mhurhangee/ep-ind-claims huggingface dataset:
Re-Circulating culture system for the autonomous cultivation and/or breeding of aquatic organisms, comprising a circulation system for re-circulating and tempering a liquid, wherein the circulation system comprises a culture tank for holding the liquid, a water reservoir for storing the liquid, a tempering device configured to supply and/or remove thermal energy to/from the liquid, a pumping system for re-circulating the liquid, and a filtration system for filtering the liquid, as well as a container which has at least one interior space and one or more container walls which are penetrated by an opening, wherein the opening and the culture tank are arranged relative to each other such that the culture tank covers the opening when it is placed in the container, wherein the one or more container walls contain or are formed of an insulating material, wherein the circulation system is arranged in the at least one interior space of the container, and wherein the re-circulating culture system further comprises: • a camera whose detection field is inside the culture tank; • a sensor system arranged in the at least one interior space, wherein the sensor system comprises a temperature sensor, an oxygen sensor, a flow sensor, a conductivity sensor, and/or a pH sensor; and • a control device in the interior space, wherein the control device is configured to control the circulation system based on data from the sensor system. • a camera whose detection field is inside the culture tank; • a sensor system arranged in the at least one interior space, wherein the sensor system comprises a temperature sensor, an oxygen sensor, a flow sensor, a conductivity sensor, and/or a pH sensor; and • a control device in the interior space, wherein the control device is configured to control the circulation system based on data from the sensor system.
A non-soap detergent bar, comprising: a detergent surfactant; a builder; a psyllium; a cellulose derivative, wherein the cellulose derivative is selected from the group consisting of a hydroxyalkyl alkyl cellulose; a filler, wherein the filler includes sodium silicate; water; wherein the non-soap detergent bar is a solid. a detergent surfactant; a builder; a psyllium; a cellulose derivative, wherein the cellulose derivative is selected from the group consisting of a hydroxyalkyl alkyl cellulose; a filler, wherein the filler includes sodium silicate; water; wherein the non-soap detergent bar is a solid.
Method for compensating DC offset in a signal path comprising a plurality of stages (k, n) arranged in a chain forming a signal path, each stage having an individual gain; wherein for each stage (k, n) a DC compensation is performed by introducing a DC compensation signal (340...34k...34n) by means of an compensation digital to analog converter that is electrically coupled to said stage and that is configured to add the DC compensation signal to the DC offset of said stage (k, n); wherein the DC compensation is performed stage by stage starting with the stage that is closest to the output of said signal path; wherein a DC compensation algorithm comprising an outer loop (42 - 49) and an inner loop (43 - 48), wherein the outer loop performs the initializing of the algorithm and computing the DC offset compensation signals for all stages, wherein said DC compensation signal for said stage is determined by the inner loop comprising the steps: measuring a DC offset residual DC RES,m at the output of said signal path, setting the DC compensation signal to a value that is the negative of the DC offset residual divided by a total gain of said stage A tot,k, wherein the total gain of said stage is the product of the individual gains of all preceding stages and the gain of said stage; and repeating the measuring of the DC offset residual and the setting the DC compensation signal within the inner loop. measuring a DC offset residual DC RES,m at the output of said signal path, setting the DC compensation signal to a value that is the negative of the DC offset residual divided by a total gain of said stage A tot,k, wherein the total gain of said stage is the product of the individual gains of all preceding stages and the gain of said stage; and repeating the measuring of the DC offset residual and the setting the DC compensation signal within the inner loop. repeating the measuring of the DC offset residual and the setting the DC compensation signal within the inner loop.
A method of using a controller that controls switches (C1-C2, E1-E5) in a network (100, 120) having end hosts (EH1-EH6) that are coupled to the switches (C1-C2, E1-E5), the method comprising: with the controller, forming a plurality of virtual switches (VSW1-VSW3) from respective groups of end hosts (EH1-EH6), wherein at least one virtual switch includes ports from at least two switches; with the controller, forming a plurality of virtual routers (VR1-VR2) from respective groups of the virtual switches, wherein the virtual routers (VR1-VR2) perform network routing operations; and with the controller, forming a virtual system router from a group of the virtual routers characterised by, forming the plurality of virtual switches (VSW1-VSW3), the plurality of virtual routers (VR1-VR2), and the virtual system router by directly connecting a given virtual switch in the plurality of virtual switches (VSW1-VSW3) to a physical router, wherein the virtual system router performs additional network routing operations directly between only the plurality of virtual routers (VR1-VR2); and with the controller, controlling the given virtual switch and a given virtual router in the plurality of virtual routers (VR1-VR2) to forward network traffic from one or more of the end hosts to an external network through the physical router. with the controller, forming a plurality of virtual switches (VSW1-VSW3) from respective groups of end hosts (EH1-EH6), wherein at least one virtual switch includes ports from at least two switches; with the controller, forming a plurality of virtual routers (VR1-VR2) from respective groups of the virtual switches, wherein the virtual routers (VR1-VR2) perform network routing operations; and with the controller, forming a virtual system router from a group of the virtual routers characterised by, forming the plurality of virtual switches (VSW1-VSW3), the plurality of virtual routers (VR1-VR2), and the virtual system router by directly connecting a given virtual switch in the plurality of virtual switches (VSW1-VSW3) to a physical router, wherein the virtual system router performs additional network routing operations directly between only the plurality of virtual routers (VR1-VR2); and with the controller, controlling the given virtual switch and a given virtual router in the plurality of virtual routers (VR1-VR2) to forward network traffic from one or more of the end hosts to an external network through the physical router.
Method of producing a homecompostable biomaterial product based on sunflower seed hulls or sunflower seed husks comprising: - providing or preparing a compounded material, wherein said material is obtained by compounding a sunflower seed hull material or a sunflower seed husk material SPC with a biodegradable plastic, namely polybutylene succinate or polybutylene succinate adipate (PBSA), wherein the sunflower seed hull material or the sunflower seed husk material compounded with PBS is referred to as SPC PBS, and the sunflower seed hull material or the sunflower seed husk material compounded with PBSA is referred to as SPC PBSA. - providing or preparing a compounded material, wherein said material is obtained by compounding a sunflower seed hull material or a sunflower seed husk material SPC with a biodegradable plastic, namely polybutylene succinate or polybutylene succinate adipate (PBSA), wherein the sunflower seed hull material or the sunflower seed husk material compounded with PBS is referred to as SPC PBS, and the sunflower seed hull material or the sunflower seed husk material compounded with PBSA is referred to as SPC PBSA.
A thermal isolation apparatus, comprising: an annular casing surrounding a turbine bucket stage and defining an annular recess from an interior facing surface thereof; an annular shroud disposed within the casing to provide for a predefined clearance about rotating bucket tips of the turbine bucket stage, the shroud including an annular main member and an annular flange extending from an outwardly facing surface of the main member and being sized to fit within the recess characterised in that a thermal barrier formed of porous material is interposed between opposing surfaces of the casing and the flange within the recess. an annular casing surrounding a turbine bucket stage and defining an annular recess from an interior facing surface thereof; an annular shroud disposed within the casing to provide for a predefined clearance about rotating bucket tips of the turbine bucket stage, the shroud including an annular main member and an annular flange extending from an outwardly facing surface of the main member and being sized to fit within the recess characterised in that a thermal barrier formed of porous material is interposed between opposing surfaces of the casing and the flange within the recess.
A method of controlling the admission of calls onto at least one path in a packet-switched network, said method including the steps of: applying a restriction factor to calls using said path, said restriction factor having a range of at least three possible values and restricting the number of new calls permitted to utilise said path to a first predetermined level, and being set on the basis of a first level of traffic load on said path; measuring transmission performance indicators for ongoing calls on said path to determine a current level of traffic load on said path; determining an updated restriction factor on the basis of said determined current traffic load level and applying said updated restriction factor to calls using said path, said updated restriction factor restricting the number of new calls permitted to utilise said path to a second predetermined level, wherein said second predetermined level is different from said first predetermined level, characterised in that said step of determining an updated restriction factor further includes the step of adjusting said restriction factor by adding an adjustment value to obtain said updated restriction factor, said adjustment value being dependent on the difference between said first traffic load level and said current traffic load level. applying a restriction factor to calls using said path, said restriction factor having a range of at least three possible values and restricting the number of new calls permitted to utilise said path to a first predetermined level, and being set on the basis of a first level of traffic load on said path; measuring transmission performance indicators for ongoing calls on said path to determine a current level of traffic load on said path; determining an updated restriction factor on the basis of said determined current traffic load level and applying said updated restriction factor to calls using said path, said updated restriction factor restricting the number of new calls permitted to utilise said path to a second predetermined level, wherein said second predetermined level is different from said first predetermined level, characterised in that said step of determining an updated restriction factor further includes the step of adjusting said restriction factor by adding an adjustment value to obtain said updated restriction factor, said adjustment value being dependent on the difference between said first traffic load level and said current traffic load level.
An apparatus for controlling operation of a counterpulsation device in a human or animal subject, the apparatus comprising a controller configured to: receive a heart beat signal indicative of the heart beat of the subject; and provide counterpulsation therapy by controlling pressure supplied to a CPD drive line in pneumatic communication with the CPD to cause the CPD to alternately fill with blood and eject blood with a timing that is determined at least in part based on the heart beat signal; characterized in that the controller is configured to, while providing counterpulsation therapy, receive a CPD drive line pressure signal indicative of the pressure in the CPD drive line; and adjust the pressure supplied to the drive line based at least in part on the drive line pressure signal, wherein the driveline is coupled to a vacuum chamber during the filling of the CPD and to a pressure chamber during emptying the CPD. receive a heart beat signal indicative of the heart beat of the subject; and provide counterpulsation therapy by controlling pressure supplied to a CPD drive line in pneumatic communication with the CPD to cause the CPD to alternately fill with blood and eject blood with a timing that is determined at least in part based on the heart beat signal; characterized in that the controller is configured to, while providing counterpulsation therapy, receive a CPD drive line pressure signal indicative of the pressure in the CPD drive line; and adjust the pressure supplied to the drive line based at least in part on the drive line pressure signal, wherein the driveline is coupled to a vacuum chamber during the filling of the CPD and to a pressure chamber during emptying the CPD.
A method of receiving a physical downlink control channel, PDCCH, by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information, via a radio resource control, RRC, signaling, wherein Quasi-co-location, QCL, information for a spatial parameter between (i) a channel state information reference signal, CSI-RS, and antenna port of PDCCH demodulation reference signal, DM-RS, or (ii) a synchronization signal, SS, block and the antenna port of PDCCH DM-RS are configured based on the configuration information; receiving, from the base station, information for a specific QCL information among the QCL information, via Medium Access Control-Control Element, MAC-CE, signaling; and receiving, from the base station, the PDCCH based on the specific QCL information, wherein based on that the information via MAC-CE signaling is not received, a predetermined QCL information is used as the specific QCL information. receiving, from a base station, configuration information, via a radio resource control, RRC, signaling, wherein Quasi-co-location, QCL, information for a spatial parameter between (i) a channel state information reference signal, CSI-RS, and antenna port of PDCCH demodulation reference signal, DM-RS, or (ii) a synchronization signal, SS, block and the antenna port of PDCCH DM-RS are configured based on the configuration information; receiving, from the base station, information for a specific QCL information among the QCL information, via Medium Access Control-Control Element, MAC-CE, signaling; and receiving, from the base station, the PDCCH based on the specific QCL information, wherein based on that the information via MAC-CE signaling is not received, a predetermined QCL information is used as the specific QCL information.
Cable outlet for fixing a cable to a cable outlet connecting piece of a plug-and-socket connector, consisting of a sleeve-shaped body, wherein a curable polyer is provided on the inside of the sleeve-shaped body, characterized in that a groove is provided on the inside of the body, the curable polymer is disposed in the groove, and the sleeve-shaped body consists of multiple sub-segments.
A non-naturally occurring microorganism that is capable of growing on a gaseous substrate as a carbon and/or energy source, wherein said microorganism comprises at least one exogenous nucleic acid encoding a limonene synthase enzyme, and wherein said microorganism is a Cupriavidus sp. or Ralstonia sp.
An acoustic lighting tile comprising: - a cavity having a side wall arranged to form an opening in the cavity; - an acoustic element adapted to absorb at least a subset of sound incident to the cavity; - a light source carrier arranged in the cavity along the side wall, wherein the light source carrier extends a first distance along a horizontal direction into the cavity; - a light source mounted on the light source carrier and arranged to emit light (L1, L2, L3) in a vertical main direction into the cavity away from the opening of the cavity; - a reflective surface (160, 160', 160") arranged in the cavity and adapted to reflect at least a subset of the emitted light (L1, L2, L3) towards the opening; and - a diffusing element arranged to at least partially cover the opening at a second distance from the light source carrier and adapted to at least partially diffuse light passing through the opening, characterized in that the second distance is in a direction perpendicular to that of the first distance and at least as large as the first distance. - a cavity having a side wall arranged to form an opening in the cavity; - an acoustic element adapted to absorb at least a subset of sound incident to the cavity; - a light source carrier arranged in the cavity along the side wall, wherein the light source carrier extends a first distance along a horizontal direction into the cavity; - a light source mounted on the light source carrier and arranged to emit light (L1, L2, L3) in a vertical main direction into the cavity away from the opening of the cavity; - a reflective surface (160, 160', 160") arranged in the cavity and adapted to reflect at least a subset of the emitted light (L1, L2, L3) towards the opening; and - a diffusing element arranged to at least partially cover the opening at a second distance from the light source carrier and adapted to at least partially diffuse light passing through the opening, characterized in that the second distance is in a direction perpendicular to that of the first distance and at least as large as the first distance.
A personal care composition for improved skin appearance comprising (i) 0.5 to 10% of inorganic pigment particles in the size range of 400 to 800 nm which scatter greater than 50% of light in the wavelength range 550 to 700 nm with respect to total scattered light in the range of 400 to 700 nm selected from titanium dioxide or zinc oxide, and (ii) 0.01 to 0.5% of organic dye which absorbs greater than 50% of light in the wavelength range 400 to 550 nm with respect to total absorbed light in the range of 400 to 700 nm selected from FDC Red 4, FDC Red 1 or DC Brown. (i) 0.5 to 10% of inorganic pigment particles in the size range of 400 to 800 nm which scatter greater than 50% of light in the wavelength range 550 to 700 nm with respect to total scattered light in the range of 400 to 700 nm selected from titanium dioxide or zinc oxide, and (ii) 0.01 to 0.5% of organic dye which absorbs greater than 50% of light in the wavelength range 400 to 550 nm with respect to total absorbed light in the range of 400 to 700 nm selected from FDC Red 4, FDC Red 1 or DC Brown.
An all-suture anchor, comprising: a fibrous construct movable between a pre-deployment configuration and a deployed configuration, the fibrous construct having a first density; and a monofilament woven through the fibrous construct, the monofilament having a second density, which is different than the first density; characterized in that the monofilament comprises a segment of a third density. a fibrous construct movable between a pre-deployment configuration and a deployed configuration, the fibrous construct having a first density; and a monofilament woven through the fibrous construct, the monofilament having a second density, which is different than the first density; characterized in that the monofilament comprises a segment of a third density.
An in vitro method for producing contracting fish cell aggregates, comprising the steps: a) mechanical comminution and/or partial enzymatic digestion of fish embryos or fish larvae in the development stage from the beginning of the eyed egg stage to the end of the yolk sac stage; b) transfer of the comminuted and/or partially digested fish tissue into an enzyme-free medium and removing the supernatant by centrifuging to obtain a cell pellet; c) resuspension of the cell pellet in a cell culture medium; d) cultivation of the cells, with the medium being changed at least once, until spontaneously contracting cell aggregates form. a) mechanical comminution and/or partial enzymatic digestion of fish embryos or fish larvae in the development stage from the beginning of the eyed egg stage to the end of the yolk sac stage; b) transfer of the comminuted and/or partially digested fish tissue into an enzyme-free medium and removing the supernatant by centrifuging to obtain a cell pellet; c) resuspension of the cell pellet in a cell culture medium; d) cultivation of the cells, with the medium being changed at least once, until spontaneously contracting cell aggregates form.
A polynucleotide comprising at least two consecutive transcription termination signals, characterized in that said consecutive transcription termination signals comprise at least a first and a second transcription termination signal that are at most 1000 nucleotides apart, and at least one of the termination signal has or encodes a RNA hairpin structure, said hairpin structure comprising a stem of at least 12 internal base pairs and wherein said hairpin structure is defined by a sequence Y-X-Z, wherein Y is a nucleotide sequence of at least 12 nucleotides in length and with a G/C content of at least 70%, X is a nucleotide sequence of 4 nucleotides in length, X consists of the sequence U/T-NNG, with N being any nucleotide selected from U, A, C, G, and Z is a nucleotide sequence with at least 70% complementarity to Y, the complementary nucleotides of Z being base paired with the nucleotides of Y, and X being a loop with no base pairing to Y or Z.
A profile transmission method, comprising: when a terminal comprising an embedded universal integrated circuit card eUICC runs a first operating system OS, obtaining, by the terminal, a second OS identifier, wherein a first profile is installed on the first OS, wherein the first profile is provided by a first operator to run on the first OS, wherein the second OS identifier matches a second profile, wherein the second profile is provided by a second operator to run on the second OS,; wherein the obtaining, by the terminal, the second OS identifier comprises: sending, by the terminal, an OS identifier list and a matching identifier to a server, wherein there is a unique correspondence between the matching identifier and the second profile, and receiving, by the terminal, the second OS identifier sent by the server, wherein the second OS identifier is determined by the server from the OS identifier list based on the matching identifier; switching, by the terminal, to a second OS based on the second OS identifier; sending,, by the terminal, a target message to a server, wherein the target message is used to request the second profile; and obtaining, by the terminal, the second profile from the server. sending, by the terminal, an OS identifier list and a matching identifier to a server, wherein there is a unique correspondence between the matching identifier and the second profile, and receiving, by the terminal, the second OS identifier sent by the server, wherein the second OS identifier is determined by the server from the OS identifier list based on the matching identifier; switching, by the terminal, to a second OS based on the second OS identifier; sending,, by the terminal, a target message to a server, wherein the target message is used to request the second profile; and obtaining, by the terminal, the second profile from the server.