mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication carried by a base station, the method comprising: allocating uplink resources for an uplink control channel transmission in a first transmission time interval, TTI, comprising three orthogonal frequency division multiplexing, OFDM, symbols within a slot of a subframe; identifying a reference signal, RS, configuration for the first TTI including identifying two data symbols and one RS symbol, wherein the two data symbols are configured to carry redundant information; and transmitting an uplink grant for the uplink control channel transmission to a user equipment, UE, the uplink grant including an indication of at least one of the allocated uplink resources for the first TTI and the RS configuration. allocating uplink resources for an uplink control channel transmission in a first transmission time interval, TTI, comprising three orthogonal frequency division multiplexing, OFDM, symbols within a slot of a subframe; identifying a reference signal, RS, configuration for the first TTI including identifying two data symbols and one RS symbol, wherein the two data symbols are configured to carry redundant information; and transmitting an uplink grant for the uplink control channel transmission to a user equipment, UE, the uplink grant including an indication of at least one of the allocated uplink resources for the first TTI and the RS configuration.
A method for a password-less login in a system comprising: sending a pairing request to a network server from a computing device , wherein the pairing request includes computer authentication data and a computer public key; pairing, in response to the pairing request, a mobile device with the computing device using the network server ; encrypting, by the mobile device , a password encryption key using the computer public key, wherein the password encryption key is generated by the mobile device or is retrieved from a memory of the mobile device, in response to the pairing; transferring the encrypted password encryption key, a mobile public key, and mobile authentication data from the mobile device to the computing device ; validating, by the computing device , the mobile authentication data using the computer authentication data; decrypting, by the computing device and in response to the validated data, the encrypted password encryption key using the computer private key; and encrypting, by the computing device , a login password with the password encryption key, wherein the login password is used for the password-less login to the computing device. sending a pairing request to a network server from a computing device , wherein the pairing request includes computer authentication data and a computer public key; pairing, in response to the pairing request, a mobile device with the computing device using the network server ; encrypting, by the mobile device , a password encryption key using the computer public key, wherein the password encryption key is generated by the mobile device or is retrieved from a memory of the mobile device, in response to the pairing; transferring the encrypted password encryption key, a mobile public key, and mobile authentication data from the mobile device to the computing device ; validating, by the computing device , the mobile authentication data using the computer authentication data; decrypting, by the computing device and in response to the validated data, the encrypted password encryption key using the computer private key; and encrypting, by the computing device , a login password with the password encryption key, wherein the login password is used for the password-less login to the computing device.
A method of communicating between an Internet of Things device and a remote computer system , the method comprising: receiving in the Internet of Things device a secured data package from a mobile communication device via a close range communication circuit; decrypting in the Internet of Things device the secured data package, using a cryptographic key stored securely in the Internet of Things device ; extracting in the Internet of Things device a replacement cryptographic key from the secured data package decrypted; replacing the cryptographic key stored securely in the Internet of Things device with the replacement cryptographic key; transmitting via the close range communication circuit an upload data message for the remote computer system from the Internet of Things device to the mobile communication device , for forwarding to the remote computer system via a mobile radio communication network, the upload data message including a unique identifier of the Internet of Things device ; receiving in the remote computer system the upload data message from the Internet of Things device , as forwarded by the mobile communication device via the mobile radio communication network; transmitting via the mobile radio communication network a download data message for the Internet of Things device from the remote computer system to the mobile communication device , for forwarding to the Internet of Things device ; and receiving in the Internet of Things device the download data message from the remote computer system , as forwarded by the mobile communication device via the close range communication circuit. receiving in the Internet of Things device a secured data package from a mobile communication device via a close range communication circuit; decrypting in the Internet of Things device the secured data package, using a cryptographic key stored securely in the Internet of Things device ; extracting in the Internet of Things device a replacement cryptographic key from the secured data package decrypted; replacing the cryptographic key stored securely in the Internet of Things device with the replacement cryptographic key; transmitting via the close range communication circuit an upload data message for the remote computer system from the Internet of Things device to the mobile communication device , for forwarding to the remote computer system via a mobile radio communication network, the upload data message including a unique identifier of the Internet of Things device ; receiving in the remote computer system the upload data message from the Internet of Things device , as forwarded by the mobile communication device via the mobile radio communication network; transmitting via the mobile radio communication network a download data message for the Internet of Things device from the remote computer system to the mobile communication device , for forwarding to the Internet of Things device ; and receiving in the Internet of Things device the download data message from the remote computer system , as forwarded by the mobile communication device via the close range communication circuit.
A method comprising: receiving, at a first cache device (135A-D), a request to send a first asset to a second device (110, 135A-D); determining whether the first asset is stored at the first cache device; when the determining whether the first asset is stored at the first cache device indicates that first asset is not stored at the first cache device, obtaining, at the first cache device, the first asset, performing a comparison operation based on an average inter-arrival time of the first asset with respect to the first cache device and a characteristic time of the first cache device, the average inter-arrival time being based on exponentially weighted moving average of periods of time between consecutive receipts of requests, at the first cache device, to send the first asset to another device, the characteristic time of the first cache device being an average period of time between receipt of last requests for, and eviction of, assets cached at the first cache device, and determining whether or not to cache the obtained first asset at the first cache device based on the comparison operation; and sending the obtained first asset to the second device. receiving, at a first cache device (135A-D), a request to send a first asset to a second device (110, 135A-D); determining whether the first asset is stored at the first cache device; when the determining whether the first asset is stored at the first cache device indicates that first asset is not stored at the first cache device, obtaining, at the first cache device, the first asset, performing a comparison operation based on an average inter-arrival time of the first asset with respect to the first cache device and a characteristic time of the first cache device, the average inter-arrival time being based on exponentially weighted moving average of periods of time between consecutive receipts of requests, at the first cache device, to send the first asset to another device, the characteristic time of the first cache device being an average period of time between receipt of last requests for, and eviction of, assets cached at the first cache device, and determining whether or not to cache the obtained first asset at the first cache device based on the comparison operation; and sending the obtained first asset to the second device. obtaining, at the first cache device, the first asset, performing a comparison operation based on an average inter-arrival time of the first asset with respect to the first cache device and a characteristic time of the first cache device, the average inter-arrival time being based on exponentially weighted moving average of periods of time between consecutive receipts of requests, at the first cache device, to send the first asset to another device, the characteristic time of the first cache device being an average period of time between receipt of last requests for, and eviction of, assets cached at the first cache device, and determining whether or not to cache the obtained first asset at the first cache device based on the comparison operation; and sending the obtained first asset to the second device.
Ladder assembly for a work vehicle, said ladder assembly comprising a pair of lateral support elements spaced apart with respect to a longitudinal axis (A) of said vehicle and a plurality of steps laterally comprised by and secured to said lateral support elements , said ladder assembly is characterized in that said steps comprise a step portion configured to be stepped by the user and a pair of lateral portions extending from at least part of said step portion along a vertical axis (B) perpendicular to said longitudinal axis (A) and defining a lower edge opposite to said step portion , and said lower edge of said lateral portions is connected via a welding to said lateral support elements , and said lateral portions defining a minimum gap with respect to said lateral support elements and extending inclined from said step portion with respect to said vertical axis (B). said ladder assembly is characterized in that said steps comprise a step portion configured to be stepped by the user and a pair of lateral portions extending from at least part of said step portion along a vertical axis (B) perpendicular to said longitudinal axis (A) and defining a lower edge opposite to said step portion , and said lower edge of said lateral portions is connected via a welding to said lateral support elements , and said lateral portions defining a minimum gap with respect to said lateral support elements and extending inclined from said step portion with respect to said vertical axis (B).
. A method for making a polyurethane foam comprising contacting at least one polyol and at least one polyisocyanate in the presence of a catalyst comprising N,N-bis(dimethylaminopropyl )-N-(3-aminopropyl )-amine in combination with N,N,N'-trimethyl-N'-3-aminopropyl-bis(aminoethyl) ether, wherein the polyurethane foam is prepared at an NCO index of 60 to 65.
A mobile terminal comprising: a housing , a display screen , mounted on the housing and defining a first through hole ; a camera assembly , mounted in the first through hole , wherein a step portion forms on the camera assembly , and the step portion comprises a step surface facing towards the display screen ; a receiver , mounted inside the housing , and a microphone , mounted inside the housing ; characterized in that , the mobile terminal further comprises a sensor assembly , mounted on the step surface of the step portion , and the receiver and the microphone are disposed around the camera assembly below the display screen , and the receiver and the microphone are invisible from the first through hole when viewed from an outer side of the mobile terminal; or a slot is defined by at least one side of the display screen and the housing , the receiver and the microphone are mounted below the display screen at a position adjacent to the slot , and the receiver and the microphone are invisible from the slot when viewed from the outer side of the mobile terminal. a housing , a display screen , mounted on the housing and defining a first through hole ; a camera assembly , mounted in the first through hole , wherein a step portion forms on the camera assembly , and the step portion comprises a step surface facing towards the display screen ; a receiver , mounted inside the housing , and a microphone , mounted inside the housing ; characterized in that , the mobile terminal further comprises a sensor assembly , mounted on the step surface of the step portion , and the receiver and the microphone are disposed around the camera assembly below the display screen , and the receiver and the microphone are invisible from the first through hole when viewed from an outer side of the mobile terminal; or a slot is defined by at least one side of the display screen and the housing , the receiver and the microphone are mounted below the display screen at a position adjacent to the slot , and the receiver and the microphone are invisible from the slot when viewed from the outer side of the mobile terminal.
A heating assembly for a vapour generating device , the heating assembly comprising: a heating device arranged in use to heat a body , the body comprising a vaporisable substance , the heating assembly being arranged in use to supply power to the heating device to heat the body, the vaporisable substance volatilising on heating, the quantity of vaporisable substance in the body thereby reducing on heating; a passage arranged in use to allow gas to be drawn over the body; and a controller arranged in use to monitor and store vaporisable substance quantity information of the quantity of vaporisable substance in the body by determining the amount of previous usage of the body based on stored time the body has been heated for and/or the stored number of times gas has been drawn over the body during heating, and is further arranged in use to set a maximum power level suppliable to the heating device based on the stored vaporisable substance quantity information. a heating device arranged in use to heat a body , the body comprising a vaporisable substance , the heating assembly being arranged in use to supply power to the heating device to heat the body, the vaporisable substance volatilising on heating, the quantity of vaporisable substance in the body thereby reducing on heating; a passage arranged in use to allow gas to be drawn over the body; and a controller arranged in use to monitor and store vaporisable substance quantity information of the quantity of vaporisable substance in the body by determining the amount of previous usage of the body based on stored time the body has been heated for and/or the stored number of times gas has been drawn over the body during heating, and is further arranged in use to set a maximum power level suppliable to the heating device based on the stored vaporisable substance quantity information.
Rotary damper for a motor vehicle, comprising - an oscillating mass , which is driven by a drive, rotating about a rotational axis at an angular speed (wφ), which is supported cardanically on the motor vehicle body via a first bearing element and a second bearing element , wherein the oscillating mass is supported on the first bearing element so as to be rotatable by a rotational angle (φ) and the first bearing element is supported on the second bearing element so as to be rotatable by a first rotational angle (θ) about a first axis , which is orthogonal to the rotational axis of the oscillating mass and the second bearing element is supported on the motor vehicle body so as to be rotatable by a second rotational angle (ψ) about a second axis , which is orthogonal to the first axis , as well as - a control unit for controlling a shaft drive, characterised in that the second bearing element , which is rotatably mounted on the motor vehicle body , is operatively connected to the shaft drive via a driveshaft, wherein the first bearing element , which is rotatably mounted on the second bearing element , is operatively connected to a hub carrier such that a compression/rebound movement of the hub carrier causes a rotation of the first bearing element by the first rotational angle (θ), wherein the control unit controls the angular speed (ωΨ) and/or the torque (M ψ ) of the driveshaft via the shaft drive dependent on the first rotational angle (θ) and/or the first torque (Me). - an oscillating mass , which is driven by a drive, rotating about a rotational axis at an angular speed (wφ), which is supported cardanically on the motor vehicle body via a first bearing element and a second bearing element , wherein the oscillating mass is supported on the first bearing element so as to be rotatable by a rotational angle (φ) and the first bearing element is supported on the second bearing element so as to be rotatable by a first rotational angle (θ) about a first axis , which is orthogonal to the rotational axis of the oscillating mass and the second bearing element is supported on the motor vehicle body so as to be rotatable by a second rotational angle (ψ) about a second axis , which is orthogonal to the first axis , as well as - a control unit for controlling a shaft drive, characterised in that the second bearing element , which is rotatably mounted on the motor vehicle body , is operatively connected to the shaft drive via a driveshaft, wherein the first bearing element , which is rotatably mounted on the second bearing element , is operatively connected to a hub carrier such that a compression/rebound movement of the hub carrier causes a rotation of the first bearing element by the first rotational angle (θ), wherein the control unit controls the angular speed (ωΨ) and/or the torque (M ψ ) of the driveshaft via the shaft drive dependent on the first rotational angle (θ) and/or the first torque (Me).
An apparatus (10, 32.n) for band-limited frequency division multiplexing for uplink transmission to a base station or access point, the apparatus, wherein the apparatus is adapted for receiving from a base station a set (ULO) of contiguous equally spaced frequency sub-carriers, which is allowed to overlap with a neighboring set (UL1) of sub-carriers assigned to another apparatus, accompanied by a filter , which is asymmetric in frequency, comprising: a signal modulator adapted to: transmit a signal over the set of contiguous equally spaced frequency sub-carriers ranging from a lowest frequency sub-carrier via intermediate sub-carriers to a highest frequency sub-carrier; and apply the filter over the range of said frequency sub-carriers to reduce a peak-to-average power ratio of said transmitted signal and to eliminate excess bandwidth at an edge of the set of said sub-carriers, where no overlap occurs. transmit a signal over the set of contiguous equally spaced frequency sub-carriers ranging from a lowest frequency sub-carrier via intermediate sub-carriers to a highest frequency sub-carrier; and apply the filter over the range of said frequency sub-carriers to reduce a peak-to-average power ratio of said transmitted signal and to eliminate excess bandwidth at an edge of the set of said sub-carriers, where no overlap occurs.
An image forming apparatus comprising: an image forming unit configured to form a toner image on a recording material; a fixing unit (F1) configured to heat the toner image formed on the recording material by the image forming unit to fix the toner image to the recording material; an image analyzer configured to analyze image data for forming the toner image by the image forming unit , to evaluate a continuity of pixels of an image contained in the image data; and characterized by further comprising: a temperature controller configured to control a temperature of the fixing unit (F1) in accordance to a target temperature, and to change the target temperature based on analysis results of the image analyzer such that a value of the target temperature, in a case where the image data contains an image with a continuity of pixels equal to or smaller than a predetermined value is higher than a value of the target temperature in a case where the image data contains no image with a continuity of pixels equal to or smaller than the predetermined value, so as to improve durability against erasing. an image forming unit configured to form a toner image on a recording material; a fixing unit (F1) configured to heat the toner image formed on the recording material by the image forming unit to fix the toner image to the recording material; an image analyzer configured to analyze image data for forming the toner image by the image forming unit , to evaluate a continuity of pixels of an image contained in the image data; and characterized by further comprising: a temperature controller configured to control a temperature of the fixing unit (F1) in accordance to a target temperature, and to change the target temperature based on analysis results of the image analyzer such that a value of the target temperature, in a case where the image data contains an image with a continuity of pixels equal to or smaller than a predetermined value is higher than a value of the target temperature in a case where the image data contains no image with a continuity of pixels equal to or smaller than the predetermined value, so as to improve durability against erasing.