mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a screen of an external electronic device, the method comprising: establishing a connection between an electronic device and the external electronic device; receiving, from the electronic device, screen control information for controlling the screen of the external electronic device; if the screen of the external electronic device is in a power-on state and while a screen timeout time period is counted, changing a setting of the screen of the external electronic device according to the received screen control information, wherein the changing the setting of the screen of the external electronic device comprises changing the screen timeout time period according to a particular function based on the received screen control information; counting the changed screen timeout time period of the screen of the external electronic device when the particular function is performed; and if the screen of the external electronic device is in a power-off state, changing the screen of the external electronic device from the power-off state to the power-on state. establishing a connection between an electronic device and the external electronic device; receiving, from the electronic device, screen control information for controlling the screen of the external electronic device; if the screen of the external electronic device is in a power-on state and while a screen timeout time period is counted, changing a setting of the screen of the external electronic device according to the received screen control information, wherein the changing the setting of the screen of the external electronic device comprises changing the screen timeout time period according to a particular function based on the received screen control information; counting the changed screen timeout time period of the screen of the external electronic device when the particular function is performed; and if the screen of the external electronic device is in a power-off state, changing the screen of the external electronic device from the power-off state to the power-on state.
A method executed by a contactless smart card "CSC" reader for CSC detection and selection, the method comprising generating a radio frequency "RF" field that defines a range of communication for the CSC reader; transmitting a first polling signal in the RF field; detecting a modulation in the RF field indicating that a first CSC is within the RF field and has responded to the first polling signal; inspecting the modulation for a collision, wherein the collision occurs if more than one CSC within the RF field responds to the first polling signal; determining that the modulation does not contain the collision; transmitting a halt command to the first CSC in response to determining that the modulation does not contain the collision, wherein the halt command instructs the first CSC to only respond to at least one specific command; characterized by the further steps of: increasing or decreasing a power level of the RF field after transmitting the halt command; and transmitting a second polling signal in the RF field after transmitting the halt command to the first CSC and after increasing or decreasing the power level of the RF field. increasing or decreasing a power level of the RF field after transmitting the halt command; and transmitting a second polling signal in the RF field after transmitting the halt command to the first CSC and after increasing or decreasing the power level of the RF field.
A method of controlling uplink transmission power, by a user equipment, UE, in wireless communication system, the method comprising: receiving an indication of a power control mode via a higher layer from a master eNodeB, MeNB, in dual connectivity; determining whether the MeNB and a secondary eNB, SeNB, in dual connectivity are asynchronous or synchronous with each other based on a timing difference between the MeNB and the SeNB; determining an uplink power for transmission to the SeNB based on the indication of the power control mode and whether the MeNB and the SeNB are asynchronous or synchronous; and transmitting an uplink signal to the SeNB based on the determined uplink power. receiving an indication of a power control mode via a higher layer from a master eNodeB, MeNB, in dual connectivity; determining whether the MeNB and a secondary eNB, SeNB, in dual connectivity are asynchronous or synchronous with each other based on a timing difference between the MeNB and the SeNB; determining an uplink power for transmission to the SeNB based on the indication of the power control mode and whether the MeNB and the SeNB are asynchronous or synchronous; and transmitting an uplink signal to the SeNB based on the determined uplink power.
A process of preparing a polyolefin polylactic acid polymer blend comprising the steps of i) providing a polyolefin selected from polyethylene, polypropylene, and mixtures and copolymers thereof, ii) providing polylactic acid, iii) providing a polyolefin selected from polyethylene, polypropylene, and mixtures and copolymers thereof grafted with at least one epoxide-functional monomer, iv) providing a polylactic acid grafted with at least one carboxylic acid or carboxylic anhydride functional monomer, v) mixing the components i) to iv) at elevated temperature in a range from 150 °C to 260 °C, and wherein component i) is provided in an amount of 5.0 to 50.0 % by weight, component ii) is provided in an amount of 40.0 to 90.0 % by weight, component iii) is provided in an amount of 1.0 to 20.0 % by weight, and component iv) is provided in an amount of 1.0 to 15.0 % by weight, calculated on the sum of components i) to iv). i) providing a polyolefin selected from polyethylene, polypropylene, and mixtures and copolymers thereof, ii) providing polylactic acid, iii) providing a polyolefin selected from polyethylene, polypropylene, and mixtures and copolymers thereof grafted with at least one epoxide-functional monomer, iv) providing a polylactic acid grafted with at least one carboxylic acid or carboxylic anhydride functional monomer, v) mixing the components i) to iv) at elevated temperature in a range from 150 °C to 260 °C, and wherein component i) is provided in an amount of 5.0 to 50.0 % by weight, component ii) is provided in an amount of 40.0 to 90.0 % by weight, component iii) is provided in an amount of 1.0 to 20.0 % by weight, and component iv) is provided in an amount of 1.0 to 15.0 % by weight, calculated on the sum of components i) to iv).
An intermediate adapter for use in a camera system comprising: a first interchangeable lens; a second interchangeable lens including a protruding portion protruding toward an image plane from its mount reference surface whose protruding amount is larger than that of the first interchangeable lens, and having a flange back equal to that of the first interchangeable lens; a first camera on which the first interchangeable lens is mountable, the first camera including a first wall portion inside its mount for preventing mounting of the second interchangeable lens by the protruding portion of the second interchangeable lens contacting the first wall portion; and a second camera on which the first interchangeable lens and the second interchangeable lens (401; 501) are selectively mountable, the second camera including a second wall portion provided inside its mount at a position that would be offset rearwards from the protruding portion of the second interchangeable lens, when engaged therewith; the intermediate adapter comprising: a third wall portion provided inside its mount at a position whereby it shall be offset rearwards from the protruding portion of the second interchangeable lens, when engaged therewith; characterized in that the intermediate adapter is mountable between the first interchangeable lens and each first and second camera (201; 301), and is mountable between the second interchangeable lens and each first and second camera (201; 301). a first interchangeable lens; a second interchangeable lens including a protruding portion protruding toward an image plane from its mount reference surface whose protruding amount is larger than that of the first interchangeable lens, and having a flange back equal to that of the first interchangeable lens; a first camera on which the first interchangeable lens is mountable, the first camera including a first wall portion inside its mount for preventing mounting of the second interchangeable lens by the protruding portion of the second interchangeable lens contacting the first wall portion; and a second camera on which the first interchangeable lens and the second interchangeable lens (401; 501) are selectively mountable, the second camera including a second wall portion provided inside its mount at a position that would be offset rearwards from the protruding portion of the second interchangeable lens, when engaged therewith; a third wall portion provided inside its mount at a position whereby it shall be offset rearwards from the protruding portion of the second interchangeable lens, when engaged therewith; characterized in that the intermediate adapter is mountable between the first interchangeable lens and each first and second camera (201; 301), and is mountable between the second interchangeable lens and each first and second camera (201; 301).
A combustion section for a gas turbine engine, comprising: an outer liner; an inner liner forming a combustion chamber with the outer liner, the combustion chamber configured to receive an air-fuel mixture for combustion therein; an outer case circumscribing the outer liner and forming a first plenum with the outer liner; and characterised by a convection shield assembly positioned between the outer liner and the outer case, wherein the outer case is offset from the convection shield assembly by a first distance, the first distance being less than 2.54 mm. an outer liner; an inner liner forming a combustion chamber with the outer liner, the combustion chamber configured to receive an air-fuel mixture for combustion therein; an outer case circumscribing the outer liner and forming a first plenum with the outer liner; and characterised by a convection shield assembly positioned between the outer liner and the outer case, wherein the outer case is offset from the convection shield assembly by a first distance, the first distance being less than 2.54 mm.
A control-system for controlling rotor speed of a wind turbine, the wind turbine comprising a rotor and a pitch actuator for adjusting a pitch of a blade of the rotor, the control-system comprising: a control unit for generating a pitch control signal for the pitch actuator, the control unit comprising a gain of a speed error, where the speed error represents a difference between a reference speed of the rotor and a measured rotor speed, an error gain schedule for generating a modified magnitude of the speed error or a modified magnitude of the gain in dependence of the speed error, characterised in that the slope of the gain schedule increases for increasing magnitudes of the speed error, at least for a first range of magnitudes of the speed error, and where the slope of the gain schedule subsequently decreases for a second range of magnitudes of the speed error, where the magnitude of the second range are greater than the magnitude of the first range. a control unit for generating a pitch control signal for the pitch actuator, the control unit comprising a gain of a speed error, where the speed error represents a difference between a reference speed of the rotor and a measured rotor speed, an error gain schedule for generating a modified magnitude of the speed error or a modified magnitude of the gain in dependence of the speed error, characterised in that the slope of the gain schedule increases for increasing magnitudes of the speed error, at least for a first range of magnitudes of the speed error, and where the slope of the gain schedule subsequently decreases for a second range of magnitudes of the speed error, where the magnitude of the second range are greater than the magnitude of the first range.
A structure, comprising: a skin member; a hat stringer, including: a base portion; a first web and a second web extending outwardly from the base portion, each one of the first and second webs being comprised of a wrap laminate having wrap plies and a cover laminate having cover plies; and a cap interconnecting the first and second webs; and a rib attached to at least one of the cap and the first and second webs (30, 32) such that the rib is directly connected to the hat stringer; and the hat stringer and skin member being co-cured. a skin member; a hat stringer, including: a base portion; a first web and a second web extending outwardly from the base portion, each one of the first and second webs being comprised of a wrap laminate having wrap plies and a cover laminate having cover plies; and a cap interconnecting the first and second webs; and a base portion; a first web and a second web extending outwardly from the base portion, each one of the first and second webs being comprised of a wrap laminate having wrap plies and a cover laminate having cover plies; and a cap interconnecting the first and second webs; and a rib attached to at least one of the cap and the first and second webs (30, 32) such that the rib is directly connected to the hat stringer; and the hat stringer and skin member being co-cured.
A method of producing a three dimensional autologous fat graft using human or animal lipoaspirate-derived adipose tissue, wherein the lipoaspirate comprises stem cells, wherein the lipoaspirate is mixed with nanofibrillar cellulose derived from tunicates, wherein the mixture of the lipoaspirate and the nanofibrillar cellulose derived from tunicates is crosslinked.
An underrun protection system for arrangement on a rear end of a vehicle, having a crossmember and two support arms for supporting the crossmember and for mounting on a mounting structure of the vehicle, wherein the two support arms are set laterally outwards such that the spacing of the support arms at the crossmember is larger than the spacing of the support arms at the mounting structure, wherein the underrun protection system comprises two connecting devices for mounting the crossmember on the support arms, characterized in that the connecting devices serve as reinforcement parts for sectional reinforcement of the crossmember, and/or the connecting devices are designed for adjustability along the crossmember, wherein the underrun protection system is additionally characterized by the following feature: a) the respective connecting device has a front side (Ev) and a rear side (Eh), and a longitudinal extent of the rear side (Eh) is smaller than a longitudinal extent of the front side (Ev). a) the respective connecting device has a front side (Ev) and a rear side (Eh), and a longitudinal extent of the rear side (Eh) is smaller than a longitudinal extent of the front side (Ev).
A compound which is 1-(3,3-dimethylbutyl)-3-(2-fluoro-4-methyl-5-(7-methyl-2-(methylamino)pyrido[2,3-d]pyrimidin-6-yl)phenyl)urea, or a pharmaceutically acceptable salt thereof.
Slide (4, 4') for packaged goods, in particular packages and/or consignments, with a slide base for packaged goods to slide down, comprising at least two slide base sections (11, 11', 12, 12', 13, 13'), wherein the at least two slide base sections (11, 11', 12, 12', 13, 13') form a height offset between one another, wherein at least one guide device (9, 9', 10, 10') is provided between the at least two slide base sections (11, 11', 12, 12', 13, 13') to guide the packaged goods from a slide base section (11, 11', 12, 12') to the next slide base section (12, 12', 13, 13'), wherein the at least one guide device (9, 9', 10, 10') has a height-adjustable free end pointing in the direction of the next slide base section (12, 12', 13, 13'), wherein the guide device (9, 9', 10, 10'), transverse to the slide base, has a plurality of finger elements (16, 16') arranged next to one another and adjustable in height at least partially independently of one another, characterised in that the finger elements (16, 16') support a flexible material web spanning the intermediate spaces between the finger elements (16, 16') and/or in that the finger elements (16, 16') have at least one material web surrounding in each case at least one finger element (16, 16') and driven in the longitudinal direction of the finger elements (16, 16').
Method for oxidizing a primary or secondary alcohol comprising aliphatic, cycloaliphatic and aromatic alcohols to an aldehyde or ketone as crystalline reaction product, comprising the following steps: a) providing a catalyst composition comprising at least one nitroxyl radical-containing compound, at least one NO source, at least one carboxylic or mineral acid or an anhydride of a carboxylic or mineral acid, b) preparing a reaction mixture by adding at least one primary or secondary alcohol and a gas comprising oxygen and optionally also one or more solvents to the catalyst composition from step a) and step e), c) incubating the reaction mixture from step b) at a temperature between 0 and 100°C or at the boiling point of the solvent, d) crystallizing the reaction product at the same time as or after step c), and e) recovering the catalyst composition by removing the crystallized reaction product from the reaction mixture obtained in step d). a) providing a catalyst composition comprising at least one nitroxyl radical-containing compound, at least one NO source, at least one carboxylic or mineral acid or an anhydride of a carboxylic or mineral acid, b) preparing a reaction mixture by adding at least one primary or secondary alcohol and a gas comprising oxygen and optionally also one or more solvents to the catalyst composition from step a) and step e), c) incubating the reaction mixture from step b) at a temperature between 0 and 100°C or at the boiling point of the solvent, d) crystallizing the reaction product at the same time as or after step c), and e) recovering the catalyst composition by removing the crystallized reaction product from the reaction mixture obtained in step d).
Control system for the investigation of container products, preferably consisting of plastics materials and manufactured using the blow-fill-seal method, which are filled with fluid that may comprise dirt particles caused by the manufacturing process which are deposited on the container wall when the container is stationary and are seen to be floating freely in the fluid when the container is moved and/or change their position as a result of the motion and as such can be detected with a sensor device, the control system comprising a handling device (3, 5, 7, 9), two stations (31, 35) with detectors and a vibration device, the respective container being able to be moved in an oscillating motion with a pre-definable excitation frequency by means of the vibration device such that the respective dirt particles can be detected in the fluid, characterised in that the handling device (3, 5, 7, 9) moves the respective container to be investigated into a horizontal position in the first station, in which the detector is arranged beneath the container and an emitter is arranged above said container, and into the second station, in which the detector is arranged above the container and an emitter is arranged beneath said container.
A purge ejector assembly for a vehicle, comprising: a first fluid passage having an engine flow port and an air channel flow port in fluid communication with each other; a second fluid passage connected to the first fluid passage, the second fluid passage having a purge flow port arranged outside the first fluid passage and a nozzle opening, where the purge flow port and the air channel flow port are in fluid communication with each other, wherein the purge flow port is connectable to a canister purge passage enabling evaporated fuel to flow in the second fluid passage from the canister purge passage via the purge flow port to the air channel flow port; a flow shape unit disposed within the first fluid passage between the engine flow port and the air channel flow port, where the flow shape unit is configured to raise the flow velocity of air flowing in a direction from the engine flow port to the air channel flow port when a first pressure level is applied to the engine flow port, thereby subjecting the second fluid passage to a second pressure level, which is lower than the first pressure level; characterized in that the second fluid passage is extending into the first fluid passage so that the nozzle opening is arranged inside the first fluid passage facing the air channel flow port such that the flow of air in the first fluid passage is flowing around the nozzle opening, and wherein the flow shape unit is disposed within the first fluid passage in connection to the nozzle opening. a first fluid passage having an engine flow port and an air channel flow port in fluid communication with each other; a second fluid passage connected to the first fluid passage, the second fluid passage having a purge flow port arranged outside the first fluid passage and a nozzle opening, where the purge flow port and the air channel flow port are in fluid communication with each other, wherein the purge flow port is connectable to a canister purge passage enabling evaporated fuel to flow in the second fluid passage from the canister purge passage via the purge flow port to the air channel flow port; a flow shape unit disposed within the first fluid passage between the engine flow port and the air channel flow port, where the flow shape unit is configured to raise the flow velocity of air flowing in a direction from the engine flow port to the air channel flow port when a first pressure level is applied to the engine flow port, thereby subjecting the second fluid passage to a second pressure level, which is lower than the first pressure level; characterized in that the second fluid passage is extending into the first fluid passage so that the nozzle opening is arranged inside the first fluid passage facing the air channel flow port such that the flow of air in the first fluid passage is flowing around the nozzle opening, and wherein the flow shape unit is disposed within the first fluid passage in connection to the nozzle opening.
A planar probe head for coupling ultrasonic signals to a planar component to be tested, by means of water-free jet technology, comprising a probe head, at least one pre-flow chamber (14, 16) having at least one water inlet as well as a base body for receiving the probe head, wherein a flow chamber is mounted downstream of at least one pre-flow chamber (14, 16), said flow chamber extending through a water outlet opening to a lower face of the planar probe head, wherein a water flow is formed between the lower face of the planar probe head and a surface of the component to be tested, wherein the probe head is releasably arranged so as to be freely accessible outside the at least one flow chamber and/or pre-flow chamber (14, 16) and wherein a side surface of the probe head comprising transmitting/receiving elements forms an internal wall portion of the flow chamber, wherein the planar probe head is connected to a plate forming a lower face (56, 156) of the planar probe head on the component side, the two-dimensional extent thereof along the component being greater than the two-dimensional extent of the base body along the component, characterised in that the plate is configured as a sliding plate having a lower face forming a closed planar surface in which the water outlet opening is configured as a slot-shaped opening running transversely to the testing direction along a central axis of the sliding plate, in order to form a water cushion bearing the planar probe head.