mhurhangee/patent-ind-claim-en huggingface dataset:
A double stroller, comprising a stroller frame having an unfolded state and a folded state, at least one front wheel assembly disposed at a front portion of a bottom of the stroller frame, two rear wheel assemblies disposed at a rear portion of the bottom of the stroller frame, and a lock mechanism for locking the stroller frame in the unfolded state, wherein the stroller frame comprises two side frames provided at right and left sides respectively, and a transverse brace assembly connected between the side frames on both sides, the side frame of each side comprises a front support rod gradually inclining upward from front to back, a rear support rod extending along an up-down direction, a sliding element slidably disposed on the rear support rod in a manner so as to slide in the up-down direction, and a push rod extending in an up-down direction with a lower portion being pivotally connected to the sliding element , is characterized in that , the side frame of each side further comprises a front seat rod and a rear seat rod respectively extending in a front-rear direction, a front portion of the front seat rod is pivotally connected to the front support rod , the rear seat rod is pivotally connected to the rear support rod , a front portion of the rear seat rod is pivotally connected to a rear portion of the front seat rod , and a rear portion of the rear seat rod is pivotally connected to the push rod , and lower portions of the front support rods on both sides are rotatably connected to each other, and the transverse brace assembly is disposed between the side frames on both sides and capable of folded along a left-right direction, when folding the stroller frame, the front seat rod and the rear seat rod of the side frame of each side is turned and folded along the front-rear direction and the sliding element slides downward along the rear support rod , such that the front support rod , the rear support rod , the front seat rod , the rear seat rod and the push rod are drawn close to each other along the front-rear direction to achieve the folding of the side frame , the transverse brace assembly is folded such that the side frames on both sides are drawn close to each other along the left-right direction, and the front wheel assembly and the rear wheel assembly are drawn close to each other along the front-rear direction.
An expression vector comprising a transcription cassette for use in the treatment of a neurodegenerative disease caused by polymorphic G4C2 expansion in the first intron of the C9ORF72 gene wherein said expression vector comprises: i) an antisense nucleic acid, an inhibitory RNA or shRNA that is complementary to and inhibits the expression of a nucleic acid encoding a Serine/Arginine-Rich Splice Factor [SRSF1]; ii) a nucleic acid molecule encoding a peptide that comprise or consists of an amino acid sequence as set forth in SEQ ID NO: 15; or iii) a nucleic acid molecule encoding a dominant negative protein that comprises or consists of an amino acid sequence as set forth in SEQ ID NO: 16 or 17; wherein said nucleic acid molecule is operably linked to a promoter adapted to express the agent according to i), ii) or iii). i) an antisense nucleic acid, an inhibitory RNA or shRNA that is complementary to and inhibits the expression of a nucleic acid encoding a Serine/Arginine-Rich Splice Factor [SRSF1]; ii) a nucleic acid molecule encoding a peptide that comprise or consists of an amino acid sequence as set forth in SEQ ID NO: 15; or iii) a nucleic acid molecule encoding a dominant negative protein that comprises or consists of an amino acid sequence as set forth in SEQ ID NO: 16 or 17;
An adjustment method, comprising: receiving , by a communications device, a redistribution command sent by a network device in a broadcast message or a paging message, wherein the redistribution command is a command to adjust a frequency priority or a cell priority of the communications device in a cell; and ignoring , by the communications device, the redistribution command based on a status of the communications device; characterized in that the ignoring , by the communications device, the redistribution command based on a status of the communications device comprises: when the communications device is in an inactive state when the redistribution command is received, and the communications device receives, either from a status control command before receiving the redistribution command or from the message comprising the redistribution command, indication information sent by the network device, ignoring , by the communications device, the redistribution command as instructed by the indication information, wherein the status control command instructs the communications device to enter said inactive state; and when the communications device is in the inactive state, the communications device stores context information of the communications device based on which the communications device communicates with the network device when the communications device is in a connected state. receiving , by a communications device, a redistribution command sent by a network device in a broadcast message or a paging message, wherein the redistribution command is a command to adjust a frequency priority or a cell priority of the communications device in a cell; and ignoring , by the communications device, the redistribution command based on a status of the communications device; characterized in that the ignoring , by the communications device, the redistribution command based on a status of the communications device comprises: when the communications device is in an inactive state when the redistribution command is received, and the communications device receives, either from a status control command before receiving the redistribution command or from the message comprising the redistribution command, indication information sent by the network device, ignoring , by the communications device, the redistribution command as instructed by the indication information, wherein the status control command instructs the communications device to enter said inactive state; and when the communications device is in the inactive state, the communications device stores context information of the communications device based on which the communications device communicates with the network device when the communications device is in a connected state.
A method for determining a starting breathing metric for guided breathing, comprising: determining an initial breathing metric of a user; determining a multiplier, wherein the multiplier varies as a function of the initial breathing metric within a range; and applying the multiplier to the initial breathing metric of the user; wherein the initial breathing metric comprises a breathing period of the user, and wherein: when the initial breathing metric of the user is determined to be between a first value and a second value higher than the first value, the multiplier varies in a linearly decreasing manner, and when the initial breathing metric of the user is determined to be between the second value and a third value higher than the second value, the multiplier is constant. determining an initial breathing metric of a user; determining a multiplier, wherein the multiplier varies as a function of the initial breathing metric within a range; and applying the multiplier to the initial breathing metric of the user; wherein the initial breathing metric comprises a breathing period of the user, and wherein: when the initial breathing metric of the user is determined to be between a first value and a second value higher than the first value, the multiplier varies in a linearly decreasing manner, and when the initial breathing metric of the user is determined to be between the second value and a third value higher than the second value, the multiplier is constant. when the initial breathing metric of the user is determined to be between a first value and a second value higher than the first value, the multiplier varies in a linearly decreasing manner, and when the initial breathing metric of the user is determined to be between the second value and a third value higher than the second value, the multiplier is constant.
An ice maker for a home appliance, in particular for a refrigerator or freezer, comprising: an upper tray having a plurality of upper chamber parts ; a lower tray having a plurality of lower chamber parts , the lower tray being movable with respect to the upper tray between an open position and a closed position, such that in the closed position, the lower chamber parts and the upper chamber parts form a plurality of ice chambers in which ice is to be formed; and an upper case including an upper plate and a first side wall extending perpendicular to the upper plate , wherein the first side wall includes a cool air hole and the upper plate includes a tray opening , the upper tray being mounted to the upper plate to be exposed by the tray opening ; wherein the upper case further includes a cool air guide configured to guide cool air passing through the cool air hole toward the tray opening . an upper tray having a plurality of upper chamber parts ; a lower tray having a plurality of lower chamber parts , the lower tray being movable with respect to the upper tray between an open position and a closed position, such that in the closed position, the lower chamber parts and the upper chamber parts form a plurality of ice chambers in which ice is to be formed; and an upper case including an upper plate and a first side wall extending perpendicular to the upper plate , wherein the first side wall includes a cool air hole and the upper plate includes a tray opening , the upper tray being mounted to the upper plate to be exposed by the tray opening ; wherein the upper case further includes a cool air guide configured to guide cool air passing through the cool air hole toward the tray opening .
An automated drive device that automatically stops a vehicle in a pick-up and drop-off area in which a passenger gets on and off the vehicle, the automated drive device comprising: at least one processor configured to acquire a type of the passenger before the vehicle reaches the pick-up and drop-off area as a first process, and change a behavior for stopping the vehicle in the pick-up and drop-off area in accordance with the type of the passenger as a second process; and at least one memory that stores a program and information to be read by the at least one processor , wherein the at least one processor is configured to: perform a first approaching operation to cause the vehicle to approach the pick-up and drop-off area in the second process when the type of the passenger acquired in the first process is a vulnerable pedestrian ; and perform a second approaching operation to cause the vehicle to approach the pick-up and drop-off area in the second process when the type of the passenger acquired in the first process is not a vulnerable pedestrian, characterized in that position at which an advancing direction of the vehicle is varied in the second approaching operation is closer to a waiting position of the passenger than a position at which the advancing direction of the vehicle is varied in the first approaching operation, the waiting position being a position at which the passenger waits to get on and off the vehicle. at least one processor configured to acquire a type of the passenger before the vehicle reaches the pick-up and drop-off area as a first process, and change a behavior for stopping the vehicle in the pick-up and drop-off area in accordance with the type of the passenger as a second process; and acquire a type of the passenger before the vehicle reaches the pick-up and drop-off area as a first process, and change a behavior for stopping the vehicle in the pick-up and drop-off area in accordance with the type of the passenger as a second process; and at least one memory that stores a program and information to be read by the at least one processor , perform a first approaching operation to cause the vehicle to approach the pick-up and drop-off area in the second process when the type of the passenger acquired in the first process is a vulnerable pedestrian ; and perform a second approaching operation to cause the vehicle to approach the pick-up and drop-off area in the second process when the type of the passenger acquired in the first process is not a vulnerable pedestrian, characterized in that position at which an advancing direction of the vehicle is varied in the second approaching operation is closer to a waiting position of the passenger than a position at which the advancing direction of the vehicle is varied in the first approaching operation, the waiting position being a position at which the passenger waits to get on and off the vehicle.
A timepiece comprising: a GPS receiver that receives a radio wave from a positioning satellite; a time counter that performs a time count operation; and a processor , wherein the processor : corrects a time count of the time counter in accordance with time and date information included in the radio wave from the positioning satellite received by the GPS receiver ; acquires a temperature in the timepiece; acquires a voltage of a battery; and controls a receive operation at the GPS receiver in accordance with the temperature and the voltage; characterized in that the processor distinguishes a case where only date and time information is obtained by receiving the radio wave from the positioning satellite by the GPS receiver from a case where both of date and time information and location information are obtained, and controls the receive operation at the GPS receiver in accordance with a case. a GPS receiver that receives a radio wave from a positioning satellite; a time counter that performs a time count operation; and a processor , wherein the processor : corrects a time count of the time counter in accordance with time and date information included in the radio wave from the positioning satellite received by the GPS receiver ; acquires a temperature in the timepiece; acquires a voltage of a battery; and controls a receive operation at the GPS receiver in accordance with the temperature and the voltage; characterized in that the processor distinguishes a case where only date and time information is obtained by receiving the radio wave from the positioning satellite by the GPS receiver from a case where both of date and time information and location information are obtained, and controls the receive operation at the GPS receiver in accordance with a case. corrects a time count of the time counter in accordance with time and date information included in the radio wave from the positioning satellite received by the GPS receiver ; acquires a temperature in the timepiece; acquires a voltage of a battery; and controls a receive operation at the GPS receiver in accordance with the temperature and the voltage; characterized in that the processor distinguishes a case where only date and time information is obtained by receiving the radio wave from the positioning satellite by the GPS receiver from a case where both of date and time information and location information are obtained, and controls the receive operation at the GPS receiver in accordance with a case.
Use of a medium composition containing an Ecklonia cava extract in an amount of 10 to 400 μg/ml for reprogramming adipose-derived mesenchymal stem cells into induced pluripotent stem cells.
A rubber composition for a tire, the rubber composition comprising a diene rubber, silica, and a non-ionic surfactant represented by Formula below, a content of the silica being from 50 to 200 parts by mass per 100 parts by mass of the diene rubber, and a content of the non-ionic surfactant being from 0.1 to 15 mass% with respect to the content of the silica: where, b is from 5 to 45, and a + c is from 55 to 95. a content of the silica being from 50 to 200 parts by mass per 100 parts by mass of the diene rubber, and a content of the non-ionic surfactant being from 0.1 to 15 mass% with respect to the content of the silica: where, b is from 5 to 45, and a + c is from 55 to 95.
Method for operating a thermotechnology system comprising at least two modules (M1...Mn), wherein the modules (M1...Mn) are connected to an energy management system, EMS, bus , wherein the modules (M1...Mn) each have a decoupleable connection to the EMS bus , comprising the steps of: - communicating between the modules (M1...Mn) by means of the EMS bus by means of a first protocol (P1); and - transmitting useful data to at least one of the modules (M1...Mn) by means of the EMS bus by means of a second protocol, wherein the two protocols (P1, P2) are used independently of one another. - communicating between the modules (M1...Mn) by means of the EMS bus by means of a first protocol (P1); and - transmitting useful data to at least one of the modules (M1...Mn) by means of the EMS bus by means of a second protocol, wherein the two protocols (P1, P2) are used independently of one another.
A camera device, comprising: a bracket ; a camera module coupled to the bracket so as to be rotatable about a first axis; a view angle adjustment member comprising a first portion coupled to the bracket and a second portion coupled to the camera module ; and an elastic member disposed on the bracket to contact the first portion of the view angle adjustment member with the bracket , wherein the view angle adjustment member comprises a body , a thread formed in the second portion and an end portion , characterized in a locking portion protruding from the first portion, and wherein the end portion and the locking portion of the view angle adjustment member are spaced apart, wherein the elastic member comprises a first region disposed between the end portion and the locking portion , and a second region being formed by being bent relative to the first region and disposed between the end portion and one surface of the bracket , wherein the bracket comprises a support portion in which the elastic member and the end portion are disposed and supported, and wherein the support portion comprises a first sidewall disposed between the camera module and the first portion of the view angle adjustment member , a second sidewall facing the first sidewall , and a third sidewall and a fourth sidewall connecting the first sidewall and the second sidewall . a bracket ; a camera module coupled to the bracket so as to be rotatable about a first axis; a view angle adjustment member comprising a first portion coupled to the bracket and a second portion coupled to the camera module ; and an elastic member disposed on the bracket to contact the first portion of the view angle adjustment member with the bracket , wherein the view angle adjustment member comprises a body , a thread formed in the second portion and an end portion , characterized in a locking portion protruding from the first portion, and wherein the end portion and the locking portion of the view angle adjustment member are spaced apart, wherein the elastic member comprises a first region disposed between the end portion and the locking portion , and a second region being formed by being bent relative to the first region and disposed between the end portion and one surface of the bracket , wherein the bracket comprises a support portion in which the elastic member and the end portion are disposed and supported, and wherein the support portion comprises a first sidewall disposed between the camera module and the first portion of the view angle adjustment member , a second sidewall facing the first sidewall , and a third sidewall and a fourth sidewall connecting the first sidewall and the second sidewall .
An indicator formulation comprising an indicating composition dispersed in water, wherein the indicating composition comprises (a) an organic Bi(III) compound; (b) a sulfur source; and (c) a carbonate salt; wherein at least one of the organic Bi(III) compound and the sulfur source has solubility in water at 20 °C of less than 5 grams/100 ml. (a) an organic Bi(III) compound; (b) a sulfur source; and (c) a carbonate salt;
A method for operating a bone conduction device comprising an implanted component and an external component , the method comprising the following sequence of method steps: initializing the external component including powering on the device; determining if the external component of the bone conduction device is in an operational position; when the external component is in the operational position, initializing an algorithm to reduce the likelihood of an auditory artifact, wherein the algorithm comprises a plurality of phases, the plurality of phases comprising an initial phase that is executed upon determining that the external component is in the operational position and lasts a first period of time, and an operational phase that is executed after the completion of the initial phase ; applying a first feedback algorithm during the initial phase ; and applying a second feedback algorithm during the operational phase , wherein the second feedback algorithm employs a lower adaptation speed than the first feedback algorithm; wherein the external component is an external sound processor, and wherein determining that the external component is in the operational position comprises one of detecting that the external sound processor is in proximity of an implanted magnet , and detecting that the external sound processor is snapped on to a percutaneous abutment. initializing the external component including powering on the device; determining if the external component of the bone conduction device is in an operational position; when the external component is in the operational position, initializing an algorithm to reduce the likelihood of an auditory artifact, wherein the algorithm comprises a plurality of phases, the plurality of phases comprising an initial phase that is executed upon determining that the external component is in the operational position and lasts a first period of time, and an operational phase that is executed after the completion of the initial phase ; applying a first feedback algorithm during the initial phase ; and applying a second feedback algorithm during the operational phase , wherein the second feedback algorithm employs a lower adaptation speed than the first feedback algorithm; wherein the external component is an external sound processor, and wherein determining that the external component is in the operational position comprises one of detecting that the external sound processor is in proximity of an implanted magnet , and detecting that the external sound processor is snapped on to a percutaneous abutment.