mhurhangee/ep-ind-claims huggingface dataset:
A peptide consisting of 4 linked epitopes, wherein the 4 epitope peptides are selected from the group consisting of CTL epitope peptides: the peptide as shown in SEQ ID NO: 1; the peptide as shown in SEQ ID NO: 2; the peptide as shown in SEQ ID NO: 4; the peptide as shown in SEQ ID NO: 5; the peptide as shown in SEQ ID NO: 6; the peptide as shown in SEQ ID NO: 7; the peptide as shown in SEQ ID NO: 8; the peptide as shown in SEQ ID NO: 9; the peptide as shown in SEQ ID NO: 10; the peptide as shown in SEQ ID NO: 13; the peptide as shown in SEQ ID NO: 15; the peptide as shown in SEQ ID NO: 17; and the peptide as shown in SEQ ID NO: 18, linked via linkers, the peptide consisting of 4 linked epitopes optionally comprise other peptide sequences consisting of hydrophilic amino acids, and the peptide consisting of 4 linked epitopes has one or more features selected from the features to below: the peptide comprises 3 CTL epitope peptides selected from among PEP1, PEP7, PEP8, and PEP13, and wherein PEP2 is disposed at the C terminus of the peptide, except for the peptide comprising PEP7 and PEP8 at the N terminus successively disposed in such order from the N terminus via a linker; the peptide comprises PEP4 at the C terminus; the peptide comprises 3 CTL epitope peptides selected from among PEP1, PEP13, PEP15, PEP17, and PEP18, and wherein PEP10 is disposed at the C terminus of the peptide; the peptide comprises 2 CTL epitope peptides, PEP1 and PEP7, and wherein PEP6 and PEP5 are successively disposed at the C terminus in such order from the N terminus via a linker; and the peptide comprises 3 CTL epitope peptides, PEP5, PEP6, and PEP18, and wherein PEP9 is disposed at the C terminus of the peptide. the peptide comprises 3 CTL epitope peptides selected from among PEP1, PEP7, PEP8, and PEP13, and wherein PEP2 is disposed at the C terminus of the peptide, except for the peptide comprising PEP7 and PEP8 at the N terminus successively disposed in such order from the N terminus via a linker; the peptide comprises PEP4 at the C terminus; the peptide comprises 3 CTL epitope peptides selected from among PEP1, PEP13, PEP15, PEP17, and PEP18, and wherein PEP10 is disposed at the C terminus of the peptide; the peptide comprises 2 CTL epitope peptides, PEP1 and PEP7, and wherein PEP6 and PEP5 are successively disposed at the C terminus in such order from the N terminus via a linker; and the peptide comprises 3 CTL epitope peptides, PEP5, PEP6, and PEP18, and wherein PEP9 is disposed at the C terminus of the peptide.
A transport bag for a conveyor system for receiving conveying good with - a support wall which has a front wall, a rear wall, side walls and a bottom wall, and - a loading frame which is connected to a support wall and has an upper feeding opening of the support wall for arranging the front wall spaced apart from the rear wall, wherein the transport bag has a roller chassis, and wherein the roller chassis comprises only two rollers in an upper region, on which the roller chassis is supportable in a swinging manner in a transport rail, wherein, above the rollers, the roller chassis has an upper coupling for transmission of a drive force by a conveying element, and wherein the loading frame is attached to the roller chassis, wherein the roller chassis consists of at least one base body and a holding plate for the loading frame, and wherein the base body and the holding plate are connected to one another with the aid of a technical joint, wherein the technical joint is formed by way of the joint socket in the base body and a joint element of the holding plate, characterized in that the technical joint includes a rotational axle and a swiveling axle, the technical joint not having any swiveling axle along a plane through the axle of the rollers and the rotational axle, so that, in the case of swinging of the roller chassis about the axle of the rollers, the base body and the holding plate act substantially as if connected fixedly, and a maximum possible torque about the axle of the rollers is generated by dead weight and length of the roller chassis. - a support wall which has a front wall, a rear wall, side walls and a bottom wall, and - a loading frame which is connected to a support wall and has an upper feeding opening of the support wall for arranging the front wall spaced apart from the rear wall, wherein the transport bag has a roller chassis, and wherein the roller chassis comprises only two rollers in an upper region, on which the roller chassis is supportable in a swinging manner in a transport rail, wherein, above the rollers, the roller chassis has an upper coupling for transmission of a drive force by a conveying element, and wherein the loading frame is attached to the roller chassis, wherein the roller chassis consists of at least one base body and a holding plate for the loading frame, and wherein the base body and the holding plate are connected to one another with the aid of a technical joint, wherein the technical joint is formed by way of the joint socket in the base body and a joint element of the holding plate, characterized in that the technical joint includes a rotational axle and a swiveling axle, the technical joint not having any swiveling axle along a plane through the axle of the rollers and the rotational axle, so that, in the case of swinging of the roller chassis about the axle of the rollers, the base body and the holding plate act substantially as if connected fixedly, and a maximum possible torque about the axle of the rollers is generated by dead weight and length of the roller chassis.
A password input system equipped with a security setting function, the password input system comprising: one input unit configured to receive an input of a user; an output unit configured to output a current state and a result; a dedicated communication port configured to transmit and receive data to and from a password adaptor; a memory configured to save a program for the security setting function; and a processor configured to execute the program saved in the memory, wherein, when the processor waits for an input of a password from the user and simultaneously the password adaptor is coupled to the dedicated communication port, the processor receives a password through communication with the password adaptor and compares the received password with a pre-saved password, and when the received password matches the pre-saved password, the processor unlocks a secure state without a password being input from the input unit, wherein, when information about the password received from the password adaptor does not match the pre-saved password, the processor accumulates number of mismatches and saves the accumulated number of mismatches in the memory, and when the accumulated number of mismatches is greater than a predetermined number, the processor performs a state change so that the secure state is unlocked based on only an input received through the input unit. one input unit configured to receive an input of a user; an output unit configured to output a current state and a result; a dedicated communication port configured to transmit and receive data to and from a password adaptor; a memory configured to save a program for the security setting function; and a processor configured to execute the program saved in the memory, wherein, when the processor waits for an input of a password from the user and simultaneously the password adaptor is coupled to the dedicated communication port, the processor receives a password through communication with the password adaptor and compares the received password with a pre-saved password, and when the received password matches the pre-saved password, the processor unlocks a secure state without a password being input from the input unit, wherein, when information about the password received from the password adaptor does not match the pre-saved password, the processor accumulates number of mismatches and saves the accumulated number of mismatches in the memory, and when the accumulated number of mismatches is greater than a predetermined number, the processor performs a state change so that the secure state is unlocked based on only an input received through the input unit.
A method for detecting network problems comprising: determining first packet loss over a first time interval for a first network path; characterized by further comprising: determining a percent utilization of a bandwidth corresponding to the first network path over the first time interval; based on the first packet loss over the first time interval for the first network path, updating a packet loss moving average for a first bandwidth utilization bucket that corresponds to the percent bandwidth utilization of the first time interval; selecting a packet loss lower threshold defined for the first bandwidth utilization bucket; determining a first packet loss upper threshold based, at least in part, on the updated packet loss moving average and the defined packet loss lower threshold; and scoring the first network path based, at least in part, on the first packet loss over the first time interval for the first network path and the first packet loss upper threshold. determining first packet loss over a first time interval for a first network path; characterized by further comprising: determining a percent utilization of a bandwidth corresponding to the first network path over the first time interval; based on the first packet loss over the first time interval for the first network path, updating a packet loss moving average for a first bandwidth utilization bucket that corresponds to the percent bandwidth utilization of the first time interval; selecting a packet loss lower threshold defined for the first bandwidth utilization bucket; determining a first packet loss upper threshold based, at least in part, on the updated packet loss moving average and the defined packet loss lower threshold; and scoring the first network path based, at least in part, on the first packet loss over the first time interval for the first network path and the first packet loss upper threshold. determining a percent utilization of a bandwidth corresponding to the first network path over the first time interval; based on the first packet loss over the first time interval for the first network path, updating a packet loss moving average for a first bandwidth utilization bucket that corresponds to the percent bandwidth utilization of the first time interval; selecting a packet loss lower threshold defined for the first bandwidth utilization bucket; determining a first packet loss upper threshold based, at least in part, on the updated packet loss moving average and the defined packet loss lower threshold; and scoring the first network path based, at least in part, on the first packet loss over the first time interval for the first network path and the first packet loss upper threshold.
A connection device for a water meter with horizontal outlets, said device including at least one fitting comprising two bent portions (20, 30), each bent portion (20, 30) including an inclined end (22, 32) intended for connection thereof to the meter or to the water network, and a straight connecting end (21, 31), wherein the two straight ends (21, 31) of the bent portions (20, 30) are connected to one another by means of a sealed rotary connection allowing to modulate a position of the fitting, wherein the fitting includes a use position in which the two inclined ends (22, 32) are directed towards an axial and vertical center of the water meter, and an installation position in which one of the inclined portions is directed towards said axial center and the other inclined portion is directed towards a side opposite to said axial center, characterized in that the fitting includes: - at least one pair of outer stops (27, 37) cooperating by mutual abutment to stop and limit a rotation between the bent portions (20, 30), each straight end (21, 31) of the bent portions including one of said stops (27, 37). - at least one pair of outer stops (27, 37) cooperating by mutual abutment to stop and limit a rotation between the bent portions (20, 30), each straight end (21, 31) of the bent portions including one of said stops (27, 37).
A computer implemented method for a system including at least one industrial robot (1, 2, 3) arranged with a tool (1C, 2C, 3C), and a conveyance path (4, 6, 17) transferring a plurality of objects (5, 7) within a working area (b1, b2, b3) of the at least one robot (1, 2, 3), wherein the computer implemented method includes obtaining position data indicating a position for each of the plurality of objects (5, 7) and applying a first strategy to the at least one robot (1, 2, 3), the first strategy including: - determining a value for each object (5, 7) within a certain area (a1, a2, a3, a11), wherein the determination is based on the position data, and the value indicates a uniformity measure of the flow distribution in a direction of the conveyance path (4, 6, 17) for the remaining objects (5, 7) within the certain area (a1, a2, a3, a11) if the object, for which the value is determined, was excluded from the conveyance path (4, 6, 17), wherein the uniformity measure corresponds to uniformity of distances (d1+dX, d2... d(X-1)) between the remaining objects (5, 7) in the direction (12A, 12B, 12C, 12D, 12E) of the conveyance path (4, 6, 17); - determining a selected object within the working area (b1, b2, b3) of the at least one robot based on the determined values; and - controlling the at least one robot to handle the selected object. - determining a value for each object (5, 7) within a certain area (a1, a2, a3, a11), wherein the determination is based on the position data, and the value indicates a uniformity measure of the flow distribution in a direction of the conveyance path (4, 6, 17) for the remaining objects (5, 7) within the certain area (a1, a2, a3, a11) if the object, for which the value is determined, was excluded from the conveyance path (4, 6, 17), wherein the uniformity measure corresponds to uniformity of distances (d1+dX, d2... d(X-1)) between the remaining objects (5, 7) in the direction (12A, 12B, 12C, 12D, 12E) of the conveyance path (4, 6, 17); - determining a selected object within the working area (b1, b2, b3) of the at least one robot based on the determined values; and - controlling the at least one robot to handle the selected object.
An apparatus for controlling a mobile terminal based on an analysis of a user's face, the apparatus comprising: an image input unit; an image processor configured to perform, upon reception of an input image through the image input unit, face detection on the input image and perform eye detection on the input image if the face detection fails, and a controller configured to determine a user state based on face recognition results or eye recognition results from the image processor, and configured to perform a predetermined function of the mobile terminal according to the user state. an image input unit; an image processor configured to perform, upon reception of an input image through the image input unit, face detection on the input image and perform eye detection on the input image if the face detection fails, and a controller configured to determine a user state based on face recognition results or eye recognition results from the image processor, and configured to perform a predetermined function of the mobile terminal according to the user state.
A power management system comprising a plurality of power management apparatuses each of which is provided in each of a plurality of consumers and a network server connected to the plurality of power management apparatuses via a network, wherein each power management apparatus is configured to transmit, to the network server, a curtailment signal transmitted from a power company that manages a power grid, and each power management apparatus is configured to transmit, to the network server, power information including an amount of power consumed by a load connected to each power management apparatus in addition to the curtailment signal, and the network server is configured to transmit, to each power management apparatus, a reduction information including an amount of power that should be reduced in each consumer, in response to the curtailment signal and the power information received from each power management apparatus.
A method for controlling a laundry drying machine of the type comprising a heat pump system having a refrigerant circuit for a refrigerant and comprising a drying air circuit for conveying a volume flow of drying air in a laundry drum suitable for receiving laundry to be dried, said refrigerant circuit comprising: - a compressor with a variable rotation speed (Cs); - a first heat exchanger for a thermal coupling between said drying air circuit and said refrigerant circuit wherein the temperature of said drying air increases and the temperature of said refrigerant decreases; and - a second heat exchanger for a further thermal coupling between said drying air circuit and said refrigerant circuit wherein the temperature of said drying air decreases and the temperature of said refrigerant increases; wherein said method comprises the step of: - controlling the speed (Cs) or the power of said compressor; characterized in that the method further comprises the step of: - controlling said volume flow of said drying air in response to said speed (Cs) or said power of said compressor. - a compressor with a variable rotation speed (Cs); - a first heat exchanger for a thermal coupling between said drying air circuit and said refrigerant circuit wherein the temperature of said drying air increases and the temperature of said refrigerant decreases; and - a second heat exchanger for a further thermal coupling between said drying air circuit and said refrigerant circuit wherein the temperature of said drying air decreases and the temperature of said refrigerant increases; - controlling the speed (Cs) or the power of said compressor; characterized in that the method further comprises the step of: - controlling said volume flow of said drying air in response to said speed (Cs) or said power of said compressor.
A rolling bearing unit comprising: a rolling bearing including an inner ring, an outer ring and a plurality of rolling elements disposed between the inner ring and the outer ring; an annular spacer (15, 16) disposed adjacent to one axial end of the rolling bearing, the annular spacer having a grease reservoir in a form of a groove extending along a circumferential direction of the annular spacer, and a flow passage that provides communication between the grease reservoir and an inside of the rolling bearing; at least one spacer; and grease retained in the grease reservoir, characterized by at least one channel being formed by removing the at least one spacer in the grease to extend from the flow passage along an axial direction of the annular spacer, so that base oil of the grease is additionally supplied from end faces of the grease exposed to the channel. a rolling bearing including an inner ring, an outer ring and a plurality of rolling elements disposed between the inner ring and the outer ring; an annular spacer (15, 16) disposed adjacent to one axial end of the rolling bearing, the annular spacer having a grease reservoir in a form of a groove extending along a circumferential direction of the annular spacer, and a flow passage that provides communication between the grease reservoir and an inside of the rolling bearing; at least one spacer; and grease retained in the grease reservoir, characterized by at least one channel being formed by removing the at least one spacer in the grease to extend from the flow passage along an axial direction of the annular spacer, so that base oil of the grease is additionally supplied from end faces of the grease exposed to the channel.
A heat pump having a refrigerant circuit in which a compressor, a condenser, an expansion valve, and an evaporator are connected sequentially, comprising: evaporator refrigerant saturation temperature detecting means for detecting an evaporation temperature of said evaporator; and first frost formation state detecting means for detecting a frost formation state of said evaporator, wherein said first frost formation state detecting means sets said evaporation temperature to a characteristic amount and detects a drop in heat exchange performance caused by frost formation on said evaporator on the basis of a time change amount of the characteristic amount, wherein the time change amount is a difference in said characteristic amount before and after a given time elapsed, and when the characteristic amount is defined as T, a compressor operation time is defined as t, and a change-amount detection time is defined as D, the time change amount is calculated by subtracting the characteristic amount T(t) at the compressor operation time t from the characteristic amount T(t - D) at the compressor operation time (t - D), that is, T(t - D) - T(t). evaporator refrigerant saturation temperature detecting means for detecting an evaporation temperature of said evaporator; and first frost formation state detecting means for detecting a frost formation state of said evaporator, wherein said first frost formation state detecting means sets said evaporation temperature to a characteristic amount and detects a drop in heat exchange performance caused by frost formation on said evaporator on the basis of a time change amount of the characteristic amount, wherein the time change amount is a difference in said characteristic amount before and after a given time elapsed, and when the characteristic amount is defined as T, a compressor operation time is defined as t, and a change-amount detection time is defined as D, the time change amount is calculated by subtracting the characteristic amount T(t) at the compressor operation time t from the characteristic amount T(t - D) at the compressor operation time (t - D), that is, T(t - D) - T(t).