mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing hot-stamped components comprising: providing a hot-stamped component (21, 26) by hot forming die quenching; selecting a first and a second portion of the hot-stamped component (21,26) for which a microstructure is to be changed, wherein the first portion has a different width than the second portion; providing a laser system, wherein the laser system comprises one or more optical elements and a laser source for generating a laser beam; moving the laser system along a length of the component, while in a single pass applying a laser beam onto the selected first and second portions to change their microstructure of the hot-stamped component (21, 26) using the laser system, wherein a laser beam spot size is adjusted during the application of the laser beam and is adapted to the widths of the first and second portions, and wherein a power of the laser beam is regulated based on the temperature measured in the determined portions of the hot-stamped component, wherein the first portion is a soft zone for absorbing energy in a crash, and the second portion is a portion used in a post-operation. providing a hot-stamped component (21, 26) by hot forming die quenching; selecting a first and a second portion of the hot-stamped component (21,26) for which a microstructure is to be changed, wherein the first portion has a different width than the second portion; providing a laser system, wherein the laser system comprises one or more optical elements and a laser source for generating a laser beam; moving the laser system along a length of the component, while in a single pass applying a laser beam onto the selected first and second portions to change their microstructure of the hot-stamped component (21, 26) using the laser system, wherein a laser beam spot size is adjusted during the application of the laser beam and is adapted to the widths of the first and second portions, and wherein a power of the laser beam is regulated based on the temperature measured in the determined portions of the hot-stamped component, wherein the first portion is a soft zone for absorbing energy in a crash, and the second portion is a portion used in a post-operation.
A vinylidene fluoride polymer powder having a median diameter of 50 μm or less as determined by the particle size at an integrated value of 50 % in a volume-based particle size distribution determined by a wet laser diffraction scattering method, wherein the vinylidene fluoride polymer powder has a maximum melting peak temperature Tm1 of 130°C or higher at a first heating in differential scanning calorimetry, determined according to the method disclosed in the description, and when a shear viscosity is defined as a value measured at a shear rate of 100 s -1 using a parallel plate rheometer while heating is performed from 25°C to 80°C at a temperature increasing rate of 5°C/min, determined according to the method disclosed in the description, a temperature at which a shear viscosity of a dispersion obtained by dispersing the vinylidene fluoride polymer powder in N-methylpyrrolidone at a concentration of 6 wt.% becomes equal to 5 times as great as a shear viscosity thereof at 30°C, is 44°C or higher and lower than 80°C. wherein the vinylidene fluoride polymer powder has a maximum melting peak temperature Tm1 of 130°C or higher at a first heating in differential scanning calorimetry, determined according to the method disclosed in the description, and when a shear viscosity is defined as a value measured at a shear rate of 100 s -1 using a parallel plate rheometer while heating is performed from 25°C to 80°C at a temperature increasing rate of 5°C/min, determined according to the method disclosed in the description, a temperature at which a shear viscosity of a dispersion obtained by dispersing the vinylidene fluoride polymer powder in N-methylpyrrolidone at a concentration of 6 wt.% becomes equal to 5 times as great as a shear viscosity thereof at 30°C, is 44°C or higher and lower than 80°C.
A connector, comprising: a connection face; a chamber; at least one optical fiber holder having a first end positioned within at least a portion of an opening in the connection face and a second end positioned within at least a portion of the chamber; and at least one biasing element positioned within the chamber and configured to bias the optical fiber holder toward the connection face; characterized by: the at least one optical fiber holder having an opening in a lateral side surface for receiving an optical fiber, and at least one passageway from the chamber to the connection face, the passageway providing a pressure communication link between the connection face and the chamber. a connection face; a chamber; at least one optical fiber holder having a first end positioned within at least a portion of an opening in the connection face and a second end positioned within at least a portion of the chamber; and at least one biasing element positioned within the chamber and configured to bias the optical fiber holder toward the connection face; characterized by: the at least one optical fiber holder having an opening in a lateral side surface for receiving an optical fiber, and at least one passageway from the chamber to the connection face, the passageway providing a pressure communication link between the connection face and the chamber. the at least one optical fiber holder having an opening in a lateral side surface for receiving an optical fiber, and at least one passageway from the chamber to the connection face, the passageway providing a pressure communication link between the connection face and the chamber.
A brain examination apparatus, wherein the apparatus comprises a data processing unit configured to receive electroencephalographic data based on a measurement of a comatose person with a potential brain injury in an intensive care unit exposed to estimated or measured one or more non-zero amounts of anesthetic drug substance; determine and present result data which shows the activity of the slow waves with respect to a first predetermined threshold, which is based on an expected effect of the anesthetic drug substance, the activity of slow waves of the electroencephalographic data being as a function of the estimated or measured one or more non-zero amounts of the anesthetic drug substance, the frequency of the slow waves being at or below 1 Hz, and characterized in that the result data showing the activity of the slow waves of a brain of said comatose person is lower than a second statistically predetermined threshold of comatose intensive care unit patients at the one or more non-zero amounts of the anaesthetic drug substance in a case of the severe anoxic brain injury. receive electroencephalographic data based on a measurement of a comatose person with a potential brain injury in an intensive care unit exposed to estimated or measured one or more non-zero amounts of anesthetic drug substance; determine and present result data which shows the activity of the slow waves with respect to a first predetermined threshold, which is based on an expected effect of the anesthetic drug substance, the activity of slow waves of the electroencephalographic data being as a function of the estimated or measured one or more non-zero amounts of the anesthetic drug substance, the frequency of the slow waves being at or below 1 Hz, and characterized in that the result data showing the activity of the slow waves of a brain of said comatose person is lower than a second statistically predetermined threshold of comatose intensive care unit patients at the one or more non-zero amounts of the anaesthetic drug substance in a case of the severe anoxic brain injury.
Method of reducing the variance of a signal-to-noise ratio estimated for a signal with differential phase and coherent amplitude modulation, applicable to a two-way communication system of multiple sets of user equipment in which amplitude differential phase-shift keying modulation, ADPSK, is used, which requires a sending of a phase reference symbol prior to sending an information, and where an estimation is made of the signal-to-noise ratio in order to use a modulation with a maximum number of bits per symbol, maintaining a bit error probability in reception within certain given margins; said method being characterised by: - receiving a symbol with known modulation, wherein the symbol corresponds to a point in a modulation constellation, - calculating an amplitude error using a detected amplitude, over the symbol received, - calculating an error in the phase increment using a detected phase increment, over the symbol received, - translocating the amplitude error and the error in the phase increment to the first ring of the constellation, as if the received symbol had been transmitted in that ring, - calculating a noise power as the square of the modulus of the error vector, where said error vector is formed by the amplitude error and the error in the phase increment, where said noise power is accumulated and averaged; in order to calculate noise samples, reduce the variance of the signal-to-noise ratio and equalise said variance among optimum constellations of odd and even bits per symbol, estimating the signal-to-noise ratio with the noise power previously calculated and the known power of the ADPSK signal, and selecting the modulation with the maximum number of bits per symbol maintaining the bit error probability in reception within the given margins using the estimated signal-to-noise ratio previously estimated. - receiving a symbol with known modulation, wherein the symbol corresponds to a point in a modulation constellation, - calculating an amplitude error using a detected amplitude, over the symbol received, - calculating an error in the phase increment using a detected phase increment, over the symbol received, - translocating the amplitude error and the error in the phase increment to the first ring of the constellation, as if the received symbol had been transmitted in that ring, - calculating a noise power as the square of the modulus of the error vector, where said error vector is formed by the amplitude error and the error in the phase increment, where said noise power is accumulated and averaged;
A method of accessing functions of an embedded device in which (a) functional blocks (20, 24, 28, 32, 60) of the embedded device are associated with at least two levels (18, 22, 26, 30) disposed above one another hierarchically; (b) access to a functional block (20, 24, 28, 32, 60) of the embedded device from outside the embedded device takes place by means of a data interface; and (c) an authentication has to take place on the access for the level (18, 22, 26, 30) with which the respective functional block (20, 24, 28, 32, 60) is associated and again for every single level (18, 22, 26, 30) disposed above the level (18, 22, 26, 30) associated with the functional block (20, 24, 28, 32, 60) to permit an execution of a function of the functional block, (20, 24, 28, 32, 60), wherein the functions of the functional blocks (20, 24, 28, 32, 60) permit access to firmware of the embedded device. (a) functional blocks (20, 24, 28, 32, 60) of the embedded device are associated with at least two levels (18, 22, 26, 30) disposed above one another hierarchically; (b) access to a functional block (20, 24, 28, 32, 60) of the embedded device from outside the embedded device takes place by means of a data interface; and (c) an authentication has to take place on the access for the level (18, 22, 26, 30) with which the respective functional block (20, 24, 28, 32, 60) is associated and again for every single level (18, 22, 26, 30) disposed above the level (18, 22, 26, 30) associated with the functional block (20, 24, 28, 32, 60) to permit an execution of a function of the functional block, (20, 24, 28, 32, 60), wherein
A method for allocating a downlink bandwidth which is an end-to-end, E2E, transmission bandwidth from a Radio Network Controller, RNC, to a multimode base station, where different modes of the multimode base station compete to use the downlink bandwidth, the method comprising: acquiring a remaining downlink bandwidth of the base station after usage of downlink traffic of a second mode or a first mode, and acquiring a downlink bandwidth pre-allocated to the first mode and a downlink bandwidth pre-allocated to the second mode; and adjusting, according to the remaining downlink bandwidth, the downlink bandwidth pre-allocated to the first mode and the downlink bandwidth pre-allocated to the second mode, a downlink bandwidth allocated to the first mode and a downlink bandwidth allocated to the second mode. acquiring a remaining downlink bandwidth of the base station after usage of downlink traffic of a second mode or a first mode, and acquiring a downlink bandwidth pre-allocated to the first mode and a downlink bandwidth pre-allocated to the second mode; and adjusting, according to the remaining downlink bandwidth, the downlink bandwidth pre-allocated to the first mode and the downlink bandwidth pre-allocated to the second mode, a downlink bandwidth allocated to the first mode and a downlink bandwidth allocated to the second mode.
A polymer thick film conductor composition, comprising: (a) 30-90 wt% silver powder; and (b) 10-70 wt% organic medium comprising 10-60 wt% thermoplastic vinylidene difluoride/hexafluoro propylene copolymer resin dissolved in 40-90 wt% organic solvent consisting of triethyl phosphate, wherein the weight percent of said thermoplastic vinylidene difluoride/hexafluoro propylene copolymer resin and said triethyl phosphate organic solvent are based on the total weight of said organic medium; wherein said silver powder is dispersed in said organic medium and wherein the weight percent of said silver powder and said organic medium are based on the total weight of said polymer thick film conductor composition. (a) 30-90 wt% silver powder; and (b) 10-70 wt% organic medium comprising 10-60 wt% thermoplastic vinylidene difluoride/hexafluoro propylene copolymer resin dissolved in 40-90 wt% organic solvent consisting of triethyl phosphate, wherein the weight percent of said thermoplastic vinylidene difluoride/hexafluoro propylene copolymer resin and said triethyl phosphate organic solvent are based on the total weight of said organic medium;
Brake booster for a motor-vehicle brake system, with - a force-input member which is coupled or can be coupled with a brake pedal and which is displaceable along a displacement axis, - a control valve which can be actuated in accordance with a displacement of the force-input member, - a chamber arrangement which is arranged in a booster housing and can be selected via the control valve, with at least one vacuum chamber (28, 30) and with at least one working chamber (24, 26), which have been separated from one another via at least one movable wall (32, 34) coupled with the control valve, and - a force-output member for delivering a braking force to a downstream master-brake-cylinder arrangement, wherein the control valve with the force-output member has been biased into an initial position with the aid of a restoring spring, wherein the restoring spring is supported with a first end on the control valve, characterised in that the booster housing exhibits a receiving opening for the downstream master-brake-cylinder arrangement, which has been designed with at least one axial guide portion and with at least one radial stop portion, which have each been configured to support a second end of the restoring spring. - a force-input member which is coupled or can be coupled with a brake pedal and which is displaceable along a displacement axis, - a control valve which can be actuated in accordance with a displacement of the force-input member, - a chamber arrangement which is arranged in a booster housing and can be selected via the control valve, with at least one vacuum chamber (28, 30) and with at least one working chamber (24, 26), which have been separated from one another via at least one movable wall (32, 34) coupled with the control valve, and - a force-output member for delivering a braking force to a downstream master-brake-cylinder arrangement, wherein the control valve with the force-output member has been biased into an initial position with the aid of a restoring spring, wherein the restoring spring is supported with a first end on the control valve,
A method of determining a cutting path including the steps of: a. using a single non-moving X-ray source and a single non-moving linear X-ray detector to obtain a first X-ray image of a hanging carcass; b. moving said carcass to be at a different height and distance from said single X-ray source; c. using said single non-moving X-ray source and said single non-moving linear X-ray detector to obtain a second X-ray image of said carcass from the different perspective; d. determining the spatial configuration of elements of the carcass based on the first and second X-ray images to obtain spatial information; and e. determining a cutting path for cutting the carcass based on the spatial configuration of the elements of the carcass. a. using a single non-moving X-ray source and a single non-moving linear X-ray detector to obtain a first X-ray image of a hanging carcass; b. moving said carcass to be at a different height and distance from said single X-ray source; c. using said single non-moving X-ray source and said single non-moving linear X-ray detector to obtain a second X-ray image of said carcass from the different perspective; d. determining the spatial configuration of elements of the carcass based on the first and second X-ray images to obtain spatial information; and e. determining a cutting path for cutting the carcass based on the spatial configuration of the elements of the carcass.
A multilayer motor vehicle pipeline, in particular for conducting fuels, wherein the pipeline has at least five layers, specifically with the following layer structure from the outside in: - an outer layer comprised of at least one polymer from the "polyamide, polyolefin" group, - a first carrier layer comprised of polyamide, - a barrier layer comprised of at least one component from the "EVOH, fluoropolymer" group, - a second carrier layer comprised of polyamide, - an inner layer comprised of a thermoplastic polyurethane, wherein the overall layer thickness of the pipeline measures 0.7 to 2.5 mm, preferably 0.8 to 2 mm, and primarily 0.85 to 1.8 mm. - an outer layer comprised of at least one polymer from the "polyamide, polyolefin" group, - a first carrier layer comprised of polyamide, - a barrier layer comprised of at least one component from the "EVOH, fluoropolymer" group, - a second carrier layer comprised of polyamide, - an inner layer comprised of a thermoplastic polyurethane,
A method for improving performance of an uplink channel between a user equipment implementing an Internet Protocol, IP, stack and a base station in a wireless communication system, wherein said method comprises the steps of: - monitoring, by said user equipment, scheduling information; - locally detecting, by said user equipment, a change in link data rate of said uplink channel based on said scheduling information; - signaling, by said user equipment, the detected change in the link data rate of said uplink channel to an IP application; and - adapting an application data rate of said IP application based on the detected change in the link data rate of said uplink channel, wherein said adapting the application data rate of said IP application, comprises the step of determining which service components to support for said IP application, and wherein the service components include voice, video, and/or text services. - monitoring, by said user equipment, scheduling information; - locally detecting, by said user equipment, a change in link data rate of said uplink channel based on said scheduling information; - signaling, by said user equipment, the detected change in the link data rate of said uplink channel to an IP application; and - adapting an application data rate of said IP application based on the detected change in the link data rate of said uplink channel, wherein said adapting the application data rate of said IP application, comprises the step of determining which service components to support for said IP application, and wherein the service components include voice, video, and/or text services.
A system for automatic delivery of anesthetics based on patient monitoring having a pump unit including a processor executing a program stored in non-transient media to receive physiological signals from a sensor (14, 16) of a patient under anesthesia and a remote unit communicating wirelessly with the pump unit to provide real time information to a remote anesthesiologist indicating a status of the anesthesiology procedure based on the received physiological signals wherein the remote unit is sized and communicates with the pump unit so that it may be carried by the anesthesiologist, characterized in that: the pump unit automatically controls a controlled delivery of anesthesia to the patient in an anesthesiology procedure in response to the received physiological signals; the pump unit processes the received physiological signals to determine a confidence interval with respect to at least one of a proper anesthetics state of the patient and a normal anesthesiology session; the pump unit provides signals to the remote unit generating alerts selected from the group of visual, audible, or tactile alerts as a predetermined change in confidence interval; the remote unit provides a display indicating values of at least two physiological signals, and/or a display indicating a qualitative status of the anesthesiology procedure; and the remote unit provides alerts selected from the group of visual, audible, or tactile alerts to the remote anesthesiologist indicating that immediate attention should be given to the patient based on the confidence interval. the pump unit automatically controls a controlled delivery of anesthesia to the patient in an anesthesiology procedure in response to the received physiological signals; the pump unit processes the received physiological signals to determine a confidence interval with respect to at least one of a proper anesthetics state of the patient and a normal anesthesiology session; the pump unit provides signals to the remote unit generating alerts selected from the group of visual, audible, or tactile alerts as a predetermined change in confidence interval; the remote unit provides a display indicating values of at least two physiological signals, and/or a display indicating a qualitative status of the anesthesiology procedure; and the remote unit provides alerts selected from the group of visual, audible, or tactile alerts to the remote anesthesiologist indicating that immediate attention should be given to the patient based on the confidence interval.