mhurhangee/ep-ind-claims huggingface dataset:
A heat exchanger comprising: at least one first section configured to circulate a fluid; at least one second section configured to circulate a fluid, the fluid flow in the at least one second section being separate from the fluid flow in the at least one first section; at least one air moving device to circulate air through both the at least one first section and the at least one second section; the at least one first section being positioned next to and substantially parallel to the at least one second section; and the at least one first section and the at least one second section are positioned to have the air exiting the at least one first section entering the at least one second section, characterized in that the at least one first section comprises a pair of coils positioned in a V-shape and the at least one second section comprises a pair of coils positioned in a V-shape, wherein the at least one first section and the at least one second section are stacked or nested to form a V-shaped heat exchanger portion comprising an inner and an outer V-shaped section. at least one first section configured to circulate a fluid; at least one second section configured to circulate a fluid, the fluid flow in the at least one second section being separate from the fluid flow in the at least one first section; at least one air moving device to circulate air through both the at least one first section and the at least one second section; the at least one first section being positioned next to and substantially parallel to the at least one second section; and the at least one first section and the at least one second section are positioned to have the air exiting the at least one first section entering the at least one second section, characterized in that the at least one first section comprises a pair of coils positioned in a V-shape and the at least one second section comprises a pair of coils positioned in a V-shape, wherein the at least one first section and the at least one second section are stacked or nested to form a V-shaped heat exchanger portion comprising an inner and an outer V-shaped section.
A method for the production of a pharmaceutical composition of biologically active recombinant human G-CSF comprising obtaining biologically active human G-CSF from inclusion bodies comprising the steps: (a) solubilizing the G-CSF contained in the inclusion bodies with a solubilization buffer containing a denaturing agent and a reducing agent; (b) refolding the G-CSF by diluting the solubilizate with a refolding buffer containing reduced and oxidized glutathione at a temperature > 10 °C; (c) purifying the refolded G-CSF by at least one chromatography step comprising reversed phase chromatography, wherein a less hydrophobic G-CSF isoform in the G-CSF sample obtained after the refolding step (b), which has a content of alpha-helical structures of 66 % and lower hydrophobicity than a G-CSF reference standard having 52 % alpha-helical structures is separated by being eluted in an earlier fraction than the G-CSF reference standard, wherein the RP chromatography step is preceded by a cation exchange chromatography; and (d) formulating the resultant G-CSF in a pharmaceutical composition with a pharmaceutical acceptable carrier, wherein the content of the less hydrophobic G-CSF isoform in the pharmaceutical composition is below 1 % of total G-CSF protein. (a) solubilizing the G-CSF contained in the inclusion bodies with a solubilization buffer containing a denaturing agent and a reducing agent; (b) refolding the G-CSF by diluting the solubilizate with a refolding buffer containing reduced and oxidized glutathione at a temperature > 10 °C; (c) purifying the refolded G-CSF by at least one chromatography step comprising reversed phase chromatography, wherein a less hydrophobic G-CSF isoform in the G-CSF sample obtained after the refolding step (b), which has a content of alpha-helical structures of 66 % and lower hydrophobicity than a G-CSF reference standard having 52 % alpha-helical structures is separated by being eluted in an earlier fraction than the G-CSF reference standard, wherein the RP chromatography step is preceded by a cation exchange chromatography; and (d) formulating the resultant G-CSF in a pharmaceutical composition with a pharmaceutical acceptable carrier, wherein the content of the less hydrophobic G-CSF isoform in the pharmaceutical composition is below 1 % of total G-CSF protein.
A blacklist management method, comprising: detecting, by a first terminal, an acceleration of the first terminal; if it is determined that the acceleration is greater than or equal to a first preset value, acquiring identification information of a second terminal, wherein the second terminal is a terminal that communicates with the first terminal; and adding the identification information to a blacklist; wherein before the detecting, by a first terminal, an acceleration of the first terminal, the method further comprises: receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request: and the detecting, by a first terminal, an acceleration of the first terminal comprises: if it is determined that the blacklist does not comprise the identification information of the second terminal, turning on an acceleration sensor and detecting the acceleration of the first terminal. detecting, by a first terminal, an acceleration of the first terminal; if it is determined that the acceleration is greater than or equal to a first preset value, acquiring identification information of a second terminal, wherein the second terminal is a terminal that communicates with the first terminal; and adding the identification information to a blacklist; wherein before the detecting, by a first terminal, an acceleration of the first terminal, the method further comprises: receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request: and the detecting, by a first terminal, an acceleration of the first terminal comprises: if it is determined that the blacklist does not comprise the identification information of the second terminal, turning on an acceleration sensor and detecting the acceleration of the first terminal. receiving a call request sent by the second terminal, and determining the identification information of the second terminal according to the call request: and the detecting, by a first terminal, an acceleration of the first terminal comprises: if it is determined that the blacklist does not comprise the identification information of the second terminal, turning on an acceleration sensor and detecting the acceleration of the first terminal.
An apparatus comprising at least one processor, and at least one memory including computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus to: receive a first transmission from a second terminal device; measure over a first time window to provide a measured channel busy ratio; determine a determined channel occupancy ratio based at least partly on the received first transmission; update the measured channel busy ratio based at least partly on the determined channel occupancy ratio and the measured channel busy ratio, wherein the measured channel busy ratio is updated by subtracting at least a part of the determined channel occupancy ratio from the measured channel busy ratio; determine a channel occupancy ratio limit based at least partly on the updated measured channel busy ratio and a sidelink transmit power of the apparatus; wherein the apparatus is comprised in a first terminal device. receive a first transmission from a second terminal device; measure over a first time window to provide a measured channel busy ratio; determine a determined channel occupancy ratio based at least partly on the received first transmission; update the measured channel busy ratio based at least partly on the determined channel occupancy ratio and the measured channel busy ratio, wherein the measured channel busy ratio is updated by subtracting at least a part of the determined channel occupancy ratio from the measured channel busy ratio; determine a channel occupancy ratio limit based at least partly on the updated measured channel busy ratio and a sidelink transmit power of the apparatus; wherein the apparatus is comprised in a first terminal device.
Master bus device for a motor vehicle, said device being designed to exchange messages with slave bus devices via a vehicle communication bus of the motor vehicle, wherein, in the master bus device, an operating schedule stored in a memory of said master bus device defines which messages the master bus device exchanges with the slave bus devices, wherein the master bus device has a switching device which is designed to receive a control signal from an external transmitter and, depending on the control signal, to switch from the memory comprising the operating schedule to a further memory comprising a maintenance schedule that differs from the operating schedule, thereby defining the maintenance schedule as the schedule that is used during the exchange of messages, characterised in that the switching device is designed to detect a time period that has passed since switching to the maintenance schedule and to switch back to the operating schedule if the detected time period is greater than a predetermined threshold value.
A method for time-domain allocation of radio resources in a communication system using beamforming, wherein said method comprises the steps of: - obtaining a list of wireless devices (12A, B) to be served; - allocating subcarriers and beam directions of a multi-directional beamform to wireless devices (12A, B) of said list; wherein said beam direction for each wireless device (12A, B) covers a position of that wireless device (12A, B); wherein the number of allocable subcarriers is limited to fulfil a beam-forming power constraint; said beam-forming power constraint being that the total power of allocated subcarriers, when each allocated subcarrier provides a same effective isotropic radiated power density for a wireless device (12A, B) as would be provided by a single-directional beamform (22A-I), will be within a predetermined power budget. - obtaining a list of wireless devices (12A, B) to be served; - allocating subcarriers and beam directions of a multi-directional beamform to wireless devices (12A, B) of said list; wherein said beam direction for each wireless device (12A, B) covers a position of that wireless device (12A, B); wherein the number of allocable subcarriers is limited to fulfil a beam-forming power constraint; said beam-forming power constraint being that the total power of allocated subcarriers, when each allocated subcarrier provides a same effective isotropic radiated power density for a wireless device (12A, B) as would be provided by a single-directional beamform (22A-I), will be within a predetermined power budget.
Method of processing attenuation of pre-echo in a digital audio signal engendered on the basis of a transform-based coding, in which, on decoding, the method comprises the following steps: - detection (601, Detect.) of an attack position in the decoded signal; - determination (602, ZPE) of a pre-echo zone preceding the attack position detected in the decoded signal; - calculation (603, F. Att.) of attenuation factors per sub-block of the pre-echo zone, as a function at least of the frame in which the attack has been detected and of the previous frame; - attenuation (604, Att.) of pre-echo in the sub-blocks of the pre-echo zone by the corresponding attenuation factors; the method being characterized in that it furthermore comprises: - the application of an adaptive filtering (606, F) of spectral shaping of the pre-echo zone on the current frame until as far as the detected position of the attack, the filtering being zero-phase finite impulse response filtering with transfer function: c n z − 1 + 1 − 2 c n + c n z with c(n) a coefficient lying between 0 and 0.25. - detection (601, Detect.) of an attack position in the decoded signal; - determination (602, ZPE) of a pre-echo zone preceding the attack position detected in the decoded signal; - calculation (603, F. Att.) of attenuation factors per sub-block of the pre-echo zone, as a function at least of the frame in which the attack has been detected and of the previous frame; - attenuation (604, Att.) of pre-echo in the sub-blocks of the pre-echo zone by the corresponding attenuation factors; - the application of an adaptive filtering (606, F) of spectral shaping of the pre-echo zone on the current frame until as far as the detected position of the attack, the filtering being zero-phase finite impulse response filtering with transfer function: c n z − 1 + 1 − 2 c n + c n z with c(n) a coefficient lying between 0 and 0.25.
Thread tensioning device for a sewing machine - with a tensioning shaft configured such as to allow a sewing thread to be tensioned to be wound around said tensioning shaft, - with at least one tensioning unit (34, 35) interacting with the tensioning shaft to generate a thread tension in the path of the sewing thread downstream of the tensioning shaft, - with a thread path deflecting element to deflect a thread path of the sewing thread, - wherein a thread path of the thread tensioning device is such that the sewing thread -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution. - with a tensioning shaft configured such as to allow a sewing thread to be tensioned to be wound around said tensioning shaft, - with at least one tensioning unit (34, 35) interacting with the tensioning shaft to generate a thread tension in the path of the sewing thread downstream of the tensioning shaft, - with a thread path deflecting element to deflect a thread path of the sewing thread, - wherein a thread path of the thread tensioning device is such that the sewing thread -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution. -- is first wound around the tensioning shaft to generate a first thread tension contribution, -- then runs over the thread path deflecting element and -- is then wound around the tensioning shaft again to generate a second thread tension contribution.
A positioning system for positioning a patient for diagnostic imaging, the system comprising: a sensor arrangement with at least one sensor (14, 16) configured to provide a sensor signal indicative of at least one body parameter of the patient; a controller configured to determine a value of the at least one body parameter based on the sensor signal of the at least one sensor (14, 16); and at least one actuatable support configured to move at least one of an arm and a leg of the patient with respect to a torso of the patient; wherein the controller is configured to actuate the at least one actuatable support depending on the determined value of the at least one body parameter to move at least one of the arm and the leg relative to the torso of the patient, such that the patient is guided to a posture for diagnostic imaging, characterized in that the controller is configured to determine a movement limitation of at least one of the arm and the leg with respect to the torso of the patient based on the sensor signal of the at least one sensor (14, 16). a sensor arrangement with at least one sensor (14, 16) configured to provide a sensor signal indicative of at least one body parameter of the patient; a controller configured to determine a value of the at least one body parameter based on the sensor signal of the at least one sensor (14, 16); and at least one actuatable support configured to move at least one of an arm and a leg of the patient with respect to a torso of the patient; wherein the controller is configured to actuate the at least one actuatable support depending on the determined value of the at least one body parameter to move at least one of the arm and the leg relative to the torso of the patient, such that the patient is guided to a posture for diagnostic imaging, characterized in that the controller is configured to determine a movement limitation of at least one of the arm and the leg with respect to the torso of the patient based on the sensor signal of the at least one sensor (14, 16).
A grinding head for a floor grinding machine for grinding floor surfaces of stone or stone-like material, the grinding head comprising: a lower casing member, comprising a lower support and an upwardly extending edge portion, and an upper casing member, comprising an upper cover and a downwardly extending edge portion, wherein the upper casing member is joinable to the lower casing member by causing axially distal portions of the edge portions (22, 32) to bear on each other characterised in that: the distal portion of the edge portion of one of the casing members (2, 3) comprises an axial support surface and a radially outwardly facing radial support surface, and the distal portion of the edge portion of the other casing member comprises an axial support surface and a radially inwardly facing radial support surface, such that when the casing members (2, 3) are in a joined state, the axial support surfaces (25, 35) abut each other and the inwardly facing radial support surface is positioned radially outside the outwardly facing radial support surface. a lower casing member, comprising a lower support and an upwardly extending edge portion, and an upper casing member, comprising an upper cover and a downwardly extending edge portion, wherein the upper casing member is joinable to the lower casing member by causing axially distal portions of the edge portions (22, 32) to bear on each other the distal portion of the edge portion of one of the casing members (2, 3) comprises an axial support surface and a radially outwardly facing radial support surface, and the distal portion of the edge portion of the other casing member comprises an axial support surface and a radially inwardly facing radial support surface, such that when the casing members (2, 3) are in a joined state, the axial support surfaces (25, 35) abut each other and the inwardly facing radial support surface is positioned radially outside the outwardly facing radial support surface.
A method for managing content that is scheduled for broadcast during a first time period, the method comprising the steps of: receiving an input from a user on a first device to delay the content to a second time period, the second time period being different from the first time period; determining whether the first device is connected to a first wireless communication system; sending a data message to a host controller if the first device is connected to the first wireless communication system, the data message comprising a plurality of information elements including at least a delay content instruction; and obtaining the content scheduled for broadcast during the first time period to permit the user to playback the content during the second time period; wherein the first device being in a domain selected from a group consisting of at least the home, vehicle, and person, characterised in that the step of determining comprises determining whether the first device is wirelessly connected to a first wireless communication system, and the method further comprising sending the obtained content to a second device to permit the user to playback the content during a second time period on the second device, the first device being in a domain that is different than the second device. receiving an input from a user on a first device to delay the content to a second time period, the second time period being different from the first time period; determining whether the first device is connected to a first wireless communication system; sending a data message to a host controller if the first device is connected to the first wireless communication system, the data message comprising a plurality of information elements including at least a delay content instruction; and obtaining the content scheduled for broadcast during the first time period to permit the user to playback the content during the second time period; wherein the first device being in a domain selected from a group consisting of at least the home, vehicle, and person, characterised in that the step of determining comprises determining whether the first device is wirelessly connected to a first wireless communication system, and the method further comprising sending the obtained content to a second device to permit the user to playback the content during a second time period on the second device, the first device being in a domain that is different than the second device.
A vertical earth unit incorporating the main earth electrode with identical diameter along the entire length, composed of metallic current-conducting tube or rod segments joined with each other permanently, features a metallic protective coat composed of tube sections, and features a chisel tip from the side of driving into ground, characterized in that the main earth electrode (1 and 10) composed of tube or rod segments (4,40) is located in the protective coat (2 and 20) in a free manner, and the tube sections (6 and 60) of the protective coat (2 and 20) mounted on the segments (4 and 40) of the main earth electrode (1 and 10) are free between each other, whereas the connection points of the segments (4 and 40) of the main earth electrode (1 and 10) are shifted in relation to the connection points of the tube sections (6 and 60) and the protective coat (2 and 20).
Method for detecting losses of working fluid in a closed thermodynamic cycle, in which there is a two-phase state, wherein • vibrations are measured in at least two dimensions by means of a plurality of acceleration sensors (16, 17, 18), the vibrations of at least one component of the system in which the working fluid is present in two phases, • said measured data are recorded, • time series are formed from the latter, • said time series are transformed into the frequency domain, wherein frequency spectra are generated, • the frequency spectra are listed according to time and recorded in different operating states, • the frequency spectra are correlated with one another according to different operating times, • differences of the frequency spectra are detected with the same operating states, • and with a shift of the frequency spectra a warning signal is output, • acceleration sensors (16, 17, 18) detect vibrations excited by the system and characterised in that at least one oscillation generator (19, 20) dampens said vibrations excited by the system by means of opposite phase vibrations. • vibrations are measured in at least two dimensions by means of a plurality of acceleration sensors (16, 17, 18), the vibrations of at least one component of the system in which the working fluid is present in two phases, • said measured data are recorded, • time series are formed from the latter, • said time series are transformed into the frequency domain, wherein frequency spectra are generated, • the frequency spectra are listed according to time and recorded in different operating states, • the frequency spectra are correlated with one another according to different operating times, • differences of the frequency spectra are detected with the same operating states, • and with a shift of the frequency spectra a warning signal is output, • acceleration sensors (16, 17, 18) detect vibrations excited by the system and