mhurhangee/ep-ind-claims huggingface dataset:
A wireless apparatus comprising: a forward error correction - FEC - coder to encode digital data using a low density parity check - LDPC - code, said FEC coder including: a computer readable storage medium operative to store at least a first portion of a parity check matrix; a matrix multiplication unit to multiply input data by a transpose of said first portion of a parity check matrix to generate modified data; a differential encoder to differentially encode said modified data to generate coded data; and a concatenation unit to concatenate the input data and the coded data to form a code word; the wireless apparatus further comprising: a wireless transmitter to transmit a wireless signal that includes said code word; characterised in that: said first portion of said parity check matrix is a sub-matrix consisting of the columns of said parity check matrix having a weight of 4 and the list file of Appendix A describes the data within said parity check matrix. a forward error correction - FEC - coder to encode digital data using a low density parity check - LDPC - code, said FEC coder including: a computer readable storage medium operative to store at least a first portion of a parity check matrix; a matrix multiplication unit to multiply input data by a transpose of said first portion of a parity check matrix to generate modified data; a differential encoder to differentially encode said modified data to generate coded data; and a concatenation unit to concatenate the input data and the coded data to a computer readable storage medium operative to store at least a first portion of a parity check matrix; a matrix multiplication unit to multiply input data by a transpose of said first portion of a parity check matrix to generate modified data; a differential encoder to differentially encode said modified data to generate coded data; and a concatenation unit to concatenate the input data and the coded data to form a code word; the wireless apparatus further comprising: a wireless transmitter to transmit a wireless signal that includes said code word; characterised in that: said first portion of said parity check matrix is a sub-matrix consisting of the columns of said parity check matrix having a weight of 4 and the list file of Appendix A describes the data within said parity check matrix. a wireless transmitter to transmit a wireless signal that includes said code word; characterised in that: said first portion of said parity check matrix is a sub-matrix consisting of the columns of said parity check matrix having a weight of 4 and the list file of Appendix A describes the data within said parity check matrix. said first portion of said parity check matrix is a sub-matrix consisting of the columns of said parity check matrix having a weight of 4 and the list file of Appendix A describes the data within said parity check matrix.
A chemical bottle (50A, 50B) for an endoscope cleaning/disinfecting apparatus, the chemical bottle (50A, 50B) comprising: a bottle body (51A, 51B) that includes a storing section (52A, 52B) that stores a chemical used for cleaning/disinfecting an endoscope and a mouth portion (53A, 53B) including an opening portion (54A, 54B) from which the chemical freely flows out; and a film portion (64A, 64B) provided between the storing section (52A, 52B) and the mouth portion (53A, 53B); characterized in that the chemical bottle (50A, 50B) further comprises: a first conductive portion (65A, 65B) disposed on a side of the storing section (52A, 52B) and provided so as to be exposed in an inner portion and an outer portion of the bottle body (51A, 51B); and a second conductive portion (66A, 66B) disposed on a side of the mouth portion (53A, 53B) and provided so as to be exposed in the inner portion and the outer portion of the bottle body (51A, 51B), the second conductive portion (66A, 66B) being electrically connectable to the first conductive portion (65A, 65B) via the chemical in the bottle body (51A, 51B). a bottle body (51A, 51B) that includes a storing section (52A, 52B) that stores a chemical used for cleaning/disinfecting an endoscope and a mouth portion (53A, 53B) including an opening portion (54A, 54B) from which the chemical freely flows out; and a film portion (64A, 64B) provided between the storing section (52A, 52B) and the mouth portion (53A, 53B); characterized in that the chemical bottle (50A, 50B) further comprises: a first conductive portion (65A, 65B) disposed on a side of the storing section (52A, 52B) and provided so as to be exposed in an inner portion and an outer portion of the bottle body (51A, 51B); and a second conductive portion (66A, 66B) disposed on a side of the mouth portion (53A, 53B) and provided so as to be exposed in the inner portion and the outer portion of the bottle body (51A, 51B), the second conductive portion (66A, 66B) being electrically connectable to the first conductive portion (65A, 65B) via the chemical in the bottle body (51A, 51B). a first conductive portion (65A, 65B) disposed on a side of the storing section (52A, 52B) and provided so as to be exposed in an inner portion and an outer portion of the bottle body (51A, 51B); and a second conductive portion (66A, 66B) disposed on a side of the mouth portion (53A, 53B) and provided so as to be exposed in the inner portion and the outer portion of the bottle body (51A, 51B), the second conductive portion (66A, 66B) being electrically connectable to the first conductive portion (65A, 65B) via the chemical in the bottle body (51A, 51B).
A coating composition comprising a radically polymerizable binder; and a salt having a polysilsesquioxane anion containing two or more units represented by Formula 1 below and a radically polymerizable cation: [Formula 1] [RSiO 3/2] wherein, R is a hydroxyl group, a thiol group, an oxygen anion (-O -) or a sulfur anion (-S - and R in at least one unit of the units of Formula 1, two or more of which are contained, is an oxygen anion (-O -) or a sulfur anion (-S -).
A fiber Bragg grating interrogator assembly, comprising: - an optical fiber including a fiber Bragg grating (FBG; 122) having a variable Bragg wavelength (λ B) and a dynamic range of interest (Δλ dyn,B) over which the Bragg wavelength (λ B) can shift during use; - a light source operably connected to the optical fiber, and configured to illuminate the fiber Bragg grating to solicit a response therefrom; and - an response analyzer, including: - a spectrally selective device having an input port and a plurality of output ports (149-n), wherein the input port is operably connected to the optical fiber and wherein each of the output ports is associated with a respective spectral range (Δλ n), said spectrally selective device being configured to provide a spectral energy distribution of a response of the fiber Bragg grating received on the input port onto said output ports (149-n); wherein the spectrally selective device is configured to split two orthogonal polarization components of incoming light onto substantially non-overlapping spectral ranges in the spectral energy distribution of said output ports (149-n), such that each output port has one spectral range for each of the two polarization components, wherein the response analyzer includes a processing unit that is configured to use detection results regarding the split orthogonal polarization components to correct a polarization dependency of the spectrally selective device. - an optical fiber including a fiber Bragg grating (FBG; 122) having a variable Bragg wavelength (λ B) and a dynamic range of interest (Δλ dyn,B) over which the Bragg wavelength (λ B) can shift during use; - a light source operably connected to the optical fiber, and configured to illuminate the fiber Bragg grating to solicit a response therefrom; and - an response analyzer, including: - a spectrally selective device having an input port and a plurality of output ports (149-n), wherein the input port is operably connected to the optical fiber and wherein each of the output ports is associated with a respective spectral range (Δλ n), said spectrally selective device being configured to provide a spectral energy distribution of a response of the fiber Bragg grating received on the input port onto said output ports (149-n); - a spectrally selective device having an input port and a plurality of output ports (149-n), wherein the input port is operably connected to the optical fiber and wherein each of the output ports is associated with a respective spectral range (Δλ n), said spectrally selective device being configured to provide a spectral energy distribution of a response of the fiber Bragg grating received on the input port onto said output ports (149-n);
A preheater for a compressor, comprising: a capacitive oil surface sensor that is provided at a compressor used in a refrigerating cycle, and detects an oil surface of a lubricant oil in the compressor; characterized in further comprising a power supply unit that applies high-frequency voltage to the oil surface sensor. a capacitive oil surface sensor that is provided at a compressor used in a refrigerating cycle, and detects an oil surface of a lubricant oil in the compressor; characterized in further comprising a power supply unit that applies high-frequency voltage to the oil surface sensor.
A device for use in stretching the foreskin of a subject, the device comprising: - a body having a passage that extends therethrough to a distal end, the distal end being shaped to receive thereover a neck of a balloon thereat whereby a fluid introduced through the passage can cause the balloon to expand; and - a fluid flow regulating member positionable across the passage to selectively close the passage to fluid flow, wherein the fluid flow regulating member is a tap that extends through at least part of the body and transversely across the passage, the tap being rotatable about a lengthwise axis to respectively open or close the passage to fluid flow, wherein the tap has a passage extending transversely therethrough, the tap passage being of around the same diameter as the body passage, the tap passage being selectively alignable with the body passage by the rotation of the tap such that, when aligned fluid can flow through the body via the body and tap passages, and when progressively misaligned such fluid flow is progressively restricted and then prevented, wherein the tap has a shank that is received snugly within an aperture that extends transversely through the body to intersect with the body passage, with the tap passage extending transversely through the shank at a location such that, when the tap is snugly received in the aperture, the tap passage can be aligned with the body passage, characterized in that the shank comprises a distal end having a hemispherical dome that defines a shoulder thereat, wherein the dome is adapted to deform as the tap is inserted through the aperture and to snap back to reestablish the shoulder once the dome has passed through the aperture. - a body having a passage that extends therethrough to a distal end, the distal end being shaped to receive thereover a neck of a balloon thereat whereby a fluid introduced through the passage can cause the balloon to expand; and - a fluid flow regulating member positionable across the passage to selectively close the passage to fluid flow,
Wheel carrier assembly of a vehicle for agricultural use, such as a tractor, wherein the vehicle has drive means comprising means of transmission and a steering axle connectable to the drive means, wherein the wheel carrier assembly is connectable to the axle to support and control in movement a wheel assembly attached thereto on a wheel flange, wherein the wheel carrier assembly comprises: - a constant-velocity joint connected, upstream, to the transmission means, and comprising, downstream, a rotation shaft for the rotation of the wheel assembly; - a disc brake device suitable to brake the wheel assembly; - a gear reducer, connected to the wheel assembly and to the rotation shaft, suitable to vary the rotation speed of the rotation shaft; wherein the disc brake device comprises at least one brake disc and at least one brake calliper characterized in that the at least one brake disc is operatively connected to the rotation shaft, upstream of the gear reducer, so that the braking action is applied directly to said shaft. - a constant-velocity joint connected, upstream, to the transmission means, and comprising, downstream, a rotation shaft for the rotation of the wheel assembly; - a disc brake device suitable to brake the wheel assembly; - a gear reducer, connected to the wheel assembly and to the rotation shaft, suitable to vary the rotation speed of the rotation shaft;
A body comprising a drug core (110, 118, 410) and a sheath (120, 128, 420); wherein: the sheath comprises a tube that houses the core; and the drug core comprises a therapeutic agent and materials to provide sustained release of the therapeutic agent; the drug core comprising a liquid injected into the tube, the body being implantable as a punctal plug, the sheath is made from a material that is substantially impermeable to the therapeutic agent so that the rate of migration of the therapeutic agent may be largely controlled by an exposed surface area of the drug core that is not covered by the sheath; the body having an outer surface configured to engage luminal wall tissue so as to inhibit expulsion of the body from the punctum; and wherein the drug core (110, 118, 410) comprises a silicone matrix containing the therapeutic agent. the sheath comprises a tube that houses the core; and the drug core comprises a therapeutic agent and materials to provide sustained release of the therapeutic agent;
A buffered scene-based non-uniformity correction method comprising: • receiving a plurality of frames of video image data from an image detector; • determining relative movement of a current image frame with respect to a previous image frame; • if there is substantial movement determined, adding the current image frame to a buffer in a memory sized to store a predetermined number of video frames; • averaging pixel values of the image frames in the buffer to determine a mean value for each pixel of a reference image frame and processing each pixel in the reference frame; • determining correction term values for each pixel of the current image frame by determining the difference between the current image frame pixel value and the corresponding reference image pixel value; and • not correcting regions in the current image frame which have high-frequency scene content and • correcting the current image frame using the correction term values; wherein processing each pixel in the reference frame to determine the correction term values comprises: o determining pixels in a near region (NR11,..., NR23) to the current pixel under consideration; o determining pixels in a far region (FR11, FR23) to the current pixel under consideration,, each of the near and far regions being divided in 2 sub-regions, each sub-region comprising four pixels, each sub-region being analyzed separately by taking at least the median value of the pixels of each sub-region; and o analyzing the near and far sub-regions pixels. • receiving a plurality of frames of video image data from an image detector; • determining relative movement of a current image frame with respect to a previous image frame; • if there is substantial movement determined, adding the current image frame to a buffer in a memory sized to store a predetermined number of video frames; • averaging pixel values of the image frames in the buffer to determine a mean value for each pixel of a reference image frame and processing each pixel in the reference frame; • determining correction term values for each pixel of the current image frame by determining the difference between the current image frame pixel value and the corresponding reference image pixel value; and • not correcting regions in the current image frame which have high-frequency scene content and • correcting the current image frame using the correction term values; o determining pixels in a near region (NR11,..., NR23) to the current pixel under consideration; o determining pixels in a far region (FR11, FR23) to the current pixel under consideration,, each of the near and far regions being divided in 2 sub-regions, each sub-region comprising four pixels, each sub-region being analyzed separately by taking at least the median value of the pixels of each sub-region; and o analyzing the near and far sub-regions pixels.
Equipment comprising a housing, a hatch that closes the housing, one or more electronic boards (104a, 104b, 104c) the planes of which are substantially orthogonal to the plane formed by the hatch, and a device for detecting opening of the hatch, characterised in that said device comprises a detection circuit, a conductive element, at least two conductive pieces (202a, 202b) that are electrically isolated from one another, each connected to the detection circuit, each conductive piece (202a, 202b) comprising a flexible part (222a, 222b) that extends laterally to the side of the edge of said electronic board which is proximal to the hatch, being in the form of a pre-moulded metal rod, strip or tab bent in a "U" shape; and in which the conductive element is disposed on the inner flank of the hatch such that it comes into contact with the conductive pieces (202a, 202b) when the hatch is closed.
A device for avoiding excessive loads on the human foot when walking, comprising: a a shoe insole having at least one force sensor for generating a measurement signal which indicates loads and/or partial loads on the foot when walking; an analyzing unit electrically connected to the at least one force sensor and configured for analyzing the measurement signal of the at least one force sensor; an electric power source configured for providing electric power to the analyzing unit; and a feedback control signal generator having at least one feedback output unit associated therewith; wherein the feedback control signal generator is configured to generate a feedback control signal on the basis of the analysis by the analyzing unit, the at least one feedback output unit is configured to be controlled by the feedback control signal to output a feedback signal due to loads and/or partial loads on the foot, and the at least one feedback output unit is an actuator, which receives the feedback control signal and is configured to output a tactile feedback in the region of the foot longitudinal arch; wherein the analyzing unit and the energy source are disposed as a common unit in a cavity of a housing which is integrated into the shoe insole in the region of its foot longitudinal arch, characterized in that the feedback control signal generator is also disposed as a part of the common unit in the cavity of the housing, that the housing is curved shape and formed corresponding to an average shape of a foot longitudinal arch to directly support a foot in the region of the foot longitudinal arch, and that the actuator is disposed on the housing or directly at the housing or in the housing to output the tactile feedback in the region of the foot longitudinal arch.
A method for controlling a robot cleaner being in an area to be cleaned, the area to be cleaned being divided into a plurality of sub-areas, a full path for the area to be cleaned being stored, the method being characterized in that, when the area to be cleaned extends: generating a travel path within an extended area to be cleaned, adding the travel path within the extended area to be cleaned to the stored full path, searching for sub-areas adjacent the extended area to be cleaned, wherein the generating of the travel path within the extended area to be cleaned is performed to generate the travel path within the extended area to be cleaned from determined connection points with the adjacent sub-area; wherein each of the connection points is generated on a boundary line of adjacent sub-areas; and wherein the robot cleaner travels or performs cleaning by passing through the boundary line of adjacent sub-areas on which the connection point is generated. generating a travel path within an extended area to be cleaned, adding the travel path within the extended area to be cleaned to the stored full path, searching for sub-areas adjacent the extended area to be cleaned, wherein the generating of the travel path within the extended area to be cleaned is performed to generate the travel path within the extended area to be cleaned from determined connection points with the adjacent sub-area; wherein each of the connection points is generated on a boundary line of adjacent sub-areas; and wherein the robot cleaner travels or performs cleaning by passing through the boundary line of adjacent sub-areas on which the connection point is generated.
A geothermal heat exchanger comprising a coil of pipe arranged in spirals, and having at least three elongate supports (21, 22) having on their length a series of holes each adapted to be crossed by an elementary spiral so as to produce a complete stable structure, characterized in that said supports (21, 22) achieve a sliding holding contact along the spiral so as to share the supports (21, 22) in two groups, respectively right and left, so as to make the structure foldable.
Method for the offset rendering of a digital content, said content being available on a content server accessible via at least one service gateway (4,6) and being able to be processed by at least two devices (4,7) of a user, a first device termed the mobile device and at least one second device termed the rendering device, the rendering device being connected to an offset device, said content being selected on the mobile device and rendered on the rendering device, the method being characterized in that it comprises, at the level of the offset apparatus, the following steps: - opening (E42, E'42) of a point-to-point communication channel between the mobile device and the offset device; - reception (E45, E'45) on the communication channel of an identifier (SSID, WEP) of an arbitrary service gateway (6, 6bis, 4); - connection (E47, E'47) of the offset device to a local network (10, 10b, 10m) by using the gateway identifier received; - reception (E49, E'49) of an identifier of a digital content to be rendered; - access (E50, E51) to the content identified on the content server via the identified gateway (4, 6, 6bis). - opening (E42, E'42) of a point-to-point communication channel between the mobile device and the offset device; - reception (E45, E'45) on the communication channel of an identifier (SSID, WEP) of an arbitrary service gateway (6, 6bis, 4); - connection (E47, E'47) of the offset device to a local network (10, 10b, 10m) by using the gateway identifier received; - reception (E49, E'49) of an identifier of a digital content to be rendered; - access (E50, E51) to the content identified on the content server via the identified gateway (4, 6, 6bis).
Hybrid-powered motor vehicle having a drive device with an internal combustion engine, a speed-change variable speed transmission and an electric motor connected downstream of the variable speed transmission, wherein the electric motor is arranged in an autonomous assembly in the motor vehicle and is connected to at least one connecting shaft (20, 46) on one of the shafts (38, 40) of the variable speed transmission, wherein the motor vehicle has a front-side drive unit and a rear-wheel drive, wherein an output shaft of the variable speed transmission outputs to a rear axle differential via a cardan shaft, and wherein the power flow to the electric motor takes place via the connecting shaft connected to the input shaft of the transmission and the power flow to the cardan shaft takes place via a second, connecting shaft connected to the output shaft of the variable speed transmission and the intermediate shaft, characterised in that the intermediate shaft is guided through a hollow shaft of the electric motor.