mhurhangee/ep-ind-claims huggingface dataset:
An audio device configured to be used by a user comprising: an audio unit; an organism sensor unit configured to be inserted into an ear of the user; a housing unit comprising the audio unit; and a joint portion, wherein in a state in which the audio device is worn by the user the joint portion extends from the bottom of the housing unit, and said joint portion supports the organism sensor unit at a position blocking the ear shell of the user, characterized in that the audio unit is configured to externally abut on the ear of the user without being inserted into the ear of the user; and the audio unit comprises a piezoelectric element that curves and a panel that vibrates when directly bent by the piezoelectric element. an audio unit; an organism sensor unit configured to be inserted into an ear of the user; a housing unit comprising the audio unit; and a joint portion, wherein in a state in which the audio device is worn by the user the joint portion extends from the bottom of the housing unit, and said joint portion supports the organism sensor unit at a position blocking the ear shell of the user, characterized in that the audio unit is configured to externally abut on the ear of the user without being inserted into the ear of the user; and the audio unit comprises a piezoelectric element that curves and a panel that vibrates when directly bent by the piezoelectric element.
A computer-implemented method comprising: identifying a first instruction to create a variable handle instance, the first instruction including declaration information that identifies a type of a receiver and a variable held by the receiver to which the variable handle instance is configured to provide access, wherein the receiver is a structure used to hold the variable; responsive to the first instruction, and based on the declaration information, performing one or more checks to determine whether access to the variable is permissible, wherein the one or more checks is performed by at least determining whether an acting class issuing the first instruction has proper privileges to access the variable; in response to a determination that the acting class has the proper privileges to access the variable, creating the variable handle instance, the variable handle instance comprising one or more constrained functions configured to execute constrained operations on a memory location of the variable, wherein the one or more constrained functions comprise one or more of: one or more fenced operations or one or more atomic operations; identifying a second instruction that specifies a call to a particular constrained function of the one or more constrained functions of the variable handle instance, wherein the second instruction indicates the receiver; and identifying, based at least on the receiver indicated by the second instruction, a particular memory location where the variable is stored and causing performance of the particular constrained function with respect to the particular memory location. identifying a first instruction to create a variable handle instance, the first instruction including declaration information that identifies a type of a receiver and a variable held by the receiver to which the variable handle instance is configured to provide access, wherein the receiver is a structure used to hold the variable; responsive to the first instruction, and based on the declaration information, performing one or more checks to determine whether access to the variable is permissible, wherein the one or more checks is performed by at least determining whether an acting class issuing the first instruction has proper privileges to access the variable; in response to a determination that the acting class has the proper privileges to access the variable, creating the variable handle instance, the variable handle instance comprising one or more constrained functions configured to execute constrained operations on a memory location of the variable, wherein the one or more constrained functions comprise one or more of: one or more fenced operations or one or more atomic operations; identifying a second instruction that specifies a call to a particular constrained function of the one or more constrained functions of the variable handle instance, wherein the second instruction indicates the receiver; and identifying, based at least on the receiver indicated by the second instruction, a particular memory location where the variable is stored and causing performance of the particular constrained function with respect to the particular memory location.
An opening and closing device comprising: a base (11L, 11R); an arm plate including an arm portion (23L, 23R); a locking system (25L, 25R) for locking the arm portion (23L, 23R); and a rotation plate rotatably connected to the arm portion (23L, 23R), the rotation plate including an attachment arm (33L, 33R), wherein, by rotating the arm portion (23L, 23R) with respect to the base (11L, 11R), locking of the arm portion (23L, 23R) by the locking system (25L, 25R) is released and the arm portion (23L, 23R) becomes capable of being linearly moved with respect to the base (11L, 11R) between a retracted position and a forward position, wherein the rotation plate is capable of being rotated between an opened position and a closed position, wherein the rotation plate is superposed on the arm plate at the closed position, wherein, at the opened position, the rotation plate is inverted with respect to the closed position and the rotation plate is parallel with the base (11L, 11R), and wherein, in a state in which the arm plate is at the forward position, by causing the rotation plate to be in a state in which the rotation plate is at the closed position, the rotation plate is caused to be in a state in which the rotation plate is tilted with respect to the base (11L, 11R). a base (11L, 11R); an arm plate including an arm portion (23L, 23R); a locking system (25L, 25R) for locking the arm portion (23L, 23R); and a rotation plate rotatably connected to the arm portion (23L, 23R), the rotation plate including an attachment arm (33L, 33R), wherein, by rotating the arm portion (23L, 23R) with respect to the base (11L, 11R), locking of the arm portion (23L, 23R) by the locking system (25L, 25R) is released and the arm portion (23L, 23R) becomes capable of being linearly moved with respect to the base (11L, 11R) between a retracted position and a forward position, wherein the rotation plate is capable of being rotated between an opened position and a closed position, wherein the rotation plate is superposed on the arm plate at the closed position, wherein, at the opened position, the rotation plate is inverted with respect to the closed position and the rotation plate is parallel with the base (11L, 11R), and wherein, in a state in which the arm plate is at the forward position, by causing the rotation plate to be in a state in which the rotation plate is at the closed position, the rotation plate is caused to be in a state in which the rotation plate is tilted with respect to the base (11L, 11R).
An optical scanning device comprising: a light source configured to emit first light in a first wavelength range and second light in a second wavelength range; a beam divider configured to: receive the first light, and allow the first light received by the beam divider to travel in a first direction; and receive the second light, and allow the second light received by the beam divider to travel in a second direction different from the first direction; a first optical modulator configured to receive the first light, and modulate a phase of the first light received by the first optical modulator to change a travelling direction of the first light received by the first optical modulator; and a second optical modulator configured to receive the second light, and modulate a phase of the second light received by the second optical modulator to change a travelling direction of the second light received by the second optical modulator. a light source configured to emit first light in a first wavelength range and second light in a second wavelength range; a beam divider configured to: receive the first light, and allow the first light received by the beam divider to travel in a first direction; and receive the second light, and allow the second light received by the beam divider to travel in a second direction different from the first direction; a first optical modulator configured to receive the first light, and modulate a phase of the first light received by the first optical modulator to change a travelling direction of the first light received by the first optical modulator; and a second optical modulator configured to receive the second light, and modulate a phase of the second light received by the second optical modulator to change a travelling direction of the second light received by the second optical modulator. receive the first light, and allow the first light received by the beam divider to travel in a first direction; and receive the second light, and allow the second light received by the beam divider to travel in a second direction different from the first direction; a first optical modulator configured to receive the first light, and modulate a phase of the first light received by the first optical modulator to change a travelling direction of the first light received by the first optical modulator; and a second optical modulator configured to receive the second light, and modulate a phase of the second light received by the second optical modulator to change a travelling direction of the second light received by the second optical modulator.
A method for determining that a liquid sample volume aspirated in a liquid aspiration process is at least as large as a desired volume, characterized in that said method comprises: determining the profile of a shortened final portion of an aspiration pressure curve representative of said liquid aspiration process, wherein said aspiration pressure curve begins with an aspiration pressure at the beginning of an actual aspiration of the liquid and ends at the aspiration pressure at the end of said actual aspiration of said liquid; calculating a first mathematical representation of said shortened final portion of said aspiration pressure curve; calculating a second mathematical representation of said shortened final portion of said aspiration pressure curve of a liquid sample known to be of less than said desired volume; determining if the standard deviation of the residuals between said profile of said shortened final portion of said aspiration pressure curve and said first mathematical representation of said shortened final portion of said aspiration pressure curve is larger than the standard deviation of the residuals between said profile of said shortened final portion of said aspiration pressure curve and said second mathematical representation of said shortened final portion of said aspiration pressure curve, and, confirming thereby that the aspirated liquid sample volume is at least as large as said desired volume. determining the profile of a shortened final portion of an aspiration pressure curve representative of said liquid aspiration process, wherein said aspiration pressure curve begins with an aspiration pressure at the beginning of an actual aspiration of the liquid and ends at the aspiration pressure at the end of said actual aspiration of said liquid; calculating a first mathematical representation of said shortened final portion of said aspiration pressure curve; calculating a second mathematical representation of said shortened final portion of said aspiration pressure curve of a liquid sample known to be of less than said desired volume; determining if the standard deviation of the residuals between said profile of said shortened final portion of said aspiration pressure curve and said first mathematical representation of said shortened final portion of said aspiration pressure curve is larger than the standard deviation of the residuals between said profile of said shortened final portion of said aspiration pressure curve and said second mathematical representation of said shortened final portion of said aspiration pressure curve, and, confirming thereby that the aspirated liquid sample volume is at least as large as said desired volume.
A communication method for controlling data transmission of a mobile station at a base station (eNB), the method comprising the steps of: determining, by the base station (eNB), a transmission operation to be performed by the mobile station in next transmission time interval based on Hybrid Automatic Repeat reQuest, HARQ, and schedule result; sending (S204, S206, S305, S309), in a downlink by the base station (eNB), an Acknowledgement/Negative Acknowledgement, ACK/NACK, packet, an indicator indicating the type of the transmission by the mobile station and a resource use command for the used resource based on the determined transmission operation; receiving (S205, S207, S306, S310), by the mobile station, the ACK/NACK packet, the indicator and the resource use command sent from the base station (eNB), and performing respective transmission operations according to the received ACK/NACK packet, indicator and resource use command without using any data-associated signaling in an uplink. determining, by the base station (eNB), a transmission operation to be performed by the mobile station in next transmission time interval based on Hybrid Automatic Repeat reQuest, HARQ, and schedule result; sending (S204, S206, S305, S309), in a downlink by the base station (eNB), an Acknowledgement/Negative Acknowledgement, ACK/NACK, packet, an indicator indicating the type of the transmission by the mobile station and a resource use command for the used resource based on the determined transmission operation; receiving (S205, S207, S306, S310), by the mobile station, the ACK/NACK packet, the indicator and the resource use command sent from the base station (eNB), and performing respective transmission operations according to the received ACK/NACK packet, indicator and resource use command without using any data-associated signaling in an uplink.
A pin for coupling between a wear element and a support of an earth-moving machine, with: - An elongated body with two curved surfaces, a concave upper surface and a convex lower surface, the upper surface having an upper orifice for access to a cavity inside the body, - An elastic block arranged inside the cavity of the body with an upper surface, and characterised in that it comprises: - A latch partially housed in the cavity of the body, said latch having: ∘ A curved outer surface, ∘ An upper surface and a lower surface, connected by the curved outer surface, the lower surface being in contact with the upper surface of the elastic block, ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface, ∘ Two flat side surfaces (23, 24), and ∘ A cylinder by way of rotation shaft of the latch, arranged between the intermediate surface and the lower surface, the ends (28, 29) thereof extending beyond the flat side surfaces (23, 24) of the latch. - An elongated body with two curved surfaces, a concave upper surface and a convex lower surface, the upper surface having an upper orifice for access to a cavity inside the body, - An elastic block arranged inside the cavity of the body with an upper surface, and - A latch partially housed in the cavity of the body, said latch having: ∘ A curved outer surface, ∘ An upper surface and a lower surface, connected by the curved outer surface, the lower surface being in contact with the upper surface of the elastic block, ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface, ∘ Two flat side surfaces (23, 24), and ∘ A cylinder by way of rotation shaft of the latch, arranged between the intermediate surface and the lower surface, the ends (28, 29) thereof extending beyond the flat side surfaces (23, 24) of the latch. ∘ A curved outer surface, ∘ An upper surface and a lower surface, connected by the curved outer surface, the lower surface being in contact with the upper surface of the elastic block, ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface, ∘ Two flat side surfaces (23, 24), and ∘ A cylinder by way of rotation shaft of the latch, arranged between the intermediate surface and the lower surface, the ends (28, 29) thereof extending beyond the flat side surfaces (23, 24) of the latch.
Device forming a robotic finger comprising a base forming a palm, at least one phalange (500, 700, 900) articulated to the base about two independent articulations (200, 400) not parallel to one another, at least two actuators (110, 120, 130, 140), cable-based linking means (112, 114; 122, 124; 132, 134 and 142, 144) respectively connecting the two actuators (110, 120) to drive elements (325, 326, 525, 526) of said two articulations (200, 400), and guide means (150, 151, 152) suitable for guiding the cables (122, 124; 132, 134 and 142, 144) involved in the control of each articulation (400, 600, 800) situated after the first articulation on the base, in a common plane passing through the axis of this first articulation, characterized in that the guide means are formed from cylindrical rods extending along axes parallel to the first axis of articulation, that are borne by the base, in that the device comprises at least two rods (151, 152, 151bis, 152bis) at the exit of a guiding stage the separation of which substantially corresponds to the required close working clearance in order to ensure a free translation of the cables (112, 114; 122, 124; 132, 134 and 142, 144), at the diameter thereof, the two rods (151, 152, 151bis, 152bis) being arranged symmetrically on either side of a plane of symmetry passing through the first axis of articulation and guiding the cables at the entry of the first articulation, and that the device moreover comprises a frame which bears two series of at least one double conical roller part (224, 223, 232, 233) symmetrical with respect to the axis of the first articulation and intended to guide the cables (122, 124; 132, 134 and 142, 144) originating from the guiding stage formed by said rods (151, 152, 151bis, 152bis) towards at least one downstream articulation (600, 800).
Moulding element of a mould for moulding and vulcanizing a tyre tread, this tread comprising a tread surface intended to come into contact with the ground when the said tyre is running, this moulding element comprising a moulding surface intended to mould part of the tyre tread surface and a blade of length L and of height Hc intended to mould a sipe or a groove in the tread, this blade comprising a rounded end extending along the length of the blade in a direction of extension X, characterized in that the moulding element comprises two cutting means positioned on either side of the blade at a certain distance from this blade, and in that each cutting means comprises a cutting edge extending in the direction of extension, this cutting edge making an acute angle α in a cutting plane perpendicular to this direction of extension X, the height Hlc of this cutting edge being greater than or equal to the height of the blade Hc.
An overspeed protection device of an aircraft engine comprising a fuel supply system of said aircraft engine, the protection device comprising a voltage source configured to deliver voltage according to negative or positive polarization; a logic control device connected in series to the voltage source, said logic control device being configured to open or close the supply system as a function of the polarization of the delivered voltage; a first electronic unit (ECU#1) connected in series to the voltage source and the logic control device and which comprises a first speed sensor delivering a first discrete electric control signal (CMD#1) as a function of the speed of the engine; a normally closed first switch controlled by said first discrete electric control signal; a second electronic unit (ECU#2) connected in series to the voltage source and the logic control device and which comprises a second speed sensor delivering a second discrete electric control signal (CMD#2) as a function of the speed of the engine; a normally closed second switch controlled by said second discrete electric control signal (CMD#2); the normally closed first switch and the normally closed second switch having a 'closed' state letting current pass through and an 'open' state letting no current pass through; the logic control device being arranged between both the first electronic unit (ECU#1) and the second electronic unit (ECU#2); the normally closed first and second switches being sensitive respectively to the first and second discrete electric control signals only if the voltage has a same predetermined polarization, for this same predetermined polarization, the first and second switches letting the first (ECU#1) and second (ECU#2) electronic units isolate or connect the logic control device of the voltage source as a function of said discrete electric control signals. a first speed sensor delivering a first discrete electric control signal (CMD#1) as a function of the speed of the engine; a normally closed first switch controlled by said first discrete electric control signal; a second speed sensor delivering a second discrete electric control signal (CMD#2) as a function of the speed of the engine; a normally closed second switch controlled by said second discrete electric control signal (CMD#2);