mhurhangee/patent-ind-claim-en huggingface dataset:
A gripping material for exhaust gas cleaner, comprising an alumina fiber aggregate comprising an alumina fiber having a mass ratio (A/C) of the content (A) of iron oxide as expressed in terms of ferric oxide to the content (C) of titanium oxide of 2 to 121; and a mass ratio (B/C) of the content (B) of calcium oxide to the content (C) of titanium oxide of 0.4 to 14, with a sum total of the content (A) of iron oxide, the content (B) of calcium oxide, and the content (C) of titanium oxide being 0.0170 to 0.1180% by mass and having a mullite ratio of 10% or less, wherein the mullite ratio is determined by a method of measurement as described in the description, and wherein the content of alumina in the alumina fiber in terms of a chemical composition is 63% by mass or more and less than 97% by mass.
A convertible furniture item , configured to be transformed from a chair into a sofa , and vice-versa, which furniture item comprises: ▪ a main supporting body having a bottom face apt to be rested on the floor and an inner room ; and ▪ a first and a second supplementary bodies, each of which rotatably connected to said main supporting body so that each of said first and second supplementary bodies can rotate of an angle (α) of about 180 degrees with respect to said main supporting body , wherein the arrangement is such that said furniture item can assume: - a first chair configuration, wherein said first and second supplementary bodies rest upon said main supporting body and define a chair sitting surface ; and - a second sofa configuration, wherein said first and second supplementary bodies are rotated outwardly of about 180 degrees with respect to said main supporting body and are arranged laterally adjacent to said main supporting body in such a way that said first and second supplementary bodies define part of an enlarged sofa sitting surface , wherein said first and second supplementary bodies are configured to be at least partially housed inside said inner room of said main supporting body in said first chair configuration. ▪ a main supporting body having a bottom face apt to be rested on the floor and an inner room ; and ▪ a first and a second supplementary bodies, each of which rotatably connected to said main supporting body so that each of said first and second supplementary bodies can rotate of an angle (α) of about 180 degrees with respect to said main supporting body , - a first chair configuration, wherein said first and second supplementary bodies rest upon said main supporting body and define a chair sitting surface ; and - a second sofa configuration, wherein said first and second supplementary bodies are rotated outwardly of about 180 degrees with respect to said main supporting body and are arranged laterally adjacent to said main supporting body in such a way that said first and second supplementary bodies define part of an enlarged sofa sitting surface ,
A detection method for branch states of a battery system, the battery system comprising a first terminal, a second terminal, at least one resistance connected between the first terminal and the second terminal, and a plurality of branches connected in parallel, each of the branches comprising at least one battery, the detection method comprising: obtaining a first open circuit voltage corresponding to each of the branches, characterized by : obtaining a second open circuit voltage corresponding to the battery system (S101), wherein the second open circuit voltage is obtained from the first terminal and the second terminal, two terminals of the at least one resistance, or two terminals of an external equivalent capacitance of the battery system; and judging a current on/off state of each corresponding branch according to the first open circuit voltage and the second open circuit voltage (S102). obtaining a first open circuit voltage corresponding to each of the branches, characterized by : obtaining a second open circuit voltage corresponding to the battery system (S101), wherein the second open circuit voltage is obtained from the first terminal and the second terminal, two terminals of the at least one resistance, or two terminals of an external equivalent capacitance of the battery system; and judging a current on/off state of each corresponding branch according to the first open circuit voltage and the second open circuit voltage (S102). obtaining a second open circuit voltage corresponding to the battery system (S101), wherein the second open circuit voltage is obtained from the first terminal and the second terminal, two terminals of the at least one resistance, or two terminals of an external equivalent capacitance of the battery system; and judging a current on/off state of each corresponding branch according to the first open circuit voltage and the second open circuit voltage (S102).
A method of detecting an object using a radar system, the method comprising: generating a transmission signal by: generating a carrier signal; and digitally modulating the carrier signal with a transmission modulation signal; transmitting the transmission signal ; receiving a reflected signal, the reflected signal having been reflected from the object ; demodulating the reflected signal to extract a received modulation signal ; correlating the received modulation signal with the transmission modulation signal ; and determining a range of the object from the correlation of the received modulation signal and the transmission modulation signal , wherein the transmission modulation signal is selected from a set of orthogonal modulation signals. generating a transmission signal by: generating a carrier signal; and digitally modulating the carrier signal with a transmission modulation signal; generating a carrier signal; and digitally modulating the carrier signal with a transmission modulation signal; transmitting the transmission signal ; receiving a reflected signal, the reflected signal having been reflected from the object ; demodulating the reflected signal to extract a received modulation signal ; correlating the received modulation signal with the transmission modulation signal ; and determining a range of the object from the correlation of the received modulation signal and the transmission modulation signal , wherein the transmission modulation signal is selected from a set of orthogonal modulation signals.
A cell handover method, comprising: sending , by a first network device, a handover request to a second network device, wherein the handover request comprises conditional handover indication information and duration suggestion information for a first timer; receiving , by the first network device, a handover command sent by the second network device, wherein the handover command comprises configuration information used for handover of a terminal device and a duration of the first timer configured by the second network device according to the conditional handover indication information and the duration suggestion information of the first timer, wherein when the first timer expires, the configuration information in the handover command becomes invalid, and the terminal device cannot initiate a handover to the second network device according to the configuration information; sending , by the first network device, to the terminal device, the handover command and a condition set by the first network device for the terminal device to initiate handover to the second network device. sending , by a first network device, a handover request to a second network device, wherein the handover request comprises conditional handover indication information and duration suggestion information for a first timer; receiving , by the first network device, a handover command sent by the second network device, wherein the handover command comprises configuration information used for handover of a terminal device and a duration of the first timer configured by the second network device according to the conditional handover indication information and the duration suggestion information of the first timer, wherein when the first timer expires, the configuration information in the handover command becomes invalid, and the terminal device cannot initiate a handover to the second network device according to the configuration information; sending , by the first network device, to the terminal device, the handover command and a condition set by the first network device for the terminal device to initiate handover to the second network device.
A method of wireless communication via narrowband internet of things, NB IOT, by a user equipment, UE comprising: camping on a licensed carrier in the licensed spectrum in an RRC connected mode; performing a synchronization with a base station via a licensed spectrum; receiving hopping pattern information of a plurality of NB IOT hopping carriers in the unlicensed spectrum; tuning to an NB IOT carrier operating in the unlicensed spectrum to communicate uplink data using the NB IOT carrier in the unlicensed spectrum, wherein the tuning to the NB IOT carrier is based on the hopping pattern information and wherein the hopping pattern information includes at least one of: a number of the plurality of NB IOT hopping carriers, information for generating a hopping pattern, subframe number to start hopping, dwell time information per channel, or power restraints on the unlicensed carrier; communicating with the base station based on the synchronization in the licensed spectrum and on the tuning to an NB IOT carrier in the unlicensed spectrum, wherein downlink data is communicated in the licensed spectrum and uplink data is communicated in the NB IOT carrier that is operating in the unlicensed spectrum using the hopping pattern. camping on a licensed carrier in the licensed spectrum in an RRC connected mode; performing a synchronization with a base station via a licensed spectrum; receiving hopping pattern information of a plurality of NB IOT hopping carriers in the unlicensed spectrum; tuning to an NB IOT carrier operating in the unlicensed spectrum to communicate uplink data using the NB IOT carrier in the unlicensed spectrum, wherein the tuning to the NB IOT carrier is based on the hopping pattern information and wherein the hopping pattern information includes at least one of: a number of the plurality of NB IOT hopping carriers, information for generating a hopping pattern, subframe number to start hopping, dwell time information per channel, or power restraints on the unlicensed carrier; communicating with the base station based on the synchronization in the licensed spectrum and on the tuning to an NB IOT carrier in the unlicensed spectrum, wherein downlink data is communicated in the licensed spectrum and uplink data is communicated in the NB IOT carrier that is operating in the unlicensed spectrum using the hopping pattern.
A method of constructing a large flat panel , the method comprising: producing a first subpanel of a thermoplastic with carbon fiber reinforcement; constructing a first machined surface along an edge of the first subpanel ; producing a second subpanel of a thermoplastic with carbon fiber reinforcement; constructing a second machined surface along an edge of the second subpanel ; positioning the first machined surface on the first subpanel oppositely against the second machined surface on the second subpanel , wherein the first machined surface and the second machined surface are complementary scarf surfaces that engage in surface contact with each other; heating, after positioning, the first machined surface and the second machined surface and applying pressure thereto; and, cooling the first machined surface and the second machined surface ; wherein a full melt bond and a co-consolidation between the engaging first machined surface and the second machined surface is produced by the heating of the engaging first machined surface and the second machined surface and the pressure applied thereto. producing a first subpanel of a thermoplastic with carbon fiber reinforcement; constructing a first machined surface along an edge of the first subpanel ; producing a second subpanel of a thermoplastic with carbon fiber reinforcement; constructing a second machined surface along an edge of the second subpanel ; positioning the first machined surface on the first subpanel oppositely against the second machined surface on the second subpanel , wherein the first machined surface and the second machined surface are complementary scarf surfaces that engage in surface contact with each other; heating, after positioning, the first machined surface and the second machined surface and applying pressure thereto; and, cooling the first machined surface and the second machined surface ; wherein a full melt bond and a co-consolidation between the engaging first machined surface and the second machined surface is produced by the heating of the engaging first machined surface and the second machined surface and the pressure applied thereto.
A method for manufacturing a colored sheet for coloring an object by adhesion to the object, the method comprising: a coloring step of applying by spraying, a first coating fluid containing first microparticles for coloring to a thin film of a print receiver body which has a sheet-shaped support body and the thin film , the thin film being peelably held on the sheet-shaped support body to serve as a base material of an adhesive sheet which is to be adhered to the object; and a restricting step of applying by spraying, before the coloring step, a second coating fluid for restricting the first microparticles from penetrating the thin film to a location where the first coating fluid is to be applied. a coloring step of applying by spraying, a first coating fluid containing first microparticles for coloring to a thin film of a print receiver body which has a sheet-shaped support body and the thin film , the thin film being peelably held on the sheet-shaped support body to serve as a base material of an adhesive sheet which is to be adhered to the object; and a restricting step of applying by spraying, before the coloring step, a second coating fluid for restricting the first microparticles from penetrating the thin film to a location where the first coating fluid is to be applied.
A system for the control of a medical implant in a mammal body , the system comprising a first and a second part being adapted for communication with each other, in which system: the first part is adapted for implantation in the mammal body for the control of and communication with the medical implant , an internal control unit for controlling the first part, and the second part is adapted to be worn on the outside of the mammal body and adapted to receive control commands from a user and to transmit these commands to the first part , characterised in that : the second part is adapted to receive and recognize the control commands from a user as voice commands and is adapted to transform recognized voice commands into signals which are transmitted to the first part , the first part is adapted to convey such signals to the implant , the voice commands comprise a complex of different frequencies translated into one fixed defined output command, and wherein wherein the system further comprises a wireless remote control for transmitting control signals to the internal control unit for controlling the first part . the first part is adapted for implantation in the mammal body for the control of and communication with the medical implant , an internal control unit for controlling the first part, and the second part is adapted to be worn on the outside of the mammal body and adapted to receive control commands from a user and to transmit these commands to the first part , characterised in that : the second part is adapted to receive and recognize the control commands from a user as voice commands and is adapted to transform recognized voice commands into signals which are transmitted to the first part , the first part is adapted to convey such signals to the implant , the voice commands comprise a complex of different frequencies translated into one fixed defined output command, and wherein wherein the system further comprises a wireless remote control for transmitting control signals to the internal control unit for controlling the first part . the second part is adapted to receive and recognize the control commands from a user as voice commands and is adapted to transform recognized voice commands into signals which are transmitted to the first part , the first part is adapted to convey such signals to the implant , the voice commands comprise a complex of different frequencies translated into one fixed defined output command, and wherein wherein the system further comprises a wireless remote control for transmitting control signals to the internal control unit for controlling the first part .
A method for identifying a compound that stimulates beta cell differentiation, proliferation and/or expansion, by determining the ability of said compound to induce the glucocorticoid receptor dependent-transactivation pathway in said beta cells, wherein a compound that is capable of inducing the glucocorticoid receptor-dependent transactivation pathway, is identified as a compound that stimulates beta cell differentiation, proliferation and/or expansion.
A reconfigurable optical add/drop multiplexer (ROADM) comprising: a plurality of interconnected ROADM blocks , each ROADM block including an egress switchable-gain amplifier , an output power detector coupled to an output of the egress switchable gain amplifier, and a wavelength-selective switch coupled to an input of the egress switchable gain amplifier; a plurality of noise loading amplifiers, each noise loading amplifier coupled to a port of the wavelength-selective switch; a plurality of add/drop blocks coupled to the wavelength-selective switches of the plurality of ROADM blocks; and a controller configured to: activate each noise loading amplifier that is coupled to an unused port of the wavelength-selective switch; receive an indication of an output signal power from the output power detector; and adjust gain and equalization parameters of the ingress switchable-gain amplifier based on the received indication of the output signal power. a plurality of interconnected ROADM blocks , each ROADM block including an egress switchable-gain amplifier , an output power detector coupled to an output of the egress switchable gain amplifier, and a wavelength-selective switch coupled to an input of the egress switchable gain amplifier; a plurality of noise loading amplifiers, each noise loading amplifier coupled to a port of the wavelength-selective switch; a plurality of add/drop blocks coupled to the wavelength-selective switches of the plurality of ROADM blocks; and a controller configured to: activate each noise loading amplifier that is coupled to an unused port of the wavelength-selective switch; receive an indication of an output signal power from the output power detector; and adjust gain and equalization parameters of the ingress switchable-gain amplifier based on the received indication of the output signal power. activate each noise loading amplifier that is coupled to an unused port of the wavelength-selective switch; receive an indication of an output signal power from the output power detector; and adjust gain and equalization parameters of the ingress switchable-gain amplifier based on the received indication of the output signal power.
A traverse for turning a load , consisting of a drive element with at least one rotatably mounted, radially symmetrical rotation body and at least one continuous loop element receiving the load , wherein the at least one loop element runs via at least one rotation body and is driven thereby and the load , due to its own weight, rests in the at least one loop element and handling of the load can be carried out due to a rotational movement of the rotation body , characterized in that the inner surface of the loop element has elevations which are arranged substantially angularly to the long side of the loop element and which run across the entire width of the inner surface of the loop element , and in that the elevations extend radially, undulatingly, and/or curvilinearly across the entire width of the inner surface of the loop element .
A thermoplastic composition comprising: a polycarbonate; an infrared (IR) reflective additive; and an epoxy-functional silicone, wherein the infrared reflective additive is an interference pigment that comprises a mica substrate that is coated with titanium dioxide, wherein the composition exhibits a reduced melt flow change over a comparable compound not containing an epoxy-functional silicone, measured as indicated in the description. a polycarbonate; an infrared (IR) reflective additive; and an epoxy-functional silicone, wherein the infrared reflective additive is an interference pigment that comprises a mica substrate that is coated with titanium dioxide, wherein the composition exhibits a reduced melt flow change over a comparable compound not containing an epoxy-functional silicone, measured as indicated in the description.
A memory device for data storage , the memory device comprising: a non-volatile memory ; an energy store coupled to the non-volatile memory; and a power management module configured to provide read access to the non-volatile memory in response to (406, Yes; 502) the energy store being charged to an amount that is at least of a first predetermined level , and to provide write access to the non-volatile memory in response to (414, Yes; 506) the energy store being charged to an amount that is at least of a second predetermined level that is greater than the first predetermined level. a non-volatile memory ; an energy store coupled to the non-volatile memory; and a power management module configured to provide read access to the non-volatile memory in response to (406, Yes; 502) the energy store being charged to an amount that is at least of a first predetermined level , and to provide write access to the non-volatile memory in response to (414, Yes; 506) the energy store being charged to an amount that is at least of a second predetermined level that is greater than the first predetermined level.
Household appliance with a base body , wherein the base body has a base body opening , and an appliance door for closing off the base body opening , wherein the appliance door has a plastic window ring for holding a window and a door hinge for holding the appliance door on the base body , wherein the window ring has a first receiving element and a second receiving element for receiving the door hinge , and wherein the door hinge has a first insertion element which can be inserted into the first receiving element and a second insertion element which can be inserted into the second receiving element in order to fasten the door hinge to the window ring , wherein the first insertion element of the door hinge has a first centring pin , and wherein the second insertion element of the door hinge has a second centring pin , wherein the first centring pin can be inserted into a first centring opening of the first receiving element , and wherein the second centring pin can be inserted into a second centring opening of the second receiving element in order to position the door hinge on the window ring in a centring position, characterised in that the first and second insertion element can be transferred into a fixing position from the centring position by a movement of the door hinge in a fixing direction in order to fasten the door hinge to the window ring in the fixing position, wherein the fixing direction extends radially from a centre of the appliance door towards the edge of the appliance door .