mhurhangee/ep-ind-claims huggingface dataset:
Magnetic-inductive flowmeter, having a measuring tube for carrying an electrically conductive medium, having a magnetic field generator for generating a magnetic field passing through the medium, having two electrodes (4', 4") for tapping a measuring voltage induced in the medium, having a ground element electrically connected to the medium, and having an evaluation unit, wherein the electrodes are connected to the evaluation unit via electrode lines, and wherein the ground element is connected to the evaluation unit via a first ground line for potential equalization between the electrically conductive medium and a reference potential of the evaluation unit, wherein the ground element is connected to the evaluation unit at least indirectly via a second ground line, characterized in that the first ground line and the second ground line are part of a monitoring current path of a monitoring circuit for monitoring the connection between the ground element and the evaluation unit, that the evaluation unit is designed such that it monitors the connection between the ground element and the evaluation unit, wherein the evaluation unit is designed such that it impresses a monitoring current into the monitoring circuit and measures the voltage drop in the monitoring circuit path, or that the evaluation unit is designed such that it applies a monitoring voltage to the monitoring circuit path and measures the current flowing in the monitoring circuit, and that a reference value for the voltage drop, the resulting current or the measured impedance of the monitoring circuit path is stored in the evaluation unit for the go state of the connection between the ground element and the evaluation unit, and the evaluation unit compares the measured value with the reference value. wherein the ground element is connected to the evaluation unit at least indirectly via a second ground line, characterized in that the first ground line and the second ground line are part of a monitoring current path of a monitoring circuit for monitoring the connection between the ground element and the evaluation unit, that the evaluation unit is designed such that it monitors the connection between the ground element and the evaluation unit, wherein the evaluation unit is designed such that it impresses a monitoring current into the monitoring circuit and measures the voltage drop in the monitoring circuit path, or that the evaluation unit is designed such that it applies a monitoring voltage to the monitoring circuit path and measures the current flowing in the monitoring circuit, and that a reference value for the voltage drop, the resulting current or the measured impedance of the monitoring circuit path is stored in the evaluation unit for the go state of the connection between the ground element and the evaluation unit, and the evaluation unit compares the measured value with the reference value.
A thermal head comprising: a substrate; a heat-generating portion on the substrate; an electrode (17, 19) which is located on the substrate and is connected to the heat-generating portion; and a protective layer which coats the heat-generating portion and a part of the electrode (17, 19), characterized in that a skewness Rsk of the protective layer is larger than 0, or a kurtosis Rku of the protective layer is larger than 3. a substrate; a heat-generating portion on the substrate; an electrode (17, 19) which is located on the substrate and is connected to the heat-generating portion; and a protective layer which coats the heat-generating portion and a part of the electrode (17, 19), characterized in that a skewness Rsk of the protective layer is larger than 0, or a kurtosis Rku of the protective layer is larger than 3.
A transmission station configured to control network overload, the transmission station comprising: a processing module configured to configure a system information block, SIB, type 14 with extended access barring, EAB, configuration information according to a radio access network, RAN, overload state, wherein the SIB type 14 is configured in a long term evolution, LTE, system; and a transceiver module configured to broadcast the SIB type 14, and to receive from a user equipment, UE, a radio resource control, RRC, connection request with EAB configuration information, wherein the transmission station is configured to reject the RRC connection request based on the RAN overload state, wherein the SIB type 14 includes an EAB category field to indicate a category of the UE where the EAB is applied. a processing module configured to configure a system information block, SIB, type 14 with extended access barring, EAB, configuration information according to a radio access network, RAN, overload state, wherein the SIB type 14 is configured in a long term evolution, LTE, system; and a transceiver module configured to broadcast the SIB type 14, and to receive from a user equipment, UE, a radio resource control, RRC, connection request with EAB configuration information, wherein the transmission station is configured to reject the RRC connection request based on the RAN overload state, wherein the SIB type 14 includes an EAB category field to indicate a category of the UE where the EAB is applied.
A method for adapting a triggering algorithm of a personal restraint device of a vehicle on the basis of a detected vehicle interior state of the vehicle, the method comprising: - detecting (110, 120) of key points of a vehicle occupant by an optical sensor device (3, 4); - ascertaining (112, 122) a vehicle occupant posture of the vehicle occupant based on the connection of the detected key points to a skeleton-like representation of body parts of the vehicle occupant, wherein the skeleton-like representation reflects the relative position and orientation of individual body parts of the vehicle occupant; - predicting (114, 124) a future vehicle occupant posture of the vehicle occupant based on a predicted future position of at least one key point; and - modifying (116, 126) the triggering algorithm of the personal restraint device based on the predicted future posture of the vehicle occupant, wherein the detecting of key points of the vehicle occupant is made in using at least an IR camera and a 3D camera characterized in that, 2D key points of the vehicle occupant detected by the IR camera are converted into 3D key points of the vehicle occupant by fusing the information provided by the 3D camera. - detecting (110, 120) of key points of a vehicle occupant by an optical sensor device (3, 4); - ascertaining (112, 122) a vehicle occupant posture of the vehicle occupant based on the connection of the detected key points to a skeleton-like representation of body parts of the vehicle occupant, wherein the skeleton-like representation reflects the relative position and orientation of individual body parts of the vehicle occupant; - predicting (114, 124) a future vehicle occupant posture of the vehicle occupant based on a predicted future position of at least one key point; and - modifying (116, 126) the triggering algorithm of the personal restraint device based on the predicted future posture of the vehicle occupant, wherein the detecting of key points of the vehicle occupant is made in using at least an IR camera and a 3D camera
Method for mapping data relating to the conditions on a road, the method comprising the following steps: - A step for recording, in a database, information relating to the weather conditions on a road and information relating the macro-texture of the road surface, determined by a vehicle travelling on the said road, the macro-texture of the road surface being characterized by the mean texture depht, - A step for recording the GPS position of the vehicle corresponding to the recordings made, - A step for displaying, on a map showing the route followed by the vehicle, the weather conditions and the macro-texture of the road surface as a function of the GPS position, wherein the the macro-texture of the road surface is represented by superposing, over a given route, a line whose colours correspond to various states of the road surface. - A step for recording, in a database, information relating to the weather conditions on a road and information relating the macro-texture of the road surface, determined by a vehicle travelling on the said road, the macro-texture of the road surface being characterized by the mean texture depht, - A step for recording the GPS position of the vehicle corresponding to the recordings made, - A step for displaying, on a map showing the route followed by the vehicle, the weather conditions and the macro-texture of the road surface as a function of the GPS position,
An electric storage system comprising: an electric storage apparatus having a plurality of electric storage elements connected in series, each of the electric storage elements including a current breaker for breaking an internal electric current path; a relay (SMR-B, SMR-G) placed on each of a positive electrode line and a negative electrode line, the lines (PL, NL) connecting the electric storage apparatus to a load, wherein the positive electrode line extends from a positive electrode terminal of the electric storage apparatus to the load, and the negative electrode line extends from a negative electrode terminal of the electric storage apparatus to the load; a plurality of smoothing capacitors (C1, C2) connected in series between the positive electrode line and the negative electrode line, wherein the plurality of smoothing capacitors (C1, C2) are connected in series between the positive electrode line and the negative electrode line that are located between said relays (SMR-B, SMR-G) and the load; and a relay (SMR-C) and a current limiting resistance each placed on an intermediate line, one end of the intermediate line being connected to a connecting point of two of the electric storage elements included in the electric storage apparatus and the other end of the intermediate line being connected to a connecting point of the plurality of smoothing capacitors (C1, C2). an electric storage apparatus having a plurality of electric storage elements connected in series, each of the electric storage elements including a current breaker for breaking an internal electric current path; a relay (SMR-B, SMR-G) placed on each of a positive electrode line and a negative electrode line, the lines (PL, NL) connecting the electric storage apparatus to a load, wherein the positive electrode line extends from a positive electrode terminal of the electric storage apparatus to the load, and the negative electrode line extends from a negative electrode terminal of the electric storage apparatus to the load; a plurality of smoothing capacitors (C1, C2) connected in series between the positive electrode line and the negative electrode line, wherein the plurality of smoothing capacitors (C1, C2) are connected in series between the positive electrode line and the negative electrode line that are located between said relays (SMR-B, SMR-G) and the load; and a relay (SMR-C) and a current limiting resistance each placed on an intermediate line, one end of the intermediate line being connected to a connecting point of two of the electric storage elements included in the electric storage apparatus and the other end of the intermediate line being connected to a connecting point of the plurality of smoothing capacitors (C1, C2).
The compound according to the following formula: wherein Y" is selected from the group comprising Ph, -C 1-3 alkylPh and -CH=CHPh, wherein Ph is substituted with R C2 and R D2 which are independently selected from the group comprising hydrogen, halogen, C 1 -C 6 alkyl, OR E2, NR G2 R H2, NR G2 COR W2, NR G2 SO 2 R W2, CONR G2 R H2 and SO 2 R W2; R L2 is selected from the group consisting of hydrogen, halogen, Ph, OPh and OCH 2 Ph, wherein Ph is optionally substituted with halogen, C 1 -C 6 alkyl, OR E2 or CO 2 R E2; R A2 and R B2 are independently selected from hydrogen, C 1 -C 6 alkyl and CO 2 R F2; R E2 is hydrogen or C 1 -C 6 alkyl; R F2 is C 1 -C 6 alkyl; R G2 and R H2 are independently hydrogen or C 1 -C 6 alkyl or may together form a 5- or 6-membered ring which optionally contains one further heteroatom selected from NR E2, S and O; and R W2 is C 1 -C 6 alkyl. Y" is selected from the group comprising Ph, -C 1-3 alkylPh and -CH=CHPh, wherein Ph is substituted with R C2 and R D2 which are independently selected from the group comprising hydrogen, halogen, C 1 -C 6 alkyl, OR E2, NR G2 R H2, NR G2 COR W2, NR G2 SO 2 R W2, CONR G2 R H2 and SO 2 R W2; R L2 is selected from the group consisting of hydrogen, halogen, Ph, OPh and OCH 2 Ph, wherein Ph is optionally substituted with halogen, C 1 -C 6 alkyl, OR E2 or CO 2 R E2; R A2 and R B2 are independently selected from hydrogen, C 1 -C 6 alkyl and CO 2 R F2; R E2 is hydrogen or C 1 -C 6 alkyl; R F2 is C 1 -C 6 alkyl; R G2 and R H2 are independently hydrogen or C 1 -C 6 alkyl or may together form a 5- or 6-membered ring which optionally contains one further heteroatom selected from NR E2, S and O; and R W2 is C 1 -C 6 alkyl.
A video laryngoscope system comprising: a video monitor, a data cable; and a laryngoscope blade coupled to the video monitor via the data cable, the laryngoscope blade comprising at least an image capture device, a light source, a processor; wherein the video laryngoscope blade, the video monitor and the data cable each include storage for storing image capture settings; wherein at least one of the video monitor or the data cable comprise logic to: identify the laryngoscope blade; determine which of the laryngoscope blade, the video monitor, and the data cable have a most up-to-date set of image capture settings for the identified laryngoscope blade; and transmit the most up-to-date set of image capture settings to the laryngoscope blade for use in capturing intra-airway images, when one of the video monitor or the data cable include the most up-to-date set of image capture settings. a video monitor, a data cable; and a laryngoscope blade coupled to the video monitor via the data cable, the laryngoscope blade comprising at least an image capture device, a light source, a processor; wherein the video laryngoscope blade, the video monitor and the data cable each include storage for storing image capture settings; wherein at least one of the video monitor or the data cable comprise logic to: identify the laryngoscope blade; determine which of the laryngoscope blade, the video monitor, and the data cable have a most up-to-date set of image capture settings for the identified laryngoscope blade; and transmit the most up-to-date set of image capture settings to the laryngoscope blade for use in capturing intra-airway images, when one of the video monitor or the data cable include the most up-to-date set of image capture settings. identify the laryngoscope blade; determine which of the laryngoscope blade, the video monitor, and the data cable have a most up-to-date set of image capture settings for the identified laryngoscope blade; and transmit the most up-to-date set of image capture settings to the laryngoscope blade for use in capturing intra-airway images, when one of the video monitor or the data cable include the most up-to-date set of image capture settings.
An image processing system, comprising: a processor, and optical flow OF determination logic for quantifying relative motion of a feature present in a first frame of video and a second frame of video that provide at least one of temporally and spatially ordered images with respect to the first and second frames of video, the OF determination logic configuring the processor to implement: performing OF estimation between the first frame and the second frame using a pyramidal block matching PBM method to generate an initial optical flow OF estimate at a base pyramid level having integer pixel resolution; and refining the initial OF estimate using at least one pass of a modified Lucas-Kanade LK method to provide a revised OF estimate having fractional pixel resolution, wherein said modified Lucas-Kanade LK method comprises: determining horizontal, vertical and temporal gradients Gx Gy and Gt at the base pyramid level to obtain horizontal and vertical optical flow components U and V, the components being real numbers represented in fixed point representation; clamping the values of the components U and V within a [-1, 1] range; and adding the clamped values into the existing flow estimate to obtain the final refined optical flow estimation. a processor, and optical flow OF determination logic for quantifying relative motion of a feature present in a first frame of video and a second frame of video that provide at least one of temporally and spatially ordered images with respect to the first and second frames of video, the OF determination logic configuring the processor to implement: performing OF estimation between the first frame and the second frame using a pyramidal block matching PBM method to generate an initial optical flow OF estimate at a base pyramid level having integer pixel resolution; and refining the initial OF estimate using at least one pass of a modified Lucas-Kanade LK method to provide a revised OF estimate having fractional pixel resolution, wherein said modified Lucas-Kanade LK method comprises: determining horizontal, vertical and temporal gradients Gx Gy and Gt at the base pyramid level to obtain horizontal and vertical optical flow components U and V, the components being real numbers represented in fixed point representation; clamping the values of the components U and V within a [-1, 1] range; and adding the clamped values into the existing flow estimate to obtain the final refined optical flow estimation.
Pipetting apparatus, for performing an at least partially electrically controlled pipetting process on at least one fluid laboratory sample in accordance with at least one mode of operation of the pipetting apparatus, having - an electric control device for controlling the pipetting process, which is able to be controlled by an operating parameter set, which is used to control the pipetting process, which is able to be stipulated by a user and which is associated with a mode of operation and respectively comprises at least one operating parameter, which defines an aspirating volume to be aspirated during an aspirating step of the pipetting process and/or defines a discharge volume to be discharged during a discharge step of the pipetting process, wherein the user stipulates the operating parameter by selecting the desired value of the operating parameter as a parameter value and in this way determining a parameter value set having at least one parameter value, - at least one operator control device (12, 13, 14a, 14b) for the stipulation of the operating parameter set by the user, - an electric memory device for storing the at least one parameter value set, characterized in that the electric control device is configured to automatically store the at least one parameter value set determined by the user as the at least one historic parameter value set for this mode of operation in the memory device; wherein the electric control device is configured to perform the automatic storage of the parameter value set without any further influence by the user after the user has selected this parameter value set by means of the at least one operator control device (12, 13, 14a, 14b); and wherein the electric control device is designed to provide again, after the operating parameter set for this mode of operation has changed, the at least one automatically stored historic parameter value set for this mode of operation for the subsequent control of the at least one, same, pipetting process. - an electric control device for controlling the pipetting process, which is able to be controlled by an operating parameter set, which is used to control the pipetting process, which is able to be stipulated by a user and which is associated with a mode of operation and respectively comprises at least one operating parameter, which defines an aspirating volume to be aspirated during an aspirating step of the pipetting process and/or defines a discharge volume to be discharged during a discharge step of the pipetting process, wherein the user stipulates the operating parameter by selecting the desired value of the operating parameter as a parameter value and in this way determining a parameter value set having at least one parameter value, - at least one operator control device (12, 13, 14a, 14b) for the stipulation of the operating parameter set by the user, - an electric memory device for storing the at least one parameter value set,
Insole (1200; 1300) for arrangement within an upper of a shoe, in particular a sports shoe, wherein the insole comprises a first partial region with a first expanded thermoplastic polyurethane, TPU; wherein the insole further comprises a second partial region with a second expanded TPU; wherein the first expanded TPU comprises particles of expanded TPU which are bonded to form a granular but closed plastic foam structure, and wherein the second expanded TPU also comprises particles of expanded TPU which are bonded to form a granular but closed plastic foam structure; and wherein the first expanded TPU and the second expanded TPU are manufactured from a different base material and/or using a different steaming process. wherein the insole comprises a first partial region with a first expanded thermoplastic polyurethane, TPU; wherein the insole further comprises a second partial region with a second expanded TPU; wherein the first expanded TPU comprises particles of expanded TPU which are bonded to form a granular but closed plastic foam structure, and wherein the second expanded TPU also comprises particles of expanded TPU which are bonded to form a granular but closed plastic foam structure; and wherein the first expanded TPU and the second expanded TPU are manufactured from a different base material and/or using a different steaming process.