mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a station for operating in a network, the method comprising: a. receiving, at a media access control, MAC layer, high level data units from high level layers; b. encapsulating content from a plurality of the high level data units into sub-frames , wherein each sub-frame comprises a Sub-Frame Header and a Payload, and wherein the Payload comprises one or more payloads from one or more high level data units ; c. grouping a plurality of the sub-frames that belong to a same session as a stream of sub-frames , wherein the same session has a same unique MAC stream identifier, MSID; d. dividing the stream of sub-frames into a plurality of segments with each segment capable of being independently retransmitted, wherein each segment forms part of a separate physical layer, PHY, block ; e. generating a low level data unit for transmission by a physical layer, the low level data unit containing one or more PHY blocks , each PHY block containing one segment from the plurality of segments ; and f. providing the low level data unit from the MAC layer to the physical layer for transmission over a shared communications medium, wherein each PHY block is to be transmitted in a single forward error correction, FEC, block. a. receiving, at a media access control, MAC layer, high level data units from high level layers; b. encapsulating content from a plurality of the high level data units into sub-frames , wherein each sub-frame comprises a Sub-Frame Header and a Payload, and wherein the Payload comprises one or more payloads from one or more high level data units ; c. grouping a plurality of the sub-frames that belong to a same session as a stream of sub-frames , wherein the same session has a same unique MAC stream identifier, MSID; d. dividing the stream of sub-frames into a plurality of segments with each segment capable of being independently retransmitted, wherein each segment forms part of a separate physical layer, PHY, block ; e. generating a low level data unit for transmission by a physical layer, the low level data unit containing one or more PHY blocks , each PHY block containing one segment from the plurality of segments ; and f. providing the low level data unit from the MAC layer to the physical layer for transmission over a shared communications medium, wherein each PHY block is to be transmitted in a single forward error correction, FEC, block.
A method for extracorporeal identification of the optimal direction and maximum diameter of a pedicle screw so that the screw will not come out of the pedicle in operations of pedicle arthrodesis, characterized in that it comprises the following steps: - choosing a point P of entry on the outer surface at the height of the pedicle, on a three-dimensional reconstruction by means of CT or NMR of a patient, generated by a computer; - generating, by means of a computer, a spherical cap with centre P and any radius; - generating, by means of a computer, the proper sheaf of straight lines passing through the centre P , which intersect the cap and are contained in the pedicle chosen for the perforation; - selecting, by means of a computer, all the points of the straight lines intersecting the spherical cap that will constitute a resulting surface ; - calculating, by means of a computer, the centroid of the points of intersection of the straight lines with the cap that constitute the resulting surface ; - selecting, by means of a computer, a straight line passing through the centroid of the resulting surface and the point P ; - tracing, by means of a computer, the plane perpendicular to the straight line passing through the point P ; - generating, by means of a computer, a prismatic solid limited by the tangency of the intra-pedicular section of passage, wherein said prismatic solid extends in parallel to the straight line ; - selecting the base of the prismatic solid ; and - identifying, by means of a computer, the minimum distance between the point P and the perimeter of said base , where said minimum distance represents the maximum radius that the pedicle screw can have. - choosing a point P of entry on the outer surface at the height of the pedicle, on a three-dimensional reconstruction by means of CT or NMR of a patient, generated by a computer; - generating, by means of a computer, a spherical cap with centre P and any radius; - generating, by means of a computer, the proper sheaf of straight lines passing through the centre P , which intersect the cap and are contained in the pedicle chosen for the perforation; - selecting, by means of a computer, all the points of the straight lines intersecting the spherical cap that will constitute a resulting surface ; - calculating, by means of a computer, the centroid of the points of intersection of the straight lines with the cap that constitute the resulting surface ; - selecting, by means of a computer, a straight line passing through the centroid of the resulting surface and the point P ; - tracing, by means of a computer, the plane perpendicular to the straight line passing through the point P ; - generating, by means of a computer, a prismatic solid limited by the tangency of the intra-pedicular section of passage, wherein said prismatic solid extends in parallel to the straight line ; - selecting the base of the prismatic solid ; and - identifying, by means of a computer, the minimum distance between the point P and the perimeter of said base , where said minimum distance represents the maximum radius that the pedicle screw can have.
A method of processing video data, the method comprising: parsing a track of multiview video data, wherein the track includes at least one depth view; characterized in that the method further comprises: parsing information to determine a spatial resolution associated with the depth view, wherein determining the spatial resolution comprises parsing the spatial resolution from a three dimensional video coding Depth Resolution box from a three dimensional video coding Configuration Box; and parsing a three dimensional video coding decoder configuration record from the three dimensional video coding Configuration Box, wherein the three dimensional video coding Configuration Box is included in at least one of a sample entry of type '3vc1' that allows extractors and a sample entry type '3vc2' that disallows extractors. parsing a track of multiview video data, wherein the track includes at least one depth view; characterized in that the method further comprises: parsing information to determine a spatial resolution associated with the depth view, wherein determining the spatial resolution comprises parsing the spatial resolution from a three dimensional video coding Depth Resolution box from a three dimensional video coding Configuration Box; and parsing a three dimensional video coding decoder configuration record from the three dimensional video coding Configuration Box, wherein the three dimensional video coding Configuration Box is included in at least one of a sample entry of type '3vc1' that allows extractors and a sample entry type '3vc2' that disallows extractors. parsing information to determine a spatial resolution associated with the depth view, wherein determining the spatial resolution comprises parsing the spatial resolution from a three dimensional video coding Depth Resolution box from a three dimensional video coding Configuration Box; and parsing a three dimensional video coding decoder configuration record from the three dimensional video coding Configuration Box, wherein the three dimensional video coding Configuration Box is included in at least one of a sample entry of type '3vc1' that allows extractors and a sample entry type '3vc2' that disallows extractors.
A method comprising: accessing a trained machine learning model, wherein the machine learning model is trained, using a corpus of labeled voice inputs, to predict whether voice inputs are indicative of background conversation that should be ignored, or are indicative of a user intent to convey a message to one or more other users; receiving , at a microphone of a first computing device of a plurality of computing devices (106 1 ... 106 N , 206 1 ... 206 N ), from a first user, voice input; analyzing the voice input, wherein the analyzing includes applying data indicative of an audio recording of the voice input as input across the trained machine learning model to generate output that predicts whether the voice input is background conversation that should be ignored or whether the voice input indicates a user intent to convey a message to one or more other users; determining , based on the analyzing, that the first user intends to convey the message to the one or more other users; and causing one or more other computing devices of the plurality of computing devices to provide audio or visual output that conveys the message to the one or more other users. accessing a trained machine learning model, wherein the machine learning model is trained, using a corpus of labeled voice inputs, to predict whether voice inputs are indicative of background conversation that should be ignored, or are indicative of a user intent to convey a message to one or more other users; receiving , at a microphone of a first computing device of a plurality of computing devices (106 1 ... 106 N , 206 1 ... 206 N ), from a first user, voice input; analyzing the voice input, wherein the analyzing includes applying data indicative of an audio recording of the voice input as input across the trained machine learning model to generate output that predicts whether the voice input is background conversation that should be ignored or whether the voice input indicates a user intent to convey a message to one or more other users; determining , based on the analyzing, that the first user intends to convey the message to the one or more other users; and causing one or more other computing devices of the plurality of computing devices to provide audio or visual output that conveys the message to the one or more other users.
A packet relay program for relaying a packet in a first sub-domain among a plurality of sub-domains in a service chain configured across the plurality of sub-domains, which, when the program is executed by a computer , cause the computer in the first sub-domain to perform a process, the process comprising: receiving the packet including identification information indicating a combination of a plurality of service functions included in the service chain and an index indicating an order for applying the service function, the index being a predetermined value; specifying a transmission destination corresponding to the identification information included in the packet and the index included in the packet on a basis of relay information with which identification information indicating a combination of a plurality of service functions included in the service chain, an index indicating an order for applying the service function, and the transmission destination are associated; when the specified transmission destination is a service function in the first sub-domain, applying, to the packet, a service function in the first sub-domain that corresponds to the specified transmission destination, and decrementing the index by one; changing the index included in the packet into the predetermined value when the specified transmission destination is a second sub-domain among the plurality of sub-domains; and transmitting the packet including the identification information included in the packet and the index of the predetermined value to the specified transmission destination. receiving the packet including identification information indicating a combination of a plurality of service functions included in the service chain and an index indicating an order for applying the service function, the index being a predetermined value; specifying a transmission destination corresponding to the identification information included in the packet and the index included in the packet on a basis of relay information with which identification information indicating a combination of a plurality of service functions included in the service chain, an index indicating an order for applying the service function, and the transmission destination are associated; when the specified transmission destination is a service function in the first sub-domain, applying, to the packet, a service function in the first sub-domain that corresponds to the specified transmission destination, and decrementing the index by one; changing the index included in the packet into the predetermined value when the specified transmission destination is a second sub-domain among the plurality of sub-domains; and transmitting the packet including the identification information included in the packet and the index of the predetermined value to the specified transmission destination.
A method for maximizing the exergy of a Thermal energy storage (TES) tank , said method comprising the use of a thermally insulating suspension characterized in that said thermally insulating suspension comprises a matrix made by a plurality of overlapping floating elements, characterized in that the floating elements have at least one flat face to ensure sealing of gaps and minimize heat diffusion across the matrix elements, thus, providing an improved performance with respect to spherical pellets or, in general, elements that do not feature a flat face.
A frame stand for posters, comprising a frame surrounding a base plate , and a cover frame , wherein the cover frame has a bottom edge which is connected to the base plate in a rotatable manner, wherein a locking element of a locking mechanism at the top for the cover frame is provided to lock the cover frame and the base plate together, characterized in that the locking element comprises a latch , mounted on the frame , which has a projection suitable to be inserted into a slot of the upper edge of the cover frame , wherein the locking mechanism is arranged adjacent to a handle of the frame stand, wherein the locking mechanism comprises a pre-stressed spring which can move the locking mechanism into its locked position and which can hold the locking mechanism in its locked position.
A composition comprising a variant glucoamylase enzyme comprising an amino acid substitution in SEQ ID NO:1, wherein said amino acid substitution is selected from the group consisting of A111G, S14Q, K23N, K23R, K23Y, S30D, S30N, S30P, T31E, T31K, T31N, T31Q, A35L, S36R, S39A, L44I, T49K, T49R, S50E, S50I, S50N, S50Y, N51D, D53N, I69L, I69M, E83K, T98S, A117P, A117V, D118N, L119M, Q121A, Q121P, Y147W, C157W, Y179F, P186Y, Y197H, S250D, S250E, S250K, A262S, Q284H, I286A, T287N, T288H, A300L, A300Q, T309D, T309E, T309Q, L311V, A317K, L347K, T362A, S385L, S385Q, T388I, T388K, T388Y, T400K, N413S, A415D, A415F, A415N, A415S, A415T, A415W, A415Y, Q419P, Q423M, Q423P, S434T, G457N, G457P, T463F, F516L, L526F, S530E, S530G, T533K, A534L, S535E, S535G, S535K, S535T, T540A, T540S, V545L, Q547A, Q547H, F553Y, F555Y, I564V, K572E, V576I, V576L, G577R, T581I, T581K, V583F, V585P and S588Q, wherein said variant enzyme is at least 95% identical to SEQ ID NO:1, and wherein said variant glucoamylase enzyme has glucoamylase activity.
A respirator system, comprising: a regulator for use in connection with a facepiece of the respirator system , the regulator comprising an interface ; a hose assembly comprising a hose for carrying breathing gas to the regulator and a cable for carrying at least one electrical wire to the regulator ; and a connector system comprising: a base operatively connectible to the interface of the regulator , the base comprising a channel to seat at least a portion of the cable , the channel being in operative connection with the interior of the regulator upon connection of the base to the interface ; and a rotatable member which is rotatable relative to the base , characterised in the cable being in operative connection with the rotatable member so that a bend in the cable travels along the length of the cable and a varying length of the cable is positioned within the channel depending upon the rotational position of the rotatable member relative to the base . a regulator for use in connection with a facepiece of the respirator system , the regulator comprising an interface ; a hose assembly comprising a hose for carrying breathing gas to the regulator and a cable for carrying at least one electrical wire to the regulator ; and a connector system comprising: a base operatively connectible to the interface of the regulator , the base comprising a channel to seat at least a portion of the cable , the channel being in operative connection with the interior of the regulator upon connection of the base to the interface ; and a rotatable member which is rotatable relative to the base , a base operatively connectible to the interface of the regulator , the base comprising a channel to seat at least a portion of the cable , the channel being in operative connection with the interior of the regulator upon connection of the base to the interface ; and a rotatable member which is rotatable relative to the base , characterised in the cable being in operative connection with the rotatable member so that a bend in the cable travels along the length of the cable and a varying length of the cable is positioned within the channel depending upon the rotational position of the rotatable member relative to the base .
A process for manufacturing an aqueous composition with a pH of 6.3-7.3 comprising ibuprofen and paracetamol in combination, comprising the steps of: a) providing an aqueous solvent of pH 6.0-8.0, preferably 6.2-7.5, more preferably 6.3-7.3, b) dissolving in said aqueous solvent ibuprofen and paracetamol, c) ensuring that the final composition comprising ibuprofen and paracetamol has a pH of 6.3-7.3. a) providing an aqueous solvent of pH 6.0-8.0, preferably 6.2-7.5, more preferably 6.3-7.3, b) dissolving in said aqueous solvent ibuprofen and paracetamol, c) ensuring that the final composition comprising ibuprofen and paracetamol has a pH of 6.3-7.3.
An antenna arrangement comprising, a patch antenna ; a ground plane ; microwave circuitry ; and a first substrate comprising a first surface and a second surface, the first surface and the second surface being opposite sides of the first substrate , being essentially parallel, the patch antenna being realized in a first electrically conductive material attached to the first surface, and the patch antenna being arranged with respect to the ground plane so as to form a resonant antenna; the microwave circuitry being mounted on the second surface of the first substrate , and the microwave circuitry being operably connected to the patch antenna through a first feed , wherein the antenna arrangement further comprises a second substrate , said second substrate comprising a third surface and a fourth surface, the third surface being essentially parallel to the patch antenna , the third surface and the fourth surface being opposite sides of the second substrate , and the ground plane being realized in a second electrically conductive material attached to the third surface and the surface area of the ground plane being at least 1.5 times the surface area of the patch antenna, and wherein the antenna arrangement comprises a second feed connected the microwave circuitry or the patch antenna , the second feed also being in contact with the same conductive layer that the ground plane is realized in and being electrically isolated from the ground plane, and wherein the second feed is also configured for mechanically supporting and retaining the first substrate with respect to the second substrate . a patch antenna ; a ground plane ; microwave circuitry ; and a first substrate comprising a first surface and a second surface, the first surface and the second surface being opposite sides of the first substrate , being essentially parallel, the patch antenna being realized in a first electrically conductive material attached to the first surface, and the patch antenna being arranged with respect to the ground plane so as to form a resonant antenna; the microwave circuitry being mounted on the second surface of the first substrate , and the microwave circuitry being operably connected to the patch antenna through a first feed , wherein the antenna arrangement further comprises a second substrate , said second substrate comprising a third surface and a fourth surface, the third surface being essentially parallel to the patch antenna , the third surface and the fourth surface being opposite sides of the second substrate , and the ground plane being realized in a second electrically conductive material attached to the third surface and the surface area of the ground plane being at least 1.5 times the surface area of the patch antenna, and wherein the antenna arrangement comprises a second feed connected the microwave circuitry or the patch antenna , the second feed also being in contact with the same conductive layer that the ground plane is realized in and being electrically isolated from the ground plane, and wherein the second feed is also configured for mechanically supporting and retaining the first substrate with respect to the second substrate .
A stretch hood or stretch label multilayer film comprising a first skin layer, a second skin layer, and a core layer disposed between the first skin layer and the second skin layer, wherein: the first skin layer, the second skin layer, or both independently comprise at least 50 wt.% of a linear low density polyethylene (LLDPE) resin (skin LLDPE resin), characterized in that the skin LLDPE resin exhibits each of the following properties: a Crystallization Elution Fractionation (CEF) fraction of less than 8% above an elution temperature of 94°C, wherein the % CEF fraction above 94 °C is defined as the integral of the IR-4 or IR-5 chromatogram in the elution temperature ranging from 94.0 °C to 140.0 °C divided by the total integral from 25 °C to 140.0 °C; and a melt index (I 2 ) of 0.1 to 2.0 g/10 min when measured according to ASTM D 1238 at a load of 2.16 kg and temperature of 190°C; and the core layer comprises a polyethylene resin having wt.% crystallinity from 10% to 40%, a melt index (I 2 ) of 0.1 to 2.0 g/10 min measured according to ASTM D 1238 at a load of 2.16 kg and a temperature of 190°C, and a single melting peak as measured by differential scanning calorimetry. the first skin layer, the second skin layer, or both independently comprise at least 50 wt.% of a linear low density polyethylene (LLDPE) resin (skin LLDPE resin), characterized in that the skin LLDPE resin exhibits each of the following properties: a Crystallization Elution Fractionation (CEF) fraction of less than 8% above an elution temperature of 94°C, wherein the % CEF fraction above 94 °C is defined as the integral of the IR-4 or IR-5 chromatogram in the elution temperature ranging from 94.0 °C to 140.0 °C divided by the total integral from 25 °C to 140.0 °C; and a melt index (I 2 ) of 0.1 to 2.0 g/10 min when measured according to ASTM D 1238 at a load of 2.16 kg and temperature of 190°C; and a Crystallization Elution Fractionation (CEF) fraction of less than 8% above an elution temperature of 94°C, wherein the % CEF fraction above 94 °C is defined as the integral of the IR-4 or IR-5 chromatogram in the elution temperature ranging from 94.0 °C to 140.0 °C divided by the total integral from 25 °C to 140.0 °C; and a melt index (I 2 ) of 0.1 to 2.0 g/10 min when measured according to ASTM D 1238 at a load of 2.16 kg and temperature of 190°C; and the core layer comprises a polyethylene resin having wt.% crystallinity from 10% to 40%, a melt index (I 2 ) of 0.1 to 2.0 g/10 min measured according to ASTM D 1238 at a load of 2.16 kg and a temperature of 190°C, and a single melting peak as measured by differential scanning calorimetry.