mhurhangee/ep-ind-claims huggingface dataset:
Device comprising: a housing with a housing opening defining a fluid connection between a fluid channel in the device and ambient air, a sensor coupled to the fluid channel and disposed in the housing, configured to sense at least one component of the ambient air, a micro fluid actuator arranged downstream of the sensor and disposed in the housing, configured, in the suction stroke, to suck in fluid through the fluid channel and to transport the same towards the sensor, and, in the pressure stroke, to transport the sucked-in fluid through said fluid channel back towards the housing opening, the sensor being arranged spaced apart from the housing opening, and the volume of the fluid channel between the sensor and the housing opening being equal to or smaller than the stroke volume which the micro fluid actuator may convey with a single suction stroke, characterized in that the stroke volume of the micro fluid actuator is at least 2.5 times larger than the volume of a fluid channel portion between the sensor and the housing opening, and in that the micro fluid actuator is a membrane actuator having a carrier and a deflectable membrane arranged at the same, and the membrane is mechanically biased so that the membrane is spaced apart from the carrier in an unoperated idle position and, upon operation, moves towards the carrier. a housing with a housing opening defining a fluid connection between a fluid channel in the device and ambient air, a sensor coupled to the fluid channel and disposed in the housing, configured to sense at least one component of the ambient air, a micro fluid actuator arranged downstream of the sensor and disposed in the housing, configured, in the suction stroke, to suck in fluid through the fluid channel and to transport the same towards the sensor, and, in the pressure stroke, to transport the sucked-in fluid through said fluid channel back towards the housing opening, the sensor being arranged spaced apart from the housing opening, and the volume of the fluid channel between the sensor and the housing opening being equal to or smaller than the stroke volume which the micro fluid actuator may convey with a single suction stroke, characterized in that the stroke volume of the micro fluid actuator is at least 2.5 times larger than the volume of a fluid channel portion between the sensor and the housing opening, and in that the micro fluid actuator is a membrane actuator having a carrier and a deflectable membrane arranged at the same, and the membrane is mechanically biased so that the membrane is spaced apart from the carrier in an unoperated idle position and, upon operation, moves towards the carrier.
Method for the time-controlled data transmission of data packets (P1, P2, P3, P4) in a time-sensitive network in accordance with the TSN standard, wherein - each data packet is assigned to a data stream and is identified by a unique stream ID, - the network consists of individual network elements (Source, B1, B2, Sink), and - the time sequence (t) in each network element (Source, B1, B2, Sink) is divided into pre-scheduled, equal-sized time windows and - the network elements (Source, B1, B2, Sink) each have their own independent timer (C1, C2, C3, C4) which is not synchronized with timers of other network elements, and - these time windows for all network elements start and end at the same time points (t1, t2, t3, t4), characterized in that the transmission of a data packet (P1, P2, P3, P4) from a first network element (Source, B1, B2) to a subsequent network element (B1, B2, Sink) takes place in the time window following the time window in which this data packet (P1, P2, P3, P4) was received by a preceding network element (Source, B1, B2), and each network element (Source, B1, B2, Sink) knows the start time of the time window belonging to a data stream, each network element (Source, B1, B2, Sink) determines, based on its own independent timer (C1, C2, C3, C4) which is not synchronized with timers of other network elements and a delay value (DVi), at what time point (t1, t2, t3, t4) the next transmit time window begins and/or ends, and the required delay value (DVi) is calculated in the transmitting network element (Source, B1, B2) depending on the associated data stream and is transmitted in the data packet (P1, P2, P3, P4) to the receiving network element (B1, B2, Sink). - each data packet is assigned to a data stream and is identified by a unique stream ID, - the network consists of individual network elements (Source, B1, B2, Sink), and - the time sequence (t) in each network element (Source, B1, B2, Sink) is divided into pre-scheduled, equal-sized time windows and - the network elements (Source, B1, B2, Sink) each have their own independent timer (C1, C2, C3, C4) which is not synchronized with timers of other network elements, and - these time windows for all network elements start and end at the same time points (t1, t2, t3, t4),
A control and programming system for producing a ball of thread for a ball winding machine, the thread having a plurality of stretches with different colours (a, b, c) along the relative longitudinal direction, comprising - a device for moving the thread towards the ball winding machine and - a device for cutting the thread characterised in that it further comprises - a device for continuously acquiring the chromatic characteristics (a, b, c) of the thread connected to a respective control unit, whereby the device for cutting the thread is located downstream at least of the acquisition device. - a device for moving the thread towards the ball winding machine and - a device for cutting the thread characterised in that it further comprises - a device for continuously acquiring the chromatic characteristics (a, b, c) of the thread connected to a respective control unit, whereby the device for cutting the thread is located downstream at least of the acquisition device.
An imaging element comprising: an imaging unit that has: a plurality of groups each including a plurality of pixels; a plurality of signal readout units (411, 412, 413) that are each provided to each of the groups and read out signals from the pixels; a control unit that controls the signal readout unit (411, 412, 413) in at least one group among the plurality of groups; a subject estimating unit that estimates a main subject based on an image imaged by the imaging unit; and a group selecting unit that selects, as the at least one group, a first group on which image light of the main subject that is estimated by the subject estimating unit is incident, wherein: the control unit controls the signal readout unit (411, 412, 413) that corresponds to the at least one group at a first frame rate, and controls the signal readout unit (411, 412, 413) that corresponds to a second group at a second frame rate that is different from the first frame rate, the first frame rate is based on a speed of the moving main subject, and when a third group is present at a boundary between the first group and the second group, the imaging element uses an intermediate value between the first frame rate of the first group and the second frame rate of the second group as a third frame rate of the third group. a plurality of groups each including a plurality of pixels; a plurality of signal readout units (411, 412, 413) that are each provided to each of the groups and read out signals from the pixels; a control unit that controls the signal readout unit (411, 412, 413) in at least one group among the plurality of groups; a subject estimating unit that estimates a main subject based on an image imaged by the imaging unit; and a group selecting unit that selects, as the at least one group, a first group on which image light of the main subject that is estimated by the subject estimating unit is incident, the control unit controls the signal readout unit (411, 412, 413) that corresponds to the at least one group at a first frame rate, and controls the signal readout unit (411, 412, 413) that corresponds to a second group at a second frame rate that is different from the first frame rate, the first frame rate is based on a speed of the moving main subject, and when a third group is present at a boundary between the first group and the second group, the imaging element uses an intermediate value between the first frame rate of the first group and the second frame rate of the second group as a third frame rate of the third group.
Brass alloy for manufacturing of semi-finished products for machining, wherein the brass alloy consists of the following alloy elements in percent by weight: Cu 54.0 - 59.0 Zn 40.5 - 46.0 Pb 0.02 - 0.10 Fe 0.10 - 0.50 Mn 0.10 - 0.50 Sn 0.10 - 0.60 P < 0.20 optionally S 0.010 - 0.030 Si 0.020 - 0.20 Co ≤ 0.30 Te < 0.50 and melt-related impurities below 0.20, wherein the proportion of Ni in the melt-related impurities is less than 0.080.
A storage device comprising: a non-volatile memory including a plurality of memory blocks (BLK1-BLKz) each including a plurality of word lines (WL1, WL2); characterised by a memory controller configured to determine a word line strength of each of the plurality of word lines, adjust a state count of each of the plurality of word lines based on the word line strengths, and adjust a program parameter of each of the plurality of word lines to decrease a program time variation (ΔtPGM) between the plurality of word lines, wherein the memory controller is configured to adjust the state count of each of the plurality of word lines so that a state count allocated to a first word line, which has a first word line strength, is more than a state count allocated to a second word line, which has a second word line strength that is lower than the first word line strength, and wherein the strength of each word line is calculated on the basis of a program parameter and state metrics. a non-volatile memory including a plurality of memory blocks (BLK1-BLKz) each including a plurality of word lines (WL1, WL2); characterised by a memory controller configured to determine a word line strength of each of the plurality of word lines, adjust a state count of each of the plurality of word lines based on the word line strengths, and adjust a program parameter of each of the plurality of word lines to decrease a program time variation (ΔtPGM) between the plurality of word lines, wherein the memory controller is configured to adjust the state count of each of the plurality of word lines so that a state count allocated to a first word line, which has a first word line strength, is more than a state count allocated to a second word line, which has a second word line strength that is lower than the first word line strength, and wherein the strength of each word line is calculated on the basis of a program parameter and state metrics.
A positioner comprising: a displacement amount detector configured to detect an amount of displacement of a valve stem of a regulating valve and configured to output a pair of detection signals; an interconnection board that includes two insulating layers (100, 101), and an interconnection layer which is disposed between two insulating layers and comprising a pair of signal interconnections (22, 23), having the pair of detection signals supplied thereto, formed therein; a circuit board on which an electronic circuit generating a control signal for controlling a valve opening of the regulating valve, on the basis of the pair of detection signals that are input through the pair of signal interconnections, is formed; and a housing that accommodates at least the interconnection board and the circuit board, wherein the interconnection board is bonded to the housing by a conductive adhesive member in at least a portion of a surface of any one of the insulating layers, and wherein the adhesive member has a measured value of hardness, which is obtained by a type D durometer after hardening, being in a range of equal to or greater than D20 and equal to or less than D90. a displacement amount detector configured to detect an amount of displacement of a valve stem of a regulating valve and configured to output a pair of detection signals; an interconnection board that includes two insulating layers (100, 101), and an interconnection layer which is disposed between two insulating layers and comprising a pair of signal interconnections (22, 23), having the pair of detection signals supplied thereto, formed therein; a circuit board on which an electronic circuit generating a control signal for controlling a valve opening of the regulating valve, on the basis of the pair of detection signals that are input through the pair of signal interconnections, is formed; and a housing that accommodates at least the interconnection board and the circuit board, wherein the interconnection board is bonded to the housing by a conductive adhesive member in at least a portion of a surface of any one of the insulating layers, and wherein the adhesive member has a measured value of hardness, which is obtained by a type D durometer after hardening, being in a range of equal to or greater than D20 and equal to or less than D90.
A welding system, comprising: - a welding power supply configured to provide welding power for a welding application through a weld cable; and - a processor disposed within the welding power supply, wherein the processor is configured to transmit and receive data related to a welding operating parameter through the weld cable, wherein the processor is further coupled to a transmitter configured to transmit one or more modulated or unmodulated tones through the weld cable, characterized in that a transmitted modulated tone is a complex sinusoidal signal utilized to send or receive data related to the welding operating parameter; wherein a transmitted unmodulated tone is a sinusoidal signal comprising a reference amplitude, a reference phase, and a reference frequency, and wherein the transmitted unmodulated tone is utilized as a reference signal; wherein the processor is coupled to a receiver configured to receive the one or more transmitted modulated or unmodulated tones through the weld cable, wherein the processor is configured to apply a digital filter function to the one or more received unmodulated tones, and wherein the digital filter function is configured to determine the equalization filter coefficient related to the weld cable to compensate for a distortive characteristic of the weld cable. - a welding power supply configured to provide welding power for a welding application through a weld cable; and - a processor disposed within the welding power supply, wherein the processor is configured to transmit and receive data related to a welding operating parameter through the weld cable,
A freestanding vehicle seat assembly comprising: a seat having a seat portion connected to a back portion; a monopost attached at a bottom of the seat portion such that the seat rests only on the monopost, the monopost having a base; and a track assembly (718; 1112) attached at a bottom of the monopost, the track assembly configured for providing fore and aft movement of the freestanding vehicle seat assembly, the track assembly comprising at least two rails with corresponding sleds; characterized in that the track assembly (718; 1112) further comprises a load catcher configured to be mounted to a vehicle floor, wherein the base partially extends below the load catcher and is configured to be slidingly constrained by the load catcher. a seat having a seat portion connected to a back portion; a monopost attached at a bottom of the seat portion such that the seat rests only on the monopost, the monopost having a base; and a track assembly (718; 1112) attached at a bottom of the monopost, the track assembly configured for providing fore and aft movement of the freestanding vehicle seat assembly, the track assembly comprising at least two rails with corresponding sleds; characterized in that the track assembly (718; 1112) further comprises a load catcher configured to be mounted to a vehicle floor, wherein the base partially extends below the load catcher and is configured to be slidingly constrained by the load catcher.
Apparatus for heating plastic parisons, with a transport device which transports the plastic parisons along a predetermined transport path, and with at least one heating device, which is disposed stationary with respect to the transport path of the plastic parisons, wherein the heating device has at least one first radiation source which emits thermal radiation as well as at least one reflector device which reflects at least a proportion of the thermal radiation emitted by the radiation source in the direction of the plastic parisons, wherein the reflector device has a first section with a substantially parabolically curved configuration, characterised in that the reflector device has a second section (54, 56) with a curved configuration, of which the curvature progression differs from the curvature progression of the first section.
A method for mounting an electrical linking module for a pneumatic valve system, in which a cornered housing of the linking module with a connection opening formed in a housing side for connecting to an electrical function module separate from the linking module is provided, and in which a plurality of linking contacts, which are formed for linking the linking module to at least one further linking module are installed in the housing, characterized in that the linking contacts are mounted on a circuit board outside of the housing and thereby a pre-mounted insertion assembly is formed outside of the housing, which is inserted into the housing via the connection opening, such that linking contacts extend outwards through at least one first feed-through opening in a first sidewall of the housing in the final position of the insertion assembly in the interior of the housing and extend outwards through at least one second feed-through opening in a second sidewall of the housing opposing the first one, wherein the insertion assembly is fed through the connection opening in an inclined position, in which first ends of the linking contacts are first introduced into the connection opening in immersing manner and the first ends are introduced into first receiving slots of a support device formed for receiving the linking contacts in the housing by the inclined position, wherein these first receiving slots are thereto formed with straight first receiving slots oriented in the direction of the connection opening for extending through and guiding each one linking contact, wherein the first receiving slots arranged in the area of the first sidewall of the housing are formed open at their ends facing the connection opening viewed in their height extension and the first ends of the linking contacts are threaded via these upper ends.
A rotation transmission mechanism that transmits rotational driving force outputted from a rotation drive source to a load-side member via a speed reducer, the rotation transmission mechanism comprising: a powertrain configured from a plurality of power-transmitting members including the speed reducer; the speed reducer being a strain wave gearing; characterized in that an allowable load torque of the power-transmitting members other than the strain wave gearing being greater than a predetermined upper-limit load torque; an allowable load torque of the strain wave gearing being prescribed by a ratcheting torque set to a value equal to or lower than the upper-limit load torque; and the strain wave gearing functioning as a mechanical fuse. a powertrain configured from a plurality of power-transmitting members including the speed reducer; the speed reducer being a strain wave gearing; characterized in that an allowable load torque of the power-transmitting members other than the strain wave gearing being greater than a predetermined upper-limit load torque; an allowable load torque of the strain wave gearing being prescribed by a ratcheting torque set to a value equal to or lower than the upper-limit load torque; and an allowable load torque of the power-transmitting members other than the strain wave gearing being greater than a predetermined upper-limit load torque; an allowable load torque of the strain wave gearing being prescribed by a ratcheting torque set to a value equal to or lower than the upper-limit load torque; and the strain wave gearing functioning as a mechanical fuse.
A slitting apparatus for slitting material fed in a downstream direction (20a, 20b) characterized by: an anvil cylinder having a central axis and an outer cylindrical surface adapted to support the material as it conveys through the slitting apparatus; an in-line cutting assembly comprising a series of blades (42i, 42ii, 42iii) with cutting edges (44a, 44b, 44c) disposed within a common plane that is oriented perpendicular to the cylinder's central axis; characterized by said cutting edges (44a, 44b, 44c) being arranged in an arcuate line that spirals inwardly toward the outer cylindrical surface whereby the blades (42i, 42ii, 42iii) progressively slice the material so that the in-line cutting assembly forms a singular continuous slit. an anvil cylinder having a central axis and an outer cylindrical surface adapted to support the material as it conveys through the slitting apparatus; an in-line cutting assembly comprising a series of blades (42i, 42ii, 42iii) with cutting edges (44a, 44b, 44c) disposed within a common plane that is oriented perpendicular to the cylinder's central axis; characterized by said cutting edges (44a, 44b, 44c) being arranged in an arcuate line that spirals inwardly toward the outer cylindrical surface whereby the blades (42i, 42ii, 42iii) progressively slice the material so that the in-line cutting assembly forms a singular continuous slit.
A dispersion comprising particles of a carboxylic acid polymer dispersed in an organic medium comprising an emollient ester and a non-ionic surfactant, wherein the dispersion comprises 20 to 60% by weight of said polymer, and the emollient ester is an alkoxylated ester.
A method comprising: operating a logging tool in a borehole, the logging tool having a transmitting antenna (44, 46, 48, 50, 52, 54) which is selectively operable at three or more frequencies and a receiving antenna (38, 40, 42); sending a control signal to a relay (SW1, SW2) across a signal line (78, 80) that couples an antenna signal to the transmitting antenna, thereby selectively tuning the transmitting antenna; transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned first frequency; transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned second frequency; and transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned third frequency. operating a logging tool in a borehole, the logging tool having a transmitting antenna (44, 46, 48, 50, 52, 54) which is selectively operable at three or more frequencies and a receiving antenna (38, 40, 42); sending a control signal to a relay (SW1, SW2) across a signal line (78, 80) that couples an antenna signal to the transmitting antenna, thereby selectively tuning the transmitting antenna; transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned first frequency; transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned second frequency; and transmitting from the transmitting antenna an electromagnetic wave having a r selectively tuned third frequency.