mhurhangee/patent-ind-claim-en huggingface dataset:
A method of screening a plurality of agents for determining toxicity, said method comprising: a) providing a plurality of agents; b) providing a test aliquot of a sample of cells for each of the plurality of agents, wherein the sample of cells are non-cancerous cells previously obtained from a subject: c) separately contacting each test aliquot with its respective agent; d) providing a control aliquot of the sample of cells, wherein the control aliquot is not contacted with any of the plurality of agents; e) permeabilizing the cells in each aliquot; f) contacting the permeabilized cells with a pro-apoptotic Bcl-2 homology 3 (BH3) domain peptide; g) determining a value for percent BH3 domain peptide-induced mitochondrial outer membrane permeabilization (MOMP) in the cells in each of the test aliquots; h) determining a value for percent BH3 domain peptide-induced MOMP in the cells in the control aliquot; and i) determining a value for delta percent priming for each of the test aliquots, wherein delta percent priming is the difference between the value for percent MOMP determined in (g) and the value for percent MOMP determined in (h), wherein a delta percent priming of greater than 20 percent indicates that the agent with which the cells in the test aliquot were contacted is toxic to the cells. a) providing a plurality of agents; b) providing a test aliquot of a sample of cells for each of the plurality of agents, wherein the sample of cells are non-cancerous cells previously obtained from a subject: c) separately contacting each test aliquot with its respective agent; d) providing a control aliquot of the sample of cells, wherein the control aliquot is not contacted with any of the plurality of agents; e) permeabilizing the cells in each aliquot; f) contacting the permeabilized cells with a pro-apoptotic Bcl-2 homology 3 (BH3) domain peptide; g) determining a value for percent BH3 domain peptide-induced mitochondrial outer membrane permeabilization (MOMP) in the cells in each of the test aliquots; h) determining a value for percent BH3 domain peptide-induced MOMP in the cells in the control aliquot; and i) determining a value for delta percent priming for each of the test aliquots, wherein delta percent priming is the difference between the value for percent MOMP determined in (g) and the value for percent MOMP determined in (h), wherein a delta percent priming of greater than 20 percent indicates that the agent with which the cells in the test aliquot were contacted is toxic to the cells.
A method for obtaining location information by an electronic device including a first processor, being a low-power processor, operable at a first power level and a second processor operable at a second power level, the method comprising: receiving first location information of the electronic device from at least one first sensor functionally connected with the first processor, the at least one first sensor identifying the first location information based on signals received from external electronic devices; determining that reception of the first location information of the electronic device is failed; requesting location information to the second processor based on the determining that reception of the first location information is failed, wherein the second processor is in one of the deactivated state, a sleep mode or a low-power mode state to reduce power consumption; receiving second location information from at least one second sensor functionally connected with the second processor using the second processor; determining that the electronic device enters a geo-fence based on at least one of the first location information or the second location information; when it is determined that the electronic device enters the geo-fence using the first location information, determining that the geo-fence comprises an open zone; and when it is determined that the electronic device enters the geo-fence using the second location information, determining that the geo-fence comprises a shadow zone. receiving first location information of the electronic device from at least one first sensor functionally connected with the first processor, the at least one first sensor identifying the first location information based on signals received from external electronic devices; determining that reception of the first location information of the electronic device is failed; requesting location information to the second processor based on the determining that reception of the first location information is failed, wherein the second processor is in one of the deactivated state, a sleep mode or a low-power mode state to reduce power consumption; receiving second location information from at least one second sensor functionally connected with the second processor using the second processor; determining that the electronic device enters a geo-fence based on at least one of the first location information or the second location information; when it is determined that the electronic device enters the geo-fence using the first location information, determining that the geo-fence comprises an open zone; and when it is determined that the electronic device enters the geo-fence using the second location information, determining that the geo-fence comprises a shadow zone.
A lentiviral vector encoding: - at least one Hepatitis B virus (HBV) envelop surface of genotypes A and/or C antigen, - at least one polymerase of genotypes A and/or C antigen, - at least one HBX protein of genotypes A and/or C antigen, - at least one HBV consensus core of genotypes A and/or C antigen, and - at least one HBV consensus core MHCI and MHCII epitopes of genotypes A and/or C antigen, wherein the lentiviral vector encodes at least the amino acid sequence of SEQ ID NO:24 and at least the amino acid sequence of SEQ ID NO:25. - at least one Hepatitis B virus (HBV) envelop surface of genotypes A and/or C antigen, - at least one polymerase of genotypes A and/or C antigen, - at least one HBX protein of genotypes A and/or C antigen, - at least one HBV consensus core of genotypes A and/or C antigen, and - at least one HBV consensus core MHCI and MHCII epitopes of genotypes A and/or C antigen,
A computer-implemented method of rendering graphics in a computer device , comprising: receiving , at a graphics processing unit, GPU, a memory location address of a portion of a primitive to be rendered along with an indication of one or more values of one or more pixel shader parameters for the portion of the primitive, wherein the one or more pixel shader parameters include a shading rate or an indication of a stencil from a stencil buffer; selecting , by the GPU , multiple pixel shaders from a plurality of possible pixel shaders based on the indication of the one or more values of the one or more pixel shader parameters; and generating , by the GPU , multiple outputs of a render target of the portion of the primitive based on applying the pixel shader to the portion of the primitive ; Merging said multiple outputs to the at least one render target for rendering the portion of the primitive. receiving , at a graphics processing unit, GPU, a memory location address of a portion of a primitive to be rendered along with an indication of one or more values of one or more pixel shader parameters for the portion of the primitive, wherein the one or more pixel shader parameters include a shading rate or an indication of a stencil from a stencil buffer; selecting , by the GPU , multiple pixel shaders from a plurality of possible pixel shaders based on the indication of the one or more values of the one or more pixel shader parameters; and generating , by the GPU , multiple outputs of a render target of the portion of the primitive based on applying the pixel shader to the portion of the primitive ;
A rotor disk assembly for a gas turbine, comprising: a plurality of rotor disks axially assembled to each other, the plurality of rotor disks including adjacent rotor disks coupled to each other by Hirth parts , each rotor disk comprising: two labyrinth arms that extend axially and bilaterally and are located on the rotor disk more radially outward than the Hirth parts , characterized in that a first labyrinth arm of the two labyrinth arms having an end surface in which a receiving groove for receiving a seal ring is formed. two labyrinth arms that extend axially and bilaterally and are located on the rotor disk more radially outward than the Hirth parts , characterized in that a first labyrinth arm of the two labyrinth arms having an end surface in which a receiving groove for receiving a seal ring is formed.
Device for cleaning roofs comprising a ridge and two slopes on either side of the ridge , the device comprising: - a movable base parallel to the ridge , the movable base comprising at least one winch ; - a cleaning module suspended from the movable base through at least one line coupled to the winch , the cleaning module integrating at least one spray nozzle ; the movable base comprises an overlapping chassis intended to overlap the ridge , the overlapping chassis carrying first rolling means intended to be located on a first side of the ridge , and second rolling means intended to be located on a second side of the ridge , the winch being mounted on the overlapping chassis , characterised in that it comprises means for adjusting a separation of the first rolling means and the second rolling means relative to one another. - a movable base parallel to the ridge , the movable base comprising at least one winch ; - a cleaning module suspended from the movable base through at least one line coupled to the winch , the cleaning module integrating at least one spray nozzle ;
A system comprising: a fuel cell having a source of hydrogen and a source of oxygen containing gas; said source of hydrogen being connected for passage across said anode ; said source of oxygen containing gas being connected for passage across a cathode ; said fuel cell for producing electricity; a catalytic oxidizer for oxidizing hydrogen within said system; and a cooling water circuit for passing across passages in said fuel cell and for cooling said cathode , cooling water downstream of said cooling water passages passing across said catalytic oxidizer to heat said catalytic oxidizer , and characterized in that an accumulator receives a gas vent to vent gases from an environment receiving said system and passing said vented gases across said catalytic oxidizer for treatment. a fuel cell having a source of hydrogen and a source of oxygen containing gas; said source of hydrogen being connected for passage across said anode ; said source of oxygen containing gas being connected for passage across a cathode ; said fuel cell for producing electricity; a catalytic oxidizer for oxidizing hydrogen within said system; and a cooling water circuit for passing across passages in said fuel cell and for cooling said cathode , cooling water downstream of said cooling water passages passing across said catalytic oxidizer to heat said catalytic oxidizer , and characterized in that an accumulator receives a gas vent to vent gases from an environment receiving said system and passing said vented gases across said catalytic oxidizer for treatment.
Antenna having an antenna controller and a plurality of radiators, and having a plurality of functional elements, wherein the antenna controller comprises a configuration function which can be accessed via an external controller and via which at least one functional element can be deactivated and/or activated, characterised in that the configuration function is implemented via a configuration file which is stored in the antenna controller and can be changed by the external controller, wherein the configuration function comprises an authentication function which prevents unauthorised deactivation and/or activation of the functional elements.
A method for supporting a machine-to-machine communication over a mobile communication network , said machine-to-machine communication involving machine-to-machine devices suitable for being connected to the mobile communication network through a gateway comprising a transceiver module configured to connect to said mobile communication network over a radio link, said method comprising, by the gateway : a) determining whether a radio carrier is present over said radio link; b) in the absence of said radio carrier, switching off said transceiver module for a first time period; and c) after said first time period elapsed, switching on said transceiver module for a second time period, said method further comprising, after said second time period elapsed, repeating said steps a) to c), wherein said first time period and said second time period are determined by the gateway on the basis of a number of parameters whose value depend on at least one set of pre-determined values provided to the gateway by the mobile communication network , wherein said first time period is progressively increased, at each of said repetition of steps a) to c), based on a first parameter of said number of parameters and up to a pre-determined threshold value, and wherein said second time period is kept fixed to a pre-determined value of a second parameter of said number of parameters. a) determining whether a radio carrier is present over said radio link; b) in the absence of said radio carrier, switching off said transceiver module for a first time period; and c) after said first time period elapsed, switching on said transceiver module for a second time period, said method further comprising, after said second time period elapsed, repeating said steps a) to c), wherein said first time period and said second time period are determined by the gateway on the basis of a number of parameters whose value depend on at least one set of pre-determined values provided to the gateway by the mobile communication network , wherein said first time period is progressively increased, at each of said repetition of steps a) to c), based on a first parameter of said number of parameters and up to a pre-determined threshold value, and wherein said second time period is kept fixed to a pre-determined value of a second parameter of said number of parameters. said method further comprising, after said second time period elapsed, repeating said steps a) to c), wherein said first time period and said second time period are determined by the gateway on the basis of a number of parameters whose value depend on at least one set of pre-determined values provided to the gateway by the mobile communication network , wherein said first time period is progressively increased, at each of said repetition of steps a) to c), based on a first parameter of said number of parameters and up to a pre-determined threshold value, and wherein said second time period is kept fixed to a pre-determined value of a second parameter of said number of parameters.
A method for forming ceramic matrix composite (CMC) component, the method comprising: forming a fiber preform ; positioning the fiber preform into a chemical vapor infiltration reaction chamber ; and densifying the fiber preform , wherein densification comprises: infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component. forming a fiber preform ; positioning the fiber preform into a chemical vapor infiltration reaction chamber ; and densifying the fiber preform , wherein densification comprises: infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component. infiltrating the fiber preform with a first gas comprising precursors of silicon carbide; and characterized by infiltrating the fiber preform with a second gas comprising a first rare earth element; wherein the steps of infiltrating the fiber preform with the first gas and infiltrating the fiber preform with the second gas are conducted simultaneously to produce a first rare earth-doped silicon carbide matrix in a first region (86; 92, 96) of the component.
A kit, comprising: a flow cell, including: a substrate; a catalytic polymeric hydrogel on the substrate, the catalytic polymeric hydrogel including a deblocking catalyst selected from the group consisting of a phosphonic acid; a heterocyclic amine; an enzyme; a peptide; a DNAzyme; a metal of a metal-ligand complex; an organic catalyst selected from the group consisting of a urea, a thiourea, an imidazole, a guanidine, 1,8-Diazabicyclo(5.4.0)undec-7-ene, and combinations thereof; and an amplification primer attached to the catalytic polymeric hydrogel; wherein the catalyst accelerates cleavage of a blocking group of a 3' OH blocked nucleotide introduced to the flow cell and incorporated into a template strand attached to the amplification primer; and a cleavage mix including a component to initiate cleavage of the blocking group. a flow cell, including: a substrate; a catalytic polymeric hydrogel on the substrate, the catalytic polymeric hydrogel including a deblocking catalyst selected from the group consisting of a phosphonic acid; a heterocyclic amine; an enzyme; a peptide; a DNAzyme; a metal of a metal-ligand complex; an organic catalyst selected from the group consisting of a urea, a thiourea, an imidazole, a guanidine, 1,8-Diazabicyclo(5.4.0)undec-7-ene, and combinations thereof; and an amplification primer attached to the catalytic polymeric hydrogel; wherein the catalyst accelerates cleavage of a blocking group of a 3' OH blocked nucleotide introduced to the flow cell and incorporated into a template strand attached to the amplification primer; and a substrate; a catalytic polymeric hydrogel on the substrate, the catalytic polymeric hydrogel including a deblocking catalyst selected from the group consisting of a phosphonic acid; a heterocyclic amine; an enzyme; a peptide; a DNAzyme; a metal of a metal-ligand complex; an organic catalyst selected from the group consisting of a urea, a thiourea, an imidazole, a guanidine, 1,8-Diazabicyclo(5.4.0)undec-7-ene, and combinations thereof; and an amplification primer attached to the catalytic polymeric hydrogel; wherein the catalyst accelerates cleavage of a blocking group of a 3' OH blocked nucleotide introduced to the flow cell and incorporated into a template strand attached to the amplification primer; and a cleavage mix including a component to initiate cleavage of the blocking group.
A network bridge comprising a first network interface , configured to receive a first packet sent from a first apparatus connected to a first network , comprising: an IP address control unit , comprising: an address determination unit , configured to determine whether an IP address of the network bridge is in a destination IP address field of the first packet, wherein a domain of the first network is different from a domain of the network bridge ; and an address replacement unit , configured to replace an IP address of the first apparatus in a source IP address field of the first packet with a virtual IP address to obtain a replaced first packet only when the IP address of the network bridge is in the destination IP address field of the first packet, wherein the virtual IP address and the IP address of the network bridge belong to the same domain; and an application unit , configured to receive the replaced first packet from the IP address control unit and execute an application program according to the data in the replaced first packet. an address determination unit , configured to determine whether an IP address of the network bridge is in a destination IP address field of the first packet, wherein a domain of the first network is different from a domain of the network bridge ; and an address replacement unit , configured to replace an IP address of the first apparatus in a source IP address field of the first packet with a virtual IP address to obtain a replaced first packet only when the IP address of the network bridge is in the destination IP address field of the first packet, wherein the virtual IP address and the IP address of the network bridge belong to the same domain; and an application unit , configured to receive the replaced first packet from the IP address control unit and execute an application program according to the data in the replaced first packet.
An inductor core , comprising: a tubular magnetic material body formed of a magnetic material, comprising pores, the tubular magnetic material body comprising an inclined portion comprising an inclined surface which constitutes a peripheral surface of a truncated cone having an outer diameter that increases from one end toward the other end of the magnetic material body; and a straight trunk portion which is disposed coaxially with the inclined portion, comprises an outer peripheral surface which constitutes a peripheral surface of a cylindrical body extending from the other end toward the one end of the tubular magnetic material body, and is connected with the inclined portion , characterised in that a difference between an average value of distances between centers of gravity of the pores in the inclined portion and an average diameter of the pores in the inclined portion, being smaller than a difference between an average value of distances between centers of gravity of the pores in the straight trunk portion and an average diameter of the pores in the straight trunk portion. a tubular magnetic material body formed of a magnetic material, comprising pores, the tubular magnetic material body comprising an inclined portion comprising an inclined surface which constitutes a peripheral surface of a truncated cone having an outer diameter that increases from one end toward the other end of the magnetic material body; and a straight trunk portion which is disposed coaxially with the inclined portion, comprises an outer peripheral surface which constitutes a peripheral surface of a cylindrical body extending from the other end toward the one end of the tubular magnetic material body, and is connected with the inclined portion , characterised in that a difference between an average value of distances between centers of gravity of the pores in the inclined portion and an average diameter of the pores in the inclined portion, being smaller than a difference between an average value of distances between centers of gravity of the pores in the straight trunk portion and an average diameter of the pores in the straight trunk portion.
Apparatus (A) comprising workbench means , at least one operative head , a support structure for supporting said operative head guide means carried by said structure so as to allow said one operative head to slide with respect to said workbench means said workbench means having at least one flat surface ; a natural granite element (R), said natural granite element (R) being placed on said workbench means , a graduated glass plate (L), and an adhesive distributed on the whole upper surface of the granite element (R); said graduated glass plate (L) and said granite element (R) having almost identical thermal expansion coefficients, said glass plate (L) being adapted to be firmly coupled and fixed onto said granite element (R) by means of said adhesive, said graduated glass plate (L) partially overlapping with said granite element (R).