mhurhangee/patent-ind-claim-en huggingface dataset:
A cell culture system for the production of cells and cell derived products comprising: a reusable instrumentation base device incorporating hardware to support cell culture growth; at least one disposable cell cultureware module removably attachable to said instrumentation base device , said module including a cell growth chamber having a matrix suitable for cell growth; wherein said instrumentation base device includes a multi-channel peristaltic pump for moving fluids into and out of said at least one cultureware module , wherein said multi-channel peristaltic pump has discrete, variable output control for each channel, and wherein said at least one cultureware module further comprises a pump cassette , wherein said pump cassette is structured to hold multiple peristaltic tubing segments , and wherein said pump cassette is insertable into an interface on said instrumentation base device and allows for said tubing segments to be loaded into said multi-channel peristaltic pump in said instrumentation base device at the same time. a reusable instrumentation base device incorporating hardware to support cell culture growth; at least one disposable cell cultureware module removably attachable to said instrumentation base device , said module including a cell growth chamber having a matrix suitable for cell growth; wherein said instrumentation base device includes a multi-channel peristaltic pump for moving fluids into and out of said at least one cultureware module , wherein said multi-channel peristaltic pump has discrete, variable output control for each channel, and wherein said at least one cultureware module further comprises a pump cassette , wherein said pump cassette is structured to hold multiple peristaltic tubing segments , and wherein said pump cassette is insertable into an interface on said instrumentation base device and allows for said tubing segments to be loaded into said multi-channel peristaltic pump in said instrumentation base device at the same time.
A method of quantum key distribution, said method comprising: obtaining a bit stream of a same basis vector by sending or receiving quantum states of random bit streams and comparing it with a measurement basis vector; obtaining a required level of security; selecting a privacy amplification strategy using the required level of security; extracting from the obtained bit stream after error correction, parameter information and initial keys associated with the privacy amplification strategy, the parameter information associated with the privacy amplification strategy being transmitted in an anonymous way; and using (160;530) the initial keys as input to implement a privacy amplification algorithm, which corresponds to the privacy amplification strategy, to obtain a set of shared quantum keys based on the extracted parameter information; wherein said parameter information comprises an estimated bit error rate and risk probabilities of attacks. obtaining a bit stream of a same basis vector by sending or receiving quantum states of random bit streams and comparing it with a measurement basis vector; obtaining a required level of security; selecting a privacy amplification strategy using the required level of security; extracting from the obtained bit stream after error correction, parameter information and initial keys associated with the privacy amplification strategy, the parameter information associated with the privacy amplification strategy being transmitted in an anonymous way; and using (160;530) the initial keys as input to implement a privacy amplification algorithm, which corresponds to the privacy amplification strategy, to obtain a set of shared quantum keys based on the extracted parameter information; wherein said parameter information comprises an estimated bit error rate and risk probabilities of attacks.
A monoclonal antibody which specifically binds to MT4-MMP (Membrane-type 4 matrix metalloproteinase), which is any one selected from the following antibodies: (a) an antibody comprising (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (b) an antibody having the amino acid sequence shown in SEQ ID NO: 26 as the amino acid sequence of a H chain variable region (VH), and having the amino acid sequence shown in SEQ ID NO: 27 as the amino acid sequence of a L chain variable region (VL); (c) a scFv (single chain variable fragment) antibody comprising the amino acid sequence shown in SEQ ID NO: 28. (a) an antibody comprising (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (b) an antibody having the amino acid sequence shown in SEQ ID NO: 26 as the amino acid sequence of a H chain variable region (VH), and having the amino acid sequence shown in SEQ ID NO: 27 as the amino acid sequence of a L chain variable region (VL); (c) a scFv (single chain variable fragment) antibody comprising the amino acid sequence shown in SEQ ID NO: 28.
An ethylene vinyl acetate copolymer satisfying conditions to below: Degree of cross-linking: 85 % or greater Content of vinyl acetate: 25 to 35 wt% based on total weight of the copolymer Melt index (190 °C, 2.16 kg): 20 to 30 g/10 min Ratio of η*/[η]: 5500 to 7500 (η* is complex viscosity at zero shear measured at 160 °C and [η] is intrinsic viscosity measured at 25 °C). Degree of cross-linking: 85 % or greater Content of vinyl acetate: 25 to 35 wt% based on total weight of the copolymer Melt index (190 °C, 2.16 kg): 20 to 30 g/10 min Ratio of η*/[η]: 5500 to 7500 (η* is complex viscosity at zero shear measured at 160 °C and [η] is intrinsic viscosity measured at 25 °C).
A method of encoding a video sequence, comprising: providing a dedicated network adaptation layer (NAL) unit type indication in an encoded bitstream, the dedicated network adaptation layer unit type indication indicating an open decoder refresh picture such that all coded pictures at and subsequent to an open decoder refresh picture in display order can be correctly decoded when a decoding process is started from the open decoder refresh picture; encoding a B- or P-picture into the encoded bitstream using motion-compensated prediction with reference to one or more previously coded reference pictures (P15, 116), the B- or P-picture having a display order prior to the open decoder refresh picture and an encoding order succeeding the open decoder refresh picture; characterized in that the method further comprises: providing a leading picture indication in the encoded bitstream associated with the B- or P-picture which leading picture indication indicates whether the B- or P-picture can be correctly decoded when the decoding process is started from the open decoder refresh picture. providing a dedicated network adaptation layer (NAL) unit type indication in an encoded bitstream, the dedicated network adaptation layer unit type indication indicating an open decoder refresh picture such that all coded pictures at and subsequent to an open decoder refresh picture in display order can be correctly decoded when a decoding process is started from the open decoder refresh picture; encoding a B- or P-picture into the encoded bitstream using motion-compensated prediction with reference to one or more previously coded reference pictures (P15, 116), the B- or P-picture having a display order prior to the open decoder refresh picture and an encoding order succeeding the open decoder refresh picture; characterized in that the method further comprises: providing a leading picture indication in the encoded bitstream associated with the B- or P-picture which leading picture indication indicates whether the B- or P-picture can be correctly decoded when the decoding process is started from the open decoder refresh picture.
Production line of slats for roller shutters, comprising: - a profiling machine suitable to form a closed, hollow, box section profile from a metal strip; - a foaming machine , integrated in the profiling machine and suitable to dose into the hollow, box section profile, partially open (P1) while it has being formed, a predetermined quantity of a mixture of polyol and isocyanate in a unit of time; and - a polymerization bench , which is placed downstream of the profiling machine to obtain a foamed, closed, hollow, box section profile (P2); characterized in that it comprises a thickness measurer (10; 15) suitable for measuring in line the thickness (S) of a predefined central portion (C) of the foamed, closed, hollow, box section profile (P2), wherein said thickness measurer is placed downstream of said polymerization bench , and in that it comprises a control system connected to said foaming machine and to said thickness measurer and programmed to adjust the quantity of polyol/isocyanate mixture dosed in the unit of time by the foaming machine depending on the thickness measured by said thickness measurer (10; 15) according to predefined adjustment logics suitable to keep said thickness (S) within a predetermined tolerance range. - a profiling machine suitable to form a closed, hollow, box section profile from a metal strip; - a foaming machine , integrated in the profiling machine and suitable to dose into the hollow, box section profile, partially open (P1) while it has being formed, a predetermined quantity of a mixture of polyol and isocyanate in a unit of time; and - a polymerization bench , which is placed downstream of the profiling machine to obtain a foamed, closed, hollow, box section profile (P2);
A method for signalling a state of a growth substrate for a plant , having the following steps: - providing an electrical energy source , - providing a measuring circuit that may be electrically supplied with a pulse by the electrical energy source , - continuously signalling a state of the growth substrate by a sequence of distinguishable, optically perceivable flash signals by means of an optical display device , characterised by : - producing an electrical interaction with the growth substrate by means of a capacitor of a measuring filter of the measuring circuit , which capacitor is introducible into the growth substrate , a capacitance of the introducible capacitor being dependent on the state of the growth substrate , and the electrical output variable of the measuring filter being dependent on the capacitance of the introducible capacitor , - converting light into electrical energy by means of at least one photocell of the electrical energy source , - producing the pulse as a voltage-limited pulse by means of the electrical energy , and - electrically supplying the optical display device for continuously signalling the state , a signalling controller arranged downstream of the measuring circuit for controlling the optical display device , and the measuring filter for measuring the state by means of the voltage-limited pulse . - providing an electrical energy source , - providing a measuring circuit that may be electrically supplied with a pulse by the electrical energy source , - continuously signalling a state of the growth substrate by a sequence of distinguishable, optically perceivable flash signals by means of an optical display device , - producing an electrical interaction with the growth substrate by means of a capacitor of a measuring filter of the measuring circuit , which capacitor is introducible into the growth substrate , a capacitance of the introducible capacitor being dependent on the state of the growth substrate , and the electrical output variable of the measuring filter being dependent on the capacitance of the introducible capacitor , - converting light into electrical energy by means of at least one photocell of the electrical energy source , - producing the pulse as a voltage-limited pulse by means of the electrical energy , and - electrically supplying the optical display device for continuously signalling the state , a signalling controller arranged downstream of the measuring circuit for controlling the optical display device , and the measuring filter for measuring the state by means of the voltage-limited pulse .
A control apparatus for a hybrid vehicle, the hybrid vehicle comprising: an internal combustion engine ; power elements including a first electric motor (MG1) and a second electric motor (MG2); and a drive shaft for transmitting respective torques outputted from the power elements and from the internal combustion engine to an axle, said control apparatus comprising: a torque determining device for determining respective divided torques to be outputted from the first electric motor (MG1) and the second electric motor (MG2) on the basis of total torque required for driving of the hybrid vehicle; a torque correcting device for correcting the respective divided torques of the first electric motor (MG1) and the second electric motor (MG2) such that pulsation torque of the internal combustion engine on the drive shaft is canceled by the respective divided torques outputted from the first electric motor and the second electric motor and such that the respective divided torques of the first electric motor and the second electric motor are directed opposite to each other in either a clockwise direction or a counterclockwise direction with respect to the drive shaft; and a controlling device for controlling each of the first electric motor (MG1) and the second electric motor (MG2) so as to output respective one of the corrected divided torques. a torque determining device for determining respective divided torques to be outputted from the first electric motor (MG1) and the second electric motor (MG2) on the basis of total torque required for driving of the hybrid vehicle; a torque correcting device for correcting the respective divided torques of the first electric motor (MG1) and the second electric motor (MG2) such that pulsation torque of the internal combustion engine on the drive shaft is canceled by the respective divided torques outputted from the first electric motor and the second electric motor and such that the respective divided torques of the first electric motor and the second electric motor are directed opposite to each other in either a clockwise direction or a counterclockwise direction with respect to the drive shaft; and a controlling device for controlling each of the first electric motor (MG1) and the second electric motor (MG2) so as to output respective one of the corrected divided torques.
A method of forming a superconducting joint between ReBCO tapes, the method comprising: providing two or more ReBCO tapes , each having an exposed ReBCO region ; providing a bridge comprising an exposed ReBCO layer and a silver backing on the exposed ReBCO layer; bonding each exposed ReBCO region to the exposed ReBCO layer of the bridge by heating to a first temperature (T1) in an environment where the partial pressure of oxygen is sufficiently low that the minimum joining temperature of the ReBCO (T R ) is less than the melting point of silver (T Ag ), the temperature (T1) being between the minimum joining temperature of the ReBCO (T J ) and the melting point of silver (T Ag ), (T J <T1<T Ag ); annealing the resulting joint at a second temperature (T2) which is less than the orthorhombic to tetragonal phase transition temperature of ReBCO (T R ) (T2<T R ), for a time (t), in an environment where the partial pressure of oxygen is sufficient to reoxygenate the ReBCO at the second temperature (T2). providing two or more ReBCO tapes , each having an exposed ReBCO region ; providing a bridge comprising an exposed ReBCO layer and a silver backing on the exposed ReBCO layer; bonding each exposed ReBCO region to the exposed ReBCO layer of the bridge by heating to a first temperature (T1) in an environment where the partial pressure of oxygen is sufficiently low that the minimum joining temperature of the ReBCO (T R ) is less than the melting point of silver (T Ag ), the temperature (T1) being between the minimum joining temperature of the ReBCO (T J ) and the melting point of silver (T Ag ), (T J <T1<T Ag ); annealing the resulting joint at a second temperature (T2) which is less than the orthorhombic to tetragonal phase transition temperature of ReBCO (T R ) (T2<T R ), for a time (t), in an environment where the partial pressure of oxygen is sufficient to reoxygenate the ReBCO at the second temperature (T2).
A computer-implemented method comprising: recording raw light field data by an array of pixel sensors positioned behind an array of micro-lenses in a light field camera, wherein each pixel of a pixel sensor records a linear mixing of up to four different views, obtaining at least one sub-aperture image associated with one view by applying a signal separation process by multiplying the recorded data, represented by a column vector, by an inverse of a mixing matrix A, wherein the mixing matrix A comprises coefficients that convey weighting information of the up to four different views, wherein the coefficients are based on a calibration of the positions of micro-lenses image centers of the light field camera, and wherein each row of the mixing matrix A is representative of a linear relationship between each pixel of the pixel sensor and a corresponding pixel of the up to four different sub-aperture images associated to the up to four different views. recording raw light field data by an array of pixel sensors positioned behind an array of micro-lenses in a light field camera, wherein each pixel of a pixel sensor records a linear mixing of up to four different views, obtaining at least one sub-aperture image associated with one view by applying a signal separation process by multiplying the recorded data, represented by a column vector, by an inverse of a mixing matrix A, wherein the mixing matrix A comprises coefficients that convey weighting information of the up to four different views, wherein the coefficients are based on a calibration of the positions of micro-lenses image centers of the light field camera, and wherein each row of the mixing matrix A is representative of a linear relationship between each pixel of the pixel sensor and a corresponding pixel of the up to four different sub-aperture images associated to the up to four different views.
An electrophotographic photosensitive member comprising: a support, an undercoat layer formed above the support, a charge generation layer formed on the undercoat layer, and a charge transport layer formed above the charge generation layer, wherein the undercoat layer contains a polyamide resin and a titanium oxide particle which is surface-treated with a compound represented by Formula : wherein R 1 denotes a methyl group, an ethyl group, an acetyl group, or a 2-methoxyethyl group; R 2 denotes a hydrogen atom or a methyl group; and m + n=3, m is an integer of 0 or more, and n is an integer of 1 or more, with a proviso that when n is 3, m is 0; when a volume of the titanium oxide particles to a volume of the polyamide resin in the undercoat layer is a, as measured according to the description , and an average primary particle diameter of the titanium oxide particles is b (μm), the following Equation (A) is satisfied: 14.0 ≤ a / b ≤ 19.1 ; and the charge generation layer contains a charge generating material and a thermoplastic resin having a hydroxyl group and a hydroxyl number of 50 mgKOH/g or more.
Hydro generator designed as an electrical, synchronous machine with a stator and an air-cooled rotor , where a pole winding on the rotor forms at least eight poles characterized in that the self-supporting rotor body does not have a central shaft, but consists of several forged steel rings connected to one another, where each steel ring has grooves into which the rotor winding is directly placed and where the rotor body is bolted at each of the two ends via a transition piece to a shaft .
An ultrasonic probe comprising: a transducer configured to be movable; a cap configured to transmit an ultrasound signal generated by the transducer to outside; an impact mitigating member at the cap to protect the cap from an external impact, and a base frame disposed between the cap and a handle case of the ultrasonic probe to partition an inner space of the cap and an inner space of the handle case, wherein an inner space of the cap is filled with oil, wherein the cap comprises an upper cap configured to transmit the ultrasound signal generated by the transducer to outside and a lower cap disposed below the upper cap and the impact mitigating member is disposed along a circumference of the cap, CHARACTERIZED IN THAT the impact mitigating member is disposed between the upper cap and the lower cap to protect the cap from the external impact, wherein the lower cap extends between the impact mitigating member and the base frame . a transducer configured to be movable; a cap configured to transmit an ultrasound signal generated by the transducer to outside; an impact mitigating member at the cap to protect the cap from an external impact, and a base frame disposed between the cap and a handle case of the ultrasonic probe to partition an inner space of the cap and an inner space of the handle case, wherein an inner space of the cap is filled with oil, wherein the cap comprises an upper cap configured to transmit the ultrasound signal generated by the transducer to outside and a lower cap disposed below the upper cap and the impact mitigating member is disposed along a circumference of the cap, CHARACTERIZED IN THAT the impact mitigating member is disposed between the upper cap and the lower cap to protect the cap from the external impact, wherein the lower cap extends between the impact mitigating member and the base frame .
An electrical converter disposed above a transmission or a motor , the electrical converter comprising: - a case containing: - direct-current input terminals , - a power module provided with a plurality of power semiconductor elements; - a driver circuit board , - a control circuit board which controls the power semiconductor elements, and - a metal plate , wherein the control circuit board is disposed above and fixed to the metal plate , the metal plate is disposed above the driver circuit board and the power module , wherein the driver circuit board and the control circuit board are lined up in layers in a height direction, and the control circuit board is arranged at a location farthest from the power module ; and - the direct-current input terminals extending from a top of the case to connect to a battery , characterized in that : the metal plate comprises curved portions forming walls that are arranged in a space between the control circuit board and the direct-current input terminals . - a case containing: - direct-current input terminals , - a power module provided with a plurality of power semiconductor elements; - a driver circuit board , - a control circuit board which controls the power semiconductor elements, and - a metal plate , wherein - direct-current input terminals , - a power module provided with a plurality of power semiconductor elements; - a driver circuit board , - a control circuit board which controls the power semiconductor elements, and - a metal plate , wherein - the direct-current input terminals extending from a top of the case to connect to a battery , characterized in that : the metal plate comprises curved portions forming walls that are arranged in a space between the control circuit board and the direct-current input terminals .