mhurhangee/patent-ind-claim-en huggingface dataset:
Appliance for producing a food item , wherein the appliance comprises - a cultivation component for cultivating and providing an edible cultivated ingredient , wherein the cultivation component comprises a cultivation region , in which the cultivated ingredient can grow, and comprises a harvesting module; - means for providing an edible external ingredient , which is not cultivated in the appliance ; - processing means , which are designed to produce the food item from at least one cultivated ingredient and at least one external ingredient ; and - a control unit , which is designed - to determine a recipe for producing the food item , wherein the recipe indicates ingredients and process steps for producing the food item ; - to control the harvesting module in order to remove a quantity of the cultivated ingredient indicated in the recipe for producing the food item from the cultivation region ; and - to prompt the processing means to produce the food item according to the recipe; characterised in that - the cultivation of the cultivated ingredient takes place in or on a liquid medium and - the harvesting module is designed to remove a mature portion of the cultivated ingredient from the cultivation region , by filtering out fruit or plants of the cultivated ingredient from the liquid medium as a function of size. - a cultivation component for cultivating and providing an edible cultivated ingredient , wherein the cultivation component comprises a cultivation region , in which the cultivated ingredient can grow, and comprises a harvesting module; - means for providing an edible external ingredient , which is not cultivated in the appliance ; - processing means , which are designed to produce the food item from at least one cultivated ingredient and at least one external ingredient ; and - a control unit , which is designed - to determine a recipe for producing the food item , wherein the recipe indicates ingredients and process steps for producing the food item ; - to control the harvesting module in order to remove a quantity of the cultivated ingredient indicated in the recipe for producing the food item from the cultivation region ; and - to prompt the processing means to produce the food item according to the recipe; characterised in that - the cultivation of the cultivated ingredient takes place in or on a liquid medium and - the harvesting module is designed to remove a mature portion of the cultivated ingredient from the cultivation region , by filtering out fruit or plants of the cultivated ingredient from the liquid medium as a function of size.
A control method performed by a controller for controlling an electric vehicle based on information instructed by an occupant of the electric vehicle , the control method comprising: causing (S06), in a case where the electric vehicle is moved in a instructed directon and at an instructed first speed (V) to approach a target object , the electric vehicle to stop temporarily at a position at which a distance between the electric vehicle and the target object reaches a first stop distance (L1), the control method being characterized in that it further comprises : subsequently, moving (S08), in a case where the instruction to move in a direction of the target object, which is the instructed direction, is continuously issued for a certain time period, in the instructed direction at a second speed (V2) lower than the first speed (V) to bring the electric vehicle closer to the target object and causing (S11) the electric vehicle to stop at a position at which the distance between the electric vehicle and the target object reaches a second stop distance (L2) shorter than the first stop distance (L1).
A microwave resonator , comprising a chamber made of metal material configured to contain electrons of a plasma confined in a B-minimum magnetic field generated within the chamber , said chamber comprising a first and a second end face and extending along a central axis (z) between said first and second end face, and a microwave launching device configured for the injection of microwaves into said chamber, wherein, at the first end face , said chamber has a cross section of multi-lobed shape tapering toward the second end face , wherein, at the second end face , said chamber has a cross section of multi-lobed shape identical to the shape of the cross section of the first end face and rotated by 180° relative to the first end face about the central axis (z), the cross section of the second end face tapering towards the first end face , and wherein, at an intermediate plane, the shape of the cross section of the first end face merges with the shape of the cross section of the second end face , characterized in that the microwave resonator is configured to have a shape that follows the shape of the last iso-density surface of the electrons, wherein said microwave launching device comprises a waveguide arranged on a side wall of said chamber and extending along said central axis, said waveguide having an array of diffractive apertures interposed between the waveguide and the chamber and facing the inside of said chamber. a chamber made of metal material configured to contain electrons of a plasma confined in a B-minimum magnetic field generated within the chamber , said chamber comprising a first and a second end face and extending along a central axis (z) between said first and second end face, and a microwave launching device configured for the injection of microwaves into said chamber, wherein, at the first end face , said chamber has a cross section of multi-lobed shape tapering toward the second end face , wherein, at the second end face , said chamber has a cross section of multi-lobed shape identical to the shape of the cross section of the first end face and rotated by 180° relative to the first end face about the central axis (z), the cross section of the second end face tapering towards the first end face , and wherein, at an intermediate plane, the shape of the cross section of the first end face merges with the shape of the cross section of the second end face , characterized in that the microwave resonator is configured to have a shape that follows the shape of the last iso-density surface of the electrons, wherein said microwave launching device comprises a waveguide arranged on a side wall of said chamber and extending along said central axis, said waveguide having an array of diffractive apertures interposed between the waveguide and the chamber and facing the inside of said chamber.
A hot-melt composition comprising, with respect to 100 parts by mass of a hydrogenated styrene thermoplastic elastomer having styrene-based polymer blocks at both ends and a hydrogenated diene polymer block at a middle portion and having a mass-average molecular weight of 250,000 to 600,000 (A), 150 to 450 parts by mass of an aromatic tackifying resin having a softening point of 135 to 160°C and a mass-average molecular weight of 500 to 2,500 (B), 100 to 500 parts by mass of a tackifying resin for a hydrogenated diene polymer block which has a softening point of 100 to 160°C (C), 500 to 1,500 parts by mass of a non-aromatic hydrocarbon oil having a kinematic viscosity at 40°C of 90 mm 2 /s or higher (D), wherein 30% by mass or more of the non-aromatic hydrocarbon oil (D) is a non-aromatic hydrocarbon oil having a kinematic viscosity at 40°C of 300 to 500 mm 2 /s (D-1), wherein: - the mass average molecular weight is a value in terms of polystyrene standard based on a measured value by gel permeation chromatography (GPC) using tetrahydrofuran (THF) as a solvent; - the softening point of the tackifying resin and the hot-melt composition is measured according to JAI-7-1999. - the mass average molecular weight is a value in terms of polystyrene standard based on a measured value by gel permeation chromatography (GPC) using tetrahydrofuran (THF) as a solvent; - the softening point of the tackifying resin and the hot-melt composition is measured according to JAI-7-1999.
A method for managing power consumption of a network, the method comprising: monitoring , by a network device, a set of network area zones of a network coverage area, each network area zone associated with a set of edge devices; determining , for a first network area zone of the set of network area zones, a first occupancy state based on usage of a first set of edge devices of the first network area zone, wherein determining the first occupancy state comprises determining the first occupancy state based on a number of client devices attached to the first set of edge devices and an amount of usage of the first set of edge devices; based on the determined first occupancy state, determining a first power consumption policy for the first network area zone; and responsive to determining the first power consumption policy, applying the determined first power consumption policy to the first set of edge devices in the first network area zone at least by changing a power consumption mode of a first edge device in the first set of edge devices. monitoring , by a network device, a set of network area zones of a network coverage area, each network area zone associated with a set of edge devices; determining , for a first network area zone of the set of network area zones, a first occupancy state based on usage of a first set of edge devices of the first network area zone, wherein determining the first occupancy state comprises determining the first occupancy state based on a number of client devices attached to the first set of edge devices and an amount of usage of the first set of edge devices; based on the determined first occupancy state, determining a first power consumption policy for the first network area zone; and responsive to determining the first power consumption policy, applying the determined first power consumption policy to the first set of edge devices in the first network area zone at least by changing a power consumption mode of a first edge device in the first set of edge devices.
A method performed by an apparatus at a base station, the method comprising: configuring two or more user equipments for uplink transmission with one or more uplink time-frequency regions for enhanced machine type communication, wherein the one or more uplink time-frequency regions are assigned to two or more non-adjacent coverage regions dependent on received power levels at the two or more user equipments, wherein the configuring is based on defining and signaling one or more thresholds and parameters for the one or more uplink time-frequency resource regions respectively associated with the one or more thresholds, the parameters for the one or more uplink time-frequency resource regions comprising one or more of: a resource assignment, a starting subframe periodicity, a starting subframe offset, a time duration in each period, a demodulation reference signal cyclic shift assignment, orthogonal cover code assignment, and interleaver assignment, wherein the one or more thresholds comprise criteria for a user equipment to use the associated one or more uplink time-frequency resource regions for uplink communications, the criteria enabling the two or more user equipments with different coverage areas to select the same or partially overlapping uplink time-frequency resource region(s) for uplink transmission; and receiving uplink transmissions from the two or more user equipments in accordance with the configuring. configuring two or more user equipments for uplink transmission with one or more uplink time-frequency regions for enhanced machine type communication, wherein the one or more uplink time-frequency regions are assigned to two or more non-adjacent coverage regions dependent on received power levels at the two or more user equipments, wherein the configuring is based on defining and signaling one or more thresholds and parameters for the one or more uplink time-frequency resource regions respectively associated with the one or more thresholds, the parameters for the one or more uplink time-frequency resource regions comprising one or more of: a resource assignment, a starting subframe periodicity, a starting subframe offset, a time duration in each period, a demodulation reference signal cyclic shift assignment, orthogonal cover code assignment, and interleaver assignment, wherein the one or more thresholds comprise criteria for a user equipment to use the associated one or more uplink time-frequency resource regions for uplink communications, the criteria enabling the two or more user equipments with different coverage areas to select the same or partially overlapping uplink time-frequency resource region(s) for uplink transmission; and receiving uplink transmissions from the two or more user equipments in accordance with the configuring.
An electric motor, in particular canned motor, with a connection housing which is arranged outside on the motor housing , receives electrical connections as well as electronic components and with respect to the motor axis extends peripherally and axially of the motor housing , characterised in that the connection housing comprises two individual housings which are connected to one another and whose interiors are connected, - that an individual housing is designed as an axial housing and connects to the motor housing in the axial direction and the other individual housing is designed as a radial housing and connects radially onto the motor housing , - that the individual housings are constructed in a multipart manner, wherein the materials of at least two components of the individual housings differ in thermal conductivity by at least a power of ten, - that a display and/or operating unit is provided, which is arranged in the cover of an individual housing , - that the radial housing comprises a metallic base body which is provided with cooling ribs and in which a circuit board comprising power electronics is arranged, whose power components are connected to the base body in a thermally conductive manner. - that an individual housing is designed as an axial housing and connects to the motor housing in the axial direction and the other individual housing is designed as a radial housing and connects radially onto the motor housing , - that the individual housings are constructed in a multipart manner, wherein the materials of at least two components of the individual housings differ in thermal conductivity by at least a power of ten, - that a display and/or operating unit is provided, which is arranged in the cover of an individual housing , - that the radial housing comprises a metallic base body which is provided with cooling ribs and in which a circuit board comprising power electronics is arranged, whose power components are connected to the base body in a thermally conductive manner.
A method of operating a pressurized wastewater-drainage system having interconnected line sections (SA1 ...SA9) for conducting wastewater to a transfer station and a plurality of pump stations connected to the line sections (SA1 ...SA9) for collecting the wastewater, wherein at least a portion of the pump stations transmit status information indicating its respective pump readiness status to a central controller , characterized - in that a group is formed from the set of pump stations that are ready to pump in relation to one of the line sections (SA1 ...SA9) such that the number of pump stations of the group corresponds at least to a minimum number (p_min) of pump stations associated with this line section (SA1...SA9), the minimum number (p_min) of pump stations being selected such that a certain minimum flow is reached in this line section for self-cleaning, - in that the pump stations of the group are then activated simultaneously by the central controller . - in that a group is formed from the set of pump stations that are ready to pump in relation to one of the line sections (SA1 ...SA9) such that the number of pump stations of the group corresponds at least to a minimum number (p_min) of pump stations associated with this line section (SA1...SA9), the minimum number (p_min) of pump stations being selected such that a certain minimum flow is reached in this line section for self-cleaning, - in that the pump stations of the group are then activated simultaneously by the central controller .
A method in a user equipment comprising: broadcasting from the user equipment a beacon using an orthogonal frequency division multiplexing frame structure comprising a plurality of beacon fields; receiving at least one random access request from at least one neighbor user equipment to trigger handshake signaling to establish a device to device connection; responding to one of the at least one random access request with an acknowledgement including at least an identifier of the user equipment to confirm the device to device connection with the at least one neighbor user equipment; receiving a flexible spectrum usage beacon of available channels from the at least one neighbor user equipment; decoding the received flexible spectrum usage beacon; obtaining, from the received flexible spectrum usage beacon, at least a spectrum usage status indicating available resources and a priority for each of the available resources; discovering available resources by scanning frequency channels within a frequency band supported by the user equipment, wherein the available resources are flexible spectrum usage resources; wherein the discovering of available resources comprises using the information obtained from the received flexible spectrum usage beacon; and exchanging information on the discovered available flexible spectrum usage resources with the at least one neighbor user equipment; wherein the random access request, the acknowledgement and the flexible spectrum usage beacon use the orthogonal frequency division multiplexing frame structure. broadcasting from the user equipment a beacon using an orthogonal frequency division multiplexing frame structure comprising a plurality of beacon fields; receiving at least one random access request from at least one neighbor user equipment to trigger handshake signaling to establish a device to device connection; responding to one of the at least one random access request with an acknowledgement including at least an identifier of the user equipment to confirm the device to device connection with the at least one neighbor user equipment; receiving a flexible spectrum usage beacon of available channels from the at least one neighbor user equipment; decoding the received flexible spectrum usage beacon; obtaining, from the received flexible spectrum usage beacon, at least a spectrum usage status indicating available resources and a priority for each of the available resources; discovering available resources by scanning frequency channels within a frequency band supported by the user equipment, wherein the available resources are flexible spectrum usage resources; wherein the discovering of available resources comprises using the information obtained from the received flexible spectrum usage beacon; and exchanging information on the discovered available flexible spectrum usage resources with the at least one neighbor user equipment; wherein the random access request, the acknowledgement and the flexible spectrum usage beacon use the orthogonal frequency division multiplexing frame structure.
A method for manufacturing a forged drive shaft comprising a step (A) of preparing a shaft material having a first preliminary cylindrical part that has a first diameter (A1) and extends in an axial direction thereof, a second preliminary cylindrical part that has a second diameter (A2) that is larger than the first diameter (A1), and a preliminary intermediate shaft part that connects to each other the first preliminary cylindrical part and the second preliminary cylindrical part and that has a diameter larger than the first diameter (A1) but smaller than the second diameter (A2), a step (B) of forging a spline molded product by inserting the shaft material into a profile space of a first die having a spline molding part and applying pressure to the shaft material by means of a punch to thus mold the spline molded product having a spline shaft having a first diameter (B2) on a first end side of the shaft material within the first die , and a step (C) of forging a gear molded product by inserting the spline molded product via the spline shaft part side into a second die having a gear molding part and applying pressure to the spline molded product by means of a punch to thus mold the gear molded product having a gear shaft on an outer periphery on a side opposite to the spline shaft within the second die , characterized in that said method comprises a step of leaving a forged black surface on a tooth face in at least part of a region in an axial direction of the gear shaft of the gear molded product and machining the tooth face in another region in the axial direction.
Electrical converter configured to supply an electric machine , in particular for aircraft, comprising an annular stator and a rotor , the electrical converter comprising: • a plurality of power inverters (01-06) each comprising a plurality of power devices (3-1; 3-18) configured to be connected to the annular stator so as to supply the electric machine with power, • a casing , having an annular shape, extending longitudinally along an axis (X) and defining a radially inner surface (S1) and a radially outer surface (S2), the casing comprising a plurality of cooling baths formed in the radially inner surface (S1), called inner baths , and in the radially outer surface (S2), called outer baths , • a cooling circuit configured to supply each inner bath and each outer bath with coolant (F), and • the power devices (3-1; 3-18) being mounted in the inner baths and in the outer baths so as to allow cooling of all the power devices (3-1; 3-18). • a plurality of power inverters (01-06) each comprising a plurality of power devices (3-1; 3-18) configured to be connected to the annular stator so as to supply the electric machine with power, • a casing , having an annular shape, extending longitudinally along an axis (X) and defining a radially inner surface (S1) and a radially outer surface (S2), the casing comprising a plurality of cooling baths formed in the radially inner surface (S1), called inner baths , and in the radially outer surface (S2), called outer baths , • a cooling circuit configured to supply each inner bath and each outer bath with coolant (F), and • the power devices (3-1; 3-18) being mounted in the inner baths and in the outer baths so as to allow cooling of all the power devices (3-1; 3-18).