mhurhangee/patent-ind-claim-en huggingface dataset:
A method of signaling resource allocation information by a base station in a multicarrier communication network, the method comprising: allocating resources for a mobile station in at least one of a downlink allocation interval for a secondary downlink carrier and an uplink allocation interval for a secondary uplink carrier, wherein the downlink allocation interval is included in at least a part of one or more subframes on the secondary downlink carrier which starts at a first offset after a start time of a subframe on a primary downlink carrier, and the uplink allocation interval is included in at least a part of one or more subframes of the secondary uplink carrier which starts at a second offset after the start time of the subframe on the primary downlink carrier, and transmitting resource allocation information related to the allocated resources in a control region included in the subframe on the primary downlink carrier to the mobile station, wherein the secondary downlink carrier and the secondary uplink carrier are a frequency carrier higher than the primary downlink carrier, and wherein transmit time intervals for the secondary uplink carrier and the secondary downlink carrier are smaller than transmit time intervals for the primary downlink carrier. allocating resources for a mobile station in at least one of a downlink allocation interval for a secondary downlink carrier and an uplink allocation interval for a secondary uplink carrier, wherein the downlink allocation interval is included in at least a part of one or more subframes on the secondary downlink carrier which starts at a first offset after a start time of a subframe on a primary downlink carrier, and the uplink allocation interval is included in at least a part of one or more subframes of the secondary uplink carrier which starts at a second offset after the start time of the subframe on the primary downlink carrier, and transmitting resource allocation information related to the allocated resources in a control region included in the subframe on the primary downlink carrier to the mobile station, wherein the secondary downlink carrier and the secondary uplink carrier are a frequency carrier higher than the primary downlink carrier, and wherein transmit time intervals for the secondary uplink carrier and the secondary downlink carrier are smaller than transmit time intervals for the primary downlink carrier.
An apparatus comprising: means for causing, at least in part, an action or actions that will result in presentation of a user interface that includes a plurality of descriptors to a user, wherein each of the descriptors includes information corresponding to an emotion of the user and each of the descriptors is configured to be user selectable and each of the descriptors is associated with one or more user selectable options ; means for causing, at least in part, determination of which of the plurality of descriptors to present to the user by monitoring activities of the user, wherein said determination comprises comparing the monitored activities of the user to one or more user selectable options associated with the descriptors ; means for causing, in response to selection of a descriptor presentation of one or more user selectable options associated with a selected one of the descriptors ; and means for invoking an application corresponding to a selected one of the options . means for causing, at least in part, an action or actions that will result in presentation of a user interface that includes a plurality of descriptors to a user, wherein each of the descriptors includes information corresponding to an emotion of the user and each of the descriptors is configured to be user selectable and each of the descriptors is associated with one or more user selectable options ; means for causing, at least in part, determination of which of the plurality of descriptors to present to the user by monitoring activities of the user, wherein said determination comprises comparing the monitored activities of the user to one or more user selectable options associated with the descriptors ; means for causing, in response to selection of a descriptor presentation of one or more user selectable options associated with a selected one of the descriptors ; and means for invoking an application corresponding to a selected one of the options .
A method for controlling a continuously variable transmission , the method controlling in/out of oil to/from a primary oil chamber by using an oil pump provided in an oil passage between the primary oil chamber and a secondary oil chamber , the method comprising: a current command value calculation step of calculating a current command value (I*) for the oil pump in accordance with an engine torque (T) and a speed ratio (R); a pump control step of driving the oil pump by using the current command value (I*) to control a piston position of the primary oil chamber ; and a current limiting step of limiting the current command value (I*) to a lower-limit current (I_lim) at which belt slip does not occur when an oil pressure in the primary oil chamber falls below a lower-limit oil pressure (Ppri_n) in the primary oil chamber at which the belt slip does not occur, wherein the current limiting step includes predicting a predicted oil pressure (Ppri_e) in the primary oil chamber when the oil pump is activated with the current command value (I*) and limiting the current command value (I*) to the lower-limit current (I_lim) when the predicted oil pressure (Ppri_e) falls below the lower-limit oil pressure (Ppri_n), and the predicted oil pressure (Ppri_e) is calculated based on an oil pressure in the secondary oil chamber and a between-before-and-after differential pressure generated before and after the oil pump in which a current of the current command value (I*) flows. a current command value calculation step of calculating a current command value (I*) for the oil pump in accordance with an engine torque (T) and a speed ratio (R); a pump control step of driving the oil pump by using the current command value (I*) to control a piston position of the primary oil chamber ; and a current limiting step of limiting the current command value (I*) to a lower-limit current (I_lim) at which belt slip does not occur when an oil pressure in the primary oil chamber falls below a lower-limit oil pressure (Ppri_n) in the primary oil chamber at which the belt slip does not occur, wherein the current limiting step includes predicting a predicted oil pressure (Ppri_e) in the primary oil chamber when the oil pump is activated with the current command value (I*) and limiting the current command value (I*) to the lower-limit current (I_lim) when the predicted oil pressure (Ppri_e) falls below the lower-limit oil pressure (Ppri_n), and the predicted oil pressure (Ppri_e) is calculated based on an oil pressure in the secondary oil chamber and a between-before-and-after differential pressure generated before and after the oil pump in which a current of the current command value (I*) flows.
A thermal head (X2) comprising: a substrate ; a plurality of heat generating portions positioned on the substrate and arranged in a main scanning direction; an electrode positioned on the substrate and electrically coupled to each of the plurality of heat generating portions ; a driving IC that drives the plurality of heat generating portions ; a wire that couples the driving IC and the electrode to each other, and a pad positioned on the substrate and coupled to the electrode ; the pad being a plurality of pads , and at least one of the plurality of pads is a multi pad having a first region (E1) to which the wire is connected, and a second region (E2) to which each of a plurality of probes is connected, characterized in that the second region (E2) has a third region (E3) to which a first probe is connected, and a fourth region (E4) to which a second probe is connected. a substrate ; a plurality of heat generating portions positioned on the substrate and arranged in a main scanning direction; an electrode positioned on the substrate and electrically coupled to each of the plurality of heat generating portions ; a driving IC that drives the plurality of heat generating portions ; a wire that couples the driving IC and the electrode to each other, and a pad positioned on the substrate and coupled to the electrode ; the pad being a plurality of pads , and at least one of the plurality of pads is a multi pad having a first region (E1) to which the wire is connected, and a second region (E2) to which each of a plurality of probes is connected, characterized in that the second region (E2) has a third region (E3) to which a first probe is connected, and a fourth region (E4) to which a second probe is connected. a first region (E1) to which the wire is connected, and a second region (E2) to which each of a plurality of probes is connected, characterized in that the second region (E2) has a third region (E3) to which a first probe is connected, and a fourth region (E4) to which a second probe is connected.
Position sensor apparatus for ascertaining a position of at least one mirror (M1-M6) of a lithography apparatus , comprising: a pattern provision device , coupled to the mirror (M4), for providing a pattern (P1-P5) which has an information content at spatial frequencies of at least 1/(500 μm), an image recording device for recording the provided pattern (P1-P5), wherein the image recording device has an optical unit and an image sensor , wherein the optical unit is configured to image the provided pattern (P1-P5) with the spatial frequencies of at least 1/(500 μm) with an intensity attenuation of at most 99% onto the image sensor , and an image evaluation device for ascertaining the position of the mirror (M4) in dependence on the recorded pattern (P1-P5). a pattern provision device , coupled to the mirror (M4), for providing a pattern (P1-P5) which has an information content at spatial frequencies of at least 1/(500 μm), an image recording device for recording the provided pattern (P1-P5), wherein the image recording device has an optical unit and an image sensor , wherein the optical unit is configured to image the provided pattern (P1-P5) with the spatial frequencies of at least 1/(500 μm) with an intensity attenuation of at most 99% onto the image sensor , and an image evaluation device for ascertaining the position of the mirror (M4) in dependence on the recorded pattern (P1-P5).
A protecting tube deterioration detecting apparatus for detecting deterioration of a protecting tube provided at a thermocouple , the protecting tube having a conical section at a distal end thereof, to which plating is applied to form a plating layer with a predetermined thickness, said protecting tube forming a measurement target, said protecting tube deterioration detecting apparatus comprising: a current applying unit configured to apply an electric current to the thermocouple , a temperature rise amount calculating unit configured to, when a command for instructing the start of a protecting tube deterioration detection processing is input, cause the current applying unit to apply a predetermined electric current to the thermocouple for a predetermined time and calculate a temperature rise amount of the thermocouple during said predetermined time; characterized by a protecting tube deterioration determining unit configured to determine a wear amount of the measurement target using a difference between a temperature rise amount of the thermocouple of the measurement target and a temperature rise amount of a thermocouple of a protecting tube which is not deteriorated. a current applying unit configured to apply an electric current to the thermocouple , a temperature rise amount calculating unit configured to, when a command for instructing the start of a protecting tube deterioration detection processing is input, cause the current applying unit to apply a predetermined electric current to the thermocouple for a predetermined time and calculate a temperature rise amount of the thermocouple during said predetermined time; characterized by a protecting tube deterioration determining unit configured to determine a wear amount of the measurement target using a difference between a temperature rise amount of the thermocouple of the measurement target and a temperature rise amount of a thermocouple of a protecting tube which is not deteriorated.
A coated cutting tool, comprising: a substrate made of a cubic boron nitride-containing sintered body; and a coating layer formed on the substrate, wherein the cubic boron nitride-containing sintered body includes 65 volume% or more and 85 volume% or less of cubic boron nitride, and 15 volume% or more and 35 volume% or less of a binder phase; the cubic boron nitride is in a form of particles, the particles having an average particle size from 1.5 μm or more to 4.0 μm or less; the coating layer includes a lower layer, and an upper layer formed on the lower layer; the lower layer contains particles each having a composition represented by formula below: (Ti 1-x Al x )N [in formula , x denotes an atomic ratio of an Al element to a total of a Ti element and the Al element and satisfies 0.55 ≤ x ≤ 0.80]; the lower layer has an average thickness from 0.1 μm or more to 1.0 μm or less; the particles forming the lower layer have an average particle size from 0.01 μm or more to 0.05 μm or less; the upper layer contains particles each having a composition represented by formula below: (Ti 1-y Al y )(C 1-z N z ) [in formula , y denotes the atomic ratio of the Al element to a total of the Ti element and the Al element and satisfies 0 ≤ y ≤ 0.80, and z denotes an atomic ratio of an N element to a total of a C element and the N element and satisfies 0.65 ≤ z < 1.00]; and the upper layer has an average thickness from 1.0 μm or more to 5.0 μm or less. a substrate made of a cubic boron nitride-containing sintered body; and a coating layer formed on the substrate, wherein the cubic boron nitride-containing sintered body includes 65 volume% or more and 85 volume% or less of cubic boron nitride, and 15 volume% or more and 35 volume% or less of a binder phase; the cubic boron nitride is in a form of particles, the particles having an average particle size from 1.5 μm or more to 4.0 μm or less; the coating layer includes a lower layer, and an upper layer formed on the lower layer; the lower layer contains particles each having a composition represented by formula below: (Ti 1-x Al x )N [in formula , x denotes an atomic ratio of an Al element to a total of a Ti element and the Al element and satisfies 0.55 ≤ x ≤ 0.80]; the lower layer has an average thickness from 0.1 μm or more to 1.0 μm or less; the particles forming the lower layer have an average particle size from 0.01 μm or more to 0.05 μm or less; the upper layer contains particles each having a composition represented by formula below: (Ti 1-y Al y )(C 1-z N z ) [in formula , y denotes the atomic ratio of the Al element to a total of the Ti element and the Al element and satisfies 0 ≤ y ≤ 0.80, and z denotes an atomic ratio of an N element to a total of a C element and the N element and satisfies 0.65 ≤ z < 1.00]; and the upper layer has an average thickness from 1.0 μm or more to 5.0 μm or less.
Radar sensor for a motor vehicle , having a radome , a printed circuit board and at least one antenna element , wherein the antenna element is designed to emit and/or receive a first radar signal at a first frequency and a second radar signal at a second frequency through the radome , wherein the at least one antenna element comprises a dielectric resonator , characterized in that a part of the radome forms the dielectric resonator , wherein the radome and the dielectric resonator are formed from the same material and are designed in one part, in that the at least one antenna element has a slot antenna for supplying the dielectric resonator , wherein the slot antenna is formed in the printed circuit board , and in that a supply line for electrically supplying the slot antenna is arranged on the printed circuit board .
Method for recognizing acoustic anomalies, comprising: obtaining a long-term recording having a plurality of first audio segments (ABCD) associated to respective first time windows; wherein the long-term recording comprises at least a duration of more than 1 minute, of at least 10 minutes or at least 1 hour or at least 24 hours; analyzing the plurality of the first audio segments (ABCD) to obtain, for each of the plurality of the first audio segments (ABCD), a first characteristic vector describing the respective first audio segment (ABCD); obtaining a further recording having one or more second audio segments (ABCD) associated to respective second time windows; analyzing the one or more second audio segments (ABCD) to obtain one or more characteristic vectors describing the one or more second audio segments (ABCD); matching the one or more second characteristic vectors with the plurality of the first characteristic vectors to recognize at least one anomaly when compared to an acoustic normal situation for this environment. obtaining a long-term recording having a plurality of first audio segments (ABCD) associated to respective first time windows; wherein the long-term recording comprises at least a duration of more than 1 minute, of at least 10 minutes or at least 1 hour or at least 24 hours; analyzing the plurality of the first audio segments (ABCD) to obtain, for each of the plurality of the first audio segments (ABCD), a first characteristic vector describing the respective first audio segment (ABCD); obtaining a further recording having one or more second audio segments (ABCD) associated to respective second time windows; analyzing the one or more second audio segments (ABCD) to obtain one or more characteristic vectors describing the one or more second audio segments (ABCD); matching the one or more second characteristic vectors with the plurality of the first characteristic vectors to recognize at least one anomaly when compared to an acoustic normal situation for this environment.
A process to prepare a compound of Formula I: according to the following General Scheme VI wherein the process comprises the following steps: reacting β-1.J-1 in the presence of an acid to yield C-1; reacting C-1 with an alkylated formamide acetal to yield D-1; reacting D-1 with K-1 to yield E-1; reacting E-1 with M-1 in the presence of a base to yield F-1; reacting F-1 with at least one acid to yield FF-1; reacting FF-1 with N-1, or salts or co-crystals thereof, in the presence of an additive to yield C-1; reacting G-1 under conditions suitable to yield a compound of Formula I; wherein Hal is halogen, which may be the same or different, n is 1, 2, or 3, L is -C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 C(R c ) 2 -, or-C(R c ) 2 C(R c ) 2 C(R c ) 2 C(R c ) 2 -, each R c is, independently, hydrogen, halo, hydroxyl or C 1 -C 4 alkyl, each R a , R 1 , and R 2 is, independently, (C 1 -C 4 )alkyl, (C 6 -C 10 )aryl, or (C 6 -C 10 )aryl (C 1 -C 4 )alkyl; each R b is independently (C 1 -C 4 )alkyl. reacting β-1.J-1 in the presence of an acid to yield C-1; reacting C-1 with an alkylated formamide acetal to yield D-1; reacting D-1 with K-1 to yield E-1; reacting E-1 with M-1 in the presence of a base to yield F-1; reacting F-1 with at least one acid to yield FF-1; reacting FF-1 with N-1, or salts or co-crystals thereof, in the presence of an additive to yield C-1; reacting G-1 under conditions suitable to yield a compound of Formula I; wherein Hal is halogen, which may be the same or different, n is 1, 2, or 3, L is -C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 C(R c ) 2 -, or-C(R c ) 2 C(R c ) 2 C(R c ) 2 C(R c ) 2 -, each R c is, independently, hydrogen, halo, hydroxyl or C 1 -C 4 alkyl, each R a , R 1 , and R 2 is, independently, (C 1 -C 4 )alkyl, (C 6 -C 10 )aryl, or (C 6 -C 10 )aryl (C 1 -C 4 )alkyl; each R b is independently (C 1 -C 4 )alkyl. Hal is halogen, which may be the same or different, n is 1, 2, or 3, L is -C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 -, -C(R c ) 2 C(R c ) 2 C(R c ) 2 -, or-C(R c ) 2 C(R c ) 2 C(R c ) 2 C(R c ) 2 -, each R c is, independently, hydrogen, halo, hydroxyl or C 1 -C 4 alkyl, each R a , R 1 , and R 2 is, independently, (C 1 -C 4 )alkyl, (C 6 -C 10 )aryl, or (C 6 -C 10 )aryl (C 1 -C 4 )alkyl; each R b is independently (C 1 -C 4 )alkyl.
Device for timber harvesting having a hydraulically controlled felling head , which can be attached to the boom arm of a vehicle and comprises a gripper and saw unit and a tilting device , wherein the gripper and saw unit has at least one pair of two gripper arms for the harvested material , which can be actuated by a first hydraulic cylinder and pivoted between an open and closed state, and a cutting element for cutting through the harvested material , which can be pivoted out by a second hydraulic cylinder , and can be pivoted from a depositing position into a cutting position for the harvested material by means of the tilting device which can be actuated by a third hydraulic cylinder , wherein the first hydraulic cylinder is connected to a first hydraulic line for opening the gripper arms and to a second hydraulic line for closing the gripper arms , characterized in that a first hydraulic valve provided with a non-return valve is provided, which is connected on the input side to the first hydraulic line , and is connected on the output side to a second hydraulic valve , which is connected to the third hydraulic cylinder designed as a single-acting hydraulic cylinder, and to a third hydraulic valve , via which the second hydraulic valve is connected to the first hydraulic line , wherein the third hydraulic valve is designed to block when pressure is applied to the first hydraulic line and to open when pressure is applied to the second hydraulic line , and the second hydraulic valve is designed to conduct hydraulic fluid from the first hydraulic valve to the third hydraulic cylinder when a switch is actuated by the gripper arms pivoted into their open state, and to conduct hydraulic fluid from the third hydraulic cylinder to the third hydraulic valve when the switch is not actuated when the gripper arms are closed.
A camera comprising: a movable camera head , a transparent viewing window through which the camera head is arranged to capture images, and a heating arrangement for heating the viewing window , a movement device for movement of the heating arrangement in coordination with a movement of the camera head , characterised in that the viewing window comprises an electrical conductor , and the heating arrangement comprises: an electrical contact device for contacting the conductor and applying an electric current to the conductor in a portion of the viewing window , thereby heating the conductor in the portion of the viewing window. a movable camera head , a transparent viewing window through which the camera head is arranged to capture images, and a heating arrangement for heating the viewing window , a movement device for movement of the heating arrangement in coordination with a movement of the camera head , characterised in that the viewing window comprises an electrical conductor , and the heating arrangement comprises: an electrical contact device for contacting the conductor and applying an electric current to the conductor in a portion of the viewing window , thereby heating the conductor in the portion of the viewing window.