mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a functionalized polymer, the process comprising (a) providing a functionalizing compound having formula,, or, as follows: wherein a is an integer selected from 0 or 1, b is an integer selected from 1 or 2 and a + b = 2, wherein c is an integer selected from 0 or 1, d is an integer selected from 1, 2 or 3, and c + d = 3, wherein a is an integer selected from 0 or 1, b is an integer selected from 1 or 2, a + b = 2, c is an integer selected from 0 or 1, d is an integer selected from 1 or 2, and c + d = 3, whe rein each R 1 is independently selected from a halogen atom, and a monovalent organic group optionally substituted with at least one heteroatom, each R 2 is independently selected from hydrogen and a monovalent organic group, and R 3 is a multivalent organic group optionally substituted with at least one heteroatom, (b) reacting the functionalizing compound with a reactive conjugated diene-monomer containing polymer, thereby producing a polymer end functionalized with the functionalizing compound. (a) providing a functionalizing compound having formula,, or, as follows: wherein a is an integer selected from 0 or 1, b is an integer selected from 1 or 2 and a + b = 2, wherein c is an integer selected from 0 or 1, d is an integer selected from 1, 2 or 3, and c + d = 3, wherein a is an integer selected from 0 or 1, b is an integer selected from 1 or 2, a + b = 2, c is an integer selected from 0 or 1, d is an integer selected from 1 or 2, and c + d = 3, whe rein each R 1 is independently selected from a halogen atom, and a monovalent organic group optionally substituted with at least one heteroatom, each R 2 is independently selected from hydrogen and a monovalent organic group, and R 3 is a multivalent organic group optionally substituted with at least one heteroatom, (b) reacting the functionalizing compound with a reactive conjugated diene-monomer containing polymer,
A thrust reverser comprising a gimbal assembly for mounting a thrust reverser actuator to a fixed structure of the thrust reverser, the gimbal assembly characterised by comprising: a gimbal; first and second gimbal pins (110,111) mounted to the gimbal and defining a first pivot axis, the first and second gimbal pins (110,111) adapted to form a pivotal joint with the fixed structure of the thrust reverser; and third and fourth gimbal pins (120,121) mounted to the gimbal and defining a second pivot axis normal to the first pivot axis, the third and fourth gimbal pins (120,121) adapted to form a pivotal joint with the thrust reverser actuator; wherein the first and second gimbal pins (110,111) each include a shaft and a flange integrally formed together, the flange including a pair of bores (206a,206b) for receiving a fastener (302a to 302d) to fasten the respective gimbal pin (110,111) to the thrust reverser fixed structure; wherein the fixed structure comprises a plurality of front fittings (108,109) forming a portion of a thrust reverser, and the first and second gimbal pins (110, 111) pivotally couple a respective front fitting (108, 109) to the gimbal. a gimbal; first and second gimbal pins (110,111) mounted to the gimbal and defining a first pivot axis, the first and second gimbal pins (110,111) adapted to form a pivotal joint with the fixed structure of the thrust reverser; and third and fourth gimbal pins (120,121) mounted to the gimbal and defining a second pivot axis normal to the first pivot axis, the third and fourth gimbal pins (120,121) adapted to form a pivotal joint with the thrust reverser actuator; wherein the first and second gimbal pins (110,111) each include a shaft and a flange integrally formed together, the flange including a pair of bores (206a,206b) for receiving a fastener (302a to 302d) to fasten the respective gimbal pin (110,111) to the thrust reverser fixed structure; wherein the fixed structure comprises a plurality of front fittings (108,109) forming a portion of a thrust reverser, and the first and second gimbal pins (110, 111) pivotally couple a respective front fitting (108, 109) to the gimbal.
A method for wireless communication channel estimation, the method comprising: (a) determining a frequency offset hypothesis; (b) generating an interchannel interference, ICI, matrix based on the frequency offset hypothesis; (c) obtaining pilot channel estimates based on the ICI matrix; (d) calculating a correlation error of the pilot channel estimates to the frequency offset hypothesis; (e) comparing the correlation error with a predetermined correlation error value; (f) updating the frequency offset hypothesis and iteratively repeating steps (a)-(e) if the correlation error is greater than the predetermined correlation error value; and (g) using the pilot channel estimates to estimate the wireless communication channel. (a) determining a frequency offset hypothesis; (b) generating an interchannel interference, ICI, matrix based on the frequency offset hypothesis; (c) obtaining pilot channel estimates based on the ICI matrix; (d) calculating a correlation error of the pilot channel estimates to the frequency offset hypothesis; (e) comparing the correlation error with a predetermined correlation error value; (f) updating the frequency offset hypothesis and iteratively repeating steps (a)-(e) if the correlation error is greater than the predetermined correlation error value; and (g) using the pilot channel estimates to estimate the wireless communication channel.
Pulse generator having a galvanically isolated output, in particular for a consumption meter, wherein a control output of a control unit of the pulse generator is coupled to an input of an opto-isolator of the pulse generator in order to output at the output of the opto-isolator an output current controlled by the control unit, wherein the opto-isolator is connected to a field-effect transistor in such a way that the output current from the opto-isolator charges a capacitance via a rectifying component, which blocks the capacitance from discharging via the opto-isolator, wherein the voltage drop across the capacitance is the gate voltage of the field-effect transistor, wherein the field-effect transistor switches the output of the pulse generator directly or indirectly, characterized in that the pulse generator is configured to set a switching state of the output of the pulse generator for a predetermined time interval by the control unit outputting at the control output a plurality of pulses (34, 36) during the predetermined time interval, wherein the control unit is designed to output at the control output, at the start of the predetermined time interval, a first pulse having a first length, and then during the time interval at least a second pulse having a second length, which is shorter than the first length.
A method for providing broadband access, comprising: providing a radio base station in connection with a power-line communication gateway of a PLC; connecting the PLC gateway and a PLC modem to an operation and management system (O&M); the radio base station transmitting an information signal wirelessly to a fixed wireless router, the FWR forwarding the information signal to the PLC gateway; the PLC gateway receiving the information signal and transmitting the information signal via a power-line to the PLC modem via an outlet at an inside of a dwelling; characterized by the FWR locking to an operator and cell; the PLC modem powering a communication device; the PLC modem identifying end-users; the PLC modem identifying a source of the information signal and passing a correct information signal to a right end-user; the PLC modem regulating a data rate that pass through the PLC modem based on a subscription type of the right end-user and setting an upper limit of the data rate based on the subscription type; and the O&M controlling and monitoring the PLC and FWR. providing a radio base station in connection with a power-line communication gateway of a PLC; connecting the PLC gateway and a PLC modem to an operation and management system (O&M); the radio base station transmitting an information signal wirelessly to a fixed wireless router, the FWR forwarding the information signal to the PLC gateway; the PLC gateway receiving the information signal and transmitting the information signal via a power-line to the PLC modem via an outlet at an inside of a dwelling; characterized by the FWR locking to an operator and cell; the PLC modem powering a communication device; the PLC modem identifying end-users; the PLC modem identifying a source of the information signal and passing a correct information signal to a right end-user; the PLC modem regulating a data rate that pass through the PLC modem based on a subscription type of the right end-user and setting an upper limit of the data rate based on the subscription type; and the O&M controlling and monitoring the PLC and FWR.
A computer-implemented method comprising: determining a direction of a user's gaze based on information from a head/eye/gaze tracking system; generating a representation of a construction site based on data received at a first time from sensors located on a construction machine; determining a difference between the representation of the construction site and a desired site plan; determining an operation to be performed based on the difference; determining an image to be displayed to the user based on the direction of the user's gaze, the representation of the construction site, the desired site plan, and the operation to be performed, the image comprising an excavation area overlay depicting an area which is to be modified according to the desired site plan, a volume overlay providing the user with information concerning a volume of earth to be removed from the excavation area, and a completion overlay providing the user with an indication of the level of completion of the operation; displaying the image to the user; updating the representation of the construction site based on data received at a second time from the sensors located on the construction machine to generate an updated representation; determining an updated image to be displayed to the user based on the direction of the user's gaze, the updated representation of the construction site, the desired site plan, and an additional operation to be performed based on a difference between the updated representation and the desired site plan; and displaying the updated image to the user. determining a direction of a user's gaze based on information from a head/eye/gaze tracking system; generating a representation of a construction site based on data received at a first time from sensors located on a construction machine; determining a difference between the representation of the construction site and a desired site plan; determining an operation to be performed based on the difference; determining an image to be displayed to the user based on the direction of the user's gaze, the representation of the construction site, the desired site plan, and the operation to be performed, the image comprising an excavation area overlay depicting an area which is to be modified according to the desired site plan, a volume overlay providing the user with information concerning a volume of earth to be removed from the excavation area, and a completion overlay providing the user with an indication of the level of completion of the operation; displaying the image to the user; updating the representation of the construction site based on data received at a second time from the sensors located on the construction machine to generate an updated representation; determining an updated image to be displayed to the user based on the direction of the user's gaze, the updated representation of the construction site, the desired site plan, and an additional operation to be performed based on a difference between the updated representation and the desired site plan; and displaying the updated image to the user.
A faucet assembly, comprising: an armature that is adapted to be connected to a sink or a counter top, the armature includes an outlet adapted to discharge a water flow into the sink; an ozone chamber defined by a housing having a top and a bottom, and a water inlet and a water outlet connected to the ozone chamber; a flow control valve connected to the water inlet; a fluid conveying connection between the water outlet of the ozone chamber and the armature; a sensor that is adapted to detect a user's presence; an ozone generator located within the ozone chamber (30; and a controller configured to receive signals from the sensor and operate the flow control valve and the ozone generator, the controller being configured to run a disinfection cycle at least on an occasional basis in which the ozone generator is activated, and after a pre-determined time period, the controller opens the flow control valve to flush a sink drain line with ozone-rich water, characterized in that the controller is further configured to detect a current draw of the ozone generator and adjust the pre-determined time period that the ozone generator is activated to control a concentration of ozone in the water in the chamber. an armature that is adapted to be connected to a sink or a counter top, the armature includes an outlet adapted to discharge a water flow into the sink; an ozone chamber defined by a housing having a top and a bottom, and a water inlet and a water outlet connected to the ozone chamber; a flow control valve connected to the water inlet; a fluid conveying connection between the water outlet of the ozone chamber and the armature; a sensor that is adapted to detect a user's presence; an ozone generator located within the ozone chamber (30; and a controller configured to receive signals from the sensor and operate the flow control valve and the ozone generator, the controller being configured to run a disinfection cycle at least on an occasional basis in which the ozone generator is activated, and after a pre-determined time period, the controller opens the flow control valve to flush a sink drain line with ozone-rich water, characterized in that the controller is further configured to detect a current draw of the ozone generator and adjust the pre-determined time period that the ozone generator is activated to control a concentration of ozone in the water in the chamber.
Method for operating a consumer module (3, 3.1, 3.2) having at least one electrical consumer (19, 20; 19.1, 20.1) and a drive unit (18, 18.1, 18.2) for driving the electrical consumer (19, 20; 19.1, 20.1) via a converter (2, 2.1) having an interface, wherein - the consumer module (3, 3.1, 3.2) with its at least one electrical consumer (19, 20; 19.1, 20.1) is supplied with constant voltage via the interface of the converter (2, 2.1) and receives drive data, - the converter (2, 2.1) is supplied with a control signal on the input side, characterised in that - a drive signal received by the converter (2, 2.1) is converted into a digital control value which is standardised independently of the type of the at least one electrical consumer of the consumer module (3, 3.1, 3.2), which control value is provided at a contact (8.2) of the interface for tapping by the consumer module (3, 3.1, 3.2), and - the at least one electrical consumer (19, 20; 19.1, 20.1) of the consumer module (3, 3.1, 3.2) is actuated by the drive unit (18, 18.1, 18.2) in accordance with the control value present at the contact (8.2), wherein an individualisation of the control value present as a scalable actuation signal into a consumer- or load-related actuation parameterisation only takes place in the consumer module. - the consumer module (3, 3.1, 3.2) with its at least one electrical consumer (19, 20; 19.1, 20.1) is supplied with constant voltage via the interface of the converter (2, 2.1) and receives drive data, - the converter (2, 2.1) is supplied with a control signal on the input side, characterised in that - a drive signal received by the converter (2, 2.1) is converted into a digital control value which is standardised independently of the type of the at least one electrical consumer of the consumer module (3, 3.1, 3.2), which control value is provided at a contact (8.2) of the interface for tapping by the consumer module (3, 3.1, 3.2), and - the at least one electrical consumer (19, 20; 19.1, 20.1) of the consumer module (3, 3.1, 3.2) is actuated by the drive unit (18, 18.1, 18.2) in accordance with the control value present at the contact (8.2), wherein an individualisation of the control value present as a scalable actuation signal into a consumer- or load-related actuation parameterisation only takes place in the consumer module.
A method, comprising: forming, from a first color plane relating to a first colorant and a second color plane relating to a second colorant, a third color plane indicating whether both the first colorant and the second colorant will be placed on ones of a plurality of pixels, a fourth color plane indicating whether either or both of the first colorant and the second colorant will be placed on the ones of the plurality of pixels to form non-white pixels, and a fifth color plane indicating whether one, but not both, of the first colorant and the second colorant will be placed on the ones of the plurality of pixels; and performing a compression on the third color plane, the fourth color plane, and the fifth color plane. forming, from a first color plane relating to a first colorant and a second color plane relating to a second colorant, a third color plane indicating whether both the first colorant and the second colorant will be placed on ones of a plurality of pixels, a fourth color plane indicating whether either or both of the first colorant and the second colorant will be placed on the ones of the plurality of pixels to form non-white pixels, and a fifth color plane indicating whether one, but not both, of the first colorant and the second colorant will be placed on the ones of the plurality of pixels; and performing a compression on the third color plane, the fourth color plane, and the fifth color plane.
A multivalent immunogenic composition comprising polysaccharide-protein conjugates consisting of pneumococcal capsular polysaccharides from Streptococcus pneumoniae serotypes 1, 3, 4, 5, 6A, 6B, 7F, 9V, 14, 18C, 19A, 19F and 23F individually conjugated to CR-M 197, comprising from 1 to 5 μg of each polysaccharide; from 20 to 100 μg/mL CRM 197 carrier protein; from 0.02 to 2 mg/mL of elemental aluminum in the form of aluminum phosphate; from 0.5 to 1.25% sodium chloride; from 0.002 to 0.2 % polysorbate 80; from 1 to 10 mM sodium succinate buffer at a pH from 4 to 7; and from 7 to 15 mg/mL of 2-phenoxyethanol.
An inductance-to-data converter, i.e. IDC, integrated circuit suitable for operation with external sense and reference resonators Lsense and Lref, the Lsense and Lref resonators including respectively a sense inductor coil LS, and a reference inductor coil LR, and including a common resonator capacitor Cc, the IDC circuit comprising: an LSENSE output for coupling to the LS inductor coil; an LREF output for coupling to the LR inductor coil; an LCOM input for coupling to the resonator capacitor Cc; an Lsense driver with an output coupled to the LSENSE output, and an input coupled to the LCOM input, the Lsense driver selectively enabled by an out enable signal OEsense; an Lref driver with an output coupled to the LREF output, and an input coupled to the LCOM input, the Lref driver selectively enabled by an out enable signal OEref; the OEsense and OEref signals controlled to time-multiplex operation of the Lsense and Lref drivers; the Lsense driver operable with the Lsense resonator as an Lsense ring oscillator to drive, when enabled by the OEsense signal, time-multiplexed Lsense resonator excitation signals through the LSENSE output, based on time-multiplexed Lsense resonance measurements received from the LCOM input; the Lref driver operable with the Lref resonator as an Lref ring oscillator to drive, when enabled by the OEref signal, time-multiplexed Lref resonator excitation signals through the LREF output, based on time-multiplexed Lref resonance measurements received from the LCOM input; and readout circuitry to provide differential readout data based on the time-multiplexed Lsense and Lref resonance measurements, corresponding respectively to inductances of the LS and LR inductor coils. an LSENSE output for coupling to the LS inductor coil; an LREF output for coupling to the LR inductor coil; an LCOM input for coupling to the resonator capacitor Cc; an Lsense driver with an output coupled to the LSENSE output, and an input coupled to the LCOM input, the Lsense driver selectively enabled by an out enable signal OEsense; an Lref driver with an output coupled to the LREF output, and an input coupled to the LCOM input, the Lref driver selectively enabled by an out enable signal OEref; the OEsense and OEref signals controlled to time-multiplex operation of the Lsense and Lref drivers; the Lsense driver operable with the Lsense resonator as an Lsense ring oscillator to drive, when enabled by the OEsense signal, time-multiplexed Lsense resonator excitation signals through the LSENSE output, based on time-multiplexed Lsense resonance measurements received from the LCOM input; the Lref driver operable with the Lref resonator as an Lref ring oscillator to drive, when enabled by the OEref signal, time-multiplexed Lref resonator excitation signals through the LREF output, based on time-multiplexed Lref resonance measurements received from the LCOM input; and readout circuitry to provide differential readout data based on the time-multiplexed Lsense and Lref resonance measurements, corresponding respectively to inductances of the LS and LR inductor coils.
A secret random number synthesizing device, assuming that "t" is an integer of zero or more, m = 2t+1, "i" is any of integers ranging from one to "m", inclusive, [a j], [b i] and [c i] are secure texts of "a i ', "b i " and "c i " whose numbers are each "m", k 0,..., k m are (m+1) different values, and f(x) and g(x) are random t-th order polynomials, comprising: a secure text generation part that generates secure texts [x i] of x i satisfying x i = f(k i), and secure texts [y i] of y i satisfying y i = g(k i), for i = 0,..., m; a fragment generation part that generates ε i decrypted from [x i]-[a i] and ρ i decrypted from [y i]-[b i], for i = 1,..., m, and calculates [c i] + ε i [b i] + ρ i [a i] + ε i ρ i and generates secure texts [z 1],..., [z m]; and a random number synthesizing part that generates a secure text [z 0] by calculating a following formula, z 0 ← ∑ j = 1 2 ⁢ t + 1 λ j k 0 z j where λ j x = ∏ 1 ≤ i ≤ 2 ⁢ t + 1, i ≠ j x − k i k j − k i a secure text generation part that generates secure texts [x i] of x i satisfying x i = f(k i), and secure texts [y i] of y i satisfying y i = g(k i), for i = 0,..., m; a fragment generation part that generates ε i decrypted from [x i]-[a i] and ρ i decrypted from [y i]-[b i], for i = 1,..., m, and calculates [c i] + ε i [b i] + ρ i [a i] + ε i ρ i and generates secure texts [z 1],..., [z m]; and a random number synthesizing part that generates a secure text [z 0] by calculating a following formula, z 0 ← ∑ j = 1 2 ⁢ t + 1 λ j k 0 z j where λ j x = ∏ 1 ≤ i ≤ 2 ⁢ t + 1, i ≠ j x − k i k j − k i