mhurhangee/patent-ind-claim-en huggingface dataset:
An improved Cell-Permeable Cre (iCP-Cre) recombinant protein, which comprises a Cre protein and an advanced macromolecule transduction domain (aMTD) being composed of 9 to 13 amino acid sequences and having improved cell or tissue permeability, wherein the aMTD is fused to one end or both ends of the Cre protein and has the following features of: (a) being composed of 3 or more amino acids selected from the group consisting of Ala, Val, Ile, Leu, and Pro; (b) having proline as amino acids corresponding to any one or more of positions 5 to 8, and 12 of its amino acid sequence; and (c) having an instability index of 40 to 60; an aliphatic index of 180 to 220; and a grand average of hydropathy (GRAVY) of 2.1 to 2.6, as measured by Protparam, and wherein the aMTD has an amino acid sequence of SEQ ID NO: 131. (a) being composed of 3 or more amino acids selected from the group consisting of Ala, Val, Ile, Leu, and Pro; (b) having proline as amino acids corresponding to any one or more of positions 5 to 8, and 12 of its amino acid sequence; and (c) having an instability index of 40 to 60; an aliphatic index of 180 to 220; and a grand average of hydropathy (GRAVY) of 2.1 to 2.6, as measured by Protparam, and
A composition for use in the prevention or treatment of atopic dermatitis, wherein the composition is for oral administration and wherein the composition comprises a monoacetyldiacylglycerol compound of Formula 1 as an active ingredient wherein R1 and R2 are independently a fatty acid group of 14 to 20 carbon atoms, and wherein the monoacetyldiacylglycerol compound reduces the secretion of IL-4 or the secretion of IgE.
A method for generating a message for transmission in a system that requires the message to be run length limited RLL to a maximum run of n consecutive first binary states by bit-stuffing, the method comprising: coding at least a data portion of a binary sequence for transmission using a forward error correction FEC code to generate a FEC coded portion of the binary sequence ; bit erasing one or more bits in at least the FEC coded portion of the binary sequence to compensate for a run of n first binary states in the FEC coded portion of the binary sequence, wherein the bit-erasing step implements selective bit erasing, wherein if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the first binary state, the n th bit of the run of n first binary states is set to the second binary state and if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the second binary state, then the next bit after the run of n first binary states is removed from the FEC coded portion of the binary sequence; bit stuffing the selective bit erased FEC coded portion of the binary sequence, wherein bit-stuffing comprises insertion of the second binary state after a run of n first binary states; and providing the binary sequence comprising the bit stuffed and selective bit erased FEC coded portion to a transmitter for modulation and subsequent transmission as a message, wherein the selective bit erasing ensures that the length of the FEC coded portion of the binary sequence after bit stuffing is the same as before selective bit erasing and bit stuffing. coding at least a data portion of a binary sequence for transmission using a forward error correction FEC code to generate a FEC coded portion of the binary sequence ; bit erasing one or more bits in at least the FEC coded portion of the binary sequence to compensate for a run of n first binary states in the FEC coded portion of the binary sequence, wherein the bit-erasing step implements selective bit erasing, wherein if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the first binary state, the n th bit of the run of n first binary states is set to the second binary state and if the next bit after the run of n first binary states in the FEC coded portion of the binary sequence is equal to the second binary state, then the next bit after the run of n first binary states is removed from the FEC coded portion of the binary sequence; bit stuffing the selective bit erased FEC coded portion of the binary sequence, wherein bit-stuffing comprises insertion of the second binary state after a run of n first binary states; and providing the binary sequence comprising the bit stuffed and selective bit erased FEC coded portion to a transmitter for modulation and subsequent transmission as a message, wherein the selective bit erasing ensures that the length of the FEC coded portion of the binary sequence after bit stuffing is the same as before selective bit erasing and bit stuffing.
A porous water-soluble nonionic cellulose ether having an average pore size of 36 μm or smaller and an average particle size of from 30 to 300 μm, where the average pore size is measurable using a mercury intrusion porosimeter on 0.05g of the cellulose ether at initial mercury pressure of 7 kPa, and where the average particle size is measurable using a laser diffraction particle size distribution analyser at a measurement concentration of 2% by weight, a measurement time of 2 seconds and a shape factor of 1.0.
A wireless horticultural system , comprising: a climate computer configured to implement general monitoring, control, and data analysis functions for the wireless horticultural system ; an adapter configured to: receive an input from the climate computer , wherein the input is formatted in a first native communications protocol of the climate computer ; convert the input from the first native communications protocol into a first wireless signal; and transmit the first wireless signal to one or more controllers ; and the one or more controllers , wherein a first controller in the one or more controllers is configured to be connected to the adapter and configured to: receive the first wireless signal from the adapter ; provide the input encoded in the first wireless signal to a device connected to the first controller ; receive data from the device ; and transmit the data encoded in a second wireless signal to at least one of (i) the adapter or (ii) one or more other controllers . a climate computer configured to implement general monitoring, control, and data analysis functions for the wireless horticultural system ; an adapter configured to: receive an input from the climate computer , wherein the input is formatted in a first native communications protocol of the climate computer ; convert the input from the first native communications protocol into a first wireless signal; and transmit the first wireless signal to one or more controllers ; and receive an input from the climate computer , wherein the input is formatted in a first native communications protocol of the climate computer ; convert the input from the first native communications protocol into a first wireless signal; and transmit the first wireless signal to one or more controllers ; and the one or more controllers , wherein a first controller in the one or more controllers is configured to be connected to the adapter and configured to: receive the first wireless signal from the adapter ; provide the input encoded in the first wireless signal to a device connected to the first controller ; receive data from the device ; and transmit the data encoded in a second wireless signal to at least one of (i) the adapter or (ii) one or more other controllers . receive the first wireless signal from the adapter ; provide the input encoded in the first wireless signal to a device connected to the first controller ; receive data from the device ; and transmit the data encoded in a second wireless signal to at least one of (i) the adapter or (ii) one or more other controllers .
Fastening profile for a door leaf movable substantially vertically between an open position and a closed position, wherein the fastening profile which is variable in height and deformable is designed for fastening a bottom seal to a door leaf slat and includes receiving area for the bottom seal and a mounting area for mounting the fastening profile to the door leaf slat , wherein the mounting area is designed in such a way that, in a partly released state, the fasting profile is displaceable relative to the door leaf slat , wherein the mounting area comprises a plurality of mounting portions each of which limited by at least one vertically extending mounting slot that extends from an upper fastening profile edge to the receiving area so that the mounting portions are designed to be movable relative to each other, in order to deform the fastening profile by relatively moving the mounting portions to each other in such a way that a bottom seal contour can be formed by the bottom seal along the closing edge, the bottom seal contour corresponding to a floor contour that can be grasped by the floor sealing in the closed position.
A method for the pagination of a printed publication, for example a newspaper or a book, performed by an automatized printing system, characterised in that it comprises the following steps: a) providing a sequence of media to be printed on the publication, such media being continuously distributed, in said sequence, over a set of pages which are sequentially numbered from 1 to m and which form a set of sheets, m being an integer positive number, characterised in : b) providing a first positioning for even pages of such printed publication and a second positioning for odd pages of such printed publication wherein said first positioning and second positioning are such that any n odd page is: i) when the publication is in an open position, positioned adjacently to an n + 1 first even page, and ii) has on its directly opposite side a second even page n + 3, in which n is an integer positive number such that n ≤ m, c) printing and sequencing a set of pages 1 to m through said first and second positioning, and d) organising the sheets in the same sequence as of step c), and thereby obtaining said printed publication. a) providing a sequence of media to be printed on the publication, such media being continuously distributed, in said sequence, over a set of pages which are sequentially numbered from 1 to m and which form a set of sheets, m being an integer positive number, b) providing a first positioning for even pages of such printed publication and a second positioning for odd pages of such printed publication wherein said first positioning and second positioning are such that any n odd page is: i) when the publication is in an open position, positioned adjacently to an n + 1 first even page, and ii) has on its directly opposite side a second even page n + 3, in which n is an integer positive number such that n ≤ m, c) printing and sequencing a set of pages 1 to m through said first and second positioning, and d) organising the sheets in the same sequence as of step c), and thereby obtaining said printed publication.
Sliding wall assembly, comprising at least one sliding leaf having a lower frame profile , a running rail which can be lowered into a building floor and in which the at least one sliding leaf is displaceably mounted at the lower edge, and at least one covering element which serves to cover the at least one running rail when the running rail is released by the at least one displaceable sliding leaf , wherein the at least one covering element has a raised state in which the covering element covers the running rail released by the sliding leaf completely or in sections, as well as a lowered state in which the at least one covering element is lowered into the at least one running rail , so that the at least one sliding leaf can be displaced over the at least one covering element , characterized in that a guide device is provided which ensures that the at least one covering element executes a vertical or substantially vertical movement between the raised state and the lowered state or vice versa, wherein the running rail as the guide device has a slotted guide , wherein a guide bolt engages through a slotted guide groove which is introduced into a guide block and wherein the guide groove is in the form of a U, i.e. a U-shaped guide groove rotated by 180°, so that the movement of the guide bolt in the guide groove is at least partially vertical.
Method for producing a cylinder crankcase having wet, hanging liners comprising the following steps: closing a casting mold , inserting at least one steel sleeve into the casting mold to form at least one cylinder space , filling the casting mold with molten metal, extending the at least one steel sleeve after the melt has solidified, opening the mold , removing the cylinder crankcase from the casting mold , inserting a wet hanging liner into each cylinder space formed by the one or more steel sleeves , wherein prior to the insertion of the liners , the side walls delimiting the at least one cylinder space are mechanically machined, wherein a first section having a larger diameter is formed between a second axial section having a smaller diameter and a third axial section having a smaller diameter, which are formed by the steel sleeve , wherein the first section having a larger diameter and being radially widened by the machining tool is closed radially inward by the outer wall of the liner , wherein this space serves as a coolant duct in operation of the internal combustion engine. closing a casting mold , inserting at least one steel sleeve into the casting mold to form at least one cylinder space , filling the casting mold with molten metal, extending the at least one steel sleeve after the melt has solidified, opening the mold , removing the cylinder crankcase from the casting mold , inserting a wet hanging liner into each cylinder space formed by the one or more steel sleeves , wherein prior to the insertion of the liners , the side walls delimiting the at least one cylinder space are mechanically machined, wherein a first section having a larger diameter is formed between a second axial section having a smaller diameter and a third axial section having a smaller diameter, which are formed by the steel sleeve , wherein the first section having a larger diameter and being radially widened by the machining tool is closed radially inward by the outer wall of the liner , wherein this space serves as a coolant duct in operation of the internal combustion engine.
Process for laminating flexible films, the process comprising: i) providing at least one lamination roller and a heating device, the lamination roller being arranged behind the heating device along a process direction, ii) providing a first film having a thermoplastic surface, iii) providing a second film , iv) bringing the first film and the second film together by means of pressure wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller , wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2 . i) providing at least one lamination roller and a heating device, the lamination roller being arranged behind the heating device along a process direction, ii) providing a first film having a thermoplastic surface, iii) providing a second film , iv) bringing the first film and the second film together by means of pressure wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller , wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2 . wherein the thermoplastic surface of the first film is converted into a softened state by means of heating before being brought together with the second film; wherein heating of the surface of the first film is effected by the heating device, which heating device includes at least one heatable roller , wherein the means for bringing the first film into contact with the second film comprises the lamination roller, and wherein the surface of the second film is coated with an adhesive, wherein the adhesive is applied to the second film at a coating weight of less than 2 g/m 2 .
A robot cell comprising a multi axis robot arm , which terminates in a gripper arranged to handle a pallet , and a sawing device , which is arranged to separate a nailed pallet part from the pallet handled by said gripper , characterized in that said sawing device comprises a saw blade which is totally immersed in a liquid bath that is contained in a trough of said sawing device , such that separation of said nailed pallet part is performed in a liquid environment.
An electromechanical contactor, intended to interrupt or to allow a direct current to pass in a main circuit, the electromechanical contactor comprising at least one fixed pole and at least one movable pole and one means for actuating at least one movable pole , the actuating means comprising a movable portion and an actuating coil , and being configured to separate or put into contact the at least one movable pole and the at least one fixed pole , the electromechanical contactor also comprising at least one secondary coil , characterized in that the electromechanical contactor further comprises a detector configured to detect the instant of separation of the at least one fixed pole and the at least one movable pole and a trigger configured to trigger with the at least one secondary coil a magnetic field for blowing the at least one electrical arc generated between the at least one fixed pole and the at least one movable pole from the instant of their separation.
A method for remote diagnosis and monitoring of field equipment with a diagnostic unit comprising a first input interface , a second input interface , a packet generation module , and an output interface , wherein the diagnostic unit is associated with the field equipment, and wherein the diagnostic unit is communicatively linked to a field radio device capable of communicating with a base station over an industrial wireless network, the method comprising: obtaining, via the first input interface , a plurality of parameters of a communication channel used by the field radio device for communicating with the base station, wherein the plurality of parameters comprises packet size, data rate, Received Signal Strength Indicator (RSSI) and duty cycle, wherein at least a first parameter of the plurality of parameters is estimated with at least a second parameter of the plurality of parameters; obtaining, via the second input interface , measured data associated with the field equipment for transmitting to the field radio device, wherein the measured data comprises one or more of operation data, sensor data and estimated data associated with operation of the field equipment; generating, using the packet generation module , one or more packets for transmission by the field radio device based on the packet size and the data rate available for transmission, and application responsiveness required for the measured data, wherein the application responsiveness is determined based on the operation data comprising event data; and transmitting, via the output interface , the one or more packets to the field radio device for communication to the base station at selected time intervals, wherein the time intervals are selected on the packet size, the data rate and the application responsiveness. obtaining, via the first input interface , a plurality of parameters of a communication channel used by the field radio device for communicating with the base station, wherein the plurality of parameters comprises packet size, data rate, Received Signal Strength Indicator (RSSI) and duty cycle, wherein at least a first parameter of the plurality of parameters is estimated with at least a second parameter of the plurality of parameters; obtaining, via the second input interface , measured data associated with the field equipment for transmitting to the field radio device, wherein the measured data comprises one or more of operation data, sensor data and estimated data associated with operation of the field equipment; generating, using the packet generation module , one or more packets for transmission by the field radio device based on the packet size and the data rate available for transmission, and application responsiveness required for the measured data, wherein the application responsiveness is determined based on the operation data comprising event data; and transmitting, via the output interface , the one or more packets to the field radio device for communication to the base station at selected time intervals, wherein the time intervals are selected on the packet size, the data rate and the application responsiveness.
A system for detecting tissue inflammation , comprising: a light emitter configured to emit light at a tissue region within a user's mouth; at least four wavelength-sensitive photodetectors (110, 112, 114, and 116) configured to detect optical signals diffusely reflected through the tissue region, each of the at least four wavelength-sensitive photodetectors comprising a filter (BPF1, BPF2, BPF3, and BPF4) and a photodiode (D1, D2, D3, and D4), where the photodiodes are stacked on top of each other to generate current differential signals which remove an unwanted component from the optical signals; amplifiers corresponding with the photodiodes, and an inflammation detection unit configured to receive outputs from the corresponding amplifiers and detect tissue inflammation at the tissue region. a light emitter configured to emit light at a tissue region within a user's mouth; at least four wavelength-sensitive photodetectors (110, 112, 114, and 116) configured to detect optical signals diffusely reflected through the tissue region, each of the at least four wavelength-sensitive photodetectors comprising a filter (BPF1, BPF2, BPF3, and BPF4) and a photodiode (D1, D2, D3, and D4), where the photodiodes are stacked on top of each other to generate current differential signals which remove an unwanted component from the optical signals; amplifiers corresponding with the photodiodes, and an inflammation detection unit configured to receive outputs from the corresponding amplifiers and detect tissue inflammation at the tissue region.