mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol-generating system comprising: a cartridge containing a volatile substrate and having a susceptor; and an aerosol-generating device configured to receive the cartridge , the aerosol-generating device having: a housing having a chamber sized to receive at least a portion of the cartridge ; an inductor coil disposed around at least a portion of the chamber ; a power supply ; an ambient temperature sensor ; and control circuitry configured to control the supply of power from the power supply to the inductor coil based on one or more ambient temperature readings from the ambient temperature sensor , the control circuitry being configured to control the supply of power by: adjusting a target value based on the one or more ambient temperature readings from the ambient temperature sensor ; and controlling the supply of power to the inductor coil based on the adjusted target value. a cartridge containing a volatile substrate and having a susceptor; and an aerosol-generating device configured to receive the cartridge , the aerosol-generating device having: a housing having a chamber sized to receive at least a portion of the cartridge ; an inductor coil disposed around at least a portion of the chamber ; a power supply ; an ambient temperature sensor ; and control circuitry configured to control the supply of power from the power supply to the inductor coil based on one or more ambient temperature readings from the ambient temperature sensor , the control circuitry being configured to control the supply of power by: adjusting a target value based on the one or more ambient temperature readings from the ambient temperature sensor ; and controlling the supply of power to the inductor coil based on the adjusted target value. a housing having a chamber sized to receive at least a portion of the cartridge ; an inductor coil disposed around at least a portion of the chamber ; a power supply ; an ambient temperature sensor ; and control circuitry configured to control the supply of power from the power supply to the inductor coil based on one or more ambient temperature readings from the ambient temperature sensor , the control circuitry being configured to control the supply of power by: adjusting a target value based on the one or more ambient temperature readings from the ambient temperature sensor ; and controlling the supply of power to the inductor coil based on the adjusted target value. adjusting a target value based on the one or more ambient temperature readings from the ambient temperature sensor ; and controlling the supply of power to the inductor coil based on the adjusted target value.
A method of controlling a drying operation of a rotatable-drum laundry dryer comprising a rotatable drum for loading laundry and at least an electrode sensor for sensing dryness of the laundry ; the method comprising: - detecting the presence/absence of moist laundry inside the rotatable drum by said electrode sensor ; and being characterized by further comprising - if presence of moist laundry inside the rotatable drum is detected, starting a drying cycle; - sensing dryness of the laundry during said drying cycle; - measuring a cycle time (TD) at which the sensed dryness reaches a preset dryness threshold; - if said cycle time (TD) is lower than a preset dryness threshold time (Sm), continuing the drying cycle for a first additional time (D1), and stopping the drying cycle at the end of said first additional time (D1). - detecting the presence/absence of moist laundry inside the rotatable drum by said electrode sensor ; and being characterized by further comprising - if presence of moist laundry inside the rotatable drum is detected, starting a drying cycle; - sensing dryness of the laundry during said drying cycle; - measuring a cycle time (TD) at which the sensed dryness reaches a preset dryness threshold; - if said cycle time (TD) is lower than a preset dryness threshold time (Sm), continuing the drying cycle for a first additional time (D1), and stopping the drying cycle at the end of said first additional time (D1).
A system comprising: a sensor apparatus , comprising a sensor device configured to sense a trigger event related to at least one of touching the sensor apparatus, illumination in proximity of the sensor apparatus, temperature in proximity of the sensor apparatus, position of the sensor apparatus, acceleration of the sensor apparatus, compass heading of the sensor apparatus, velocity of the sensor apparatus, and motion in proximity of the sensor apparatus and configured to send an identification message over a wireless communication network in response to a trigger event sensed by the sensor device comprised in the sensor apparatus, the identification message consisting of a unique identifier of the sensor apparatus; and a network server , configured to receive the identification message, access a pre-configured action profile associated with the unique identifier in the received identification message, and cause a response action to be executed based on information in the accessed action profile, wherein the response action comprises generating an action message based on information in the accessed action profile, and sending the generated action message to a network node based on the information in the accessed action profile. a sensor apparatus , comprising a sensor device configured to sense a trigger event related to at least one of touching the sensor apparatus, illumination in proximity of the sensor apparatus, temperature in proximity of the sensor apparatus, position of the sensor apparatus, acceleration of the sensor apparatus, compass heading of the sensor apparatus, velocity of the sensor apparatus, and motion in proximity of the sensor apparatus and configured to send an identification message over a wireless communication network in response to a trigger event sensed by the sensor device comprised in the sensor apparatus, the identification message consisting of a unique identifier of the sensor apparatus; and a network server , configured to receive the identification message, access a pre-configured action profile associated with the unique identifier in the received identification message, and cause a response action to be executed based on information in the accessed action profile, wherein the response action comprises generating an action message based on information in the accessed action profile, and sending the generated action message to a network node based on the information in the accessed action profile.
A vehicle sensor unit configured to be installed at an outer end of a vehicle and having a function of detecting an environment of the vehicle , the vehicle sensor unit being characterized by : a millimeter wave radar device having a sensor function of transmitting millimeter waves to outside of the vehicle and receiving millimeter waves that have struck and been reflected by an object outside the vehicle ; an infrared sensor that is arranged at a position adjacent to the millimeter wave radar device and is configured to transmit infrared light to outside of the vehicle and to receive infrared light that has struck and been reflected by an object outside the vehicle ; and a cover having a first cover portion and a second cover portion , wherein the first cover portion is located in front of the millimeter wave radar device in a transmission direction of the millimeter waves to conceal the millimeter wave radar device and has millimeter wave transparency, the second cover portion is located in front of the infrared sensor in a transmission direction of the infrared light to conceal the infrared sensor and has infrared light transparency, the millimeter wave radar device and the infrared sensor are attached to the cover so that the whole vehicle sensor unit is configured as a single unit to be installed at an outer end of the vehicle , and a front surface of the cover is adapted to be exposed to the outside of the vehicle . a millimeter wave radar device having a sensor function of transmitting millimeter waves to outside of the vehicle and receiving millimeter waves that have struck and been reflected by an object outside the vehicle ; an infrared sensor that is arranged at a position adjacent to the millimeter wave radar device and is configured to transmit infrared light to outside of the vehicle and to receive infrared light that has struck and been reflected by an object outside the vehicle ; and a cover having a first cover portion and a second cover portion , wherein the first cover portion is located in front of the millimeter wave radar device in a transmission direction of the millimeter waves to conceal the millimeter wave radar device and has millimeter wave transparency, the second cover portion is located in front of the infrared sensor in a transmission direction of the infrared light to conceal the infrared sensor and has infrared light transparency, the millimeter wave radar device and the infrared sensor are attached to the cover so that the whole vehicle sensor unit is configured as a single unit to be installed at an outer end of the vehicle , and a front surface of the cover is adapted to be exposed to the outside of the vehicle .
A method of programming a single analogue electronic neural network according to claim 10 comprising a plurality of layers (L0, L1, L2) of somas , two consecutive layers (L0, L1, L2) of somas being connected by a matrix of synapses , the method comprising: • applying (a) test signals to inputs of the neural network , the inputs being formed by a layer of somas; • measuring (b) at least at one measurement location (A, B, C) in the neural network responses of at least some somas performing their input current rectification, and synapses to the test signals, where a respective measurement location is arranged to measure an incoming signal value to a following soma ; • extracting (b) from the neural network , based on the discrete responses, a first parameter set characterising the input-output relation of the at least some somas as a continuous, piece-wise differentiable function; • carrying out (c) a training of the neural network by applying to a training algorithm the first parameter set and training data for obtaining a second parameter set; and • programming (d) the single neural network by using the second parameter set to adjust a weight configuration of at least some of the synapses, and storing a respective weight configuration of a respective synapse digitally in a memory element, which is part of the respective synapse, wherein the responses of individual somas are measured for obtaining the first parameter set describing individual soma responses. • applying (a) test signals to inputs of the neural network , the inputs being formed by a layer of somas; • measuring (b) at least at one measurement location (A, B, C) in the neural network responses of at least some somas performing their input current rectification, and synapses to the test signals, where a respective measurement location is arranged to measure an incoming signal value to a following soma ; • extracting (b) from the neural network , based on the discrete responses, a first parameter set characterising the input-output relation of the at least some somas as a continuous, piece-wise differentiable function; • carrying out (c) a training of the neural network by applying to a training algorithm the first parameter set and training data for obtaining a second parameter set; and • programming (d) the single neural network by using the second parameter set to adjust a weight configuration of at least some of the synapses, and storing a respective weight configuration of a respective synapse digitally in a memory element, which is part of the respective synapse,
Arrangement comprising a shelf and at least one separating element , the shelf being composed of - a plate which has two transverse edges and two longitudinal edges and which, with its upper face , forms a rectangular storage surface for goods, - hollow chambers which extend along the longitudinal edges and are designed as profile cross sections, wherein the profile cross sections are delimited upwards by an edge strip of the plate , outwards by an outer wall , downwards by a base , and inwards by an inner wall , wherein the inner wall extends from the base towards the plate , wherein the profile cross sections forming the hollow chambers are closed profile cross sections, wherein the inner wall bears on the plate via a strip extending along said inner wall, and wherein the separating element is composed of - a surface element which is designed to divide the upper face of the shelf into at least two regions, - at least two feet for positioning the separating element on the shelf , wherein the plate is provided with holes above the hollow chambers , wherein the holes are formed in vertical alignment with recesses in the inner walls , wherein each hole together with a recess receives a foot of the separating element , characterized in that the recesses are slots with a slot start in the inner wall , wherein the slots extend into a strip which is angled with respect to the inner wall and which connects the latter to the plate . - a plate which has two transverse edges and two longitudinal edges and which, with its upper face , forms a rectangular storage surface for goods, - hollow chambers which extend along the longitudinal edges and are designed as profile cross sections, wherein the profile cross sections are delimited upwards by an edge strip of the plate , outwards by an outer wall , downwards by a base , and inwards by an inner wall , wherein the inner wall extends from the base towards the plate , wherein the profile cross sections forming the hollow chambers are closed profile cross sections, wherein the inner wall bears on the plate via a strip extending along said inner wall, and wherein the separating element is composed of - a surface element which is designed to divide the upper face of the shelf into at least two regions, - at least two feet for positioning the separating element on the shelf ,
A radar signal processing device of a radar, which is mounted on a vehicle and is configured to output information related to a plurality of circumferentially existing objects, said radar signal processing device comprising: a first feature quantity extraction block which is configured to extract information as a first feature quantity at a constant time cycle from a received signal of the radar, the information being related to at least a relative distance and a relative speed to an object about a plurality of objects and the direction and the reflection intensity of the object; a data storage processing block which is configured to store the first feature quantity and to associate a plurality of the first feature quantities with the same object in time series over a plurality of cycles; a second feature quantity extraction block which is configured to extract a second feature quantity from the first feature quantity in said data storage processing block ; an attribution degree calculation block which is configured to calculate, for each of a plurality of preliminary defined categories, an attribution degree (α, β, γ), wherein the attribution degree is a value indicative of the degree to which the second feature quantity is attributable to a distribution of the second feature quantity related to the preliminarily defined category; and an object determination block which is configured to determine the category of the object on the basis of the attribution degrees (α, β, γ). a first feature quantity extraction block which is configured to extract information as a first feature quantity at a constant time cycle from a received signal of the radar, the information being related to at least a relative distance and a relative speed to an object about a plurality of objects and the direction and the reflection intensity of the object; a data storage processing block which is configured to store the first feature quantity and to associate a plurality of the first feature quantities with the same object in time series over a plurality of cycles; a second feature quantity extraction block which is configured to extract a second feature quantity from the first feature quantity in said data storage processing block ; an attribution degree calculation block which is configured to calculate, for each of a plurality of preliminary defined categories, an attribution degree (α, β, γ), wherein the attribution degree is a value indicative of the degree to which the second feature quantity is attributable to a distribution of the second feature quantity related to the preliminarily defined category; and an object determination block which is configured to determine the category of the object on the basis of the attribution degrees (α, β, γ).
A watermark formation element for forming at least one multi-tonal watermark in a paper, said watermark formation element having an integrated body comprising a watermark forming surface , which has one or more watermark forming regions , and a drainage surface , said watermark formation element having a plurality of drainage channels extending from front surface apertures in the watermark forming surface to the drainage surface , wherein the shape of the front surface apertures in a given horizontal plane, which is parallel to the drainage surface , is varied in the one or more watermark forming regions to create tonal variation in paper formed on said watermark formation element .
A method for controlling a normal force acting on a transport unit (Tn) of a conveyor installation in the form of a long stator linear motor on a track section of a conveyor track defined by the conveyor installation , on which track section drive coils of the long stator linear motor are provided on only one side of the transport unit (Tn) and the transport unit (Tn) is retained on the conveyor track on this side by guide elements , wherein an external force (F En ) in normal direction (N) acts on the transport unit (Tn), wherein a number of drive magnets on the transport unit (Tn) interacts with a number of drive coils for generating the normal force (F Nn ) and the normal force (F Nn ) is controlled with a controller (Rk) for controlling the normal force (F Nn ), characterized in that the controller (Rk) determines a normal-force-forming current component (i And ) of the drive current (i An ) of the drive coils interacting with the transport unit (Tn) so that a resulting normal force (F ΣNn ) acting on the transport unit (Tn) as the sum of the normal force (F Nn ), a magnetic force (F Mn ) in the normal direction (N) caused by the drive magnets , and the external force (F En ) in the normal direction (N) acting on the transport unit (Tn) corresponds at least to a specified retaining force (F Nnmin ) in the normal direction (N), wherein the specified retaining force (F Nnmin ) is the force in normal direction that is required to retain the transport unit (Tn) safely on the conveyor track and in that in a bend of the conveyor track a centrifugal force acts on the transport unit (Tn) as the external force (F En ) and the normal force (F Nn ) is generated in the opposite direction to the acting centrifugal force in order to reduce or to compensate for the effect of the centrifugal force.
A cardiopulmonary resuscitation, CPR, device for delivering intrathoracic pressure pulses to a subject , the device comprising an air pressure generator for delivering air to the airways of the subject , wherein the air pressure generator is configured to: - operate a first mode, wherein in the first mode the air pressure generator generates a first output comprising a first plurality of positive pressure pulses for temporally increasing the subject's intrathoracic pressure to induce compressions of the heart of the subject by increasing the volume of the subject's lungs; - operate a second mode, wherein in the second mode the air pressure generator generates a second output comprising a second plurality of positive pressure pulses for providing an assured airflow to the lungs of the subject ; and - deliver a resulting output to the airways of the subject , the resulting output being the superposition of the first output and of the second output ; wherein said first plurality of positive pressure pulses have an amplitude greater than 30 mbar and a frequency in a range of 40-240 beats per minute; and wherein said second plurality of positive pressure pulses have an amplitude smaller than 30 mbar and a frequency in a range of 3 to 20 cycles per minute. - operate a first mode, wherein in the first mode the air pressure generator generates a first output comprising a first plurality of positive pressure pulses for temporally increasing the subject's intrathoracic pressure to induce compressions of the heart of the subject by increasing the volume of the subject's lungs; - operate a second mode, wherein in the second mode the air pressure generator generates a second output comprising a second plurality of positive pressure pulses for providing an assured airflow to the lungs of the subject ; and - deliver a resulting output to the airways of the subject , the resulting output being the superposition of the first output and of the second output ;
A long term evolution, LTE, relay node , configured to: receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB , the LTE relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; receive a second MAC PDU from an LTE user equipment, UE , the LTE relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU; wherein the first and second HARQ entities are configured to handle decoding and encoding of error detection and correction bits on the LTE relay node ; wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB ; and wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions. receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB , the LTE relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; receive a second MAC PDU from an LTE user equipment, UE , the LTE relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU; wherein the first and second HARQ entities are configured to handle decoding and encoding of error detection and correction bits on the LTE relay node ; wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB ; and wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions.