatus further comprising a connector for controlling operations of the heater, and; a valve housing coupled to the bottom of the vessel, wherein said valve housing is coupled to the vessel and is secured to the vessel by mounting mechanisms (16, 18) and locking mechanisms (30, 32); and further comprising a vent assembly, wherein said vent assembly is coupled to the valve housing and comprising: a vent assembly body; and at least one screened port, wherein said screened port is disposed along a vertical axis of the vent assembly body. a vessel, wherein a desiccant container, including a cap to seal the desiccant container and the cap comprising a port to connect to a transformer tank, wherein the cap is secured to the vessel via a heater using mounting mechanisms (68, 70) and locking mechanisms (72, 74), wherein the desiccant container is utilized to contain desiccant, wherein the desiccant container is mounted within the interior of said vessel and the heater in the desiccant container is utilized to drive moisture from the desiccant; and wherein the heater is positioned within the desiccant container and the heater is secured to the desiccant container using mounting mechanisms (16, 18) and locking mechanisms (20, 22), the apparatus further comprising a connector for controlling operations of the heater, and; a valve housing coupled to the bottom of the vessel, wherein said valve housing is coupled to the vessel and is secured to the vessel by mounting mechanisms (16, 18) and locking mechanisms (30, 32); and further comprising a vent assembly, wherein said vent assembly is coupled to the valve housing and comprising: a vent assembly body; and at least one screened port, wherein said screened port is disposed along a vertical axis of the vent assembly body. a vent assembly body; and at least one screened port, wherein said screened port is disposed along a vertical axis of the vent assembly body.
Sulfur-crosslinkable rubber mixture comprising at least the following constituents: - at least one diene rubber and - at least one liquid, linear modified diene polymer A, modified with a functional group of formula I) at only one chain end, the number of functional groups per molecule being on average from 0.8 to 1 I) (R 1 R 2 R 3)Si-X-NH-C(=O)-O-, where R 1, R 2 and R 3 independently of one another are selected from methoxy groups, ethoxy groups, phenoxy groups, methyl groups, ethyl groups and phenyl groups, with in each case at least one of the groups R 1, R 2 and R 3 being a methoxy group, an ethoxy group or a phenoxy group, and where X is a divalent alkyl group having 1 to 6 carbon atoms. - at least one diene rubber and - at least one liquid, linear modified diene polymer A, modified with a functional group of formula I) at only one chain end, the number of functional groups per molecule being on average from 0.8 to 1 I) (R 1 R 2 R 3)Si-X-NH-C(=O)-O-, where R 1, R 2 and R 3 independently of one another are selected from methoxy groups, ethoxy groups, phenoxy groups, methyl groups, ethyl groups and phenyl groups, with in each case at least one of the groups R 1, R 2 and R 3 being a methoxy group, an ethoxy group or a phenoxy group, and where X is a divalent alkyl group having 1 to 6 carbon atoms.
Method for driving hovering devices and hovering subsystems of devices in agriculture and forestry with the construction-dependent ability to hover in place with one or more flow generators to produce airflows or flows of other gases or gas mixtures that primarily keep the device or subsystem of the device hovering by the generated vertical thrust and generate forces for propulsion and/or change of movement, whereby the flows or partial flows are produced with an inclination of the central axis of the respective flow or partial flow of at least 10° and a maximum of 90° with respect to the normal to the horizontal plane of the device or subsystem, whereby thrust is generated by varying the flow speed of the flows and/or partial flows that has at least one component in the horizontal plane of the device or subsystem and is used for propulsion and/or changing the speed of the device or subsystem and/or compensating for disturbances in this plane while maintaining a horizontal or constantly inclined position of the hovering device or subsystem, characterized in that torques around horizontal axes caused by the variation of flows are compensated by the vertical thrust component of other flows.
A membrane humidifier, comprising: a housing in which a hollow fiber membrane bundle is mounted, the hollow fiber membrane bundle being formed by integrating a plurality of hollow fiber membranes; a potting portion fixing an end portion of the hollow fiber membrane bundle to the housing and coupled to an end portion of the housing so as to hermetically seal the housing; and a sealing member disposed between the housing and the potting portion and hermetically sealing the housing, wherein the sealing member comprises: a sealing body mounted at an end of the housing; a first protruding portion protruded from the sealing body in a length direction of the housing and closely contacting with an interior circumference of the end portion of the housing; and at least one lip extending from the first protruding portion toward the potting portion and resiliently contacting with an external circumferential surface of the potting portion, and further comprising a second protruding portion protruded from the sealing body in the length direction of the housing, wherein the end portion of the housing is positioned between the first protruding portion and the second protruding portion. a housing in which a hollow fiber membrane bundle is mounted, the hollow fiber membrane bundle being formed by integrating a plurality of hollow fiber membranes; a potting portion fixing an end portion of the hollow fiber membrane bundle to the housing and coupled to an end portion of the housing so as to hermetically seal the housing; and a sealing member disposed between the housing and the potting portion and hermetically sealing the housing, wherein the sealing member comprises: a sealing body mounted at an end of the housing; a first protruding portion protruded from the sealing body in a length direction of the housing and closely contacting with an interior circumference of the end portion of the housing; and at least one lip extending from the first protruding portion toward the potting portion and resiliently contacting with an external circumferential surface of the potting portion, and further comprising a second protruding portion protruded from the sealing body in the length direction of the housing, wherein the end portion of the housing is positioned between the first protruding portion and the second protruding portion. a sealing body mounted at an end of the housing; a first protruding portion protruded from the sealing body in a length direction of the housing and closely contacting with an interior circumference of the end portion of the housing; and at least one lip extending from the first protruding portion toward the potting portion and resiliently contacting with an external circumferential surface of the potting portion, and further comprising a second protruding portion protruded from the sealing body in the length direction of the housing, wherein the end portion of the housing is positioned between the first protruding portion and the second protruding portion.
A protective headwear assembly (200, 300), comprising: an outer shell having a front portion and defining an opening in the front portion thereof, disposed proximate to the front portion; and a camera assembly having camera lens (202, 306) extending through the opening of the outer shell, the protective headwear assembly characterised in that the camera lens pivots about an axis of rotation. an outer shell having a front portion and defining an opening in the front portion thereof, disposed proximate to the front portion; and a camera assembly having camera lens (202, 306) extending through the opening of the outer shell, the protective headwear assembly characterised in that the camera lens pivots about an axis of rotation.
A computing device comprising: a battery; a power supply connector comprising a first contact and a second contact; a connection determination circuit configured to determine an input connected to the power supply connector; a charging circuit configured to charge the battery if the connection determination circuit determines a first input connected to the power supply connector; and an exception circuit configured to instruct the computing device to perform exception processing if the connection determination circuit determines a second input connected to the power supply connector; wherein the first input is from a first input group and is a voltage for charging the battery; and wherein the second input is from a second input group and is a short circuit caused by a conductive member arranged between the first contact and the second contact. a battery; a power supply connector comprising a first contact and a second contact; a connection determination circuit configured to determine an input connected to the power supply connector; a charging circuit configured to charge the battery if the connection determination circuit determines a first input connected to the power supply connector; and an exception circuit configured to instruct the computing device to perform exception processing if the connection determination circuit determines a second input connected to the power supply connector; wherein the first input is from a first input group and is a voltage for charging the battery; and wherein the second input is from a second input group and is a short circuit caused by a conductive member arranged between the first contact and the second contact.
A control system of a hybrid vehicle control system comprising: an engine, a motor/generator connected to the engine described above and carries out power driving and the electric power regeneration, and a start clutch, which is arranged in a drive force transmission system from the motor/generator described above to the drive wheels and which is engaged under an input rotational speed control, characterized by a transient control mode switching means that works as follows: when the input rotational speed control of the start clutch is switched from the motor rotational speed control to engine rotational speed control, the motor rotational speed control is kept, and both the motor rotational speed control and the engine rotational speed control are carried out at the same time until a determination is made that the engine torque is stable; after the determination is made that the engine torque is stable, the control is switched from the motor rotational speed control to the motor torque control; and the transient control mode switching means works as follows: when the stability of the engine torque described above is determined, the transient control mode switching means gradually changes the motor lower torque limit in the motor rotational speed control to the target electric power generation torque, and then, the transient control means switches the mode to the motor torque control. an engine, a motor/generator connected to the engine described above and carries out power driving and the electric power regeneration, and a start clutch, which is arranged in a drive force transmission system from the motor/generator described above to the drive wheels and which is engaged under an input rotational speed control, characterized by a transient control mode switching means that works as follows: when the input rotational speed control of the start clutch is switched from the motor rotational speed control to engine rotational speed control, the motor rotational speed control is kept, and both the motor rotational speed control and the engine rotational speed control are carried out at the same time until a determination is made that the engine torque is stable; after the determination is made that the engine torque is stable, the control is switched from the motor rotational speed control to the motor torque control; and the transient control mode switching means works as follows: when the stability of the engine torque described above is determined, the transient control mode switching means gradually changes the motor lower torque limit in the motor rotational speed control to the target electric power generation torque, and then, the transient control means switches the mode to the motor torque control.
A unit for the control or management of products in the form of packs for containing articles of the tissue industry, the articles being in the form of rolls or packages, the unit being usable in a plant for making such products, the plant comprising at least one operating line including: - at least one upstream section for making the articles in the form of a log saw for cutting rolls off respective elongate logs, and - at least one packaging section for primary packaging where the articles or rolls are packed and; - at least one or more further packaging sections, in the form of at least one bagging section where the packs are placed in bags, and/or - one palletizing section where the packs or bags are placed on pallets; the plant comprising a conveying means, by which the products are transported between one section of the plant and another; the plant being provided with process control means for controlling the functioning of the plant sections; and the unit having respective electronic processing or control means; characterized in that it comprises: means for lighting (20,22,24) and for detecting (14,16,18) a face of the product, which are adapted for producing different images of the product face, which exhibit different states of reflection of the light that is incident upon the product face. - at least one upstream section for making the articles in the form of a log saw for cutting rolls off respective elongate logs, and - at least one packaging section for primary packaging where the articles or rolls are packed and; - at least one or more further packaging sections, in the form of at least one bagging section where the packs are placed in bags, and/or - one palletizing section where the packs or bags are placed on pallets; the plant comprising a conveying means, by which the products are transported between one section of the plant and another; the plant being provided with process control means for controlling the functioning of the plant sections; and the unit having respective electronic processing or control means; characterized in that it comprises: means for lighting (20,22,24) and for detecting (14,16,18) a face of the product, which are adapted for producing different images of the product face, which exhibit different states of reflection of the light that is incident upon the product face.
Trolley compartment for an on-board kitchen intended for installation in a means of transport, which trolley compartment comprises: - a frontal access aperture as well as a rear wall that lies opposite said access aperture; - a worktop which forms an upper boundary of the trolley compartment; and - a first cooling fluid duct which is integrated into or arranged adjacent to the worktop, characterized in that the first cooling fluid duct is connectable to an interior space of the trolley compartment via at least one first cooling fluid aperture at an underside of the worktop, and in that the trolley compartment further comprises: - at least one first removable cooling fluid aperture cover which is selectively mountable in the first cooling fluid duct over the first cooling fluid aperture in order to separate said first cooling fluid duct from the interior space of the trolley compartment, or demountable from the first cooling fluid duct in order to connect said first cooling fluid duct to the interior space of the trolley compartment via the first cooling fluid aperture. - a frontal access aperture as well as a rear wall that lies opposite said access aperture; - a worktop which forms an upper boundary of the trolley compartment; and - a first cooling fluid duct which is integrated into or arranged adjacent to the worktop, - at least one first removable cooling fluid aperture cover which is selectively mountable in the first cooling fluid duct over the first cooling fluid aperture in order to separate said first cooling fluid duct from the interior space of the trolley compartment, or demountable from the first cooling fluid duct in order to connect said first cooling fluid duct to the interior space of the trolley compartment via the first cooling fluid aperture.