mhurhangee/patent-ind-claim-en huggingface dataset:
Process to correct aberration defects within an optical viewing device for observing a field through a window with substantially a dome shape, the optical viewing device comprising optical conjugation means for the field being observed with a viewing plane and relative orientation means for the viewing plane with respect to said field , optical correction means being provided so as to correct said aberration defects, said optical correction means between said window and said relative orientation means are disposed so that said optical correction means form together with said window an at least substantially afocal optical system, the optical correction means having the shape of a lens whose power and sign are respectively substantially equal and opposed to those of the window , the optical conjugation means being formed of a set of lenses in order to conjugate the field being observed with the viewing plane; characterized in that the window , the optical conjugation means and the optical correction means are centered on a same optical axis (X-X'),the aberrations defects are astigmatism defects, the relative orientation means are formed of a set of prisms in order to re-orient a field initially not centered on the optical axis (X-X') so that it is centered on the optical axis (X-X') after passing the prisms ; the optical correction means are mounted on a support integral with the optical viewing device .
A compound of formula ZZ: wherein n = 1 or 2; R, independently of other R, is hydrogen, halogen, allyl, or alkyl group having from 1 to 6 carbon atoms; R 2 = hydrogen, alkyl group having from 1 to 6 carbon atoms, ester; R 3 = hydrogen, halogen, alkyl, haloalkyl, allyl, alkenyl, or haloalkenyl; R 4 and R 5 are N; or R 4 =N and R 5 =C; or R 4 and R 5 = C; and A = oxygen or sulfur; for use in the treatment of cancer, by administering to a patient in need thereof an effective amount of said compound.
A method for processing a biological fluid in an automated biological fluid processing system , wherein the biological fluid is from a non-living source, said system including a hardware unit comprising a controller including pre-programmed instructions and a disposable fluid circuit mounted on said hardware unit , the method comprising: a) initiating the processing in the automated biological fluid processing system; b) detecting non-operator correctable hardware errors of a certain type and category in the hardware unit ; c) recognizing said hardware error as being of a certain type and category; d) pausing said processing; e) allowing for a period of time for the system to self-recover; and f) resuming said processing without operator intervention. a) initiating the processing in the automated biological fluid processing system; b) detecting non-operator correctable hardware errors of a certain type and category in the hardware unit ; c) recognizing said hardware error as being of a certain type and category; d) pausing said processing; e) allowing for a period of time for the system to self-recover; and f) resuming said processing without operator intervention.
Electronic device containing at least one organic semiconductor which has been obtained by a reaction involving at least one reactive halogen, characterised in that the content of the halogen involved in the reaction in the organic semiconductor is less than 20 ppm, and in that the content of the halogens fluorine, chlorine, bromine and iodine in the organic semiconductor is in each case less than 20 ppm, with the proviso that this limit applies to fluorine only if fluorine is not a constituent part of the chemical structure of the organic semiconductor; with the proviso that the organic semiconductor is not a polythiophene which has been obtained by a reaction involving bromine as reactive halogen, and which has a bromine content of less than 20 ppm.
A turbine airfoil structure comprising: a pressure side wall , a suction side wall , and a dovetail base contacting with the pressure side wall and the suction side wall; a cooling circuit originating from the dovetail base and extending between the pressure side wall and the suction side wall; a plurality of raising pins disposed along the side walls, wherein the raising pins comprise first and second ends, the first end being in direct contact with the side walls; characterized in that it further comprises a plurality of raised turbulator ribs , each turbulator rib of the plurality of turbulator ribs being connected to at least one of the plurality of raising pins at the second end thereof, the plurality of raised turbulator ribs being spaced apart from the side walls. a pressure side wall , a suction side wall , and a dovetail base contacting with the pressure side wall and the suction side wall; a cooling circuit originating from the dovetail base and extending between the pressure side wall and the suction side wall; a plurality of raising pins disposed along the side walls, wherein the raising pins comprise first and second ends, the first end being in direct contact with the side walls; characterized in that it further comprises a plurality of raised turbulator ribs , each turbulator rib of the plurality of turbulator ribs being connected to at least one of the plurality of raising pins at the second end thereof, the plurality of raised turbulator ribs being spaced apart from the side walls.
An additive manufacturing apparatus for building an object by layerwise consolidation of material, the apparatus comprising a build enclosure containing a build support for supporting the object during the build, a material source arranged to provide material to selected locations for consolidation, a radiation device for generating and directing radiation to consolidate the material at the selected locations and a passive acoustic sensing system comprising an acoustic emission sensor , characterised in that the acoustic emission sensor is coupled physically to the build support to detect structure-borne waves generated in the build enclosure that travel through the build support , the structure-borne waves indicative of at least one condition of the building process and/or the object .
An imaging system configured to acquire images of a subject, comprising: a source configured to emit an energy to generate image data; a detector configured to detect the emitted energy and generate image data based on the detected emitted energy; and a track extending along an arc around a center; wherein the source and the detector are individually and independently moveable along the track from a first position to a second position, wherein the second position has a greater distance between the source and the detector than the first position, characterized in that : the source is configured to move to the second position based on a first signal; the detector is configured to move to the second position based on a second signal, wherein the first signal and the second signal are based at least on an average of a speed of movement of the source and an average of a speed of movement of the detector and at least further on a difference between the speed of movement of the source and the speed of movement of the detector ; and wherein the imaging system is configured to transmit the first signal and the second signal. a source configured to emit an energy to generate image data; a detector configured to detect the emitted energy and generate image data based on the detected emitted energy; and a track extending along an arc around a center; wherein the source and the detector are individually and independently moveable along the track from a first position to a second position, wherein the second position has a greater distance between the source and the detector than the first position, the source is configured to move to the second position based on a first signal; the detector is configured to move to the second position based on a second signal, wherein the first signal and the second signal are based at least on an average of a speed of movement of the source and an average of a speed of movement of the detector and at least further on a difference between the speed of movement of the source and the speed of movement of the detector ; and wherein the imaging system is configured to transmit the first signal and the second signal.
Hinge for a micromechanical and/or nanomechanical structure comprising a support , at least one movable part (M) in an out-of-plane direction (Z) with respect to the support , said hinge being intended to suspend the movable part (m) from the support allowing for the out-of-plane displacement of the movable part (M), the hinge comprising at least one torsion element comprising at least one beam aligned with or parallel to the axis (Y1) of rotation of the hinge, and intended to be deformed in torsion, at least one bending element (E1) intended to be deformed in bending, said bending element (E1) being intended to mechanically connect the movable part (M) and the support and comprising at least one first bending beam (12.1) and at least one second bending beam (12.2) extending perpendicularly to the axis of rotation (Y1) of the hinge , the first bending beam (12.1) being intended to be mechanically connected directly to the support by a first end (12.11) and to the movable part (M) by a second end (12.12), and the second bending beam (12.2) being intended to be mechanically connected directly to the support by a first end (12.21) and to the movable part (M) by a second end (12.21), the first end (12.11) and the second end (12.12) of the first bending beam (12.1) and the first end (12.21) and the second end (12.22) of the second bending beam (12.2) being disposed with respect to one another in such a way that the orientation of the first end (12.21) towards the second end (12.22) of the first bending beam (12.1) is opposed to the orientation of the first end (12.21) towards the second end (12.22) of the second bending beam (12.2), characterised in that the first end (12.11) and the second end (12.12) of the first bending beam (12.1) are located on each side of the axis of rotation (Y1) and the first end (12.21) and the second end (12.22) of the second bending beam (12.2) are located on each side of the axis of rotation (Y1).
An aircraft window configured to reduce the intensity of vibrations transmitted from outside the aircraft to inside the aircraft cabin comprising: a first element of transparent material arranged, in use, facing the outside of the aircraft; a second element of transparent material arranged, in use, facing the cabin; a gap that separates the first and second elements of transparent material which are arranged facing and spaced apart from one another; at least a first transparent sheet element applied to a first face of the first element facing the gap; at least one second transparent sheet element applied to a second face of the second element facing the gap; the first and second transparent sheet elements being made of transparent viscoelastic material, characterised in that it comprises: the first transparent sheet element covers a central area of the first face and is spaced from the edges of the first face so that the perimeter edges of the first transparent sheet element are free of said first sheet element ; the second transparent sheet element covers a central area of the second face and is spaced from the perimeter edges of the second face so that the perimeter edges of the second transparent sheet element are free of said second sheet element . a first element of transparent material arranged, in use, facing the outside of the aircraft; a second element of transparent material arranged, in use, facing the cabin; a gap that separates the first and second elements of transparent material which are arranged facing and spaced apart from one another; at least a first transparent sheet element applied to a first face of the first element facing the gap; at least one second transparent sheet element applied to a second face of the second element facing the gap; the first and second transparent sheet elements being made of transparent viscoelastic material, characterised in that it comprises: the first transparent sheet element covers a central area of the first face and is spaced from the edges of the first face so that the perimeter edges of the first transparent sheet element are free of said first sheet element ; the second transparent sheet element covers a central area of the second face and is spaced from the perimeter edges of the second face so that the perimeter edges of the second transparent sheet element are free of said second sheet element . the first transparent sheet element covers a central area of the first face and is spaced from the edges of the first face so that the perimeter edges of the first transparent sheet element are free of said first sheet element ; the second transparent sheet element covers a central area of the second face and is spaced from the perimeter edges of the second face so that the perimeter edges of the second transparent sheet element are free of said second sheet element .
Method of dynamic allocation of shared resources in a communication network, consisting in defining, in a time-frequency plan, a superframe of a given duration ΔT and a given spectral width Δf, consisting of at least one frame (T1, T2, T3), defining a regular time-frequency grid, of which one square, referred to as a time-frequency unit, constitutes the smallest time and frequency interval allocatable to a user of said network within said frame, said method consisting in reserving, on each carrier frequency of a frame (T1, T2, T3), at least one block (B1, B2) of a number K, greater than or equal to 1, of time-frequency units which can be dynamically allocated to a user for communication or for synchronization, the choice of the number of time-frequency units to be allocated to an user being made according to the number of users connected to the communication network.
A damper , comprising: a disc ; first and second housings defining first and second interiors at opposite disc sides, respectively, the first housing configured to be coupled with a first arm ; first and second bodies respectively disposed within the first and second interiors and respectively comprising collars , bellows connecting the collars to the disc to form third and fourth interiors and springs anchored between the first and second housings and the collars; and a rod configured to be coupled with a second arm , affixed to the first and second bodies and extended through the disc and the first housing , wherein the rod and the first housing are relatively movable with relative movement of the first and second arms and the third and fourth interiors are configured to contain fluid charged therein and to flow the fluid through the disc , wherein the first interior is defined by first sidewalls and a first end wall ; and wherein the second interior is defined by second sidewalls and a second end wall ; characterized in that said springs comprise a first spring anchored at a first end thereof to the first end wall and at a second end thereof to a side of the collar facing away from the third interior and a second spring anchored a first end thereof to the second end wall and at a second end thereof to a side of the collar facing away from the fourth interior . a disc ; first and second housings defining first and second interiors at opposite disc sides, respectively, the first housing configured to be coupled with a first arm ; first and second bodies respectively disposed within the first and second interiors and respectively comprising collars , bellows connecting the collars to the disc to form third and fourth interiors and springs anchored between the first and second housings and the collars; and a rod configured to be coupled with a second arm , affixed to the first and second bodies and extended through the disc and the first housing , wherein the rod and the first housing are relatively movable with relative movement of the first and second arms and the third and fourth interiors are configured to contain fluid charged therein and to flow the fluid through the disc , wherein the first interior is defined by first sidewalls and a first end wall ; and wherein the second interior is defined by second sidewalls and a second end wall ; characterized in that said springs comprise a first spring anchored at a first end thereof to the first end wall and at a second end thereof to a side of the collar facing away from the third interior and a second spring anchored a first end thereof to the second end wall and at a second end thereof to a side of the collar facing away from the fourth interior .
Method for producing a composite panel , in particular intended for aircraft or nautical furniture, said composite panel comprising a central core formed from a core of the low-density structured material type covered on its two faces with at least one layer of material preimpregnated with resin, with at least one of the faces of said panel being covered with a cladding , characterized in that it comprises the following two manufacturing steps: - baking of said cladding with an adhesive film , said adhesive film being glued onto one of the faces of said cladding ; and - baking of said cladding and of the adhesive film on said at least one layer of material preimpregnated with resin. - baking of said cladding with an adhesive film , said adhesive film being glued onto one of the faces of said cladding ; and - baking of said cladding and of the adhesive film on said at least one layer of material preimpregnated with resin.
System for activating a park lock in a transmission with an electric machine which has two output shafts, wherein the one output shaft is connected to a pump for a hydraulic system of the transmission and the other output shaft is connected by way of a freewheel to an eccentric arrangement for activating a park lock , characterized in that the electric machine activates the pump in a first direction of rotation and in this direction of rotation the eccentric arrangement is decoupled from the electric machine by the freewheel and is not operated, wherein the eccentric arrangement is configured to engage and disengage the park lock , and in that the system is configured in such a way that, upon request for an activation of the park lock , the first direction of rotation of the electric machine is changed, such that the eccentric arrangement is activated by way of the freewheel .
A brushless motor , comprising: a casing having an insulating property; a stator fixed within the casing , the stator comprising a stator core and a winding wound around teeth of the stator core ; and a rotor rotatably arranged within the stator , the rotor comprising a rotor core and a shaft passing through the rotor core , wherein two bearings are sleeved on the shaft at positions corresponding to two ends of the rotor core , respectively, and two bearing brackets are installed at two ends of the casing for fixing the two bearings ; wherein the brushless motor further comprises: a conductive sheet , configured for adjusting a capacitive reactance between the stator core and each of the two bearing brackets ; the conductive sheet is spaced apart from the stator core at an outer circumferential side of the stator core , and the conductive sheet is insulated from the stator core ; the conductive sheet and the stator core each at least partially has an area overlapping with each other when seen from a radial direction of the stator core ; and the conductive sheet is in electrical connection with at least one of the two bearing brackets ; characterised in that an outer circumferential area of the stator core is defined as S, the area of each of the conductive sheet and the stator core overlapping with each other when seen from the radial direction of the stator core is defined as S1, and S1 ≥ S/N, wherein N is a number of the teeth of the stator . a casing having an insulating property; a stator fixed within the casing , the stator comprising a stator core and a winding wound around teeth of the stator core ; and a rotor rotatably arranged within the stator , the rotor comprising a rotor core and a shaft passing through the rotor core , wherein two bearings are sleeved on the shaft at positions corresponding to two ends of the rotor core , respectively, and two bearing brackets are installed at two ends of the casing for fixing the two bearings ; the brushless motor further comprises: a conductive sheet , configured for adjusting a capacitive reactance between the stator core and each of the two bearing brackets ; the conductive sheet is spaced apart from the stator core at an outer circumferential side of the stator core , and the conductive sheet is insulated from the stator core ; the conductive sheet and the stator core each at least partially has an area overlapping with each other when seen from a radial direction of the stator core ; and the conductive sheet is in electrical connection with at least one of the two bearing brackets ; characterised in that an outer circumferential area of the stator core is defined as S, the area of each of the conductive sheet and the stator core overlapping with each other when seen from the radial direction of the stator core is defined as S1, and S1 ≥ S/N, wherein N is a number of the teeth of the stator .
A method of wireless communications, for a 3GPP-based communications system, performed by a user equipment, UE, the method comprising: transmitting , on a grant-free resource in an ultra-reliable low-latency communications, URLLC, network, data and a layer 1, L1, signal for identification of the UE; monitoring for a reception indication as a response to the L1 signal in a reception period occurring after transmission of the L1 signal on the grant-free resource; and retransmitting the L1 signal in a next available resource after the reception period based at least in part on the reception indication not being received in the reception period, wherein the L1 signal is retransmitted prior to expiration of a retransmission timer associated with the transmitting. transmitting , on a grant-free resource in an ultra-reliable low-latency communications, URLLC, network, data and a layer 1, L1, signal for identification of the UE; monitoring for a reception indication as a response to the L1 signal in a reception period occurring after transmission of the L1 signal on the grant-free resource; and retransmitting the L1 signal in a next available resource after the reception period based at least in part on the reception indication not being received in the reception period, wherein the L1 signal is retransmitted prior to expiration of a retransmission timer associated with the transmitting.
A process for detecting the presence of a bacterium of the Clostridium genus in a biological sample that may contain such a bacterium, characterized in that it comprises the steps of: (i) carrying out a process for detecting the presence of a bacterium of the Clostridium genus by detecting or quantifying the presence of glutamate dehydrogenase in said sample using an aqueous composition comprising glutamate dehydrogenase from a bacterium of the Clostridium genus and a stabilizing compound which is a carboxylic acid having a carbon-based chain of at least 3 carbon atoms and comprising at least 2 -COOH groups, or a salt thereof, and (ii) a positive result in step (i) makes it possible to conclude that the bacterium is present. (i) carrying out a process for detecting the presence of a bacterium of the Clostridium genus by detecting or quantifying the presence of glutamate dehydrogenase in said sample using an aqueous composition comprising glutamate dehydrogenase from a bacterium of the Clostridium genus and a stabilizing compound which is a carboxylic acid having a carbon-based chain of at least 3 carbon atoms and comprising at least 2 -COOH groups, or a salt thereof, and (ii) a positive result in step (i) makes it possible to conclude that the bacterium is present.