mhurhangee/ep-ind-claims huggingface dataset:
A computer system (FIG. 1) comprising a plurality of computer modules each of which comprising a baseboard management controller, comprising: a state machine for monitoring a power state of power of each of the computer modules and a state of the baseboard management controller of the computer module; a plurality of modules of shared sections to be shared among the computer modules; and a plurality of switches corresponding to the modules of shared sections for selecting one of the baseboard management controllers and for establishing connections between the baseboard management controllers and the modules of shared sections, characterized in that: at occurrence of an abnormality in the power state of any one of the computer modules or in the baseboard management controller of any one of the computer modules the state machine, constituted by a hardware circuit (4010, 4011, 4012, 4013, 4014, 4020, 4021, 4022, 4100, 4101), dynamically conducts a switching operation to designate one of the baseboard management controllers without disposing any dedicated module independent of other computer modules, to monitor sensors of the modules of shared sections. a state machine for monitoring a power state of power of each of the computer modules and a state of the baseboard management controller of the computer module; a plurality of modules of shared sections to be shared among the computer modules; and a plurality of switches corresponding to the modules of shared sections for selecting one of the baseboard management controllers and for establishing connections between the baseboard management controllers and the modules of shared sections, characterized in that: at occurrence of an abnormality in the power state of any one of the computer modules or in the baseboard management controller of any one of the computer modules the state machine, constituted by a hardware circuit (4010, 4011, 4012, 4013, 4014, 4020, 4021, 4022, 4100, 4101), dynamically conducts a switching operation to designate one of the baseboard management controllers without disposing any dedicated module independent of other computer modules, to monitor sensors of the modules of shared sections. at occurrence of an abnormality in the power state of any one of the computer modules or in the baseboard management controller of any one of the computer modules the state machine, constituted by a hardware circuit (4010, 4011, 4012, 4013, 4014, 4020, 4021, 4022, 4100, 4101), dynamically conducts a switching operation to designate one of the baseboard management controllers without disposing any dedicated module independent of other computer modules, to monitor sensors of the modules of shared sections.
A method for modifying film oxygen transmittance rate of a solid film or coat comprising or consisting nanocrystalline cellulose, the method comprising: - forming onto at least a surface region of a substrate a film or a coat of a formulation comprising (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; the additive composition consisting at least one -OH-rich material selected from sorbitol, polyvinyl alcohol (PVOH), polycarboxylate ether, carbohydrates and borax, and at least one hygroscopic material selected from cellulosic materials, carbohydrates, alcohols, acids and inorganic salts, wherein the ratio of the at least one OH-rich material to the at least one hygroscopic material is from 0.01:1 to 1:0.01 (w/w), and - allowing said film or coat to form into a solid film or coat; wherein the oxygen transmittance rate is modified in relation to a film or a coat consisting NCC. - forming onto at least a surface region of a substrate a film or a coat of a formulation comprising (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; the additive composition consisting at least one -OH-rich material selected from sorbitol, polyvinyl alcohol (PVOH), polycarboxylate ether, carbohydrates and borax, and at least one hygroscopic material selected from cellulosic materials, carbohydrates, alcohols, acids and inorganic salts, wherein the ratio of the at least one OH-rich material to the at least one hygroscopic material is from 0.01:1 to 1:0.01 (w/w), and (a) NCC, (b) an additive composition and (c) at least one crosslinking agent and optionally at least one catalyst; - allowing said film or coat to form into a solid film or coat;
A peptide derived from a heat shock family 70 protein (HSP70 protein), said peptide having a length of from 15 to less than 30 amino acids and comprising the amino acid sequence of one of SEQ ID No. 3 or 4, for use in the treatment and/or prevention of inflammatory diseases or autoimmune diseases.
A component mounter which is equipped with a camera to take images of components (A-D) being held on suction nozzles illuminated by a light source from below and an image processing means to process the image signal of said camera in order to recognize the pickup position of the components (A-D); and which mounts said components on a circuit board considering the deviation of the pickup position of said components (A-D) with respect to said suction nozzles based on the recognition results of the said image processing means; characterized in that the component mounter is equipped with a recognized position deviation correction means for correcting the deviation in the recognized position of said components (A-D) due to the positional relationship between the component (A-D) and the light source, wherein the position deviation correction means is configured to consider the deviation in the recognized position of said components (A-D) of which an image is taken by said camera caused by the changing light and dark condition of the component (A-D) from said light source due to the positional relationship between the light source and said components (A-D) being held by the suction nozzles; wherein the field of view of the camera and the center of the light source are aligned; wherein the position deviation correction means is configured to correct the deviation in the recognized position of said components due to the positional relationship between the component (A-D) and the center of the light source, when an image is taken of all the components held by the nozzles at the same time with the center of the mounting head having the nozzles being aligned with the center of the field of view of the camera and the center of the light source; wherein the component mounter comprises a memorizing means for memorizing the data of the recognized position deviation amount measured by a recognized position deviation amount measuring means or for memorizing tables containing said recognized position deviation amounts as parameters which represent the positional relationship between a component (A-D) being held on a suction nozzle and said light source; wherein the said recognized position deviation correction means corrects the deviation in the recognized position of the components (A-D) being held by said suction nozzles by reading the data of the recognized position deviation amount from the said memorizing means during production.
A method of forming a bus bar pad comprising, in the following order: providing an optical device comprising material layers including a lower transparent conductor layer, an electrochromic device stack and an upper transparent conductor layer, disposed on a substantially transparent substrate; removing one or more of the material layers of the optical device disposed over the lower transparent conductor layer to form a bus bar pad expose area along a side of the substantially transparent substrate, wherein a bus bar pad expose area is a surface where a bus bar can be applied; removing material from the lower transparent conductor layer to form spaced punch through areas within the bus bar pad expose area, wherein the spaced punch through areas are spaced apart from each other along a length of the bus bar pad expose area; and filling the spaced punch through areas with a material to form a bus bar, optionally wherein the bus bar material is a conductive ink or a solder material. providing an optical device comprising material layers including a lower transparent conductor layer, an electrochromic device stack and an upper transparent conductor layer, disposed on a substantially transparent substrate; removing one or more of the material layers of the optical device disposed over the lower transparent conductor layer to form a bus bar pad expose area along a side of the substantially transparent substrate, wherein a bus bar pad expose area is a surface where a bus bar can be applied; removing material from the lower transparent conductor layer to form spaced punch through areas within the bus bar pad expose area, wherein the spaced punch through areas are spaced apart from each other along a length of the bus bar pad expose area; and filling the spaced punch through areas with a material to form a bus bar, optionally wherein the bus bar material is a conductive ink or a solder material.
A procatalyst for polymerization of olefins, which comprises the compound represented by Formula A, preferably the Fischer projection of formula A, as an internal electron donor, wherein: R 94, R 95, R 96, R 97, R 98, and R 99 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having 1 to 20 carbon atoms; each R 93 group is independently aryl having 6 to 12 carbon atoms, more preferably phenyl. wherein: R 94, R 95, R 96, R 97, R 98, and R 99 are each independently selected from hydrogen or a linear, branched or cyclic hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, or alkylaryl groups, and one or more combinations thereof, preferably having 1 to 20 carbon atoms; each R 93 group is independently aryl having 6 to 12 carbon atoms, more preferably phenyl.
A cylindrical pressurised refill canister having an axis extending in an axial direction and containing a reservoir of composition including a propellant and a nicotine or a pharmaceutically acceptable derivative or salt thereof, the reservoir being at a pressure of greater than 400kPa at 20°C, and the canister having a refill outlet valve comprising a stem with an axial bore; characterised in that the axial bore is open at the axial end furthest from the reservoir to provide an outlet which discharges the composition in the axial direction, wherein the stem is displaceable from a closed position to which it is biased by a first resilient member with a spring force of greater than 10N when no external force is applied to a dispensing position against the action of the first resilient member to open a flow path from the reservoir to the outlet; and the outer diameter of the stem being greater than 3mm.
A swirler for a gas turbine engine, the swirler comprising: a swirler body with a threaded section and a multiple of circumferentially arranged tabs operable to flex radially outward, said multiple of circumferentially arranged tabs radially displaced from said threaded section, wherein said threaded section and said multiple of circumferentially arranged tabs are configured to detachably engage with a bulkhead support shell of a combustor.
A system for sensing stress in a ferromagnetic material, said system comprising: at least one magnetic flux device configured to induce a first conditioning magnetic flux in the ferromagnetic material; and a sensor positioned proximate to the ferromagnetic material, said sensor comprising: a core; at least one excitation coil configured to induce a second magnetic flux in the ferromagnetic material, wherein the at least one excitation coil is wrapped around the core and is configured to be driven simultaneously by both a direct current source and an alternating current source; and wherein the at least one excitation coil is configured to be operated simultaneously as an excitation coil and as a detector configured to detect changes in the second magnetic flux caused by stress applied to the ferromagnetic material. at least one magnetic flux device configured to induce a first conditioning magnetic flux in the ferromagnetic material; and a sensor positioned proximate to the ferromagnetic material, said sensor comprising: a core; at least one excitation coil configured to induce a second magnetic flux in the ferromagnetic material, wherein the at least one excitation coil is wrapped around the core and is configured to be driven simultaneously by both a direct current source and an alternating current source; and wherein the at least one excitation coil is configured to be operated simultaneously as an excitation coil and as a detector configured to detect changes in the second magnetic flux caused by stress applied to the ferromagnetic material. a core; at least one excitation coil configured to induce a second magnetic flux in the ferromagnetic material, wherein the at least one excitation coil is wrapped around the core and is configured to be driven simultaneously by both a direct current source and an alternating current source; and wherein the at least one excitation coil is configured to be operated simultaneously as an excitation coil and as a detector configured to detect changes in the second magnetic flux caused by stress applied to the ferromagnetic material.
A control device comprising: a reception unit configured to receive a message; a replication determination unit configured to determine whether the received message is one of messages that are replicated by another control device, each of the messages being transmitted by the another control device to the control device via each differing route; and a recording instruction unit (197, 198) configured to instruct recording of difference information indicative of a difference between a recorded message of the messages and the received message when the received message is one of the messages, and instruct recording of the received message when the received message is not one of the messages. a reception unit configured to receive a message; a replication determination unit configured to determine whether the received message is one of messages that are replicated by another control device, each of the messages being transmitted by the another control device to the control device via each differing route; and a recording instruction unit (197, 198) configured to instruct recording of difference information indicative of a difference between a recorded message of the messages and the received message when the received message is one of the messages, and instruct recording of the received message when the received message is not one of the messages.
A retroreflective article comprising a plurality of light transmissive cube-comer elements comprising the reaction product of a polymerizable resin comprising at least 2 wt-% of a (meth)acrylate functional nitrogen-containing ingredient, and a layer which is adjacent to the cube-comer elements, wherein the layer is selected from a body layer, a seal film layer, and combinations thereof. a plurality of light transmissive cube-comer elements comprising the reaction product of a polymerizable resin comprising at least 2 wt-% of a (meth)acrylate functional nitrogen-containing ingredient, and a layer which is adjacent to the cube-comer elements, wherein the layer is selected from a body layer, a seal film layer, and combinations thereof.
A photographing apparatus which measures movements of an eye to be inspected, comprising: a scanning unit adapted to scan measuring light to acquire tomographic images of the eye to be inspected; a fundus image acquisition unit adapted to acquire a plurality of fundus images; a recording unit; a control unit (201, 203) adapted to extract a plurality of characteristic images (T1 to T4) in an initial fundus image of the eye to be inspected, the control unit being further adapted to record the plurality of characteristic images (T1 to T4) extracted from the initial fundus image in the recording unit; and a measuring unit adapted to measure the movements of the eye to be inspected, by executing matching using each of the plurality of recorded characteristic images (T1 to T4) and each of a corresponding plurality of characteristic images (T1-1 to T4-4) extracted from a further fundus image (S-1, S-2, S-3, S-4) of the eye to be inspected and acquired at a different time, the control unit (201, 203) being further adapted to control the scanning unit based on each of the movements of the eye to be inspected, characterized in that the measuring unit is further adapted to measure the movements of the eye to be inspected according to an order in which the corresponding plurality of characteristic images (T1-1 to T4-4) is extracted while the fundus image acquisition unit is acquiring said further fundus image (S-1, S-2, S-3, S-4), the order being an order of increasing distance from a scan start position of said further fundus image (S-1, S-2, S-3, S-4). a scanning unit adapted to scan measuring light to acquire tomographic images of the eye to be inspected; a fundus image acquisition unit adapted to acquire a plurality of fundus images; a recording unit; a control unit (201, 203) adapted to extract a plurality of characteristic images (T1 to T4) in an initial fundus image of the eye to be inspected, the control unit being further adapted to record the plurality of characteristic images (T1 to T4) extracted from the initial fundus image in the recording unit; and a measuring unit adapted to measure the movements of the eye to be inspected, by executing matching using each of the plurality of recorded characteristic images (T1 to T4) and each of a corresponding plurality of characteristic images (T1-1 to T4-4) extracted from a further fundus image (S-1, S-2, S-3, S-4) of the eye to be inspected and acquired at a different time, the control unit (201, 203) being further adapted to control the scanning unit based on each of the movements of the eye to be inspected, characterized in that the measuring unit is further adapted to measure the movements of the eye to be inspected according to an order in which the corresponding plurality of characteristic images (T1-1 to T4-4) is extracted while the fundus image acquisition unit is acquiring said further fundus image (S-1, S-2, S-3, S-4), the order being an order of increasing distance from a scan start position of said further fundus image (S-1, S-2, S-3, S-4).
A method for hybrid automatic repeat request, HARQ, timing in full duplex radio, FDR, in a wireless transmit/receive unit, WTRU, the method comprising: receiving, by the WTRU, an indication of a time division duplex, TDD, uplink/downlink, UL/DL, configuration associated with a first HARQ process timing, the method being characterised by receiving, by the WTRU, a downlink, DL, grant in a DL subframe, wherein the WTRU is configured with two or more search spaces for receiving DL control channels; applying, by the WTRU, the first HARQ process timing to a first HARQ process on a condition that the DL grant is received in a first search space of the two or more search spaces; and applying, by the WTRU, a second HARQ process timing to a the HARQ process on a condition that the DL grant is received in a second search space of the two or more search spaces. receiving, by the WTRU, an indication of a time division duplex, TDD, uplink/downlink, UL/DL, configuration associated with a first HARQ process timing, the method being characterised by receiving, by the WTRU, a downlink, DL, grant in a DL subframe, wherein the WTRU is configured with two or more search spaces for receiving DL control channels; applying, by the WTRU, the first HARQ process timing to a first HARQ process on a condition that the DL grant is received in a first search space of the two or more search spaces; and applying, by the WTRU, a second HARQ process timing to a the HARQ process on a condition that the DL grant is received in a second search space of the two or more search spaces.
A PET (Positron Emission Tomography)-MRI (Magnetic Resonance Imaging) apparatus, comprising: a magnetostatic magnet configured to be a seamless structure and generate a static magnetic field in a bore having a cylindrical shape; a transmitting radio frequency coil configured to apply a radio frequency pulse on a subject placed in the static magnetic field; a gradient coil configured to apply a gradient magnetic field on the subject on which the radio frequency pulse is applied; a receiving radio frequency coil configured to detect a magnetic resonance signal emitted from the subject due to application of the radio frequency pulse and the gradient magnetic field on the subject; an MR image reconstruction unit configured to reconstruct an MR image based on the magnetic resonance signal detected by the receiving radio frequency coil; a first detector (13a, 33a) and a second detector (13b, 33b) each configured to have a ring shape and detect gamma rays emitted from a positron emitting radionuclide injected into the subject; and a PET image reconstruction unit configured to reconstruct a PET image from projection data produced based on the gamma rays detected by the first and the second detectors (13a, 13b, 33a, 33b), characterized in that the first and the second detectors (13a, 13b, 33a, 33b) are spaced apart in an axial direction of the bore with a space therebetween encompassing a center of the static magnetic field, the space being configured to avoid the effective imaging region of the MR image. a magnetostatic magnet configured to be a seamless structure and generate a static magnetic field in a bore having a cylindrical shape; a transmitting radio frequency coil configured to apply a radio frequency pulse on a subject placed in the static magnetic field; a gradient coil configured to apply a gradient magnetic field on the subject on which the radio frequency pulse is applied; a receiving radio frequency coil configured to detect a magnetic resonance signal emitted from the subject due to application of the radio frequency pulse and the gradient magnetic field on the subject; an MR image reconstruction unit configured to reconstruct an MR image based on the magnetic resonance signal detected by the receiving radio frequency coil; a first detector (13a, 33a) and a second detector (13b, 33b) each configured to have a ring shape and detect gamma rays emitted from a positron emitting radionuclide injected into the subject; and a PET image reconstruction unit configured to reconstruct a PET image from projection data produced based on the gamma rays detected by the first and the second detectors (13a, 13b, 33a, 33b), characterized in that the first and the second detectors (13a, 13b, 33a, 33b) are spaced apart in an axial direction of the bore with a space therebetween encompassing a center of the static magnetic field, the space being configured to avoid the effective imaging region of the MR image.
Peptide, wherein the peptide is a cyclic peptide, and the peptide comprises: a. at least one amino acid sequence of at least 6 amino acids adjacently present in SEQ ID NO: 2 and/or b. at least one amino acid sequence having substitution, deletion and/or insertion of at most 1 amino acid in said amino acid of at least 6 amino acids adjacently present in SEQ ID NO: 2. a. at least one amino acid sequence of at least 6 amino acids adjacently present in SEQ ID NO: 2 and/or b. at least one amino acid sequence having substitution, deletion and/or insertion of at most 1 amino acid in said amino acid of at least 6 amino acids adjacently present in SEQ ID NO: 2.