mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula wherein n is 0, 1, or 2; X is independently -N- or -CH-; R 1 is -C 1-3 alkyl; R 2 is -H or -CH 3; R 3a and R 3b are independently -H, -CH 3, or -CH 2 CH 3; R 4 is or thiazolyl optionally substituted with -CF 3; R 5 is halo, -CN, -CF 3, oxadiazolyl, or oxadiazolyl optionally substituted with CH 3; R 6 is -H, -OMe, halo, -CH 3, or -CF 3; provided that when n is 0, X is -N, -R 1 is -CH 2 CH 3, R 2 is -CH 3 in the position adjacent to the -O-, R 3a and R 3b are -H and -CH 3, then R 5 cannot be -CF 3; or a pharmaceutically acceptable salt thereof. n is 0, 1, or 2; X is independently -N- or -CH-; R 1 is -C 1-3 alkyl; R 2 is -H or -CH 3; R 3a and R 3b are independently -H, -CH 3, or -CH 2 CH 3; R 4 is or thiazolyl optionally substituted with -CF 3; R 5 is halo, -CN, -CF 3, oxadiazolyl, or oxadiazolyl optionally substituted with CH 3; R 6 is -H, -OMe, halo, -CH 3, or -CF 3; provided that when n is 0, X is -N, -R 1 is -CH 2 CH 3, R 2 is -CH 3 in the position adjacent to the -O-, R 3a and R 3b are -H and -CH 3, then R 5 cannot be -CF 3; or a pharmaceutically acceptable salt thereof.
Capturing device for a motor vehicle for monitoring an environmental region of the motor vehicle, including a camera-monitor system comprising at least one camera (6, 7) for capturing the environmental region in images (3a', 3b') and at least one display device (8, 9) for displaying the images (3a', 3b') captured by the at least one camera (6, 7), and including a control device for varying a brightness and a contrast of the images (3a', 3b') displayed by the at least one display device (8, 9) characterized in that the control device is adapted to vary the contrast and optionally the brightness of the image (3a', 3b') displayed on the at least one display device (8, 9) in presence of an object captured by the capturing device in a predetermined warning area of the environmental region in a partial image area (O1') and the control device is adapted to operate the at least one display device (8, 9) in a first operating mode in presence of the object outside of the predetermined warning area in which the at least one display device (8, 9) is adapted to present the image (3a', 3b') as a contrastless grey image, and to transfer the at least one display device (8, 9) into a second operating mode in which the displayed image (3a', 3b') is presented as a high contrast color image upon entry of the object into the predetermined warning area wherein the control device is adapted to vary the contrast and optionally the brightness of the image (3a', 3b') displayed on the at least one display device (8, 9) only in an image area having the object as the partial image area (O1') while after varying the contrast and optionally the brightness of the partial image area (O1'), the control device is adapted to vary the contrast and optionally the brightness of a remaining image area (R') different from the partial image area (O1') and to adapt it to the varied contrast and optionally the varied brightness of the partial image area (O1').
A stent delivery system, comprising: an elongate tubular member having an outer surface, a first lumen formed therein, and a second lumen formed therein, the first lumen and the second lumen being independent from each other; a stent disposed on the outer surface of the tubular member; a push tube slidably disposed along the outer surface of the tubular member, the push tube being positioned proximal of the stent; and a push member slidably disposed in the first lumen and being coupled to the push tube. an elongate tubular member having an outer surface, a first lumen formed therein, and a second lumen formed therein, the first lumen and the second lumen being independent from each other; a stent disposed on the outer surface of the tubular member; a push tube slidably disposed along the outer surface of the tubular member, the push tube being positioned proximal of the stent; and a push member slidably disposed in the first lumen and being coupled to the push tube.
Measuring device, which comprises: - a circuit for supplying a microwave ignition, comprising a transformer, a secondary winding (L N) of which is connected to at least one resonator having a resonance frequency of more than 1 MHz, and comprising two electrodes (11, 12) capable of generating a spark during an ignition command, - a measurement capacitor (Cmesure), connected in series between the secondary winding and the resonator, - a circuit (DIFF) for measuring the ionization current (Iion) of the gases in combustion in a cylinder of an internal combustion engine associated with the resonator, said circuit being connected to the terminals of the measurement capacitor, and/or - a circuit for measuring the voltage at the terminals of the measurement capacitor, suitable for supplying a voltage (V's) proportional to the voltage (Vout) at the terminals of the electrodes of the resonator during an ignition command. - a circuit for supplying a microwave ignition, comprising a transformer, a secondary winding (L N) of which is connected to at least one resonator having a resonance frequency of more than 1 MHz, and comprising two electrodes (11, 12) capable of generating a spark during an ignition command, - a measurement capacitor (Cmesure), connected in series between the secondary winding and the resonator, - a circuit (DIFF) for measuring the ionization current (Iion) of the gases in combustion in a cylinder of an internal combustion engine associated with the resonator, said circuit being connected to the terminals of the measurement capacitor, and/or - a circuit for measuring the voltage at the terminals of the measurement capacitor, suitable for supplying a voltage (V's) proportional to the voltage (Vout) at the terminals of the electrodes of the resonator during an ignition command.
A light bulb, comprising: a contact member; a bulb cover, forming a space with the contact member; a light-emitting device, located in the space and electrically connected to the contact member, the light-emitting device comprising: optoelectronic units (1, 2, 3), each comprising a first electrode (104, 204, 304) and a second electrode (105, 205, 305) which are arranged on a same side of each optoelectronic unit (1, 2, 3); a first supporting structure, configured to be a transparent structure, and having cavities configured to accommodate the optoelectronic units (1, 2, 3) and exposing the first electrode (104, 204, 304) and the second electrode (105, 205, 305); a reflective layer formed on the first supporting structure between the optoelectronic units (1, 2, 3); and a conductive element, arranged on the reflective layer, connecting at least two of the optoelectronic units (1, 2, 3) through the first electrode (104, 204, 304) of one optoelectronic unit (1, 2, 3) and the second electrode (105, 205, 305) of another optoelectronic unit (1, 2, 3). a contact member; a bulb cover, forming a space with the contact member; a light-emitting device, located in the space and electrically connected to the contact member, the light-emitting device comprising: optoelectronic units (1, 2, 3), each comprising a first electrode (104, 204, 304) and a second electrode (105, 205, 305) which are arranged on a same side of each optoelectronic unit (1, 2, 3); a first supporting structure, configured to be a transparent structure, and having cavities configured to accommodate the optoelectronic units (1, 2, 3) and exposing the first electrode (104, 204, 304) and the second electrode (105, 205, 305); a reflective layer formed on the first supporting structure between the optoelectronic units (1, 2, 3); and a conductive element, arranged on the reflective layer, connecting at least two of the optoelectronic units (1, 2, 3) through the first electrode (104, 204, 304) of one optoelectronic unit (1, 2, 3) and the second electrode (105, 205, 305) of another optoelectronic unit (1, 2, 3). optoelectronic units (1, 2, 3), each comprising a first electrode (104, 204, 304) and a second electrode (105, 205, 305) which are arranged on a same side of each optoelectronic unit (1, 2, 3); a first supporting structure, configured to be a transparent structure, and having cavities configured to accommodate the optoelectronic units (1, 2, 3) and exposing the first electrode (104, 204, 304) and the second electrode (105, 205, 305); a reflective layer formed on the first supporting structure between the optoelectronic units (1, 2, 3); and a conductive element, arranged on the reflective layer, connecting at least two of the optoelectronic units (1, 2, 3) through the first electrode (104, 204, 304) of one optoelectronic unit (1, 2, 3) and the second electrode (105, 205, 305) of another optoelectronic unit (1, 2, 3).
A method of demodulating a downlink control channel by a relay node, RN, in a wireless communication system, the method comprising: receiving at least one cell-specific reference signal and at least one user equipment, UE,-specific reference signal from a base station, BS,; receiving a reference signal indicator from the BS through higher-layers; and demodulating a relay physical downlink control channel, R-PDCCH, based on either the at least one cell-specific reference signal or based on the at least one UE-specific reference signal, the reference signal indicator indicating which of the cell-specific or the UE-specific reference signal is to be used for demodulating the R-PDCCH. receiving at least one cell-specific reference signal and at least one user equipment, UE,-specific reference signal from a base station, BS,; receiving a reference signal indicator from the BS through higher-layers; and demodulating a relay physical downlink control channel, R-PDCCH, based on either the at least one cell-specific reference signal or based on the at least one UE-specific reference signal, the reference signal indicator indicating which of the cell-specific or the UE-specific reference signal is to be used for demodulating the R-PDCCH.
Corner connection element for connecting profile elements (30, 40) which are arranged opposite one another approximately at a right angle and which have at least one mitre, comprising two connection elements (10, 20) which are arranged at a connection angle to one another and which can be introduced into at least one hollow chamber (31, 41) of the profile elements (30, 40), wherein at least one side (2, 3, 4, 5) of the connection element (10, 20) is arranged so as to be completely spaced apart from a wall (32, 42, 33, 43, 34, 44, 35, 45) of the hollow chamber (31, 41) of the profile element (30, 40), being in operative connection with said wall via at least one spring element (11, 21), wherein the spring element (11, 21) is arranged on the connection element (10, 20) so as to be approximately parallel to the longitudinal direction of the profile element (30, 40), wherein the spring element (11, 21) has at least one spring leg (110, 210, 111, 211), wherein the spring element (11, 21) has in each case a first spring leg (110, 210) and a second spring leg (111, 211), wherein the first spring leg (110, 210) of the spring element (11, 21) is arranged so as to be spaced apart approximately parallel to the side of the connection element (10, 20) via the second spring leg (111, 211), characterized in that the first spring leg (110, 210) and the second spring leg (111, 211) of the spring element (11, 12) has the same length as the connection element (10, 20).
A griddle for cooking food, the griddle comprising: a housing having an accommodation space formed therein and an open top; a heating plate formed to have a predetermined width and length and seated on the top of the housing; a burner provided in the housing to heat the heating plate; and a temperature sensor module provided in the housing to measure a temperature of the heating plate, wherein the temperature sensor module comprises: a cover provided in the housing and having an accommodation space formed therein; and a temperature sensor provided in the housing with at least a portion thereof accommodated in the accommodation space of the cover to measure a temperature of an inside of the cover; characterized in that the cover is formed to have the same or equivalent heat capacity as the heating plate. a housing having an accommodation space formed therein and an open top; a heating plate formed to have a predetermined width and length and seated on the top of the housing; a burner provided in the housing to heat the heating plate; and a temperature sensor module provided in the housing to measure a temperature of the heating plate, wherein the temperature sensor module comprises: a cover provided in the housing and having an accommodation space formed therein; and a temperature sensor provided in the housing with at least a portion thereof accommodated in the accommodation space of the cover to measure a temperature of an inside of the cover; characterized in that the cover is formed to have the same or equivalent heat capacity as the heating plate. a cover provided in the housing and having an accommodation space formed therein; and a temperature sensor provided in the housing with at least a portion thereof accommodated in the accommodation space of the cover to measure a temperature of an inside of the cover; characterized in that the cover is formed to have the same or equivalent heat capacity as the heating plate.
A catheter (100, 500) for bypassing an occlusion via a subintimal approach, the catheter comprising: a proximal portion (102, 502) including a proximal guidewire lumen and a proximal inflation lumen disposed adjacent to the proximal guidewire lumen; a distal portion (106, 506) including a distal guidewire lumen (129, 529) and a distal inflation lumen (126, 526) disposed adjacent the distal guidewire lumen; an intermediate portion (104, 504) disposed between the proximal portion and the distal portion, the intermediate portion including an intermediate inflation lumen (120, 520) in fluid communication with the proximal inflation lumen and the distal inflation lumen, the intermediate portion being devoid of a guidewire lumen; and a blocking mechanism disposed in the distal portion of the catheter, the blocking mechanism being transformable from a non-blocking configuration in which a guidewire is free to translate through the distal guidewire lumen and a blocking configuration in which a guidewire disposed in the distal guidewire lumen is prevented from translating through the distal guidewire lumen. a proximal portion (102, 502) including a proximal guidewire lumen and a proximal inflation lumen disposed adjacent to the proximal guidewire lumen; a distal portion (106, 506) including a distal guidewire lumen (129, 529) and a distal inflation lumen (126, 526) disposed adjacent the distal guidewire lumen; an intermediate portion (104, 504) disposed between the proximal portion and the distal portion, the intermediate portion including an intermediate inflation lumen (120, 520) in fluid communication with the proximal inflation lumen and the distal inflation lumen, the intermediate portion being devoid of a guidewire lumen; and a blocking mechanism disposed in the distal portion of the catheter, the blocking mechanism being transformable from a non-blocking configuration in which a guidewire is free to translate through the distal guidewire lumen and a blocking configuration in which a guidewire disposed in the distal guidewire lumen is prevented from translating through the distal guidewire lumen.
A controller for controlling a switching DC-DC converter having at least one switching circuit for converting an input voltage to an output voltage, the controller comprising: a control loop which is configured to attempt to maintain the output voltage at a predetermined level, a loss estimator providing an estimate of power loss in the switching circuit without using a measurement of input current and using an internal parameter of the control loop, characterised in that the control loop comprises a feedback loop which is configured to attempt to maintain the output voltage at a predetermined level and an autozero loop for reducing errors in the feedback loop, in the absence of an integrator in the control loop, by automatically adjusting a feedback gain K z of the feedback during operation of the DC-DC converter, wherein the feedback gain is the parameter employed by the loss estimator and wherein the loss estimator estimates power loss using the equation P Loss = P out V in V ̅ out V ̅ in V out K z − 1 where P out is the output power, V in and V out the measured input and output voltages and with V being their nominal values. a control loop which is configured to attempt to maintain the output voltage at a predetermined level, a loss estimator providing an estimate of power loss in the switching circuit without using a measurement of input current and using an internal parameter of the control loop, characterised in that the control loop comprises a feedback loop which is configured to attempt to maintain the output voltage at a predetermined level and an autozero loop for reducing errors in the feedback loop, in the absence of an integrator in the control loop, by automatically adjusting a feedback gain K z of the feedback during operation of the DC-DC converter, wherein the feedback gain is the parameter employed by the loss estimator and wherein the loss estimator estimates power loss using the equation P Loss = P out V in V ̅ out V ̅ in V out K z − 1 where P out is the output power, V in and V out the measured input and output voltages and with V being their nominal values.
A reaction vessel system, comprising: a reaction vessel, comprising: a housing component comprising an upper interior-facing surface and a lower interior facing surface; a reaction chamber defined by the housing component; and a light absorbing layer conforming to a portion of an interior-facing surface of the housing component that defines the reaction chamber, the light absorbing layer comprising a plurality of discrete regions disposed on the lower interior-facing surface, wherein a first discrete region of the plurality of discrete regions is spaced apart from a second discrete region of the plurality of discrete regions by a first distance; characterized in that a first energy source disposed below the housing component, the first energy source configured to direct light through at least a portion of the housing component at the plurality of discrete regions (302, 304, 306) of the light absorbing layer. a reaction vessel, comprising: a housing component comprising an upper interior-facing surface and a lower interior facing surface; a reaction chamber defined by the housing component; and a light absorbing layer conforming to a portion of an interior-facing surface of the housing component that defines the reaction chamber, the light absorbing layer comprising a plurality of discrete regions disposed on the lower interior-facing surface, wherein a first discrete region of the plurality of discrete regions is spaced apart from a second discrete region of the plurality of discrete regions by a first distance; characterized in that a housing component comprising an upper interior-facing surface and a lower interior facing surface; a reaction chamber defined by the housing component; and a light absorbing layer conforming to a portion of an interior-facing surface of the housing component that defines the reaction chamber, the light absorbing layer comprising a plurality of discrete regions disposed on the lower interior-facing surface, wherein a first discrete region of the plurality of discrete regions is spaced apart from a second discrete region of the plurality of discrete regions by a first distance; characterized in that a first energy source disposed below the housing component, the first energy source configured to direct light through at least a portion of the housing component at the plurality of discrete regions (302, 304, 306) of the light absorbing layer.
A method for wireless communication by a user equipment, UE, the method comprising: receiving one or more uplink grants scheduling a plurality of transmission occasions for the UE; performing a listen-before-talk, LBT, procedure to attempt to acquire a channel for transmitting in at least one of the plurality of transmission occasions; determining one or more of the plurality of transmission occasions to transmit data based, at least in part, on the LBT procedure, characterized in that said determining comprising one of: determining a last one of the plurality of transmission occasions to transmit highest priority data; or determining transmission occasions to transmit the data in ascending order of a priority of the data, wherein lower priority data is transmitted in earlier transmission occasions than higher priority data. receiving one or more uplink grants scheduling a plurality of transmission occasions for the UE; performing a listen-before-talk, LBT, procedure to attempt to acquire a channel for transmitting in at least one of the plurality of transmission occasions; determining one or more of the plurality of transmission occasions to transmit data based, at least in part, on the LBT procedure, characterized in that said determining comprising one of: determining a last one of the plurality of transmission occasions to transmit highest priority data; or determining transmission occasions to transmit the data in ascending order of a priority of the data, wherein lower priority data is transmitted in earlier transmission occasions than higher priority data. determining a last one of the plurality of transmission occasions to transmit highest priority data; or determining transmission occasions to transmit the data in ascending order of a priority of the data, wherein lower priority data is transmitted in earlier transmission occasions than higher priority data.
A method of producing a software product, comprising: a) defining a functional model of the software product, b) designing, based on the functional model, a plurality n of configurations and slices of the software product, a configuration being an entirety or a part of the software product forming an independently testable unit and a slice being a set of functions of the software product constructed together and forming an entirety or a part of a configuration, c) constructing a first slice forming a first configuration, d) independently constructing second to n-th slices of the software product, e) forming the (k + 1)th configuration by integrating the k-th configuration with the (k + 1)th slice, wherein k = 1,...n-1, and f) independently testing the first to n-th configurations, wherein, by carrying out test execution of the (k + 1)th configuration, test re-execution of the k-th configuration is also carried out, and said testing is carried out in parallel with constructing a further slice, wherein an integration layer is produced comprising a limited set of components produced with the k-th configuration as part of the k-th slice and being adapted with the (k +1)th slice; and wherein the integration layer comprises components which are stubbed with the k-th configuration as part of the k-th slice and which are replaced with components including real functionality as part of the (k+1)th slice. a) defining a functional model of the software product, b) designing, based on the functional model, a plurality n of configurations and slices of the software product, a configuration being an entirety or a part of the software product forming an independently testable unit and a slice being a set of functions of the software product constructed together and forming an entirety or a part of a configuration, c) constructing a first slice forming a first configuration, d) independently constructing second to n-th slices of the software product, e) forming the (k + 1)th configuration by integrating the k-th configuration with the (k + 1)th slice, wherein k = 1,...n-1, and f) independently testing the first to n-th configurations, wherein, by carrying out test execution of the (k + 1)th configuration, test re-execution of the k-th configuration is also carried out, and said testing is carried out in parallel with constructing a further slice,