mhurhangee/ep-ind-claims huggingface dataset:
System, having a robot with a movable robot arm and a tracking device for tracking a position of a target object, in particular a patient, on the basis of a marker arranged on the target object by processing data provided by the tracking device and/or the marker by means of a data processing device of the system, wherein - the tracking device is secured to the robot arm, - the system additionally has at least one control marker, and - the system is configured to measure the spatial positional relationship between the tracking device and the control marker by means of the tracking device, characterised in that - the system is configured to measure the spatial positional relationship between the tracking device and the control marker by means of the tracking device during the tracking of the position of the target object, - the control marker is arranged in a constant spatial positional relationship with the tracking device which is specified during a movement of the robot arm during the operation of the robot, and - the system is configured - to compare the measured spatial positional relationship with the specified spatial positional relationship and - in the event of a difference being identified between the measured and the specified spatial positional relationship, to generate a corresponding signal. - the tracking device is secured to the robot arm, - the system additionally has at least one control marker, and - the system is configured to measure the spatial positional relationship between the tracking device and the control marker by means of the tracking device, - the system is configured to measure the spatial positional relationship between the tracking device and the control marker by means of the tracking device, - the system is configured to measure the spatial positional relationship between the tracking device and the control marker by means of the tracking device during the tracking of the position of the target object, - the control marker is arranged in a constant spatial positional relationship with the tracking device which is specified during a movement of the robot arm during the operation of the robot, and - the system is configured - to compare the measured spatial positional relationship with the specified spatial positional relationship and - in the event of a difference being identified between the measured and the specified spatial positional relationship, to generate a corresponding signal. - to compare the measured spatial positional relationship with the specified spatial positional relationship and - in the event of a difference being identified between the measured and the specified spatial positional relationship, to generate a corresponding signal.
Differential protection device comprising: - differential current (Id) measuring means (1, 6, 8), and - differential fault processing means connected to the measuring means so as to receive a measurement signal (Ids, Vds) supplied by the measuring means and so as to supply a trip signal to actuating means, - detection means for detecting high-energy signals (11, 12) disturbing said measuring means, and - inhibition means (14, 26, 49) connected to said detection means so as to inhibit the supply of said trip signal supplied by the processing means when said detection means detect the presence of high-energy signals (11, 12), characterized in that: said detection means detect the presence of high-energy signals (11, 12) by monitoring an absence of zero-range crossing in said measurement signal (Ids, Vds) over a predetermined duration, said predetermined duration is longer than a half-period or an alternation of the current of a mains electricity supply to be protected and less than a trip time of said differential protection device. - differential current (Id) measuring means (1, 6, 8), and - differential fault processing means connected to the measuring means so as to receive a measurement signal (Ids, Vds) supplied by the measuring means and so as to supply a trip signal to actuating means, - detection means for detecting high-energy signals (11, 12) disturbing said measuring means, and - inhibition means (14, 26, 49) connected to said detection means so as to inhibit the supply of said trip signal supplied by the processing means when said detection means detect the presence of high-energy signals (11, 12), characterized in that: said detection means detect the presence of high-energy signals (11, 12) by monitoring an absence of zero-range crossing in said measurement signal (Ids, Vds) over a predetermined duration, said predetermined duration is longer than a half-period or an alternation of the current of a mains electricity supply to be protected and less than a trip time of said differential protection device. said detection means detect the presence of high-energy signals (11, 12) by monitoring an absence of zero-range crossing in said measurement signal (Ids, Vds) over a predetermined duration, said predetermined duration is longer than a half-period or an alternation of the current of a mains electricity supply to be protected and less than a trip time of said differential protection device.
A system for determining the Q and J points of an electrocardiogram, said system comprising: at least one processor programmed to: receive beat-cycle waveforms for a selected beat from a plurality of ECG leads; determine signal quality of each of the plurality of ECG leads; combine, using a waveform length transform, the beat-cycle waveforms of ECG leads with signal quality meeting or exceeding a predetermined signal quality criteria, thereby providing a combined beat-cycle waveform; and, identify the Q and J points on the combined beat-cycle waveform. receive beat-cycle waveforms for a selected beat from a plurality of ECG leads; determine signal quality of each of the plurality of ECG leads; combine, using a waveform length transform, the beat-cycle waveforms of ECG leads with signal quality meeting or exceeding a predetermined signal quality criteria, thereby providing a combined beat-cycle waveform; and, identify the Q and J points on the combined beat-cycle waveform.
An ultrasound image processing system configured for automatic time-gain compensation, TGC, with an image processing algorithm comprising: an image processing system configured to process an imaging signal generated by an intravascular ultrasound imaging system into a plurality of echogenic data sets, the image processing system being adapted to determine a plurality of TGC functions for the plurality of echogenic data sets collected during one rotation of an ultrasound imaging device of the intravascular ultrasound imaging system by (i) forming a matrix, comprising a plurality of rows and a plurality of columns, of the plurality of echogenic data sets with each data set arranged in a separate row of the matrix and each column of the matrix corresponding to a point in time and each row corresponding to one angular position of the ultrasound imaging device, (ii) locally averaging the matrix by two-dimensional low pass filtering the matrix to provide locally averaged data sets, (iii) applying a low-level noise suppression factor to the low pass filtered matrix by raising the matrix to a fractional power, and (iv) determining a TGC function for each row and to apply the TGC functions to the plurality of echogenic data sets automatically. an image processing system configured to process an imaging signal generated by an intravascular ultrasound imaging system into a plurality of echogenic data sets, the image processing system being adapted to determine a plurality of TGC functions for the plurality of echogenic data sets collected during one rotation of an ultrasound imaging device of the intravascular ultrasound imaging system by (i) forming a matrix, comprising a plurality of rows and a plurality of columns, of the plurality of echogenic data sets with each data set arranged in a separate row of the matrix and each column of the matrix corresponding to a point in time and each row corresponding to one angular position of the ultrasound imaging device, (ii) locally averaging the matrix by two-dimensional low pass filtering the matrix to provide locally averaged data sets, (iii) applying a low-level noise suppression factor to the low pass filtered matrix by raising the matrix to a fractional power, and (iv) determining a TGC function for each row and to apply the TGC functions to the plurality of echogenic data sets automatically.
A built-in weight lifting and lowering device configured for adding and removing a load of a built-in weight to and from a load measuring mechanism of a weighing apparatus to perform calibration of the weighing apparatus and a normal weighing operation, wherein the built-in weight is supported by a weight holder that can vertically be displaced, a driving container is disposed in the weight holder, a volume of the driving container being variable according to an interior content, the weight holder is lifted and lowered by the change in volume of the driving container, and a load of the built-in weight is added to and removed from the load measuring mechanism by the weight holder lifting and lowering operation, characterized in that the driving container is formed as an air bag.
Use of a top-blowing lance having a burner function, comprising: a refining oxygen gas blowing nozzle (5b 1) having a plurality of ejection openings (e) through which oxygen gas is blown into an iron bath in a reaction vessel, the ejection openings (e) being disposed along a circular orbit at intervals; and a burner nozzle (5b 2) having an axis coaxial with the central axis of the circular orbit, forming a flame inside the refining oxygen gas blowing nozzle (5b 1), and having ejection openings (f) for blowing a powder heated by the flame into the iron bath, such that an indicator A that indicates the positional relationship between the ejection openings (e) of the refining oxygen gas blowing nozzle (5b 1) and the ejection openings (f) of the burner nozzle (5b 2) satisfies the following condition: A = 1.7 R − r − d / 2 / L + tan θ − 12 ° − 0.0524 > 0 where R denotes the pitch circle radius of the ejection openings (e) of the refining oxygen gas blowing nozzle (5b 1) (mm), r denotes the radius of the ejection openings (f) of the burner nozzle (5b 2) (mm), d denotes the diameter of the ejection openings (e) of the refining oxygen gas blowing nozzle (mm), θ denotes the angle (inclination) between the axis of the refining oxygen gas blowing nozzle (5b 1) and the central axis of the circular orbit (°), and L denotes the lance height (mm). where R denotes the pitch circle radius of the ejection openings (e) of the refining oxygen gas blowing nozzle (5b 1) (mm), r denotes the radius of the ejection openings (f) of the burner nozzle (5b 2) (mm), d denotes the diameter of the ejection openings (e) of the refining oxygen gas blowing nozzle (mm), θ denotes the angle (inclination) between the axis of the refining oxygen gas blowing nozzle (5b 1) and the central axis of the circular orbit (°), and L denotes the lance height (mm).
A method for fabricating a semiconductor structure, comprising: providing a base substrate, including a substrate and a plurality of discrete fins (110, 120, 130) on the substrate, wherein the substrate includes a pull-up transistor region and a pull-down transistor region adjacent to the pull-up transistor region; forming a gate structure (102, 402), across a length portion of each fin (110, 120, 130), covering top and sidewall surfaces of each fin (110, 120, 130), and on each fin (110, 120, 130); forming pull-up doped epitaxial layers (131, 431), in the fin on both sides of the gate structure (102, 402) in the pull-up transistor region; forming a first pull-down doped region (132, 432), in the fin (110, 120, 130) on one side of the gate structure (102, 402) in the pull-down transistor region, wherein the first pull-down doped region (132, 432) is connected to an adjacent pull-up doped epitaxial layer (131, 431); characterised by forming a second pull-down doped region, in the fin (110, 120, 130) on another side of the gate structure (102, 402) in the pull-down transistor region, wherein an epitaxial layer is not formed when forming the second pull-down doped region, and an ion doping process is directly performed on the fin (110, 120, 130). providing a base substrate, including a substrate and a plurality of discrete fins (110, 120, 130) on the substrate, wherein the substrate includes a pull-up transistor region and a pull-down transistor region adjacent to the pull-up transistor region; forming a gate structure (102, 402), across a length portion of each fin (110, 120, 130), covering top and sidewall surfaces of each fin (110, 120, 130), and on each fin (110, 120, 130); forming pull-up doped epitaxial layers (131, 431), in the fin on both sides of the gate structure (102, 402) in the pull-up transistor region; forming a first pull-down doped region (132, 432), in the fin (110, 120, 130) on one side of the gate structure (102, 402) in the pull-down transistor region, wherein the first pull-down doped region (132, 432) is connected to an adjacent pull-up doped epitaxial layer (131, 431); characterised by forming a second pull-down doped region, in the fin (110, 120, 130) on another side of the gate structure (102, 402) in the pull-down transistor region, wherein an epitaxial layer is not formed when forming the second pull-down doped region, and an ion doping process is directly performed on the fin (110, 120, 130).
A toner cartridge, comprising: a toner accommodating container accommodating a toner; and a memory having stored therein reference data corresponding to toner characteristics of the toner in the toner accommodating container, the reference data comprising a first reference value to be compared with an optical detection result of a toner pattern formed by the toner on a medium for changing an image forming condition by an image forming apparatus based on the comparison, characterized in that the reference data further comprises a table in which a speed classification, a passed sheet threshold, and a correcting control value are associated with each other, the passed sheet threshold is compared to a counted number of passed sheets by the image forming apparatus, the correcting control value is used for correcting a second reference value which is used for determining whether to replenish the toner from the toner cartridge into a developer container of the image forming apparatus. a toner accommodating container accommodating a toner; and a memory having stored therein reference data corresponding to toner characteristics of the toner in the toner accommodating container, the reference data comprising a first reference value to be compared with an optical detection result of a toner pattern formed by the toner on a medium for changing an image forming condition by an image forming apparatus based on the comparison, characterized in that the reference data further comprises a table in which a speed classification, a passed sheet threshold, and a correcting control value are associated with each other, the passed sheet threshold is compared to a counted number of passed sheets by the image forming apparatus, the correcting control value is used for correcting a second reference value which is used for determining whether to replenish the toner from the toner cartridge into a developer container of the image forming apparatus.
A computer-implemented method for controlling an application running on a computing device, the method comprising: receiving a current gesture performed by a human user while the user interacts with the application; comparing the current gesture with a plurality of predefined control gestures wherein at least one application function (F1 to Fn) is associated with a respective control gesture; if the current gesture matches at least an initial partial gesture of a particular control gesture associated with the at least one function, generating confirmation feedback for the user wherein the confirmation feedback encodes, in a format perceptible by the user, at least a first information identifying the at least one application function associated with the particular control gesture, characterized in that the confirmation feedback further encodes, in a format perceptible by the user, a second information about a time interval remaining before the associated application function will be executed; and if completion of the particular control gesture is detected during said time interval, and if a neutral position of the human user is detected during said time interval, preventing the execution of the associated function; else if completion of the particular control gesture is detected during said time interval, and no neutral position is detected during said time interval, triggering the execution of the associated function. receiving a current gesture performed by a human user while the user interacts with the application; comparing the current gesture with a plurality of predefined control gestures wherein at least one application function (F1 to Fn) is associated with a respective control gesture; if the current gesture matches at least an initial partial gesture of a particular control gesture associated with the at least one function, generating confirmation feedback for the user wherein the confirmation feedback encodes, in a format perceptible by the user, at least a first information identifying the at least one application function associated with the particular control gesture, characterized in that the confirmation feedback further encodes, in a format perceptible by the user, a second information about a time interval remaining before the associated application function will be executed; and if completion of the particular control gesture is detected during said time interval, and if a neutral position of the human user is detected during said time interval, preventing the execution of the associated function; else if completion of the particular control gesture is detected during said time interval, and no neutral position is detected during said time interval, triggering the execution of the associated function.
A patient table, such as a patient bed, operating room table or another patient table comprising a lower body and a scissor structure (X, A1, A2) articulated with the lower body and supporting a table top, the scissor structure comprising a first and a second scissor arm (A1, A2) that are crossed and joined by a joint structure at the centre area of the scissor structure, and in which patient table a bottom end of the first scissor arm is joined to the lower body by a bottom joint and a top end of the second scissor arm is joined to the table top by a top joint, and in which patient table there is a slide support between the top end of the first scissor arm and the table top and a slide support between the bottom end of the second scissor arm and the lower body, and which patient table comprises an electric actuator arrangement arranged to produce height adjustment of the table top by changing the angle between the joined scissor arms (A1, A2) of the scissor structure, and in which patient table one of the scissor arms consists of two parts formed by articulation, wherein the electric actuator arrangement comprises two electric actuators (30, 300) attached between the scissor arms (A1, A2) and thus arranged to move with the scissor arms, the first electric actuator between the scissor arms being configured to perform height adjustment and the second electric actuator between the scissor arms being configured to perform, in addition to height adjustment, tilting of the second arm portion (A2a) comprised by the scissor portion divided into two parts by articulation to allow the table top to be tilted, wherein the scissor arms (A1, A2) that are joined crosswise by the joint structure of the scissor structure are doubled and comprise a first and a second arm portion (A11, A12) of the first scissor arm and a first and a second arm portion (A21, A22) of the second scissor arm, and wherein the electric actuator for height adjustment attached between the crossing scissor arms (A1, A2) is fastened between the first and the second arm portions (A11, A12) of the first scissor arm and the first and the second arm portions (A21, A22) of the second scissor arm.
Method for cooling a heat-generating device of a submarine, in particular for cooling a fuel cell system of a submarine, in which a coolant is guided in a coolant circuit through the heat-generating device, characterized in that a partial flow of the coolant is diverted from the coolant circuit into a liquid degasifier in the form of a vacuum degasifier and subsequently returned to the coolant circuit.
A battery module, comprising: a plurality of single cells arranged in sequence; a sampling circuit board disposed opposite to a top of the single cells and provided with a conductive hole and a conductive sleeve disposed in the conductive hole; and a busbar having a connecting plate and a conductive post extending from the connecting plate, and the connecting plate being connected to the single cells, wherein the busbar is electrically connected to the sampling circuit board by insertion of the conductive post into the conductive sleeve, characterized in that, a filler gap is formed between an outer peripheral surface of the conductive post and an inner wall of the conductive sleeve, and the battery module further comprises a soldered body formed by solder, wherein at least a portion of the soldered body is provided in the filler gap, and the conductive post and the conductive sleeve are connected with each other by the soldered body, and the sampling circuit board further comprises an annular body located at an end of the conductive sleeve, and the annular body is disposed on a surface of the sampling circuit board facing the single cells and is provided to surround the conductive hole, the soldered body comprises a sleeve portion disposed in the filler gap and an annular flange provided on the sleeve portion, and the annular flange is configured to extend from the sleeve portion over a surface of the annular body. a plurality of single cells arranged in sequence; a sampling circuit board disposed opposite to a top of the single cells and provided with a conductive hole and a conductive sleeve disposed in the conductive hole; and a busbar having a connecting plate and a conductive post extending from the connecting plate, and the connecting plate being connected to the single cells, wherein the busbar is electrically connected to the sampling circuit board by insertion of the conductive post into the conductive sleeve, characterized in that, a filler gap is formed between an outer peripheral surface of the conductive post and an inner wall of the conductive sleeve, and the battery module further comprises a soldered body formed by solder, wherein at least a portion of the soldered body is provided in the filler gap, and the conductive post and the conductive sleeve are connected with each other by the soldered body, and the sampling circuit board further comprises an annular body located at an end of the conductive sleeve, and the annular body is disposed on a surface of the sampling circuit board facing the single cells and is provided to surround the conductive hole, the soldered body comprises a sleeve portion disposed in the filler gap and an annular flange provided on the sleeve portion, and the annular flange is configured to extend from the sleeve portion over a surface of the annular body.