mhurhangee/ep-ind-claims huggingface dataset:
A biosensor component for use in analyzing a biological sample, said biosensor component comprising: a substrate; a conductive layer coated on said substrate; and wherein said conductive layer comprises nickel, chromium, and molybdenum, wherein the weight percent of nickel in the conductive layer is in the range of 55 to 60 weight percent, wherein the weight percent of chromium in the conductive layer is in the range of 15 to 34 weight percent, wherein the weight percent of molybdenum in the conductive layer is in the range of 7 to 17 weight percent. a substrate; a conductive layer coated on said substrate; and wherein said conductive layer comprises nickel, chromium, and molybdenum, wherein the weight percent of nickel in the conductive layer is in the range of 55 to 60 weight percent, wherein the weight percent of chromium in the conductive layer is in the range of 15 to 34 weight percent, wherein the weight percent of molybdenum in the conductive layer is in the range of 7 to 17 weight percent.
A system of a building, comprising - at least two closing devices which each include a frame, an adjustable wing movably arranged on the frame, an electromotive driving device for adjusting the adjustable wing or an assembly of the adjustable wing, and a control device, and - at least one sensor device for generating a sensor signal in dependence on at least one environmental condition, wherein the control device of each closing device includes a communication interface and the control devices of the at least two closing devices are formed to communicate with each other via their communication interfaces to control the at least two closing devices in dependence on the sensor signal of the at least one sensor device, wherein each control device includes a sensor unit for providing a connection for at least one sensor device, wherein one or more sensor devices are connected to the control device via the sensor unit, characterized in that sensor signals arriving via the sensor unit are evaluated and supplied to a control section, in order to provide for a control of the associated closing device and by communication with other control devices also of the other closing devices, and that each control device includes a switching power supply for converting an unstabilized input voltage into a constant output voltage, wherein the control section and the switching power supply of the control device share a processor unit of the control device. - at least two closing devices which each include a frame, an adjustable wing movably arranged on the frame, an electromotive driving device for adjusting the adjustable wing or an assembly of the adjustable wing, and a control device, and - at least one sensor device for generating a sensor signal in dependence on at least one environmental condition,
An outer diffuser case for use in a gas turbine engine, the outer diffuser case comprising: a cone-shaped housing orientated about an axis, the housing including a lip; and an aft flange projecting radially outward from the housing, and configured to detachably engage a high pressure turbine, wherein the lip generally projects rearward from the aft flange, wherein the lip has a base portion and a reinforcement portion projecting radially outward from the base portion and directly adjacent to the aft flange, wherein the base portion includes a distal end that projects axially rearward further than the reinforcement portion, characterised in that the base portion has an outer diameter within a range of about 54.562 to 54.587 cm, and the reinforcement portion projects axially rearward from the aft flange by a distance within a range of about 0.749 to 0.775 cm and has an outer diameter with a range of about 54.747 to 54.757 cm. a cone-shaped housing orientated about an axis, the housing including a lip; and an aft flange projecting radially outward from the housing, and configured to detachably engage a high pressure turbine, wherein the lip generally projects rearward from the aft flange, wherein the lip has a base portion and a reinforcement portion projecting radially outward from the base portion and directly adjacent to the aft flange, wherein the base portion includes a distal end that projects axially rearward further than the reinforcement portion, characterised in that the base portion has an outer diameter within a range of about 54.562 to 54.587 cm, and the reinforcement portion projects axially rearward from the aft flange by a distance within a range of about 0.749 to 0.775 cm and has an outer diameter with a range of about 54.747 to 54.757 cm.
A stereoscopic optical system for a surgical instrument, the system comprising a left optical channel, a right optical channel and an electromagnetic actuator with a stator and a rotor, wherein optical components of the left optical channel are arranged in a left guide tube and optical components of the right optical channel are arranged in a separate right guide tube, wherein the rotor comprises a left rotor, in which at least one optical component of the left optical channel is accommodated, and a right rotor, in which at least one optical component of the right optical channel is accommodated, and wherein the left and the right rotor (22, 24) are mounted in the respective guide tube (26, 28) such that they can move in a longitudinal axial direction (LL, LR) of the left and right guide tube (26, 28), wherein the rotors (22, 24) each at least partially comprise a paramagnetic and/or ferromagnetic material and can be moved in the longitudinal axial direction (LL, LR) by application of an electromagnetic field, and wherein the stator comprises an electric coil for generating the electromagnet field; characterized in that the stator comprises a distal permanent magnet and a proximal permanent magnet which are oppositely polarized in the longitudinal axial direction; and wherein the stator is arranged outside the guide tubes.
A combo-jack detecting circuit for use in an audio codec, connectable with an audio apparatus electrically, the audio apparatus comprising a first terminal and a second terminal, the combo-jack detecting circuit comprising: a switch unit, being coupled to the first terminal and the second terminal, and selectively switching to output a first voltage signal of the first terminal and a second voltage signal of the second terminal sequentially; a detecting unit, being coupled to the switch unit; and a low pass filter, being coupled between the switch unit and the detecting unit; wherein the low pass filter receives the first voltage signal and the second voltage signal via the switch unit and provides a first direct current signal of the first voltage signal and a second direct current signal of the second voltage signal, respectively, and the detecting unit generates a determination result according to the first direct current signal and the second direct current signal to determine a jack type of the audio apparatus and to determine the first terminal or the second terminal to connect to a ground according to the determination result. a switch unit, being coupled to the first terminal and the second terminal, and selectively switching to output a first voltage signal of the first terminal and a second voltage signal of the second terminal sequentially; a detecting unit, being coupled to the switch unit; and a low pass filter, being coupled between the switch unit and the detecting unit; wherein the low pass filter receives the first voltage signal and the second voltage signal via the switch unit and provides a first direct current signal of the first voltage signal and a second direct current signal of the second voltage signal, respectively, and the detecting unit generates a determination result according to the first direct current signal and the second direct current signal to determine a jack type of the audio apparatus and to determine the first terminal or the second terminal to connect to a ground according to the determination result.
Electrical connection terminal for connection of a conductor, having a busbar, a clamping spring by means of which the conductor is clamped against the busbar in a clamped state, and an actuating element by means of which the clamping spring is transferable from the clamped state into a non-clamped state, wherein provision is made of a receiving element to which the clamping spring is fastened, wherein the receiving element has a holding element on which the clamping spring is held in the non-clamped state and from which the clamping spring is released in the clamped state, wherein, for release of the clamping spring from the holding element, the holding element is pivotable, wherein the holding element has a pressure-exertion surface which, for execution of the pivoting movement, is actuatable by means of the conductor to be connected, characterized in that the clamping spring is in the form of a leaf spring, which is formed to be elongate and thus to have a sheet-like or strip-like contour. a busbar, a clamping spring by means of which the conductor is clamped against the busbar in a clamped state, and an actuating element by means of which the clamping spring is transferable from the clamped state into a non-clamped state, wherein provision is made of a receiving element to which the clamping spring is fastened, wherein the receiving element has a holding element on which the clamping spring is held in the non-clamped state and from which the clamping spring is released in the clamped state, wherein, for release of the clamping spring from the holding element, the holding element is pivotable, wherein the holding element has a pressure-exertion surface which, for execution of the pivoting movement, is actuatable by means of the conductor to be connected, characterized in that the clamping spring is in the form of a leaf spring, which is formed to be elongate and thus to have a sheet-like or strip-like contour.
A data storage method performed by a controller in a cold storage system, wherein the system includes data storage devices configured to store data blocks and parity storage devices configured to store protection blocks, and wherein the data storage devices and the parity storage devices form a 2 dimensional matrix having multiple rows and multiple columns, each row and each column having a plurality of data storage devices and at least one parity storage device, the method comprising: receiving a data write request to write a plurality of data blocks to the system; selecting and activating a data storage device for storing the plurality of data blocks without activating any of other data storage devices; writing the data blocks sequentially into memory blocks of the selected and activated data storage device, each data block belonging to a row stripe distributed over one row of the matrix and to a column stripe distributed over one column of the matrix; generating (515, 523) a row protection block for the row stripe and a column protection block for the column stripe for the said each data block; and writing (515, 523) the row protection block to a parity storage device in the row, and the column protection block to a parity storage device in the column. receiving a data write request to write a plurality of data blocks to the system; selecting and activating a data storage device for storing the plurality of data blocks without activating any of other data storage devices; writing the data blocks sequentially into memory blocks of the selected and activated data storage device, each data block belonging to a row stripe distributed over one row of the matrix and to a column stripe distributed over one column of the matrix; generating (515, 523) a row protection block for the row stripe and a column protection block for the column stripe for the said each data block; and writing (515, 523) the row protection block to a parity storage device in the row, and the column protection block to a parity storage device in the column.
A hinge for eyeglasses having - a first hinge part associated with a central part of an eyeglass; - a second hinge part associated with an ear-piece of the eyeglass, wherein - one of the hinge parts comprises at least three tabs (13, 13a, 13b) situated at a distance from one another and - one of the hinge parts comprises at least two tabs (15, 15a) situated at a distance from one another such that they can be positioned within the interspaces between the tabs of the other hinge part, - the tabs each have a through hole through which - a screw provided with an external thread and a head extends in the assembled state of the hinge, and wherein - two adjacent tabs (13, 13a) are present on hinge part which comprises at least three tabs (13, 13a, 13b), of which tabs only one has a through hole with internal thread, and the other tab being provided with a through hole the inner diameter of which being selected such that it does not cooperate with the external thread of the screw, characterized in that - the through holes (29, 33) of at least two tabs (13b, 13a) of the three tabs (13, 13a, 13b) of the one hinge part are provided with internal threads (31, 35) which cooperate with external thread of the screw. - a first hinge part associated with a central part of an eyeglass; - a second hinge part associated with an ear-piece of the eyeglass, wherein - one of the hinge parts comprises at least three tabs (13, 13a, 13b) situated at a distance from one another and - one of the hinge parts comprises at least two tabs (15, 15a) situated at a distance from one another such that they can be positioned within the interspaces between the tabs of the other hinge part, - the tabs each have a through hole through which - a screw provided with an external thread and a head extends in the assembled state of the hinge, and wherein - two adjacent tabs (13, 13a) are present on hinge part which comprises at least three tabs (13, 13a, 13b), of which tabs only one has a through hole with internal thread, and the other tab being provided with a through hole the inner diameter of which being selected such that it does not cooperate with the external thread of the screw, - the through holes (29, 33) of at least two tabs (13b, 13a) of the three tabs (13, 13a, 13b) of the one hinge part are provided with internal threads (31, 35) which cooperate with external thread of the screw.
Procedure for coordinating driving maneuvers between a vehicle and at least one Alius vehicle (B, C, D), with the following steps - determining a planned path of the vehicle, - determining an ideal trajectory for a predetermined time or distance range along the travel path based on the travel path and environmental information of the vehicle, - Determining a hesitation trajectory along the same travel path, the hesitation trajectory having the same travel path and a time delay compared to the ideal trajectory, - transmitting the ideal trajectory and the hesitation trajectory to the Alii vehicles, - receiving the ideal trajectory (40B, 40C, 40D) and the hesitation trajectory (42B, 42C, 42D) of the Alii vehicles (B, C, D), - Determine whether a conflict situation exists when the vehicle and the Alii vehicles (B, C, D) move according to their ideal trajectories (40A, 40B, 40C, 40D), - if a conflict situation is determined, determining a conflict-free default trajectory set for all vehicles (A, B, C, D), - Moving the vehicle along the specification trajectory characterized in that the environmental information of the vehicle is determined on the basis of environmental sensors of the vehicle and that the hesitation trajectory has a reduced length due to reduced travel speed compared to the ideal trajectory and that the conflict-free default trajectory set is selected from the ideal trajectory or the hesitation trajectory (40, 42). - determining a planned path of the vehicle, - determining an ideal trajectory for a predetermined time or distance range along the travel path based on the travel path and environmental information of the vehicle, - Determining a hesitation trajectory along the same travel path, the hesitation trajectory having the same travel path and a time delay compared to the ideal trajectory, - transmitting the ideal trajectory and the hesitation trajectory to the Alii vehicles, - receiving the ideal trajectory (40B, 40C, 40D) and the hesitation trajectory (42B, 42C, 42D) of the Alii vehicles (B, C, D), - Determine whether a conflict situation exists when the vehicle and the Alii vehicles (B, C, D) move according to their ideal trajectories (40A, 40B, 40C, 40D), - if a conflict situation is determined, determining a conflict-free default trajectory set for all vehicles (A, B, C, D), - Moving the vehicle along the specification trajectory the environmental information of the vehicle is determined on the basis of environmental sensors of the vehicle and that the hesitation trajectory has a reduced length due to reduced travel speed compared to the ideal trajectory and that the conflict-free default trajectory set is selected from the ideal trajectory or the hesitation trajectory (40, 42).
A non-reciprocal circuit device having first, second, and third ports (51, 52, 53), the non-reciprocal circuit device operating as a circulator by connecting each of the first, second, and third ports (51, 52, 53) to an associated one of signal lines, and operating as an isolator by connecting each of the first and second ports (51, 52) to an associated one of signal lines and connecting the third port to a terminal resistor, the non-reciprocal circuit device comprising: a mounting surface extending in a first direction substantially parallel to a laminating direction and a second direction substantially perpendicular to the first direction; first and second side surfaces (13, 14) extending in the first direction and a third direction substantially perpendicular to the first and second direction; a first permanent magnet; a magnetic rotor laminated in the laminating direction with respect to the first permanent magnet, the magnetic rotor having a central conductor and the first, the second, and the third ports (51, 52, 53) derived from the central conductor; a conductor plate provided between the first permanent magnet and the magnetic rotor in the laminating direction; a first external terminal provided on the first side surface and connected to the first port; a second external terminal provided on the second side surface and connected to the second port; a third external terminal provided on the mounting surface and connected to the third port; a fourth external terminal provided on the mounting surface and connected to the conductor plate; and a connection conductor connecting the conductor plate to the fourth external terminal. a mounting surface extending in a first direction substantially parallel to a laminating direction and a second direction substantially perpendicular to the first direction; first and second side surfaces (13, 14) extending in the first direction and a third direction substantially perpendicular to the first and second direction; a first permanent magnet; a magnetic rotor laminated in the laminating direction with respect to the first permanent magnet, the magnetic rotor having a central conductor and the first, the second, and the third ports (51, 52, 53) derived from the central conductor; a conductor plate provided between the first permanent magnet and the magnetic rotor in the laminating direction; a first external terminal provided on the first side surface and connected to the first port; a second external terminal provided on the second side surface and connected to the second port; a third external terminal provided on the mounting surface and connected to the third port; a fourth external terminal provided on the mounting surface and connected to the conductor plate; and a connection conductor connecting the conductor plate to the fourth external terminal.
Printing apparatus with a cartridge carrier and with a locking-and-ejection mechanism, wherein the cartridge carrier has a cavity for insertion of an ink cartridge, characterized in that: the locking-and-ejection mechanism is arranged on an outside of a side part of a cartridge carrier; the locking-and-ejection mechanism has a locking mechanism with a locking lever charged with a spring force by a first spring, which locking lever can be tilted around a rotation axis, wherein the rotation axis is arranged situated on the outside of the side part; the locking-and-ejection mechanism has an ejection mechanism with a lifting plate charged with a spring force at least by a second spring, which lifting plate is arranged so as to be movable in rotation on the outside of the side part, wherein the rotation axis of the lifting plate is arranged stationary on the outside of the side part; the locking lever comprises a first locking means and a second locking means to the lock the first locking means, and an actuation means is provided to unlock the locking of the second locking means, wherein the lifting plate is arranged to be rotatable so far that the locking lever is held in the unlocked position after an ejection of an ink cartridge.
An apparatus, comprising: Circuitry, which is configured to: receive an analog body-surface signal from one or more body-surface electrodes attached externally to a patient; receive multiple analog unipolar signals from multiple unipolar electrodes of a probe inserted in an organ of the patient; assign, from among the multiple unipolar electrodes, a first unipolar electrode to serve as a common electrical ground and a common timing reference for the analog unipolar signals and the analog body-surface signal; digitize the analog unipolar signals to produce respective digital unipolar signals by sampling the analog unipolar signals relative to a digital ground; and define (i) an analog bipolar signal between the first unipolar electrode and a second unipolar electrode of the probe and (ii) a digital bipolar signal formed from respective digital unipolar signals derived from the first unipolar electrode and the second unipolar electrode; and a processor, which is configured to: estimate a ground offset and a timing offset between the analog bipolar signal and the digital bipolar signal, while the first unipolar electrode is connected to the digital ground; and apply the ground offset and the timing offset in measuring a third unipolar signal, sensed by a third unipolar electrode of the probe, relative to the body-surface signal. receive an analog body-surface signal from one or more body-surface electrodes attached externally to a patient; receive multiple analog unipolar signals from multiple unipolar electrodes of a probe inserted in an organ of the patient; assign, from among the multiple unipolar electrodes, a first unipolar electrode to serve as a common electrical ground and a common timing reference for the analog unipolar signals and the analog body-surface signal; digitize the analog unipolar signals to produce respective digital unipolar signals by sampling the analog unipolar signals relative to a digital ground; and define (i) an analog bipolar signal between the first unipolar electrode and a second unipolar electrode of the probe and (ii) a digital bipolar signal formed from respective digital unipolar signals derived from the first unipolar electrode and the second unipolar electrode; and estimate a ground offset and a timing offset between the analog bipolar signal and the digital bipolar signal, while the first unipolar electrode is connected to the digital ground; and apply the ground offset and the timing offset in measuring a third unipolar signal, sensed by a third unipolar electrode of the probe, relative to the body-surface signal.