mhurhangee/ep-ind-claims huggingface dataset:
Method of configuring electronic devices and in particular configuring components of an access control system for persons or vehicles, characterised in that a configuration device is used with which the device to be configured is connectable for the purpose of data communication, has its own CPU, storage means and software and comprises a Trusted Execution Environment and by means of a further computer is connectable via a secure network connection with a server, comprising a Trusted Execution Environment for the purpose of data communication, wherein at the beginning of the method the configuration device is connected with the device to be configured for the purpose of data communication and subsequently reciprocal authentication is carried out wherein after completed authentication, by means of the Trusted Execution Environment of the configuration device a predetermined configuration is transferred to the device to be configured which comprises network settings and environment variables, wherein subsequently by means of the Trusted Execution Environment of the configuration device an RSA key or crypto key in accordance with the current security standards is read out or generated via an SSH protocol to allow access to the device to be configured, is transferred to the device to be configured and then verified, wherein in a next step by way of the Trusted Execution Environment of the configuration device a password is read out or generated which by way of an encrypted connection is transferred to the device to be configured and by means of an encrypted connection and automatic entry of the password is verified, wherein a file containing all the configuration information is created and stored outside the Trusted Execution Environment in the configuration device, wherein after creation of the file the connection between the configuration device and the device to be configured is terminated, wherein in a next step a connection for data communication between the configuration device and a further computer is set up, wherein after completed reciprocal authentication a secure network connection to a server is established via the further computer and after completion of reciprocal authentication between the configuration device and the server the password, the RSA key or the crypto key, which meets current security standards, and the further predefined parameters are transferred by means of the Trusted Execution Environment of the configuration device to a Trusted Execution Environment on the server via the secure network connection and wherein after complete transmission these data are deleted in the configuration device.
A V-ribbed belt having a plurality of V-rib portions extending along a longitudinal direction of the belt and in parallel with one another, and comprising a compression rubber layer including a frictional power transmission face at least a part of which is configured to come in contact with a V-rib groove portion of pulleys, wherein the frictional power transmission face of the compression rubber layer is formed from a vulcanizate of a rubber composition containing a rubber component and a noise suppression improver, wherein the noise suppression improver is at least one kind selected from the group consisting of a surfactant, a plasticizer having a larger solubility parameter than the rubber component, inorganic particles, and polyethylene resin particles, and a V-rib angle of the V-rib portions is larger than a V-rib groove angle of the pulleys by 5° to 9°. wherein the frictional power transmission face of the compression rubber layer is formed from a vulcanizate of a rubber composition containing a rubber component and a noise suppression improver, wherein the noise suppression improver is at least one kind selected from the group consisting of a surfactant, a plasticizer having a larger solubility parameter than the rubber component, inorganic particles, and polyethylene resin particles, and a V-rib angle of the V-rib portions is larger than a V-rib groove angle of the pulleys by 5° to 9°.
A preparation comprising at least two different (thio)phosphoric triamides having structures according to the general formula R 1 R 2 N-P (NH 2) 2 in which X is oxygen or sulfur, R 1 is a C 1 -C 10 -alkyl, C 3 -C 10 -cycloalkyl, C 6 -C 10 -aryl or dialkylaminocarbonyl group and R 2 is hydrogen, or R 1 and R 2 together with the nitrogen atom linking them form a 5- or 6-membered saturated or unsaturated heterocyclic radical, which can optionally also comprise 1 or 2 further heteroatoms selected from the group consisting of nitrogen, oxygen and sulfur, which (thio)phosphoric triamides differ in at least one of the radicals R 1 or R 2, and of which one is present in the preparation in amounts of 20 to 40% by weight and the other in amounts of 60 to 80% by weight, based on the total amount of (thio)phosphoric triamides. X is oxygen or sulfur, R 1 is a C 1 -C 10 -alkyl, C 3 -C 10 -cycloalkyl, C 6 -C 10 -aryl or dialkylaminocarbonyl group and R 2 is hydrogen, or R 1 and R 2 together with the nitrogen atom linking them form a 5- or 6-membered saturated or unsaturated heterocyclic radical, which can optionally also comprise 1 or 2 further heteroatoms selected from the group consisting of nitrogen, oxygen and sulfur, which (thio)phosphoric triamides differ in at least one of the radicals R 1 or R 2, and of which one is present in the preparation in amounts of 20 to 40% by weight and the other in amounts of 60 to 80% by weight, based on the total amount of (thio)phosphoric triamides.
An articulated arm coordinate measurement machine comprising: - a base, - an articulated arm having a first end, a second end and therebetween a plurality of rigid transfer members (24B, 26B, 28B) and a plurality of articulation members (46B, 48B, 50B, 60) connecting the rigid transfer members (24B, 26B, 28B) to one another, and - a coordinate acquisition member attached to the first end of the articulated arm, characterized in that a first articulation member is configured to provide two degrees of freedom between a first transfer member and a second transfer member, the first articulation member comprising a ball portion (62, 62') and a female portion (64, 64'), wherein a surface of the ball portion (62, 62') comprises a graphical pattern and the female portion (64, 64') comprises a camera configured for reading the graphical pattern, wherein measurement of the two degrees of freedom is done by use of the camera by reading the graphical pattern and using optical imaging techniques. - a base, - an articulated arm having a first end, a second end and therebetween a plurality of rigid transfer members (24B, 26B, 28B) and a plurality of articulation members (46B, 48B, 50B, 60) connecting the rigid transfer members (24B, 26B, 28B) to one another, and - a coordinate acquisition member attached to the first end of the articulated arm,
Flow sensor for determining a flow parameter of a fluid, comprising: a sensor chip having a thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a measurement range or to determine a fluid temperature of the fluid, wherein the thermal membrane sensor element comprises two spaced-apart thermoelement junctions (8a, 8b) and a heating element arranged between the thermoelement junctions, and wherein the sensor chip is implemented to be circumflowed by the fluid during operation of the flow sensor as a self-supporting sensor finger; wherein a rear side of the thermal membrane sensor element, which opposes a front side of the sensor chip comprising the heating element, is sealed such that attachment of a condensate on the rear side of the thermal membrane sensor element is prevented; wherein an absolute pressure of less than 800 mbar, 500 mbar or 100 mbar exists in a chamber formed by the rear side of the thermal membrane sensor element, a sealing of the rear side and the side walls (20a, 20b) of the sensor chip; wherein the flow parameter is a flow quantity, a mass flow, a volume flow, a flow velocity, a flow direction, a fluid temperature or a fluid state parameter. a sensor chip having a thermal membrane sensor element that is configured to determine the flow parameter of the fluid in a measurement range or to determine a fluid temperature of the fluid, wherein the thermal membrane sensor element comprises two spaced-apart thermoelement junctions (8a, 8b) and a heating element arranged between the thermoelement junctions, and wherein the sensor chip is implemented to be circumflowed by the fluid during operation of the flow sensor as a self-supporting sensor finger; wherein a rear side of the thermal membrane sensor element, which opposes a front side of the sensor chip comprising the heating element, is sealed such that attachment of a condensate on the rear side of the thermal membrane sensor element is prevented; wherein an absolute pressure of less than 800 mbar, 500 mbar or 100 mbar exists in a chamber formed by the rear side of the thermal membrane sensor element, a sealing of the rear side and the side walls (20a, 20b) of the sensor chip; wherein the flow parameter is a flow quantity, a mass flow, a volume flow, a flow velocity, a flow direction, a fluid temperature or a fluid state parameter.
Method for operating an ultrasound generator for supplying HF power to an ultrasonic transducer, which ultrasound generator has at least one oscillation circuit that is electrically excitable by means of an exciter signal at an excitation frequency (f), which oscillation circuit is in electrically operative connection with at least one electro-mechanical oscillation system of the ultrasonic transducer, the impedance of which has a magnitude maximum in the case of a parallel resonance of the oscillation system and a magnitude minimum in the case of a series resonance of oscillation system, wherein a) in the oscillation circuit, at least during start-up of the oscillation system at an initial excitation frequency (f) the phase difference (Δφ) between the current and the voltage of the exciter signal is determined and used for regulating the frequency of the ultrasound generator; characterised in that b) in dependence upon the determined phase difference (Δφ), in the case of a phase difference < 0° the initial excitation frequency (f) is regulated in respect of its frequency in such a way that when a start frequency of the excitation signal is reached the phase difference (Δφ) becomes substantially zero and the impedance of the oscillation system approaches its magnitude minimum or its magnitude maximum; c) the oscillation system at the start frequency is excited to ultrasonic oscillations and, d) for adaptation of the amplitude or output of the oscillation system, the excitation frequency is regulated in such a way that the phase (Δφ) of the impedance of the oscillation system is > 0°. a) in the oscillation circuit, at least during start-up of the oscillation system at an initial excitation frequency (f) the phase difference (Δφ) between the current and the voltage of the exciter signal is determined and used for regulating the frequency of the ultrasound generator; characterised in that b) in dependence upon the determined phase difference (Δφ), in the case of a phase difference < 0° the initial excitation frequency (f) is regulated in respect of its frequency in such a way that when a start frequency of the excitation signal is reached the phase difference (Δφ) becomes substantially zero and the impedance of the oscillation system approaches its magnitude minimum or its magnitude maximum; c) the oscillation system at the start frequency is excited to ultrasonic oscillations and, d) for adaptation of the amplitude or output of the oscillation system, the excitation frequency is regulated in such a way that the phase (Δφ) of the impedance of the oscillation system is > 0°.
A composition for forming a liquid crystal alignment film, wherein the composition comprises: a material for forming a liquid crystal alignment film; 4,6-dimethyl-2-heptanone; diisobutyl ketone; and at least one of γ-butyrolactone and N-methyl-2-pyrrolidone. a material for forming a liquid crystal alignment film; 4,6-dimethyl-2-heptanone; diisobutyl ketone; and at least one of γ-butyrolactone and N-methyl-2-pyrrolidone.
A method for measuring sound from vortices in the carotid artery, said method comprising: a) performing a first quality control procedure on at least two sensing elements, wherein said first quality control procedure is performed by playing a pre-determined set of tones within a base unit, wherein said at least two sensing elements detect said set of tones and wherein said detected tones are compared to said pre-determined set of tones; b) performing a second quality control procedure on at least two sensing elements, wherein said second quality control procedure is performed by detecting sounds generated by the heart and by blood flow through the carotid artery; wherein said at least two sensing elements detect said sounds generated by the heart and blood flow through the carotid artery, and said detected sounds are compared to a previously recorded set of sounds corresponding to the sounds generated by the heart and blood flow through the carotid artery; c) detecting sounds (101, 102) generated by the heart and sounds from vortices in the carotid artery for at least 30 seconds. a) performing a first quality control procedure on at least two sensing elements, wherein said first quality control procedure is performed by playing a pre-determined set of tones within a base unit, wherein said at least two sensing elements detect said set of tones and wherein said detected tones are compared to said pre-determined set of tones; b) performing a second quality control procedure on at least two sensing elements, wherein said second quality control procedure is performed by detecting sounds generated by the heart and by blood flow through the carotid artery; wherein said at least two sensing elements detect said sounds generated by the heart and blood flow through the carotid artery, and said detected sounds are compared to a previously recorded set of sounds corresponding to the sounds generated by the heart and blood flow through the carotid artery; c) detecting sounds (101, 102) generated by the heart and sounds from vortices in the carotid artery for at least 30 seconds.
Protective device (10, 10') for an intake or blowing channel of a piece of equipment, wherein the protective device (10, 10') comprises at least one rib with a longitudinal direction, wherein the at least one rib has at least one rib portion (13, 14), wherein the rib portion (13, 14) extends along the longitudinal direction of the rib from a first end as far as a second end and, by itself, has a natural frequency, characterized in that arranged on the rib portion (13, 14) between the first end and the second end is a disturbance body which is able to vibrate translationally with the rib portion (13, 14), and in that the rib portion (13, 14) and the disturbance body form a vibratory system with a system natural frequency, wherein the system natural frequency and the natural frequency of the rib portion (13, 14) are different. wherein the protective device (10, 10') comprises at least one rib with a longitudinal direction, wherein the at least one rib has at least one rib portion (13, 14), wherein the rib portion (13, 14) extends along the longitudinal direction of the rib from a first end as far as a second end and, by itself, has a natural frequency, characterized in that arranged on the rib portion (13, 14) between the first end and the second end is a disturbance body which is able to vibrate translationally with the rib portion (13, 14), and in that the rib portion (13, 14) and the disturbance body form a vibratory system with a system natural frequency, wherein the system natural frequency and the natural frequency of the rib portion (13, 14) are different.
A print system with a ratio-based adaptive switching technique, comprising: a printing unit to print an image on a recording medium in a color mode or a monochrome mode and the printing unit including a switching unit to switch the printing unit between the color mode and the monochrome mode; and characterised by a computing unit to: monitor a number (cM) of monochrome pages printed in the color mode and a total number (pN) of printed pages, determine a ratio cM/pN, wherein when the ratio is less than a first threshold, the printing unit is to select the color mode; and when the ratio is more than a second threshold, which second threshold is greater than the first threshold, the printing unit is to select the monochrome mode. monitor a number (cM) of monochrome pages printed in the color mode and a total number (pN) of printed pages, determine a ratio cM/pN, wherein when the ratio is less than a first threshold, the printing unit is to select the color mode; and when the ratio is more than a second threshold, which second threshold is greater than the first threshold, the printing unit is to select the monochrome mode.
Anti-collision system intended to equip a construction machine including a front (Av), a rear (Ar), a work tool and an operator cab in which there is a seat for the operator and which provides the latter with a field of vision in front of the operator cab which, in top view, is delimited by two straight lines meeting at the seat so as to form a first angle, so-called operator's field of view angle, the work tool being present in the operator's field of view and the construction machine being movable in the front-rear axis, so-called axis of travel, the anti-collision system including: - obstacle detection means (7, 8) configured to detect the presence of an obstacle in an obstacle detection area and its distance from the obstacle detection means (7, 8); - audible warning means configured to emit an audible warning in the operator cab; and - processing means in operative communication with the obstacle detection means (7, 8) and the audible warning means and configured to cause the audible warning means to emit an audible warning in the event of detection, by the obstacle detection means (7, 8), of an obstacle in the obstacle detection area, the anti-collision system being characterised in that it further includes acquisition means configured to acquire the direction of travel, along the axis of travel, and the speed of the construction machine and connection means configured to removably mount the obstacle detection means (7, 8) on the construction machine such that once mounted on the construction machine, the obstacle detection means (7, 8) are capable of detecting the presence of an obstacle in an obstacle detection area formed by a first detection region, so-called rear region, which is located rearward of the operator cab, and two second detection regions, so-called side regions, which are located on both lateral sides of the operator cab, the processing means also being in operative communication with the acquisition means and configured to cause the audible warning means to emit an audible warning only in the event that the processing means determines that a detected obstacle presents a risk of collision meeting a warning condition defined as a function of the direction of travel and the speed of the construction machine that have been acquired by the acquisition means. - obstacle detection means (7, 8) configured to detect the presence of an obstacle in an obstacle detection area and its distance from the obstacle detection means (7, 8); - audible warning means configured to emit an audible warning in the operator cab; and - processing means in operative communication with the obstacle detection means (7, 8) and the audible warning means and configured to cause the audible warning means to emit an audible warning in the event of detection, by the obstacle detection means (7, 8), of an obstacle in the obstacle detection area,
A beverage preparation device for preparing beverages from beverage substrate capsules, comprising several functional units, comprising an injection device comprising water supply means and serving to inject water into a beverage substrate capsule for the beverage preparation, said injection device comprising an injection chamber having a first injection chamber part and a second injection chamber part which is adjustable relative to the first injection chamber part for opening and closing the injection chamber, detection means being assigned to the injection chamber, said detection means comprising sensor means connected to control means in a signal-conducting manner, said control means serving to control at least one of the functional units, said detection means preferably being disposed at least in sections in the injection chamber, more preferably being disposed in the first injection chamber part and being used for detecting whether or not a beverage substrate capsule is disposed in the, preferably closed, injection chamber, said detection means interacting with the control means and being designed such that they serve to differentiate between an admissible beverage substrate capsule having a predetermined beverage substrate capsule length and an inadmissible beverage substrate capsule not having a predetermined beverage substrate capsule length and being located in the injection chamber, characterized in that the detection means comprise a switch cam element for the direct or indirect interaction with the sensor means, said switch cam element being deflectable in varying degrees depending on the compliance or non-compliance with the beverage substrate capsule length, and/or that the sensor means are deflectable in varying degrees relative to a, preferably stationary, switch cam element for the direct or indirect interaction with the switch cam element depending on the compliance or non-compliance with the beverage substrate capsule length.