mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound imaging system comprising: a controller configured to control a probe for imaging a volume of a subject, wherein the imaging comprises transmitting and receiving ultrasound signals in accordance with a plurality of scan line patterns; and one or more processors in communication with the probe, and characterized in that the one or more processors are configured to: generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume. a controller configured to control a probe for imaging a volume of a subject, wherein the imaging comprises transmitting and receiving ultrasound signals in accordance with a plurality of scan line patterns; and one or more processors in communication with the probe, and characterized in that the one or more processors are configured to: generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume. generate a plurality of image data sets from the received ultrasound signals, each image data set corresponding to one of the scan line patterns; select a target characteristic specific to an object in the volume after scanning and based on data received at the ultrasound probe, wherein the target characteristic is a characteristic of the object that meets an image quality threshold; assess the image data sets for the target characteristic specific to the object in the volume; identify an image data set that includes the target characteristic; and select the scan line pattern, which corresponds to the identified image data set, for subsequent imaging of the volume.
An apparatus configured to change a geometry of a blood vessel in contact with a nerve comprising: a body portion having a proximal end and a distal end; and one or more marker elements (42, 44) disposed on said body portion; said body portion comprising at least two wires wrapped about one another to form a braided wire, the body portion being sized and shaped to change the geometry of the blood vessel upon insertion of the apparatus into the blood vessel to no longer contact the nerve, and being configured to have a certain rigidity to achieve mechanical restructuring of the blood vessel upon insertion of the apparatus into the blood vessel to reduce blood vessel pulsation. a body portion having a proximal end and a distal end; and one or more marker elements (42, 44) disposed on said body portion; said body portion comprising at least two wires wrapped about one another to form a braided wire, the body portion being sized and shaped to change the geometry of the blood vessel upon insertion of the apparatus into the blood vessel to no longer contact the nerve, and being configured to have a certain rigidity to achieve mechanical restructuring of the blood vessel upon insertion of the apparatus into the blood vessel to reduce blood vessel pulsation.
A method for transmitting, by a user equipment, UE, uplink, UL, data, the method comprising: receiving, by the UE, configuration information of multiple logical channels, LoCHs, the configuration information including a priority bit rate, PBR, for each of the multiple LoCHs and a priority value for each of the multiple LoCHs; receiving, by the UE, a UL grant; performing, by the UE, a logical channel prioritization, LCP, procedure based on the UL grant; and transmitting, by the UE, data of at least one LoCH of the multiple LoCHs based on the UL grant, wherein performing the LCP procedure comprises: based on the UL grant being related to a licensed cell, disabling a PBR for a U-LoCH among the multiple LoCHs by setting the PBR for the U-LoCH to zero; allocating, by the UE, UL resources of the UL grant to the at least one LoCH of the multiple LoCHs based on respective PBRs and priority values for the multiple LoCHs, wherein the U-LoCH is mapped to both the licensed cell and an unlicensed cell. receiving, by the UE, configuration information of multiple logical channels, LoCHs, the configuration information including a priority bit rate, PBR, for each of the multiple LoCHs and a priority value for each of the multiple LoCHs; receiving, by the UE, a UL grant; performing, by the UE, a logical channel prioritization, LCP, procedure based on the UL grant; and transmitting, by the UE, data of at least one LoCH of the multiple LoCHs based on the UL grant, wherein performing the LCP procedure comprises: based on the UL grant being related to a licensed cell, disabling a PBR for a U-LoCH among the multiple LoCHs by setting the PBR for the U-LoCH to zero; allocating, by the UE, UL resources of the UL grant to the at least one LoCH of the multiple LoCHs based on respective PBRs and priority values for the multiple LoCHs, wherein the U-LoCH is mapped to both the licensed cell and an unlicensed cell. based on the UL grant being related to a licensed cell, disabling a PBR for a U-LoCH among the multiple LoCHs by setting the PBR for the U-LoCH to zero; allocating, by the UE, UL resources of the UL grant to the at least one LoCH of the multiple LoCHs based on respective PBRs and priority values for the multiple LoCHs, wherein the U-LoCH is mapped to both the licensed cell and an unlicensed cell.
A face covering (20, 30, 40) comprising: a tubular member; a first loop (21, 22) disposed on the tubular member and configured to be attached to a first ear of a human; a second loop (21, 22) disposed on the tubing member and configured to be attached to a second ear of the human; and wherein the tubing member, the first loop (21, 22) and the second loop (21, 22) are in one piece, characterized in that the first loop (21, 22) and the second loop (21, 22) are arranged at a first end of the tubular element. a tubular member; a first loop (21, 22) disposed on the tubular member and configured to be attached to a first ear of a human; a second loop (21, 22) disposed on the tubing member and configured to be attached to a second ear of the human; and wherein the tubing member, the first loop (21, 22) and the second loop (21, 22) are in one piece, characterized in that the first loop (21, 22) and the second loop (21, 22) are arranged at a first end of the tubular element.
A voltage reference circuit (100; 200) comprising: a first transistor (110; 210) comprising a gate terminal (116; 216), a source terminal (112; 212), a drain terminal (114; 214) and a bulk terminal (118; 218); a second transistor (120; 220) comprising a gate terminal (126; 226), a source terminal (122; 222), a drain terminal (124; 224) and a bulk terminal (128; 228), wherein the first transistor (110; 210) and the second transistor (120; 220) are arranged in a stacked connection between a terminal connected to ground and a terminal connected to a supply voltage, wherein a reference voltage is output at an output node (140; 240) between the first transistor (110; 210) and the second transistor (120; 220); a regulating transistor (130; 230) comprising a gate terminal (136; 236), a source terminal (132; 232), a drain terminal (134; 234) and a bulk terminal (138; 238), wherein the regulating transistor (130; 230) is connected between the supply voltage and the first transistor (110; 210) in a stacked connection with the second transistor (120; 220), wherein the bulk terminal (138; 238) of the regulating transistor (130; 230) is connected to the output node (140; 240) for compensating changes in the reference voltage at the output node (140; 240) to maintain a stable reference voltage level. a first transistor (110; 210) comprising a gate terminal (116; 216), a source terminal (112; 212), a drain terminal (114; 214) and a bulk terminal (118; 218); a second transistor (120; 220) comprising a gate terminal (126; 226), a source terminal (122; 222), a drain terminal (124; 224) and a bulk terminal (128; 228), wherein the first transistor (110; 210) and the second transistor (120; 220) are arranged in a stacked connection between a terminal connected to ground and a terminal connected to a supply voltage, wherein a reference voltage is output at an output node (140; 240) between the first transistor (110; 210) and the second transistor (120; 220); a regulating transistor (130; 230) comprising a gate terminal (136; 236), a source terminal (132; 232), a drain terminal (134; 234) and a bulk terminal (138; 238), wherein the regulating transistor (130; 230) is connected between the supply voltage and the first transistor (110; 210) in a stacked connection with the second transistor (120; 220), wherein the bulk terminal (138; 238) of the regulating transistor (130; 230) is connected to the output node (140; 240) for compensating changes in the reference voltage at the output node (140; 240) to maintain a stable reference voltage level.
A method for preparing dimethyl carbonate comprising the following steps: contacting a raw material comprising ethylene carbonate and methanol with a catalyst to produce dimethyl carbonate; wherein the catalyst comprises an ionic liquid with an anion and a cation; wherein the anion and the cation both comprise a nitrogen-containing heterocycle; wherein the catalyst further comprises a support, and the ionic liquid is embedded in the support in a riveting manner. contacting a raw material comprising ethylene carbonate and methanol with a catalyst to produce dimethyl carbonate; wherein the catalyst comprises an ionic liquid with an anion and a cation; wherein the anion and the cation both comprise a nitrogen-containing heterocycle; wherein the catalyst further comprises a support, and the ionic liquid is embedded in the support in a riveting manner.
A communication apparatus comprising: a judgment section arranged to judge a state of receiving a downlink control channel from a base station; and a control channel transmission section arranged to generate a frame to be transmitted by an uplink control channel, in which frame a plurality of time blocks are arranged including a top time block, the frame having a format selected from among multiple uplink control channel frame formats; characterised by: a power control section arranged not to assign transmission power to the top time block in the frame generated by the control channel transmission section, if it is judged by the judgment section that the downlink control channel has not been received; and by the control channel transmission section being further arranged to generate said frame regardless of the format selected to include, in the top time block, confirmation of receiving or not receiving the downlink control channel at the communication apparatus. a judgment section arranged to judge a state of receiving a downlink control channel from a base station; and a control channel transmission section arranged to generate a frame to be transmitted by an uplink control channel, in which frame a plurality of time blocks are arranged including a top time block, the frame having a format selected from among multiple uplink control channel frame formats; characterised by: a power control section arranged not to assign transmission power to the top time block in the frame generated by the control channel transmission section, if it is judged by the judgment section that the downlink control channel has not been received; and by the control channel transmission section being further arranged to generate said frame regardless of the format selected to include, in the top time block, confirmation of receiving or not receiving the downlink control channel at the communication apparatus.
A cell analyzing apparatus comprising: a histogram acquirer which is configured to - perform a flow cytometry measurement of a number of nuclear stained cells, - determine a histogram indicating a fluorescence intensity from said measurement using a given gating process; and - normalize the histogram, an analysis controller which is configured to - apply a Fast Fourier Transform to the data of the normalized histogram acquired by the histogram acquirer, - determine an area under curve by computing an area under the Fast Fourier Transform curve which is obtained by applying the Fast Fourier Transform to the normalized histogram, - conclude a nonexistence of cancer cells if the AUC from the cell sample is above a predetermined upper threshold wherein the predetermined upper threshold has been determined by - determining a plurality of AUC from a plurality nuclear stained cancer cell samples using the given gating process, - fixing the upper threshold as a maximum value of said plurality of AUC. a histogram acquirer which is configured to - perform a flow cytometry measurement of a number of nuclear stained cells, - determine a histogram indicating a fluorescence intensity from said measurement using a given gating process; and - normalize the histogram, - perform a flow cytometry measurement of a number of nuclear stained cells, - determine a histogram indicating a fluorescence intensity from said measurement using a given gating process; and - normalize the histogram, an analysis controller which is configured to - apply a Fast Fourier Transform to the data of the normalized histogram acquired by the histogram acquirer, - determine an area under curve by computing an area under the Fast Fourier Transform curve which is obtained by applying the Fast Fourier Transform to the normalized histogram, - conclude a nonexistence of cancer cells if the AUC from the cell sample is above a predetermined upper threshold - apply a Fast Fourier Transform to the data of the normalized histogram acquired by the histogram acquirer, - determine an area under curve by computing an area under the Fast Fourier Transform curve which is obtained by applying the Fast Fourier Transform to the normalized histogram, - conclude a nonexistence of cancer cells if the AUC from the cell sample is above a predetermined upper threshold wherein the predetermined upper threshold has been determined by - determining a plurality of AUC from a plurality nuclear stained cancer cell samples using the given gating process, - fixing the upper threshold as a maximum value of said plurality of AUC. - determining a plurality of AUC from a plurality nuclear stained cancer cell samples using the given gating process, - fixing the upper threshold as a maximum value of said plurality of AUC.
A fluid injection device comprising: a fluid supply unit that accommodates and supplies fluid; a fluid injection unit that injects fluid supplied from the fluid supply unit; and a driving waveform generating device including at least one adjusting device, characterised by: a one-input multiple-control parameter changing unit that simultaneously changes plural control parameters for determining a fluid injection condition of the fluid injection unit on the basis of a signal from the at least one adjusting device, and a driving waveform generator that generates and outputs a driving waveform of the fluid injection unit on the basis of the control parameters set by the one-input multiple-control parameter changing unit, wherein the one-input multiple-control parameter changing unit is equipped with an optimum control parameter setting table, wherein the optimum control parameter setting table includes a time-series driving waveform indicating value within a fixed time range which represents lapse-time-based voltage values of the driving waveform which are selected by the adjusting device in accordance with the exsection hardness of an operation site, wherein the one-input multiple-control parameter changing unit is arranged to control the plurality of control parameters based on a plurality of optimum control parameter setting tables, and wherein the adjusting device selects one of the plurality of optimum control parameter setting tables. a fluid supply unit that accommodates and supplies fluid; a fluid injection unit that injects fluid supplied from the fluid supply unit; and a driving waveform generating device including at least one adjusting device, characterised by: a one-input multiple-control parameter changing unit that simultaneously changes plural control parameters for determining a fluid injection condition of the fluid injection unit on the basis of a signal from the at least one adjusting device, and a driving waveform generator that generates and outputs a driving waveform of the fluid injection unit on the basis of the control parameters set by the one-input multiple-control parameter changing unit, wherein the one-input multiple-control parameter changing unit is equipped with an optimum control parameter setting table, wherein the optimum control parameter setting table includes a time-series driving waveform indicating value within a fixed time range which represents lapse-time-based voltage values of the driving waveform which are selected by the adjusting device in accordance with the exsection hardness of an operation site, wherein the one-input multiple-control parameter changing unit is arranged to control the plurality of control parameters based on a plurality of optimum control parameter setting tables, and wherein the adjusting device selects one of the plurality of optimum control parameter setting tables.
A process for making a linear low density polyethylene (LLDPE) film having a gel defect area less than or equal to 25 ppm, measured according to the method described in the experimental section of this specification, said process comprising copolymerizing ethylene with a C 3-10 α-olefin in the presence of a Ziegler-Natta catalyst which comprises a MgCl 2 support, a Ti(lV) complex, and a cyclic ether as an internal electron donor; wherein the Ziegler-Natta catalyst has an Mg/Ti molar ratio greater than or equal to 7, and, wherein the catalyst is characterized by an X-ray diffraction spectrum which, in the range of 2θ diffraction angles between 5.0° and 20.0°, has at least three main diffraction peaks; 28 of 7.2 ± 0.2°, and 11.5 ± 0.2°, and 14.5 ± 0.2°; and wherein the peak at 2θ of 7.2 ± 0.2° is most intense and the peak at 11.5 ± 0.2° has an intensity less than 90% of the intensity of the peak at 2θ of 7.2 ± 0.2°.
A method of producing an array of sharp metallic tips coated with a biocompatible coating comprising: providing a first array of sharp metallic tips (120, 906), characterized by further comprising: providing a titanium sheet shaped as an array of hollow sharp tips of dimensions suitable for fitting onto said first array of sharp metallic tips, wherein said titanium sheet is thicker at a sharp end of said sharp tips than at a broader section of said sharp tips; placing said titanium sheet onto said first array of sharp metallic tips such that said tips of said first array of sharp metallic tips insert into said hollow sharp tips of said titanium sheet; and attaching said titanium sheet onto said first array of sharp metallic tips with a heat conducting layer, thereby producing said array of sharp metallic tips having a thickness gradient in said titanium sheet. providing a first array of sharp metallic tips (120, 906), characterized by further comprising: providing a titanium sheet shaped as an array of hollow sharp tips of dimensions suitable for fitting onto said first array of sharp metallic tips, wherein said titanium sheet is thicker at a sharp end of said sharp tips than at a broader section of said sharp tips; placing said titanium sheet onto said first array of sharp metallic tips such that said tips of said first array of sharp metallic tips insert into said hollow sharp tips of said titanium sheet; and attaching said titanium sheet onto said first array of sharp metallic tips with a heat conducting layer, providing a titanium sheet shaped as an array of hollow sharp tips of dimensions suitable for fitting onto said first array of sharp metallic tips, wherein said titanium sheet is thicker at a sharp end of said sharp tips than at a broader section of said sharp tips; placing said titanium sheet onto said first array of sharp metallic tips such that said tips of said first array of sharp metallic tips insert into said hollow sharp tips of said titanium sheet; and attaching said titanium sheet onto said first array of sharp metallic tips with a heat conducting layer, thereby producing said array of sharp metallic tips having a thickness gradient in said titanium sheet.
A liquid stable vaccine that comprises a live attenuated bovine virus, 5 - 40% (w/v) of a sugar alcohol, and 0.15 to 0.75 M of an amino acid selected from the group consisting of arginine, glutamic acid, and glycine, and any combination thereof; wherein the liquid stable vaccine ranges in pH from pH 6.0 to pH 8.0, wherein the live attenuated bovine virus is selected from the group consisting of bovine viral diarrhea virus (BVDV), infectious bovine rinotracheitis virus, parainfluenza type 3 virus, bovine respiratory syncytial virus, Rift Valley fever virus, and bovine respiratory coronavirus, and any combination thereof.
A method for evaluating an ability of a selective catalytic reduction, SCR, system to convert NOx to nitrogen and water, the method comprising: introducing a controlled amount of exhaust gas recirculation system coolant into a vessel containing a SCR catalyst; contacting the SCR catalyst contained in the vessel with the exhaust gas recirculation system coolant for a period of time; introducing an exhaust gas from a diesel engine into the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; collecting first data related to NOx in the exhaust gas prior to introducing the exhaust gas into the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; collecting second data related to NOx in the exhaust gas after the exhaust gas has passed through the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; comparing the second data to a threshold standard; and evaluating operation of the SCR system based on a result of the comparison of the second data to the threshold standard. introducing a controlled amount of exhaust gas recirculation system coolant into a vessel containing a SCR catalyst; contacting the SCR catalyst contained in the vessel with the exhaust gas recirculation system coolant for a period of time; introducing an exhaust gas from a diesel engine into the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; collecting first data related to NOx in the exhaust gas prior to introducing the exhaust gas into the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; collecting second data related to NOx in the exhaust gas after the exhaust gas has passed through the vessel containing the SCR catalyst and the exhaust gas recirculation system coolant; comparing the second data to a threshold standard; and evaluating operation of the SCR system based on a result of the comparison of the second data to the threshold standard.