mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a wireless local area network, LAN, system, comprising: generating, by a transmitting apparatus, a short training field, STF, signal; and transmitting, by the transmitting apparatus, the STF signal to a receiving apparatus via 40 MHz band, wherein the STF signal is generated based on an STF sequence defined as shown below: {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt , wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1 , − 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , − 1 , 1 . generating, by a transmitting apparatus, a short training field, STF, signal; and transmitting, by the transmitting apparatus, the STF signal to a receiving apparatus via 40 MHz band, wherein the STF signal is generated based on an STF sequence defined as shown below: {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt , wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1 , − 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , − 1 , 1 . {M, -1, -M, 0, M, -1, M} ∗ (1+j)/sqrt , wherein sqrt() denotes a square root, "j" denotes an imaginary number, and "*" denotes multiplication, and wherein the M sequence is defined as shown below: M = − 1 , − 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , 1 , − 1 , 1 , 1 , − 1 , 1 .
A compound of formula (I) or a pharmaceutically acceptable salt thereof, wherein R 1 is H, R 2 is CF 3 and R 3 is 3-pyridylmethoxy, 3-chlorobenzyloxy or H; R 1 is Cl, R 2 is F and R 3 is 3-pyridylmethoxy; or R 1 is H, R 2 is H and R 3 is 3-pyridylmethoxy. R 1 is H, R 2 is CF 3 and R 3 is 3-pyridylmethoxy, 3-chlorobenzyloxy or H; R 1 is Cl, R 2 is F and R 3 is 3-pyridylmethoxy; or R 1 is H, R 2 is H and R 3 is 3-pyridylmethoxy.
Switching device having at least two valve bodies as apparatus to be actuated, which can in each case be movably guided by means of a pivot drive arranged along an axis of rotation (R), said drive being able to be controlled by an actuating apparatus , for the purpose of blocking and releasing fluid paths in at least one housing part , wherein at least the valve bodies with their respective housing part are arranged behind one another as apparatus to be actuated on one side of the device , wherein the actuating apparatus is arranged on the other side of the device, wherein one side is connected to the respective other side along the axis of rotation (R) of the pivot drive , wherein, in one valve body designed as a valve ball, a hole to release associated fluid paths and two slot receptacles to control the valve body are formed, and wherein the hole is made in a radial direction in the valve body , characterised in that the slot receptacles lie crosswise on top of one another; and in that the hole (18a or 18b respectively) continues via one of the slot receptacles , which acts as a fluid guide released by a control web, to connect two fluid ports to one another via the associated fluid space , which is designed as an annular space. wherein, in one valve body designed as a valve ball, a hole to release associated fluid paths and two slot receptacles to control the valve body are formed, and wherein the hole is made in a radial direction in the valve body , characterised in that the slot receptacles lie crosswise on top of one another; and in that the hole (18a or 18b respectively) continues via one of the slot receptacles , which acts as a fluid guide released by a control web, to connect two fluid ports to one another via the associated fluid space , which is designed as an annular space.
A method for adaptive resolution coding, comprising: resizing an image to be used as a reference picture; Increasing the bit depth of the resized reference image to a greater precision than before resizing only when the resizing is a downsampling, wherein an increase in bit depth is performed on a per picture basis; storing the resized, increased bit depth image, and performing motion compensation on a current image using the stored, resized image as a reference. resizing an image to be used as a reference picture; Increasing the bit depth of the resized reference image to a greater precision than before resizing only when the resizing is a downsampling, wherein an increase in bit depth is performed on a per picture basis; storing the resized, increased bit depth image, and performing motion compensation on a current image using the stored, resized image as a reference.
A method for creating a virtual positioning jig for manufacturing a positioning jig, where said manufactured positioning jig is for use when positioning a manufactured dental restoration in a dental implant , said method comprising: - obtaining a digital 3D representation of the set of teeth , said digital 3D representation comprising an implant region portion relating to an implant region and a neighbor region portion relating to a neighbor region of the set of teeth; - designing a virtual model of the dental restoration at the digital 3D representation such that the designed virtual dental restoration model is arranged according to a target arrangement relative to the digital 3D representation, said virtual dental restoration model comprising an outer restoration surface ; - creating an inner surface and an outer surface of the virtual positioning jig, where the inner jig surface is created based on said outer restoration surface , the target arrangement, and the neighbor region portion of the digital 3D representation; and - defining a through hole of the virtual positioning jig at the implant region portion of the digital 3D representation, where the through hole extends from the inner jig surface to the outer jig surface . - obtaining a digital 3D representation of the set of teeth , said digital 3D representation comprising an implant region portion relating to an implant region and a neighbor region portion relating to a neighbor region of the set of teeth; - designing a virtual model of the dental restoration at the digital 3D representation such that the designed virtual dental restoration model is arranged according to a target arrangement relative to the digital 3D representation, said virtual dental restoration model comprising an outer restoration surface ; - creating an inner surface and an outer surface of the virtual positioning jig, where the inner jig surface is created based on said outer restoration surface , the target arrangement, and the neighbor region portion of the digital 3D representation; and - defining a through hole of the virtual positioning jig at the implant region portion of the digital 3D representation, where the through hole extends from the inner jig surface to the outer jig surface .
An ophthalmic imaging system comprising: a first imaging subsystem configured to form a primary image of the interior of an eye through the diameter of the eye pupil ; a sensor array ; and a second imaging subsystem comprising a lens array configured to form an array of secondary images on the sensor array; characterised in that the optical distance between the lenses and the sensor array (b), the diameter of the lenses (d), the diameter of the eye pupil (D), the optical distance between the object plane to be imaged and the eye lens (e) and the minimum radius of circle required to cover the lens array with circles having the minimum radius if the circles were centred on the centres of the lenses (R) obey the relation b d = Xe D 1 D 4 R − 1 , where X ≤ 82. a first imaging subsystem configured to form a primary image of the interior of an eye through the diameter of the eye pupil ; a sensor array ; and a second imaging subsystem comprising a lens array configured to form an array of secondary images on the sensor array; characterised in that the optical distance between the lenses and the sensor array (b), the diameter of the lenses (d), the diameter of the eye pupil (D), the optical distance between the object plane to be imaged and the eye lens (e) and the minimum radius of circle required to cover the lens array with circles having the minimum radius if the circles were centred on the centres of the lenses (R) obey the relation b d = Xe D 1 D 4 R − 1 , where X ≤ 82.
: A separation device for a fluid purification device, the separation device comprising: - at least three concentric enclosures including an outermost enclosure and an innermost enclosure and defining at least two concentric cavities; - a plurality of spiral-shaped channels formed in each of the at least two concentric cavities, so that fluid can flow through said plurality of spiral-shaped channels; - a fluid inlet , for receiving fluid, located in an upper section of an outermost cavity among the at least two concentric cavities, the fluid inlet corresponding to a gas outlet; - a solids outlet , for discharging solids comprised in the fluid, located in a lower section of the separation device; and - a liquid outlet, for discharging liquid comprised in the fluid, located in an upper section of at least one inner cavity among the at least two concentric cavities, wherein the lower section of the separation device comprises a redirecting chamber located below the at least three concentric enclosures, the redirecting chamber being configured to allow the fluid to switch from a downward flow through the plurality of spiral-shaped channels of the outermost cavity , to an upward flow through the plurality of spiral-shaped channels of the at least one inner cavity . - at least three concentric enclosures including an outermost enclosure and an innermost enclosure and defining at least two concentric cavities; - a plurality of spiral-shaped channels formed in each of the at least two concentric cavities, so that fluid can flow through said plurality of spiral-shaped channels; - a fluid inlet , for receiving fluid, located in an upper section of an outermost cavity among the at least two concentric cavities, the fluid inlet corresponding to a gas outlet; - a solids outlet , for discharging solids comprised in the fluid, located in a lower section of the separation device; and - a liquid outlet, for discharging liquid comprised in the fluid, located in an upper section of at least one inner cavity among the at least two concentric cavities,
A system for evaluating agricultural material, the system comprising: a housing having a passage in or through an interior of the housing with an inlet for receiving agricultural material and an outlet for outputting the agricultural material; a wall opening in a wall of the passage ; and an imaging device having a lens located within a border , characterized in that the imaging device is pivotally mounted for rotation with respect to the housing such that in a closed state the border rests on, engages or interlocks the wall opening , and in an open state the border exposes the wall opening and the interior of the housing . a housing having a passage in or through an interior of the housing with an inlet for receiving agricultural material and an outlet for outputting the agricultural material; a wall opening in a wall of the passage ; and an imaging device having a lens located within a border , characterized in that the imaging device is pivotally mounted for rotation with respect to the housing such that in a closed state the border rests on, engages or interlocks the wall opening , and in an open state the border exposes the wall opening and the interior of the housing .
A method of decoding a bit stream signal as an audio time signal, including the steps of: decoding a bit stream signal as a preliminary audio time signal according to a coding mode selected from a plurality of coding modes, wherein the plurality of coding modes includes at least a first coding mode which includes a post-filtering step and at least a second coding mode which does not include the post-filtering step, wherein the first coding mode is a coding mode adapted for speech coding, and the second coding mode is a frequency domain coding mode, wherein the post-filtering step applies a pitch-enhancement filter to the preliminary audio time signal, thereby obtaining an audio time signal, wherein the post-filtering step is selectively omitted responsive to post-filtering information encoded in the bit stream signal, the post-filtering information being indicative of an encoder-side decision of whether or not to omit the post-filtering step, whereby the post-filtering step is selectively omitted in the first coding mode. decoding a bit stream signal as a preliminary audio time signal according to a coding mode selected from a plurality of coding modes, wherein the plurality of coding modes includes at least a first coding mode which includes a post-filtering step and at least a second coding mode which does not include the post-filtering step, wherein the first coding mode is a coding mode adapted for speech coding, and the second coding mode is a frequency domain coding mode, wherein the post-filtering step applies a pitch-enhancement filter to the preliminary audio time signal, thereby obtaining an audio time signal, wherein the post-filtering step is selectively omitted responsive to post-filtering information encoded in the bit stream signal, the post-filtering information being indicative of an encoder-side decision of whether or not to omit the post-filtering step, whereby the post-filtering step is selectively omitted in the first coding mode.
An ultra-wideband, UWB, communication network comprising: a plurality of access points, APs, comprising a first access point, AP , having a first timebase, and a second access point, AP , having a second timebase; and a central location engine, CLE; wherein: the CLE is adapted to store a first time of flight, ToF[0:1], between AP and AP ; AP is adapted to develop and transmit a first clock synchronization packet, CCP , to AP at a first selected time of transmission, ToT ; AP is adapted to receive the CCP and, in response, to develop and transmit a first AP response packet, ARP , to AP , the ARP having embedded therein a first time of arrival, ToA[0:1::1], referenced to the second timebase; AP is further adapted to receive the ARP and, in response, to develop and transmit a first clock response packet, CRP , to the CLE, the CRP having embedded therein the ToA[0:1::1] and the ToT; and the CLE is adapted to receive the CRP and, in response, to calculate a first skew between the first and second timebases as a function of the ToT, the ToA and the ToF[0:1] and to develop a time of arrival, ToA[0:1::0], referenced to the first timebase, from the ToA[0:1::1] using a digital phase locked loop, DPLL. a plurality of access points, APs, comprising a first access point, AP , having a first timebase, and a second access point, AP , having a second timebase; and a central location engine, CLE; the CLE is adapted to store a first time of flight, ToF[0:1], between AP and AP ; AP is adapted to develop and transmit a first clock synchronization packet, CCP , to AP at a first selected time of transmission, ToT ; AP is adapted to receive the CCP and, in response, to develop and transmit a first AP response packet, ARP , to AP , the ARP having embedded therein a first time of arrival, ToA[0:1::1], referenced to the second timebase; AP is further adapted to receive the ARP and, in response, to develop and transmit a first clock response packet, CRP , to the CLE, the CRP having embedded therein the ToA[0:1::1] and the ToT; and the CLE is adapted to receive the CRP and, in response, to calculate a first skew between the first and second timebases as a function of the ToT, the ToA and the ToF[0:1] and to develop a time of arrival, ToA[0:1::0], referenced to the first timebase, from the ToA[0:1::1] using a digital phase locked loop, DPLL.
Computer-implemented method for generating a segmentation mask (MIm, CMIm1, CMIm2) of at least one image (Im), the method comprising A) Generating a plurality of superpixels (SP) for the at least one image (Im), B) Automatically generating labels for the generated plurality of the superpixels (SP), wherein said automatically generating labels comprises generating said labels for training a semantic segmentation model based on a plurality of segmentation masks (MIm, CMIm1) by: generating a label for each superpixel (SP) by identifying the most similar reference superpixel (RSP11, ..., RSP34) from a reference data set of reference superpixels (RSP11, ..., RSP34), wherein each reference superpixel (RSP11, ..., RSP34) is associated with a class (Class 1, Class 2, Class 3, ... Class n) for supervised training of said semantic segmentation model, wherein the labeled superpixels form the segmentation mask (MIm) of the at least one image (Im); C) Computer-aided checking of the generated segmentation mask (MIm) for correctness, wherein said checking for correctness comprises labeling unlabeled superpixels and correcting labels of incorrectly labeled superpixels (WS) by assigning the incorrectly labeled superpixels (WS) to the correct class. A) Generating a plurality of superpixels (SP) for the at least one image (Im), B) Automatically generating labels for the generated plurality of the superpixels (SP), wherein said automatically generating labels comprises generating said labels for training a semantic segmentation model based on a plurality of segmentation masks (MIm, CMIm1) by: generating a label for each superpixel (SP) by identifying the most similar reference superpixel (RSP11, ..., RSP34) from a reference data set of reference superpixels (RSP11, ..., RSP34), wherein each reference superpixel (RSP11, ..., RSP34) is associated with a class (Class 1, Class 2, Class 3, ... Class n) for supervised training of said semantic segmentation model, wherein the labeled superpixels form the segmentation mask (MIm) of the at least one image (Im); C) Computer-aided checking of the generated segmentation mask (MIm) for correctness, wherein said checking for correctness comprises labeling unlabeled superpixels and correcting labels of incorrectly labeled superpixels (WS) by assigning the incorrectly labeled superpixels (WS) to the correct class.
A method for making a hard magnetic material of a general formula M Fe x O y , the method comprising: a) providing an iron oxide fine; b) providing a metal oxide of a general formula M x O y or a metal carbonate of a general formula M x (CO 3 ) y ; c) mixing the iron oxide fine and the metal oxide or the iron oxide and the metal carbonate to form a mixture; d) calcining the mixture of the iron oxide fine and the metal oxide or the metal carbonate for 4 to 12 hours; wherein M is a divalent metal ion, and wherein the method is characterized in that no crushing step is required for the iron oxide fine, and/or no preheating step is required for the iron oxide fine. a) providing an iron oxide fine; b) providing a metal oxide of a general formula M x O y or a metal carbonate of a general formula M x (CO 3 ) y ; c) mixing the iron oxide fine and the metal oxide or the iron oxide and the metal carbonate to form a mixture; d) calcining the mixture of the iron oxide fine and the metal oxide or the metal carbonate for 4 to 12 hours;
A method for operating a power converter system , the power converter system includes an LLC resonant converter and a non-inverting buckboost converter that is located in front of the LLC resonant converter, the method comprising: identifying a desired ratio of the input to output voltage of the LLC resonant converter, and regulating the output of the non-inverting buckboost converter based on the desired ratio of the input to output voltage of the LLC resonant converter, wherein regulating the output of the non-inverting buckboost converter comprises determining a ratio of the input voltage to the output voltage of the LLC resonant converter, and wherein regulating the output of the non-inverting buckboost converter comprises generating a control signal in response to a comparison of the determined ratio to the desired ratio, characterized in that the desired ratio matches a turns ratio of a transformer of the LLC resonant converter and matches a ratio of Lr to Lm, where Lr is an inductance of an inductor of the LLC resonant converter and where Lm is a magnetizing inductance of the transformer. identifying a desired ratio of the input to output voltage of the LLC resonant converter, and regulating the output of the non-inverting buckboost converter based on the desired ratio of the input to output voltage of the LLC resonant converter, wherein regulating the output of the non-inverting buckboost converter comprises determining a ratio of the input voltage to the output voltage of the LLC resonant converter, and wherein regulating the output of the non-inverting buckboost converter comprises generating a control signal in response to a comparison of the determined ratio to the desired ratio, characterized in that the desired ratio matches a turns ratio of a transformer of the LLC resonant converter and matches a ratio of Lr to Lm, where Lr is an inductance of an inductor of the LLC resonant converter and where Lm is a magnetizing inductance of the transformer.
A medical implant system, comprising: an implant body made of a biocompatible material, the implant body having an external surface ; a metal component containing an antimicrobial metal disposed on the external surface of the implant body; a power source having a first terminal and a second terminal, one of the terminals being in electrical communication with the metal component such that metal ions from the antimicrobial metal are released into a conductive body tissue or fluid adjacent to the external surface of the implant system when implanted; and an insulator placed in a current path between the first terminal of the power source and the second terminal of the power source preventing current flowing from the first terminal from reaching the second terminal without completing a circuit including said conductive body tissue or said fluid adjacent to the external surface of the implant system when implanted. an implant body made of a biocompatible material, the implant body having an external surface ; a metal component containing an antimicrobial metal disposed on the external surface of the implant body; a power source having a first terminal and a second terminal, one of the terminals being in electrical communication with the metal component such that metal ions from the antimicrobial metal are released into a conductive body tissue or fluid adjacent to the external surface of the implant system when implanted; and an insulator placed in a current path between the first terminal of the power source and the second terminal of the power source preventing current flowing from the first terminal from reaching the second terminal without completing a circuit including said conductive body tissue or said fluid adjacent to the external surface of the implant system when implanted.
Oil conducting means of a hybrid module for a vehicle, which hybrid module is arranged in drive train between a drive unit, in particular an internal combustion engine, and an output, an electric machine being provided, and a rotor of the electric machine being connected to the output, a clutch being provided between the drive unit and the electric machine , characterized in that the clutch has oil conducting lines , in order to supply the electric machine with cooling oil, in that the clutch is configured as a cone clutch, in that the cone clutch has at least one outer friction ring (26 / ARR) and one intermediate friction ring (24 / ZRR), in that the outer friction ring (26 / ARR) is connected to the rotor, and in that the cone of the cone clutch configures an oil conducting means to an axial end of the rotor in the open state, and in that bores ae provided on the outer friction ring (26 / ARR) on the tapered side of the cone, in order to conduct oil to the other axial end of the rotor.