mhurhangee/ep-ind-claims huggingface dataset:
A phase sensitive amplifier that amplifies signal light based on three wave mixing using second-order nonlinear optical effects, comprising: an optical fiber laser amplifier for amplifying fundamental wave light; a first second-order nonlinear optical element that consists of a periodically-poled second-order nonlinear optical material and that includes an optical waveguide for generating a sum frequency light from the fundamental wave light based on the three wave mixing using second-order nonlinear optical effects; a sum frequency light selection filter (606-1, 607) for cutting the fundamental wave light; a multiplexer for multiplexing the signal light and the sum frequency light that is pump light; a second second-order nonlinear optical element that consists of a periodically-poled second-order nonlinear optical material and that includes an optical waveguide for parametric amplification of the signal light by using pump light; a filter for spectrally separating the amplified signal light from the pump light; and a synchronization system for synchronizing the phase of the signal light with the phase of the pump light, wherein the sum frequency light selection filter is put in the output side of the optical waveguide for generating a sum frequency light and the input side of the second second-order nonlinear optical element. an optical fiber laser amplifier for amplifying fundamental wave light; a first second-order nonlinear optical element that consists of a periodically-poled second-order nonlinear optical material and that includes an optical waveguide for generating a sum frequency light from the fundamental wave light based on the three wave mixing using second-order nonlinear optical effects; a sum frequency light selection filter (606-1, 607) for cutting the fundamental wave light; a multiplexer for multiplexing the signal light and the sum frequency light that is pump light; a second second-order nonlinear optical element that consists of a periodically-poled second-order nonlinear optical material and that includes an optical waveguide for parametric amplification of the signal light by using pump light; a filter for spectrally separating the amplified signal light from the pump light; and a synchronization system for synchronizing the phase of the signal light with the phase of the pump light, wherein the sum frequency light selection filter is put in the output side of the optical waveguide for generating a sum frequency light and the input side of the second second-order nonlinear optical element.
An isolated antibody or antibody fragment thereof which specifically binds human CD38 (SEQ ID NO:1) and cynomolgus CD38 (SEQ ID NO:2) comprising: a) a heavy chain variable region comprising: i) a first CDR comprising SEQ ID NO:3; ii) a second CDR comprising SEQ ID NO:4; iii) a third CDR comprising SEQ ID NO:5; b) a light chain variable region comprising: i) a first CDR comprising SEQ ID NO:6; ii) a second CDR comprising SEQ ID NO:7; iii) a third CDR comprising SEQ ID NO:8; and c) a covalently attached drug moiety; wherein the heavy chain variable region comprises an amino acid sequence having an identity of at least 95%, or at least 98% to SEQ ID NO:9 and the light chain variable region comprises an amino acid sequence having an identity of at least 95%, or at least 98% to SEQ ID NO:10; wherein the antibody or antibody fragment thereof interacts with at least K121, F135, Q139, D141, M142, E239, W241, S274, C275, K276, F284, V288, K289, N290, P291 E292 and D293 of SEQ ID NO:1 and SEQ ID NO:2, based on human sequence numbering; and wherein the antibody or antibody fragment thereof binds to human CD38 (SEQ ID NO:1) with a KD of 10 -8 M or greater affinity, wherein the KD is measured using surface plasmon resonance. a) a heavy chain variable region comprising: i) a first CDR comprising SEQ ID NO:3; ii) a second CDR comprising SEQ ID NO:4; iii) a third CDR comprising SEQ ID NO:5; i) a first CDR comprising SEQ ID NO:3; ii) a second CDR comprising SEQ ID NO:4; iii) a third CDR comprising SEQ ID NO:5; b) a light chain variable region comprising: i) a first CDR comprising SEQ ID NO:6; ii) a second CDR comprising SEQ ID NO:7; iii) a third CDR comprising SEQ ID NO:8; and i) a first CDR comprising SEQ ID NO:6; ii) a second CDR comprising SEQ ID NO:7; iii) a third CDR comprising SEQ ID NO:8; and c) a covalently attached drug moiety;
A method of controlling feedback parameters, comprising: determining a duration between a start time upon a button of a mouse being pressed, based on a signal associated with the button, and an end time that is triggered upon a movement of the mouse that is detected by a motion detection module of the mouse; wherein the end time is triggered upon the movement of the mouse regardless of whether the button is released or not; classifying a press force to be applied on the button of the mouse by a user into a category of a plurality of categories based on the duration determined; and controlling a parameter of the feedback corresponding to the press force based on the category the press force to be applied is classified. determining a duration between a start time upon a button of a mouse being pressed, based on a signal associated with the button, and an end time that is triggered upon a movement of the mouse that is detected by a motion detection module of the mouse; wherein the end time is triggered upon the movement of the mouse regardless of whether the button is released or not; classifying a press force to be applied on the button of the mouse by a user into a category of a plurality of categories based on the duration determined; and controlling a parameter of the feedback corresponding to the press force based on the category the press force to be applied is classified.
A compound selected in the group consisting of Nitazoxanide, Tizoxanide and Tizoxanide glucuronide, and a pharmaceutically acceptable salt of NTZ, TZ or TZG, for use in a method for the treatment of a fibrotic disorder.
A system for disinfecting ophthalmic lenses, the system comprising: an ophthalmic lens storage case (102, 300) for storing one or more reusable ophthalmic lenses, the storage case (102, 300) comprising an ophthalmic lens storage compartment and a cap, wherein the storage case (102, 300) includes a fastening mechanism (305A-305B) for securing and removing the cap from the ophthalmic lens storage compartment of the storage case (102, 300), such that when the cap is secured to the storage compartment, the cap seals off an ambient atmosphere from the storage compartment, and wherein one or more radiation windows (303, 304) are included in the storage case (102, 300) which provide portions of the storage case (102, 300) that are at least partially transparent to disinfecting radiation; and a base unit for receiving the ophthalmic lens storage case (102, 300), the base unit comprising: a base comprising a receptacle for receiving the ophthalmic lens storage case (102, 300); and a lid hinged to the base so as to fold over on top of the base, the lid comprising a source of disinfecting radiation for providing disinfecting radiation to the storage compartment in the storage case (102, 300); wherein the storage case (102, 300) includes a positioning artifact for aligning the source of disinfecting radiation with the storage case (102, 300). an ophthalmic lens storage case (102, 300) for storing one or more reusable ophthalmic lenses, the storage case (102, 300) comprising an ophthalmic lens storage compartment and a cap, wherein the storage case (102, 300) includes a fastening mechanism (305A-305B) for securing and removing the cap from the ophthalmic lens storage compartment of the storage case (102, 300), such that when the cap is secured to the storage compartment, the cap seals off an ambient atmosphere from the storage compartment, and wherein one or more radiation windows (303, 304) are included in the storage case (102, 300) which provide portions of the storage case (102, 300) that are at least partially transparent to disinfecting radiation; and a base unit for receiving the ophthalmic lens storage case (102, 300), the base unit comprising: a base comprising a receptacle for receiving the ophthalmic lens storage case (102, 300); and a lid hinged to the base so as to fold over on top of the base, the lid comprising a source of disinfecting radiation for providing disinfecting radiation to the storage compartment in the storage case (102, 300); a base comprising a receptacle for receiving the ophthalmic lens storage case (102, 300); and a lid hinged to the base so as to fold over on top of the base, the lid comprising a source of disinfecting radiation for providing disinfecting radiation to the storage compartment in the storage case (102, 300); wherein the storage case (102, 300) includes a positioning artifact for aligning the source of disinfecting radiation with the storage case (102, 300).
A method for expanding a data memory for an existing microprocessor architecture comprising a bank select accessing scheme for accessing data memory which is divided into a plurality of memory banks and a bank select register configured to select a memory bank and wherein the existing microprocessor architecture comprises an instruction set having a dedicated bank select instruction (MOVLB) for selecting a memory bank; wherein an opcode of the dedicated bank select instruction (MOVLB) provides for a maximum of n bits payload thereby providing for an address value which is configured to select a maximum of 2 n memory banks, wherein no additional opcode is added to the instruction set and wherein a processor of the existing microprocessor architecture is configured to operate in a normal operation mode or in a test mode; the method comprising the steps of: using an opcode of a test instruction that provides for m bits of payload for a new bank select instruction, wherein m>n, wherein the test instruction is a control instruction that updates simulation states when said processor of the existing microprocessor architecture operates in the test mode; and using an opcode of the dedicated bank select instruction for a new test instruction that updates simulation states when operating in the test mode. using an opcode of a test instruction that provides for m bits of payload for a new bank select instruction, wherein m>n, wherein the test instruction is a control instruction that updates simulation states when said processor of the existing microprocessor architecture operates in the test mode; and using an opcode of the dedicated bank select instruction for a new test instruction that updates simulation states when operating in the test mode.
A method of operating a cellular telecommunications network, the cellular telecommunications network including a first base station, a User Equipment, UE, and a remote transceiver, wherein the first base station is adapted to send a signal to the UE, the method comprising the steps of: receiving (S4.1;S4.2) data from an external sensor, the external sensor being external to the first base station, UE and remote transceiver, the data indicating a first change in a propagation environment between the first base station and the UE; and, in response, the remote transceiver repeating (S4.4;S4.5) a signal between the first base station and the UE at a first power level, and, subsequently, the remote transceiver repeating (S4.6) the signal between the first base station and the UE at a second power level, the second power level being less than the first power level. receiving (S4.1;S4.2) data from an external sensor, the external sensor being external to the first base station, UE and remote transceiver, the data indicating a first change in a propagation environment between the first base station and the UE; and, in response, the remote transceiver repeating (S4.4;S4.5) a signal between the first base station and the UE at a first power level, and, subsequently, the remote transceiver repeating (S4.6) the signal between the first base station and the UE at a second power level, the second power level being less than the first power level.
Curing press for a tyre blank, the press being characterized in that it comprises: - a frame comprising ramps, - an upper platen, - a lower platen bearing a shell capable of forming a side wall of the tyre, the lower platen being mounted to slide with respect to the frame and having ramps (34, 36), characterized in that the press comprises several segments, each forming a rigid solid, distributed circumferentially, comprising a follower, capable of forming a tread of the tyre and of each bearing against an edge of the lower platen on the one hand, and of bearing directly against one of the ramps (34, 36) on the other hand by virtue of the follower, each segment being able to bear, by virtue of the follower, both against one of the ramps (34, 36) of the lower platen and one of the ramps of the frame. - a frame comprising ramps, - an upper platen, - a lower platen bearing a shell capable of forming a side wall of the tyre, the lower platen being mounted to slide with respect to the frame and having ramps (34, 36), characterized in that the press comprises several segments, each forming a rigid solid, distributed circumferentially, comprising a follower, capable of forming a tread of the tyre and of each bearing against an edge of the lower platen on the one hand, and of bearing directly against one of the ramps (34, 36) on the other hand by virtue of the follower, each segment being able to bear, by virtue of the follower, both against one of the ramps (34, 36) of the lower platen and one of the ramps of the frame.
A wireless charging method using a back cover mobile power supply, characterized in that the method comprises: A, powering on a wireless charger, such that an induction coil is powered and generates an electromagnetic field; B, inducting the electromagnetic field and generating a current to a wireless charging device disposed in an intelligent terminal and including an MCU through the back cover mobile power supply; C, controlling the intelligent terminal and the back cover mobile power supply to enter a charging state when the current is detected by the wireless charging device; by the MCU, controlling a main battery of the intelligent terminal to be charged and controlling a power core of the back cover mobile power supply to be charged, respectively; D, controlling the intelligent terminal and the back cover mobile power supply to enter a power supply state, and connecting the main battery of the intelligent terminal and the power core of the back cover mobile power supply such that the power core of the back cover mobile power supply supplies power to the main battery, when no current is detected by the wireless charging device; and E, controlling the wireless charging device to enter a single charging mode such that the wireless charging device charges the main battery according to a charging voltage output by the back cover mobile power supply when the back cover mobile power supply detects a power switch key of the back cover mobile power supply being pressed. A, powering on a wireless charger, such that an induction coil is powered and generates an electromagnetic field; B, inducting the electromagnetic field and generating a current to a wireless charging device disposed in an intelligent terminal and including an MCU through the back cover mobile power supply; C, controlling the intelligent terminal and the back cover mobile power supply to enter a charging state when the current is detected by the wireless charging device; by the MCU, controlling a main battery of the intelligent terminal to be charged and controlling a power core of the back cover mobile power supply to be charged, respectively; D, controlling the intelligent terminal and the back cover mobile power supply to enter a power supply state, and connecting the main battery of the intelligent terminal and the power core of the back cover mobile power supply such that the power core of the back cover mobile power supply supplies power to the main battery, when no current is detected by the wireless charging device; and E, controlling the wireless charging device to enter a single charging mode such that the wireless charging device charges the main battery according to a charging voltage output by the back cover mobile power supply when the back cover mobile power supply detects a power switch key of the back cover mobile power supply being pressed.
Method for digitally compensating variations, as a function of temperature, of an electrical quantity of an embedded space radiofrequency telecommunications equipment item, the equipment item comprising N individual devices (12a, 12b,..., 12c), where N is greater than or equal to one, the electrical quantity of the equipment item having to be maintained at a predetermined setpoint value, the method consisting: - in measuring the temperature of the equipment item at different measurement instants, - at each measurement instant, in interrogating look-up tables, in which digital control words are stored that are to be applied to the equipment item to compensate for corresponding variations of the electrical variable as a function of the predetermined setpoint value and different registered digital temperature states corresponding to different measured temperature values, - when the measured temperature is situated between two digital temperature states stored in the look-up tables, in creating intermediate digital temperature states situated between the two stored digital temperature states and in computing, by interpolation, digital control words corresponding to the intermediate digital temperature states created, - in selecting a digital control word corresponding to the measured temperature then in delivering, to the equipment item, the analogue control corresponding to the selected digital control word, the method being characterized in that it further consists, between two stored digital control words, in creating, by interpolation, intermediate digital control words encoded using a number of bits that is higher than the number of stored digital control words. - in measuring the temperature of the equipment item at different measurement instants, - at each measurement instant, in interrogating look-up tables, in which digital control words are stored that are to be applied to the equipment item to compensate for corresponding variations of the electrical variable as a function of the predetermined setpoint value and different registered digital temperature states corresponding to different measured temperature values, - when the measured temperature is situated between two digital temperature states stored in the look-up tables, in creating intermediate digital temperature states situated between the two stored digital temperature states and in computing, by interpolation, digital control words corresponding to the intermediate digital temperature states created, - in selecting a digital control word corresponding to the measured temperature then in delivering, to the equipment item, the analogue control corresponding to the selected digital control word,
Hoisting gear for a mobile implement, in particular a tractor having at least one lower linkage arrangement which can be adjusted by means of an electrohydraulic hoisting gear controller, and at least one hydraulic upper linkage which can be adjusted under pressure control and whose pressure spaces (38, 40) can be connected to a pump or to a tank via a directional-control valve arrangement, characterized by a check valve block which is arranged on the upper linkage and has releasable check valves (70, 72) which are each assigned to a pressure space (38, 40) of the upper linkage, wherein pressure pickups (78, 80) for detecting the pressure in the assigned pressure space (38, 40) are arranged in the pressure medium flow path between the pressure spaces (38, 40) and the directional-control valve arrangement.
A S1P receptor modulator for use in the treatment of relapsing-remitting multiple sclerosis, at a daily dosage of 0.5 mg p.o., wherein said S1P receptor modulator is 2-amino-2-[2-(4-octylphenyl) ethyl]propane-1,3-diol in free form or in a pharmaceutically acceptable salt form.
A non-aqueous dispersion comprising a continuous phase and a dispersed phase, wherein the dispersed phase comprises a dispersion polymerization reaction product prepared from a reaction mixture comprising an ethylenically unsaturated monomer, an acrylic polymer stabilizer, and an aliphatic polyester stabilized seed polymer.
A method for Hybrid Automatic Repeat reQuest-Acknowledgement, HARQ-ACK, feedback information transmission configured to operate in a 3GPP system, wherein the method comprises: transmitting, by a terminal, a group of data channels to a base station, wherein the group of data channels corresponds to N bits of feedback information, and N is a positive integer; receiving, by the terminal, a group of target information from the base station, wherein the group of target information comprises at least a piece of target information, each piece of target information in the group of target information comprises a first information field and a second information field, the first information field comprises M bits of feedback information for the group of data channels, and the second information field is used for determining a correspondence between the first information field and the group of data channels, M is a positive integer, and the number of bits contained in the second information field is determined based on the maximum number of Hybrid Automatic Repeat Request, HARQ, processes configured for the terminal, wherein each piece of target information in the group of target information is transmitted in a constant size DCI so as to transmit the N bits of feedback information, and wherein the group of target information comprises P pieces of target information transmitted in P constant size DCIs, where P is a positive integer, wherein when unused bits remain in the last transmitted constant size DCI, a third information field containing padding information is transmitted, and wherein when the value of M is less than the value of N, P is greater than 1. transmitting, by a terminal, a group of data channels to a base station, wherein the group of data channels corresponds to N bits of feedback information, and N is a positive integer; receiving, by the terminal, a group of target information from the base station, wherein the group of target information comprises at least a piece of target information, each piece of target information in the group of target information comprises a first information field and a second information field, the first information field comprises M bits of feedback information for the group of data channels, and the second information field is used for determining a correspondence between the first information field and the group of data channels, M is a positive integer, and the number of bits contained in the second information field is determined based on the maximum number of Hybrid Automatic Repeat Request, HARQ, processes configured for the terminal, wherein each piece of target information in the group of target information is transmitted in a constant size DCI so as to transmit the N bits of feedback information, and wherein the group of target information comprises P pieces of target information transmitted in P constant size DCIs, where P is a positive integer, wherein when unused bits remain in the last transmitted constant size DCI, a third information field containing padding information is transmitted, and wherein when the value of M is less than the value of N, P is greater than 1.
An osteoinductive differentiation medium for differentiation of human adipose stem cells (hASCs) into osteoprogenitor cells, the medium comprising a p38 MAPK inhibitor at a concentration of 0.1 to less than 10 μM, wherein the p38 MAPK inhibitor is 4-(4-Fluorophenyl)-2-(4-hydroxyphenyl)-5-(4-pyridyl)-1 H-imidazole or 1-[2-Methoxy-4-(methylthio)-benzoyl]-4-benzylpiperidine.