mhurhangee/patent-ind-claim-en huggingface dataset:
A passive radio frequency (RF) shim resonator configured for field homogenization of an RF field emitted by an RF antenna device of a magnetic resonance (MR) imaging system , whereby the passive RF shim resonator configured to have a first resonating capability and a second resonating capability, and the passive RF shim resonator comprises a switching device, whereby the switching device is adapted to switch the passive RF shim resonator between the first and the second resonating capability in accordance with a transmit (TX)-mode and a receive (RX)-mode to tune the passive RF shim resonator for independent homogenization of the clockwise and counterclockwise rotating circularly polarised magnetic field components (B 1 ± ), respectively, of the RF field emitted by the RF antenna device of the MR imaging system , wherein the passive RF shim resonator comprises multiple electromagnetically coupled resonant loops arranged in a 2D or 3D grid structure forming an artificial dielectric , and the switching device comprises multiple switching units arranged in the multiple electromagnetically coupled resonant loops , and the switching device is configured to operate so that the multiple switching units switch the multiple electromagnetically coupled resonant loops to provide the first and the second resonating capability using the multiple electromagnetically coupled resonant loops . the passive RF shim resonator configured to have a first resonating capability and a second resonating capability, and the passive RF shim resonator comprises a switching device, whereby the switching device is adapted to switch the passive RF shim resonator between the first and the second resonating capability in accordance with a transmit (TX)-mode and a receive (RX)-mode to tune the passive RF shim resonator for independent homogenization of the clockwise and counterclockwise rotating circularly polarised magnetic field components (B 1 ± ), respectively, of the RF field emitted by the RF antenna device of the MR imaging system , wherein the passive RF shim resonator comprises multiple electromagnetically coupled resonant loops arranged in a 2D or 3D grid structure forming an artificial dielectric , and the switching device comprises multiple switching units arranged in the multiple electromagnetically coupled resonant loops , and the switching device is configured to operate so that the multiple switching units switch the multiple electromagnetically coupled resonant loops to provide the first and the second resonating capability using the multiple electromagnetically coupled resonant loops .
Rectifier transformer comprising at least one primary , at least one secondary with phase windings (5.1, 5.2, 5.3), a pair of magnetic transducers (6.1, 6.4) per phase winding, all in a tank , one of the transducers (6.1) comprising one or several first conducting bars (10.1) and the other comprising one or several second conducting bars (10.2), the first and second conducting bars of the pair of transducers all being connected at one end to the same phase winding (5.1, 5.2, 5.3), the or each first conducting bar (10.1) being connected at another end to a single positive output connection terminal (2w+) that will be connected to a positive arm (7.12) of the rectifier , the or each second conducting bar (10.2) being connected by another end to a single negative output connection terminal (2w-) that will be connected to a negative arm (7.11) of the rectifier, characterised in that all conducting bars (10.1, 10.2) of the pair of magnetic transducers (6.1, 6.4) form one or several groups, each group being surrounded by a magnetic torus or a set of magnetic toruses (2.1, 2.2, 2.3) and comprising one or several first conducting bars and one or several second conducting bars such that when the output connection terminals are short circuited and the transformer is powered by alternating current through its primary, the current that passes through the first conducting bar(s) of a group and the current that passes through the second conducting bar(s) of the same group are in opposite directions, the current or the sum of the currents in one direction being approximately equal to the current or the sum of the currents in the other direction.
A method of wireless communications by a first device, the method comprising: determining a time interval between each of a set of packets to be transmitted over a short-range wireless communications link with a second device, wherein the time interval is based on scheduling information associated with a second communications technology of the first device; determining a size of each of the set of packets based on the time interval; encoding data with a bitrate that is based on the time interval and on the size of each of the set of packets; packetizing the encoded data in the set of packets; transmitting the set of packets to the second device over the short-range wireless communications link, each of the set of packets being separated by the time interval when transmitted; and determining , based on the time interval, a respective time to play, TTP, associated with each encoded data packetized in each of the set of packets, wherein each of the set of packets includes the respective TTP. determining a time interval between each of a set of packets to be transmitted over a short-range wireless communications link with a second device, wherein the time interval is based on scheduling information associated with a second communications technology of the first device; determining a size of each of the set of packets based on the time interval; encoding data with a bitrate that is based on the time interval and on the size of each of the set of packets; packetizing the encoded data in the set of packets; transmitting the set of packets to the second device over the short-range wireless communications link, each of the set of packets being separated by the time interval when transmitted; and determining , based on the time interval, a respective time to play, TTP, associated with each encoded data packetized in each of the set of packets, wherein each of the set of packets includes the respective TTP.
A pharmaceutical preparation for use in oral administration to an adult patient with an UGT1A1 *28 allele in need of antihypertensive treatment comprising 2-aminoethanesulfonic acid and a therapeutically active agent selected from the group consisting of amlodipine, telmisartan, irbesartan, valsartan, losartan, olmesartan, azilsartan and a pharmaceutically acceptable salt thereof.
A case sealer comprising: a base assembly ; a top-head assembly supported by the base assembly; a pneumatic cylinder operably connected to the top-head assembly to move the top-head assembly relative to the base assembly ; a valve fluidly connectable to a gas source and in fluid communication with the pneumatic cylinder , wherein the valve is openable to any one of multiple different open levels; characterised in that it comprises: a first sensor (S) configured to detect a case; and a controller communicatively connected to the first sensor and operably connected to the valve to control the open level of the valve, the controller configured to, responsive to receiving a signal from the first sensor (S) indicating that the first sensor has detected the case: determine, based on a pressure of gas incoming from the gas source, an ascent open level to which to open the valve; and control the valve to open to the ascent open level to direct the gas to the pneumatic cylinder to begin raising the top-head assembly. a base assembly ; a top-head assembly supported by the base assembly; a pneumatic cylinder operably connected to the top-head assembly to move the top-head assembly relative to the base assembly ; a valve fluidly connectable to a gas source and in fluid communication with the pneumatic cylinder , wherein the valve is openable to any one of multiple different open levels; characterised in that it comprises: a first sensor (S) configured to detect a case; and a controller communicatively connected to the first sensor and operably connected to the valve to control the open level of the valve, the controller configured to, responsive to receiving a signal from the first sensor (S) indicating that the first sensor has detected the case: determine, based on a pressure of gas incoming from the gas source, an ascent open level to which to open the valve; and control the valve to open to the ascent open level to direct the gas to the pneumatic cylinder to begin raising the top-head assembly. determine, based on a pressure of gas incoming from the gas source, an ascent open level to which to open the valve; and control the valve to open to the ascent open level to direct the gas to the pneumatic cylinder to begin raising the top-head assembly.
A vehicle comprising an engine arranged to apply a first drive torque to a first wheel for moving the vehicle; and an electric motor arranged to apply a second drive torque to a second wheel for moving the vehicle when in a drive mode and to generate a current when placed in a braking mode of operation and the electric motor is being driven by the second wheel, wherein the electric motor is arranged to operate in the braking mode when the engine is applying a drive torque to the first wheel and a controller for controlling the current generated by the electric motor when in the brake mode by controlling an amount of braking torque generated by the electric motor , characterized in that the controller is arranged to place the electric motor in the brake mode based upon an efficiency region that the engine is operating in.
An endoscope shape display control device comprising: at least one processor , wherein the at least one processor is configured to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject (H), and to display on a monitor , in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, wherein the pattern is a gradation in which a color is changed continuously or stepwise from one of a distal end side or a proximal end side of the insertion part to the other thereof, and wherein the gradation is changed from green to blue. at least one processor , wherein the at least one processor is configured to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject (H), and to display on a monitor , in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject (H), and to display on a monitor , in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, wherein the pattern is a gradation in which a color is changed continuously or stepwise from one of a distal end side or a proximal end side of the insertion part to the other thereof, and wherein the gradation is changed from green to blue.
A humanized antibody capable of binding to human Tim-3, comprising: a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO 28, and a light chain variable domain having the amino acid sequence of SEQ ID NO 36. a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO 28, and a light chain variable domain having the amino acid sequence of SEQ ID NO 36.
An integrated circuit comprising: a reference signal generation circuit comprising: a first front end of line, FEOL, resistor and a second FEOL resistor formed in at least one FEOL device level of the integrated circuit , wherein the first resistor and the second resistor are coupled in series, an output node between the first resistor and the second resistor , wherein a reference signal is generated at the output node, and a back end of line, BEOL, programmable resistive element formed in at least one BEOL wiring level of the integrated circuit , wherein the programmable resistive element is coupled in series with the second resistor , and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element . a first front end of line, FEOL, resistor and a second FEOL resistor formed in at least one FEOL device level of the integrated circuit , wherein the first resistor and the second resistor are coupled in series, an output node between the first resistor and the second resistor , wherein a reference signal is generated at the output node, and a back end of line, BEOL, programmable resistive element formed in at least one BEOL wiring level of the integrated circuit , wherein the programmable resistive element is coupled in series with the second resistor , and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element . the programmable resistive element is coupled in series with the second resistor , and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element .
A phase difference estimator to estimate a phase difference between clock signals of a first device and a second device , the phase difference estimator comprising: a delay element to delay a reference clock signal of the first device by one of a plurality of delay values, the reference clock signal comprising a waveform of alternating symbols; a sampler to sample a monitored clock signal received from the second device responsive to edges of the delayed reference clock signal to generate sampled signal outputs , the monitored clock signal generated and provided by the second device; a noise-reduction element to sample the sampled signal outputs and to provide noise-reduced sampled signal outputs based on the sampled signal outputs; a correlation element to correlate the noise-reduced sampled signal outputs with a step function to generate a correlation value for each of the delay values; and a controller to instruct the delay element to delay the reference clock signal by a selected one of the delay values and provide a phase difference estimate output based on the correlation value, the phase difference estimate output indicative of a phase difference between the reference clock signal and the monitored clock signal; and characterised by that the noise reduction element is configured to, when the reference clock signal has a frequency that is an integer X multiple of a frequency of the monitored clock signal, generate the noise-reduced sampled signal output using every Xth sample of the sampled signal output and discard the X-1 intermediary samples. a delay element to delay a reference clock signal of the first device by one of a plurality of delay values, the reference clock signal comprising a waveform of alternating symbols; a sampler to sample a monitored clock signal received from the second device responsive to edges of the delayed reference clock signal to generate sampled signal outputs , the monitored clock signal generated and provided by the second device; a noise-reduction element to sample the sampled signal outputs and to provide noise-reduced sampled signal outputs based on the sampled signal outputs; a correlation element to correlate the noise-reduced sampled signal outputs with a step function to generate a correlation value for each of the delay values; and a controller to instruct the delay element to delay the reference clock signal by a selected one of the delay values and provide a phase difference estimate output based on the correlation value, the phase difference estimate output indicative of a phase difference between the reference clock signal and the monitored clock signal; and characterised by that the noise reduction element is configured to, when the reference clock signal has a frequency that is an integer X multiple of a frequency of the monitored clock signal, generate the noise-reduced sampled signal output using every Xth sample of the sampled signal output and discard the X-1 intermediary samples.
A continuous subcutaneous infusion catheter, comprising: an elongate flexible cannula having a cannula wall and a proximal portion with a proximal end and a distal portion with a distal end, wherein the proximal end is configured to be attached to a pump, and wherein the distal end is substantially atraumatic; wherein the elongate flexible cannula further comprises a reinforcing filament wound around and/or within the cannula wall and configured to prevent the elongate flexible cannula from kinking; and a plurality of side holes in the distal portion extending through the cannula wall, the side holes positioned along an axial length and radially around the cannula in a helical pattern, wherein the holes extend along an axial length of the cannula that is approximately 3 to 10 mm long; and wherein the proximal portion is more flexible than the distal portion. an elongate flexible cannula having a cannula wall and a proximal portion with a proximal end and a distal portion with a distal end, wherein the proximal end is configured to be attached to a pump, and wherein the distal end is substantially atraumatic; wherein the elongate flexible cannula further comprises a reinforcing filament wound around and/or within the cannula wall and configured to prevent the elongate flexible cannula from kinking; and a plurality of side holes in the distal portion extending through the cannula wall, the side holes positioned along an axial length and radially around the cannula in a helical pattern, wherein the holes extend along an axial length of the cannula that is approximately 3 to 10 mm long; and wherein the proximal portion is more flexible than the distal portion.
A recombinant tyrosine ammonia lyase (TAL), comprising the polypeptide sequence of SEQ ID NO: 10, 12 or 14, or comprising a variant selected from Variant No. 4-9, 12-23, 25-28, 30-35, 38-49, 51, 53-58, 60-63, 65-71, 73, 77-80, 83-85, 87, 89-92, 94, 98, 100-102, 106, 108, 110, 111, 113-122, 125, 126, 128-134, 136-139, 142-144, 146-148, 150-152 or 155-294 as shown in Tables 4-1, 4-2, 4-3, 4-4, 4-5, 4-6 and/or 4-7.
A control device for an internal combustion engine , the internal combustion engine comprising an engine body and a fuel injector injecting fuel for combustion inside a combustion chamber of the engine body , wherein the control device comprises a combustion control part configured to successively perform at least first main fuel injection and second main fuel injection to cause premix charged compression ignition of the fuel so as to cause heat generation two times in stages inside the combustion chamber so that a pressure waveform showing a change of a rate of cylinder pressure rise over time becomes a two-peak shape and so that a peak ratio which is a ratio of a first peak value of a first peak of the pressure waveform formed by a first heat generation and a second peak value of a second peak of the pressure waveform formed by a second heat generation falls within a predetermined range, and the combustion control part comprises a second ignition delay time calculating part configured to calculate a second ignition delay time which is an estimated value of an ignition delay time of fuel injected by the second main fuel injection, and the combustion control part is configured so that if an injection correction amount for an amount of fuel injected from the fuel injector is set, when the second ignition delay time is less than a predetermined value, the injection correction amount is applied to a second target injection amount which is a target injection amount of the second main fuel injection. the control device comprises a combustion control part configured to successively perform at least first main fuel injection and second main fuel injection to cause premix charged compression ignition of the fuel so as to cause heat generation two times in stages inside the combustion chamber so that a pressure waveform showing a change of a rate of cylinder pressure rise over time becomes a two-peak shape and so that a peak ratio which is a ratio of a first peak value of a first peak of the pressure waveform formed by a first heat generation and a second peak value of a second peak of the pressure waveform formed by a second heat generation falls within a predetermined range, and the combustion control part comprises a second ignition delay time calculating part configured to calculate a second ignition delay time which is an estimated value of an ignition delay time of fuel injected by the second main fuel injection, and the combustion control part is configured so that if an injection correction amount for an amount of fuel injected from the fuel injector is set, when the second ignition delay time is less than a predetermined value, the injection correction amount is applied to a second target injection amount which is a target injection amount of the second main fuel injection.
A transport container for transporting temperature-sensitive transport goods, including an interior for receiving the transport goods, which is defined by an enclosure made up of several layers comprising at least one latent heat accumulator layer , wherein at least one energy distribution layer made of a highly heat-conductive material is disposed on the side facing away from the interior and on the side facing the interior, of the at least one latent heat accumulator layer , characterized in that the energy distribution layers each surround the interior of the transport container on all sides and wherein the at least one energy distribution layer comprises a thermal conductivity λ > 200 W/(m.K).
Lighting and/or signalling device for a motor vehicle, said device comprising at least one light source , each light source emitting, towards a light guide of the said device, a plurality of light rays along an emission volume having a central axis , said light guide guiding the light rays in such a way as to produce an overall light beam emitted along a main emission direction , the light guide comprising, in a central zone having a central width, a central optical system comprising a first Fresnel system and a second Fresnel system cooperating to cause a deflection of the light rays emitted by the at least one light source of the light-emitting diode type in a global direction of deflected rays, characterized in that the first and second Fresnel systems are arranged opposite each other, an air volume being placed between the first Fresnel system and the second Fresnel systems, and in that the overall direction of deflected rays has with said central axis an angle greater than twenty degrees.