mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication system comprising a wireless terminal device and a wireless base station, wherein the wireless communication system comprises: a category designation unit in the wireless terminal device configured to designate a terminal category as a terminal capability for the wireless terminal device based on at least a transmitting frequency bandwidth of the wireless terminal device and a receiving frequency bandwidth of the wireless terminal device; and a category transmission unit in the wireless terminal device configured to transmit the terminal category of the wireless terminal device to the wireless base station; and a link setting unit in the wireless base station configured to set a link between the wireless base station and the wireless terminal device corresponding to the terminal category. a category designation unit in the wireless terminal device configured to designate a terminal category as a terminal capability for the wireless terminal device based on at least a transmitting frequency bandwidth of the wireless terminal device and a receiving frequency bandwidth of the wireless terminal device; and a category transmission unit in the wireless terminal device configured to transmit the terminal category of the wireless terminal device to the wireless base station; and a link setting unit in the wireless base station configured to set a link between the wireless base station and the wireless terminal device corresponding to the terminal category.
An antenna assembly comprising: a single cable configured to define an antenna end of the cable and a receiver end of the cable, and allow propagation of signals (32, 34, 36) therebetween; a first antenna configured to couple a first received signal to the antenna end, said first received signal centered about a received center frequency and modulated with data; a mixer configured to mix a second received signal with a local oscillator signal to provide an intermediate signal, said second received signal also centered about the received center frequency and modulated with data, said intermediate signal centered about an intermediate center frequency distinct from the received center frequency and modulated with data from the second received signal, said mixer further configured to couple the intermediate signal to the antenna end; a second antenna configured to couple the second received signal to the mixer, whereby the first received signal and the intermediate signal are superimposed on the single cable and propagate to the receiver end; and an adjustable local oscillator configured to detect a control signal at the antenna end, the control signal originating from the receiver end, and output the local oscillator signal having a local oscillator frequency dependent upon the control signal. a single cable configured to define an antenna end of the cable and a receiver end of the cable, and allow propagation of signals (32, 34, 36) therebetween; a first antenna configured to couple a first received signal to the antenna end, said first received signal centered about a received center frequency and modulated with data; a mixer configured to mix a second received signal with a local oscillator signal to provide an intermediate signal, said second received signal also centered about the received center frequency and modulated with data, said intermediate signal centered about an intermediate center frequency distinct from the received center frequency and modulated with data from the second received signal, said mixer further configured to couple the intermediate signal to the antenna end; a second antenna configured to couple the second received signal to the mixer, whereby the first received signal and the intermediate signal are superimposed on the single cable and propagate to the receiver end; and an adjustable local oscillator configured to detect a control signal at the antenna end, the control signal originating from the receiver end, and output the local oscillator signal having a local oscillator frequency dependent upon the control signal.
A damper for damping vibrations of a structure, comprising: - a first damping unit, comprising a first damping body having a first mass (m 1), a first spring element having a first spring constant (k 1) and a first damping element having a first damping constant (c 1), wherein said first damping body is configured to be attached to said structure via said first spring element and said first damping element; and - a second damping unit, comprising a second damping body having a second mass (m 2), a second spring element having a second spring constant (k 2) and a second damping element having a second damping constant (c 2), wherein said second damping body is configured to be attached to said first damping body via said second spring element and said second damping element, characterized in that: - m 0 is the mass of said structure; μ = m 1 + m 2 / m 0; ω 0 = √ k 0 m 0; ω 2 = √ k 2 m 2; Ω 2 = ω 2 / ω 0; wherein 0,018≤μ≤0,25, and wherein Ω 2 is selected such that an estimate d ∗ e of an ensemble radius of the damper defined by d e * μ Ω 2 = 1 − 9 2 μ 1 + μ 5 / 2 Ω 2 4 1 − Ω 2 2 3 / 2 3 + 6 Ω 2 − 1 + Ω 2 2 − 2 Ω 2 4 1 / 4 fulfills the relation d ∗ e ≥ 0,375. - a first damping unit, comprising a first damping body having a first mass (m 1), a first spring element having a first spring constant (k 1) and a first damping element having a first damping constant (c 1), wherein said first damping body is configured to be attached to said structure via said first spring element and said first damping element; and - a second damping unit, comprising a second damping body having a second mass (m 2), a second spring element having a second spring constant (k 2) and a second damping element having a second damping constant (c 2), wherein said second damping body is configured to be attached to said first damping body via said second spring element and said second damping element, - m 0 is the mass of said structure; μ = m 1 + m 2 / m 0; ω 0 = √ k 0 m 0; ω 2 = √ k 2 m 2; Ω 2 = ω 2 / ω 0; wherein 0,018≤μ≤0,25, and wherein Ω 2 is selected such that an estimate d ∗ e of an ensemble radius of the damper defined by d e * μ Ω 2 = 1 − 9 2 μ 1 + μ 5 / 2 Ω 2 4 1 − Ω 2 2 3 / 2 3 + 6 Ω 2 − 1 + Ω 2 2 − 2 Ω 2 4 1 / 4 fulfills the relation d ∗ e ≥ 0,375.
A composition comprising a recombinant enzyme that comprises a fusion of a cyclobutane pyrimidine dimer photolyase, a pyrimidine pyrimidone photolyase and a skin penetrating peptide, wherein said cyclobutane pyrimidine dimer photolyase corresponds to an amino acid encoding sequence having at least 85% sequence identity to SEQ ID NO 1, wherein said pyrimidine pyrimidone photolyase corresponds to an amino acid encoding sequence having at least 85% sequence identity to SEQ ID NO 2. wherein said cyclobutane pyrimidine dimer photolyase corresponds to an amino acid encoding sequence having at least 85% sequence identity to SEQ ID NO 1, wherein said pyrimidine pyrimidone photolyase corresponds to an amino acid encoding sequence having at least 85% sequence identity to SEQ ID NO 2.
A process for producing porous solid oxidic materials which are aerogels, comprising the provision of a hydrogel of the oxidic material, removal of the water from the hydrogel by treatment with a water-miscible organic liquid and drying of the organogel obtained under supercritical conditions in the presence of at least one polyfunctional compound C having at least two reactive functionalities F which can react to form a bond with the atoms of the solid oxidic material, wherein the compound C is selected from C 2 -C 6 -alkanepolyols, C 2 -C 4 -alkylene carbonates and 2-hydroxyphenol, which gives the aerogel, the at least one polyfunctional compound C being used in the supercritical drying operation as a solution of the compound C in at least one organic solvent S' having 0 or 1 reactive functionality F, and the reactive functionality F optionally present in the organic solvent S' being selected from hydroxyl groups, carboxyl groups, carbonate groups and oxygen atoms bonded to phosphorus atoms.
A coextruded article (100, 200, 300) comprising first (101, 201, 301) and second (102, 202, 302) layers each having first (103, 104, 203, 204, 303, 304) and second (105, 106, 205, 206, 305, 306) opposed major surfaces and between the first and second layers a series of first walls (110, 210, 310) providing a series of microchannels (111, 211, 311), wherein each wall has a height extending from the first layer to the second layer, wherein for each wall there is a first average width along the first 2 percent of the height of the wall, wherein for each wall there is a second average width along the last 2 percent of the height of the wall, wherein for each wall there is a third average width along the remaining 96 percent of the height of the wall, and wherein for at least 50 percent by number of the walls, the first average widths are less than the third average widths, characterised in that there are at least 5 first walls per centimeter.
Device for measuring a magnetic field, comprising: a magnetic circuit including two substantially parallel branches (102A, 102B) in which magnetic fluxes (HA, HB) are alternating and flow in opposite directions; and a sensor (200A, 200B) situated in each of the branches, comprising a stack of two ferromagnetic layers (202, 204) separated by a tunnel insulating barrier layer, said ferromagnetic layers having magnetizations (216, 218) oriented in the plane of the layers, characterized in that each of the two ferromagnetic layers is magnetically coupled only in antiparallel with the other of the two ferromagnetic layers, on the one hand, and to one of the magnetic fluxes and to the magnetic field (Hx) to be measured, on the other hand, each of the sensors (200A, 200B) being connected to a synchronous measurement and detection circuit (108A, 108B), the synchronous measurement and detection circuits having their outputs connected to a canceller circuit, a feedback flux passing through the circuit adding to said magnetic fluxes, the feedback flow being a function of an output signal of the canceller circuit. a magnetic circuit including two substantially parallel branches (102A, 102B) in which magnetic fluxes (HA, HB) are alternating and flow in opposite directions; and a sensor (200A, 200B) situated in each of the branches, comprising a stack of two ferromagnetic layers (202, 204) separated by a tunnel insulating barrier layer, said ferromagnetic layers having magnetizations (216, 218) oriented in the plane of the layers, characterized in that each of the two ferromagnetic layers is magnetically coupled only in antiparallel with the other of the two ferromagnetic layers, on the one hand, and to one of the magnetic fluxes and to the magnetic field (Hx) to be measured, on the other hand, each of the sensors (200A, 200B) being connected to a synchronous measurement and detection circuit (108A, 108B), the synchronous measurement and detection circuits having their outputs connected to a canceller circuit, a feedback flux passing through the circuit adding to said magnetic fluxes, the feedback flow being a function of an output signal of the canceller circuit.
Fracture-splitting apparatus for the fracture-splitting of an engine component, in particular a connecting rod, with a spreader element assembly with at least one first spreader element and an actuating body for actuating the first spreader element or elements to separate a first component of the engine component, in particular a connecting rod cover, from a second component of the engine component, in particular a connecting rod big end, wherein there is provided between the actuating body and the first spreader element or elements a deflecting mechanism, in particular a wedge surface assembly, and the actuating body may be driven by a spreader drive of the fracture-splitting apparatus, wherein the actuating body is mounted on an output head of the spreader drive and the spreader drive has an impact body with an impact weight, movable relative to the output head, for generating at least one impact on the output head, and wherein the spreader drive includes an impulse drive for driving the impact body towards the output head in the course of impact pulse operation of the fracture-splitting apparatus, characterised in that it has a positioning drive formed by the spreader drive for pre-positioning the actuating body on the first spreader element or elements with the aid of the impact body before the start of impact pulse operation, and that the positioning drive is designed for positioning the actuating body on the first spreader element or elements in such a way that wedge surfaces (44, 45) of the wedge surface assembly and/or guide surfaces between the first spreader element or elements and the actuating body abut one another substantially flatly.
An evaporator comprising an enclosure which is provided with a lateral confinement shell with a substantially horizontal axis, which internally accommodates a dispenser of a coolant fluid and at least one tube bundle, which is arranged below said dispenser and comprises a plurality of exchanger tubes which extend substantially parallel to the axis of said shell and are designed to be passed through by a fluid to be cooled, at least one first group of said exchanger tubes being arranged along rows which extend on substantially horizontal and mutually superimposed planes, wherein the exchanger tubes of each one of said rows are arranged in at least one respective tray, which is adapted to collect the liquid coolant fluid in order to keep the exchanger tubes of each one of said rows at least partially immersed in said liquid coolant fluid, each one of the trays having, along at least one first longitudinal edge, at least one first containment sidewall which is adapted to allow the liquid coolant fluid contained therein to fall by overflowing into an underlying tray characterized in that each tray is provided in its bottom with a plurality of openings for draining the liquid coolant fluid, which are arranged at the exchanger tubes of the underlying tray in order to allow the liquid coolant fluid to fall from each tray onto the outer surface of the exchanger tubes of the underlying tray.
A method of rendering graphics with a processor, the method comprising: setting up a plurality of objects in a scene in virtual space, each said object being defined by a set of vertices, assigning a unique object identifier to each of the objects; issuing one or more draw calls to draw the objects; manipulating parameter values of the vertices to generate output vertex parameter values; setting up a plurality of primitives from the vertices, each said primitive being defined by a set of one or more of the vertices and each said primitive belonging to one or more of the objects; rasterizing each of the primitives for a plurality of pixels; writing a depth at each said pixel to a Z buffer, the Z buffer having a first resolution; writing one or more of the object identifiers to at least one ID buffer, such that each pixel in the Z buffer is associated with an object identifier in the ID buffer in a one to one correspondence; processing the pixels for each of the rasterized primitives to determine a set of color values in a color buffer, the color buffer having a second resolution that is less than the first resolution; and determining a set of display pixels for an output frame at the resolution of the Z buffer using the color values in the color buffer and the identifiers in the ID buffer. setting up a plurality of objects in a scene in virtual space, each said object being defined by a set of vertices, assigning a unique object identifier to each of the objects; issuing one or more draw calls to draw the objects; manipulating parameter values of the vertices to generate output vertex parameter values; setting up a plurality of primitives from the vertices, each said primitive being defined by a set of one or more of the vertices and each said primitive belonging to one or more of the objects; rasterizing each of the primitives for a plurality of pixels; writing a depth at each said pixel to a Z buffer, the Z buffer having a first resolution; writing one or more of the object identifiers to at least one ID buffer, such that each pixel in the Z buffer is associated with an object identifier in the ID buffer in a one to one correspondence; processing the pixels for each of the rasterized primitives to determine a set of color values in a color buffer, the color buffer having a second resolution that is less than the first resolution; and determining a set of display pixels for an output frame at the resolution of the Z buffer using the color values in the color buffer and the identifiers in the ID buffer.
An information processing apparatus having a function to store content to a device (6-1, 6-2, 6-3) connected thereto, characterized in that the information processing apparatus comprises: recording means for recording multiple pieces of the content on a recording medium; determining means for determining from a predetermined setting which is set before the content is recorded on the recording medium whether the recorded content is to be automatically stored to the device (6-1, 6-2, 6-3); and execution means for executing, in case where at least two or more pieces of content are to be recorded on the recording medium by the recording means, when recording of at least one of pieces of the content is terminated and subsequently recording of other pieces of the content which have not been recorded is started by the recording means, storage of the recorded content to the device (6-1, 6-2, 6-3) at the same time if the determining means determines from the predetermined setting that the recorded content is to be automatically stored to the device (6-1, 6-2, 6-3). recording means for recording multiple pieces of the content on a recording medium; determining means for determining from a predetermined setting which is set before the content is recorded on the recording medium whether the recorded content is to be automatically stored to the device (6-1, 6-2, 6-3); and execution means for executing, in case where at least two or more pieces of content are to be recorded on the recording medium by the recording means, when recording of at least one of pieces of the content is terminated and subsequently recording of other pieces of the content which have not been recorded is started by the recording means, storage of the recorded content to the device (6-1, 6-2, 6-3) at the same time if the determining means determines from the predetermined setting that the recorded content is to be automatically stored to the device (6-1, 6-2, 6-3).
An insulating tape, comprising: - a mica layer containing mica; - a reinforcing layer laminated on the mica layer and containing a filler and a fiber reinforcing material; and - a cellulose derivative layer laminated on the reinforcing layer, wherein the cellulose derivative layer contains a glucose derivative in which one or more hydroxyl groups in the glucose units are substituted with a functional group selected from the group consisting of -CH 2 CH 2 OH, -CH 2 CH 2 OCH 2 CH 2 OH, -CH 2 CH CH 3, -CH 3, -CH 2 CH 3, -NO 2, -(CH 2 CH 2 O) p H (in the formula, p is any repeating number greater than 0 up to 50), -CH 2 COOH, -CH 2 CH 2 COOH, -CH 2 COOM (in the formula, M is Li, Na or K) and -(CH 2 CH 2 O) q CH 2 CH CH 2 N + (CH 3) 2 (n-C 12 H 25)X - (in the formula, q is any repeating number from 0 to 50, and X - is Cl -, Br -, F - or I -), the weight per unit area of the mica ranges from 100 g/m 2 to 200 g/m 2, the filler has a maximum particle size of 100 μm or smaller and the weight per unit area ranging from 10 g/m 2 to 50 g/m 2, and the weight per unit area of the cellulose derivative layer ranges from 0.001 g/m 2 to 5 g/m 2. - a mica layer containing mica; - a reinforcing layer laminated on the mica layer and containing a filler and a fiber reinforcing material; and - a cellulose derivative layer laminated on the reinforcing layer,
A cabinet, in particular a safety cabinet or cabinet for hazardous materials for storing preferably liquid hazardous materials, with a cabinet body and at least one cabinet door that closes an access opening in the cabinet body and with an air conducting unit for generating an air curtain in the region of the access opening, wherein the air conducting unit is designed to be variable with respect to the supplied quantity of air, characterized in that - the air conducting unit is acted on in accordance with an operating unit, and - the operating unit is a medium dispensing unit that is provided in the interior of the cabinet body. - the air conducting unit is acted on in accordance with an operating unit, and - the operating unit is a medium dispensing unit that is provided in the interior of the cabinet body.
An unbalanced shaft for balancing inertia forces and/or inertia moments of an internal combustion engine, comprising: - a support shaft having a bearing section (4, 5), - a tensioning part (12, 112, 212, 312, 412) arranged on the bearing section (4, 5), which the bearing section (4, 5) secures against rotation about the axis of rotation of the unbalanced shaft in a form-fitting manner, - and a bearing ring surrounding the bearing section (4, 5) and the tensioning part (12, 112, 212, 312, 412), which the tensioning part (12, 112, 212, 312, 412) tensions against the bearing section (4, 5) radially relative to the axis of rotation, characterised in that the tensioning part (12, 112, 212, 312, 412) secures the bearing ring against rotation about the axis of rotation in a form-fitting manner. - a support shaft having a bearing section (4, 5), - a tensioning part (12, 112, 212, 312, 412) arranged on the bearing section (4, 5), which the bearing section (4, 5) secures against rotation about the axis of rotation of the unbalanced shaft in a form-fitting manner, - and a bearing ring surrounding the bearing section (4, 5) and the tensioning part (12, 112, 212, 312, 412), which the tensioning part (12, 112, 212, 312, 412) tensions against the bearing section (4, 5) radially relative to the axis of rotation,
A toner container for use in an electrophotographic image forming device, comprising: a housing having a reservoir for storing toner; an input gear positioned on the housing 102) for mating with a corresponding output gear in the image forming device when the toner container is installed in the image forming device; a toner agitator movably positioned in the reservoir, the toner agitator is operatively connected to the input gear such that rotation of the input gear in a first rotational direction causes movement of the toner agitator for agitating toner in the reservoir; and an encoded member encoded with authentication information of the toner container and operatively connected to the input gear such that rotation of the input gear in a second rotational direction causes movement of the encoded member for communicating the authentication information of the toner container to a controller of the image forming device when the toner container is installed in the image forming device. a housing having a reservoir for storing toner; an input gear positioned on the housing 102) for mating with a corresponding output gear in the image forming device when the toner container is installed in the image forming device; a toner agitator movably positioned in the reservoir, the toner agitator is operatively connected to the input gear such that rotation of the input gear in a first rotational direction causes movement of the toner agitator for agitating toner in the reservoir; and an encoded member encoded with authentication information of the toner container and operatively connected to the input gear such that rotation of the input gear in a second rotational direction causes movement of the encoded member for communicating the authentication information of the toner container to a controller of the image forming device when the toner container is installed in the image forming device.