mhurhangee/ep-ind-claims huggingface dataset:
A helmet comprising: a first liner; a second liner disposed such that the first liner is stacked on top of the second liner; a fit belt coupled to an inner surface of the second liner; and an elastomeric strap comprising a first end and a second end opposite the first end wherein: the first end of the elastomeric strap is coupled to an inner surface of the first liner, and the second end of the elastomeric strap is coupled to the fit belt. a first liner; a second liner disposed such that the first liner is stacked on top of the second liner; a fit belt coupled to an inner surface of the second liner; and an elastomeric strap comprising a first end and a second end opposite the first end wherein: the first end of the elastomeric strap is coupled to an inner surface of the first liner, and the second end of the elastomeric strap is coupled to the fit belt. the first end of the elastomeric strap is coupled to an inner surface of the first liner, and the second end of the elastomeric strap is coupled to the fit belt.
A shift device comprising: a supporting body that can be provided at a vehicle body side and inside which an installed member is fixed; a shift body that is supported by the supporting body and that is moved in a front-rear direction to change a shift position; a detection section that is provided at the shift body; a detection means that is provided on a face of the installed member and that detects the detection section so as to detect the shift position of the shift body; two facing portions (24A, 24B) that are respectively provided at one of opposite sides of the shift body in the front-rear direction or opposite sides of the installed member in the front-rear direction; and two facing holes (42, 44) that are respectively provided so as to penetrate the other of the opposite sides of the shift body in the front-rear direction or the opposite sides of the installed member in the front-rear direction, both ends of each facing hole (42, 44) being open, characterized in that each facing hole (42, 44) is caused to approach relatively, or separate relatively from, a position at which the facing hole (42, 44) faces the corresponding facing portion (24A, 24B) due to the shift body being moved in the front-rear direction, and faces the corresponding facing portion (24A, 24B) when the shift body has been moved to a specific position. a supporting body that can be provided at a vehicle body side and inside which an installed member is fixed; a shift body that is supported by the supporting body and that is moved in a front-rear direction to change a shift position; a detection section that is provided at the shift body; a detection means that is provided on a face of the installed member and that detects the detection section so as to detect the shift position of the shift body; two facing portions (24A, 24B) that are respectively provided at one of opposite sides of the shift body in the front-rear direction or opposite sides of the installed member in the front-rear direction; and two facing holes (42, 44) that are respectively provided so as to penetrate the other of the opposite sides of the shift body in the front-rear direction or the opposite sides of the installed member in the front-rear direction, both ends of each facing hole (42, 44) being open, characterized in that each facing hole (42, 44) is caused to approach relatively, or separate relatively from, a position at which the facing hole (42, 44) faces the corresponding facing portion (24A, 24B) due to the shift body being moved in the front-rear direction, and faces the corresponding facing portion (24A, 24B) when the shift body has been moved to a specific position.
A primary magnetic flux control method comprising: setting a primary magnetic flux command value ([Λ1*]), which is a command value of a primary magnetic flux ([λ1]), on a rotary electric motor including an armature having an armature winding, and a rotor which has a field rotating relatively to said armature; and controlling said primary magnetic flux in accordance with said primary magnetic flux command value, said primary magnetic flux being a synthesis of a field flux (Λ0) that said field generates and a magnetic flux ([λa]: id•Ld, iq•Lq) of an armature reaction generated by an armature current (ia) flowing in said armature, and changing said primary magnetic flux command value in accordance with a torque of said rotary electric motor to control a current phase (β) of said armature current with respect to a q axis that advances by π/2 with respect to a d axis in phase with said field flux (Λ0) to be a desired phase in accordance with said torque, characterized in that based on relationships among said primary magnetic flux ([λ1]), said loss of said rotary electric motor, and said torque and a rotation velocity of said rotary electric motor, said primary magnetic flux ([λ1]) that minimizes said loss is set as said primary magnetic flux command value ([Λ1*]) in accordance with said torque and said rotation velocity. setting a primary magnetic flux command value ([Λ1*]), which is a command value of a primary magnetic flux ([λ1]), on a rotary electric motor including an armature having an armature winding, and a rotor which has a field rotating relatively to said armature; and controlling said primary magnetic flux in accordance with said primary magnetic flux command value, said primary magnetic flux being a synthesis of a field flux (Λ0) that said field generates and a magnetic flux ([λa]: id•Ld, iq•Lq) of an armature reaction generated by an armature current (ia) flowing in said armature, and changing said primary magnetic flux command value in accordance with a torque of said rotary electric motor to control a current phase (β) of said armature current with respect to a q axis that advances by π/2 with respect to a d axis in phase with said field flux (Λ0) to be a desired phase in accordance with said torque, characterized in that based on relationships among said primary magnetic flux ([λ1]), said loss of said rotary electric motor, and said torque and a rotation velocity of said rotary electric motor, said primary magnetic flux ([λ1]) that minimizes said loss is set as said primary magnetic flux command value ([Λ1*]) in accordance with said torque and said rotation velocity.
An apparatus, comprising: a frame; a drive system supported by the frame and configured to move the frame along a surface; a cleaning assembly coupled to the frame, the cleaning assembly configured to engage the surface to transfer detritus from the surface to a storage volume supported by the frame; and an electronics system supported by the frame, the electronics system having at least a processor and a memory, the processor configured to execute a set of instructions stored in the memory associated with defining a map of the surface, decomposing the map of the surface into a plurality of sectors based on an efficiency associated with the cleaning assembly transferring detritus from the mapped surface, and defining a path along each sector from the plurality of sectors based at least in part on an efficiency associated with cleaning a portion of the surface for that sector from the plurality of sectors, the processor configured to combine the path for each sector from the plurality of sectors to define a predetermined path and to send to the drive system a signal indicative of an instruction to move the cleaning assembly relative to the surface along the predetermined path. a frame; a drive system supported by the frame and configured to move the frame along a surface; a cleaning assembly coupled to the frame, the cleaning assembly configured to engage the surface to transfer detritus from the surface to a storage volume supported by the frame; and an electronics system supported by the frame, the electronics system having at least a processor and a memory, the processor configured to execute a set of instructions stored in the memory associated with defining a map of the surface, decomposing the map of the surface into a plurality of sectors based on an efficiency associated with the cleaning assembly transferring detritus from the mapped surface, and defining a path along each sector from the plurality of sectors based at least in part on an efficiency associated with cleaning a portion of the surface for that sector from the plurality of sectors, the processor configured to combine the path for each sector from the plurality of sectors to define a predetermined path and to send to the drive system a signal indicative of an instruction to move the cleaning assembly relative to the surface along the predetermined path.
A sunken wheel-side motor drive axle, comprising an axle beam assembly, and further comprising two drive motor assemblies (7, 15), two reducer assemblies and two hub assemblies (2, 10) respectively disposed at left and right ends of the axle beam assembly; the drive motor assemblies (7, 15) transmit power to the reducer assemblies, and the reducer assemblies drive the hub assemblies (2, 10) to rotate, the reducer assembly comprises two first-stage reducer assemblies (6, 14), two second-stage reducer assemblies (4, 12) and two third-stage reducer assemblies (1, 9), and the first-stage reducer assemblies (6, 14), the second-stage reducer assemblies (4, 12) and the third-stage reducer assemblies (1, 9) are arranged symmetrically on the left and right, characterized in that, the drive motor assemblies (7, 15) are symmetrically disposed at a bottom of the left and right ends of the axle beam assembly respectively, an output shaft of the drive motor assembly is connected with a driving gear of the first-stage reducer assembly (6, 14) through splines, and a driven gear output shaft of the first-stage reducer assembly (6, 14) is connected with a driving gear of the second-stage reducer assembly (4, 12), a driven gear of the second-stage reducer assembly (4, 12) transmits power to an input end of the third-stage reducer assembly (1, 9); the second-stage reducer assembly (4, 12) comprises a driving gear, an intermediate shaft and a driven gear, and the intermediate shaft is meshed with the driving gear and the driven gear respectively. the drive motor assemblies (7, 15) transmit power to the reducer assemblies, and the reducer assemblies drive the hub assemblies (2, 10) to rotate, the reducer assembly comprises two first-stage reducer assemblies (6, 14), two second-stage reducer assemblies (4, 12) and two third-stage reducer assemblies (1, 9), and the first-stage reducer assemblies (6, 14), the second-stage reducer assemblies (4, 12) and the third-stage reducer assemblies (1, 9) are arranged symmetrically on the left and right, characterized in that, the drive motor assemblies (7, 15) are symmetrically disposed at a bottom of the left and right ends of the axle beam assembly respectively, an output shaft of the drive motor assembly is connected with a driving gear of the first-stage reducer assembly (6, 14) through splines, and a driven gear output shaft of the first-stage reducer assembly (6, 14) is connected with a driving gear of the second-stage reducer assembly (4, 12), a driven gear of the second-stage reducer assembly (4, 12) transmits power to an input end of the third-stage reducer assembly (1, 9); the second-stage reducer assembly (4, 12) comprises a driving gear, an intermediate shaft and a driven gear, and the intermediate shaft is meshed with the driving gear and the driven gear respectively.
A press stud (10, 110) comprising a male element (12, 112) and a female element (14, 114), the male element (12, 112) comprising a head portion (20, 120) insertable into a housing seat (54, 154) of the female element (14, 114) in a coupling direction (B, B') to provide an uncouplable coupling of the male element (12, 112) with the female element (14, 114), and an elastic engagement member (52, 152) mounted in the housing seat (54, 154) of the female element (14, 114) and engaging in a disengageable way the head portion of the male element (12, 112) when the latter is inserted into the housing seat of the female element (14, 114) in the coupling direction (B, B'), characterized in that the head portion (20, 120) of the male element (12, 112) is provided with an anti-uncoupling appendage (28, 128) which interferes with the female element (14, 114) and prevents the uncoupling of the male element (12, 112) from the female element (14, 114) when they are subjected to tension acting in a substantially transverse direction with respect to the coupling direction (B, B').
An image enhancing device for generating an output image by sharpening an input image, comprising: a high-pass filter configured to generate a first signal by eliminating at least a direct current component of a frequency component included in an input image signal representing the input image; a nonlinear processing unit configured to generate a second signal by carrying out, to the first signal, nonlinear processing having a combination of two different types of nonlinear functions, wherein a nonlinear function applied to the positive area of the first signal is different from a nonlinear function applied to the negative area of the first signal, wherein the nonlinear processing applied to the positive area of the first signal and the nonlinear processing applied to the negative area of the first signal are expressed by continuous functions passing through an origin and wherein a band of a frequency component generated by the nonlinear processing is asymmetric between the positive area and the negative area; a limiter (30, 31) configured to generate a third signal by adjusting the second signal; and an adder configured to generate an output image signal representing the output image by adding the third signal to the input image signal. a high-pass filter configured to generate a first signal by eliminating at least a direct current component of a frequency component included in an input image signal representing the input image; a nonlinear processing unit configured to generate a second signal by carrying out, to the first signal, nonlinear processing having a combination of two different types of nonlinear functions, wherein a nonlinear function applied to the positive area of the first signal is different from a nonlinear function applied to the negative area of the first signal, wherein the nonlinear processing applied to the positive area of the first signal and the nonlinear processing applied to the negative area of the first signal are expressed by continuous functions passing through an origin and wherein a band of a frequency component generated by the nonlinear processing is asymmetric between the positive area and the negative area; a limiter (30, 31) configured to generate a third signal by adjusting the second signal; and an adder configured to generate an output image signal representing the output image by adding the third signal to the input image signal.
A shoe heel which is height adjustable so as to have at least two positions, to which a respective height (h1, h2, h3) of the heel corresponds, at which it can be locked, the heel comprising: a hollow body adapted to be fastened to the sole of the shoe, provided with grooves (121a, 121b, 122a, 122b, 123a, 123b) arranged at different heights from one another; a group of components at least partially inserted into the hollow body, the group of components and the hollow body being adapted to mutually slide; characterized in that said group of components comprises a lever; a button connected to the lever, adapted to cause a rotation of the lever; at least one locking element (106, 107) connected to the lever so as to switch from a locked position, in which said at least one locking element (106, 107) is inserted into a groove (121a, 121b, 122a, 122b, 123a, 123b) of the hollow body, whereby the group of components and the hollow body are mutually locked in position, to a sliding position, in which the group of components and the hollow body can mutually slide; elastic means arranged so as to exert a force which brings said at least one locking element (106, 107) from the sliding position to the locked position. a hollow body adapted to be fastened to the sole of the shoe, provided with grooves (121a, 121b, 122a, 122b, 123a, 123b) arranged at different heights from one another; a group of components at least partially inserted into the hollow body, the group of components and the hollow body being adapted to mutually slide; characterized in that said group of components comprises a lever; a button connected to the lever, adapted to cause a rotation of the lever; at least one locking element (106, 107) connected to the lever so as to switch from a locked position, in which said at least one locking element (106, 107) is inserted into a groove (121a, 121b, 122a, 122b, 123a, 123b) of the hollow body, whereby the group of components and the hollow body are mutually locked in position, to a sliding position, in which the group of components and the hollow body can mutually slide; elastic means arranged so as to exert a force which brings said at least one locking element (106, 107) from the sliding position to the locked position.
Measuring system designed to determine and/or monitor the flow of a medium through a measuring tube, wherein the measuring system comprises the measuring tube and a first ultrasonic transducer and at least a second ultrasonic transducer, wherein the measuring tube has a measuring tube inlet and a measuring tube outlet and a first ultrasonic transducer support and at least an additional, second ultrasonic transducer support, wherein the first ultrasonic transducer can be acoustically coupled in a detachable manner to the first ultrasonic transducer support of the measuring tube and wherein the second ultrasonic transducer can be acoustically coupled in a detachable manner to the second ultrasonic transducer support of the measuring tube, characterized in that at least one ultrasonic transducer (58, 59, 60, 61) features at least one bracket (56, 57), wherein said bracket (56, 57) can be moved and is designed in such a way that the bracket (56, 57) can be engaged in at least one elevation or recess (39, 40, 41, 42) arranged on the measuring tube, and in that the ultrasonic transducer (58, 59, 60, 61) can be mounted on the measuring tube in a detachable manner and can be coupled acoustically with the ultrasonic transducer support (29, 30) of the measuring tube.
Method for processing the output signal from a particle sensor that operates according to the principle of laser-induced incandescence, comprising the step of: providing an output signal on a detector, which characterizes a thermal radiation detected by the detector, by virtue of the detector being a multi-pixel photon counter (MPPC) or a silicon photon multiplier (SiPM) and detecting individual photons by generating a pulse in its output, the method further comprising the following steps of: a. providing an output signal by way of the detector, the output signal comprising a plurality of pulses, and b. at least intermittently: supplying the output signal to a summator, and c. summing the output signal by way of the summator over a time interval, a period of time in which two directly successive pulses are output being, at least intermittently, shorter than the total width of the two pulses, with the result that a "pile-up" occurs, and the summator being an integrator that integrates the output signal over a time interval. a. providing an output signal by way of the detector, the output signal comprising a plurality of pulses, and b. at least intermittently: supplying the output signal to a summator, and c. summing the output signal by way of the summator over a time interval, a period of time in which two directly successive pulses are output being, at least intermittently, shorter than the total width of the two pulses, with the result that a "pile-up" occurs, and the summator being an integrator that integrates the output signal over a time interval.
Partition for fluid tight sealing between a motor compartment and a coupling compartment of an immersible machine, comprising a partition wall having a seat, and at least one coupling terminal made of an electrically conducting material and being arranged in said seat, the coupling terminal being accessible from a primary side of the partition and from a secondary side of the partition, characterized in that the partition comprises a sealing member located in at least a part of the interface between the seat of the partition wall and the coupling terminal, and that a retention means is arranged to retain the coupling terminal in said seat, wherein the coupling terminal comprises a primary spring clip engageable from said primary side and a secondary spring clip engageable from said secondary side.
A method comprising: forming a first print agent pattern on an image forming surface; transferring the first print agent pattern from the image forming surface to an intermediate transfer member (308, 504); transferring the first print agent pattern to a cleanable medium (302, 508); cleaning the first print agent pattern from the cleanable medium (302, 508), wherein the cleanable medium (302, 508) is arranged about at least a portion of an impression cylinder (306, 506); forming a second print agent pattern on the image forming surface; transferring the second print agent pattern from the image forming surface to the intermediate transfer member (308, 504); inserting a printable substrate between the impression cylinder (306, 506) and the intermediate transfer member (308, 504); and transferring the second print agent pattern to the printable substrate, characterised in that the cleanable medium is removed from the impression cylinder (306, 506) before insertion of the printable substrate. forming a first print agent pattern on an image forming surface; transferring the first print agent pattern from the image forming surface to an intermediate transfer member (308, 504); transferring the first print agent pattern to a cleanable medium (302, 508); cleaning the first print agent pattern from the cleanable medium (302, 508), wherein the cleanable medium (302, 508) is arranged about at least a portion of an impression cylinder (306, 506); forming a second print agent pattern on the image forming surface; transferring the second print agent pattern from the image forming surface to the intermediate transfer member (308, 504); inserting a printable substrate between the impression cylinder (306, 506) and the intermediate transfer member (308, 504); and transferring the second print agent pattern to the printable substrate, characterised in that the cleanable medium is removed from the impression cylinder (306, 506) before insertion of the printable substrate.