mhurhangee/ep-ind-claims huggingface dataset:
A solar cell module, comprising: a plurality of solar cells arranged along an arrangement direction; and a wiring member configured to electronically connect the plurality of solar cells to each other, wherein each of the plurality of solar cells includes a surface, and a plurality of thin line-shaped electrodes which are arranged on the surface along the arrangement direction, the wiring member is electrically connected to the thin line-shaped electrodes, and a first thin line-shaped electrode of the plurality of thin line-shaped electrodes includes a protruding part protruding toward a second thin line-shaped electrode adjacent to the first thin line-shaped electrode and provided in a connection region of the surface to which the wiring member is connected; wherein the first thin line-shaped electrode includes a linear part perpendicular to the wiring member, the linear part being connected to the protruding part and the protruding part being connected to the wiring member, characterized in that: the solar cell module further comprises an auxiliary electrode provided in the connection region, wherein each of the plurality of thin line-shaped electrodes includes the protruding part, the auxiliary electrode connects each of the protruding part of the plurality of thin line-shaped electrodes, and a longitudinal direction of the auxiliary electrode corresponds to the arrangement direction. a plurality of solar cells arranged along an arrangement direction; and a wiring member configured to electronically connect the plurality of solar cells to each other, wherein each of the plurality of solar cells includes a surface, and a plurality of thin line-shaped electrodes which are arranged on the surface along the arrangement direction, the wiring member is electrically connected to the thin line-shaped electrodes, and a first thin line-shaped electrode of the plurality of thin line-shaped electrodes includes a protruding part protruding toward a second thin line-shaped electrode adjacent to the first thin line-shaped electrode and provided in a connection region of the surface to which the wiring member is connected; wherein the first thin line-shaped electrode includes a linear part perpendicular to the wiring member, the linear part being connected to the protruding part and the protruding part being connected to the wiring member, characterized in that: the solar cell module further comprises an auxiliary electrode provided in the connection region, wherein each of the plurality of thin line-shaped electrodes includes the protruding part, the auxiliary electrode connects each of the protruding part of the plurality of thin line-shaped electrodes, and a longitudinal direction of the auxiliary electrode corresponds to the arrangement direction. the solar cell module further comprises an auxiliary electrode provided in the connection region, wherein each of the plurality of thin line-shaped electrodes includes the protruding part, the auxiliary electrode connects each of the protruding part of the plurality of thin line-shaped electrodes, and a longitudinal direction of the auxiliary electrode corresponds to the arrangement direction.
A display cover member in which: one of principal surfaces (1a, 1b) is formed of an uneven surface; a mean width of roughness profile elements (RSm) of the uneven surface defined by JIS B 0601-2013 is not less than 1 μm and not more than 30 μm; an average inclined angle (θ) of the roughness profile of the uneven surface is not less than 1.2° and not more than 7°; where θ is defined as θ = tan -1 Δa; where Δa = (h1+h2+h3... +hn)/l and here, the sum (h1+h2+h3... +hn) of the absolute values of the differences (heights h) between adjacent pairs of profile peaks and profile valley bottoms has been divided by the sampling length 1 of the roughness profile defined by JIS B 0601-2013; and a kurtosis of the roughness profile (Rku) of the uneven surface defined by JIS B 0601-2013 is not less than 2.2 and not more than 10.
A control device of a brake system, comprising: a sensor unit including at least one of a pedal sensor, a pressure sensor, and a motor position sensor; a first control unit which includes at least one of an electronic parking brake driver, a valve driver, and a motor driver and includes a first microcontroller unit configured to control the EPB driver, the valve driver, and the motor driver according to a signal received from the sensor unit; and a second control unit which performs the same function as the first control unit and constitutes redundancy of the first control unit. a sensor unit including at least one of a pedal sensor, a pressure sensor, and a motor position sensor; a first control unit which includes at least one of an electronic parking brake driver, a valve driver, and a motor driver and includes a first microcontroller unit configured to control the EPB driver, the valve driver, and the motor driver according to a signal received from the sensor unit; and a second control unit which performs the same function as the first control unit and constitutes redundancy of the first control unit.
A method for powering a diesel engine with dual fuel feed, namely diesel fuel, i.e. fuel ignited by compression, and gas, in particular gasoil and methane, said engine comprising a plurality of diesel electro-injectors arranged to feed said fuel into corresponding cylinders, said diesel injectors being activated and controlled in their operation by an electronic control unit which supervises their operativity on the basis of predefined control parameters, the injection of this diesel fuel, for example gasoil, by each diesel injection taking place in accordance with a modality which comprises at least one pilot injection (P1; P2) followed by a main gasoil injection into the corresponding cylinder, characterised by reducing, at least during the main injection, the gasoil quantity injected and replacing the lacking gasoil quantity with a quantity of gas to enable correct engine operation while maintaining the requested power and torque values during use, during said reduction in the diesel fuel there being fed to the electronic control unit controlling the diesel injectors an electric signal which emulates the activation of these latter and masks the reduction in the gasoil quantity introduced into the cylinder in order to prevent said control unit for said diesel injectors from sensing said reduction.
A vacuum cleaner comprising: a main body for generating suction; a suction head for contacting a surface to be cleaned to draw in air and dust from the surface; a handle pipe for user operation; a flexible hose connecting the handle pipe and the main body; and an extension pipe connecting the suction head and the handle pipe, wherein the handle pipe includes: a handle pipe body for connecting the extension pipe and the flexible hose to each other; and an accessory assembly combined integrally with the handle pipe body for use as a substitute for the suction head, characterized in that the accessory assembly comprises a slide member, a dusting tool, and a crevice tool, wherein the slide member is combined with the handle pipe body so as to be slidable, the dusting tool and the crevice tool being combined with the slide member. a main body for generating suction; a suction head for contacting a surface to be cleaned to draw in air and dust from the surface; a handle pipe for user operation; a flexible hose connecting the handle pipe and the main body; and an extension pipe connecting the suction head and the handle pipe, a handle pipe body for connecting the extension pipe and the flexible hose to each other; and an accessory assembly combined integrally with the handle pipe body for use as a substitute for the suction head, characterized in that the accessory assembly comprises a slide member, a dusting tool, and a crevice tool, wherein the slide member is combined with the handle pipe body so as to be slidable, the dusting tool and the crevice tool being combined with the slide member.
Compounds of general formulae 2, 3, 5 or 6 wherein n, m and o may be the same or different and represent an integer of from 0 to 3, L1, which may be the same or different at each position, has the formula A-1 wherein R 1 and R 2 may be the same or different and represent hydrogen or an alkyl group. wherein n, m and o may be the same or different and represent an integer of from 0 to 3, L1, which may be the same or different at each position, has the formula A-1
A method for an intra-Secondary Node, SN, conditional Primary Secondary Cell Group, SCG, Cell, PSCell, change, CPC, procedure performed by a user equipment, UE, the method comprising: transmitting, to a master node, a UE capability report indicating that the UE supports conditional reconfiguration for PSCell change and conditional reconfiguration for Primary Cell, PCell, change; receiving, from the master node, a radio resource control, RRC, reconfiguration message including a Master Cell Group, MCG, portion and an SCG portion, the SCG portion including a conditional reconfiguration for changing from a source PSCell to a target PSCell, the conditional reconfiguration including a configuration of the target PSCell and an execution condition; evaluating the execution condition; applying the configuration of the target PSCell and synchronizing to the target PSCell after determining that the execution condition is satisfied; and transmitting, to the master node, a response message after determining that the conditional reconfiguration is applied, wherein both the source PSCell and the target PSCell belong to a secondary node. transmitting, to a master node, a UE capability report indicating that the UE supports conditional reconfiguration for PSCell change and conditional reconfiguration for Primary Cell, PCell, change; receiving, from the master node, a radio resource control, RRC, reconfiguration message including a Master Cell Group, MCG, portion and an SCG portion, the SCG portion including a conditional reconfiguration for changing from a source PSCell to a target PSCell, the conditional reconfiguration including a configuration of the target PSCell and an execution condition; evaluating the execution condition; applying the configuration of the target PSCell and synchronizing to the target PSCell after determining that the execution condition is satisfied; and transmitting, to the master node, a response message after determining that the conditional reconfiguration is applied, wherein both the source PSCell and the target PSCell belong to a secondary node.
A method for a self-organizing network employing measurement intervals having fixed start and end points, the method comprising: determining that at least one network control function instance is being executed within a first measurement interval and that the at least one network control function instance has a visibility delay period that ends within the first measurement interval, wherein the visibility delay period is a time period between execution of a network control function instance and full visibility of the network control function instance; selecting measurement data for at least one succeeding function from a second measurement interval subsequent to the first measurement interval; and executing the at least one succeeding function dependent on the selected measurement data, characterized in that the method further comprises: setting a measurement flag dependent on determining that the at least one network control function instance is in the visibility delay period; delaying a start of measurements for the succeeding network control function instance while the measurement flag is set; and resetting or unsetting the measurement flag upon determining that the visibility delay period has ended to enable the measurements for the succeeding network control function. determining that at least one network control function instance is being executed within a first measurement interval and that the at least one network control function instance has a visibility delay period that ends within the first measurement interval, wherein the visibility delay period is a time period between execution of a network control function instance and full visibility of the network control function instance; selecting measurement data for at least one succeeding function from a second measurement interval subsequent to the first measurement interval; and executing the at least one succeeding function dependent on the selected measurement data, characterized in that the method further comprises: setting a measurement flag dependent on determining that the at least one network control function instance is in the visibility delay period; delaying a start of measurements for the succeeding network control function instance while the measurement flag is set; and resetting or unsetting the measurement flag upon determining that the visibility delay period has ended to enable the measurements for the succeeding network control function. setting a measurement flag dependent on determining that the at least one network control function instance is in the visibility delay period; delaying a start of measurements for the succeeding network control function instance while the measurement flag is set; and resetting or unsetting the measurement flag upon determining that the visibility delay period has ended to enable the measurements for the succeeding network control function.
A method performed by a device for user data transmission on a random access channel, RACH, to a network, the method comprising: determining a timing advance value by the device; based on the timing advance value, transmitting to the network on the RACH an access request message comprising an identifier used to identify the device and user data. determining a timing advance value by the device; based on the timing advance value, transmitting to the network on the RACH an access request message comprising an identifier used to identify the device and user data.
A wireless energy transmitter, comprising: a sampling unit configured to obtain first samples from an alternating current -AC-signal during a first symbol interval, the AC signal being induced at the wireless energy transmitter, the symbol interval being a time interval used to transmit energy from the wireless energy transmitter to a wireless energy receiver; and characterised by a correcting unit configured to correct symbol synchronization based on a difference between a sum of absolute values of the first samples and a sum of absolute values of second samples that are obtained from a voltage signal during a second symbol interval, in which synchronization matching is performed to synchronize the operation timings between a switch of the wireless energy transmitter and a switch of the wireless energy receiver. a sampling unit configured to obtain first samples from an alternating current -AC-signal during a first symbol interval, the AC signal being induced at the wireless energy transmitter, the symbol interval being a time interval used to transmit energy from the wireless energy transmitter to a wireless energy receiver; and characterised by a correcting unit configured to correct symbol synchronization based on a difference between a sum of absolute values of the first samples and a sum of absolute values of second samples that are obtained from a voltage signal during a second symbol interval, in which synchronization matching is performed to synchronize the operation timings between a switch of the wireless energy transmitter and a switch of the wireless energy receiver.
A method of producing a semiconductor substrate (1000d, 1100d, 1200d, 1300d; 1400d) comprising at least one integrated magnetic flux concentrator (1027; 1127 1227; 1327; 1427), the method comprising the steps of: a) providing a semiconductor substrate (1000a; 1100a; 1200a; 1300a; 1400a) having an upper surface; b) making at least one cavity (1026; 1126; 1226; 1326; 1426) in said upper surface; c) depositing one or more layers (1331; 1325) of one or more materials, including sputtering at least one layer of a soft magnetic material (1025; 1125; 1225; 1325; 1425); d) removing substantially all of the soft magnetic material that is situated outside of the at least one cavity (1026; 1126; 1226; 1326; 1426), while leaving at least a portion of the soft magnetic material that is inside said at least one cavity; characterised in that step c) comprises: forming a stack of layers by repeating at least two times: i) sputtering a stress release layer (1331.i); and ii) sputtering a layer (1325.i) of a soft magnetic material. a) providing a semiconductor substrate (1000a; 1100a; 1200a; 1300a; 1400a) having an upper surface; b) making at least one cavity (1026; 1126; 1226; 1326; 1426) in said upper surface; c) depositing one or more layers (1331; 1325) of one or more materials, including sputtering at least one layer of a soft magnetic material (1025; 1125; 1225; 1325; 1425); d) removing substantially all of the soft magnetic material that is situated outside of the at least one cavity (1026; 1126; 1226; 1326; 1426), while leaving at least a portion of the soft magnetic material that is inside said at least one cavity; i) sputtering a stress release layer (1331.i); and ii) sputtering a layer (1325.i) of a soft magnetic material.
A ternary conjugate formed by coupling an imidazoline having NO free radical scavenging activity, a peptide having thrombolytic activity, and a thrombus-targeting peptide via a L-Lys linking arm, wherein the imidazoline having NO free radical scavenging activity is 1,3-dioxo-2-[(4-oxyacetoxy)phenyl]-4,4,5,5-tetramethylimidazoline, the peptide having thrombolytic activity is ARPAK (Ala-Arg-Pro-Ala-Lys), GRPAK (Gly-Arg-Pro-Ala-Lys), RPAK (Arg-Pro-Ala-Lys) or PAK (Pro-Ala-Lys), and the thrombus-targeting peptide is an oligopeptide comprising an RGD (Arg-Gly-Asp) sequence, and wherein the ternary conjugate has the following formula I-1: wherein, aa 1 and aa 2 may be both present, aa 1 is present but aa 2 is absent, or both absent; when both of aa 1 and aa 2 are present, aa 1 is R (Arg), and aa 2 is G (Gly) or A (Ala); when aa 1 is present but aa 2 is absent, aa 1 is R (Arg); aa 3 may be S (Ser), V (Val), or F (Phe).
An illumination apparatus comprising: a rectifier configured to receive alternating current power and generate a driving voltage (Vin) in the form of a rectifying voltage; characterized by a control signal generator configured to compare the driving voltage with a predetermined reference voltage to generate a sampling signal, (COM0 - COM3) and configured to perform a logic operation on the sampling signal to generate a switch control signal (SW1-SW3) and a current control signal (SC1-SC4); a switch unit configured to perform on/off operations in response to the switch control signal and selectively transmit the driving voltage; a total current controller configured to receive the sampling signal and generate a target voltage as an analog signal; a current controller configured to be enabled in response to the current control signal and having a plurality of driving current controllers configured to determine a driving current by the received target voltage signal; and a light emitting unit connected to the current controller and having light emitting diodes (LEDs) configured to perform an light emitting operation. a rectifier configured to receive alternating current power and generate a driving voltage (Vin) in the form of a rectifying voltage; characterized by a control signal generator configured to compare the driving voltage with a predetermined reference voltage to generate a sampling signal, (COM0 - COM3) and configured to perform a logic operation on the sampling signal to generate a switch control signal (SW1-SW3) and a current control signal (SC1-SC4); a switch unit configured to perform on/off operations in response to the switch control signal and selectively transmit the driving voltage; a total current controller configured to receive the sampling signal and generate a target voltage as an analog signal; a current controller configured to be enabled in response to the current control signal and having a plurality of driving current controllers configured to determine a driving current by the received target voltage signal; and a light emitting unit connected to the current controller and having light emitting diodes (LEDs) configured to perform an light emitting operation.
A motor vehicle roof obtained after thermal tempering of a temperable tinted glass substrate, at least one of the faces of which is partially coated with a layer of mineral paint obtained from an aqueous paint composition based on an alkali metal silicate solution comprising the mixing of a platy mineral filler with at least one other filler chosen from alumina, boron or germanium, and at least one black mineral pigment, wherein the weight ratio between the alkali metal silicate and all of the mineral fillers including the pigment is between 0.05 and 2, the aqueous mineral paint composition comprises between 10% and 55% by weight of sodium silicate, potassium silicate and/or lithium silicate, and the platy mineral filler is talc, mica, or clays based on silicate or on aluminosilicate.
A method, comprising: determining a need to resynchronize a broadcast and unicast frequency-hopping schedules on a network interface; in response to the need, soliciting the broadcast schedule from one or more neighbor devices having the synchronized broadcast schedule; and establishing the unicast schedule for the network interface using communication during the synchronized broadcast schedule. determining a need to resynchronize a broadcast and unicast frequency-hopping schedules on a network interface; in response to the need, soliciting the broadcast schedule from one or more neighbor devices having the synchronized broadcast schedule; and establishing the unicast schedule for the network interface using communication during the synchronized broadcast schedule.