mhurhangee/ep-ind-claims huggingface dataset:
Method for autofocusing a transmitted-light or reflected-light microscope with a microscope objective on a selected area of a sample (1, 13), in which - a digital hologram of the selected area of the sample (1, 13) is generated off-axis before or during an observation, - with reference to the digital hologram before or during the observation which is carried out with a method other than digital holography, a focus position to be set along the optical axis (z) of the microscope objective is determined, in which the selected area of the sample (1, 13) is optimally in focus, and - the transmitted-light or reflected-light microscope is set to the determined focus position via a control, and thus focused on the selected area. - a digital hologram of the selected area of the sample (1, 13) is generated off-axis before or during an observation, - with reference to the digital hologram before or during the observation which is carried out with a method other than digital holography, a focus position to be set along the optical axis (z) of the microscope objective is determined, in which the selected area of the sample (1, 13) is optimally in focus, and - the transmitted-light or reflected-light microscope is set to the determined focus position via a control, and thus focused on the selected area.
A patient support device comprising: at least one patient support top (14, 24) for supporting a patient's body above the floor, the at least one patient support top (14, 24) including at least one tube connector for receiving support connection, at least one end support for connection with the patient support top (14, 24) to support the patient support top for selective rotation about a rotation axis, and a connection assembly for selectively connecting the at least one patient support top (14, 24) with the at least one end support, the connection assembly including at least one docking receiver defining a tube slot for receiving the at least one tube connector, and a docking gate for selectively blocking against disconnection of the patient support top (12, 24) with the at least one end support, the docking gate movable between an unlocked position clear from an entrance of the tube slot and a locked position extending across at least a portion of the entrance to block removal of the at least one tube connector, wherein the entrance opens outwardly from the rotation axis, wherein the docking gate includes at least one gate latch including a body that defines a pin slot for selectively receiving a first lock pin and wherein the at least one gate latch includes an arm extending from the body for selective interaction with the tube slot, the arm extending across the entrance in the locked position to block removal of the tube connector from the tube slot and clear from the entrance in the unlocked position. at least one patient support top (14, 24) for supporting a patient's body above the floor, the at least one patient support top (14, 24) including at least one tube connector for receiving support connection, at least one end support for connection with the patient support top (14, 24) to support the patient support top for selective rotation about a rotation axis, and a connection assembly for selectively connecting the at least one patient support top (14, 24) with the at least one end support, the connection assembly including at least one docking receiver defining a tube slot for receiving the at least one tube connector, and a docking gate for selectively blocking against disconnection of the patient support top (12, 24) with the at least one end support, the docking gate movable between an unlocked position clear from an entrance of the tube slot and a locked position extending across at least a portion of the entrance to block removal of the at least one tube connector, wherein the entrance opens outwardly from the rotation axis, wherein the docking gate includes at least one gate latch including a body that defines a pin slot for selectively receiving a first lock pin and wherein the at least one gate latch includes an arm extending from the body for selective interaction with the tube slot, the arm extending across the entrance in the locked position to block removal of the tube connector from the tube slot and clear from the entrance in the unlocked position.
Method of checking a compatibility of a functional module for an installation for process automation, wherein the functional module is designed to use an input interface to receive at least one input signal from the installation and to take the at least one input signal as a basis for producing at least one output signal and to use an output interface to output said output signal to the installation, characterized in that - an input specification is provided for the input interface, which input specification indicates for the at least one input signal all input values that the functional module respectively accepts as valid, and - an output specification is provided for the output interface, which output specification indicates for the at least one output signal all output values that the functional module respectively provides as intended when the input specification is fulfilled, - operation of the functional module on the installation is preceded by an analysis device checking whether the functional module produces, for each input signal produced on the input interface in accordance with the input specification, the at least one output signal on the output interface exclusively in accordance with the output specification, and, if at least one output value of the at least one output signal violates the output specification, the analysis device signals a module error, wherein the analysis device checks whether the at least one input signal produced by the installation on the input interface fulfills the input specification, and, if at least one input value of the at least one input signal violates the input specification, incorrect use of the functional module is signaled. - an input specification is provided for the input interface, which input specification indicates for the at least one input signal all input values that the functional module respectively accepts as valid, and - an output specification is provided for the output interface, which output specification indicates for the at least one output signal all output values that the functional module respectively provides as intended when the input specification is fulfilled, - operation of the functional module on the installation is preceded by an analysis device checking whether the functional module produces, for each input signal produced on the input interface in accordance with the input specification, the at least one output signal on the output interface exclusively in accordance with the output specification, and, if at least one output value of the at least one output signal violates the output specification, the analysis device signals a module error,
An orthopedic orthosis comprising a main body in an elastic textile material intended for stabilizing a member, the main body being associated with pre-shaped posture stays, said orthosis comprising at least a sleeve for receiving at least two superimposed elastic pre-shaped posture stays (6a, 6b) which may be placed separately or in a combined manner, characterized in that said at least one receiving sleeve comprises a textile strip added onto the main body which has a sheath in which the first elastic pre-shaped posture stay may be engaged and two gussets positioned at each end of the sheath in which the second elastic pre-shaped posture stay may be inserted.
A rotational force driving assembly for receiving rotational driving force from a rotational force driving head inside an electrophotographic image forming device, said rotational force driving assembly comprising: a hub (212, 222, 232), and a rotational force receiving component (214, 224, 234) for driving the hub to rotate, characterized in that the rotational force driving assembly further comprises: a side plate (214, 225, 235) provided at one end of said hub, and an axis offset adjusting mechanism provided on said side plate and slidable relative to said side plate, said axis offset adjusting mechanism enabling the rotational force receiving component to move between - a working state in which the rotational force receiving component extends out and an axis of the rotational force receiving component is coaxial with an axis of the hub, and - a retracting state in which the rotational force receiving component retracts and the axis of said rotational force receiving component is parallel to and offset from the axis of the hub. a hub (212, 222, 232), and a rotational force receiving component (214, 224, 234) for driving the hub to rotate, characterized in that the rotational force driving assembly further comprises: a side plate (214, 225, 235) provided at one end of said hub, and an axis offset adjusting mechanism provided on said side plate and slidable relative to said side plate, said axis offset adjusting mechanism enabling the rotational force receiving component to move between - a working state in which the rotational force receiving component extends out and an axis of the rotational force receiving component is coaxial with an axis of the hub, and - a retracting state in which the rotational force receiving component retracts and the axis of said rotational force receiving component is parallel to and offset from the axis of the hub. a side plate (214, 225, 235) provided at one end of said hub, and an axis offset adjusting mechanism provided on said side plate and slidable relative to said side plate, said axis offset adjusting mechanism enabling the rotational force receiving component to move between - a working state in which the rotational force receiving component extends out and an axis of the rotational force receiving component is coaxial with an axis of the hub, and - a retracting state in which the rotational force receiving component retracts and the axis of said rotational force receiving component is parallel to and offset from the axis of the hub. - a working state in which the rotational force receiving component extends out and an axis of the rotational force receiving component is coaxial with an axis of the hub, and - a retracting state in which the rotational force receiving component retracts and the axis of said rotational force receiving component is parallel to and offset from the axis of the hub.
A method for time synchronization of a digital subscriber line, DSL, the method comprising: receiving, by a first apparatus, a second symbol transmitted by a second apparatus, and obtaining time Ts1 indicating the moment that the second symbol is received; transmitting, by the first apparatus, a first symbol to the second apparatus, and obtaining time Ts2 indicating the moment that the first symbol is transmitted; wherein the first symbol and the second symbol are discrete multi-tone, DMT, frames; obtaining, by the first apparatus, time Tm2 indicating the moment that the first symbol is received by the second apparatus and time Tm1 indicating the moment that the second symbol is transmitted by the second apparatus; calculating, by the first apparatus, an offset between a clock of the first apparatus and a clock of the second apparatus according to the times Ts1, Ts2, Tm1, and Tm2; and adjusting, by the first apparatus, the clock of the first apparatus with the offset to synchronize with the clock of the second apparatus; wherein the time Ts2 is the moment a sample at a specific position of the first symbol is transmitted by the first apparatus, the time Tm2 is the moment the same sample at the same specific position of the first symbol is received by the second apparatus, the time Tm1 is the moment a sample at a specific position of the second symbol is transmitted by the second apparatus, and the time Ts1 is the moment the same sample at the same specific position of the second symbol is received by the first apparatus. receiving, by a first apparatus, a second symbol transmitted by a second apparatus, and obtaining time Ts1 indicating the moment that the second symbol is received; transmitting, by the first apparatus, a first symbol to the second apparatus, and obtaining time Ts2 indicating the moment that the first symbol is transmitted; wherein the first symbol and the second symbol are discrete multi-tone, DMT, frames; obtaining, by the first apparatus, time Tm2 indicating the moment that the first symbol is received by the second apparatus and time Tm1 indicating the moment that the second symbol is transmitted by the second apparatus; calculating, by the first apparatus, an offset between a clock of the first apparatus and a clock of the second apparatus according to the times Ts1, Ts2, Tm1, and Tm2; and adjusting, by the first apparatus, the clock of the first apparatus with the offset to synchronize with the clock of the second apparatus; wherein the time Ts2 is the moment a sample at a specific position of the first symbol is transmitted by the first apparatus, the time Tm2 is the moment the same sample at the same specific position of the first symbol is received by the second apparatus, the time Tm1 is the moment a sample at a specific position of the second symbol is transmitted by the second apparatus, and the time Ts1 is the moment the same sample at the same specific position of the second symbol is received by the first apparatus.
An article comprising: a transparent polymeric substrate comprising an anti-reflective, microstructured surface comprising at least one of prismatic, pyramidal, conical, hemispherical, parabolic, cylindrical, or columnar microstructures, and an acid sintered coating comprising a porous network of spherical silica nanoparticles having an average primary particle diameter of up to 40 nm, or silica nanoparticles comprising core-shell silica nanoparticles comprising a polymer core surrounded by a shell of nonporous spherical silica particles disposed on the polymer core, and wherein the nonporous spherical silica particles have a volume average particle diameter of not greater than 60 nanometers on the anti-reflective microstructured surface, wherein the silica nanoparticles are bonded to adjacent silica nanoparticles, and the transparent polymeric substrate allows at least 97% of light in a range from 400 nm to 2500 nm therethrough. a transparent polymeric substrate comprising an anti-reflective, microstructured surface comprising at least one of prismatic, pyramidal, conical, hemispherical, parabolic, cylindrical, or columnar microstructures, and an acid sintered coating comprising a porous network of spherical silica nanoparticles having an average primary particle diameter of up to 40 nm, or silica nanoparticles comprising core-shell silica nanoparticles comprising a polymer core surrounded by a shell of nonporous spherical silica particles disposed on the polymer core, and wherein the nonporous spherical silica particles have a volume average particle diameter of not greater than 60 nanometers spherical silica nanoparticles having an average primary particle diameter of up to 40 nm, or silica nanoparticles comprising core-shell silica nanoparticles comprising a polymer core surrounded by a shell of nonporous spherical silica particles disposed on the polymer core, and wherein the nonporous spherical silica particles have a volume average particle diameter of not greater than 60 nanometers on the anti-reflective microstructured surface, wherein the silica nanoparticles are bonded to adjacent silica nanoparticles, and the transparent polymeric substrate allows at least 97% of light in a range from 400 nm to 2500 nm therethrough.
A collet assembly comprising: a collet adapter having a first circumferential groove formed in an exterior surface defined by the collet adapter and the first circumferential groove having a hole extending radially therethrough; characterized by a biasing ring positioned in the first circumferential groove, the biasing ring having a first area having a first radial thickness and a second area having a second radial thickness, a first notch formed on a first radially inward facing surface defined by the first area and a second notch formed on a second radially inward facing surface defined by the second area; an inner ring having an activation tab extending therefrom and at least one third notch formed in a radially outward facing surface defined by the inner ring; the biasing ring being positioned around the inner ring thereby defining a cavity therebetween, a portion of the collet adapter being positioned in the cavity; a detent member positioned in the cavity and partially in the hole, the detent member being selectively engageable with at least one of the first notch, the second notch and the at least one third notch; and an outer ring positioned around the biasing ring. a collet adapter having a first circumferential groove formed in an exterior surface defined by the collet adapter and the first circumferential groove having a hole extending radially therethrough; characterized by a biasing ring positioned in the first circumferential groove, the biasing ring having a first area having a first radial thickness and a second area having a second radial thickness, a first notch formed on a first radially inward facing surface defined by the first area and a second notch formed on a second radially inward facing surface defined by the second area;
A method for forming an integrated structure comprising first and second bodies, the method comprising forming the first body (30; 50) in a rigid state and subsequently: preparing a mould (31; 53, 54) for the second body, the mould being mated to the first rigid body and the mould comprising a first, rigid zone adjacent to first precursor material for the second body and a second, flexible zone adjacent to second precursor material for the second body; applying pressure against the flexible zone to urge the second precursor material against the first body; and rigidifying the precursor material whilst the second precursor material is in contact with the first body. preparing a mould (31; 53, 54) for the second body, the mould being mated to the first rigid body and the mould comprising a first, rigid zone adjacent to first precursor material for the second body and a second, flexible zone adjacent to second precursor material for the second body; applying pressure against the flexible zone to urge the second precursor material against the first body; and rigidifying the precursor material whilst the second precursor material is in contact with the first body.
A mechanical and electronic sensor for a safety closure adapted to detect cuts and lacerations, comprising: - at least two layers of electrically conductive material separated by an internal layer of electrically-insulating material; said layers of material being joined together for forming a single body; - an electronic circuitry connected to each layer of electrically conductive material and configured for detecting a variation of fundamental and/or derived electric magnitudes, between the two layers of electrically conductive material, over time so as to detect a cut or laceration of the layers; characterised in that the layer of electrically-insulating material is made of an elastically-deformable material and is configurable between an original condition and a crushed condition following cuts or lacerations in which the thickness of the material is reduced relative to the preceding condition; said layer of electrically-insulating material having a form memory so as to return from a crushed condition towards an original condition so as to reset the initial state of the electrical magnitudes detected by the electronic circuitry. - at least two layers of electrically conductive material separated by an internal layer of electrically-insulating material; said layers of material being joined together for forming a single body; - an electronic circuitry connected to each layer of electrically conductive material and configured for detecting a variation of fundamental and/or derived electric magnitudes, between the two layers of electrically conductive material, over time so as to detect a cut or laceration of the layers;
A lignocellulosic material having a core and two outer layers, comprising in the core A) 30 to 98% by weight of lignocellulose particles, B) 0 to 25% by weight of expanded plastics particles having a bulk density in the range from 10 to 150 kg/m 3, C) 1 to 50% by weight of one or more binders selected from the group consisting of aminoplast resin, phenol-formaldehyde resin, and organic isocyanate having at least two isocyanate groups, and D) 0 to 10% by weight of additives and in the outer layers E) 70 to 99% by weight of lignocellulosic particles, fibers or mixtures thereof, F) 1 to 30% by weight of one or more binders selected from the group consisting of aminoplast resin, phenol-formaldehyde resin, and organic isocyanate having at least two isocyanate groups, and G) 0 to 10% by weight of additives in which 2% to 30% of the lignocellulose particles A) have been replaced by treated pulps, treated natural fibers, synthetic fibers or mixtures thereof. A) 30 to 98% by weight of lignocellulose particles, B) 0 to 25% by weight of expanded plastics particles having a bulk density in the range from 10 to 150 kg/m 3, C) 1 to 50% by weight of one or more binders selected from the group consisting of aminoplast resin, phenol-formaldehyde resin, and organic isocyanate having at least two isocyanate groups, and D) 0 to 10% by weight of additives E) 70 to 99% by weight of lignocellulosic particles, fibers or mixtures thereof, F) 1 to 30% by weight of one or more binders selected from the group consisting of aminoplast resin, phenol-formaldehyde resin, and organic isocyanate having at least two isocyanate groups, and G) 0 to 10% by weight of additives