mhurhangee/patent-ind-claim-en huggingface dataset:
Processing apparatus, in which a dairy product is pumped by a pump through a microwave chamber and thereby heated, dried, disinfected, pasteurized and/or sterilized, characterized in, that it comprises a multitude of solid-state radio frequency sources , with one or more antenna(s) and one or more waveguide(s), wherein each radio frequency source is powered individually, and further comprising a sensor that measures one property of the radiation reflected from the dairy product, wherein the signal of the sensor is utilized by a control system to control the solid-state radio frequency sources.
A kitchen appliance comprising: a base housing a motor , the base having an upper surface and a first portion of a magnetic drive coupling beneath the upper surface, wherein the first portion comprises a first magnet arrangement; a container, wherein a bottom side of the container is for mounting on the base , wherein the container houses: a tool ; and a second portion of the magnetic drive coupling for magnetically coupling with the first portion of the magnetic drive coupling, such that the tool is driven by the motor of the base via the magnetic drive coupling, wherein the second portion comprises a second magnet arrangement; the kitchen appliance being characterized by : a decoupling arrangement for rotating the first and second portions relative to each other such that a magnetic coupling force between the first and second portions of the magnetic drive coupling is reduced. a base housing a motor , the base having an upper surface and a first portion of a magnetic drive coupling beneath the upper surface, wherein the first portion comprises a first magnet arrangement; a container, wherein a bottom side of the container is for mounting on the base , wherein the container houses: a tool ; and a second portion of the magnetic drive coupling for magnetically coupling with the first portion of the magnetic drive coupling, such that the tool is driven by the motor of the base via the magnetic drive coupling, wherein the second portion comprises a second magnet arrangement; the kitchen appliance being characterized by : a tool ; and a second portion of the magnetic drive coupling for magnetically coupling with the first portion of the magnetic drive coupling, such that the tool is driven by the motor of the base via the magnetic drive coupling, wherein the second portion comprises a second magnet arrangement; the kitchen appliance being characterized by : a decoupling arrangement for rotating the first and second portions relative to each other such that a magnetic coupling force between the first and second portions of the magnetic drive coupling is reduced.
A method in a base station of a cell having at least a first and a second antenna sector, the base station being distributed in terms of location, the method comprising: - estimating , in the at least the first and the second antenna sectors, a thermal noise floor; and - determining an uplink power control target for a user equipment, UE, connected to the first antenna sector, based on a maximum thermal noise floor of the estimated thermal noise floors in all of the at least the first and the second antenna sectors, wherein determining the uplink power control target, is further based on: a first pre-determined power component; a second pre-determined power component; and a third pre-determined power component, wherein the third pre-determined power component provides a minimal detectable signal power in an antenna sector, having the maximum thermal noise floor of the estimated thermal noise floors, of the at least the first and second antenna sectors, and wherein determining the uplink power control target is further determined as the maximum of: - a sum of the thermal noise floor of the first antenna sector and the second pre-determined power component, and - a sum of the maximum thermal noise floor of the thermal noise floors, the first pre-determined power component, and the third pre-determined power component. - estimating , in the at least the first and the second antenna sectors, a thermal noise floor; and - determining an uplink power control target for a user equipment, UE, connected to the first antenna sector, based on a maximum thermal noise floor of the estimated thermal noise floors in all of the at least the first and the second antenna sectors, wherein determining the uplink power control target, is further based on: a first pre-determined power component; a second pre-determined power component; and a third pre-determined power component, wherein the third pre-determined power component provides a minimal detectable signal power in an antenna sector, having the maximum thermal noise floor of the estimated thermal noise floors, of the at least the first and second antenna sectors, and wherein determining the uplink power control target is further determined as the maximum of: - a sum of the thermal noise floor of the first antenna sector and the second pre-determined power component, and - a sum of the maximum thermal noise floor of the thermal noise floors, the first pre-determined power component, and the third pre-determined power component.
Turning station for metal sheets or metal sheet stacks , with a first support , which forms a first support plane for a first side of the metal sheets, and with a second support , which forms a second support plane for a second side of the metal sheets, wherein both supports are each rotatable about an horizontal axis of rotation and are provided with a plurality of stops for the longitudinal edges of the metal sheets, which project beyond the support planes of the supports , wherein both supports are part of a rotary apparatus , which also comprises a frame with two front-side rotary bearings , situated in a common axis of rotation , and a basket , mounted in both rotary bearings and rotatable via a motor about the axis of rotation with front-side linear guides for both supports , wherein both supports are held by parallel, mutually oriented support planes in the basket , such that the axis of rotation is located between both support planes, characterised in that both supports are each movable by a motor in the front-side linear guides in a direction of movement towards and away from the axis of rotation , in particular movable symmetrically to the plane of the axis of rotation , and wherein the supports are each formed in particular by a plurality of webs running transversely to the axis of rotation , wherein the turning station, in addition to the rotary apparatus , has a stationary transfer apparatus with a plurality of horizontally oriented rods that can be extended horizontally on both sides, in particular telescopic rods , for placing the metal sheets or the metal sheet stack, wherein the rods on a first broad side of the transfer apparatus can be extended in order to engage below a support in the rotary apparatus , and can be extended on a second broad side of the transfer apparatus in order to transfer metal sheets or the metal sheet stack to a transport apparatus . characterised in that both supports are each movable by a motor in the front-side linear guides in a direction of movement towards and away from the axis of rotation , in particular movable symmetrically to the plane of the axis of rotation , and wherein the supports are each formed in particular by a plurality of webs running transversely to the axis of rotation , wherein the turning station, in addition to the rotary apparatus , has a stationary transfer apparatus with a plurality of horizontally oriented rods that can be extended horizontally on both sides, in particular telescopic rods , for placing the metal sheets or the metal sheet stack, wherein the rods on a first broad side of the transfer apparatus can be extended in order to engage below a support in the rotary apparatus , and can be extended on a second broad side of the transfer apparatus in order to transfer metal sheets or the metal sheet stack to a transport apparatus .
Wound stator of a rotating electric machine comprising a field frame , teeth distributed over an inner periphery of said field frame extending towards the interior of said stator and pairwise delimiting notches , and coils formed around each tooth from a wire having a section of substantially rectangular form, lateral flanks of a same tooth being inclined with respect to one another, such that two lateral flanks of two adjacent teeth facing one another corresponding to the edges delimiting a notch are parallel to one another, characterized in that each tooth comprises a tooth root which extends on either side of the part of the tooth around which the coil is wound, and in that the parts of the tooth roots of two adjacent teeth facing one another extend substantially parallel to the bottom of the corresponding notch .
A tow element for coupling a tow lift to a bicycle, the tow element comprising: - a tube ; - a tow loop , extending from one end of the tube ; and - a connector , extending from the opposite end of the tube and configured to connect the tow element to the tow lift; wherein the tow loop comprises two side portions and a loop portion , connecting the end parts of the side portions to form a loop shape such that the tow loop is configured to be hooked onto the stem of a bicycle, and wherein a grip is placed at the end of the tube from which the tow loop extends and is configured to be grabbed and pulled to release the tow loop from the stem . - a tube ; - a tow loop , extending from one end of the tube ; and - a connector , extending from the opposite end of the tube and configured to connect the tow element to the tow lift;
A vehicle turning control device controlling a turning characteristic of a vehicle having braking/driving sources capable of independently controlling a braking/driving torque which is a braking torque or a driving torque for each of wheels , the vehicle turning control device comprising: a yaw moment control device configured to control a yaw moment that occurs in the vehicle ; and a slip determination device configured to determine a road surface state from an angular velocity and an angular acceleration of the wheel of the vehicle and a vehicle speed, wherein the yaw moment control device includes a control gain calculator configured to calculate a control gain, characterized in that the yaw moment control device further includes target yaw rate calculator configured to calculate a target yaw rate from the vehicle speed, a steering angle thereof, and the control gain calculated by the control gain calculator , and a yaw moment calculator configured to calculate the braking/driving torque for each wheel of the vehicle in accordance with the target yaw rate calculated by the target yaw rate calculator , and the control gain calculator calculates the control gain in accordance with a predetermined condition on the basis of a determination result of the slip determination device . a yaw moment control device configured to control a yaw moment that occurs in the vehicle ; and a slip determination device configured to determine a road surface state from an angular velocity and an angular acceleration of the wheel of the vehicle and a vehicle speed, wherein the yaw moment control device includes a control gain calculator configured to calculate a control gain, characterized in that the yaw moment control device further includes target yaw rate calculator configured to calculate a target yaw rate from the vehicle speed, a steering angle thereof, and the control gain calculated by the control gain calculator , and a yaw moment calculator configured to calculate the braking/driving torque for each wheel of the vehicle in accordance with the target yaw rate calculated by the target yaw rate calculator , and a control gain calculator configured to calculate a control gain, characterized in that the yaw moment control device further includes target yaw rate calculator configured to calculate a target yaw rate from the vehicle speed, a steering angle thereof, and the control gain calculated by the control gain calculator , and a yaw moment calculator configured to calculate the braking/driving torque for each wheel of the vehicle in accordance with the target yaw rate calculated by the target yaw rate calculator , and the control gain calculator calculates the control gain in accordance with a predetermined condition on the basis of a determination result of the slip determination device .
A method of transmitting an uplink signal at a user equipment to a base station in a wireless communication system supporting an unlicensed band, the method comprising: receiving, from the base station, downlink control information, DCI, for scheduling uplink signal transmission for one or more subframes, wherein the DCI includes a redundancy version, RV, value for a subframe included in the one or more subframes; and transmitting the uplink signal in the one or more subframes scheduled by the DCI by applying the RV value to the subframe, wherein based on that a number of subframes scheduled by the DCI is one, the RV value corresponding to the subframe is 2 bits, and wherein based on that the number of subframes scheduled by the DCI is two or more, the RV value corresponding to the subframe is 1 bit, and wherein a RV value for each of a plurality of codewords included in the subframe is identical to the RV value for the subframe. receiving, from the base station, downlink control information, DCI, for scheduling uplink signal transmission for one or more subframes, wherein the DCI includes a redundancy version, RV, value for a subframe included in the one or more subframes; and transmitting the uplink signal in the one or more subframes scheduled by the DCI by applying the RV value to the subframe, wherein based on that a number of subframes scheduled by the DCI is one, the RV value corresponding to the subframe is 2 bits, and wherein based on that the number of subframes scheduled by the DCI is two or more, the RV value corresponding to the subframe is 1 bit, and wherein a RV value for each of a plurality of codewords included in the subframe is identical to the RV value for the subframe.
A formable nickel based superalloy composition, consisting of: a two phase γ/γ' precipitation hardenable nickel base superalloy consisting of 69.35 at.% Ni, 5.15 at.% Co, 11.68 at.% Cr, 1.32 at.% W, 2.93 at.% Ta, 1.38 at.% Ti and 8.19 at.% Al, cast in the form of a single crystal.
An error-proof operating system for a portable gas hob, comprising a gas tank cavity partition having two ends respectively fixed to a front panel and a back panel , wherein a bounce limiting device is provided on the gas tank cavity partition , the bounce limiting device is connected to an actuating rod , the actuating rod is rotatably connected to the gas tank cavity partition , one end of the actuating rod penetrates through the front panel , and a top of the bounce limiting device is not lower than a bearing end for bearing a liquid holding tray , wherein further the bounce limiting device comprises a pull rod slidably connected to the gas tank cavity partition , a gas tank driving part at an end of the pull rod penetrates through the gas tank cavity partition and is positioned in a gas tank cavity, the end of the actuating rod is movably connected to the pull rod , a spring a is connected between the pull rod and the gas tank cavity partition , a position-limiting notch (5.1) is formed at a bottom end of the pull rod , a position-limiting piece a (6.3) matching the position-limiting notch (5.1) is provided on a brake , the brake is movably connected to the gas tank cavity partition , a spring b is connected between the brake and the gas tank cavity partition , a top of the brake is not lower than the bearing end , the brake is rotatably connected to the gas tank cavity partition , a guide piece a (6.1) movable along a guide slot a (4.3) is provided on the brake , the guide slot a (4.3) is located on the gas tank cavity partition , and an arc-shaped surface (6.2) for reducing friction is provided at the top of the brake .
A contact point between a solid oxide cell and an interconnect of a solid oxide stack, said contact point comprising: - a ferritic stainless steel interconnect substrate covered by a chromium oxide layer, which is coated by a coating comprising an element that acts as a sintering aid, and - an oxygen electrode or an oxygen-side contact layer of a solid oxide cell, where the element functions as a sintering aid towards the oxygen electrode or oxygen-side contact layer materials, wherein the element that acts as a sintering aid is Cu, and wherein the voltage drop across the contact point is less than 25 mV, when measured in air at 750°C, under a de current density of 1.27 A/cm 2 , under a compressive load of 3 MPa - a ferritic stainless steel interconnect substrate covered by a chromium oxide layer, which is coated by a coating comprising an element that acts as a sintering aid, and - an oxygen electrode or an oxygen-side contact layer of a solid oxide cell, where the element functions as a sintering aid towards the oxygen electrode or oxygen-side contact layer materials, wherein the element that acts as a sintering aid is Cu, and wherein the voltage drop across the contact point is less than 25 mV, when measured in air at 750°C, under a de current density of 1.27 A/cm 2 , under a compressive load of 3 MPa
Motor vehicle glazing comprising: - two glass sheets, one external and one internal , each respectively comprising an external face 1 and 3 and an internal face 2 and 4, joined by means of one or more thermoplastic interlayer sheets , - at least one electrically powered functional assembly being inserted between the sheets of the glazing, - a capacitive sensor controlling the power supply to the functional assembly via a unit for processing the signals emitted by the sensor, the sensor also being positioned on a transparent support coated with a conductive layer which is also transparent, in which layer the sensor is formed of a first region which corresponds to the capacitive electrode and a second region corresponding to the shielding electrode surrounding the first region, the first and second regions are separated by a distance A, - a touch surface , accessible by the user in position 4, placed at a distance B from the capacitive sensor , characterized in that the distance A between the capacitive electrode and the shielding electrode is equivalent to the distance B between the touch surface and the capacitive sensor. - two glass sheets, one external and one internal , each respectively comprising an external face 1 and 3 and an internal face 2 and 4, joined by means of one or more thermoplastic interlayer sheets , - at least one electrically powered functional assembly being inserted between the sheets of the glazing, - a capacitive sensor controlling the power supply to the functional assembly via a unit for processing the signals emitted by the sensor, the sensor also being positioned on a transparent support coated with a conductive layer which is also transparent, in which layer the sensor is formed of a first region which corresponds to the capacitive electrode and a second region corresponding to the shielding electrode surrounding the first region, the first and second regions are separated by a distance A, - a touch surface , accessible by the user in position 4, placed at a distance B from the capacitive sensor ,
A method for producing a conjugated diene-based polymer comprising: step 1 in which a polymerization initiator is added to a monomer including a conjugated diene compound in a hydrocarbon solvent to obtain a polymerization solution, and step 2 in which a polymerization initiator is further added to the polymerization solution either once or two or more times to obtain a polymer with an active end, wherein in step 1 and/or step 2, a modifying agent is added which has a functional group that is copolymerizable with the conjugated diene compound, and/or the method further comprises step 3 in which the polymer with the active end is reacted with a modifying agent having a functional group that is reactive with the active end, to introduce a unit based on the modifying agent at the polymer end. step 1 in which a polymerization initiator is added to a monomer including a conjugated diene compound in a hydrocarbon solvent to obtain a polymerization solution, and step 2 in which a polymerization initiator is further added to the polymerization solution either once or two or more times to obtain a polymer with an active end, wherein in step 1 and/or step 2, a modifying agent is added which has a functional group that is copolymerizable with the conjugated diene compound, and/or the method further comprises step 3 in which the polymer with the active end is reacted with a modifying agent having a functional group that is reactive with the active end, to introduce a unit based on the modifying agent at the polymer end. in step 1 and/or step 2, a modifying agent is added which has a functional group that is copolymerizable with the conjugated diene compound, and/or the method further comprises step 3 in which the polymer with the active end is reacted with a modifying agent having a functional group that is reactive with the active end, to introduce a unit based on the modifying agent at the polymer end.