mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle door comprising: a door panel constituting an outside design surface of a door; and a handle device disposed in the door panel , wherein the handle device includes a handle main body and an imaging unit mounted on the handle main body and capturing images of rear side and lateral rear side of a vehicle (C), and wherein the handle main body is configured to be accommodated inward of the door panel so as to be in an accommodated state that an outer surface of the handle main body is arranged substantially flat with respect to an outer surface of the door panel , wherein the handle main body is configured to be switched to be in a non-accommodated state that the handle main body protrudes outward from the door panel and the imaging unit is exposed to an outside of the door panel , wherein the non-accommodated state includes a protruding state, and an intermediate state that a part of the handle main body partially protrudes and the imaging unit is exposed to the outside of the door panel , characterized in that the handle main body protrudes to a state that the handle main body can be operated, the handle main body completely protrudes from the door panel and the handle main body further protrudes compared to the handle main body in the intermediate state. a door panel constituting an outside design surface of a door; and a handle device disposed in the door panel , wherein the handle device includes a handle main body and an imaging unit mounted on the handle main body and capturing images of rear side and lateral rear side of a vehicle (C), and wherein the handle main body is configured to be accommodated inward of the door panel so as to be in an accommodated state that an outer surface of the handle main body is arranged substantially flat with respect to an outer surface of the door panel , wherein the handle main body is configured to be switched to be in a non-accommodated state that the handle main body protrudes outward from the door panel and the imaging unit is exposed to an outside of the door panel , wherein the non-accommodated state includes a protruding state, and an intermediate state that a part of the handle main body partially protrudes and the imaging unit is exposed to the outside of the door panel , characterized in that the handle main body protrudes to a state that the handle main body can be operated, the handle main body completely protrudes from the door panel and the handle main body further protrudes compared to the handle main body in the intermediate state.
A lubricant deterioration detection device comprising a gas sensor configured to detect a carbonyl compound, wherein the carbonyl compound is at least one of formaldehyde, acetaldehyde, propanal, butanal, pentanal, n-hexanal, n-heptanal, formic acid, and acetic acid, characterized in that the lubricant deterioration detection device further comprises an oil removal portion between the gas sensor and the gas inlet portion that is adapted to remove an oil mist generated from the lubricant.
A microorganism of Escherichia sp. producing O-acetyl homoserine with increased O-acetyl homoserine production capability compared to the parent microorganism producing O-acetyl homoserine, wherein the endogenous activity of citrate synthase is modified to be attenuated or inactivated compared to the parent microorganism producing O-acetyl homoserine.
A method for determining properties of an electromagnetic waveform, the method comprising: providing measured parametric EM field data indicative of measured vector components of electric and magnetic fields of an EM waveform measured in at least one instance of time; providing reference data indicative of a plurality of reference data sets, each data set comprising: a reference steering vector parameters indicative of a certain respective direction of arrival (DOA), and a corresponding parametric EM field reference data including reference vector components of an electric and magnetic field pertaining to a wavefront propagating with the DOA of the corresponding reference steering vector parameters; determining a matching score between the measured parametric EM field data and the parametric EM field reference data of one or more of the reference data sets; and in case the matching score of a certain reference data set complies with a certain threshold condition, determining that said measured parametric EM field data corresponds to said EM waveform having a single EM wavefront thereby enabling to discriminate between measured EM waveforms having a single wavefront and measured EM waveforms having multiple wavefronts. providing measured parametric EM field data indicative of measured vector components of electric and magnetic fields of an EM waveform measured in at least one instance of time; providing reference data indicative of a plurality of reference data sets, each data set comprising: a reference steering vector parameters indicative of a certain respective direction of arrival (DOA), and a corresponding parametric EM field reference data including reference vector components of an electric and magnetic field pertaining to a wavefront propagating with the DOA of the corresponding reference steering vector parameters; determining a matching score between the measured parametric EM field data and the parametric EM field reference data of one or more of the reference data sets; and in case the matching score of a certain reference data set complies with a certain threshold condition, determining that said measured parametric EM field data corresponds to said EM waveform having a single EM wavefront thereby enabling to discriminate between measured EM waveforms having a single wavefront and measured EM waveforms having multiple wavefronts.
An electronic device comprising: a system-on-chip, SoC, including at least one component; a memory ; and a processor functionally connected to the SoC and the memory, wherein the processor is configured to: apply a default voltage for driving the at least one component at a specific frequency, determine whether data on an offset voltage corresponding to the at least one component and the specific frequency is stored in an offset voltage table, apply the offset voltage, being different from the default voltage, to the at least one component when the data on the offset voltage is stored, acquire an offset voltage data of the electronic device by comparing hardware performance monitor, HPM, values in conditions where the SoC is manufactured and where the SoC is mounted in the electronic device when the data on the offset voltage is not stored, verify the acquired voltage data by applying a voltage of the acquired voltage data while the electronic device drives a processor at a maximum load state, and update the offset voltage table based on the acquired voltage data, when the acquired voltage data is verified. a system-on-chip, SoC, including at least one component; a memory ; and a processor functionally connected to the SoC and the memory, wherein the processor is configured to: apply a default voltage for driving the at least one component at a specific frequency, determine whether data on an offset voltage corresponding to the at least one component and the specific frequency is stored in an offset voltage table, apply the offset voltage, being different from the default voltage, to the at least one component when the data on the offset voltage is stored, acquire an offset voltage data of the electronic device by comparing hardware performance monitor, HPM, values in conditions where the SoC is manufactured and where the SoC is mounted in the electronic device when the data on the offset voltage is not stored, verify the acquired voltage data by applying a voltage of the acquired voltage data while the electronic device drives a processor at a maximum load state, and update the offset voltage table based on the acquired voltage data, when the acquired voltage data is verified. apply a default voltage for driving the at least one component at a specific frequency, determine whether data on an offset voltage corresponding to the at least one component and the specific frequency is stored in an offset voltage table, apply the offset voltage, being different from the default voltage, to the at least one component when the data on the offset voltage is stored, acquire an offset voltage data of the electronic device by comparing hardware performance monitor, HPM, values in conditions where the SoC is manufactured and where the SoC is mounted in the electronic device when the data on the offset voltage is not stored, verify the acquired voltage data by applying a voltage of the acquired voltage data while the electronic device drives a processor at a maximum load state, and update the offset voltage table based on the acquired voltage data, when the acquired voltage data is verified.
A medical delivery device comprising: a substantially non-porous composite liner comprising: a lubricious material having a first plurality of pores; and a first reflowed thermoplastic elastomer substantially filling the first plurality of pores. a lubricious material having a first plurality of pores; and a first reflowed thermoplastic elastomer substantially filling the first plurality of pores.
A method for operating a host system to control power usage of a data storage device , the method comprising: identifying a power threshold for the data storage device; determining power consumption characteristics for the data storage device; entering into a power controlled mode for the data storage device to establish the power consumption characteristics as below the power threshold; alternating the power controlled mode between a throughput mode and a latency mode to maintain the power consumption characteristics below the power threshold; and adaptively adjusting a depth of a storage transaction queue of the data storage device proportional to a difference between actual power consumption characteristics and target power consumption characteristics; wherein the throughput mode comprises increasing the depth of the storage transaction queue of the data storage device to increase throughput above a throughput threshold while the power consumption characteristics are maintained below the power threshold; and wherein the latency mode comprises decreasing the depth of the storage transaction queue of the data storage device to reduce latency below a latency threshold while the power consumption characteristics are maintained below the power threshold. identifying a power threshold for the data storage device; determining power consumption characteristics for the data storage device; entering into a power controlled mode for the data storage device to establish the power consumption characteristics as below the power threshold; alternating the power controlled mode between a throughput mode and a latency mode to maintain the power consumption characteristics below the power threshold; and adaptively adjusting a depth of a storage transaction queue of the data storage device proportional to a difference between actual power consumption characteristics and target power consumption characteristics; wherein the throughput mode comprises increasing the depth of the storage transaction queue of the data storage device to increase throughput above a throughput threshold while the power consumption characteristics are maintained below the power threshold; and wherein the latency mode comprises decreasing the depth of the storage transaction queue of the data storage device to reduce latency below a latency threshold while the power consumption characteristics are maintained below the power threshold.
A transmission apparatus comprising: a transmission signal generation circuit that generates a transmission signal using a frame format including a legacy short training field, a legacy channel estimation field, a legacy header field and a data field; and a transmission circuit that transmits the generated transmission signal using one or a plurality of channels, wherein the legacy header includes Modulation and Coding Scheme (MCS) field and a one-bit additional indication field, the MCS filed comprising a plurality of bits; when a value of the additional indication field is 0, the MCS field indicates a legacy MCS of a plurality of legacy MCSs; and when the value of the additional indication field is 1, a combination of the MCS field and the additional indication field indicates an extended MCS of a plurality of extended MCSs different from the legacy MCSs, and wherein the legacy header includes a Length field for indicating a data length of the transmission signal, characterized in that, when the value of the one-bit additional indication field is 1, a value of the Length field is set according to a calculation formula using two Base Length parameters, the two Base Length parameters being given according to an index of the extended MCS indicated by the combination of the MCS field and the one-bit additional indication field. a transmission signal generation circuit that generates a transmission signal using a frame format including a legacy short training field, a legacy channel estimation field, a legacy header field and a data field; and a transmission circuit that transmits the generated transmission signal using one or a plurality of channels, wherein the legacy header includes Modulation and Coding Scheme (MCS) field and a one-bit additional indication field, the MCS filed comprising a plurality of bits; when a value of the additional indication field is 0, the MCS field indicates a legacy MCS of a plurality of legacy MCSs; and when the value of the additional indication field is 1, a combination of the MCS field and the additional indication field indicates an extended MCS of a plurality of extended MCSs different from the legacy MCSs, and wherein the legacy header includes a Length field for indicating a data length of the transmission signal, characterized in that, when the value of the one-bit additional indication field is 1, a value of the Length field is set according to a calculation formula using two Base Length parameters, the two Base Length parameters being given according to an index of the extended MCS indicated by the combination of the MCS field and the one-bit additional indication field.
A car comprising: a passenger compartment; a body surrounding the passenger compartment and having: a roof , a tail provided with a rear bumper, and a joining portion connecting the roof to the tail ; a rear spoiler , which is arranged at the end of the joining portion in the area of the tail ; and a plurality of projecting aerodynamic elements protruding from the joining portion in order to intercept an air flow brushing the joining portion during the travel and, hence, generate vortices in the air flow upstream of the rear spoiler ; the car is characterized in that each aerodynamic element has, in plan view, a curved development, has a front part forming, with a longitudinal direction (DL), an approach angle (α) and has a rear part forming, with the longitudinal direction (DL), a departure angle (β) greater than the approach angle (α). a passenger compartment; a body surrounding the passenger compartment and having: a roof , a tail provided with a rear bumper, and a joining portion connecting the roof to the tail ; a rear spoiler , which is arranged at the end of the joining portion in the area of the tail ; and a plurality of projecting aerodynamic elements protruding from the joining portion in order to intercept an air flow brushing the joining portion during the travel and, hence, generate vortices in the air flow upstream of the rear spoiler ; the car is characterized in that each aerodynamic element has, in plan view, a curved development, has a front part forming, with a longitudinal direction (DL), an approach angle (α) and has a rear part forming, with the longitudinal direction (DL), a departure angle (β) greater than the approach angle (α).
An inserting connector (10; 110) connectable to a receiving connector that is connected to an electric power source , the inserting connector (10; 110) being connected to an electronic apparatus , the inserting connector (10; 110) comprising: two electric power plug terminals (11, 12; 111, 112), each of which is connectable to one of electric power jack terminals of the receiving connector ; and characterised in that : the inserting connector further comprises: a control plug terminal (13; 113) configured to be extended and retracted relative to a main body of the inserting connector in an inserting direction; characterised by a lock terminal (18; 108) configured to project in a direction perpendicular to the inserting direction when the control plug terminal is extended; and either one of a slide switch or a pushing button switch configured to extend and retract the control plug terminal (13; 113) and the lock terminal (18; 108), wherein when the control plug terminal (13; 113) is extended relative to the main body of the inserting connector by use of the slide switch or the pushing button switch, the control plug terminal (13; 113) is connectable to a control jack terminal of the receiving connector . two electric power plug terminals (11, 12; 111, 112), each of which is connectable to one of electric power jack terminals of the receiving connector ; and characterised in that : the inserting connector further comprises: a control plug terminal (13; 113) configured to be extended and retracted relative to a main body of the inserting connector in an inserting direction; characterised by a lock terminal (18; 108) configured to project in a direction perpendicular to the inserting direction when the control plug terminal is extended; and either one of a slide switch or a pushing button switch configured to extend and retract the control plug terminal (13; 113) and the lock terminal (18; 108), a control plug terminal (13; 113) configured to be extended and retracted relative to a main body of the inserting connector in an inserting direction; characterised by a lock terminal (18; 108) configured to project in a direction perpendicular to the inserting direction when the control plug terminal is extended; and either one of a slide switch or a pushing button switch configured to extend and retract the control plug terminal (13; 113) and the lock terminal (18; 108), wherein when the control plug terminal (13; 113) is extended relative to the main body of the inserting connector by use of the slide switch or the pushing button switch, the control plug terminal (13; 113) is connectable to a control jack terminal of the receiving connector .
An integrated device suitable to act in conjunction with a main transport device that serves a roving frame and with a secondary transport device that serves at least one spinning frame , said integrated device comprising exchange means suitable for picking dirty tubes from the secondary transport device and bobbins from the main transport device , and cleaning means suitable for cleaning of the dirty tubes to obtain empty tubes , said exchange means being suitable for exchanging the bobbins with the empty tubes and releasing the bobbins to the secondary transport device and of the empty tubes to the main transport device , wherein said cleaning of the dirty tubes, said exchanging of the bobbins with the empty tubes, said releasing of the bobbins to the secondary transport device and of the empty tubes to the main transport device are performed locally by said integrated device .
A flame-retardant antibacterial agent, which is a polymer microsphere grafted on its surface with a guanidine salt, wherein the polymer microsphere comprises a crosslinked structure constituted by a structural unit A derived from maleic anhydride, a structural unit B derived from a monomer M, and a structural unit C derived from a crosslinking agent, wherein the monomer M is selected from the group consisting of C 4 -C 9 aliphatic olefins and mixtures thereof; and the guanidine salt comprises at least one flame-retardant guanidine salt, wherein the guanidine salt-grafted polymer microsphere has an average particle diameter in the range of 200-2000 nm, wherein the average particle diameter is characterized by the number average particle diameter, as measured by scanning electron microscopy. wherein the polymer microsphere comprises a crosslinked structure constituted by a structural unit A derived from maleic anhydride, a structural unit B derived from a monomer M, and a structural unit C derived from a crosslinking agent, wherein the monomer M is selected from the group consisting of C 4 -C 9 aliphatic olefins and mixtures thereof; and the guanidine salt comprises at least one flame-retardant guanidine salt, wherein the guanidine salt-grafted polymer microsphere has an average particle diameter in the range of 200-2000 nm, wherein the average particle diameter is characterized by the number average particle diameter, as measured by scanning electron microscopy.
A thermoelectric module comprising: a first electrode, a second electrode, and a thermoelectric element interposed between the first electrode and the second electrode, wherein the thermoelectric element comprises a thermoelectric material comprising: a compound represented by Formula 1 below: Formula 1 (R 1-a R' a )(T 1-b T' b ) 3±y wherein R and R' are different from each other, R is a rare-earth element and R' comprises at least one element selected from a rare-earth element and a transition metal, T and T' are different from each other, T is at least one element selected from sulfur, selenium, and tellurium and T' comprises at least one element selected from sulfur, selenium, tellurium, phosphorus, arsenic, antimony, bismuth, carbon, silicon, germanium, tin, boron, aluminum, gallium, and indium, 0≤a≤0.5, 0≤b≤0.5, and 0≤y≤0.5, wherein the compound represented by Formula 1 has a structure comprising a two-dimensional layered structure in which a double layer comprising at least one of T and T' is interposed between block layers comprising at least one of R and R' and at least one of T and T'. a first electrode, a second electrode, and a thermoelectric element interposed between the first electrode and the second electrode, wherein the thermoelectric element comprises a thermoelectric material comprising: a compound represented by Formula 1 below: Formula 1 (R 1-a R' a )(T 1-b T' b ) 3±y wherein R and R' are different from each other, R is a rare-earth element and R' comprises at least one element selected from a rare-earth element and a transition metal, T and T' are different from each other, T is at least one element selected from sulfur, selenium, and tellurium and T' comprises at least one element selected from sulfur, selenium, tellurium, phosphorus, arsenic, antimony, bismuth, carbon, silicon, germanium, tin, boron, aluminum, gallium, and indium, 0≤a≤0.5, 0≤b≤0.5, and 0≤y≤0.5, wherein the compound represented by Formula 1 has a structure comprising a two-dimensional layered structure in which a double layer comprising at least one of T and T' is interposed between block layers comprising at least one of R and R' and at least one of T and T'. wherein R and R' are different from each other, R is a rare-earth element and R' comprises at least one element selected from a rare-earth element and a transition metal, T and T' are different from each other, T is at least one element selected from sulfur, selenium, and tellurium and T' comprises at least one element selected from sulfur, selenium, tellurium, phosphorus, arsenic, antimony, bismuth, carbon, silicon, germanium, tin, boron, aluminum, gallium, and indium, 0≤a≤0.5, 0≤b≤0.5, and 0≤y≤0.5, wherein the compound represented by Formula 1 has a structure comprising a two-dimensional layered structure in which a double layer comprising at least one of T and T' is interposed between block layers comprising at least one of R and R' and at least one of T and T'.