mhurhangee/patent-ind-claim-en huggingface dataset:
A method of building automation with cascaded learning in a building management system, the method comprising: accessing first data related to a plurality of buildings by a building analytics system of the building management system, the first data including building management system data and enterprise data different than building management system data, the enterprise data for an enterprise associated with the buildings of the plurality and the building management system data being for the buildings of the plurality; applying , by the building analytics system, the first data to a first machine learning for identifying cost information; applying , by the building analytics system, the first data to a second machine learning for identifying a fault associated with the cost information; applying , by the building analytics system, the first data to a third machine learning for identifying a source of the fault; the method being characterised in that it comprises the step of: outputting , as a result of the applying , a cascade system comprising a cascade of first, second, and third machine-learnt classifiers from the first, second, and third learning, wherein one or more classifiers of the cascade uses the output from another classifier of the cascade in a cascade arrangement. accessing first data related to a plurality of buildings by a building analytics system of the building management system, the first data including building management system data and enterprise data different than building management system data, the enterprise data for an enterprise associated with the buildings of the plurality and the building management system data being for the buildings of the plurality; applying , by the building analytics system, the first data to a first machine learning for identifying cost information; applying , by the building analytics system, the first data to a second machine learning for identifying a fault associated with the cost information; applying , by the building analytics system, the first data to a third machine learning for identifying a source of the fault; the method being characterised in that it comprises the step of: outputting , as a result of the applying , a cascade system comprising a cascade of first, second, and third machine-learnt classifiers from the first, second, and third learning, wherein one or more classifiers of the cascade uses the output from another classifier of the cascade in a cascade arrangement. outputting , as a result of the applying , a cascade system comprising a cascade of first, second, and third machine-learnt classifiers from the first, second, and third learning, wherein one or more classifiers of the cascade uses the output from another classifier of the cascade in a cascade arrangement.
A processing method of a stone composite board, comprising: - Grinding and flattening two sides of a natural stone board until a preset standard value of thickness variation is reached; - Carrying out pressure-compositing on the ground flattened natural stone board and a base material layer through an adhesive layer ; - Carrying out calibrated planing with a diamond roller on a natural stone layer ; and - Carrying out surface treatment on the natural stone layer . - Grinding and flattening two sides of a natural stone board until a preset standard value of thickness variation is reached; - Carrying out pressure-compositing on the ground flattened natural stone board and a base material layer through an adhesive layer ; - Carrying out calibrated planing with a diamond roller on a natural stone layer ; and - Carrying out surface treatment on the natural stone layer .
A lubricating oil composition comprising a base lubricating oil, at least one oil soluble thioalkyl phosphite ester compound in an amount delivering from 5 to 5000 ppm of phosphorus into the oil and at least one polyalkylene polyamine-based friction modifier having the structure: in an amount of 0.1 to 10 weight percent in the composition.
Method for applying a spray , in particular a plant protection agent , onto a field , having the following steps: - acquiring plants in a field section of the field by means of an optical and/or infrared acquisition unit ; - identifying at least one plant row in the acquired field section by means of a processor unit; - defining a plant region comprising the at least one identified plant row and a weed region different from the plant region in the acquired field section by means of the processor unit; - ascertaining a plant parameter of the weed region by means of the processor unit; and - applying the spray to the weed region , in particular to the field section , in dependence on the ascertained plant parameter by means of a spraying device . - acquiring plants in a field section of the field by means of an optical and/or infrared acquisition unit ; - identifying at least one plant row in the acquired field section by means of a processor unit; - defining a plant region comprising the at least one identified plant row and a weed region different from the plant region in the acquired field section by means of the processor unit; - ascertaining a plant parameter of the weed region by means of the processor unit; and - applying the spray to the weed region , in particular to the field section , in dependence on the ascertained plant parameter by means of a spraying device .
An immunogenic composition comprising two different meningococcal fHBP antigens, both of which are adsorbed to aluminium hydroxyphosphate adjuvant, wherein (i) both of the meningococcal fHBP antigens have an isoelectric point between 5.0 and 7.0, (ii) the aluminium hydroxyphosphate adjuvant has a point of zero charge between 5.0 and 7.0, and (iii) the composition includes a buffer to maintain pH in the range of 5.0 to 7.0.
A process for the synthesis of solomonamide analogue of formula 1a comprising the steps of: i. acylating 3-methoxy acetanilide and methyl 6-oxohexanoate in 1:2 ratio in presence of Pd (TFA) 2 , TBHP and organic solvent at temperature in the range of 90-120°C to obtain carbonyl-acetanilides compound ; ii. treating compound 4 as obtained in step (i) with 85 to 95% 1,3 propane dithiol and BF 3 .Et 2 O in the ratio of 1:1 at temperature in the range of 20 to 35°C to obtain dithioketal compound ; iii. hydrolyzing dithioketal compound as obtained in step (ii) in presence of methanolic HCl to obtain key intermediate 6; iv. reacting compound 6 with 1 equivalent of Fmoc-D-Alanyl-Chloride 12 to obtain compound 13; v. hydrolyzing compound 13 in presence of cleavage reagent to give free amine compound 14 followed by treating with 1 equivalent of N-Boc glycine to give compound 15; vi. hydrolyzing compound 15 in presence of LiOH to afford acyclic precursor ; vii. deprotection Boc group of compound 16 in presence of TFA in DCM followed by HATU mediated macrolactamization and subsequently deprotecting in presence of HgO and BF 3 .Et 2 O to furnish solomonamide compound 1a . i. acylating 3-methoxy acetanilide and methyl 6-oxohexanoate in 1:2 ratio in presence of Pd (TFA) 2 , TBHP and organic solvent at temperature in the range of 90-120°C to obtain carbonyl-acetanilides compound ; ii. treating compound 4 as obtained in step (i) with 85 to 95% 1,3 propane dithiol and BF 3 .Et 2 O in the ratio of 1:1 at temperature in the range of 20 to 35°C to obtain dithioketal compound ; iii. hydrolyzing dithioketal compound as obtained in step (ii) in presence of methanolic HCl to obtain key intermediate 6; iv. reacting compound 6 with 1 equivalent of Fmoc-D-Alanyl-Chloride 12 to obtain compound 13; v. hydrolyzing compound 13 in presence of cleavage reagent to give free amine compound 14 followed by treating with 1 equivalent of N-Boc glycine to give compound 15; vi. hydrolyzing compound 15 in presence of LiOH to afford acyclic precursor ; vii. deprotection Boc group of compound 16 in presence of TFA in DCM followed by HATU mediated macrolactamization and subsequently deprotecting in presence of HgO and BF 3 .Et 2 O to furnish solomonamide compound 1a .
A charge air cooler or an exhaust gas cooler for an internal combustion engine, comprising a plurality of substantially parallel tubes and at least one outlet-side collector , wherein the tubes respectively end in the outlet-side collector , and wherein a gas flow flows out of the tubes into the collector and out of the collector into an outlet of the collector, wherein a structure for interaction with the gas flow is formed on the collector , wherein a condensate is transported to the outlet by means of the structure and the collector has a bottom for the condensate, wherein the structure comprises a condensate channel leading from the bottom to the outlet , the outlet-side end of which is swept by the gas flow, wherein a section of the condensate channel is formed as an internal, separate conduit, wherein a retaining element for influencing a pressure in the region of the bottom is provided directly above the bottom , wherein the retaining element is in particular formed integrally with a wall of the condensate channel , characterised in that the bottom is arranged at an end of the collector and the outlet is arranged at the opposite end of the collector .
An electrosurgical generator for providing electrical treatment energy to an instrument, the generator comprising: a processor ; and a memory having stored thereon instructions which, when executed by the processor , cause the generator to: receive signals from the instrument over time relating to whether tissue is grasped by the instrument; receive an indication to provide an indicated treatment power to the instrument, the indicated treatment power being set by a user; determine based on the signals that tissue is currently grasped and that, for at least a predetermined length of time prior, no tissue had been grasped; based on the determination, provide a treatment power surge to the instrument for a surge time period, the treatment power surge being greater than the indicated treatment power; and after the surge time period, provide the indicated treatment power to the instrument. a processor ; and a memory having stored thereon instructions which, when executed by the processor , cause the generator to: receive signals from the instrument over time relating to whether tissue is grasped by the instrument; receive an indication to provide an indicated treatment power to the instrument, the indicated treatment power being set by a user; determine based on the signals that tissue is currently grasped and that, for at least a predetermined length of time prior, no tissue had been grasped; based on the determination, provide a treatment power surge to the instrument for a surge time period, the treatment power surge being greater than the indicated treatment power; and after the surge time period, provide the indicated treatment power to the instrument. receive signals from the instrument over time relating to whether tissue is grasped by the instrument; receive an indication to provide an indicated treatment power to the instrument, the indicated treatment power being set by a user; determine based on the signals that tissue is currently grasped and that, for at least a predetermined length of time prior, no tissue had been grasped; based on the determination, provide a treatment power surge to the instrument for a surge time period, the treatment power surge being greater than the indicated treatment power; and after the surge time period, provide the indicated treatment power to the instrument.
Bar feeder magazine for machine tools , comprising a guide base extending in a longitudinal direction , a set of bar guiding elements guided on the guide base for displacement in the longitudinal direction , each of said guiding elements having a bearing receptacle for a bar of material rotatable about an axis of alignment in a supply position , said receptacle being arranged coaxially to the axis of alignment parallel to the longitudinal direction , wherein the set of bar guiding elements is able to be brought into at least one bar guiding position, the bearing receptacles of the bar guiding elements , in said bar guiding position, guiding the bars of material arranged in the supply position in the longitudinal direction at a distance from one another and centred relative to the axis of alignment , a bar advancing element guided on the guide base and having a receptacle for a bar of material located in the supply position , the bar of material in the supply position being movable with said advancing element in the direction of the axis of alignment in a controlled manner and, as a result, being suppliable to the machine tool for machining, wherein the set of bar guiding elements and the bar advancing element are movable into a bar loading position, the bar of material able to be brought into an insertion starting position coaxial to the axis of alignment in said loading position, the bar of material being insertable into the bearing receptacles of the set of bar guiding elements proceeding from said starting position, and wherein in the at least one bar loading position the bar of material arranged in the insertion starting position is arranged between the set of bar guiding elements and the bar advancing element , characterized in that the bar feeder magazine has a receiving position for an additional bar of material to be inserted, said position being arranged in the direction of gravity beneath a horizontal longitudinal central plane extending through the axis of alignment , that the bar feeder magazine has a lifting device for lifting the additional bar of material to be inserted into the insertion starting position and aligning it coaxially to the axis of alignment and that the lifting device is designed to move the additional bar of material from the receiving position into the insertion starting position , and that the additional bar of material is movable along a lifting path extending essentially vertically in order to reach the insertion starting position .
A method for gas quality monitoring, comprising: - spectroscopic analysis of a gas sample from a space to be monitored, wherein the spectroscopic analysis supplies a measurement spectrum extending over a wavelength range; - representing the measurement spectrum in the form of an image, which is divided into a first area and a second area, wherein the measured wavelength-dependent intensity separates the first area from the second area; - detecting a deviation of the measurement spectrum from at least one comparison pattern on the basis of the image by detecting an overlap of the first area and/or the second area with at least one comparison area (501, 502, 503; 601) defined by the comparison pattern ; and - depending on the detected deviation, generating a gas quality warning (QW). - spectroscopic analysis of a gas sample from a space to be monitored, wherein the spectroscopic analysis supplies a measurement spectrum extending over a wavelength range; - representing the measurement spectrum in the form of an image, which is divided into a first area and a second area, wherein the measured wavelength-dependent intensity separates the first area from the second area; - detecting a deviation of the measurement spectrum from at least one comparison pattern on the basis of the image by detecting an overlap of the first area and/or the second area with at least one comparison area (501, 502, 503; 601) defined by the comparison pattern ; and - depending on the detected deviation, generating a gas quality warning (QW).
A varistor ensemble comprising a varistor (VAR) and comprising an integrally formed contact, whereby the varistor comprises a ceramic layer, comprising: a first supply element (ZL 1 ) that is suitable for connecting to a power grid; and a plurality of separate electrical connection points (V 1 , V 2 , ... V N ), which are spaced apart from each other and provide for multiple spatial contacting of a single side of the ceramic layer of the varistor (VAR), wherein the plurality of electrical connection points (V 1 , V 2 , ... V N ) and the first supply element (ZL 1 ) are electrically connected to each other, and wherein the plurality of electrical connection points (V 1 , V 2 , ... V N ) is configured with fuses (F 1 , F 2 . --- F N ), such that a local shorting-out of a part of the varistor (VAR) is brought about through a separation of an affected local electrical connection point(s) (V 1 , V 2 , ... V N ). a first supply element (ZL 1 ) that is suitable for connecting to a power grid; and a plurality of separate electrical connection points (V 1 , V 2 , ... V N ), which are spaced apart from each other and provide for multiple spatial contacting of a single side of the ceramic layer of the varistor (VAR), wherein the plurality of electrical connection points (V 1 , V 2 , ... V N ) and the first supply element (ZL 1 ) are electrically connected to each other, and wherein the plurality of electrical connection points (V 1 , V 2 , ... V N ) is configured with fuses (F 1 , F 2 . --- F N ), such that a local shorting-out of a part of the varistor (VAR) is brought about through a separation of an affected local electrical connection point(s) (V 1 , V 2 , ... V N ).
Installation for adjusting the production of biomethane in accordance with the operation of a biomethane utilization unit, comprising: - a digester for producing biogas, - a membrane separation unit for producing a stream of biomethane and a stream of carbon dioxide from the biogas obtained from the digester, - a unit for utilizing the biomethane obtained from the membrane separation unit, - a first means for mixing the stream of biomethane and the stream of carbon dioxide obtained from the membrane separation unit, - a second means for sending a control signal from the utilization unit to the first means, and - a third means for recycling the mixture obtained from the first means into the digester. - a digester for producing biogas, - a membrane separation unit for producing a stream of biomethane and a stream of carbon dioxide from the biogas obtained from the digester, - a unit for utilizing the biomethane obtained from the membrane separation unit, - a first means for mixing the stream of biomethane and the stream of carbon dioxide obtained from the membrane separation unit, - a second means for sending a control signal from the utilization unit to the first means, and - a third means for recycling the mixture obtained from the first means into the digester.
A surface cleaning apparatus having a dirt collection container which is removable from a remainder of the apparatus , wherein the dirt collection container is held in a stored position relative to the remainder of the apparatus by a holding device, said holding device including: a first co-operating member provided in, provided on or connected to the dirt collection container ; and a second co-operating member provided in, provided on or connected to the remainder of the apparatus , wherein movement of the dirt collection container towards its stored position engages the first and second cooperating members with each other and effects either: rotation of the first co-operating member relative to the dirt collection container : and/or rotation of the second co-operating member relative to the remainder of the apparatus , characterised in that the dirt collection container is moveable linearly relative to the remainder of the apparatus as it is moved towards its stored position. a first co-operating member provided in, provided on or connected to the dirt collection container ; and a second co-operating member provided in, provided on or connected to the remainder of the apparatus , wherein movement of the dirt collection container towards its stored position engages the first and second cooperating members with each other and effects either: rotation of the first co-operating member relative to the dirt collection container : and/or rotation of the second co-operating member relative to the remainder of the apparatus , rotation of the first co-operating member relative to the dirt collection container : and/or rotation of the second co-operating member relative to the remainder of the apparatus , characterised in that the dirt collection container is moveable linearly relative to the remainder of the apparatus as it is moved towards its stored position.
A user equipment, UE, comprising: a dynamic adaptive streaming over hypertext, DASH, transfer protocol client; a multimedia broadcast and multicast service, MBMS, access client configured to receive a first DASH media segment via a broadcast MBMS transmission and to receive a first media presentation description, MPD, metadata indicating a first set of media that are available for MBMS transmission; a hypertext transfer protocol, HTTP, server circuitry configured to generate a second MPD metadata and provide the second MPD metadata to the DASH client of the UE , the second MPD metadata to indicate a second set of media that are available for HTTP delivery to the DASH client, wherein the second set of media is a subset or a superset of the first set of media and it includes the received first DASH media segment; and the DASH client configured to: send a hypertext transfer protocol, HTTP, request to the HTTP server circuitry to request the first DASH media segment; and receive, in response to the HTTP request, the first DASH media segment from the HTTP server circuitry via a unicast HTTP message. a dynamic adaptive streaming over hypertext, DASH, transfer protocol client; a multimedia broadcast and multicast service, MBMS, access client configured to receive a first DASH media segment via a broadcast MBMS transmission and to receive a first media presentation description, MPD, metadata indicating a first set of media that are available for MBMS transmission; a hypertext transfer protocol, HTTP, server circuitry configured to generate a second MPD metadata and provide the second MPD metadata to the DASH client of the UE , the second MPD metadata to indicate a second set of media that are available for HTTP delivery to the DASH client, wherein the second set of media is a subset or a superset of the first set of media and it includes the received first DASH media segment; and the DASH client configured to: send a hypertext transfer protocol, HTTP, request to the HTTP server circuitry to request the first DASH media segment; and receive, in response to the HTTP request, the first DASH media segment from the HTTP server circuitry via a unicast HTTP message. send a hypertext transfer protocol, HTTP, request to the HTTP server circuitry to request the first DASH media segment; and receive, in response to the HTTP request, the first DASH media segment from the HTTP server circuitry via a unicast HTTP message.