mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a cabinet having a storage chamber; a main door rotatably coupled to the cabinet and configured to open and close the storage chamber, and including a frame assembly with an opening ; a thermal insulator foamed in a foaming space that is defined by the frame assembly ; and a sub door rotatably coupled to the main door and configured to open and close the opening , wherein the frame assembly includes: a first injection hole (B4) configured for the injection of foaming agent into the foaming space and positioned on a first surface of the frame assembly ; a second injection hole (B5) configured for the injection of foaming agent into the foaming space and spaced apart from the first injection hole (B4) on the first surface of the frame assembly; a gasket installed on a second surface of the frame assembly , vent holes formed on the second surface of the frame assembly and spaced apart from the first and second injection holes (B4, B5), wherein the first surface is provided at an upper portion or a lower portion of the frame assembly , and the second surface is provided at a rear portion of the frame assembly . a cabinet having a storage chamber; a main door rotatably coupled to the cabinet and configured to open and close the storage chamber, and including a frame assembly with an opening ; a thermal insulator foamed in a foaming space that is defined by the frame assembly ; and a sub door rotatably coupled to the main door and configured to open and close the opening , wherein the frame assembly includes: a first injection hole (B4) configured for the injection of foaming agent into the foaming space and positioned on a first surface of the frame assembly ; a second injection hole (B5) configured for the injection of foaming agent into the foaming space and spaced apart from the first injection hole (B4) on the first surface of the frame assembly; a gasket installed on a second surface of the frame assembly , vent holes formed on the second surface of the frame assembly and spaced apart from the first and second injection holes (B4, B5), wherein the first surface is provided at an upper portion or a lower portion of the frame assembly , and the second surface is provided at a rear portion of the frame assembly . a first injection hole (B4) configured for the injection of foaming agent into the foaming space and positioned on a first surface of the frame assembly ; a second injection hole (B5) configured for the injection of foaming agent into the foaming space and spaced apart from the first injection hole (B4) on the first surface of the frame assembly; a gasket installed on a second surface of the frame assembly , vent holes formed on the second surface of the frame assembly and spaced apart from the first and second injection holes (B4, B5), wherein the first surface is provided at an upper portion or a lower portion of the frame assembly , and the second surface is provided at a rear portion of the frame assembly .
A method for applying at least one insert in a panel or in a similar element, said method comprising the following steps: providing a panel in which at least one lateral edge is defined; providing a first tool ; forming, by means of said first tool , at least a first cavity extending along a first predetermined direction on a portion of said at least a first lateral edge; providing at least a first insert ; providing a pressing device ; inserting said at least a first insert in said at least a first cavity moving said pressing device along said at least a first lateral edge from a first position to a second position in such a way that said pressing device pushes said at least a first insert inside said at least a first cavity progressively along said first predetermined direction; providing a second tool; forming, by means of said second tool, at least a second cavity extending along a second predetermined direction in a portion of a second lateral edge of said panel , said at least a second cavity being of a different shape to said at least a first cavity ; providing a second insert of a shape different to said at least a first insert ; and inserting said second insert in said at least a second cavity moving said pressing device along said second lateral edge from a third position to a fourth position in such a way that said pressing device pushes said second insert inside said at least a second cavity progressively along said second predetermined direction. providing a panel in which at least one lateral edge is defined; providing a first tool ; forming, by means of said first tool , at least a first cavity extending along a first predetermined direction on a portion of said at least a first lateral edge; providing at least a first insert ; providing a pressing device ; inserting said at least a first insert in said at least a first cavity moving said pressing device along said at least a first lateral edge from a first position to a second position in such a way that said pressing device pushes said at least a first insert inside said at least a first cavity progressively along said first predetermined direction; providing a second tool; forming, by means of said second tool, at least a second cavity extending along a second predetermined direction in a portion of a second lateral edge of said panel , said at least a second cavity being of a different shape to said at least a first cavity ; providing a second insert of a shape different to said at least a first insert ; and inserting said second insert in said at least a second cavity moving said pressing device along said second lateral edge from a third position to a fourth position in such a way that said pressing device pushes said second insert inside said at least a second cavity progressively along said second predetermined direction.
Method of determining the general fitness of a subject comprising the following method steps: Providing the qualitative temporal developing of the heart rate at a constant physical stress of a subject as a mathematical function with at least one parameter depending on a subject, Measuring the heart rate of the subject at continuous physical stress during a time interval, wherein the subject undergoes a constant physical stress during this short time interval of less than 50 seconds and the heart rate of the subject is continuously measured, Determining, with a computer device, the parameter or parameters of the mathematical function from the measurement values, and characterized in : Determining, with the computer device, the maximum heart rate from the function and the measurement values by a numerical method, namely by extrapolation, and/or determining, with the computer device, the initial heart rate without physical stress from the function and the measurement values by a numerical method, namely by extrapolation. Providing the qualitative temporal developing of the heart rate at a constant physical stress of a subject as a mathematical function with at least one parameter depending on a subject, Measuring the heart rate of the subject at continuous physical stress during a time interval, wherein the subject undergoes a constant physical stress during this short time interval of less than 50 seconds and the heart rate of the subject is continuously measured, Determining, with a computer device, the parameter or parameters of the mathematical function from the measurement values, and characterized in : Determining, with the computer device, the maximum heart rate from the function and the measurement values by a numerical method, namely by extrapolation, and/or determining, with the computer device, the initial heart rate without physical stress from the function and the measurement values by a numerical method, namely by extrapolation.
A water treatment system configured for use with a pool, the water treatment system comprising: an electrolytic chlorine generator; an ozone generator ; and a treatment assembly including a tube-shaped tank, the tank comprising: a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure with a suction inlet configured to receive ozone gas from the ozone generator ; a fluid inlet in communication with the first and second fluid passageways ; and a fluid outlet in communication with the first and second fluid passageways . an electrolytic chlorine generator; an ozone generator ; and a treatment assembly including a tube-shaped tank, the tank comprising: a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure with a suction inlet configured to receive ozone gas from the ozone generator ; a fluid inlet in communication with the first and second fluid passageways ; and a fluid outlet in communication with the first and second fluid passageways . a first fluid passageway including the electrolytic chlorine generator; a second fluid passageway including a venturi structure with a suction inlet configured to receive ozone gas from the ozone generator ; a fluid inlet in communication with the first and second fluid passageways ; and a fluid outlet in communication with the first and second fluid passageways .
A method for preparing a 2-arylmalonic acid derivative of formula , comprising: subjecting a compound to an isomerization reaction to obtain an intermediate , as shown in the following reaction scheme: and subjecting the intermediate to a halogenation reaction in the presence of a halogenating agent and a dehydrohalogenation-aromatization reaction to obtain the 2-arylmalonic acid derivative , as shown in the following reaction scheme: wherein R 1 , R 2 , R 3 , R 4 and R 5 are each independently hydrogen, a C 1 -C 10 alkyl group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; Y 1 and Y 2 are each independently cyano or -COR 6 where R 6 is hydrogen, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a C 6 -C 12 aryloxy group, amino, a C 1 -C 10 alkylamino group, a C 6 -C 12 arylamino group, a di-(C 1 -C 10 alkyl)-amino group, a (C 1 -C 10 alkyl)-(C 6 -C 12 aryl)-amino group, a di-(C 6 -C 12 aryl) amino group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur. subjecting a compound to an isomerization reaction to obtain an intermediate , as shown in the following reaction scheme: and subjecting the intermediate to a halogenation reaction in the presence of a halogenating agent and a dehydrohalogenation-aromatization reaction to obtain the 2-arylmalonic acid derivative , as shown in the following reaction scheme: wherein R 1 , R 2 , R 3 , R 4 and R 5 are each independently hydrogen, a C 1 -C 10 alkyl group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur; Y 1 and Y 2 are each independently cyano or -COR 6 where R 6 is hydrogen, a C 1 -C 10 alkyl group, a C 1 -C 10 alkoxy group, a C 6 -C 12 aryloxy group, amino, a C 1 -C 10 alkylamino group, a C 6 -C 12 arylamino group, a di-(C 1 -C 10 alkyl)-amino group, a (C 1 -C 10 alkyl)-(C 6 -C 12 aryl)-amino group, a di-(C 6 -C 12 aryl) amino group, a C 6 -C 12 aryl group or a heteroaryl group containing one or two atoms selected from nitrogen, oxygen and sulfur.
A method for fetal or maternal monitoring, comprising the steps of electrically connecting a medical cable monitor with a fetal monitoring apparatus ; electrically connecting a first end of a medical cable to an input interface of the medical cable monitor and a second end of the medical cable to a cable diagnostic interface of the medical cable monitor ; activating the medical cable monitor in one mode of operation whereby signal processing circuitry of the medical cable monitor tests functionality of the medical cable connected between the input interface and the cable diagnostic interface ; electrically connecting the second end of the medical cable to a sensor after removing the second end of the medical cable from the cable diagnostic interface of the medical cable monitor ; sensing fetal parameter with the sensor and sending a fetal monitoring signal associated with the fetal parameter to the input interface of the medical cable monitor ; and activating the medical cable monitor in another mode of operation whereby the signal processing circuitry passes the fetal monitoring signal to the fetal monitoring apparatus .
An aircraft comprising: a fuselage comprising: a wiring racetrack comprising: a first wire group comprising one or more wires of exclusively a first category; a second wire group comprising one or more wires of exclusively a second category distinct from the first category; a wiring pallet comprising a first track and a second track , wherein the one or more wires of the first category are contained exclusively within the first track, and wherein the one or more wires of the second category are contained exclusively within the second track; a first connector (310A; 314A) electrically coupled to each of the wires of the first wire group within or at the end of the first track ; and a second connector (310B; 314B) electrically coupled to each of the wires of the second wire group within or at the end of the second track ; and secondary wiring comprising one or more connectors electrically coupled to the first connector, the second connector, or to both the first connector and the second connector; wherein the first wire group is electrically coupled to a first aircraft system and the second wire group is electrically coupled to a second aircraft system. a wiring racetrack comprising: a first wire group comprising one or more wires of exclusively a first category; a second wire group comprising one or more wires of exclusively a second category distinct from the first category; a wiring pallet comprising a first track and a second track , wherein the one or more wires of the first category are contained exclusively within the first track, and wherein the one or more wires of the second category are contained exclusively within the second track; a first connector (310A; 314A) electrically coupled to each of the wires of the first wire group within or at the end of the first track ; and a second connector (310B; 314B) electrically coupled to each of the wires of the second wire group within or at the end of the second track ; and a first wire group comprising one or more wires of exclusively a first category; a second wire group comprising one or more wires of exclusively a second category distinct from the first category; a wiring pallet comprising a first track and a second track , wherein the one or more wires of the first category are contained exclusively within the first track, and wherein the one or more wires of the second category are contained exclusively within the second track; a first connector (310A; 314A) electrically coupled to each of the wires of the first wire group within or at the end of the first track ; and a second connector (310B; 314B) electrically coupled to each of the wires of the second wire group within or at the end of the second track ; and secondary wiring comprising one or more connectors electrically coupled to the first connector, the second connector, or to both the first connector and the second connector; wherein the first wire group is electrically coupled to a first aircraft system and the second wire group is electrically coupled to a second aircraft system.
An automatic working system, the automatic working system comprises a self-moving device , the self-moving device moving and working in a working area, comprising: an image detection module , detecting an environment around the self-moving device to generate an environmental image; a first recognition module , recognizing a specific object in the image based on the environmental image to generate a first recognition signal; a first communication module , selectively sending the environmental image and/or the first recognition signal to the server and receiving a second recognition signal corresponding to the environmental image; and a control module , controlling an action of the self-moving device based on the first recognition signal and/or the second recognition signal, wherein when the control module determines that the first recognition signal does not meet a preset condition, the control module controls the first communication module to send the environmental image to the server and receive the second recognition signal, wherein the preset condition comprises that the first recognition signal is generated within a first preset time. an image detection module , detecting an environment around the self-moving device to generate an environmental image; a first recognition module , recognizing a specific object in the image based on the environmental image to generate a first recognition signal; a first communication module , selectively sending the environmental image and/or the first recognition signal to the server and receiving a second recognition signal corresponding to the environmental image; and a control module , controlling an action of the self-moving device based on the first recognition signal and/or the second recognition signal, wherein when the control module determines that the first recognition signal does not meet a preset condition, the control module controls the first communication module to send the environmental image to the server and receive the second recognition signal, wherein the preset condition comprises that the first recognition signal is generated within a first preset time.
A composition for use in a method of treating an ischemic disease to modulate expression of a target transcriptional product in an ischemic site of a subject, comprising a nucleic acid complex formed by annealing together a first nucleic acid strand comprising an antisense oligonucleotide region with respect to the target transcriptional product, and a lipid-conjugated second nucleic acid strand comprising a complementary region that is complementary to at least part of the first nucleic acid strand.
A scroll member for a scroll compressor , comprising: a base member ; and a wrap member formed on a major surface of the base member ; wherein the wrap member includes a modified portion disposed at a tip portion of the wrap member , the modified portion including a base , a step , and a scallop , the base extending a first distance (L1) from the major surface , the step extending a second distance (L2) from the base , the scallop extending a third distance (L3) from the step , the scallop being located at a wrap surface of the wrap member , the wrap surface being disposed away from the major surface relative to the step , and wherein the third distance (L3) increases when moving along the wrap surface from a first point (A) of the tip portion to a second point (B) of the tip portion disposed at an end of the wrap member . a base member ; and a wrap member formed on a major surface of the base member ; wherein the wrap member includes a modified portion disposed at a tip portion of the wrap member , the modified portion including a base , a step , and a scallop , the base extending a first distance (L1) from the major surface , the step extending a second distance (L2) from the base , the scallop extending a third distance (L3) from the step , the scallop being located at a wrap surface of the wrap member , the wrap surface being disposed away from the major surface relative to the step , and wherein the third distance (L3) increases when moving along the wrap surface from a first point (A) of the tip portion to a second point (B) of the tip portion disposed at an end of the wrap member .
A turret intended to be mounted on an armored vehicle, comprising a barrel system, covering the range of medium and large calibers, having a barrel liner and a tube for protection against impacts and vibrations, connected to the liner of the barrel at the junction with the mask of the turret and comprising a rigid and interchangeable interface system to attach to the turret a piece of functional equipment comprising at least an aiming system , the interface system being fastened on the tube for protection against impacts and vibrations such that the interface system is placed in a plane perpendicular to the longitudinal axis of the barrel system , said turret being characterized in that the interface system comprises, in the following predefined order: - an essentially semi-circular or semi-cylindrical enclosure serving as a support surrounding said tube for protection against impacts and vibrations, - a base attached to said enclosure , - a plate over said base , - a support fastened perpendicular to said plate . - an essentially semi-circular or semi-cylindrical enclosure serving as a support surrounding said tube for protection against impacts and vibrations, - a base attached to said enclosure , - a plate over said base , - a support fastened perpendicular to said plate .
Portable parking assistance system , which is suitable for being set up and dismantled at a plurality of different locations and which is designed, when set up at a particular location, to control a number of vehicles within a predetermined region of the particular location, having a number of sensors (102A - 102G) which can be arranged in the predetermined region , wherein each of the sensors (102A - 102G) is designed to detect vehicles located in a respective specific detection range (103A - 103G) of the predetermined region and to wirelessly transmit a corresponding sensor signal (SIG), and having a control device , which is designed to receive the sensor signals (SIG) from the sensors (102A - 102G), to determine a respective position of the vehicles on the basis of the received sensor signals (SIG), and control each vehicle on the basis of the determined positions of the vehicles and a specified digital map of the predetermined region . a number of sensors (102A - 102G) which can be arranged in the predetermined region , wherein each of the sensors (102A - 102G) is designed to detect vehicles located in a respective specific detection range (103A - 103G) of the predetermined region and to wirelessly transmit a corresponding sensor signal (SIG), and having a control device , which is designed to receive the sensor signals (SIG) from the sensors (102A - 102G), to determine a respective position of the vehicles on the basis of the received sensor signals (SIG), and control each vehicle on the basis of the determined positions of the vehicles and a specified digital map of the predetermined region .