mhurhangee/patent-ind-claim-en huggingface dataset:
A driver assistance device comprising one or more processors configured to: determine whether a pedal misapplication determination condition is satisfied; characterised in that the one or more processors are configured to output, when the one or more processors determine that the pedal misapplication determination condition is satisfied, at least one of: (i) a warning display directly instructing a driver to release a pedal that is depressed at a point in time of outputting; and (ii) an audio message indicating that the accelerator pedal is depressed before a warning audio directly instructing a driver to release a pedal that is depressed at a point in time of outputting, wherein directly instructing the driver to release the pedal that is depressed means that there is no implicit guiding of operations of releasing the pedal. determine whether a pedal misapplication determination condition is satisfied; characterised in that the one or more processors are configured to output, when the one or more processors determine that the pedal misapplication determination condition is satisfied, at least one of: (i) a warning display directly instructing a driver to release a pedal that is depressed at a point in time of outputting; and (ii) an audio message indicating that the accelerator pedal is depressed before a warning audio directly instructing a driver to release a pedal that is depressed at a point in time of outputting, (i) a warning display directly instructing a driver to release a pedal that is depressed at a point in time of outputting; and (ii) an audio message indicating that the accelerator pedal is depressed before a warning audio directly instructing a driver to release a pedal that is depressed at a point in time of outputting, wherein directly instructing the driver to release the pedal that is depressed means that there is no implicit guiding of operations of releasing the pedal.
Cradle for the incubation process of eggs in hatcheries, for the incubation of eggs in a cradleroom and optionally the hatching of the chicks, the cradle comprising an outer edge and an inner structure with a number of positions to receive eggs, characterised in that the cradle comprises a tiltable inner structure and a stackable outer edge , whereby the inner structure is tiltable in relation to at least two sidewalls of the outer edge, whereby the at least two sidewalls of the cradle are made such that they at least partially provide support for the stacking of several cradles on each other via said sidewalls .
A wireless communication method carried out in an eNodeB, eNB, comprising: if the coverage enhancement, CE, level of a user equipment, UE, is smaller than a predetermined level, transmitting a second downlink control information, DCI, if the CE level of the UE is larger than the predetermined level, transmitting a first DCI, the first DCI including frequency domain information and time domain information, the frequency domain information indicating a number of physical resource blocks, PRBs, from a plurality of candidates for the number of PRBs in a frequency domain within a narrowband which is a part of a bandwidth, and the time domain information indicating a number of repetitions in a time domain; wherein a number of bits of the first DCI is smaller than that of the second DCI used when the CE level is smaller than the predetermined level. if the coverage enhancement, CE, level of a user equipment, UE, is smaller than a predetermined level, transmitting a second downlink control information, DCI, if the CE level of the UE is larger than the predetermined level, transmitting a first DCI, the first DCI including frequency domain information and time domain information, the frequency domain information indicating a number of physical resource blocks, PRBs, from a plurality of candidates for the number of PRBs in a frequency domain within a narrowband which is a part of a bandwidth, and the time domain information indicating a number of repetitions in a time domain; wherein a number of bits of the first DCI is smaller than that of the second DCI used when the CE level is smaller than the predetermined level.
A method for generating a vibration description file, applicable to an electronic device, wherein the electronic device comprises a linear motor and a display , and the method comprises: presenting (S401), by the display of the electronic device, a first interface, wherein the first interface displays an obtained vibration waveform; obtaining (S402), by the electronic device, an adjustment instruction for the vibration waveform; generating, by the electronic device, an adjusted vibration waveform by applying the adjustment instruction for the vibration waveform on the obtained vibration waveform; generating (S403), by the electronic device, the vibration description file based on the adjusted vibration waveform; and controlling vibration of the linear motor using the vibration description file, characterized in that the generating (S403) the vibration description file comprises: generating (S404) the vibration description file in response to that vibration parameters of the adjusted vibration waveform do not exceed a preset adjustment limit value. presenting (S401), by the display of the electronic device, a first interface, wherein the first interface displays an obtained vibration waveform; obtaining (S402), by the electronic device, an adjustment instruction for the vibration waveform; generating, by the electronic device, an adjusted vibration waveform by applying the adjustment instruction for the vibration waveform on the obtained vibration waveform; generating (S403), by the electronic device, the vibration description file based on the adjusted vibration waveform; and controlling vibration of the linear motor using the vibration description file, characterized in that the generating (S403) the vibration description file comprises: generating (S404) the vibration description file in response to that vibration parameters of the adjusted vibration waveform do not exceed a preset adjustment limit value.
A milling assembly configured to be replaceably, but reliably and durably fastened at a frame of a ground milling machine according to any one of claim 5-9, the milling assembly comprising: a drum housing extending longitudinally along a housing axis (B); and a plurality of mounting units fixed to the drum housing for mounting the milling assembly to the frame , characterized in that each mounting unit is formed as a wedge-shaped protrusion extending from the drum housing in a radial direction of the housing axis (B) and includes a first face extending in a virtual plane substantially perpendicular to a housing axis (B) of the drum housing , and an opposing second face extending non-parallel to the first face , and each mounting unit includes a plurality of mounting holes configured to receive a respective end portion of one of the plurality of movable locking rods of the actuator assembly of the ground milling machine according to any of claims 5 to 9, the mounting holes extending from the first face . a drum housing extending longitudinally along a housing axis (B); and a plurality of mounting units fixed to the drum housing for mounting the milling assembly to the frame , characterized in that each mounting unit is formed as a wedge-shaped protrusion extending from the drum housing in a radial direction of the housing axis (B) and includes a first face extending in a virtual plane substantially perpendicular to a housing axis (B) of the drum housing , and an opposing second face extending non-parallel to the first face , and each mounting unit includes a plurality of mounting holes configured to receive a respective end portion of one of the plurality of movable locking rods of the actuator assembly of the ground milling machine according to any of claims 5 to 9, the mounting holes extending from the first face .
Aircraft seat with a backrest unit comprising a backrest support point as well as an aircraft seat energy absorption device that is configured, at least in a crash case, to at least partially absorb at least one main acceleration movement of at least one backrest unit , wherein in a crash case, due to mass inertia a large part of the backrest unit is accelerated in a direction of the sitting direction, i.e. a large part of the backrest unit that is arranged above a backrest support point relative to a vertical direction that is arranged substantially perpendicularly to a floor, and wherein the main acceleration movement of the backrest unit is oriented parallel to the sitting direction, with at least one seat energy absorption unit , which is configured, in a crash case, to be moved in at least one direction that differs from the main acceleration movement of the backrest unit , wherein the seat energy absorption unit is configured to be articulated to a lower region of the backrest unit and, in a crash case, to be moved counter to the sitting direction , characterised in that the seat energy absorption unit comprises at least one connection point which is configured at least for a connection of the seat energy absorption unit to at least one transverse-reinforcement unit .
A remotely controllable flow control configuration for controlling flow downhole comprising: a body ; a plurality of flow restrictors disposed in the body ; and a selector fluidly connected with the body and capable of supplying or denying fluid to one or more of the plurality of flow restrictors ; wherein a number of the plurality of flow restrictors are arranged in seriatim; the remotely controllable flow control configuration further comprising a number of channel sets in the body, wherein each channel set has a plurality of channels , each channel of each channel set fluidly intersecting the number of the plurality of flow restrictors that are arranged in seriatim in a different location, such that each channel of each channel set provides a selectable pathway for fluid flow through a different number of flow restrictors ; wherein the selector is rotationally moveable relative to the body and includes a port which may be selectively aligned with each channel of a channel set to select the corresponding selectable pathway and direct fluid flow along the corresponding selectable pathway. a body ; a plurality of flow restrictors disposed in the body ; and a selector fluidly connected with the body and capable of supplying or denying fluid to one or more of the plurality of flow restrictors ; wherein a number of the plurality of flow restrictors are arranged in seriatim; the remotely controllable flow control configuration further comprising a number of channel sets in the body, wherein each channel set has a plurality of channels , each channel of each channel set fluidly intersecting the number of the plurality of flow restrictors that are arranged in seriatim in a different location, such that each channel of each channel set provides a selectable pathway for fluid flow through a different number of flow restrictors ; wherein the selector is rotationally moveable relative to the body and includes a port which may be selectively aligned with each channel of a channel set to select the corresponding selectable pathway and direct fluid flow along the corresponding selectable pathway.
An outdoor unit of an air conditioner, comprising: a body housing defining therein a heat exchanger room and a machine room that further defines two portions divided by a substantially vertical plane that includes a straight line passing a center of a bottom plate provided on a bottom of the machine room and extending in a depth direction of the machine room ; a power-supply driving compressor being driven by an electric power; and a non-power-supply driving compressor unit containing a driving source other than the electric power and a non-power-supply driving compressor being driven by the driving source other than the electric power, wherein a substantially central position (A) of the non-power-supply driving compressor unit is disposed in one of the two portions of the machine room , and a substantially central position (B) of the power-supply driving compressor is disposed in the other one of the two portions of the machine room ; and wherein a horizontal direction distance (J1) between a substantially central position (C) of the non-power-supply driving compressor and the substantially central position (B) of the power-supply driving compressor is shorter than a horizontal direction distance (J2) between the substantially central position (A) of the non-power-supply driving compressor unit and the substantially central position (B) of the power-supply driving compressor . a body housing defining therein a heat exchanger room and a machine room that further defines two portions divided by a substantially vertical plane that includes a straight line passing a center of a bottom plate provided on a bottom of the machine room and extending in a depth direction of the machine room ; a power-supply driving compressor being driven by an electric power; and a non-power-supply driving compressor unit containing a driving source other than the electric power and a non-power-supply driving compressor being driven by the driving source other than the electric power, wherein a substantially central position (A) of the non-power-supply driving compressor unit is disposed in one of the two portions of the machine room , and a substantially central position (B) of the power-supply driving compressor is disposed in the other one of the two portions of the machine room ; and
A method for managing a body device performed by a mobile personal station carried by a user, wherein the method comprises: • receiving a connection request from the body device, wherein the connection request includes an identifier of the body device; • obtaining the identifier of the body device from the connection request (step 101); • traversing a body device list according to the identifier of the body device and determining from the body device list a communication mode supported by the body device according to the identifier of the body device (step 102); • obtaining a body parameter of the user that carries the body device from the body device, wherein the body parameter is a blood pressure or a heart rate (step 103); • setting, according to the communication mode supported by the body device, a communication mode of the mobile personal station for connecting with the body device; • setting an alarm threshold based on the body parameter and sending the alarm threshold to the body device (step 104). • receiving a connection request from the body device, wherein the connection request includes an identifier of the body device; • obtaining the identifier of the body device from the connection request (step 101); • traversing a body device list according to the identifier of the body device and determining from the body device list a communication mode supported by the body device according to the identifier of the body device (step 102); • obtaining a body parameter of the user that carries the body device from the body device, wherein the body parameter is a blood pressure or a heart rate (step 103); • setting, according to the communication mode supported by the body device, a communication mode of the mobile personal station for connecting with the body device; • setting an alarm threshold based on the body parameter and sending the alarm threshold to the body device (step 104).
A semiconductor light emitting device , comprising: a plurality of compound semiconductor layers supported by a conductive support member and including a first conductivity type semiconductor layer , an active layer on the first conductivity type semiconductor layer and a second conductivity type semiconductor layer on the active layer ; a bond pad under the first conductivity type semiconductor layer; an electrode layer on the plurality of compound semiconductor layers; and a ring-shaped or frame-shaped insulating layer formed on the peripheral portion of the top surface of the second conductivity type semiconductor layer on the plurality of compound semiconductor layers, wherein the insulating layer has a ring-shaped protrusion dividing the plurality of compound semiconductor layers into an active area (A1) within said ring-shaped protrusion and a non-active area (A2) outside said ring-shaped protrusion , the semiconductor light emitting device further comprising a shock supporting member including a metallic material, having a minimum thickness of at least 1 μm and being disposed on the electrode layer in a position corresponding to a position of the pad , the shock supporting member being configured to absorb a shock transmitted from the bond pad , wherein the conductive support member is formed on the electrode layer and the shock supporting member , wherein the conductive support member is in direct contact with the electrode layer and the shock supporting member , and wherein the shock supporting member is formed between the electrode layer and the conductive support member . a plurality of compound semiconductor layers supported by a conductive support member and including a first conductivity type semiconductor layer , an active layer on the first conductivity type semiconductor layer and a second conductivity type semiconductor layer on the active layer ; a bond pad under the first conductivity type semiconductor layer; an electrode layer on the plurality of compound semiconductor layers; and a ring-shaped or frame-shaped insulating layer formed on the peripheral portion of the top surface of the second conductivity type semiconductor layer on the plurality of compound semiconductor layers, wherein the insulating layer has a ring-shaped protrusion dividing the plurality of compound semiconductor layers into an active area (A1) within said ring-shaped protrusion and a non-active area (A2) outside said ring-shaped protrusion , the semiconductor light emitting device further comprising a shock supporting member including a metallic material, having a minimum thickness of at least 1 μm and being disposed on the electrode layer in a position corresponding to a position of the pad , the shock supporting member being configured to absorb a shock transmitted from the bond pad , wherein the conductive support member is formed on the electrode layer and the shock supporting member , wherein the conductive support member is in direct contact with the electrode layer and the shock supporting member , and wherein the shock supporting member is formed between the electrode layer and the conductive support member .
A turbine engine comprising: a compressor section ; a combustor section ; and a cooling arrangement, the cooling arrangement comprising: a cooling source; first and second structures ; and a cooling tube (T) fluidly providing a fluid connection between the first and second structures , the cooling tube (T) configured to transfer a cooling fluid (F) from the cooling source to the second structure ; wherein the first structure is an outer case structure, and the second structure is an inner case structure; the engine further comprises an exit vane interconnecting the inner and outer case structures and arranged downstream from the compressor section and upstream from the combustor section ; and the cooling tube (T) is disposed within the exit vane , characterized in that : the cooling tube (T) is a ceramic-based composite cooling tube (T). a compressor section ; a combustor section ; and a cooling arrangement, the cooling arrangement comprising: a cooling source; first and second structures ; and a cooling tube (T) fluidly providing a fluid connection between the first and second structures , the cooling tube (T) configured to transfer a cooling fluid (F) from the cooling source to the second structure ; wherein a cooling source; first and second structures ; and a cooling tube (T) fluidly providing a fluid connection between the first and second structures , the cooling tube (T) configured to transfer a cooling fluid (F) from the cooling source to the second structure ; wherein the first structure is an outer case structure, and the second structure is an inner case structure; the engine further comprises an exit vane interconnecting the inner and outer case structures and arranged downstream from the compressor section and upstream from the combustor section ; and the cooling tube (T) is disposed within the exit vane , characterized in that : the cooling tube (T) is a ceramic-based composite cooling tube (T).
A method of determining whether a frame of a work machine is approaching a tip over point, the frame comprising first and second support arrangements each supporting a portion of the load of the frame on a surface, the method comprising the steps of: detecting a first load upon the first support arrangement using first sensing means and detecting a second load upon the second support arrangement using second sensing means; generating signals indicative of the first and second loads; communicating the signals to a controller; and wherein the controller is configured to generate an alert based upon the first and second loads when the first and/or second load signals indicate that the orientation of the work machine is approaching a tip over point; characterised in that the controller is further configured to: receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value. detecting a first load upon the first support arrangement using first sensing means and detecting a second load upon the second support arrangement using second sensing means; generating signals indicative of the first and second loads; communicating the signals to a controller; and wherein the controller is configured to generate an alert based upon the first and second loads when the first and/or second load signals indicate that the orientation of the work machine is approaching a tip over point; characterised in that the controller is further configured to: receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value. receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value.