mhurhangee/patent-ind-claim-en huggingface dataset:
Optical slip ring arrangement for non-contact data transmission via a first optical component and via a second optical component which are rotatable with respect to one another about a common axis of rotation (D), and for this purpose, are arranged opposite one another via a first end face and a second end face , wherein the first optical component has a plurality of optical fibers , wherein on the first end face , the optical fibers are arranged running along a circular arc having a radius (R), wherein the fiber ends are arranged at the first end face along at least one arc segment of the circular arc having a radius (R), - the fibers are routed in a first carrier which extends from a front, first end face to a rear coupling face on the rear side; characterized in that a first planar optical waveguide chip is coupled to the coupling face , - at least a plurality of the optical fibers in the carrier are transferred from the first end face to the coupling face in at least one common connection plane with fiber ends arranged along at least one line, so that inputs of the planar optical waveguide chip are optically coupled to the fiber ends. - the fibers are routed in a first carrier which extends from a front, first end face to a rear coupling face on the rear side; characterized in that a first planar optical waveguide chip is coupled to the coupling face , - at least a plurality of the optical fibers in the carrier are transferred from the first end face to the coupling face in at least one common connection plane with fiber ends arranged along at least one line, so that inputs of the planar optical waveguide chip are optically coupled to the fiber ends.
An apparatus for examining a sample , comprising an imaging device for obtaining an overview image of the sample , an excitation laser for providing a laser beam , a measuring instrument for locally interrogating at least one property of the sample with the laser beam which emanates from an aperture , wherein this aperture is part of a probe that is manually guidable to the sample by an operator of the apparatus , further comprising tracking means for determining the location on the sample that is currently being interrogated with the laser beam , as well as a memory that is configured to associate the property interrogated with the laser beam with the determined location on the sample in the memory , wherein the tracking means are configured to determine the location at which the laser beam impacts the sample by evaluating the so-generated laser spot from the overview image , and/or to determine this location by measuring the position and orientation of the aperture, characterized in that a projector is provided, said projector being configured to project a rendering of the property interrogated with the laser beam and stored in the memory onto the sample at the location associated by the memory .
A nitroxide fluorescent powder comprising an inorganic compound containing M, A, B, O, N, and R elements; in which the M element is at least one of Ca, Sr, Ba, Mg, Li, Na, and K, the A element is at least one of B, Al, Ga, and In, the B element is at least one of C, Si, Ge, and Sn, the R element is at least one of Ce, Eu, Lu, Dy, Gd, and Ho, O is oxygen and N is nitrogen, characterized in that the inorganic compound forms a crystal in a crystalline phase and has a chemical formula of M m-r A a B b N n O c :R r , in which 0.9≤m≤1.1, 0.8≤a≤1.2, 0.8≤b≤1.2, 2.5<n≤3.5, 0.001≤c≤1, 0.001 ≤r≤0.1 and 2m+3a+4b-3n-2c=0, and the oxygen atom content in the crystal in a crystalline phase is in an increasing structural distribution from a core to surface of the crystal.
A conveyor structure of an agricultural machine, the conveyor structure comprising: a first conveyor structure layer ; a core structure layer disposed on the first conveyor structure layer , and comprising: a rope layer disposed on the first conveyor structure layer , and comprising a plurality of warp ropes ; a cloth layer disposed on the rope layer ; and a second conveyor structure layer disposed on the core structure layer ; characterized in the core structure layer further comprising: a plurality of first wefts ; and a plurality of second wefts , wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer , or on the cloth layer , or on the rope layer and the cloth layer . a first conveyor structure layer ; a core structure layer disposed on the first conveyor structure layer , and comprising: a rope layer disposed on the first conveyor structure layer , and comprising a plurality of warp ropes ; a cloth layer disposed on the rope layer ; and a rope layer disposed on the first conveyor structure layer , and comprising a plurality of warp ropes ; a cloth layer disposed on the rope layer ; and a second conveyor structure layer disposed on the core structure layer ; characterized in the core structure layer further comprising: a plurality of first wefts ; and a plurality of second wefts , wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer , or on the cloth layer , or on the rope layer and the cloth layer . a plurality of first wefts ; and a plurality of second wefts , wherein the plurality of first wefts and the plurality of second wefts are obliquely intertwined with each other and wrapped on the rope layer , or on the cloth layer , or on the rope layer and the cloth layer .
Method for the closed-loop control and/or open-loop control of at least one dampening device , comprising a valve having at least one electromagnetic force transmitter and a return force transmitter , a valve body , a control unit and an applicator nozzle , suitable for dampening a material web , in particular a paper, card or fibrous web, characterized in that the dampening device can perform a cleaning cycle , wherein the valve is designed as a proportional valve , wherein the proportional valve is pulsed around a set target value , wherein the deviation from the set target value takes place by means of clocking such that there is a positive and/or negative deviation from the target value .
Actuator for operating an adjusting element , which when operated performs an adjusting movement, which actuator comprising at least one electrically activatable piezoelectric actuator element for exerting a deflecting movement of the actuator element , the actuator element being connected to the adjusting element for transmitting the deflecting movement, characterized by a housing with a variable-shape displacer enclosed therein for transmitting the deflecting movement, wherein the actuator element is arranged in such a way that during operation the deflecting movement is transmitted to the displacer , so that, as a result of a deformation, the displacer performs a yielding movement, wherein the housing is formed as a guide for the displacer in such a way that the yielding movement of the displacer in the housing is directed in a defined adjusting direction , and wherein the adjusting element is in operative connection with the displacer in such a way that the yielding movement of the displacer is transmitted to the adjusting element for exerting the adjusting movement in the adjusting direction , characterized, in that the housing is formed as a tubular hollow body extending in the adjusting direction in which the end face of the tube that is opposite from the adjusting element is closed by a terminating element , the terminating element being connected to an actuator element by way of electrical terminal contacts .
A manipulator comprising: at least one flexible actuating body including: a rectangular horizontal plate spring ; a curved vertical plate spring which stands upright having a plate surface perpendicular to a plate surface of the horizontal plate spring , of which a base end is connected to one end of the horizontal plate spring in a longitudinal direction, which protrudes to one side in a plate width direction of the horizontal plate spring , which extends along the longitudinal direction of the horizontal plate spring , and of which a tip end in the extending direction is a bent portion bent in a direction opposite to the protruding direction; a shaft body which is connected to a tip end of the bent portion , is supported at a rotation center perpendicular to the plate surface of the horizontal plate spring , and becomes freely rotatable; and an end effector which is provided to protrude in a radius direction from an outer circumference of the shaft body . a rectangular horizontal plate spring ; a curved vertical plate spring which stands upright having a plate surface perpendicular to a plate surface of the horizontal plate spring , of which a base end is connected to one end of the horizontal plate spring in a longitudinal direction, which protrudes to one side in a plate width direction of the horizontal plate spring , which extends along the longitudinal direction of the horizontal plate spring , and of which a tip end in the extending direction is a bent portion bent in a direction opposite to the protruding direction; a shaft body which is connected to a tip end of the bent portion , is supported at a rotation center perpendicular to the plate surface of the horizontal plate spring , and becomes freely rotatable; and an end effector which is provided to protrude in a radius direction from an outer circumference of the shaft body .
A method comprising: attempting to load, by a client device, a first application for execution on the client device, the first application comprising a plurality of software modules and being pre-configured to communicate with a provider for providing a service to a user of the client device; determining, by the client device, that the first application has failed to load a subset of the plurality of software modules; in response to determining that the first application has failed to load the subset of the plurality of software modules, loading, by the client device, a second application with a reference to the provider to provide the service, the reference being supplied by the first application to the second application, the second application not being pre-configured to provide the service; retrieving, by the client device and using the second application, from the provider, parameters for providing the service; and providing the service, by the client device and using the second application, based on the parameters. attempting to load, by a client device, a first application for execution on the client device, the first application comprising a plurality of software modules and being pre-configured to communicate with a provider for providing a service to a user of the client device; determining, by the client device, that the first application has failed to load a subset of the plurality of software modules; in response to determining that the first application has failed to load the subset of the plurality of software modules, loading, by the client device, a second application with a reference to the provider to provide the service, the reference being supplied by the first application to the second application, the second application not being pre-configured to provide the service; retrieving, by the client device and using the second application, from the provider, parameters for providing the service; and providing the service, by the client device and using the second application, based on the parameters.
A system for parallel measurement of devices under test in an open over the air environment comprises a plurality of alignment structures , each comprising: a top end of the alignment structure, a bottom end of the alignment structure, a shaped reflector arranged at the top end of the alignment structure , and an antenna arranged at the focal region of the shaped reflector ; wherein the devices under test are arranged at the bottom end of the respective alignment structure , beneath the respective shaped reflector , and wherein the plurality of alignment structures are placed parallel to each other without shielded enclosures. a top end of the alignment structure, a bottom end of the alignment structure, a shaped reflector arranged at the top end of the alignment structure , and an antenna arranged at the focal region of the shaped reflector ; wherein the devices under test are arranged at the bottom end of the respective alignment structure , beneath the respective shaped reflector , and wherein the plurality of alignment structures are placed parallel to each other without shielded enclosures.
Agricultural machine for harvesting a crop, equipped with a harvesting head comprising: - a mowing bar for harvesting said crop; - at least one transportation system adapted to transport the crop cut by the mowing bar to a collection mouth of the harvesting head , said at least one transportation system comprising: - a first transmission system comprising a first flexible element coupled with a pair of first rotary elements ; - a second transmission system comprising a second flexible element coupled with a pair of second rotary elements ; characterized in that said at least one transportation system further comprises a plurality of arms, each arm being coupled with both of said first flexible element and said second flexible element , in such a way as to be substantially parallel to the other arms and in such a way as to extend on the harvesting head substantially transversally relative to the mowing bar both during a transportation step (FT) for transporting the crop cut by said mowing bar and during a return step (FR). - a mowing bar for harvesting said crop; - at least one transportation system adapted to transport the crop cut by the mowing bar to a collection mouth of the harvesting head , - a first transmission system comprising a first flexible element coupled with a pair of first rotary elements ; - a second transmission system comprising a second flexible element coupled with a pair of second rotary elements ; characterized in that said at least one transportation system further comprises a plurality of arms, each arm being coupled with both of said first flexible element and said second flexible element , in such a way as to be substantially parallel to the other arms and in such a way as to extend on the harvesting head substantially transversally relative to the mowing bar both during a transportation step (FT) for transporting the crop cut by said mowing bar and during a return step (FR).
A method of forming mesoporous zeolites with tunable pore widths, the method comprising: mixing a silicon-containing material, an aluminum-containing material, and at least a quaternary amine to produce a zeolite precursor solution, wherein the quaternary amine comprises tetraethylammonium hydroxide; pre-crystallizing the zeolite precursor solution at a pre-crystallization temperature of greater than 125 °C and autogenous pressure to form a pre-crystallized zeolite precursor solution represented by the formation of an amorphous phase in pseudo-steady-state where solid and solution phases approach equilibrium and silicate and aluminosilicate anion distributions are established; combining two or more distinct organosilane mesopore templates with the pre-crystallized zeolite precursor solution to produce a zeolite precursor gel, wherein the two or more distinct organosilane mesopore templates are selected from: wherein the quaternary amine is additionally combined with the pre-crystallized zeolite precursor solution along with the two or more distinct organosilane mesopore templates; crystallizing the zeolite precursor gel to produce a crystalline zeolite intermediate; and calcining the crystalline zeolite intermediate to produce the mesoporous zeolite, wherein the mesoporous zeolite comprises a BEA framework type. mixing a silicon-containing material, an aluminum-containing material, and at least a quaternary amine to produce a zeolite precursor solution, wherein the quaternary amine comprises tetraethylammonium hydroxide; pre-crystallizing the zeolite precursor solution at a pre-crystallization temperature of greater than 125 °C and autogenous pressure to form a pre-crystallized zeolite precursor solution represented by the formation of an amorphous phase in pseudo-steady-state where solid and solution phases approach equilibrium and silicate and aluminosilicate anion distributions are established; combining two or more distinct organosilane mesopore templates with the pre-crystallized zeolite precursor solution to produce a zeolite precursor gel, wherein the two or more distinct organosilane mesopore templates are selected from: wherein the quaternary amine is additionally combined with the pre-crystallized zeolite precursor solution along with the two or more distinct organosilane mesopore templates; crystallizing the zeolite precursor gel to produce a crystalline zeolite intermediate; and calcining the crystalline zeolite intermediate to produce the mesoporous zeolite, wherein the mesoporous zeolite comprises a BEA framework type.
A User Equipment, UE, comprising: a controller ; and transmission and reception circuitry , wherein in a case that a timer is running for a Single Network Slice Selection Assistance information, S-NSSAI, and no Data Network Name, DNN, combination, the controller is able to initiate Evolved Packet System, EPS, Session Management, ESM, procedures in EPS without Access Point Name, APN, and the transmission and reception circuitry is configured to receive a value for the timer in Protocol Data Unit, PDU, SESSION ESTABLISHMENT REJECT message, wherein the timer is a back-off timer which causes the UE not to transmit a UE-initiated PDU session management request using the S-NSSAI and no DNN combination until the back-off timer expires. a controller ; and transmission and reception circuitry , wherein in a case that a timer is running for a Single Network Slice Selection Assistance information, S-NSSAI, and no Data Network Name, DNN, combination, the controller is able to initiate Evolved Packet System, EPS, Session Management, ESM, procedures in EPS without Access Point Name, APN, and the transmission and reception circuitry is configured to receive a value for the timer in Protocol Data Unit, PDU, SESSION ESTABLISHMENT REJECT message, wherein the timer is a back-off timer which causes the UE not to transmit a UE-initiated PDU session management request using the S-NSSAI and no DNN combination until the back-off timer expires.
A cleaning method for removing carbon-incorporated silicon oxide from the surface of a wafer, which comprises using a cleaning solution to remove the carbon-incorporated silicon oxide from the surface of a wafer, wherein the cleaning solution comprises: 2% by mass to 30% by mass of a fluorine compound; 0.0001% by mass to 20% by mass of a cationic surfactant that is an ammonium salt or an amine having only one alkyl group containing 10 or more carbon atoms in the molecule thereof; and water, and the cleaning solution has a pH value of 0 to 4, wherein the cationic surfactant that is an ammonium salt or an amine having only one alkyl group containing 10 or more carbon atoms in the molecule thereof is one or more selected from the group consisting of decyltrimethylammonium chloride, dodecyltrimethylammonium chloride, undecyltrimethylammonium chloride, tridecyltrimethylammonium chloride, tetradecyltrimethylammonium chloride, pentadecyltrimethylammonium chloride, hexadecyltrimethylammonium chloride, heptadecyltrimethylammonium chloride, octadecyltrimethylammonium chloride, nonadecyltrimethylammonium chloride, decyltriethylammonium chloride, dodecyltriethylammonium chloride, undecyltriethylammonium chloride, tridecyltriethylammonium chloride, tetradecyltriethylammonium chloride, pentadecyltriethylammonium chloride, hexadecyltriethylammonium chloride, heptadecyltriethylammonium chloride, octadecyltriethylammonium chloride, nonadecyltriethylammonium chloride, decyltrimethylammonium bromide, dodecyltrimethylammonium bromide, undecyltrimethylammonium bromide, tridecyltrimethylammonium bromide, tetradecyltrimethylammonium bromide, pentadecyltrimethylammonium bromide, heptadecyltrimethylammonium bromide, octadecyltrimethylammonium bromide, nonadecyltrimethylammonium bromide, decyltriethylammonium bromide, dodecyltriethylammonium bromide, undecyltriethylammonium bromide, tridecyltriethylammonium bromide, tetradecyltriethylammonium bromide, pentadecyltriethylammonium bromide, hexadecyltriethylammonium bromide, heptadecyltriethylammonium bromide, octadecyltriethylammonium bromide, nonadecyltriethylammonium bromide, lauryldimethylethylammonium ethyl sulfate, octadecyldimethylethylammonium ethyl sulfate, palmityldimethylethylammonium ethyl sulfate, lauryldimethylbenzylammonium chloride, stearyldimethylhydroxyethylammonium p-toluenesulfonate, lauryldimethylamine oxide, tetradecylamine acetate, behenyltrimethylammonium chloride, decyldimethylbenzylammonium chloride, tetradecyldimethylbenzylammonium chloride, hexadecyldimethylbenzylammonium chloride, octadecyldimethylbenzylammonium chloride, N-hydroxyethyllaurylamine. polyoxyethylenelaurylamine, polyoxyethylene polyoxypropylene laurylamine, polyoxyethylenedecylamine, polyoxyethylenestearylamine, polyoxyethyleneoleylamine, and polyoxyethylenetetradecylamine.
A seeker comprising: a single antenna channel radio frequency (RF) receiver configured to receive a plurality of signals comprising mutually orthogonal transmitted waveforms from a respective plurality of transmitting sources, both directly from the transmitting sources and indirectly from reflections off a target ; and a processor configured to separate the mutually orthogonal transmitted waveforms received directly from the transmitting sources to track the seeker's location relative to the transmitting sources, and to separate the mutually orthogonal transmitted waveforms received indirectly from reflections off a target to track the target's location and motion relative to the seeker. a single antenna channel radio frequency (RF) receiver configured to receive a plurality of signals comprising mutually orthogonal transmitted waveforms from a respective plurality of transmitting sources, both directly from the transmitting sources and indirectly from reflections off a target ; and a processor configured to separate the mutually orthogonal transmitted waveforms received directly from the transmitting sources to track the seeker's location relative to the transmitting sources, and to separate the mutually orthogonal transmitted waveforms received indirectly from reflections off a target to track the target's location and motion relative to the seeker.
A container, especially for medicines, consisting of a bottle whose neck has an external thread, wherein the neck is covered by a screw cap whose body has an internal thread that cooperates with the thread of the neck, wherein the body of the screw cap is breakably connected to a band located from the side of the body of the bottle, wherein the breakable connection is ensured by thin connectors that connect the band to the body of the screw cap, characterized in that , the band is made up of two rings connected by posts , and that the neck of the bottle has a stopper ring protruding outwards located between the rings of the band , wherein the inside diameter (D) of the rings of the band is equal to the outside diameter (D) of the stopper ring , and the lower ring of the band has lips protruding inwards located in the windows between the posts .