mhurhangee/patent-ind-claim-en huggingface dataset:
Network camera comprising: - an image sensor ; - a cover that is at least partially opaque to the visible spectrum, the cover being movable between a closed position, in which it extends in front and hides the image sensor , and an open position; - a processing module having at least one input , a first output and a second output , and being designed to receive images acquired by the image sensor via the input , to process the images a first time so as to generate a video stream and a second time so as to generate information data relating to the images acquired, and to transmit the video stream via the first output and the information data via the second output ; - a detection device that is designed to detect whether the cover is in the open position or in the closed position; - a switching device that is connected to the first output of the processing module ; the network camera being designed such that, when the detection device detects that the cover is in the closed position, the switching device is controlled so as to forbid any transmission to a communication network by the processing module via the first output . - an image sensor ; - a cover that is at least partially opaque to the visible spectrum, the cover being movable between a closed position, in which it extends in front and hides the image sensor , and an open position; - a processing module having at least one input , a first output and a second output , and being designed to receive images acquired by the image sensor via the input , to process the images a first time so as to generate a video stream and a second time so as to generate information data relating to the images acquired, and to transmit the video stream via the first output and the information data via the second output ; - a detection device that is designed to detect whether the cover is in the open position or in the closed position; - a switching device that is connected to the first output of the processing module ; the network camera being designed such that, when the detection device detects that the cover is in the closed position, the switching device is controlled so as to forbid any transmission to a communication network by the processing module via the first output .
Method for measuring intrinsic geometric quantities in an anatomical system, based on two geometrically calibrated stereoscopic two-dimensional images of a patient's anatomical system, comprising (a) receiving location data comprising a plurality of sets of two-dimensional coordinates, each set of two-dimensional coordinates comprising a first pair (x A , y A ) of two-dimensional coordinates corresponding to a first point on one of said two stereoscopic images and a second pair (x B , y B ) of two-dimensional coordinates corresponding to a second point on the other of said two stereoscopic images, (b) using geometric calibration data, determining at least one three-dimensional geometric primitive ( ) defined by at least a portion of the location data received in step (a), (c) computing based on at least one three-dimensional geometric primitive determined in step (b) an intrinsic geometric quantity value (G 3D ) in the anatomical system, wherein in step (c), at least one geometric quantity value is computed in at least one plane, based on at least one projection onto said at least one plane of at least one three-dimensional geometric primitive determined in step (b), said plane being defined based on location data received in step (a), wherein a three-dimensional geometric primitive is a sphere, a line, a cylinder, a cone, or a block, and wherein the geometric quantity is an angle or an area. (a) receiving location data comprising a plurality of sets of two-dimensional coordinates, each set of two-dimensional coordinates comprising a first pair (x A , y A ) of two-dimensional coordinates corresponding to a first point on one of said two stereoscopic images and a second pair (x B , y B ) of two-dimensional coordinates corresponding to a second point on the other of said two stereoscopic images, (b) using geometric calibration data, determining at least one three-dimensional geometric primitive ( ) defined by at least a portion of the location data received in step (a), (c) computing based on at least one three-dimensional geometric primitive determined in step (b) an intrinsic geometric quantity value (G 3D ) in the anatomical system, wherein in step (c), at least one geometric quantity value is computed in at least one plane, based on at least one projection onto said at least one plane of at least one three-dimensional geometric primitive determined in step (b), said plane being defined based on location data received in step (a), wherein a three-dimensional geometric primitive is a sphere, a line, a cylinder, a cone, or a block, and wherein the geometric quantity is an angle or an area.
An integrator circuit device comprising: an integrator configured to perform integration on an input signal in a positive direction or a negative direction to generate an output voltage (Vout); a comparator (250; 351, 352) configured to compare the output voltage generated by the integrator with a preset voltage which is either a first threshold voltage or a second threshold voltage that is greater than the first threshold voltage; a switching controller configured to control a switch to change the integration direction of the integrator, based on a result of the comparison, so that the integrator performs the integration on the input signal in the positive direction or the negative direction; a counter configured to count the number of times the integration direction of the integrator is changed; and a controller configured to determine a final output voltage, based on the counted number of times the integration direction is changed multiplied by the difference between the first and second threshold voltages and added to or subtracted from the output voltage (Vout) generated by the integrator; wherein the switching controller is further configured, in response to the output voltage generated by the integrator being less than or equal to the first threshold voltage or greater than or equal to the second threshold voltage, to control the switch to change the integration direction of the integrator. an integrator configured to perform integration on an input signal in a positive direction or a negative direction to generate an output voltage (Vout); a comparator (250; 351, 352) configured to compare the output voltage generated by the integrator with a preset voltage which is either a first threshold voltage or a second threshold voltage that is greater than the first threshold voltage; a switching controller configured to control a switch to change the integration direction of the integrator, based on a result of the comparison, so that the integrator performs the integration on the input signal in the positive direction or the negative direction; a counter configured to count the number of times the integration direction of the integrator is changed; and a controller configured to determine a final output voltage, based on the counted number of times the integration direction is changed multiplied by the difference between the first and second threshold voltages and added to or subtracted from the output voltage (Vout) generated by the integrator; wherein the switching controller is further configured, in response to the output voltage generated by the integrator being less than or equal to the first threshold voltage or greater than or equal to the second threshold voltage, to control the switch to change the integration direction of the integrator.
A method for measuring the orientation vector y magnet between two bodies , at least two magnetic field sensors being attached to one body , and a magnetic system being attached to another body , which consists of at least one permanent magnet , said permanent magnets generating a magnetic field H measurement at the positions of the sensors, and wherein at least one component of the magnetic field is measured by at least two sensors , characterized in that the orientation vector of the magnetic system y Magnet is determined by calculating the expected magnetic field H theory ( y magnet ) at the positions of the sensors at a known geometry, positioning and magnetizing direction of the permanent magnets for a certain orientation of the magnetic system, the number of field values of the sensors measured being higher than the number of components of the vector y magnet , and that the difference d ( y magnet ) = H theory ( y magnet ) - H measurement between the theoretical field H theory ( y magnet ) and the measured field H measurement is determined, and that the orientation vector of the magnetic system y Magnet is determined, such that a mathematical norm of the vector d is minimized and, thus, the orientation vector y Magnet of the permanent magnet system can be determined.
A process of forming electrical conductor on a substrate comprising the steps of: a) providing a substrate selected from the group consisting of plastics, polyethylene terephthalate, polyethylene, polyimide, polyvinylchloride, polystyrene, polyurethane, textile, paper, cardboard, printed circuit boards (PCB), silicon wafers, transparent conductive oxide coated substrates and mixtures thereof; b) providing an electrically conductive composition to at least one part of said substrate in a form of a paste or an ink and wherein said electrically conductive composition in a form of an ink comprises a) from 0.5 to 15 wt.-% of resin; b) from 15 wt.-% to 75 wt.-% of electrically conductive silver particles; c) from 15 to 70 wt.-% of one or more organic solvents; and d) from 0.01 to 3 wt.-% of one or more additives, wherein all wt.% are based on the total weight of the composition or wherein said electrically conductive composition in a form of a paste comprises a) from 0.1 to 15 wt.-% of resin; b) from 45 wt.-% to 97 wt.-% of electrically conductive silver particles; c) from 0.1 to 15 wt.-% of one or more organic solvents, and d) from 0.01 to 3 wt.-% of one or more additives, wherein all wt.% are based on the total weight of the composition; c) applying said electrically conductive composition to at least one part of said substrate; and d) exposing said electrically conductive composition on the substrate to a near infrared light having a peak wavelength of 750 nm to form an electrical conductor. a) providing a substrate selected from the group consisting of plastics, polyethylene terephthalate, polyethylene, polyimide, polyvinylchloride, polystyrene, polyurethane, textile, paper, cardboard, printed circuit boards (PCB), silicon wafers, transparent conductive oxide coated substrates and mixtures thereof; b) providing an electrically conductive composition to at least one part of said substrate in a form of a paste or an ink and a) from 0.5 to 15 wt.-% of resin; b) from 15 wt.-% to 75 wt.-% of electrically conductive silver particles; c) from 15 to 70 wt.-% of one or more organic solvents; and d) from 0.01 to 3 wt.-% of one or more additives, a) from 0.1 to 15 wt.-% of resin; b) from 45 wt.-% to 97 wt.-% of electrically conductive silver particles; c) from 0.1 to 15 wt.-% of one or more organic solvents, and d) from 0.01 to 3 wt.-% of one or more additives, wherein all wt.% are based on the total weight of the composition; c) applying said electrically conductive composition to at least one part of said substrate; and d) exposing said electrically conductive composition on the substrate to a near infrared light having a peak wavelength of 750 nm to form an electrical conductor.
An apparatus for producing fabrics (F) comprising: - at least one positioning station configured for receiving and supporting at least one tubular fabric (T), said tubular fabric (T) being of the type that can be manufactured by means of circular knitting machines and exhibits a through seat extending along a whole longitudinal development of the tubular fabric (T), said positioning station comprising at least one stretching device configured for contacting at least one portion of an inner surface (T i ) of the tubular fabric (T), delimiting said through seat, - at least one feeding station for a reinforcement sheet material (R) that can be positioned on at least one portion of an outer surface (T e ) of the tubular fabric (T) opposed to said inner surface (T i ), said feeding station being configured for arranging at least one portion of said reinforcement sheet material (R) on a predefined pickup position, - at least one connecting station configured for engaging said portion of reinforcement sheet material (R) onto said outer surface (T e ) of the tubular fabric (T), characterized in that the stretching device of the positioning station comprises at least one first and one second rod basically parallel to one another and configured for contacting the inner surface (T i ) of the tubular fabric (T), said first and second rod being movable with respect to one another and configured for enabling the tubular fabric (T) to be stretched. - at least one positioning station configured for receiving and supporting at least one tubular fabric (T), said tubular fabric (T) being of the type that can be manufactured by means of circular knitting machines and exhibits a through seat extending along a whole longitudinal development of the tubular fabric (T), said positioning station comprising at least one stretching device configured for contacting at least one portion of an inner surface (T i ) of the tubular fabric (T), delimiting said through seat, - at least one feeding station for a reinforcement sheet material (R) that can be positioned on at least one portion of an outer surface (T e ) of the tubular fabric (T) opposed to said inner surface (T i ), said feeding station being configured for arranging at least one portion of said reinforcement sheet material (R) on a predefined pickup position, - at least one connecting station configured for engaging said portion of reinforcement sheet material (R) onto said outer surface (T e ) of the tubular fabric (T),
A mould for making a temporary prosthetic component for a knee in an operating room, comprising: - a first half-mould ; - a second half-mould which can be coupled to the first half-mould to form a moulding chamber (C) for a temporary prosthetic component made of medical cement; - elements for fixing the first half-mould to the second half-mould ; whereineach fixing element has a rod configured for connecting the first half-mould to the second half-mould and defining a weakness neck configured to allow a facilitated breakage of the rod ; the mould being characterized in that the first and second half-moulds have respective flanges which can be coupled to each other, the fixing elements being configured to engage with respective holes made in the opposite flanges to join the first and second half-moulds . - a first half-mould ; - a second half-mould which can be coupled to the first half-mould to form a moulding chamber (C) for a temporary prosthetic component made of medical cement; - elements for fixing the first half-mould to the second half-mould ;
A biopsy cap housing , comprising: a first center-split half comprising: a first portion defining a first half of an upper chamber, a second portion defining a first half of a lower chamber, a first pivot member integrally formed with the first portion of the first center-split half, and a first slit extending through a sidewall of the first and second portions of the first center-split half and in substantial alignment with the first pivot member; and a second center-split half comprising: a first portion defining a second half of the upper chamber, a second portion defining a second half of the lower chamber, a second pivot member integrally formed with the first portion of the second center-split half, and a second slit extending through a sidewall of the first and second portions of the second center-split half and in substantial alignment with the second pivot member; wherein mating surfaces of the first and second center-split halves are configured to interlock to define the upper and lower chambers; and wherein an elevated surface of the first pivot member extends into the upper chamber and an elevated surface of the second pivot member extends into the upper chamber substantially opposite the first pivot member. a first portion defining a first half of an upper chamber, a second portion defining a first half of a lower chamber, a first pivot member integrally formed with the first portion of the first center-split half, and a first slit extending through a sidewall of the first and second portions of the first center-split half and in substantial alignment with the first pivot member; and a second center-split half comprising: a first portion defining a second half of the upper chamber, a second portion defining a second half of the lower chamber, a second pivot member integrally formed with the first portion of the second center-split half, and a second slit extending through a sidewall of the first and second portions of the second center-split half and in substantial alignment with the second pivot member; wherein mating surfaces of the first and second center-split halves are configured to interlock to define the upper and lower chambers; and wherein an elevated surface of the first pivot member extends into the upper chamber and an elevated surface of the second pivot member extends into the upper chamber substantially opposite the first pivot member. a first portion defining a second half of the upper chamber, a second portion defining a second half of the lower chamber, a second pivot member integrally formed with the first portion of the second center-split half, and a second slit extending through a sidewall of the first and second portions of the second center-split half and in substantial alignment with the second pivot member; wherein mating surfaces of the first and second center-split halves are configured to interlock to define the upper and lower chambers; and wherein an elevated surface of the first pivot member extends into the upper chamber and an elevated surface of the second pivot member extends into the upper chamber substantially opposite the first pivot member.
A method for transmitting multi-bit ACK/NACK feedback information using Physical Uplink Control Channel, PUCCH, Format 1b with channel selection, comprising: acquiring (S302), by a User Equipment, UE, 1-bit ACK/NACK feedback information in accordance with one received codeword on a downlink primary component carrier, when the UE receives one codeword on the downlink primary component carrier configured as a multi-codeword transmission mode, the one codeword on the downlink primary component carrier being one and only codeword received by the UE, and replicating such 1-bit ACK/NACK feedback information to 2 bits, as ACK/NACK feedback bits corresponding to the downlink primary component carrier; acquiring (S303), by the UE, ACK/NACK feedback bit(s) corresponding to each of configured downlink secondary component carrier(s); and sending (S304), by the UE, the acquired ACK/NACK feedback bits corresponding to both the downlink primary component carrier and the configured downlink secondary component carrier(s). acquiring (S302), by a User Equipment, UE, 1-bit ACK/NACK feedback information in accordance with one received codeword on a downlink primary component carrier, when the UE receives one codeword on the downlink primary component carrier configured as a multi-codeword transmission mode, the one codeword on the downlink primary component carrier being one and only codeword received by the UE, and replicating such 1-bit ACK/NACK feedback information to 2 bits, as ACK/NACK feedback bits corresponding to the downlink primary component carrier; acquiring (S303), by the UE, ACK/NACK feedback bit(s) corresponding to each of configured downlink secondary component carrier(s); and sending (S304), by the UE, the acquired ACK/NACK feedback bits corresponding to both the downlink primary component carrier and the configured downlink secondary component carrier(s).
Device for sensing a breakage or an end of a warp yarn or a tape fed in a circular weaving machine or a weaving loom, comprising a yarn-end detection means to detect the breakage of or the end in said running yarn, and a notification means to notify breakage of or the end of yarn, said yarn-end detection means comprising a first element provided with a number of cavities/openings each of said cavity/opening corresponding to a drop wire that is provided corresponding to each individual yarn, each said drop wire passing through one of said cavity/opening , and said drop wire having a loop or an eye for passage of said warp yarn , said drop wire being held in its normal operating position due to tension in said running warp yarn , wherein said drop wire is provided with a motion restrictor element , a second element having holes is provided, one hole being provided for each of said drop wires , through which corresponding said drop wires pass, a first sensing element is affixed to said first element , a second sensing element is affixed to said second element , and wherein said first element is rotatable at its ends, and wherein, subsequent to the falling of said drop wire from its normal operating position due to substantial loss of tension in said warp yarn , the fall of said drop wire is halted by said motion restrictor element being obstructed by said cavity/opening , whereby said first element rotates to establish a physical or non-physical contact between said first and second sensing elements (7C and 8A), and in the case where said contact remains in place for longer than a predetermined period, whereafter a signal is sent to the loom operator indicating malfunction of said loom.
A method for producing a wet pet food having enhanced palatability comprising: a) adding to a wet pet food, from 0.5% to 10% of a wet pet food palatability-enhancing composition comprising at least: - one or more free amino acids A1, - one or more sugars A2, and - one or more inorganic phosphate compounds B with an amount P of phosphorus, wherein the amount P of phosphorus is from 1% to 5% based on the total weight of said wet pet food palatability-enhancing composition, and wherein the ratio R1 of A1/(A1+A2+P) is superior to 0.30 and inferior to 0.45; and b) obtaining a wet pet food having enhanced palatability. a) adding to a wet pet food, from 0.5% to 10% of a wet pet food palatability-enhancing composition comprising at least: - one or more free amino acids A1, - one or more sugars A2, and - one or more inorganic phosphate compounds B with an amount P of phosphorus, wherein the amount P of phosphorus is from 1% to 5% based on the total weight of said wet pet food palatability-enhancing composition, and wherein the ratio R1 of A1/(A1+A2+P) is superior to 0.30 and inferior to 0.45; and - one or more free amino acids A1, - one or more sugars A2, and - one or more inorganic phosphate compounds B with an amount P of phosphorus, wherein the amount P of phosphorus is from 1% to 5% based on the total weight of said wet pet food palatability-enhancing composition, and b) obtaining a wet pet food having enhanced palatability.
Spectacle lens , comprising: - a transparent substrate , - at least one HOE-capable polymer layer arranged on the transparent substrate , wherein the HOE-capable polymer layer is suitable for forming a holographic optical element via the spatially resolved exposure of the HOE-capable polymer layer, and - a transparent hard layer (103-1) arranged on the transparent substrate , wherein the at least one HOE-capable polymer layer is arranged between the transparent substrate and the hard layer (103-1). - a transparent substrate , - at least one HOE-capable polymer layer arranged on the transparent substrate , wherein the HOE-capable polymer layer is suitable for forming a holographic optical element via the spatially resolved exposure of the HOE-capable polymer layer, and - a transparent hard layer (103-1) arranged on the transparent substrate ,