mhurhangee/ep-ind-claims huggingface dataset:
A method of making a bone graft composition; characterised in that said method comprises: combining fragments of an acellular tissue matrix with fragments of demineralized bone matrix to create a mixture, wherein the fragments of ATM and the fragments of DBM in the mixture are substantially hydrated; drying and irradiating the mixture the mixture to provide a form that has been dried and irradiated; wherein said form can be stored for six months and then rehydrated to provide an osteoinductive BCG. combining fragments of an acellular tissue matrix with fragments of demineralized bone matrix to create a mixture, wherein the fragments of ATM and the fragments of DBM in the mixture are substantially hydrated; drying and irradiating the mixture the mixture to provide a form that has been dried and irradiated; wherein said form can be stored for six months and then rehydrated to provide an osteoinductive BCG.
A telecommunication controller configured for connection with multiple small cell base stations, the controller comprising: a receiver configured to receive measured data of the levels of a pilot signal sent from each of the small cell base stations and received at other of the small cell base stations; a processor configured to determine from the measured data the signal attenuations between the small cell base stations; a received power estimation means configured to calculate(Fig 6:c) from determined signal attenuations between the small cell base stations, for each of a plurality of subsets of the small cell base stations transmitting a pilot signal at a given power, the pilot signal powers expected to be received at the other small cell base stations; a comparison means (44, Fig 6:d) configured to compare said pilot signal powers expected to be received at the other base stations to a minimum received power threshold; a selector means (44, Fig 6:e,h,i) configured to select, from among the plurality of subsets of small cell base stations, the smallest subset that, or one of the smallest subsets that, provides pilot signal power above the threshold at each of the other small cell base stations; and an instruction means configured to send an instruction to each small cell base station in that subset to remain permanently in active mode. a processor configured to determine from the measured data the signal attenuations between the small cell base stations; a received power estimation means configured to calculate(Fig 6:c) from determined signal attenuations between the small cell base stations, for each of a plurality of subsets of the small cell base stations transmitting a pilot signal at a given power, the pilot signal powers expected to be received at the other small cell base stations; a comparison means (44, Fig 6:d) configured to compare said pilot signal powers expected to be received at the other base stations to a minimum received power threshold; a selector means (44, Fig 6:e,h,i) configured to select, from among the plurality of subsets of small cell base stations, the smallest subset that, or one of the smallest subsets that, provides pilot signal power above the threshold at each of the other small cell base stations; and an instruction means configured to send an instruction to each small cell base station in that subset to remain permanently in active mode.
An in vitro method of producing virus-receptive pluripotent stem cell-derived hepatocytes comprising: (a) obtaining pluripotent stem cell -derived hepatocytes; and (b) culturing the PSC-derived hepatocytes in media comprising cyclic adenosine monophosphate (cAMP) and a Janus kinase inhibitor (JAKi), thereby producing virus receptive hepatocytes. (a) obtaining pluripotent stem cell -derived hepatocytes; and (b) culturing the PSC-derived hepatocytes in media comprising cyclic adenosine monophosphate (cAMP) and a Janus kinase inhibitor (JAKi), thereby producing virus receptive hepatocytes.
An inverter for supplying a load-adaptive boost voltage and driving an induction motor, the inverter comprising: a reference voltage determining unit configured to determine a reference voltage according to a reference frequency on the basis of a predetermined a relationship between a voltage and a frequency; an inverter unit configured to drive the induction motor according to the reference voltage; and an automatic torque boost voltage calculation unit configured to determine an automatic torque boost voltage value according to a magnitude of an output current from the inverter to the induction motor; wherein the reference voltage determining unit is configured to add a preset manual boost voltage value and the automatic torque boost voltage value to the reference voltage and output the resultant voltage value as a final reference voltage, characterized by a load state detection unit configured to determine whether the induction motor is in a retrogressive mode or a regenerative mode, wherein the automatic torque boost voltage value (Vboost_auto) is calculated by Equation 1 below. Vboost_auto = Vp_rated × Gboost × io / irated_motor where Vp_rated is a phase voltage value based on a motor rated slip, Gboost is a boost voltage gain, |io| is a magnitude of an output current, and |irated_motor| is a motor rated output current, wherein, when the induction motor is in the retrogressive mode, the boost voltage gain is set to a retrogressive boost voltage gain (G_boost_motor), and wherein, when the induction motor is in the regenerative mode, the boost voltage gain is set to a regenerative boost voltage gain (G_boost_gen). a reference voltage determining unit configured to determine a reference voltage according to a reference frequency on the basis of a predetermined a relationship between a voltage and a frequency; an inverter unit configured to drive the induction motor according to the reference voltage; and an automatic torque boost voltage calculation unit configured to determine an automatic torque boost voltage value according to a magnitude of an output current from the inverter to the induction motor; wherein the reference voltage determining unit is configured to add a preset manual boost voltage value and the automatic torque boost voltage value to the reference voltage and output the resultant voltage value as a final reference voltage, characterized by a load state detection unit configured to determine whether the induction motor is in a retrogressive mode or a regenerative mode, wherein the automatic torque boost voltage value (Vboost_auto) is calculated by Equation 1 below. Vboost_auto = Vp_rated × Gboost × io / irated_motor where Vp_rated is a phase voltage value based on a motor rated slip, Gboost is a boost voltage gain, |io| is a magnitude of an output current, and |irated_motor| is a motor rated output current, wherein, when the induction motor is in the retrogressive mode, the boost voltage gain is set to a retrogressive boost voltage gain (G_boost_motor), and wherein, when the induction motor is in the regenerative mode, the boost voltage gain is set to a regenerative boost voltage gain (G_boost_gen).
A washable pillow comprising: a molded viscoelastic foam core wherein the molded viscoelastic foam core has a hydrophobicity defined by a measured water uptake between about 0% (w/w) and about 30% (w/w), an average cell size between about 0.16 mm and about 3 mm, and an air permeability between about 1.0 liters per second and about 6.0 liters per second; wherein the molded viscoelastic foam core has a post-drying measured water uptake of less than about 20% after a single wash and dry cycle; wherein the molded viscoelastic foam core is a solid, continuous piece of foam; and wherein an antimicrobial agent is incorporated into the molded viscoelastic foam core. a molded viscoelastic foam core wherein the molded viscoelastic foam core has a hydrophobicity defined by a measured water uptake between about 0% (w/w) and about 30% (w/w), an average cell size between about 0.16 mm and about 3 mm, and an air permeability between about 1.0 liters per second and about 6.0 liters per second; wherein the molded viscoelastic foam core has a post-drying measured water uptake of less than about 20% after a single wash and dry cycle; wherein the molded viscoelastic foam core is a solid, continuous piece of foam; and wherein an antimicrobial agent is incorporated into the molded viscoelastic foam core.
A method for wireless communication, comprising: receiving, at a user equipment, UE, a configuration message indicating a payload size configuration for machine type communication, MTC, physical uplink control channel, PUCCH, messages; generating an MTC PUCCH message based at least in part on the payload size configuration and a PUCCH format of MTC uplink control information for transmission by the UE, wherein the payload size configuration configures the MTC PUCCH message to include a plurality of reference signal resource elements, REs, and a plurality of data REs, and wherein the payload size configuration configures the UE to use a single sequence across a plurality of resource blocks, RBs, wherein the symbol periods occupied by the reference signal REs and the symbol periods occupied by the data REs are different; applying, for the UE, based on the payload size configuration, the sequence to the plurality of reference signal REs and the plurality of data REs in the plurality of RBs of the MTC PUCCH message, wherein the sequence is non-repeating in a frequency domain over the plurality of RBs; and transmitting the MTC PUCCH message over the plurality of RBs in the frequency domain. receiving, at a user equipment, UE, a configuration message indicating a payload size configuration for machine type communication, MTC, physical uplink control channel, PUCCH, messages; generating an MTC PUCCH message based at least in part on the payload size configuration and a PUCCH format of MTC uplink control information for transmission by the UE, wherein the payload size configuration configures the MTC PUCCH message to include a plurality of reference signal resource elements, REs, and a plurality of data REs, and wherein the payload size configuration configures the UE to use a single sequence across a plurality of resource blocks, RBs, wherein the symbol periods occupied by the reference signal REs and the symbol periods occupied by the data REs are different; applying, for the UE, based on the payload size configuration, the sequence to the plurality of reference signal REs and the plurality of data REs in the plurality of RBs of the MTC PUCCH message, wherein the sequence is non-repeating in a frequency domain over the plurality of RBs; and transmitting the MTC PUCCH message over the plurality of RBs in the frequency domain.
Self-locking lock actuated by a lever handle with a latch element and bolt, as well as a split cam assembly assigned to the door handle, which can be fixed by a spring in a basic position-middle position, and can be pivoted out of this position into opposing directions, wherein an actuator element is provided which fixes a drive rod (5, 6) or a drive rod thrust element, under the effect of a spring, in an opening position, and releases this rod or thrust element, with the door leaf in the closed position, for the purpose of displacing the spring, wherein the split cam assembly interacts with a deflection lever, which is coupled to the drive rod (5, 6) or drive rod thrust element, and wherein the latch is assigned to a thrust element, this exhibiting an engagement opening for a journal located at the latch, which, at least in the projecting position of the latch, is assigned to a guide contour of the thrust element, which, at the displacement of the thrust element, then causes the latch to retract, characterized in that the guide contour is a delimiting edge of the triangular engagement opening of the thrust element, the hypotenuse of which forms the guide contour and the shorter sides (27, 28) of which run along the displacement direction of the latch and transverse to it.
A photovoltaic system comprising a photovoltaic source comprising power-generating characteristics defined by a family of voltage-current curves (20, 22, 24, 26, 28) comprising points of maximum electrical power over a respective range of at least one of the following for the photovoltaic source: distinct illumination intensities and distinct temperatures; a resistive divider network (R 1, R 2) for sensing voltage from the photovoltaic source; a gain amplifier for receiving the sensed voltage (V sense) from the resistive divider network (R 1, R 2) and amplifying the sensed voltage (V sense) from the resistive divider network (R 1, R 2); a switching converter coupled to the photovoltaic source, wherein the switching converter comprises an input voltage-current curve having a predefined functional relationship between an input voltage and an input current, the input voltage-current curve comprising a cubic fit approximation with respect to at least some of the points of maximum electrical power for the photovoltaic source, the switching converter further comprising at least one switch and a pulse width modulator receiving the amplified sensed voltage (Vsense) from the gain amplifier to establish a directly proportional relationship between a duty cycle of the switching converter and the voltage from the photovoltaic source and for supplying gating signals to the at least one switch for operating the switching converter in a discontinuous conduction mode to establish a relationship between the input current of the switching converter, the input voltage of the switching converter, and a square of the duty cycle of the switching converter that is the cubic fit approximation of at least some of the points of maximum electrical power on the voltage-current curves without having to perform current and voltage calculations corresponding to a maximum power from the photovoltaic source.
Unvulcanized tyre blank for vulcanization in a vulcanizing press, comprising a tread, a tyre belt, a carcass, sidewalls and a tyre bead which comprises a tyre core and a bead filler, wherein the tread has a tread upper part and a tread lower part located areally therebelow in a radial direction, wherein the tread lower part has a radial lower part thickness, wherein the tread upper part has a radial upper part thickness, wherein the tread upper part has at least one profile groove and at least two profile blocks, wherein the profile groove separates the profile blocks from one another, characterized in that the radial lower part thickness of the tread lower part in the unvulcanized tyre blank varies in an axial direction and/or in a circumferential direction, wherein the tread lower part in the unvulcanized tyre blank has a greater radial lower part thickness at least in certain regions in the region below a profile block than in the region below a profile groove. wherein the tread has a tread upper part and a tread lower part located areally therebelow in a radial direction, wherein the tread lower part has a radial lower part thickness, wherein the tread upper part has a radial upper part thickness, wherein the tread upper part has at least one profile groove and at least two profile blocks, wherein the profile groove separates the profile blocks from one another, characterized in that the radial lower part thickness of the tread lower part in the unvulcanized tyre blank varies in an axial direction and/or in a circumferential direction, wherein the tread lower part in the unvulcanized tyre blank has a greater radial lower part thickness at least in certain regions in the region below a profile block than in the region below a profile groove.
A method of managing place data for a mobile device, the method comprising: storing all place data that describes a place for a plurality of places for all applications of the mobile device in a single centralized place data store in a memory of the mobile device, the single centralized place data store receiving all place data requests from all of the applications on the mobile device; in response to the place data requests from one or more of the applications on the mobile device, providing the place data from the single centralized place data store to the one or more applications requesting the place data, wherein the place data includes an expiry date specifying when the data will expire. storing all place data that describes a place for a plurality of places for all applications of the mobile device in a single centralized place data store in a memory of the mobile device, the single centralized place data store receiving all place data requests from all of the applications on the mobile device; in response to the place data requests from one or more of the applications on the mobile device, providing the place data from the single centralized place data store to the one or more applications requesting the place data, wherein the place data includes an expiry date specifying when the data will expire.
Electronic flush-mounted installation device (1, 2, 4, 7, 8) for determining and displaying hot water availability for at least one hot water tap, • having at least one capture interface or a bus connection, which can be connected to a network/bus system, for connecting at least one external sensor/capture device for capturing data which represent and influence the current hot water availability, • having a memory for storing hot water tap configuration data, hot water tap characteristics and predefinable threshold values, • having at least one control logic/evaluation/processing means (22, 27) for evaluating these obtained data and for determining information which is based thereon and is relevant to the current hot water availability, and • having a display unit for visualizing this information, the electronic flush-mounted installation device having • a division into an operating part, a frame and a flush-mounted unit (10, 11, 12, 13), which is separated therefrom and can be mounted in a flush-mounted socket, which are connected to one another by means of voltage interfaces and data interfaces, • at least one power supply unit (19, 26) for connecting an external voltage supply or a voltage supply via a bus voltage, and • at least one switching output in order to trigger external switching operations on the basis of the captured hot water availability. • having at least one capture interface or a bus connection, which can be connected to a network/bus system, for connecting at least one external sensor/capture device for capturing data which represent and influence the current hot water availability, • having a memory for storing hot water tap configuration data, hot water tap characteristics and predefinable threshold values, • having at least one control logic/evaluation/processing means (22, 27) for evaluating these obtained data and for determining information which is based thereon and is relevant to the current hot water availability, and • having a display unit for visualizing this information, the electronic flush-mounted installation device having • a division into an operating part, a frame and a flush-mounted unit (10, 11, 12, 13), which is separated therefrom and can be mounted in a flush-mounted socket, which are connected to one another by means of voltage interfaces and data interfaces, • at least one power supply unit (19, 26) for connecting an external voltage supply or a voltage supply via a bus voltage, and • at least one switching output in order to trigger external switching operations on the basis of the captured hot water availability.
Proceeding for the provision of embankment of areas and the formation of a barrier against chemicals, e.g. oil in water or solely water, by means of supports formed by folding corrugated sheet-metal plates or corrugated sheets of another material, e.g. plastic or aluminium, transversely to the longitudinal direction thereof and formed corrugations along cut-throughs of the sheet-metal plates so that sheet-metal plate portions (11, 12) extend at an angle to each other, and that said folded, provided barrier supports are placed on a substratum so that a folded portion of the respective sheet-metal plate forms a barrier support that is facing the intended damming area and which barrier supports laterally are formed of said plurality of folded, corrugated sheet-metal plates overlapping each other, the sheet-metal plates being folded in half and the folded sheet-metal plates being placed with the respective ends thereof resting on or urged down into the substratum along which they form a bank and coupling together of the sheet-metal plates for the formation of a barrier, characterized in that a loop of band is surrounding the barrier supports, and that posts adapted in shape to the corrugations are placed internally in ridges formed by side portions and top portion along said barrier supports before driving down the posts into the substratum.
A method of operating a tyre monitoring device associated with a vehicle, the tyre monitoring device comprising an indicator and a wireless communication interface, the method comprising: receiving an instruction to measure a tyre pressure via the wireless communication interface; measuring a tyre pressure; determining an error status of the tyre monitoring device; and responsive to a determination that the error status is not indicative of an error, activating the indicator to provide an indication based on the tyre pressure. receiving an instruction to measure a tyre pressure via the wireless communication interface; measuring a tyre pressure; determining an error status of the tyre monitoring device; and responsive to a determination that the error status is not indicative of an error, activating the indicator to provide an indication based on the tyre pressure.
A user equipment, UE, comprising: a control module configured to determine that one or more encoding symbols of a media file, downloaded using a Multimedia Broadcast Multicast Service, MBMS, bearer from a component of an Internet Protocol Multimedia Subsystem, IMS, network, cannot be decoded and a file repair procedure is required; and a transmission and reception module configured to: request the file repair procedure from the component of the IMS network using a Session Initiation Protocol re-invite request responsive to the control module determining that the file repair procedure is required; request a Hypertext Transfer Protocol, HTTP, connection with a HTTP server to re-download the one or more encoding symbols of the media that could not be decoded responsive to receiving a SIP acknowledgement indicating that the re-invite request was successful; and receive the one or more encoding symbols from the HTTP server. a control module configured to determine that one or more encoding symbols of a media file, downloaded using a Multimedia Broadcast Multicast Service, MBMS, bearer from a component of an Internet Protocol Multimedia Subsystem, IMS, network, cannot be decoded and a file repair procedure is required; and a transmission and reception module configured to: request the file repair procedure from the component of the IMS network using a Session Initiation Protocol re-invite request responsive to the control module determining that the file repair procedure is required; request a Hypertext Transfer Protocol, HTTP, connection with a HTTP server to re-download the one or more encoding symbols of the media that could not be decoded responsive to receiving a SIP acknowledgement indicating that the re-invite request was successful; and receive the one or more encoding symbols from the HTTP server. request the file repair procedure from the component of the IMS network using a Session Initiation Protocol re-invite request responsive to the control module determining that the file repair procedure is required; request a Hypertext Transfer Protocol, HTTP, connection with a HTTP server to re-download the one or more encoding symbols of the media that could not be decoded responsive to receiving a SIP acknowledgement indicating that the re-invite request was successful; and receive the one or more encoding symbols from the HTTP server.