mhurhangee/ep-ind-claims huggingface dataset:
A method for processing a data block in a receiver of a mobile communication system, comprising: receiving a data block having sequence number N; if at least one of data blocks having a sequence number lower than the sequence number N has not been received, storing the received data block having sequence number N in a buffer; starting a timer for the data block having sequence number N; delivering correctly received data blocks stored in the buffer to an upper layer, wherein delivering comprises delivering correctly received data blocks stored in the buffer up to and including the data block with the sequence number N when the timer expires; and characterised by re-starting the timer for a data block having a highest sequence number among blocks that cannot be delivered to the upper layer. receiving a data block having sequence number N; if at least one of data blocks having a sequence number lower than the sequence number N has not been received, storing the received data block having sequence number N in a buffer; starting a timer for the data block having sequence number N; delivering correctly received data blocks stored in the buffer to an upper layer, wherein delivering comprises delivering correctly received data blocks stored in the buffer up to and including the data block with the sequence number N when the timer expires; and
Upright vacuum cleaner comprising a handle, a suction head which is configured to be in contact with a floor to be cleaned, a main body disposed between the handle and the suction head, and a device for separating and for storing waste mounted removably on the main body, characterised in that the main body comprises a first half-shell (3.1) and a second half-shell (3.2) which are assembled to one another and which define an inner connecting conduit, the inner connecting conduit being configured to fluidically connect the suction head to an air inlet of the device for separating and for storing waste, and in that the main body further comprises a seal disposed between the first and second half-shells (3.1, 3.2) so as to seal the inner connecting conduit.
Electrical connection bar intended to exchange electrical energy between electrical equipment on board a motor vehicle and an electrical network of the motor vehicle, the electrical connection bar comprising: - at least one power trace (12, 13, 14, 15) intended to transmit a current between the electrical network of the motor vehicle and the electrical equipment on board the motor vehicle, the at least one power trace (12, 13, 14, 15) being partly overmoulded with electrically insulating material, - a reception area designed to receive a filtering component, - a connection area in which the at least one power trace (12, 13, 14, 15) is intended to be electrically connected to the filtering component so as to filter the electrical energy intended to power the power electronic modules, and wherein the reception area and the connection area are separated by the overmoulding, and wherein the reception area is formed in the overmoulding of the at least one power trace (12, 13, 14, 15), and wherein the overmoulding of the power traces (12, 14) comprises an upper face comprising the connection area, and a lower face comprising the reception area. - at least one power trace (12, 13, 14, 15) intended to transmit a current between the electrical network of the motor vehicle and the electrical equipment on board the motor vehicle, the at least one power trace (12, 13, 14, 15) being partly overmoulded with electrically insulating material, - a reception area designed to receive a filtering component, - a connection area in which the at least one power trace (12, 13, 14, 15) is intended to be electrically connected to the filtering component so as to filter the electrical energy intended to power the power electronic modules, and wherein the reception area and the connection area are separated by the overmoulding, and wherein the reception area is formed in the overmoulding of the at least one power trace (12, 13, 14, 15), and wherein the overmoulding of the power traces (12, 14) comprises an upper face comprising the connection area, and a lower face comprising the reception area.
An air purifier comprising: a body; a suction unit, arranged at a lower portion of the body, having a suction port to intake air; a discharge unit, arranged at an upper portion of the body, having a discharge port to output the intake air; a blowing unit arranged within the body, to blow air from the suction unit to the discharge unit; and a filter unit arranged within the body, to purify the blown air, wherein at least one of the suction port and the discharge port has a surface that is inclined from a central axis of the body, wherein the filter unit has a filter surface, through which air passes, the filter surface being inclined from the central axis, wherein the suction unit is provided with a suction grill disposed at the suction port, wherein a surface defined by the suction grill is inclined from the central axis, wherein the filter unit is disposed on the suction grill such that the filter surface is inclined from the central axis, characterized in that: at least a portion of the body has a cylindrical shape; and a periphery of the filter surface has an ovoid shape in which a shorter axis does not pass through the center of a longer axis such that a center of gravity of filter unit is positioned at a lower portion of the filter unit. a body; a suction unit, arranged at a lower portion of the body, having a suction port to intake air; a discharge unit, arranged at an upper portion of the body, having a discharge port to output the intake air; a blowing unit arranged within the body, to blow air from the suction unit to the discharge unit; and a filter unit arranged within the body, to purify the blown air, wherein at least one of the suction port and the discharge port has a surface that is inclined from a central axis of the body, wherein the filter unit has a filter surface, through which air passes, the filter surface being inclined from the central axis, wherein the suction unit is provided with a suction grill disposed at the suction port, wherein a surface defined by the suction grill is inclined from the central axis, wherein the filter unit is disposed on the suction grill such that the filter surface is inclined from the central axis, characterized in that: at least a portion of the body has a cylindrical shape; and a periphery of the filter surface has an ovoid shape in which a shorter axis does not pass through the center of a longer axis such that a center of gravity of filter unit is positioned at a lower portion of the filter unit. at least a portion of the body has a cylindrical shape; and a periphery of the filter surface has an ovoid shape in which a shorter axis does not pass through the center of a longer axis such that a center of gravity of filter unit is positioned at a lower portion of the filter unit.
An in situ method of hybridizing nucleic acid sequences comprising: - denaturing a first double stranded nucleic acid sequence in a first aqueous composition comprising at least one polar aprotic solvent in a concentration of about 1% to 30% (v/v), or 5% to 10% (v/v), or 10% to 20% (v/v), or 20% to 30% (v/v), and wherein said polar aprotic solvent has lactone, sulfone, nitrile, sulfite, and/or carbonate functionality; - denaturing a second double stranded nucleic acid sequence in a second aqueous composition comprising at least one denaturing agent in an amount effective to denature double-stranded nucleotide sequence, and - combining the first and the second nucleic acid sequence in an aqueous composition comprising at least one polar aprotic solvent in a concentration of about 1% to 30% (v/v), or 5% to 10% (v/v), or 10% to 20% (v/v), or 20% to 30% (v/v), and wherein said polar aprotic solvent has lactone, sulfone, nitrile, sulfite, and/or carbonate functionality, for less than 8 hours to hybridize the first and second nucleic acid sequences. - denaturing a first double stranded nucleic acid sequence in a first aqueous composition comprising at least one polar aprotic solvent in a concentration of about 1% to 30% (v/v), or 5% to 10% (v/v), or 10% to 20% (v/v), or 20% to 30% (v/v), and wherein said polar aprotic solvent has lactone, sulfone, nitrile, sulfite, and/or carbonate functionality; - denaturing a second double stranded nucleic acid sequence in a second aqueous composition comprising at least one denaturing agent in an amount effective to denature double-stranded nucleotide sequence, and - combining the first and the second nucleic acid sequence in an aqueous composition comprising at least one polar aprotic solvent in a concentration of about 1% to 30% (v/v), or 5% to 10% (v/v), or 10% to 20% (v/v), or 20% to 30% (v/v), and wherein said polar aprotic solvent has lactone, sulfone, nitrile, sulfite, and/or carbonate functionality, for less than 8 hours to hybridize the first and second nucleic acid sequences.
A fusion protein comprising a zinc finger protein DNA-binding domain that specifically binds to a target site in a BAX gene, wherein the DNA-binding domain comprises four or five zinc finger recognition regions, ordered F1 to F4 for proteins with four zinc finger domains, and F1 to F5 for proteins with five zinc finger domains from N-terminus to C-terminus, and further wherein the zinc finger protein DNA-binding domain comprises the following amino acid sequences in the zinc finger recognition regions: (i) F1: RSDHLST (SEQ ID NO:1); F2: DRSHLAR (SEQ ID NO:2); F3: QSSHLTR (SEQ ID NO:3); and F4: RSDNLRE (SEQ ID NO:4); or (ii) F1: RSANLSV (SEQ ID NO:5); F2: DRANLSR (SEQ ID NO:6); F3: NRTDLIR (SEQ ID NO:7); and F4: TSSNLSR (SEQ ID NO:8); or (iii) F1: DRSDLSR (SEQ ID NO:45); F2: NRTDLIR (SEQ ID NO:7); F3: TSSNLSR (SEQ ID NO:8); F4: RSDTLSQ (SEQ ID NO:46); and F5: DRSARTR (SEQ ID NO:47); or (iv) F1: RSDALSV (SEQ ID NO:48); F2: DSSHRTR (SEQ ID NO:49); F3: QNAHRKT (SEQ ID NO:50); F4: RSDHLST (SEQ ID NO:1); and F5: TSGHLSR (SEQ ID NO:51), and wherein the fusion protein further comprises at least one cleavage domain or at least one cleavage half-domain. (i) F1: RSDHLST (SEQ ID NO:1); F2: DRSHLAR (SEQ ID NO:2); F3: QSSHLTR (SEQ ID NO:3); and F4: RSDNLRE (SEQ ID NO:4); or F1: RSDHLST (SEQ ID NO:1); F2: DRSHLAR (SEQ ID NO:2); F3: QSSHLTR (SEQ ID NO:3); and F4: RSDNLRE (SEQ ID NO:4); or (ii) F1: RSANLSV (SEQ ID NO:5); F2: DRANLSR (SEQ ID NO:6); F3: NRTDLIR (SEQ ID NO:7); and F4: TSSNLSR (SEQ ID NO:8); or F1: RSANLSV (SEQ ID NO:5); F2: DRANLSR (SEQ ID NO:6); F3: NRTDLIR (SEQ ID NO:7); and F4: TSSNLSR (SEQ ID NO:8); or (iii) F1: DRSDLSR (SEQ ID NO:45); F2: NRTDLIR (SEQ ID NO:7); F3: TSSNLSR (SEQ ID NO:8); F4: RSDTLSQ (SEQ ID NO:46); and F5: DRSARTR (SEQ ID NO:47); or F1: DRSDLSR (SEQ ID NO:45); F2: NRTDLIR (SEQ ID NO:7); F3: TSSNLSR (SEQ ID NO:8); F4: RSDTLSQ (SEQ ID NO:46); and F5: DRSARTR (SEQ ID NO:47); or (iv) F1: RSDALSV (SEQ ID NO:48); F2: DSSHRTR (SEQ ID NO:49); F3: QNAHRKT (SEQ ID NO:50); F4: RSDHLST (SEQ ID NO:1); and F5: TSGHLSR (SEQ ID NO:51), F1: RSDALSV (SEQ ID NO:48); F2: DSSHRTR (SEQ ID NO:49); F3: QNAHRKT (SEQ ID NO:50); F4: RSDHLST (SEQ ID NO:1); and F5: TSGHLSR (SEQ ID NO:51),
A sun care composition, comprising: aspherical hollow silica particles having a long axis and a short axis, wherein the average short axis is greater than 400 nm; and at least one sunscreen active. aspherical hollow silica particles having a long axis and a short axis, wherein the average short axis is greater than 400 nm; and at least one sunscreen active.
Detector with digital output, dedicated to operational safety applications, said detector comprising: - a sensor member, - a detection stage connected to the sensor member and intended to generate a detection signal representative, depending on the position of a target relative to the detector, of a safe detection state or of an unsafe detection state, - a processing stage receiving the detection signal and intended to generate a first output signal (S1 OUT) in the safe detection state or a second output signal (S2 OUT), different from the first output signal (S1 OUT), in the unsafe detection state, - the processing stage being arranged to deliver the first output signal (S1 OUT) in an astable form in the safe detection state, characterized in that the second output signal (S2 OUT) is an astable signal exhibiting a duty cycle and/or a frequency different from that of the first astable output signal (S1 OUT). - a sensor member, - a detection stage connected to the sensor member and intended to generate a detection signal representative, depending on the position of a target relative to the detector, of a safe detection state or of an unsafe detection state, - a processing stage receiving the detection signal and intended to generate a first output signal (S1 OUT) in the safe detection state or a second output signal (S2 OUT), different from the first output signal (S1 OUT), in the unsafe detection state, - the processing stage being arranged to deliver the first output signal (S1 OUT) in an astable form in the safe detection state,
Vehicle with a rotatably mounted sensor designed to produce an image of an environment of the vehicle, a control device designed to process data received from the sensor and also designed to move the vehicle autonomously, to calculate the image of the environment on the basis of environment data obtained from the sensor and/or to move the vehicle autonomously in dependence on the image produced, a ventilation device, which is rotationally coupled to the sensor in such a way that a rotatably mounted impeller rotates the sensor about an axis of rotation, characterized in that the ventilation device is designed for cooling the control device by means of the rotatably mounted impeller, the impeller removing waste heat attributable to computing power of the control device necessary for such control and/or computing tasks that are required in order to move the vehicle autonomously, calculate the image of the environment on the basis of the environment data obtained from the sensor and/or to move the vehicle autonomously in dependence on the image produced. a rotatably mounted sensor designed to produce an image of an environment of the vehicle, a control device designed to process data received from the sensor and also designed to move the vehicle autonomously, to calculate the image of the environment on the basis of environment data obtained from the sensor and/or to move the vehicle autonomously in dependence on the image produced, a ventilation device, which is rotationally coupled to the sensor in such a way that a rotatably mounted impeller rotates the sensor about an axis of rotation, characterized in that the ventilation device is designed for cooling the control device by means of the rotatably mounted impeller, the impeller removing waste heat attributable to computing power of the control device necessary for such control and/or computing tasks that are required in order to move the vehicle autonomously, calculate the image of the environment on the basis of the environment data obtained from the sensor and/or to move the vehicle autonomously in dependence on the image produced.
A prosthetic valve comprising: a leaflet frame having a generally tubular shape, the leaflet frame defining a plurality of leaflet windows each defining a leaflet attachment zone; and a film defining at least one leaflet extending from each of the leaflet windows, wherein each leaflet attachment zone has substantially the shape of an isosceles trapezoid having two leaflet sides, a substantially flat leaflet base and a free edge opposite the leaflet base, wherein the two leaflet sides of the leaflet attachment zone diverge from the leaflet base. a leaflet frame having a generally tubular shape, the leaflet frame defining a plurality of leaflet windows each defining a leaflet attachment zone; and a film defining at least one leaflet extending from each of the leaflet windows, wherein each leaflet attachment zone has substantially the shape of an isosceles trapezoid having two leaflet sides, a substantially flat leaflet base and a free edge opposite the leaflet base, wherein the two leaflet sides of the leaflet attachment zone diverge from the leaflet base.
A vacuum cleaner comprising: a cleaner body including a moving device for moving, the moving device including a plurality of wheels (11, 12) and a plurality of motors (15, 16) for rotating the plurality of wheels (11, 12); a suction device connected to the cleaner body to suction dusts and air and guide the suctioned dusts and air to the cleaner body, the suction device comprising a handle; a detection device for detecting a distance between the handle and the cleaner body; and a controller determining whether movement of the cleaner body is necessary on the basis of the distance between the cleaner body and the handle, the controller controlling the moving device when the movement of the cleaner body is necessary, wherein the controller is configured to control the moving device to allow the cleaner body to avoid an obstacle when it is determined that an operation for avoiding the obstacle is necessary while the moving device operates, characterized in that the vacuum cleaner further comprises a plurality of current detectors (17, 18) for detecting current inputted into each of the plurality of motors (15, 16), wherein the controller is configured to determine whether the operation for avoiding the obstacle is necessary on the basis of the current detected by at least one current detector of the plurality of current detectors (17, 18). a cleaner body including a moving device for moving, the moving device including a plurality of wheels (11, 12) and a plurality of motors (15, 16) for rotating the plurality of wheels (11, 12); a suction device connected to the cleaner body to suction dusts and air and guide the suctioned dusts and air to the cleaner body, the suction device comprising a handle; a detection device for detecting a distance between the handle and the cleaner body; and a controller determining whether movement of the cleaner body is necessary on the basis of the distance between the cleaner body and the handle, the controller controlling the moving device when the movement of the cleaner body is necessary, wherein the controller is configured to control the moving device to allow the cleaner body to avoid an obstacle when it is determined that an operation for avoiding the obstacle is necessary while the moving device operates, characterized in that the vacuum cleaner further comprises a plurality of current detectors (17, 18) for detecting current inputted into each of the plurality of motors (15, 16), wherein the controller is configured to determine whether the operation for avoiding the obstacle is necessary on the basis of the current detected by at least one current detector of the plurality of current detectors (17, 18).
A revolving apparatus for a construction machine including a tubular housing (12, 12') on an upper end side of which a revolving motor is provided and whose lower end side is mounted on an upper revolving structure; a planetary gear reduction mechanism (16, 23, 28) provided in said housing (12, 12') to reduce the speed of rotation of said revolving motor; an output shaft which extends in the upper and lower direction within said housing (12, 12') and outputs the rotation whose speed has been reduced by said planetary gear reduction mechanism (16, 23, 28); and a pinion which is provided on a lower end side of said output shaft and meshes with an inner race of a revolving ring provided between said upper revolving structure and a lower traveling structure; wherein said planetary gear reduction mechanism being constituted by a sun gear, a plurality of planetary gears which mesh with said sun gear and internal teeth provided on an inner side of said housing (12, 12') and revolve around said sun gear while rotating, and a carrier which has a plurality of support shafts for supporting said respective planetary gears, said planetary gears being respectively provided rotatably on said support shafts by means of planetary gear bearings, lubricating oil for lubricating said planetary gear reduction mechanism being held in said housing (12, 12'), wherein a lubricating oil guide member (38, 38', 51, 51') for covering meshing portions of said sun gear and said planetary gears and for receiving the lubricating oil scattered from the meshing portions and guiding the same to said planetary gear bearings is provided at an upper position of said planetary gear reduction mechanism, said revolving apparatus for a construction machine characterized in that: said lubricating oil guide member (38, 38', 51, 51') is constituted by; a bottom plate portion (39, 52) which is mounted on an upper end surface of each of said support shafts of said carrier; a covering plate portion (40, 53) which rises upwardly from said bottom plate portion (39, 52), extends toward said rotational shaft of said revolving motor, and covers the meshing portions of said sun gear and said planetary gears; and lubricating oil passages (42, 55, 55') which are provided in said bottom plate portion (39, 52) and guide to said planetary gear bearings said lubricating oil which flowed down to said bottom plate portion (39, 52) side along said covering plate portion (40, 53). said lubricating oil guide member (38, 38', 51, 51') is constituted by; a bottom plate portion (39, 52) which is mounted on an upper end surface of each of said support shafts of said carrier; a covering plate portion (40, 53) which rises upwardly from said bottom plate portion (39, 52), extends toward said rotational shaft of said revolving motor, and covers the meshing portions of said sun gear and said planetary gears; and lubricating oil passages (42, 55, 55') which are provided in said bottom plate portion (39, 52) and guide to said planetary gear bearings said lubricating oil which flowed down to said bottom plate portion (39, 52) side along said covering plate portion (40, 53).
A pluggable, modular electronic processing component comprising: a housing having a set of conductive terminals that extend therefrom, where each terminal of the set of conductive terminals is sized and spaced to fit into a corresponding terminal socket of a distribution module; and programmable circuitry contained within the housing, wherein the programmable circuitry comprises: a processor; a bus interface communicably coupled to the processor, the bus interface operative to interface the pluggable, modular electronic processing component to a bus connected to via the distribution module, wherein the bus interface is coupled to a first subset of the conductive terminals; and a configurable input-output coupled to a second subset of the conductive terminals. a housing having a set of conductive terminals that extend therefrom, where each terminal of the set of conductive terminals is sized and spaced to fit into a corresponding terminal socket of a distribution module; and programmable circuitry contained within the housing, wherein the programmable circuitry comprises: a processor; a bus interface communicably coupled to the processor, the bus interface operative to interface the pluggable, modular electronic processing component to a bus connected to via the distribution module, wherein the bus interface is coupled to a first subset of the conductive terminals; and a configurable input-output coupled to a second subset of the conductive terminals. a processor; a bus interface communicably coupled to the processor, the bus interface operative to interface the pluggable, modular electronic processing component to a bus connected to via the distribution module, wherein the bus interface is coupled to a first subset of the conductive terminals; and a configurable input-output coupled to a second subset of the conductive terminals.