mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling audio of an HDMI audio system, the HDMI audio system comprising a screen device, the method comprising: causing audio data to be presented by an HDMI audio system at a current system volume level of the HDMI audio system; receiving a requested volume level from a second screen device over a wireless network; and controlling a system volume level of the HDMI audio system by: (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition. causing audio data to be presented by an HDMI audio system at a current system volume level of the HDMI audio system; receiving a requested volume level from a second screen device over a wireless network; and controlling a system volume level of the HDMI audio system by: (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition. (a) determining the current system volume level of the HDMI audio system; (b) determining a change in volume based on a comparison between the requested volume level and the current system volume level; (c) determining a direction in which to cause the system volume level to change; (d) sending a volume control message to the HDMI audio system using a Consumer Electronic Control, CEC, bus connected to the HDMI audio system, wherein the volume control message indicates whether to increase or decrease the system volume level based on the determined direction in which to cause the system volume to change; and (e) repeating (a)-(d) until the current system volume level meets a predetermined condition.
Method for recognizing two-part keywords for activating a voice control system, the method comprising the following steps: - receiving a phonetic character sequence, - buffering the phonetic character sequence in a memory, - checking the phonetic character sequence for the presence of a first part of the keyword and, only if the first part is recognized, wherein, when a limit of the number of phonetic characters stored in the memory is reached and/or after a predefined period of time has elapsed, the check for the first part of the keyword is continued, - checking the phonetic character sequence for the presence of a second part of the keyword, wherein, additionally, a continuous search is carried out for a most recent first part of the keyword, characterized in that only if the second part of the keyword following the first is recognized, - activating the voice control system to carry out an action, wherein the second part of the keyword is ascertained following the most recent first part of the keyword. - receiving a phonetic character sequence, - buffering the phonetic character sequence in a memory, - checking the phonetic character sequence for the presence of a first part of the keyword and, only if the first part is recognized, wherein, when a limit of the number of phonetic characters stored in the memory is reached and/or after a predefined period of time has elapsed, the check for the first part of the keyword is continued, - checking the phonetic character sequence for the presence of a second part of the keyword, wherein, additionally, a continuous search is carried out for a most recent first part of the keyword, - activating the voice control system to carry out an action, wherein the second part of the keyword is ascertained following the most recent first part of the keyword.
A mining vehicle comprising: a movable carrier; a boom comprising several boom joints and a mining work device arranged at a distal portion of the boom; several boom actuators for moving the boom in different positions; at least one control unit for controlling the position of at least one of the boom and the mining work device; characterized in that the mining vehicle further comprises observing means for obtaining information indicative of a position of at least one of the boom and the mining work device in which collision to an obstacle can be avoided, wherein the control unit is further configured to control the position of at least one of the boom and the mining work device in response to the obtained information to avoid hitting the obstacle when the mining vehicle moves.
A sensor arrangement (10; 44) for the capacitive detection of an object, comprising: a support (14; 48); an electrically conductive cap (12; 46) associated with the support (14; 48); and an electrically insulated conductor (18; 50) which extends at least partly in loop shape between the cap (12; 46) and the support (14; 48) and which is provided with a connector for a control unit, wherein a first end of the conductor (18; 50) is returned to a second end of the conductor (18; 50) to form a single conductor loop, wherein the loop shape of the conductor (18; 50) is adapted to the shape of the cap (12; 46), and wherein the cap (12; 46) and the support (14; 48) together form a housing for the conductor (18; 50), said housing having a sealing effect against external influences. a support (14; 48); an electrically conductive cap (12; 46) associated with the support (14; 48); and an electrically insulated conductor (18; 50) which extends at least partly in loop shape between the cap (12; 46) and the support (14; 48) and which is provided with a connector for a control unit, wherein a first end of the conductor (18; 50) is returned to a second end of the conductor (18; 50) to form a single conductor loop, wherein the loop shape of the conductor (18; 50) is adapted to the shape of the cap (12; 46), and wherein the cap (12; 46) and the support (14; 48) together form a housing for the conductor (18; 50), said housing having a sealing effect against external influences.
Ramucirumab for use in the treatment of a hepatocellular tumor, wherein the patient has had first-line therapy with sorafenib, wherein the patient has a plasma or serum alpha-fetoprotein level of 10 ng/mL or greater.
Chassis frame for a rail vehicle, comprising at least one drive unit which is fastened to the chassis frame by way of one or more elongate fastening means (4, 13), characterized in that at least one fastening means (4, 13) is arranged transversely with respect to the driving direction and protrudes into the chassis frame or is guided by way of brackets which are connected fixedly to the chassis frame and protrudes into the space above or below the chassis frame, and in that bolts or screws are provided as fastening means.
A composition comprising a kiwifruit extract derived from processed kiwifruit pulp without the seeds or skin, wherein the kiwifruit extract comprises at least one cysteine protease enzyme; a plant extract comprising an amylase inhibitor and/or a bifunctional protease-amylase inhibitor which binds loosely to the cysteine protease enzyme(s) of the kiwifruit extract wherein said plant extract is derived from a plant in the legume family or is extracted from a plant or seed selected from the group consisting of white kidney bean, wheat, Lens culinaris, Psophocarpus tetragonolobus, Cicer arietinum, Vigna aconitifolia, oats, sorghum, rye, barley, mango seeds, and potatoes; and one or more suitable diluents, carriers and/or excipients.
A method for communication between a central unit (10; 80; 100) and a lighting means operating device (20, 30; 81; 110), which has a sensor (23, 33), wherein the central unit (10; 80; 100) generates a DC supply voltage for the supply of the lighting means operating device (20, 30; 81; 110), which is provided on a DC bus, wherein data are transferred between the central unit (10; 80; 100) and the sensor (23, 33) of the lighting means operating device (20, 30; 81; 110) by means of a line (3; 85), by means of which the central unit (10; 80; 100) supplies the sensor (23, 33) of the lighting means operating device (20, 30; 81; 110) with energy, characterized in that the central unit (10; 80; 100) in a first operating state generates a voltage level on the DC bus and in a second operating state reduces the voltage level (52; 56) on the DC bus compared with the first operating state, and the central unit (10; 80; 100) is coupled via the DC bus with the lighting means operating device (20, 30; 81; 110) and the sensor (23, 33).
Method for mounting a mirror mount for a Head-Up Display in a housing, the housing comprising a through-hole between a mounting side of the housing and an accessible side of the housing; wherein the method comprises: - attaching a first end of a spring to the mirror mount; - providing the mirror mount at the mounting side of the housing; - leading the spring through the through-hole of the housing; - attaching a stopper onto a second end of the spring, wherein the stopper is configured to have a size such that it cannot pass the through-hole; and - at the accessible side of the housing, releasing the second end of the spring such that the stopper is retained at the accessible side of the housing or in the through-hole of the housing. - attaching a first end of a spring to the mirror mount; - providing the mirror mount at the mounting side of the housing; - leading the spring through the through-hole of the housing; - attaching a stopper onto a second end of the spring, wherein the stopper is configured to have a size such that it cannot pass the through-hole; and - at the accessible side of the housing, releasing the second end of the spring such that the stopper is retained at the accessible side of the housing or in the through-hole of the housing.
Use of an IGFBP7 agent in the preparation of a medicament for the treatment of a tumor in a subject, wherein a cell of the tumor has been identified as having an activated mutated RAS or an activated mutated BRAF, and the IGFBP7 agent comprises an IGFBP7 polypeptide or a nucleic acid encoding the IGFBP7 polypeptide.
Use of a cyclic compound of formula wherein A, B independently in each occurrence is alkane-i,j-diyl having k carbon atoms, i and independently j being less than or equal k and k being selected from 1 to 10, wherein said alkane-i,j-diyl (i) may comprise one or more double bonds; (ii) is optionally substituted; and/or (iii) comprises a cycle, wherein the total number of cycles being cyclic sugars in said compound is selected from 0 to 4 and is less than p·(n+m); X,Y independently in each occurrence is a biocompatible functional group comprising at least one oxygen atom or two sulphur atoms; n, m independently of each other are selected from 0 to 20; p is selected from 1 to 10; n+m is equal or greater than 1; and p·(n+m) is selected from 3 to 30; wherein said cyclic compound is a mono-oxo polyethylene glycol capable of forming a complex with a protonated primary and/or protonated secondary amino group and/or a protonated guanidinium group, for the manufacture of a pharmaceutical or diagnostic composition further comprising a pharmaceutically or diagnostically active agent, said active agent comprising one or more protonated primary and/or protonated secondary amino groups and/or (a) protonated guanidinium group(s), wherein (a) transmembrane and/or transmucosal delivery, transmembrane delivery being the capability to cross cell membranes; and/or (b) stability of said active agent are improved. A, B independently in each occurrence is alkane-i,j-diyl having k carbon atoms, i and independently j being less than or equal k and k being selected from 1 to 10, wherein said alkane-i,j-diyl (i) may comprise one or more double bonds; (ii) is optionally substituted; and/or (iii) comprises a cycle, wherein the total number of cycles being cyclic sugars in said compound is selected from 0 to 4 and is less than p·(n+m); (i) may comprise one or more double bonds; (ii) is optionally substituted; and/or (iii) comprises a cycle, wherein the total number of cycles being cyclic sugars in said compound is selected from 0 to 4 and is less than p·(n+m); X,Y independently in each occurrence is a biocompatible functional group comprising at least one oxygen atom or two sulphur atoms; n, m independently of each other are selected from 0 to 20; p is selected from 1 to 10; n+m is equal or greater than 1; and p·(n+m) is selected from 3 to 30; (a) transmembrane and/or transmucosal delivery, transmembrane delivery being the capability to cross cell membranes; and/or (b) stability
Pane of a transparent material coated with a substance having, in a wavelength region below 500 nm, a maximum of radiation absorption and/or of radiation reflection and/or of radiation scattering, wherein the substance is or comprises a metal oxide, characterized in that the substance is provided on parts of portions of the area of the transparent material in accordance with a pattern.
An apparatus comprising: an interface that is configured to communicate with a plurality of network functions in a mobile communication network; and a processor that is configured to: receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key. an interface that is configured to communicate with a plurality of network functions in a mobile communication network; and a processor that is configured to: receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key. receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key.
Process for the continuous preparation of polypropylene in a reactor from propylene and optionally ethylene and/or at least one other α-olefin monomer, wherein the reactor comprises a fluidized bed, an expanded section located at or near the top of the reactor, a distribution plate located at the lower part of the reactor and an inlet for a recycle stream located under the distribution plate; wherein the process comprises: - feeding a polymerization catalyst to the fluidized bed in the area above the distribution plate; - feeding the propylene and the optional at least one other α-olefin monomer to the reactor; - withdrawing the polypropylene from the reactor; - circulating fluids from the top of the reactor to the bottom of the reactor, wherein the circulating fluids are compressed using a compressor and cooled using a heat exchanger, resulting in a cooled recycle stream comprising liquid, and wherein the cooled recycle stream is introduced into the reactor using the inlet for the recycle stream wherein an alkane being iso-butane is added to the reactor and wherein the molar composition of the components in the recycle stream is chosen such that the dew temperature of the recycle stream at the reactor pressure is 0.10°C - 0.2°C below the temperature of the reactor and wherein the amount of iso-butane is chosen such that the molar composition in the recycle stream of the total of iso-butane is at least 2 mol% and at most 5 mol%. - feeding a polymerization catalyst to the fluidized bed in the area above the distribution plate; - feeding the propylene and the optional at least one other α-olefin monomer to the reactor; - withdrawing the polypropylene from the reactor; - circulating fluids from the top of the reactor to the bottom of the reactor, wherein the circulating fluids are compressed using a compressor and cooled using a heat exchanger, resulting in a cooled recycle stream comprising liquid, and wherein the cooled recycle stream is introduced into the reactor using the inlet for the recycle stream wherein an alkane being iso-butane is added to the reactor and
A motor drive device for an open winding type motor in which three-phase independent winding wires (210, 220, 230) are provided in a stator of the motor such that a current flowing through each independent winding wire in the motor flows out of the motor without passing through another independent winding wire, the motor drive device comprising: a plurality of single-phase inverters (160, 170, 180) provided for each of the winding wires (210, 220, 230) to individually apply a voltage to a corresponding winding wire; and a controller configured to control each of the single-phase inverters (160, 170, 180) provided for each of the winding wires (210, 220, 230), the controller being configured to adjust a 0-axis current, defined as an amount directly proportional to a total sum value of AC-currents, to a predetermined value by alternately and repeatedly generating a first period (ztime) in which a sum of voltages applied to the respective winding wires (210, 220, 230) is set to a value other than zero to offset the 0-axis current and a second period in which the sum of the voltages applied to the respective winding wires (210, 220, 230) is set to zero, and characterized in that an offset amount of the 0-axis current in the first period (ztime) is set such that an amplitude change of the 0-axis current from a start of the first period (ztime) to an end of the subsequent second period is proportionally distributed above and below the predetermined value. a plurality of single-phase inverters (160, 170, 180) provided for each of the winding wires (210, 220, 230) to individually apply a voltage to a corresponding winding wire; and a controller configured to control each of the single-phase inverters (160, 170, 180) provided for each of the winding wires (210, 220, 230), the controller being configured to adjust a 0-axis current, defined as an amount directly proportional to a total sum value of AC-currents, to a predetermined value by alternately and repeatedly generating a first period (ztime) in which a sum of voltages applied to the respective winding wires (210, 220, 230) is set to a value other than zero to offset the 0-axis current and a second period in which the sum of the voltages applied to the respective winding wires (210, 220, 230) is set to zero, and characterized in that an offset amount of the 0-axis current in the first period (ztime) is set such that an amplitude change of the 0-axis current from a start of the first period (ztime) to an end of the subsequent second period is proportionally distributed above and below the predetermined value.
A working vehicle comprising: - a traveling vehicle configured to perform an autonomous travel along a target traveling route; - a working device attached to the traveling vehicle; - an offset acquisition unit to acquire an offset amount (ΔW) and an offset di-rection (C1, C3) in a vehicle width direction between a width directional center of the traveling vehicle and a predetermined point in the working device; and - a traveling position corrector to correct, based on the offset amount (ΔW) and the offset direction (C1, C3) acquired by the offset acquisition unit, a traveling position of the traveling vehicle so that the predetermined point is located on the target traveling route, wherein the working vehicle is configured such that: when, in the vehicle width direction, a width directional center of the working device matches a center in a working width of the working device, the offset acquisition unit acquires the offset amount (ΔW) and the offset direction (C1, C3) based on the width directional center of the working device serving as the predetermined point; and characterized in that the working vehicle is configured such that when, in the vehicle width direction, the width directional center of the working device does not match the center in the working width of the working device, the offset acquisition unit acquires the offset amount (ΔW) and the offset direction (C1, C3) based on the center in the working width of the working device serving as the predetermined point. - a traveling vehicle configured to perform an autonomous travel along a target traveling route; - a working device attached to the traveling vehicle; - an offset acquisition unit to acquire an offset amount (ΔW) and an offset di-rection (C1, C3) in a vehicle width direction between a width directional center of the traveling vehicle and a predetermined point in the working device; and - a traveling position corrector to correct, based on the offset amount (ΔW) and the offset direction (C1, C3) acquired by the offset acquisition unit, a traveling position of the traveling vehicle so that the predetermined point is located on the target traveling route, wherein the working vehicle is configured such that: when, in the vehicle width direction, a width directional center of the working device matches a center in a working width of the working device, the offset acquisition unit acquires the offset amount (ΔW) and the offset direction (C1, C3) based on the width directional center of the working device serving as the predetermined point; and characterized in that the working vehicle is configured such that when, in the vehicle width direction, the width directional center of the working device does not match the center in the working width of the working device, the offset acquisition unit acquires the offset amount (ΔW) and the offset direction (C1, C3) based on the center in the working width of the working device serving as the predetermined point.