mhurhangee/ep-ind-claims huggingface dataset:
An isolated antibody or fragment thereof that binds specifically to MMP9, comprising a heavy chain variable region and a light chain variable region, wherein the heavy chain variable region comprises a CDR1 comprising the amino acid sequence set forth in SEQ ID NO: 34, a CDR2 comprising the amino acid sequence set forth in SEQ ID NO: 35, and a CDR3 comprising the amino acid sequence set forth in SEQ ID NO: 36, and wherein the light chain variable region comprises a CDR1 comprising the amino acid sequence set forth in SEQ ID NO: 37, a CDR2 comprising the amino acid sequence set forth in SEQ ID NO: 38, and a CDR3 comprising the amino acid sequence set forth in SEQ ID NO: 39.
Method for real-time determining a shape of an arc-type wing with high aerodynamic efficiency, said wing being composed of a central arc section connected to pairs of bridles (11, 12) through a pair of shoulders, and comprising a detecting system (4, 5) adapted to measure the difference of meaningful heights (d1-d1'), (d2-d2'), to determine in real time the shape of the wing, the detecting system (4, 5) being housed in panels fastened to each shoulder, said method comprising the steps of: - real-time measuring, through said detecting system (4, 5), the difference of heights (d1-d1'), (d2-d2') of meaningful parameters for the variation of the shape of the wing, said step of measuring being performed through aiming means assembled on one of the due panels and adapted to aim a target placed on the secondo panel; and - computing, through said difference, the relative displacements of the due shoulders and, through the use of braking means, correcting the attitude of the arc-type wing taking it back under maximum efficiency conditions, said braking means generating a resisting force which allows introducing a yaw motion useful to restore the maneuver reactivity of the arc-type wing. - real-time measuring, through said detecting system (4, 5), the difference of heights (d1-d1'), (d2-d2') of meaningful parameters for the variation of the shape of the wing, said step of measuring being performed through aiming means assembled on one of the due panels and adapted to aim a target placed on the secondo panel; and - computing, through said difference, the relative displacements of the due shoulders and, through the use of braking means, correcting the attitude of the arc-type wing taking it back under maximum efficiency conditions, said braking means generating a resisting force which allows introducing a yaw motion useful to restore the maneuver reactivity of the arc-type wing.
A Serving GPRS Support Node (SGSN) configured to interact with a Base Station Subsystem (602 2), the SGSN comprising: a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the SGSN is operable to: receive, from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance Request message for a target wireless device (604 3), and (ii) an indicator (720, 735) that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer. a processor; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the SGSN is operable to: receive, from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance Request message for a target wireless device (604 3), and (ii) an indicator (720, 735) that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer. receive, from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance Request message for a target wireless device (604 3), and (ii) an indicator (720, 735) that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer.
A wireless sensor system comprising a wireless sensor node (104a-c), the wireless sensor node comprising: a sensor interface that interfaces with sensing circuitry (110, 110a-d); a wireless interface to communicate with a wireless access point; at least one processor; and memory having instructions stored thereon that, when executed by the at least one processor, cause the wireless sensor node to: set a heartbeat message rate of the wireless sensor node (104a-c) to a first heartbeat message rate; send heartbeat messages periodically on the wireless interface to the wireless access point at the first heartbeat message rate; acquire sensor data through the sensor interface; increase the heartbeat message rate to a second heartbeat message rate based on a determination that the sensor data have been acquired and are ready to transmit; transmit the sensor data in one or more heartbeat messages on the wireless interface to the wireless access point at the second heartbeat message rate until all of the sensor data have been transmitted; and lower the heartbeat message rate back to the first heartbeat message rate based on a determination that all of the sensor data have been transmitted. a sensor interface that interfaces with sensing circuitry (110, 110a-d); a wireless interface to communicate with a wireless access point; at least one processor; and memory having instructions stored thereon that, when executed by the at least one processor, cause the wireless sensor node to: set a heartbeat message rate of the wireless sensor node (104a-c) to a first heartbeat message rate; send heartbeat messages periodically on the wireless interface to the wireless access point at the first heartbeat message rate; acquire sensor data through the sensor interface; increase the heartbeat message rate to a second heartbeat message rate based on a determination that the sensor data have been acquired and are ready to transmit; transmit the sensor data in one or more heartbeat messages on the wireless interface to the wireless access point at the second heartbeat message rate until all of the sensor data have been transmitted; and lower the heartbeat message rate back to the first heartbeat message rate based on a determination that all of the sensor data have been transmitted. set a heartbeat message rate of the wireless sensor node (104a-c) to a first heartbeat message rate; send heartbeat messages periodically on the wireless interface to the wireless access point at the first heartbeat message rate; acquire sensor data through the sensor interface; increase the heartbeat message rate to a second heartbeat message rate based on a determination that the sensor data have been acquired and are ready to transmit; transmit the sensor data in one or more heartbeat messages on the wireless interface to the wireless access point at the second heartbeat message rate until all of the sensor data have been transmitted; and lower the heartbeat message rate back to the first heartbeat message rate based on a determination that all of the sensor data have been transmitted.
An isolated antibody or a binding fragment thereof, which binds to quetiapine and which is an isolated antibody or a binding fragment thereof selected from the group consisting of: a) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:19 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:20; b) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:23 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:24; or c) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:27 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:28. a) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:19 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:20; b) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:23 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:24; or c) an isolated antibody or a fragment thereof comprising a light chain variable region having the amino acid sequence of SEQ ID NO:27 and a heavy chain variable region having the amino acid sequence of SEQ ID NO:28.
A neuro-synaptic processing circuitry for performing neuro-synaptic operations based on synaptic weights and neuron states and comprising: - a data memory for storing the synaptic weights and neuron states; the data memory having a first memory port for loading and storing data from and to the data memory; - a plurality of neuron processing elements, NPEs, configurable to execute NPE instructions in parallel according to a single instruction, multiple data, SIMD, instruction set; wherein the NPEs have access to respective portions of the memory port; the SIMD instruction set comprising instructions for loading and storing the synaptic weights and neuron states from and to the memory port, and for performing the neuro-synaptic operations; - a general-purpose central processing unit, GP-CPU, configured to execute program code; - a loop buffer having a register-based memory; an address calculation unit; and a program counter; wherein the loop buffer is configured to: - receive a micro-code kernel from the GP-CPU in the register-based memory according to the program code; the micro-code kernel comprising the NPE instructions; - upon instruction of the GP-CPU, execute the micro-code kernel by iteratively providing, the NPE instructions to the NPEs for execution; - upon a load or store instruction, further providing a memory address stored in the loop buffer to the memory port and, by the address calculation unit, updating the memory address. - a data memory for storing the synaptic weights and neuron states; the data memory having a first memory port for loading and storing data from and to the data memory; - a plurality of neuron processing elements, NPEs, configurable to execute NPE instructions in parallel according to a single instruction, multiple data, SIMD, instruction set; wherein the NPEs have access to respective portions of the memory port; the SIMD instruction set comprising instructions for loading and storing the synaptic weights and neuron states from and to the memory port, and for performing the neuro-synaptic operations; - a general-purpose central processing unit, GP-CPU, configured to execute program code; - a loop buffer having a register-based memory; an address calculation unit; and a program counter; - receive a micro-code kernel from the GP-CPU in the register-based memory according to the program code; the micro-code kernel comprising the NPE instructions; - upon instruction of the GP-CPU, execute the micro-code kernel by iteratively providing, the NPE instructions to the NPEs for execution; - upon a load or store instruction, further providing a memory address stored in the loop buffer to the memory port and, by the address calculation unit, updating the memory address.
Test device, comprising a load cell; a seat rail with a bar and an upper chord characterised in that it further comprise a load transfer means (3a, 3b) which comes into contact with opposite sides of the bar of the seat rail and is fixed on the load cell; and a floor plate, which is fixed to the upper chord of the seat rail and to the load transfer means (3a, 3b).
A radiotherapy dose analysis system comprising: a delivery information extractor configured to determine delivered radiotherapy treatment information including dose, time and position information; a physics dose model engine configured to determine planned radiotherapy treatment information including dose, dose rate, time and position information from a radiotherapy treatment plan; and characterised by further comprising: a dose/dose rate comparison engine configured to reconstruct dose and dose rate information in two or three dimensions from the dose, time and position information, and to compare the dose, dose rate, time and position information of the delivered radiotherapy treatment information to the dose, dose rate, time and position information of the planned radiotherapy treatment plan and generate a graphical representation of one or more of the delivered dose, dose rate, time and position information versus planned dose, dose rate, time and position information. a delivery information extractor configured to determine delivered radiotherapy treatment information including dose, time and position information; a physics dose model engine configured to determine planned radiotherapy treatment information including dose, dose rate, time and position information from a radiotherapy treatment plan; and characterised by further comprising: a dose/dose rate comparison engine configured to reconstruct dose and dose rate information in two or three dimensions from the dose, time and position information, and to compare the dose, dose rate, time and position information of the delivered radiotherapy treatment information to the dose, dose rate, time and position information of the planned radiotherapy treatment plan and generate a graphical representation of one or more of the delivered dose, dose rate, time and position information versus planned dose, dose rate, time and position information.
A solar device, comprising: a multijunction solar cell having at least a first subcell, a second subcell, and a third subcell, characterised by a notch filter deposited directly onto the multijunction solar cell, the notch filter, comprising a repeating pattern of layers of materials formed of materials H, M and L, the repeating pattern comprising (LMHHML) x, materials H and L having respective properties of high and low indices of refraction, material M having properties between those of materials H and L. a multijunction solar cell having at least a first subcell, a second subcell, and a third subcell, characterised by a notch filter deposited directly onto the multijunction solar cell, the notch filter, comprising a repeating pattern of layers of materials formed of materials H, M and L, the repeating pattern comprising (LMHHML) x, materials H and L having respective properties of high and low indices of refraction, material M having properties between those of materials H and L.
Drive for a sliding door of a motor vehicle, comprising • an electrical drive unit, • a drive cable, and • a cable guide for the drive cable, • the drive unit, the drive cable and the cable guide being fixedly accommodated in a body of the motor vehicle; • it being possible for the sliding door to be moved relative to the body by means of the drive cable; • at least one assembly of the cable guide being modular; • it being possible for the drive cable to be deflected by means of the assembly; • it being possible for a cable end of the drive cable to be threaded into a cable deflector; • the cable guide comprising a guide pipe; • it being possible to fix the end of the guide pipe to the cable deflector by means of an upper part; • a sealing part being mounted on the cable deflector such that the drive cable can be guided out of the body by means of the cable deflector; • the assembly comprising the cable deflector, the upper part and the sealing part; characterized in that • the drive cable comprises a sealing means in the form of a profiled annular disk, which forms a sealing unit together with the sealing part; and • the sealing means is pushed into an opening in the sealing part. • an electrical drive unit, • a drive cable, and • a cable guide for the drive cable, • the drive unit, the drive cable and the cable guide being fixedly accommodated in a body of the motor vehicle; • it being possible for the sliding door to be moved relative to the body by means of the drive cable; • at least one assembly of the cable guide being modular; • it being possible for the drive cable to be deflected by means of the assembly; • it being possible for a cable end of the drive cable to be threaded into a cable deflector; • the cable guide comprising a guide pipe; • it being possible to fix the end of the guide pipe to the cable deflector by means of an upper part; • a sealing part being mounted on the cable deflector such that the drive cable can be guided out of the body by means of the cable deflector; • the assembly comprising the cable deflector, the upper part and the sealing part; • the drive cable comprises a sealing means in the form of a profiled annular disk, which forms a sealing unit together with the sealing part; and • the sealing means is pushed into an opening in the sealing part.
Method of transmitting positioning information using a set of data having a standardized set of formats for a single position entity, comprising the steps: including data representing at least two separate position entities in data containers intended for points defining corners of a single polygon; arranging data within said set of data according to predetermined rules as an indication of an existence of said at least two separate position entities; and transmitting said set of data to a communication network. including data representing at least two separate position entities in data containers intended for points defining corners of a single polygon; arranging data within said set of data according to predetermined rules as an indication of an existence of said at least two separate position entities; and transmitting said set of data to a communication network.
A catalyst for catalyzing the polymerization of epoxides, which catalyst can be obtained by mixing a) at least one double metal cyanide compound, b) at least one organic complexing agent, selected from ethanol, i-propyl alcohol, n-butyl alcohol, i-butyl alcohol, sec-butyl alcohol, tert-butyl alcohol, monoglyme, diglyme, 1,4-dioxane, furan and mixtures of two or more of the aforementioned compounds, and c) at least one primary alcohol having 20 C atoms. a) at least one double metal cyanide compound, b) at least one organic complexing agent, selected from ethanol, i-propyl alcohol, n-butyl alcohol, i-butyl alcohol, sec-butyl alcohol, tert-butyl alcohol, monoglyme, diglyme, 1,4-dioxane, furan and mixtures of two or more of the aforementioned compounds, and c) at least one primary alcohol having 20 C atoms.
A developer carrying member (1; 7), comprising: an electroconductive substrate; and a surface layer containing a resin on the substrate, wherein a thickness of the surface layer is 1.0 μm or more and 100.0 μm or less, characterized in that a Martens hardness at an indentation depth of 0.1 μm that is measured by infiltrating a Vickers indenter in a thickness direction of the surface layer from an outer surface of the surface layer is 50.0 N/mm 2 or more and 100.0 N/mm 2 or less, an Asker C hardness that is measured from the outer surface of the surface layer is 75° or more and 90° or less, and a value of a work function of the outer surface of the surface layer,measured as described in the description, is 5.6 eV or more and 6.0 eV or less. an electroconductive substrate; and a surface layer containing a resin on the substrate, wherein a thickness of the surface layer is 1.0 μm or more and 100.0 μm or less, characterized in that a Martens hardness at an indentation depth of 0.1 μm that is measured by infiltrating a Vickers indenter in a thickness direction of the surface layer from an outer surface of the surface layer is 50.0 N/mm 2 or more and 100.0 N/mm 2 or less, an Asker C hardness that is measured from the outer surface of the surface layer is 75° or more and 90° or less, and a value of a work function of the outer surface of the surface layer,measured as described in the description, is 5.6 eV or more and 6.0 eV or less.
Equipment part comprising a base and a sliding part that is translationally movable relative to the base between a first end position and a second end position, comprising a guide device, wherein the base comprises first guide means and the sliding part comprises second guide means, wherein the first guide means and second guide means interact and wherein one guide means comprises at least one first bearing (25a, 25b) and at least one second bearing (28a, 28b) and the other guide means comprises at least one first guide bar (22a, 22b) and one second guide bar (23a and 23b), whereby the first guide bar (22a, 22b) extends in a straight line along a first longitudinal axis and the second guide bar (23a, 23b) extends in a straight line along a second longitudinal axis, wherein the first longitudinal axis and/or the second longitudinal axis are arranged at an angle (β, γ) to a straight line, which extends through a first bearing point of the first bearing (25a, 25b) and a second bearing point of the second bearing (28a, 28b), characterized in that at least one bearing (25a, 25b, 28a, 28b) is arranged in a bearing seat and that the bearing seat and the bearing (25a, 25b, 28a, 28b) are formed such that the bearing (25a, 25b, 28a, 28b) is arranged so as to be pivotable within the bearing seat.
A method of extracting and purifying polyhydroxyalkanoate from PHA-rich bacterial cells, the method incudes the steps of: (a) providing dried pellets containing PHA-rich bacterial cells; (b) pulverizing the dried pellets; (c) dissolving the ground pellets obtained from step (b) with an alkaline solution; (d) homogenizing the PHA-enriched alkaline solution obtained from step (c); (e) separating the non-PHA cellular material (NPCM) from the PHA-enriched alkaline solution; and (f) recovering PHA granules from the PHA-enriched alkaline solution. (a) providing dried pellets containing PHA-rich bacterial cells; (b) pulverizing the dried pellets; (c) dissolving the ground pellets obtained from step (b) with an alkaline solution; (d) homogenizing the PHA-enriched alkaline solution obtained from step (c); (e) separating the non-PHA cellular material (NPCM) from the PHA-enriched alkaline solution; and (f) recovering PHA granules from the PHA-enriched alkaline solution.
A process for preparing 1,2-propanediol, in which a) a glycerol-containing stream is provided, and b) the glycerol-containing stream is subjected to a continuous hydrogenation in two hydrogenation reactors connected in series in the presence of a heterogeneous copper catalyst, the conversion in the first reactor being at least 80%, based on the glycerol content, and the continuous hydrogenation in both hydrogenation reactors being effected at a pressure in the range from 30 to 300 bar. a) a glycerol-containing stream is provided, and b) the glycerol-containing stream is subjected to a continuous hydrogenation in two hydrogenation reactors connected in series in the presence of a heterogeneous copper catalyst, the conversion in the first reactor being at least 80%, based on the glycerol content, and the continuous hydrogenation in both hydrogenation reactors being effected at a pressure in the range from 30 to 300 bar.