mhurhangee/ep-ind-claims huggingface dataset:
An in vitro method of predicting a human subject's likely response to an antipsychotic medication, said medication being selected from olanzapine, risperidone, quetiapine, perphenazine, or ziprasidone, the method comprising: obtaining a test haplotype for the subject by determining the genotype for at least one test marker in the PCDH15 gene selected from the group consisting of: rs 10825114, rs11003868, rs4519000, rs10825150, rs2921922, rs10825169, rs1900438, rs2135720, rs3812658, rs11004028, rs17644321, rs4403715, rs7093302, rs4935502, rs10825269, rs721825, rs857395, rs2153822, rs1112065 rs10825347, rs11004439, rs10825113, and a marker that is between the delimiting markers rs10825113 to rs11004582 and that is in linkage disequilibrium with a marker selected from group consisting of rs10825114, rs11003868, rs4519000, rs10825150, rs2921922, rs10825169, rs1900438, rs2135720, rs3812658, rs11004028, rs17644321, rs4403715, rs7093302, rs4935502, rs10825269, rs721825, rs857395, rs2153822, rs1112065, rs10825347, rs11004439, and rs10825113, wherein the test haplotype indicates the subject's likely response to treatment with olanzapine, risperidone, quetiapine, perphenazine, or ziprasidone. obtaining a test haplotype for the subject by determining the genotype for at least one test marker in the PCDH15 gene selected from the group consisting of: rs 10825114, rs11003868, rs4519000, rs10825150, rs2921922, rs10825169, rs1900438, rs2135720, rs3812658, rs11004028, rs17644321, rs4403715, rs7093302, rs4935502, rs10825269, rs721825, rs857395, rs2153822, rs1112065 rs10825347, rs11004439, rs10825113, and a marker that is between the delimiting markers rs10825113 to rs11004582 and that is in linkage disequilibrium with a marker selected from group consisting of rs10825114, rs11003868, rs4519000, rs10825150, rs2921922, rs10825169, rs1900438, rs2135720, rs3812658, rs11004028, rs17644321, rs4403715, rs7093302, rs4935502, rs10825269, rs721825, rs857395, rs2153822, rs1112065, rs10825347, rs11004439, and rs10825113, wherein the test haplotype indicates the subject's likely response to treatment with olanzapine, risperidone, quetiapine, perphenazine, or ziprasidone.
A container refrigeration unit to be attached to a container body, said unit comprising: a protruding portion for protruding towards an internal side of the container body, said protruding portion being formed in a lower portion of a casing body partitioning the container into an internal side and an external side, characterized in that the container refrigeration unit comprises: stays each extending in a vertical direction mounted on both sides of a rear surface of the protruding portion; side frames mounted on both sides of an upper portion of a rear surface of the casing body each located above the protruding portion and extending from the casing body to a top end of a stay; wherein the side frame and the stay are coupled to each other, and the bottom tip of the side frame and the top end of the stay are fixed by a fixing member, thereby coupling the side frame to the stay. stays each extending in a vertical direction mounted on both sides of a rear surface of the protruding portion; side frames mounted on both sides of an upper portion of a rear surface of the casing body each located above the protruding portion and extending from the casing body to a top end of a stay; wherein the side frame and the stay are coupled to each other, and the bottom tip of the side frame and the top end of the stay are fixed by a fixing member, thereby coupling the side frame to the stay.
An automatic steering device, comprising: an acquiring module configured to acquire a traveling state including a heading or a position of a ship, and ship information on the ship, wherein the ship information is a rudder angle of the ship; a first evaluating module configured to calculate a first evaluation value (Eψ) that is an evaluation value indicative of a performance for maintaining the heading of the ship or a route based on the traveling state; a second evaluating module configured to calculate a second evaluation value (Eδ) that is an evaluation value related to a ship handling control based on the ship information, wherein the second evaluation value (Eδ) is an evaluation value of a steering amount, and wherein the second evaluating module calculates the second evaluation value (Eδ) based on an average value of absolute values of the rudder angle measured in a given period of time; and a control parameter setting module configured to set a control parameter related to a motion control of the ship based on the first evaluation value (Eψ) or the second evaluation value (Eδ). an acquiring module configured to acquire a traveling state including a heading or a position of a ship, and ship information on the ship, wherein the ship information is a rudder angle of the ship; a first evaluating module configured to calculate a first evaluation value (Eψ) that is an evaluation value indicative of a performance for maintaining the heading of the ship or a route based on the traveling state; a second evaluating module configured to calculate a second evaluation value (Eδ) that is an evaluation value related to a ship handling control based on the ship information, wherein the second evaluation value (Eδ) is an evaluation value of a steering amount, and wherein the second evaluating module calculates the second evaluation value (Eδ) based on an average value of absolute values of the rudder angle measured in a given period of time; and a control parameter setting module configured to set a control parameter related to a motion control of the ship based on the first evaluation value (Eψ) or the second evaluation value (Eδ).
A method to determine a Carrier Phase Recovery Loop, CPRL, bandwidth, the method comprising: transmitting a modulated signal; receiving the modulated signal; demodulating the received modulated signal, comprising: detecting an input signal using a Phase-Locked Loop, PLL, of an adaptive CPRL and generating a signal locked to the phase of the input signal; determining a Signal to Noise Ratio, SNR, of the input signal; selecting the output of a CPRL from a plurality of CPRLs (40,80) based on whether the determined SNR is above or below an SNR threshold; receiving, by a Minimum Mean Square Error, MMSE, module, as an input phase error vectors based on a phase component of a reference signal provided to the plurality of CPRLs and a phase component of the detected input signal, the phase error vectors defining a mean squared error; selecting, by the MMSE module, an MMSE algorithm from among a plurality of MMSE algorithms depending on which CPRL the output was selected from; processing the output of the selected CPRL by the MMSE module using the selected MMSE algorithm to determine a CPRL bandwidth using the mean-squared error. transmitting a modulated signal; receiving the modulated signal; demodulating the received modulated signal, comprising: detecting an input signal using a Phase-Locked Loop, PLL, of an adaptive CPRL and generating a signal locked to the phase of the input signal; determining a Signal to Noise Ratio, SNR, of the input signal; selecting the output of a CPRL from a plurality of CPRLs (40,80) based on whether the determined SNR is above or below an SNR threshold; receiving, by a Minimum Mean Square Error, MMSE, module, as an input phase error vectors based on a phase component of a reference signal provided to the plurality of CPRLs and a phase component of the detected input signal, the phase error vectors defining a mean squared error; selecting, by the MMSE module, an MMSE algorithm from among a plurality of MMSE algorithms depending on which CPRL the output was selected from; processing the output of the selected CPRL by the MMSE module using the selected MMSE algorithm to determine a CPRL bandwidth using the mean-squared error. detecting an input signal using a Phase-Locked Loop, PLL, of an adaptive CPRL and generating a signal locked to the phase of the input signal; determining a Signal to Noise Ratio, SNR, of the input signal; selecting the output of a CPRL from a plurality of CPRLs (40,80) based on whether the determined SNR is above or below an SNR threshold; receiving, by a Minimum Mean Square Error, MMSE, module, as an input phase error vectors based on a phase component of a reference signal provided to the plurality of CPRLs and a phase component of the detected input signal, the phase error vectors defining a mean squared error; selecting, by the MMSE module, an MMSE algorithm from among a plurality of MMSE algorithms depending on which CPRL the output was selected from; processing the output of the selected CPRL by the MMSE module using the selected MMSE algorithm to determine a CPRL bandwidth using the mean-squared error.
A method for determining the relative coupling between a first and a second relatively movable tuned circuits of similar resonant frequencies by exciting the first tuned circuit at or close to its resonant frequency and detecting or measuring differences between the way that the amplitude of the oscillation in the excited first tuned circuit varies with time and the way that the amplitude would vary with time if there were no coupling between the first and second tuned circuits, wherein coupling is detected by sampling the amplitude of the oscillation at at least two successive times following a perturbation in the excitation signal applied to the first tuned circuit.
An actuating system in combination with a plurality of pipettes of the type comprising a dispensing portion and a bellows portion; the actuating system comprising: means for receiving a plurality of pipettes; and an actuator; wherein the receiving means and the actuator are movable in a reciprocating manner relative to one another to compress or decompress the bellows portions of pipettes received in the receiving means, characterised in that the receiving means comprises a plurality of pipette receiving parts (38, 40) arranged to resiliently clamp around respective ones of the pipettes to mount the pipettes to the receiving means, wherein the pipette receiving parts are in the form of clips, wherein each of said plurality of pipettes is a multi-piece pipette, having a bellows piece comprising said bellows portion and a separate dispensing piece comprising said dispensing portion, wherein the dispensing piece and bellows piece comprise respective connecting portions (9, 11) which co-operate with one another to provide a detachable attachment between the dispensing piece and the bellows piece, whereby the bellows piece and dispensing piece of the pipette may be detached and re-attached to one another by a user to disassemble or assemble the pipette.
Potting soil, comprising a phosphate containing fertilizer, wherein a part of the phosphate is present as orthophosphate and a part as polyphosphate, wherein the weight ratio of polyphosphate to orthophosphate (expressed as P 2 O 5) is in the range of 1:9 to 9:1, wherein the polyphosphate has a number average of phosphate units per molecule of 3 or more and at most of 400, and wherein the total phosphate content expressed as P 2 O 5 (orthophosphate and polyphosphate) is in the range of 0.02 - 0.52 kg/m3 of potting soil, and wherein the vegetable component in the potting soil comprises at least 40 vol.% of the solids in the potting soil.
A method performed by a filter appliance comprising: receiving a DNS query from an electronic device, the DNS query including a reference to a network domain that cannot be uniquely identified because the network domain is associated with (i) an IP address that is shared with another network domain, and (ii) with a SSL certificate that is shared with another network domain; remapping the network domain to an IP address having a unique identity of the network domain, wherein the IP address that has the unique identity of the network domain is generated by the filter appliance in reference to an Internal DNS Server 120 that is accessible only within the local subnet of the electronic device, such that the IP address that has the unique identity of the network domain is not a publicly known IP address of the network domain; providing, to the electronic device in a response to the DNS query, the IP address that has the unique identity of the network domain; receiving a second communication from the electronic device, the second communication including the IP address that has the unique identity of the network domain; comparing the IP address that has the unique identity of the network domain to a database of blocked IP addresses for the electronic device; and in response to determining that the IP address that has the unique identity of the network domain is not blocked for the electronic device, forwarding the second communication to the IP address that has the unique identity of the network domain. receiving a DNS query from an electronic device, the DNS query including a reference to a network domain that cannot be uniquely identified because the network domain is associated with (i) an IP address that is shared with another network domain, and (ii) with a SSL certificate that is shared with another network domain; remapping the network domain to an IP address having a unique identity of the network domain, wherein the IP address that has the unique identity of the network domain is generated by the filter appliance in reference to an Internal DNS Server 120 that is accessible only within the local subnet of the electronic device, such that the IP address that has the unique identity of the network domain is not a publicly known IP address of the network domain; providing, to the electronic device in a response to the DNS query, the IP address that has the unique identity of the network domain; receiving a second communication from the electronic device, the second communication including the IP address that has the unique identity of the network domain; comparing the IP address that has the unique identity of the network domain to a database of blocked IP addresses for the electronic device; and in response to determining that the IP address that has the unique identity of the network domain is not blocked for the electronic device, forwarding the second communication to the IP address that has the unique identity of the network domain.
A gas turbine blade assemblage comprising: a gas turbine engine blade, comprising: a dovetail; a shank extending from the dovetail; an airfoil; and a platform between the shank and the airfoil, the platform comprising a sidewall extending between an upstream side and a downstream side of the platform, wherein a first pin channel extends from the upstream side of the sidewall and a second pin channel, co-axial with the first pin channel, extends from the downstream side of the sidewall, wherein the first channel includes a radial notch at the upstream longitudinal end of the first pin channel; and a pin (14; 75; 90) that is disposed within the first and second damper pin channels (54, 56); characterised in that: the pin (14; 75; 90) includes a radial projection that seats within the notch. a gas turbine engine blade, comprising: a dovetail; a shank extending from the dovetail; an airfoil; and a platform between the shank and the airfoil, the platform comprising a sidewall extending between an upstream side and a downstream side of the platform, wherein a first pin channel extends from the upstream side of the sidewall and a second pin channel, co-axial with the first pin channel, extends from the downstream side of the sidewall, wherein the first channel includes a radial notch at the upstream longitudinal end of the first pin channel; and a pin (14; 75; 90) that is disposed within the first and second damper pin channels (54, 56); characterised in that: the pin (14; 75; 90) includes a radial projection that seats within the notch. a dovetail; a shank extending from the dovetail; an airfoil; and a platform between the shank and the airfoil, the platform comprising a sidewall extending between an upstream side and a downstream side of the platform, wherein a first pin channel extends from the upstream side of the sidewall and a second pin channel, co-axial with the first pin channel, extends from the downstream side of the sidewall, wherein the first channel includes a radial notch at the upstream longitudinal end of the first pin channel; and a pin (14; 75; 90) that is disposed within the first and second damper pin channels (54, 56); characterised in that: the pin (14; 75; 90) includes a radial projection that seats within the notch.
An annular combustion chamber wall arrangement comprises an annular wall, the annular wall has a first surface and a second surface, the wall has a plurality of pedestals extending away from the first surface and/or a plurality of effusion cooling apertures extending through the annular wall from the first surface to the second surface, the annular wall has the pedestals and/or the effusion cooling apertures arranged in a predetermined pattern (100, 200), characterised in that the pedestals or the effusion cooling apertures are arranged on Fermat's spiral (110, 210), in which the pedestals or effusion cooling apertures are arranged with Fibonacci number ordering, the predetermined pattern (100, 200) provides the annular wall with a substantially uniform stiffness in all directions, the annular wall has the pedestals or the effusion cooling apertures arranged such that there are no direct lines across the first surface of the annular wall without at least one pedestal or at least one effusion cooling aperture.
A compressible adjunct for use with a staple cartridge (40, 66, 102), the compressible adjunct comprising: a non-fibrous adjunct material formed of at least one fused bioabsorbable polymer and configured to be releasably retained on a staple cartridge (40, 66, 102) and configured to be delivered to tissue by deployment of staples in the cartridge (40, 66, 102), the adjunct material comprising a lattice macrostructure having a plurality of drug delivery microstructures formed in the lattice macrostructure, each drug delivery microstructure having drug disposed therein, wherein the plurality of drug delivery microstructures are configured to encapsulate the drug to thereby prevent drug release until the plurality of drug delivery microstructures are ruptured; characterized in that the plurality of drug delivery microstructures are configured to thermally rupture while the adjunct material is stapled to tissue, in response to an increase in temperature or when the adjunct material is at or above an activation temperature. a non-fibrous adjunct material formed of at least one fused bioabsorbable polymer and configured to be releasably retained on a staple cartridge (40, 66, 102) and configured to be delivered to tissue by deployment of staples in the cartridge (40, 66, 102), the adjunct material comprising a lattice macrostructure having a plurality of drug delivery microstructures formed in the lattice macrostructure, each drug delivery microstructure having drug disposed therein, wherein the plurality of drug delivery microstructures are configured to encapsulate the drug to thereby prevent drug release until the plurality of drug delivery microstructures are ruptured; characterized in that the plurality of drug delivery microstructures are configured to thermally rupture while the adjunct material is stapled to tissue, in response to an increase in temperature or when the adjunct material is at or above an activation temperature.
A strain of Escherichia sp., capable of producing O-acetyl homoserine in high yield, with overexpression of genes encoding homoserine acetyl transferase, aspartokinase, homoserine dehydrogenase, phosphoenolpyruvate carboxylase, aspartate aminotransferase and aspartate semi-aldehyde dehydrogenase, wherein the strain of Escherichia sp. is further characterized by the deletion of me tB, thrB, metJ and metA genes.
A fungicidal composition, comprising active components A and B, wherein the active component A is benzisothiazolinone, the active component B is flutriafol, and wherein the weight ratio of the active component A to the active component B is 1:20-20:1.
A method for manufacturing a housing assembly for an electronics enabled eyewear device, the method comprising: forming a button insert in a co-molding operation that comprises: molding a button frame that defines an access opening extending therethrough, the button frame being of a substantially rigid plastics material; overmolding a button membrane onto the button frame, the button membrane covering at least part of the access opening through the button frame, the button membrane being of a resiliently flexible material; bonding a hard island to the button membrane to be displaceable relative to the button frame responsive to resilient deformation of the button membrane, the hard island being of a substantially rigid plastics material, and overmolding a housing for electronics components on to the button insert such that the housing is bonded to the button frame, with the button membrane being located in a button aperture defined by the housing, the button aperture being closed off by the button insert and the hard island being located in register with the button aperture defined by the housing. forming a button insert in a co-molding operation that comprises: molding a button frame that defines an access opening extending therethrough, the button frame being of a substantially rigid plastics material; overmolding a button membrane onto the button frame, the button membrane covering at least part of the access opening through the button frame, the button membrane being of a resiliently flexible material; bonding a hard island to the button membrane to be displaceable relative to the button frame responsive to resilient deformation of the button membrane, the hard island being of a substantially rigid plastics material, and molding a button frame that defines an access opening extending therethrough, the button frame being of a substantially rigid plastics material; overmolding a button membrane onto the button frame, the button membrane covering at least part of the access opening through the button frame, the button membrane being of a resiliently flexible material; bonding a hard island to the button membrane to be displaceable relative to the button frame responsive to resilient deformation of the button membrane, the hard island being of a substantially rigid plastics material, and overmolding a housing for electronics components on to the button insert such that the housing is bonded to the button frame, with the button membrane being located in a button aperture defined by the housing, the button aperture being closed off by the button insert and the hard island being located in register with the button aperture defined by the housing.
A process for oxidation of SO 2 to SO 3 comprising the steps of (a) directing a stream of feed gas comprising SO 2 and O 2, to a catalytically active material (b) oxidizing an amount of said SO 2 in said process gas to SO 3 in the presence of at least 0.1% water and the catalytically active material, providing a first oxidized process gas (c) reacting SO 3 with water in a condensing column, (d) condensing H 2 SO 4 in a condenser (e) withdrawing a first desulphurized process gas and a first stream of sulphuric acid (f) from the desulphurized process gas withdrawing a recycle stream of desulphurized process gas wherein the recycle stream is added to said stream of feed gas or said first oxidized process gas. (a) directing a stream of feed gas comprising SO 2 and O 2, to a catalytically active material (b) oxidizing an amount of said SO 2 in said process gas to SO 3 (c) reacting SO 3 with water in a condensing column, (d) condensing H 2 SO 4 in a condenser (e) withdrawing a first desulphurized process gas and a first stream of sulphuric acid (f) from the desulphurized process gas withdrawing a recycle stream of desulphurized process gas wherein the recycle stream is added to said stream of feed gas or said first oxidized process gas.